///
///
///
///
/**
* Type Definitions for Gjs (https://gjs.guide/)
*
* These type definitions are automatically generated, do not edit them by hand.
* If you found a bug fix it in `ts-for-gir` or create a bug report on https://github.com/gjsify/ts-for-gir
*
* The based EJS template file is used for the generated .d.ts file of each GIR module like Gtk-4.0, GObject-2.0, ...
*/
declare module 'gi://Dee?version=1.0' {
// Module dependencies
import type Gio from 'gi://Gio?version=2.0';
import type GObject from 'gi://GObject?version=2.0';
import type GLib from 'gi://GLib?version=2.0';
import type GModule from 'gi://GModule?version=2.0';
export namespace Dee {
/**
* Dee-1.0
*/
/**
* Error codes for the ICU extension to Dee. These codes will be set when the
* error domain is #DEE_ICU_ERROR.
*/
class ICUError extends GLib.Error {
static $gtype: GObject.GType;
// Static fields
/**
* Error parsing a transliteration rule
*/
static BAD_RULE: number;
/**
* Error parsing a transliterator system id
*/
static BAD_ID: number;
/**
* The ICU subsystem returned an error that is not
* handled in Dee
*/
static UNKNOWN: number;
// Constructors
constructor(options: { message: string; code: number });
_init(...args: any[]): void;
}
/**
* Enumeration defining behavior of the model with regards to writes from
* other peers in the swarm.
*/
/**
* Enumeration defining behavior of the model with regards to writes from
* other peers in the swarm.
*/
export namespace SharedModelAccessMode {
export const $gtype: GObject.GType;
}
enum SharedModelAccessMode {
WORLD_WRITABLE,
LEADER_WRITABLE,
}
export namespace SharedModelError {
export const $gtype: GObject.GType;
}
enum SharedModelError {
SHARED_MODEL_ERROR_LEADER_INVALIDATED,
}
/**
* Enumeration defining flushing behavior of a shared model.
*/
/**
* Enumeration defining flushing behavior of a shared model.
*/
export namespace SharedModelFlushMode {
export const $gtype: GObject.GType;
}
enum SharedModelFlushMode {
AUTOMATIC,
MANUAL,
}
/**
* Error codes for the #DeeTransaction class. These codes will be set when the
* error domain is #DEE_TRANSACTION_ERROR.
*/
/**
* Error codes for the #DeeTransaction class. These codes will be set when the
* error domain is #DEE_TRANSACTION_ERROR.
*/
export namespace TransactionError {
export const $gtype: GObject.GType;
}
enum TransactionError {
/**
* The target model has been
* modified while the transaction was open.
*/
CONCURRENT_MODIFICATION,
/**
* Raised when someone tries to commit a
* transaction that has already been committed
*/
COMMITTED,
}
const PEER_DBUS_IFACE: string;
/**
* String constant defining the name of the DBus Model interface.
*/
const SEQUENCE_MODEL_DBUS_IFACE: string;
/**
* String constant defining the name of the DBus Model interface.
*/
const SHARED_MODEL_DBUS_IFACE: string;
/**
* Create a new #DeeFilter with the given parameters. This call will zero
* the `out_filter` struct.
* @param map_func The #DeeFilterMapFunc to use for the filter
* @param map_notify The #DeeFilterMapNotify to use for the filter
* @param destroy The #GDestroyNotify to call on @userdata when disposing of the filter
*/
function filter_new(
map_func: FilterMapFunc,
map_notify: FilterMapNotify,
destroy: GLib.DestroyNotify | null,
): Filter;
/**
* Create a #DeeFilter that takes string values from a column in the model
* and builds a #DeeFilterModel with the rows sorted according to the
* collation rules of the current locale.
* @param column The index of a column containing the strings to sort after
*/
function filter_new_collator(column: number): Filter;
/**
* Create a #DeeFilter that takes string values from a column in the model
* and builds a #DeeFilterModel with the rows sorted descending according to the
* collation rules of the current locale.
* @param column The index of a column containing the strings to sort after
*/
function filter_new_collator_desc(column: number): Filter;
/**
* Create a #DeeFilter that only includes rows from the original model
* which match a variant value in a given column. A #DeeFilterModel
* created with this filter will be ordered in accordance with its parent model.
*
* This method will work on any column, disregarding its schema, since the
* value comparison is done using g_variant_equal(). This means you can use
* this filter as a convenient fallback when there is no predefined filter
* for your column type if raw performance is not paramount.
* @param column The index of a column containing the string to match
* @param value A #GVariant value columns must match exactly. The matching semantics are those of g_variant_equal(). If @value is floating the ownership will be transfered to the filter
*/
function filter_new_for_any_column(column: number, value: GLib.Variant): Filter;
/**
* Create a #DeeFilter that only includes rows from the original model
* which has an exact match on some string column. A #DeeFilterModel created
* with this filter will be ordered in accordance with its parent model.
* @param column The index of a column containing the string key to match
* @param key
*/
function filter_new_for_key_column(column: number, key: string): Filter;
/**
* Create a #DeeFilter that only includes rows from the original model
* which match a regular expression on some string column. A #DeeFilterModel
* created with this filter will be ordered in accordance with its parent model.
* @param column The index of a column containing the string to match
* @param regex The regular expression @column must match
*/
function filter_new_regex(column: number, regex: GLib.Regex): Filter;
/**
* Create a new #DeeFilter sorting a model according to a #DeeCompareRowFunc.
* @param cmp_row A #DeeCompareRowFunc to use for sorting
* @param cmp_destroy The #GDestroyNotify to call on @cmp_user_data when disposing of the filter
*/
function filter_new_sort(cmp_row: CompareRowFunc, cmp_destroy: GLib.DestroyNotify | null): Filter;
function icu_error_quark(): GLib.Quark;
/**
* Create a new #DeeModelReader with the given parameters. This call will zero
* the `out_reader` struct.
* @param reader_func The #DeeModelReaderFunc to use for the reader
* @param destroy The #GDestroyNotify to call on @userdata when disposing of the reader
*/
function model_reader_new(reader_func: ModelReaderFunc, destroy: GLib.DestroyNotify | null): ModelReader;
/**
* A #DeeModelReader reading a %gint32 from a #DeeModel at a given column
* @param column The column index to read a %gint32 from
*/
function model_reader_new_for_int32_column(column: number): ModelReader;
/**
* A #DeeModelReader reading a string from a #DeeModel at a given column
* @param column The column index to read a string from
*/
function model_reader_new_for_string_column(column: number): ModelReader;
/**
* A #DeeModelReader reading a %guint32 from a #DeeModel at a given column
* @param column The column index to read a %guint32 from
*/
function model_reader_new_for_uint32_column(column: number): ModelReader;
/**
* Get a pointer to the platform default #DeeResourceManager.
* @returns The default resource manager for the platform. Do not unreference. If you need to keep the instance around you must manually reference it.
*/
function resource_manager_get_default(): ResourceManager;
/**
* Reconstruct a #DeeSerializable from #GVariant data. For this function
* to work you need to register a parser with
* dee_serializable_register_parser(). Any native Dee class will do so
* automatically.
*
* This method only works on data created with dee_serializable_serialize()
* and not with data from dee_serializable_externalize().
*
* Since a #DeeSerializableParseFunc is not allowed to fail - by contract -
* it can be guaranteed that this function only returns %NULL in case there
* is no known parser for `type` and #GVariant signature of `data`.
* @param data The #GVariant data to parse. If this is a floating reference it will be consumed
* @param type The #GType of the class to instantiate from @data
* @returns A newly constructed #GObject build from @data or %NULL in case no parser has been registered for the given #GType or variant signature. Free with g_object_unref().
*/
function serializable_parse(data: GLib.Variant, type: GObject.GType): T;
/**
* Reconstruct a #DeeSerializable from #GVariant data. For this function
* to work you need to register a parser with
* dee_serializable_register_parser(). Any native Dee class will do so
* automatically.
*
* This method only works on data created with dee_serializable_externalize()
* and not with data from dee_serializable_serialize().
*
* Since a #DeeSerializableParseFunc is not allowed to fail - by contract -
* it can be guaranteed that this function only returns %NULL in case there
* is no known parser for the #GType or #GVariant signature of `data`.
* @param data The #GVariant data to parse
* @returns A newly constructed #GObject build from @data or %NULL in case no parser has been registered for the given #GType or variant signature. Free with g_object_unref().
*/
function serializable_parse_external(data: GLib.Variant): T;
interface CollatorFunc {
(input: string): string;
}
interface CompareRowFunc {
(row1: GLib.Variant[], row2: GLib.Variant[]): number;
}
interface CompareRowSizedFunc {
(row1: GLib.Variant[], row2: GLib.Variant[]): number;
}
interface FilterMapFunc {
(orig_model: Model, filter_model: FilterModel): void;
}
interface FilterMapNotify {
(orig_model: Model, orig_iter: ModelIter, filter_model: FilterModel): boolean;
}
interface IndexIterFunc {
(key: string, rows: ResultSet): boolean;
}
interface ModelReaderFunc {
(model: Model, iter: ModelIter): string;
}
interface SerializableParseFunc {
(data: GLib.Variant): GObject.Object;
}
interface TermFilterFunc {
(terms_in: TermList, terms_out: TermList): void;
}
/**
* Flags passed to dee_index_lookup() to control how matching is done.
* Note that it is not required that index backends support more than just
* #DEE_TERM_MATCH_EXACT.
*
* You can query for the supported flags with
* dee_index_get_supported_term_match_flags().
*/
/**
* Flags passed to dee_index_lookup() to control how matching is done.
* Note that it is not required that index backends support more than just
* #DEE_TERM_MATCH_EXACT.
*
* You can query for the supported flags with
* dee_index_get_supported_term_match_flags().
*/
export namespace TermMatchFlag {
export const $gtype: GObject.GType;
}
enum TermMatchFlag {
/**
* Match terms byte for byte as specified in the
* query string
*/
EXACT,
/**
* Match if the indexed term begins with the byte string
* being queried by. This is also sometimes known as
* truncated- or wildcard queries
*/
PREFIX,
}
module Analyzer {
// Constructor properties interface
interface ConstructorProps extends GObject.Object.ConstructorProps {}
}
/**
* All fields in the DeeAnalyzer structure are private and should never be
* accessed directly
*/
class Analyzer extends GObject.Object {
static $gtype: GObject.GType;
// Constructors
constructor(properties?: Partial, ...args: any[]);
_init(...args: any[]): void;
static ['new'](): Analyzer;
// Static methods
/**
* A #GCompareDataFunc using a #DeeAnalyzer to compare the keys. This is just
* a convenience wrapper around dee_analyzer_collate_cmp().
* @param key1 The first key to compare
* @param key2 The second key to compare
* @param analyzer The #DeeAnalyzer to use for the comparison
*/
static collate_cmp_func(key1: string, key2: string, analyzer?: any | null): number;
// Virtual methods
/**
* Register a #DeeTermFilterFunc to be called whenever dee_analyzer_analyze()
* is called.
*
* Term filters can be used to normalize, add, or remove terms from an input
* data stream.
* @param filter_func Function to call
* @param filter_destroy Called on @filter_data when the #DeeAnalyzer owning the filter is destroyed
*/
vfunc_add_term_filter(filter_func: TermFilterFunc, filter_destroy?: GLib.DestroyNotify | null): void;
/**
* Extract terms and or collation keys from some input data (which is normally,
* but not necessarily, a UTF-8 string).
*
* The terms and corresponding collation keys will be written in order to the
* provided #DeeTermLists.
*
* Implementation notes for subclasses:
* The analysis process must call dee_analyzer_tokenize() and run the tokens
* through all term filters added with dee_analyzer_add_term_filter().
* Collation keys must be generated with dee_analyzer_collate_key().
* @param data The input data to analyze
* @param terms_out A #DeeTermList to place the generated terms in. If %NULL to terms are generated
* @param colkeys_out A #DeeTermList to place generated collation keys in. If %NULL no collation keys are generated
*/
vfunc_analyze(data: string, terms_out?: TermList | null, colkeys_out?: TermList | null): void;
/**
* Compare collation keys generated by dee_analyzer_collate_key() with similar
* semantics as strcmp(). See also dee_analyzer_collate_cmp_func() if you
* need a version of this function that works as a #GCompareDataFunc.
*
* The default implementation in #DeeAnalyzer just uses strcmp().
* @param key1 The first collation key to compare
* @param key2 The second collation key to compare
*/
vfunc_collate_cmp(key1: string, key2: string): number;
/**
* Generate a collation key for a set of input data (usually a UTF-8 string
* passed through tokenization and term filters of the analyzer).
*
* The default implementation just calls g_strdup().
* @param data The input data to generate a collation key for
*/
vfunc_collate_key(data: string): string;
/**
* Tokenize some input data (which is normally, but not necessarily,
* a UTF-8 string).
*
* Tokenization splits the input data into constituents (in most cases words),
* but does not run it through any of the term filters set for the analyzer.
* It is undefined if the tokenization process itself does any normalization.
* @param data The input data to analyze
* @param terms_out A #DeeTermList to place the generated tokens in.
*/
vfunc_tokenize(data: string, terms_out: TermList): void;
// Methods
/**
* Register a #DeeTermFilterFunc to be called whenever dee_analyzer_analyze()
* is called.
*
* Term filters can be used to normalize, add, or remove terms from an input
* data stream.
* @param filter_func Function to call
* @param filter_destroy Called on @filter_data when the #DeeAnalyzer owning the filter is destroyed
*/
add_term_filter(filter_func: TermFilterFunc, filter_destroy?: GLib.DestroyNotify | null): void;
/**
* Extract terms and or collation keys from some input data (which is normally,
* but not necessarily, a UTF-8 string).
*
* The terms and corresponding collation keys will be written in order to the
* provided #DeeTermLists.
*
* Implementation notes for subclasses:
* The analysis process must call dee_analyzer_tokenize() and run the tokens
* through all term filters added with dee_analyzer_add_term_filter().
* Collation keys must be generated with dee_analyzer_collate_key().
* @param data The input data to analyze
* @param terms_out A #DeeTermList to place the generated terms in. If %NULL to terms are generated
* @param colkeys_out A #DeeTermList to place generated collation keys in. If %NULL no collation keys are generated
*/
analyze(data: string, terms_out?: TermList | null, colkeys_out?: TermList | null): void;
/**
* Compare collation keys generated by dee_analyzer_collate_key() with similar
* semantics as strcmp(). See also dee_analyzer_collate_cmp_func() if you
* need a version of this function that works as a #GCompareDataFunc.
*
* The default implementation in #DeeAnalyzer just uses strcmp().
* @param key1 The first collation key to compare
* @param key2 The second collation key to compare
* @returns -1, 0 or 1, if @key1 is <, == or > than @key2.
*/
collate_cmp(key1: string, key2: string): number;
/**
* Generate a collation key for a set of input data (usually a UTF-8 string
* passed through tokenization and term filters of the analyzer).
*
* The default implementation just calls g_strdup().
* @param data The input data to generate a collation key for
* @returns A newly allocated collation key. Use dee_analyzer_collate_cmp() or dee_analyzer_collate_cmp_func() to compare collation keys. Free with g_free().
*/
collate_key(data: string): string;
/**
* Tokenize some input data (which is normally, but not necessarily,
* a UTF-8 string).
*
* Tokenization splits the input data into constituents (in most cases words),
* but does not run it through any of the term filters set for the analyzer.
* It is undefined if the tokenization process itself does any normalization.
* @param data The input data to analyze
* @param terms_out A #DeeTermList to place the generated tokens in.
*/
tokenize(data: string, terms_out: TermList): void;
}
module Client {
// Constructor properties interface
interface ConstructorProps extends Peer.ConstructorProps {
bus_address: string;
busAddress: string;
}
}
class Client extends Peer {
static $gtype: GObject.GType;
// Properties
get bus_address(): string;
get busAddress(): string;
// Constructors
constructor(properties?: Partial, ...args: any[]);
_init(...args: any[]): void;
static ['new'](swarm_name: string): Client;
static new_for_address(swarm_name: string, bus_address: string): Client;
}
module FileResourceManager {
// Constructor properties interface
interface ConstructorProps extends GObject.Object.ConstructorProps, ResourceManager.ConstructorProps {
primary_path: string;
primaryPath: string;
}
}
class FileResourceManager extends GObject.Object implements ResourceManager {
static $gtype: GObject.GType;
// Properties
/**
* Property holding the primary path used to store and load resources
*/
get primary_path(): string;
/**
* Property holding the primary path used to store and load resources
*/
get primaryPath(): string;
// Constructors
constructor(properties?: Partial, ...args: any[]);
_init(...args: any[]): void;
static ['new'](primary_path: string): FileResourceManager;
// Methods
/**
* Add a path to the set of paths searched for resources. The manager will
* first search the primary path as specified in the constructor and then
* search paths in the order they where added.
* @param path The path to add to the set of searched paths
*/
add_search_path(path: string): void;
/**
* Helper method to access the :primary-path property.
* @returns The value of the :primary-path property
*/
get_primary_path(): string;
// Inherited methods
/**
* Load a resource from persistent storage. The loaded resource will be of the
* same GType as when it was stored (provided that the same serialization and
* parse functions are registered).
*
* In case of an error the error will be in the #GFileError domain. Specifically
* if there is no resource with the name `resource_name` the error code will
* be #G_FILE_ERROR_NOENT.
*
* Important note: This call may do blocking IO. The resource manager must
* guarantee that this call is reasonably fast, like writing the externalized
* resource to a file, but not blocking IO over a network socket.
* @param resource_name The name of the resource to retrieve
* @returns A newly allocated #GObject in case of success and %NULL otherwise. In case of a runtime error the @error pointer will be set.
*/
load(resource_name: string): T;
/**
* Store a resource under a given name. The resource manager must guarantee
* that the stored data survives system reboots and that you can recreate a
* copy of `resource` by calling dee_resource_manager_load() using the
* same `resource_name`.
*
* Important note: This call may do blocking IO. The resource manager must
* guarantee that this call is reasonably fast, like writing the externalized
* resource to a file, but not blocking IO over a network socket.
* @param resource A #DeeSerializable to store under @resource_name
* @param resource_name The name to store the resource under. Will overwrite any existing resource with the same name
* @returns %TRUE on success and %FALSE otherwise. In case of a runtime error the @error pointer will point to a #GError in the #DeeResourceError domain.
*/
store(resource: Serializable, resource_name: string): boolean;
/**
* Load a resource from persistent storage. The loaded resource will be of the
* same GType as when it was stored (provided that the same serialization and
* parse functions are registered).
*
* In case of an error the error will be in the #GFileError domain. Specifically
* if there is no resource with the name `resource_name` the error code will
* be #G_FILE_ERROR_NOENT.
*
* Important note: This call may do blocking IO. The resource manager must
* guarantee that this call is reasonably fast, like writing the externalized
* resource to a file, but not blocking IO over a network socket.
* @param resource_name The name of the resource to retrieve
*/
vfunc_load(resource_name: string): T;
/**
* Store a resource under a given name. The resource manager must guarantee
* that the stored data survives system reboots and that you can recreate a
* copy of `resource` by calling dee_resource_manager_load() using the
* same `resource_name`.
*
* Important note: This call may do blocking IO. The resource manager must
* guarantee that this call is reasonably fast, like writing the externalized
* resource to a file, but not blocking IO over a network socket.
* @param resource A #DeeSerializable to store under @resource_name
* @param resource_name The name to store the resource under. Will overwrite any existing resource with the same name
*/
vfunc_store(resource: Serializable, resource_name: string): boolean;
/**
* Creates a binding between `source_property` on `source` and `target_property`
* on `target`.
*
* Whenever the `source_property` is changed the `target_property` is
* updated using the same value. For instance:
*
*
* ```c
* g_object_bind_property (action, "active", widget, "sensitive", 0);
* ```
*
*
* Will result in the "sensitive" property of the widget #GObject instance to be
* updated with the same value of the "active" property of the action #GObject
* instance.
*
* If `flags` contains %G_BINDING_BIDIRECTIONAL then the binding will be mutual:
* if `target_property` on `target` changes then the `source_property` on `source`
* will be updated as well.
*
* The binding will automatically be removed when either the `source` or the
* `target` instances are finalized. To remove the binding without affecting the
* `source` and the `target` you can just call g_object_unref() on the returned
* #GBinding instance.
*
* Removing the binding by calling g_object_unref() on it must only be done if
* the binding, `source` and `target` are only used from a single thread and it
* is clear that both `source` and `target` outlive the binding. Especially it
* is not safe to rely on this if the binding, `source` or `target` can be
* finalized from different threads. Keep another reference to the binding and
* use g_binding_unbind() instead to be on the safe side.
*
* A #GObject can have multiple bindings.
* @param source_property the property on @source to bind
* @param target the target #GObject
* @param target_property the property on @target to bind
* @param flags flags to pass to #GBinding
* @returns the #GBinding instance representing the binding between the two #GObject instances. The binding is released whenever the #GBinding reference count reaches zero.
*/
bind_property(
source_property: string,
target: GObject.Object,
target_property: string,
flags: GObject.BindingFlags | null,
): GObject.Binding;
/**
* Complete version of g_object_bind_property().
*
* Creates a binding between `source_property` on `source` and `target_property`
* on `target,` allowing you to set the transformation functions to be used by
* the binding.
*
* If `flags` contains %G_BINDING_BIDIRECTIONAL then the binding will be mutual:
* if `target_property` on `target` changes then the `source_property` on `source`
* will be updated as well. The `transform_from` function is only used in case
* of bidirectional bindings, otherwise it will be ignored
*
* The binding will automatically be removed when either the `source` or the
* `target` instances are finalized. This will release the reference that is
* being held on the #GBinding instance; if you want to hold on to the
* #GBinding instance, you will need to hold a reference to it.
*
* To remove the binding, call g_binding_unbind().
*
* A #GObject can have multiple bindings.
*
* The same `user_data` parameter will be used for both `transform_to`
* and `transform_from` transformation functions; the `notify` function will
* be called once, when the binding is removed. If you need different data
* for each transformation function, please use
* g_object_bind_property_with_closures() instead.
* @param source_property the property on @source to bind
* @param target the target #GObject
* @param target_property the property on @target to bind
* @param flags flags to pass to #GBinding
* @param transform_to the transformation function from the @source to the @target, or %NULL to use the default
* @param transform_from the transformation function from the @target to the @source, or %NULL to use the default
* @param notify a function to call when disposing the binding, to free resources used by the transformation functions, or %NULL if not required
* @returns the #GBinding instance representing the binding between the two #GObject instances. The binding is released whenever the #GBinding reference count reaches zero.
*/
bind_property_full(
source_property: string,
target: GObject.Object,
target_property: string,
flags: GObject.BindingFlags | null,
transform_to?: GObject.BindingTransformFunc | null,
transform_from?: GObject.BindingTransformFunc | null,
notify?: GLib.DestroyNotify | null,
): GObject.Binding;
// Conflicted with GObject.Object.bind_property_full
bind_property_full(...args: never[]): any;
/**
* This function is intended for #GObject implementations to re-enforce
* a [floating][floating-ref] object reference. Doing this is seldom
* required: all #GInitiallyUnowneds are created with a floating reference
* which usually just needs to be sunken by calling g_object_ref_sink().
*/
force_floating(): void;
/**
* Increases the freeze count on `object`. If the freeze count is
* non-zero, the emission of "notify" signals on `object` is
* stopped. The signals are queued until the freeze count is decreased
* to zero. Duplicate notifications are squashed so that at most one
* #GObject::notify signal is emitted for each property modified while the
* object is frozen.
*
* This is necessary for accessors that modify multiple properties to prevent
* premature notification while the object is still being modified.
*/
freeze_notify(): void;
/**
* Gets a named field from the objects table of associations (see g_object_set_data()).
* @param key name of the key for that association
* @returns the data if found, or %NULL if no such data exists.
*/
get_data(key: string): any | null;
get_property(property_name: string): any;
/**
* This function gets back user data pointers stored via
* g_object_set_qdata().
* @param quark A #GQuark, naming the user data pointer
* @returns The user data pointer set, or %NULL
*/
get_qdata(quark: GLib.Quark): any | null;
/**
* Gets `n_properties` properties for an `object`.
* Obtained properties will be set to `values`. All properties must be valid.
* Warnings will be emitted and undefined behaviour may result if invalid
* properties are passed in.
* @param names the names of each property to get
* @param values the values of each property to get
*/
getv(names: string[], values: (GObject.Value | any)[]): void;
/**
* Checks whether `object` has a [floating][floating-ref] reference.
* @returns %TRUE if @object has a floating reference
*/
is_floating(): boolean;
/**
* Emits a "notify" signal for the property `property_name` on `object`.
*
* When possible, eg. when signaling a property change from within the class
* that registered the property, you should use g_object_notify_by_pspec()
* instead.
*
* Note that emission of the notify signal may be blocked with
* g_object_freeze_notify(). In this case, the signal emissions are queued
* and will be emitted (in reverse order) when g_object_thaw_notify() is
* called.
* @param property_name the name of a property installed on the class of @object.
*/
notify(property_name: string): void;
/**
* Emits a "notify" signal for the property specified by `pspec` on `object`.
*
* This function omits the property name lookup, hence it is faster than
* g_object_notify().
*
* One way to avoid using g_object_notify() from within the
* class that registered the properties, and using g_object_notify_by_pspec()
* instead, is to store the GParamSpec used with
* g_object_class_install_property() inside a static array, e.g.:
*
*
* ```c
* typedef enum
* {
* PROP_FOO = 1,
* PROP_LAST
* } MyObjectProperty;
*
* static GParamSpec *properties[PROP_LAST];
*
* static void
* my_object_class_init (MyObjectClass *klass)
* {
* properties[PROP_FOO] = g_param_spec_int ("foo", NULL, NULL,
* 0, 100,
* 50,
* G_PARAM_READWRITE | G_PARAM_STATIC_STRINGS);
* g_object_class_install_property (gobject_class,
* PROP_FOO,
* properties[PROP_FOO]);
* }
* ```
*
*
* and then notify a change on the "foo" property with:
*
*
* ```c
* g_object_notify_by_pspec (self, properties[PROP_FOO]);
* ```
*
* @param pspec the #GParamSpec of a property installed on the class of @object.
*/
notify_by_pspec(pspec: GObject.ParamSpec): void;
/**
* Increases the reference count of `object`.
*
* Since GLib 2.56, if `GLIB_VERSION_MAX_ALLOWED` is 2.56 or greater, the type
* of `object` will be propagated to the return type (using the GCC typeof()
* extension), so any casting the caller needs to do on the return type must be
* explicit.
* @returns the same @object
*/
ref(): GObject.Object;
/**
* Increase the reference count of `object,` and possibly remove the
* [floating][floating-ref] reference, if `object` has a floating reference.
*
* In other words, if the object is floating, then this call "assumes
* ownership" of the floating reference, converting it to a normal
* reference by clearing the floating flag while leaving the reference
* count unchanged. If the object is not floating, then this call
* adds a new normal reference increasing the reference count by one.
*
* Since GLib 2.56, the type of `object` will be propagated to the return type
* under the same conditions as for g_object_ref().
* @returns @object
*/
ref_sink(): GObject.Object;
/**
* Releases all references to other objects. This can be used to break
* reference cycles.
*
* This function should only be called from object system implementations.
*/
run_dispose(): void;
/**
* Each object carries around a table of associations from
* strings to pointers. This function lets you set an association.
*
* If the object already had an association with that name,
* the old association will be destroyed.
*
* Internally, the `key` is converted to a #GQuark using g_quark_from_string().
* This means a copy of `key` is kept permanently (even after `object` has been
* finalized) — so it is recommended to only use a small, bounded set of values
* for `key` in your program, to avoid the #GQuark storage growing unbounded.
* @param key name of the key
* @param data data to associate with that key
*/
set_data(key: string, data?: any | null): void;
set_property(property_name: string, value: any): void;
/**
* Remove a specified datum from the object's data associations,
* without invoking the association's destroy handler.
* @param key name of the key
* @returns the data if found, or %NULL if no such data exists.
*/
steal_data(key: string): any | null;
/**
* This function gets back user data pointers stored via
* g_object_set_qdata() and removes the `data` from object
* without invoking its destroy() function (if any was
* set).
* Usually, calling this function is only required to update
* user data pointers with a destroy notifier, for example:
*
* ```c
* void
* object_add_to_user_list (GObject *object,
* const gchar *new_string)
* {
* // the quark, naming the object data
* GQuark quark_string_list = g_quark_from_static_string ("my-string-list");
* // retrieve the old string list
* GList *list = g_object_steal_qdata (object, quark_string_list);
*
* // prepend new string
* list = g_list_prepend (list, g_strdup (new_string));
* // this changed 'list', so we need to set it again
* g_object_set_qdata_full (object, quark_string_list, list, free_string_list);
* }
* static void
* free_string_list (gpointer data)
* {
* GList *node, *list = data;
*
* for (node = list; node; node = node->next)
* g_free (node->data);
* g_list_free (list);
* }
* ```
*
* Using g_object_get_qdata() in the above example, instead of
* g_object_steal_qdata() would have left the destroy function set,
* and thus the partial string list would have been freed upon
* g_object_set_qdata_full().
* @param quark A #GQuark, naming the user data pointer
* @returns The user data pointer set, or %NULL
*/
steal_qdata(quark: GLib.Quark): any | null;
/**
* Reverts the effect of a previous call to
* g_object_freeze_notify(). The freeze count is decreased on `object`
* and when it reaches zero, queued "notify" signals are emitted.
*
* Duplicate notifications for each property are squashed so that at most one
* #GObject::notify signal is emitted for each property, in the reverse order
* in which they have been queued.
*
* It is an error to call this function when the freeze count is zero.
*/
thaw_notify(): void;
/**
* Decreases the reference count of `object`. When its reference count
* drops to 0, the object is finalized (i.e. its memory is freed).
*
* If the pointer to the #GObject may be reused in future (for example, if it is
* an instance variable of another object), it is recommended to clear the
* pointer to %NULL rather than retain a dangling pointer to a potentially
* invalid #GObject instance. Use g_clear_object() for this.
*/
unref(): void;
/**
* This function essentially limits the life time of the `closure` to
* the life time of the object. That is, when the object is finalized,
* the `closure` is invalidated by calling g_closure_invalidate() on
* it, in order to prevent invocations of the closure with a finalized
* (nonexisting) object. Also, g_object_ref() and g_object_unref() are
* added as marshal guards to the `closure,` to ensure that an extra
* reference count is held on `object` during invocation of the
* `closure`. Usually, this function will be called on closures that
* use this `object` as closure data.
* @param closure #GClosure to watch
*/
watch_closure(closure: GObject.Closure): void;
/**
* the `constructed` function is called by g_object_new() as the
* final step of the object creation process. At the point of the call, all
* construction properties have been set on the object. The purpose of this
* call is to allow for object initialisation steps that can only be performed
* after construction properties have been set. `constructed` implementors
* should chain up to the `constructed` call of their parent class to allow it
* to complete its initialisation.
*/
vfunc_constructed(): void;
/**
* emits property change notification for a bunch
* of properties. Overriding `dispatch_properties_changed` should be rarely
* needed.
* @param n_pspecs
* @param pspecs
*/
vfunc_dispatch_properties_changed(n_pspecs: number, pspecs: GObject.ParamSpec): void;
/**
* the `dispose` function is supposed to drop all references to other
* objects, but keep the instance otherwise intact, so that client method
* invocations still work. It may be run multiple times (due to reference
* loops). Before returning, `dispose` should chain up to the `dispose` method
* of the parent class.
*/
vfunc_dispose(): void;
/**
* instance finalization function, should finish the finalization of
* the instance begun in `dispose` and chain up to the `finalize` method of the
* parent class.
*/
vfunc_finalize(): void;
/**
* the generic getter for all properties of this type. Should be
* overridden for every type with properties.
* @param property_id
* @param value
* @param pspec
*/
vfunc_get_property(property_id: number, value: GObject.Value | any, pspec: GObject.ParamSpec): void;
/**
* Emits a "notify" signal for the property `property_name` on `object`.
*
* When possible, eg. when signaling a property change from within the class
* that registered the property, you should use g_object_notify_by_pspec()
* instead.
*
* Note that emission of the notify signal may be blocked with
* g_object_freeze_notify(). In this case, the signal emissions are queued
* and will be emitted (in reverse order) when g_object_thaw_notify() is
* called.
* @param pspec
*/
vfunc_notify(pspec: GObject.ParamSpec): void;
/**
* the generic setter for all properties of this type. Should be
* overridden for every type with properties. If implementations of
* `set_property` don't emit property change notification explicitly, this will
* be done implicitly by the type system. However, if the notify signal is
* emitted explicitly, the type system will not emit it a second time.
* @param property_id
* @param value
* @param pspec
*/
vfunc_set_property(property_id: number, value: GObject.Value | any, pspec: GObject.ParamSpec): void;
disconnect(id: number): void;
set(properties: { [key: string]: any }): void;
block_signal_handler(id: number): any;
unblock_signal_handler(id: number): any;
stop_emission_by_name(detailedName: string): any;
}
module FilterModel {
// Constructor properties interface
interface ConstructorProps
extends ProxyModel.ConstructorProps,
Model.ConstructorProps,
Serializable.ConstructorProps {
filter: Filter;
}
}
/**
* All fields in the DeeFilterModel structure are private and should never be
* accessed directly
*/
class FilterModel extends ProxyModel implements Model, Serializable {
static $gtype: GObject.GType;
// Properties
/**
* Property holding the #DeeFilter used to filter the model
* defined in the #DeeFilterModel:back-end property.
*/
get filter(): Filter;
// Constructors
constructor(properties?: Partial, ...args: any[]);
_init(...args: any[]): void;
static ['new'](orig_model: Model, filter: Filter): FilterModel;
// Methods
/**
* Includes `iter` from the back end model in the filtered model, appending
* it to the end of the filtered rows.
*
* This method is usually called when implementing #DeeFilterMapFunc or
* #DeeFilterMapNotify methods.
* @param iter
* @returns Always returns @iter
*/
append_iter(iter: ModelIter): ModelIter;
/**
* Check if `iter` from the back end model is mapped in `self`.
* @param iter The #DeeModelIter to check
* @returns %TRUE if and only if @iter is contained in @self.
*/
contains(iter: ModelIter): boolean;
/**
* Includes `iter` from the back end model in the filtered model, inserting it at
* `pos` pushing other rows down.
*
* This method is usually called when implementing #DeeFilterMapFunc or
* #DeeFilterMapNotify methods.
* @param iter
* @param pos
* @returns Always returns @iter
*/
insert_iter(iter: ModelIter, pos: number): ModelIter;
/**
* Includes `iter` from the back end model in the filtered model, inserting it at
* the position before `pos` pushing other rows down.
*
* This method is usually called when implementing #DeeFilterMapFunc or
* #DeeFilterMapNotify methods.
* @param iter
* @param pos
* @returns Always returns @iter
*/
insert_iter_before(iter: ModelIter, pos: ModelIter): ModelIter;
/**
* Inserts `iter` in `self` in a way that is consistent with the ordering of the
* rows in the original #DeeModel behind `self`. THis method assumes that `self`
* is already ordered this way. If that's not the case then this method has
* undefined behaviour.
*
* This method is mainly intended as a helper for #DeeFilterMapNotify functions
* of #DeeFilter implementations that creates filter models sorted in
* accordance with the original models.
* @param iter Iterator
* @returns Always returns @iter
*/
insert_iter_with_original_order(iter: ModelIter): ModelIter;
/**
* Includes `iter` from the back end model in the filtered model, prepending
* it to the beginning of the filtered rows.
*
* This method is usually called when implementing #DeeFilterMapFunc or
* #DeeFilterMapNotify methods.
* @param iter
* @returns Always returns @iter
*/
prepend_iter(iter: ModelIter): ModelIter;
// Inherited methods
/**
* Creates a binding between `source_property` on `source` and `target_property`
* on `target`.
*
* Whenever the `source_property` is changed the `target_property` is
* updated using the same value. For instance:
*
*
* ```c
* g_object_bind_property (action, "active", widget, "sensitive", 0);
* ```
*
*
* Will result in the "sensitive" property of the widget #GObject instance to be
* updated with the same value of the "active" property of the action #GObject
* instance.
*
* If `flags` contains %G_BINDING_BIDIRECTIONAL then the binding will be mutual:
* if `target_property` on `target` changes then the `source_property` on `source`
* will be updated as well.
*
* The binding will automatically be removed when either the `source` or the
* `target` instances are finalized. To remove the binding without affecting the
* `source` and the `target` you can just call g_object_unref() on the returned
* #GBinding instance.
*
* Removing the binding by calling g_object_unref() on it must only be done if
* the binding, `source` and `target` are only used from a single thread and it
* is clear that both `source` and `target` outlive the binding. Especially it
* is not safe to rely on this if the binding, `source` or `target` can be
* finalized from different threads. Keep another reference to the binding and
* use g_binding_unbind() instead to be on the safe side.
*
* A #GObject can have multiple bindings.
* @param source_property the property on @source to bind
* @param target the target #GObject
* @param target_property the property on @target to bind
* @param flags flags to pass to #GBinding
* @returns the #GBinding instance representing the binding between the two #GObject instances. The binding is released whenever the #GBinding reference count reaches zero.
*/
bind_property(
source_property: string,
target: GObject.Object,
target_property: string,
flags: GObject.BindingFlags | null,
): GObject.Binding;
/**
* Complete version of g_object_bind_property().
*
* Creates a binding between `source_property` on `source` and `target_property`
* on `target,` allowing you to set the transformation functions to be used by
* the binding.
*
* If `flags` contains %G_BINDING_BIDIRECTIONAL then the binding will be mutual:
* if `target_property` on `target` changes then the `source_property` on `source`
* will be updated as well. The `transform_from` function is only used in case
* of bidirectional bindings, otherwise it will be ignored
*
* The binding will automatically be removed when either the `source` or the
* `target` instances are finalized. This will release the reference that is
* being held on the #GBinding instance; if you want to hold on to the
* #GBinding instance, you will need to hold a reference to it.
*
* To remove the binding, call g_binding_unbind().
*
* A #GObject can have multiple bindings.
*
* The same `user_data` parameter will be used for both `transform_to`
* and `transform_from` transformation functions; the `notify` function will
* be called once, when the binding is removed. If you need different data
* for each transformation function, please use
* g_object_bind_property_with_closures() instead.
* @param source_property the property on @source to bind
* @param target the target #GObject
* @param target_property the property on @target to bind
* @param flags flags to pass to #GBinding
* @param transform_to the transformation function from the @source to the @target, or %NULL to use the default
* @param transform_from the transformation function from the @target to the @source, or %NULL to use the default
* @param notify a function to call when disposing the binding, to free resources used by the transformation functions, or %NULL if not required
* @returns the #GBinding instance representing the binding between the two #GObject instances. The binding is released whenever the #GBinding reference count reaches zero.
*/
bind_property_full(
source_property: string,
target: GObject.Object,
target_property: string,
flags: GObject.BindingFlags | null,
transform_to?: GObject.BindingTransformFunc | null,
transform_from?: GObject.BindingTransformFunc | null,
notify?: GLib.DestroyNotify | null,
): GObject.Binding;
// Conflicted with GObject.Object.bind_property_full
bind_property_full(...args: never[]): any;
/**
* This function is intended for #GObject implementations to re-enforce
* a [floating][floating-ref] object reference. Doing this is seldom
* required: all #GInitiallyUnowneds are created with a floating reference
* which usually just needs to be sunken by calling g_object_ref_sink().
*/
force_floating(): void;
/**
* Increases the freeze count on `object`. If the freeze count is
* non-zero, the emission of "notify" signals on `object` is
* stopped. The signals are queued until the freeze count is decreased
* to zero. Duplicate notifications are squashed so that at most one
* #GObject::notify signal is emitted for each property modified while the
* object is frozen.
*
* This is necessary for accessors that modify multiple properties to prevent
* premature notification while the object is still being modified.
*/
freeze_notify(): void;
/**
* Gets a named field from the objects table of associations (see g_object_set_data()).
* @param key name of the key for that association
* @returns the data if found, or %NULL if no such data exists.
*/
get_data(key: string): any | null;
get_property(property_name: string): any;
/**
* This function gets back user data pointers stored via
* g_object_set_qdata().
* @param quark A #GQuark, naming the user data pointer
* @returns The user data pointer set, or %NULL
*/
get_qdata(quark: GLib.Quark): any | null;
/**
* Gets `n_properties` properties for an `object`.
* Obtained properties will be set to `values`. All properties must be valid.
* Warnings will be emitted and undefined behaviour may result if invalid
* properties are passed in.
* @param names the names of each property to get
* @param values the values of each property to get
*/
getv(names: string[], values: (GObject.Value | any)[]): void;
/**
* Checks whether `object` has a [floating][floating-ref] reference.
* @returns %TRUE if @object has a floating reference
*/
is_floating(): boolean;
/**
* Emits a "notify" signal for the property `property_name` on `object`.
*
* When possible, eg. when signaling a property change from within the class
* that registered the property, you should use g_object_notify_by_pspec()
* instead.
*
* Note that emission of the notify signal may be blocked with
* g_object_freeze_notify(). In this case, the signal emissions are queued
* and will be emitted (in reverse order) when g_object_thaw_notify() is
* called.
* @param property_name the name of a property installed on the class of @object.
*/
notify(property_name: string): void;
/**
* Emits a "notify" signal for the property specified by `pspec` on `object`.
*
* This function omits the property name lookup, hence it is faster than
* g_object_notify().
*
* One way to avoid using g_object_notify() from within the
* class that registered the properties, and using g_object_notify_by_pspec()
* instead, is to store the GParamSpec used with
* g_object_class_install_property() inside a static array, e.g.:
*
*
* ```c
* typedef enum
* {
* PROP_FOO = 1,
* PROP_LAST
* } MyObjectProperty;
*
* static GParamSpec *properties[PROP_LAST];
*
* static void
* my_object_class_init (MyObjectClass *klass)
* {
* properties[PROP_FOO] = g_param_spec_int ("foo", NULL, NULL,
* 0, 100,
* 50,
* G_PARAM_READWRITE | G_PARAM_STATIC_STRINGS);
* g_object_class_install_property (gobject_class,
* PROP_FOO,
* properties[PROP_FOO]);
* }
* ```
*
*
* and then notify a change on the "foo" property with:
*
*
* ```c
* g_object_notify_by_pspec (self, properties[PROP_FOO]);
* ```
*
* @param pspec the #GParamSpec of a property installed on the class of @object.
*/
notify_by_pspec(pspec: GObject.ParamSpec): void;
/**
* Increases the reference count of `object`.
*
* Since GLib 2.56, if `GLIB_VERSION_MAX_ALLOWED` is 2.56 or greater, the type
* of `object` will be propagated to the return type (using the GCC typeof()
* extension), so any casting the caller needs to do on the return type must be
* explicit.
* @returns the same @object
*/
ref(): GObject.Object;
/**
* Increase the reference count of `object,` and possibly remove the
* [floating][floating-ref] reference, if `object` has a floating reference.
*
* In other words, if the object is floating, then this call "assumes
* ownership" of the floating reference, converting it to a normal
* reference by clearing the floating flag while leaving the reference
* count unchanged. If the object is not floating, then this call
* adds a new normal reference increasing the reference count by one.
*
* Since GLib 2.56, the type of `object` will be propagated to the return type
* under the same conditions as for g_object_ref().
* @returns @object
*/
ref_sink(): GObject.Object;
/**
* Releases all references to other objects. This can be used to break
* reference cycles.
*
* This function should only be called from object system implementations.
*/
run_dispose(): void;
/**
* Each object carries around a table of associations from
* strings to pointers. This function lets you set an association.
*
* If the object already had an association with that name,
* the old association will be destroyed.
*
* Internally, the `key` is converted to a #GQuark using g_quark_from_string().
* This means a copy of `key` is kept permanently (even after `object` has been
* finalized) — so it is recommended to only use a small, bounded set of values
* for `key` in your program, to avoid the #GQuark storage growing unbounded.
* @param key name of the key
* @param data data to associate with that key
*/
set_data(key: string, data?: any | null): void;
set_property(property_name: string, value: any): void;
/**
* Remove a specified datum from the object's data associations,
* without invoking the association's destroy handler.
* @param key name of the key
* @returns the data if found, or %NULL if no such data exists.
*/
steal_data(key: string): any | null;
/**
* This function gets back user data pointers stored via
* g_object_set_qdata() and removes the `data` from object
* without invoking its destroy() function (if any was
* set).
* Usually, calling this function is only required to update
* user data pointers with a destroy notifier, for example:
*
* ```c
* void
* object_add_to_user_list (GObject *object,
* const gchar *new_string)
* {
* // the quark, naming the object data
* GQuark quark_string_list = g_quark_from_static_string ("my-string-list");
* // retrieve the old string list
* GList *list = g_object_steal_qdata (object, quark_string_list);
*
* // prepend new string
* list = g_list_prepend (list, g_strdup (new_string));
* // this changed 'list', so we need to set it again
* g_object_set_qdata_full (object, quark_string_list, list, free_string_list);
* }
* static void
* free_string_list (gpointer data)
* {
* GList *node, *list = data;
*
* for (node = list; node; node = node->next)
* g_free (node->data);
* g_list_free (list);
* }
* ```
*
* Using g_object_get_qdata() in the above example, instead of
* g_object_steal_qdata() would have left the destroy function set,
* and thus the partial string list would have been freed upon
* g_object_set_qdata_full().
* @param quark A #GQuark, naming the user data pointer
* @returns The user data pointer set, or %NULL
*/
steal_qdata(quark: GLib.Quark): any | null;
/**
* Reverts the effect of a previous call to
* g_object_freeze_notify(). The freeze count is decreased on `object`
* and when it reaches zero, queued "notify" signals are emitted.
*
* Duplicate notifications for each property are squashed so that at most one
* #GObject::notify signal is emitted for each property, in the reverse order
* in which they have been queued.
*
* It is an error to call this function when the freeze count is zero.
*/
thaw_notify(): void;
/**
* Decreases the reference count of `object`. When its reference count
* drops to 0, the object is finalized (i.e. its memory is freed).
*
* If the pointer to the #GObject may be reused in future (for example, if it is
* an instance variable of another object), it is recommended to clear the
* pointer to %NULL rather than retain a dangling pointer to a potentially
* invalid #GObject instance. Use g_clear_object() for this.
*/
unref(): void;
/**
* This function essentially limits the life time of the `closure` to
* the life time of the object. That is, when the object is finalized,
* the `closure` is invalidated by calling g_closure_invalidate() on
* it, in order to prevent invocations of the closure with a finalized
* (nonexisting) object. Also, g_object_ref() and g_object_unref() are
* added as marshal guards to the `closure,` to ensure that an extra
* reference count is held on `object` during invocation of the
* `closure`. Usually, this function will be called on closures that
* use this `object` as closure data.
* @param closure #GClosure to watch
*/
watch_closure(closure: GObject.Closure): void;
/**
* the `constructed` function is called by g_object_new() as the
* final step of the object creation process. At the point of the call, all
* construction properties have been set on the object. The purpose of this
* call is to allow for object initialisation steps that can only be performed
* after construction properties have been set. `constructed` implementors
* should chain up to the `constructed` call of their parent class to allow it
* to complete its initialisation.
*/
vfunc_constructed(): void;
/**
* emits property change notification for a bunch
* of properties. Overriding `dispatch_properties_changed` should be rarely
* needed.
* @param n_pspecs
* @param pspecs
*/
vfunc_dispatch_properties_changed(n_pspecs: number, pspecs: GObject.ParamSpec): void;
/**
* the `dispose` function is supposed to drop all references to other
* objects, but keep the instance otherwise intact, so that client method
* invocations still work. It may be run multiple times (due to reference
* loops). Before returning, `dispose` should chain up to the `dispose` method
* of the parent class.
*/
vfunc_dispose(): void;
/**
* instance finalization function, should finish the finalization of
* the instance begun in `dispose` and chain up to the `finalize` method of the
* parent class.
*/
vfunc_finalize(): void;
/**
* the generic getter for all properties of this type. Should be
* overridden for every type with properties.
* @param property_id
* @param value
* @param pspec
*/
vfunc_get_property(property_id: number, value: GObject.Value | any, pspec: GObject.ParamSpec): void;
/**
* Emits a "notify" signal for the property `property_name` on `object`.
*
* When possible, eg. when signaling a property change from within the class
* that registered the property, you should use g_object_notify_by_pspec()
* instead.
*
* Note that emission of the notify signal may be blocked with
* g_object_freeze_notify(). In this case, the signal emissions are queued
* and will be emitted (in reverse order) when g_object_thaw_notify() is
* called.
* @param pspec
*/
vfunc_notify(pspec: GObject.ParamSpec): void;
/**
* the generic setter for all properties of this type. Should be
* overridden for every type with properties. If implementations of
* `set_property` don't emit property change notification explicitly, this will
* be done implicitly by the type system. However, if the notify signal is
* emitted explicitly, the type system will not emit it a second time.
* @param property_id
* @param value
* @param pspec
*/
vfunc_set_property(property_id: number, value: GObject.Value | any, pspec: GObject.ParamSpec): void;
disconnect(id: number): void;
set(properties: { [key: string]: any }): void;
block_signal_handler(id: number): any;
unblock_signal_handler(id: number): any;
stop_emission_by_name(detailedName: string): any;
}
module GListResultSet {
// Constructor properties interface
interface ConstructorProps extends GObject.Object.ConstructorProps, ResultSet.ConstructorProps {}
}
class GListResultSet extends GObject.Object implements ResultSet {
static $gtype: GObject.GType;
// Constructors
constructor(properties?: Partial, ...args: any[]);
_init(...args: any[]): void;
// Inherited methods
/**
* Get the model associated with a result set
* @returns The model that the rows point into
*/
get_model(): Model;
/**
* Get the number of #DeeModelIters held in a #DeeResultSet.
* @returns The number of rows held in the result set
*/
get_n_rows(): number;
/**
* Check if a call to dee_result_set_next() will succeed.
* @returns %TRUE if and only if more rows can be retrieved by calling dee_result_set_next()
*/
has_next(): boolean;
/**
* Get the current row from the result set and advance the cursor.
* To ensure that calls to this method will succeed you can call
* dee_result_set_has_next().
*
* To retrieve the current row without advancing the cursor call
* dee_result_set_peek() in stead of this method.
* @returns The #DeeModelIter at the current cursor position
*/
next(): ModelIter;
/**
* Get the row at the current cursor position.
*
* To retrieve the current row and advance the cursor position call
* dee_result_set_next() in stead of this method.
* @returns The #DeeModelIter at the current cursor position
*/
peek(): ModelIter;
/**
* Set the cursor position. Following calls to dee_result_set_peek()
* or dee_result_set_next() will read the row at position `pos`.
* @param pos The position to seek to
*/
seek(pos: number): void;
/**
* Get the current position of the cursor.
* @returns The current position of the cursor
*/
tell(): number;
/**
* Get the model associated with a result set
*/
vfunc_get_model(): Model;
/**
* Get the number of #DeeModelIters held in a #DeeResultSet.
*/
vfunc_get_n_rows(): number;
/**
* Check if a call to dee_result_set_next() will succeed.
*/
vfunc_has_next(): boolean;
/**
* Get the current row from the result set and advance the cursor.
* To ensure that calls to this method will succeed you can call
* dee_result_set_has_next().
*
* To retrieve the current row without advancing the cursor call
* dee_result_set_peek() in stead of this method.
*/
vfunc_next(): ModelIter;
/**
* Get the row at the current cursor position.
*
* To retrieve the current row and advance the cursor position call
* dee_result_set_next() in stead of this method.
*/
vfunc_peek(): ModelIter;
/**
* Set the cursor position. Following calls to dee_result_set_peek()
* or dee_result_set_next() will read the row at position `pos`.
* @param pos The position to seek to
*/
vfunc_seek(pos: number): void;
/**
* Get the current position of the cursor.
*/
vfunc_tell(): number;
/**
* Creates a binding between `source_property` on `source` and `target_property`
* on `target`.
*
* Whenever the `source_property` is changed the `target_property` is
* updated using the same value. For instance:
*
*
* ```c
* g_object_bind_property (action, "active", widget, "sensitive", 0);
* ```
*
*
* Will result in the "sensitive" property of the widget #GObject instance to be
* updated with the same value of the "active" property of the action #GObject
* instance.
*
* If `flags` contains %G_BINDING_BIDIRECTIONAL then the binding will be mutual:
* if `target_property` on `target` changes then the `source_property` on `source`
* will be updated as well.
*
* The binding will automatically be removed when either the `source` or the
* `target` instances are finalized. To remove the binding without affecting the
* `source` and the `target` you can just call g_object_unref() on the returned
* #GBinding instance.
*
* Removing the binding by calling g_object_unref() on it must only be done if
* the binding, `source` and `target` are only used from a single thread and it
* is clear that both `source` and `target` outlive the binding. Especially it
* is not safe to rely on this if the binding, `source` or `target` can be
* finalized from different threads. Keep another reference to the binding and
* use g_binding_unbind() instead to be on the safe side.
*
* A #GObject can have multiple bindings.
* @param source_property the property on @source to bind
* @param target the target #GObject
* @param target_property the property on @target to bind
* @param flags flags to pass to #GBinding
* @returns the #GBinding instance representing the binding between the two #GObject instances. The binding is released whenever the #GBinding reference count reaches zero.
*/
bind_property(
source_property: string,
target: GObject.Object,
target_property: string,
flags: GObject.BindingFlags | null,
): GObject.Binding;
/**
* Complete version of g_object_bind_property().
*
* Creates a binding between `source_property` on `source` and `target_property`
* on `target,` allowing you to set the transformation functions to be used by
* the binding.
*
* If `flags` contains %G_BINDING_BIDIRECTIONAL then the binding will be mutual:
* if `target_property` on `target` changes then the `source_property` on `source`
* will be updated as well. The `transform_from` function is only used in case
* of bidirectional bindings, otherwise it will be ignored
*
* The binding will automatically be removed when either the `source` or the
* `target` instances are finalized. This will release the reference that is
* being held on the #GBinding instance; if you want to hold on to the
* #GBinding instance, you will need to hold a reference to it.
*
* To remove the binding, call g_binding_unbind().
*
* A #GObject can have multiple bindings.
*
* The same `user_data` parameter will be used for both `transform_to`
* and `transform_from` transformation functions; the `notify` function will
* be called once, when the binding is removed. If you need different data
* for each transformation function, please use
* g_object_bind_property_with_closures() instead.
* @param source_property the property on @source to bind
* @param target the target #GObject
* @param target_property the property on @target to bind
* @param flags flags to pass to #GBinding
* @param transform_to the transformation function from the @source to the @target, or %NULL to use the default
* @param transform_from the transformation function from the @target to the @source, or %NULL to use the default
* @param notify a function to call when disposing the binding, to free resources used by the transformation functions, or %NULL if not required
* @returns the #GBinding instance representing the binding between the two #GObject instances. The binding is released whenever the #GBinding reference count reaches zero.
*/
bind_property_full(
source_property: string,
target: GObject.Object,
target_property: string,
flags: GObject.BindingFlags | null,
transform_to?: GObject.BindingTransformFunc | null,
transform_from?: GObject.BindingTransformFunc | null,
notify?: GLib.DestroyNotify | null,
): GObject.Binding;
// Conflicted with GObject.Object.bind_property_full
bind_property_full(...args: never[]): any;
/**
* This function is intended for #GObject implementations to re-enforce
* a [floating][floating-ref] object reference. Doing this is seldom
* required: all #GInitiallyUnowneds are created with a floating reference
* which usually just needs to be sunken by calling g_object_ref_sink().
*/
force_floating(): void;
/**
* Increases the freeze count on `object`. If the freeze count is
* non-zero, the emission of "notify" signals on `object` is
* stopped. The signals are queued until the freeze count is decreased
* to zero. Duplicate notifications are squashed so that at most one
* #GObject::notify signal is emitted for each property modified while the
* object is frozen.
*
* This is necessary for accessors that modify multiple properties to prevent
* premature notification while the object is still being modified.
*/
freeze_notify(): void;
/**
* Gets a named field from the objects table of associations (see g_object_set_data()).
* @param key name of the key for that association
* @returns the data if found, or %NULL if no such data exists.
*/
get_data(key: string): any | null;
get_property(property_name: string): any;
/**
* This function gets back user data pointers stored via
* g_object_set_qdata().
* @param quark A #GQuark, naming the user data pointer
* @returns The user data pointer set, or %NULL
*/
get_qdata(quark: GLib.Quark): any | null;
/**
* Gets `n_properties` properties for an `object`.
* Obtained properties will be set to `values`. All properties must be valid.
* Warnings will be emitted and undefined behaviour may result if invalid
* properties are passed in.
* @param names the names of each property to get
* @param values the values of each property to get
*/
getv(names: string[], values: (GObject.Value | any)[]): void;
/**
* Checks whether `object` has a [floating][floating-ref] reference.
* @returns %TRUE if @object has a floating reference
*/
is_floating(): boolean;
/**
* Emits a "notify" signal for the property `property_name` on `object`.
*
* When possible, eg. when signaling a property change from within the class
* that registered the property, you should use g_object_notify_by_pspec()
* instead.
*
* Note that emission of the notify signal may be blocked with
* g_object_freeze_notify(). In this case, the signal emissions are queued
* and will be emitted (in reverse order) when g_object_thaw_notify() is
* called.
* @param property_name the name of a property installed on the class of @object.
*/
notify(property_name: string): void;
/**
* Emits a "notify" signal for the property specified by `pspec` on `object`.
*
* This function omits the property name lookup, hence it is faster than
* g_object_notify().
*
* One way to avoid using g_object_notify() from within the
* class that registered the properties, and using g_object_notify_by_pspec()
* instead, is to store the GParamSpec used with
* g_object_class_install_property() inside a static array, e.g.:
*
*
* ```c
* typedef enum
* {
* PROP_FOO = 1,
* PROP_LAST
* } MyObjectProperty;
*
* static GParamSpec *properties[PROP_LAST];
*
* static void
* my_object_class_init (MyObjectClass *klass)
* {
* properties[PROP_FOO] = g_param_spec_int ("foo", NULL, NULL,
* 0, 100,
* 50,
* G_PARAM_READWRITE | G_PARAM_STATIC_STRINGS);
* g_object_class_install_property (gobject_class,
* PROP_FOO,
* properties[PROP_FOO]);
* }
* ```
*
*
* and then notify a change on the "foo" property with:
*
*
* ```c
* g_object_notify_by_pspec (self, properties[PROP_FOO]);
* ```
*
* @param pspec the #GParamSpec of a property installed on the class of @object.
*/
notify_by_pspec(pspec: GObject.ParamSpec): void;
/**
* Increases the reference count of `object`.
*
* Since GLib 2.56, if `GLIB_VERSION_MAX_ALLOWED` is 2.56 or greater, the type
* of `object` will be propagated to the return type (using the GCC typeof()
* extension), so any casting the caller needs to do on the return type must be
* explicit.
* @returns the same @object
*/
ref(): GObject.Object;
/**
* Increase the reference count of `object,` and possibly remove the
* [floating][floating-ref] reference, if `object` has a floating reference.
*
* In other words, if the object is floating, then this call "assumes
* ownership" of the floating reference, converting it to a normal
* reference by clearing the floating flag while leaving the reference
* count unchanged. If the object is not floating, then this call
* adds a new normal reference increasing the reference count by one.
*
* Since GLib 2.56, the type of `object` will be propagated to the return type
* under the same conditions as for g_object_ref().
* @returns @object
*/
ref_sink(): GObject.Object;
/**
* Releases all references to other objects. This can be used to break
* reference cycles.
*
* This function should only be called from object system implementations.
*/
run_dispose(): void;
/**
* Each object carries around a table of associations from
* strings to pointers. This function lets you set an association.
*
* If the object already had an association with that name,
* the old association will be destroyed.
*
* Internally, the `key` is converted to a #GQuark using g_quark_from_string().
* This means a copy of `key` is kept permanently (even after `object` has been
* finalized) — so it is recommended to only use a small, bounded set of values
* for `key` in your program, to avoid the #GQuark storage growing unbounded.
* @param key name of the key
* @param data data to associate with that key
*/
set_data(key: string, data?: any | null): void;
set_property(property_name: string, value: any): void;
/**
* Remove a specified datum from the object's data associations,
* without invoking the association's destroy handler.
* @param key name of the key
* @returns the data if found, or %NULL if no such data exists.
*/
steal_data(key: string): any | null;
/**
* This function gets back user data pointers stored via
* g_object_set_qdata() and removes the `data` from object
* without invoking its destroy() function (if any was
* set).
* Usually, calling this function is only required to update
* user data pointers with a destroy notifier, for example:
*
* ```c
* void
* object_add_to_user_list (GObject *object,
* const gchar *new_string)
* {
* // the quark, naming the object data
* GQuark quark_string_list = g_quark_from_static_string ("my-string-list");
* // retrieve the old string list
* GList *list = g_object_steal_qdata (object, quark_string_list);
*
* // prepend new string
* list = g_list_prepend (list, g_strdup (new_string));
* // this changed 'list', so we need to set it again
* g_object_set_qdata_full (object, quark_string_list, list, free_string_list);
* }
* static void
* free_string_list (gpointer data)
* {
* GList *node, *list = data;
*
* for (node = list; node; node = node->next)
* g_free (node->data);
* g_list_free (list);
* }
* ```
*
* Using g_object_get_qdata() in the above example, instead of
* g_object_steal_qdata() would have left the destroy function set,
* and thus the partial string list would have been freed upon
* g_object_set_qdata_full().
* @param quark A #GQuark, naming the user data pointer
* @returns The user data pointer set, or %NULL
*/
steal_qdata(quark: GLib.Quark): any | null;
/**
* Reverts the effect of a previous call to
* g_object_freeze_notify(). The freeze count is decreased on `object`
* and when it reaches zero, queued "notify" signals are emitted.
*
* Duplicate notifications for each property are squashed so that at most one
* #GObject::notify signal is emitted for each property, in the reverse order
* in which they have been queued.
*
* It is an error to call this function when the freeze count is zero.
*/
thaw_notify(): void;
/**
* Decreases the reference count of `object`. When its reference count
* drops to 0, the object is finalized (i.e. its memory is freed).
*
* If the pointer to the #GObject may be reused in future (for example, if it is
* an instance variable of another object), it is recommended to clear the
* pointer to %NULL rather than retain a dangling pointer to a potentially
* invalid #GObject instance. Use g_clear_object() for this.
*/
unref(): void;
/**
* This function essentially limits the life time of the `closure` to
* the life time of the object. That is, when the object is finalized,
* the `closure` is invalidated by calling g_closure_invalidate() on
* it, in order to prevent invocations of the closure with a finalized
* (nonexisting) object. Also, g_object_ref() and g_object_unref() are
* added as marshal guards to the `closure,` to ensure that an extra
* reference count is held on `object` during invocation of the
* `closure`. Usually, this function will be called on closures that
* use this `object` as closure data.
* @param closure #GClosure to watch
*/
watch_closure(closure: GObject.Closure): void;
/**
* the `constructed` function is called by g_object_new() as the
* final step of the object creation process. At the point of the call, all
* construction properties have been set on the object. The purpose of this
* call is to allow for object initialisation steps that can only be performed
* after construction properties have been set. `constructed` implementors
* should chain up to the `constructed` call of their parent class to allow it
* to complete its initialisation.
*/
vfunc_constructed(): void;
/**
* emits property change notification for a bunch
* of properties. Overriding `dispatch_properties_changed` should be rarely
* needed.
* @param n_pspecs
* @param pspecs
*/
vfunc_dispatch_properties_changed(n_pspecs: number, pspecs: GObject.ParamSpec): void;
/**
* the `dispose` function is supposed to drop all references to other
* objects, but keep the instance otherwise intact, so that client method
* invocations still work. It may be run multiple times (due to reference
* loops). Before returning, `dispose` should chain up to the `dispose` method
* of the parent class.
*/
vfunc_dispose(): void;
/**
* instance finalization function, should finish the finalization of
* the instance begun in `dispose` and chain up to the `finalize` method of the
* parent class.
*/
vfunc_finalize(): void;
/**
* the generic getter for all properties of this type. Should be
* overridden for every type with properties.
* @param property_id
* @param value
* @param pspec
*/
vfunc_get_property(property_id: number, value: GObject.Value | any, pspec: GObject.ParamSpec): void;
/**
* Emits a "notify" signal for the property `property_name` on `object`.
*
* When possible, eg. when signaling a property change from within the class
* that registered the property, you should use g_object_notify_by_pspec()
* instead.
*
* Note that emission of the notify signal may be blocked with
* g_object_freeze_notify(). In this case, the signal emissions are queued
* and will be emitted (in reverse order) when g_object_thaw_notify() is
* called.
* @param pspec
*/
vfunc_notify(pspec: GObject.ParamSpec): void;
/**
* the generic setter for all properties of this type. Should be
* overridden for every type with properties. If implementations of
* `set_property` don't emit property change notification explicitly, this will
* be done implicitly by the type system. However, if the notify signal is
* emitted explicitly, the type system will not emit it a second time.
* @param property_id
* @param value
* @param pspec
*/
vfunc_set_property(property_id: number, value: GObject.Value | any, pspec: GObject.ParamSpec): void;
disconnect(id: number): void;
set(properties: { [key: string]: any }): void;
block_signal_handler(id: number): any;
unblock_signal_handler(id: number): any;
stop_emission_by_name(detailedName: string): any;
}
module HashIndex {
// Constructor properties interface
interface ConstructorProps extends Index.ConstructorProps {}
}
/**
* All fields in the DeeHashIndex structure are private and should never be
* accessed directly
*/
class HashIndex extends Index {
static $gtype: GObject.GType;
// Constructors
constructor(properties?: Partial, ...args: any[]);
_init(...args: any[]): void;
static ['new'](model: Model, analyzer: Analyzer, reader: ModelReader): HashIndex;
}
module Index {
// Constructor properties interface
interface ConstructorProps extends GObject.Object.ConstructorProps {
analyzer: Analyzer;
model: Model;
reader: ModelReader;
}
}
/**
* All fields in the DeeIndex structure are private and should never be
* accessed directly
*/
abstract class Index extends GObject.Object {
static $gtype: GObject.GType;
// Properties
/**
* The #DeeAnalyzer used to analyze terms extracted by the model reader
*/
get analyzer(): Analyzer;
/**
* The #DeeModel being indexed
*/
get model(): Model;
/**
* The #DeeModelReader used to extract terms from rows in the model
*/
set reader(val: ModelReader);
// Constructors
constructor(properties?: Partial, ...args: any[]);
_init(...args: any[]): void;
// Virtual methods
/**
* Iterate over an index optionally starting from some given term. Note that
* unordered indexes (like #DeeHashIndex) has undefined behaviour with
* this method.
* @param start_term The term to start from or %NULL to iterate over all terms
* @param func Called for each term in the index
*/
vfunc_foreach(start_term: string, func: IndexIterFunc): void;
/**
* Get the number of indexed rows. A row is only indexed if it has at least one
* term associated with it. If the analyzer has returned 0 terms then the row
* is omitted from the index.
*/
vfunc_get_n_rows(): number;
/**
* Get the number of rows that matches a given term
* @param term The term to look for
*/
vfunc_get_n_rows_for_term(term: string): number;
/**
* Get the number of terms in the index
*/
vfunc_get_n_terms(): number;
/**
* Get the #DeeTermMatchFlag supported by this #DeeIndex instance
*/
vfunc_get_supported_term_match_flags(): number;
vfunc_lookup(term: string, flags: TermMatchFlag): ResultSet;
// Methods
/**
* Iterate over an index optionally starting from some given term. Note that
* unordered indexes (like #DeeHashIndex) has undefined behaviour with
* this method.
* @param start_term The term to start from or %NULL to iterate over all terms
* @param func Called for each term in the index
*/
foreach(start_term: string, func: IndexIterFunc): void;
/**
* Get the analyzer being used to analyze terms extracted with the
* #DeeModelReader used by this index.
* @returns The #DeeAnalyzer used to analyze terms with
*/
get_analyzer(): Analyzer;
/**
* Get the model being indexed by this index
* @returns The #DeeModel being indexed by this index
*/
get_model(): Model;
/**
* Get the number of indexed rows. A row is only indexed if it has at least one
* term associated with it. If the analyzer has returned 0 terms then the row
* is omitted from the index.
* @returns The number of rows in the index. Note that this may less than or equal to dee_model_get_n_rows().
*/
get_n_rows(): number;
/**
* Get the number of rows that matches a given term
* @param term The term to look for
* @returns The number of rows in the index registered for the given term
*/
get_n_rows_for_term(term: string): number;
/**
* Get the number of terms in the index
* @returns The number of unique terms in the index
*/
get_n_terms(): number;
/**
* Get the reader being used to extract terms from rows in the model
* @returns The #DeeModelReader used to extract terms with
*/
get_reader(): ModelReader;
/**
* Get the #DeeTermMatchFlag supported by this #DeeIndex instance
* @returns A bit mask of the acceptedd #DeeTermMatchFlags
*/
get_supported_term_match_flags(): number;
lookup(term: string, flags: TermMatchFlag | null): ResultSet;
/**
* Convenience function in for cases where you have a priori guarantee that
* a dee_index_lookup() call will return exactly 0 or 1 row. If the lookup
* returns more than 1 row a warning will be printed on standard error and
* %NULL will be returned.
*
* The typical use case for this function is if you need something akin to
* a primary key in a relational database.
* @param term The exact term to match
* @returns A #DeeModelIter pointing to the matching row or %NULL in case no rows matches @term
*/
lookup_one(term: string): ModelIter;
}
module Peer {
// Signal callback interfaces
interface ConnectionAcquired {
(object: Gio.DBusConnection): void;
}
interface ConnectionClosed {
(connection: Gio.DBusConnection): void;
}
interface PeerFound {
(name: string): void;
}
interface PeerLost {
(name: string): void;
}
// Constructor properties interface
interface ConstructorProps extends GObject.Object.ConstructorProps {
swarm_leader: string;
swarmLeader: string;
swarm_name: string;
swarmName: string;
swarm_owner: boolean;
swarmOwner: boolean;
}
}
/**
* All fields in the DeePeer structure are private and should never be
* accessed directly
*/
class Peer extends GObject.Object {
static $gtype: GObject.GType;
// Properties
get swarm_leader(): string;
get swarmLeader(): string;
get swarm_name(): string;
set swarm_name(val: string);
get swarmName(): string;
set swarmName(val: string);
get swarm_owner(): boolean;
get swarmOwner(): boolean;
// Constructors
constructor(properties?: Partial, ...args: any[]);
_init(...args: any[]): void;
static ['new'](swarm_name: string): Peer;
// Signals
connect(id: string, callback: (...args: any[]) => any): number;
connect_after(id: string, callback: (...args: any[]) => any): number;
emit(id: string, ...args: any[]): void;
connect(
signal: 'connection-acquired',
callback: (_source: this, object: Gio.DBusConnection) => void,
): number;
connect_after(
signal: 'connection-acquired',
callback: (_source: this, object: Gio.DBusConnection) => void,
): number;
emit(signal: 'connection-acquired', object: Gio.DBusConnection): void;
connect(
signal: 'connection-closed',
callback: (_source: this, connection: Gio.DBusConnection) => void,
): number;
connect_after(
signal: 'connection-closed',
callback: (_source: this, connection: Gio.DBusConnection) => void,
): number;
emit(signal: 'connection-closed', connection: Gio.DBusConnection): void;
connect(signal: 'peer-found', callback: (_source: this, name: string) => void): number;
connect_after(signal: 'peer-found', callback: (_source: this, name: string) => void): number;
emit(signal: 'peer-found', name: string): void;
connect(signal: 'peer-lost', callback: (_source: this, name: string) => void): number;
connect_after(signal: 'peer-lost', callback: (_source: this, name: string) => void): number;
emit(signal: 'peer-lost', name: string): void;
// Virtual methods
vfunc_connection_acquired(connection: Gio.DBusConnection): void;
vfunc_connection_closed(connection: Gio.DBusConnection): void;
/**
* Gets list of #GDBusConnection instances used by this #DeePeer instance.
*/
vfunc_get_connections(): Gio.DBusConnection[];
/**
* In case this peer is connected to a message bus, gets the unique DBus
* address of the current swarm leader, otherwise returns id of the leader.
*/
vfunc_get_swarm_leader(): string;
vfunc_is_swarm_leader(): boolean;
/**
* Gets list of all peers currently in this swarm.
*/
vfunc_list_peers(): string[];
vfunc_peer_found(name: string): void;
vfunc_peer_lost(name: string): void;
// Methods
/**
* Gets list of #GDBusConnection instances used by this #DeePeer instance.
* @returns List of connections.
*/
get_connections(): Gio.DBusConnection[];
/**
* In case this peer is connected to a message bus, gets the unique DBus
* address of the current swarm leader, otherwise returns id of the leader.
* @returns Unique DBus address of the current swarm leader, possibly %NULL if the leader has not been detected yet
*/
get_swarm_leader(): string;
/**
* Gets the unique name for this swarm. The swarm leader is the Peer owning
* this name on the session bus.
* @returns The swarm name
*/
get_swarm_name(): string;
is_swarm_leader(): boolean;
/**
* Gets the value of the :swarm-owner property.
*
* Note that this does NOT mean that the peer is leader of the swarm! Check also
* dee_peer_is_swarm_leader().
* @returns TRUE if the :swarm-owner property was set during construction.
*/
is_swarm_owner(): boolean;
/**
* Gets list of all peers currently in this swarm.
* @returns List of peers (free using g_strfreev()).
*/
list_peers(): string[];
}
module ProxyModel {
// Constructor properties interface
interface ConstructorProps
extends SerializableModel.ConstructorProps,
Model.ConstructorProps,
Serializable.ConstructorProps {
back_end: Model;
backEnd: Model;
inherit_seqnums: boolean;
inheritSeqnums: boolean;
proxy_signals: boolean;
proxySignals: boolean;
}
}
/**
* All fields in the DeeProxyModel structure are private and should never be
* accessed directly
*/
class ProxyModel extends SerializableModel implements Model, Serializable {
static $gtype: GObject.GType;
// Properties
/**
* The backend model used by this proxy model.
*/
get back_end(): Model;
/**
* The backend model used by this proxy model.
*/
get backEnd(): Model;
/**
* Boolean property defining whether sequence numbers will be inherited
* from the back end model.
* You will most likely want to set this property to false
* if the implementation manipulates with the rows in the model and keep
* track of seqnums yourself.
*/
get inherit_seqnums(): boolean;
/**
* Boolean property defining whether sequence numbers will be inherited
* from the back end model.
* You will most likely want to set this property to false
* if the implementation manipulates with the rows in the model and keep
* track of seqnums yourself.
*/
get inheritSeqnums(): boolean;
/**
* Boolean property defining whether or not to automatically forward signals
* from the back end model. This is especially useful for sub classes wishing
* to do their own more advanced signal forwarding.
*/
get proxy_signals(): boolean;
/**
* Boolean property defining whether or not to automatically forward signals
* from the back end model. This is especially useful for sub classes wishing
* to do their own more advanced signal forwarding.
*/
get proxySignals(): boolean;
// Constructors
constructor(properties?: Partial, ...args: any[]);
_init(...args: any[]): void;
// Inherited methods
/**
* Like dee_model_append() but intended for language bindings or
* situations where you work with models on a meta level and may not have
* a prior knowledge of the column schemas of the models. See also
* dee_model_build_row().
* @param row_members An array of #GVariants with type signature matching those of the column schemas of @self. If any of the variants have floating references they will be consumed
* @returns A #DeeModelIter pointing to the new row
*/
append_row(row_members: GLib.Variant[]): ModelIter;
/**
* Notify listeners that the model is about to be changed, which means that
* multiple row additions / changes / removals will follow.
* The default implementation of this method will emit
* the ::changeset-started signal.
*
* It is not stricly necessary to enclose every change to a model
* in a dee_model_begin_changeset() and dee_model_end_changeset() calls, but
* doing so is highly recommended and allows implementing various optimizations.
*
* The usual way to perform multiple changes to a model is as follows:
*
*
* void update_model (DeeModel *model)
* {
* GVariant **added_row_data1 = ...;
* GVariant **added_row_data2 = ...;
*
* dee_model_begin_changeset (model);
*
* dee_model_remove (model, dee_model_get_first_iter (model));
* dee_model_append_row (model, added_row_data1);
* dee_model_append_row (model, added_row_data2);
*
* dee_model_end_changeset (model);
* }
*
*/
begin_changeset(): void;
/**
* Removes all rows in the model. Signals are emitted for each row in the model
*/
clear(): void;
/**
* This method is purely syntactic sugar for calling dee_model_set_tag() with
* a `value` of %NULL. It's included in order to help developers write more
* readable code.
* @param iter The row to clear the tag from
* @param tag The tag to clear from @iter
*/
clear_tag(iter: ModelIter, tag: ModelTag): void;
/**
* Notify listeners that all changes have been committed to the model.
* The default implementation of this method will emit
* the ::changeset-finished signal.
*
* See also dee_model_begin_changeset().
*/
end_changeset(): void;
/**
* Finds a row in `self` according to the sorting specified by `cmp_func`.
* This method will assume that `self` is already sorted by `cmp_func`.
*
* If you use this method for searching you should only use
* dee_model_insert_row_sorted() to insert rows in the model.
* @param row_spec An array of #GVariants with type signature matching those of the column schemas of @self. No references will be taken on the variants.
* @param cmp_func Callback used for comparison or rows
* @returns If @out_was_found is set to %TRUE then a #DeeModelIter pointing to the last matching row. If it is %FALSE then the iter pointing to the row just after where @row_spec_would have been inserted.
*/
find_row_sorted(row_spec: GLib.Variant[], cmp_func: CompareRowFunc): [ModelIter, boolean];
/**
* Like dee_model_find_row_sorted(), but uses DeeCompareRowSizedFunc and
* therefore doesn't cause trouble when used from introspected languages.
*
* Finds a row in `self` according to the sorting specified by `cmp_func`.
* This method will assume that `self` is already sorted by `cmp_func`.
*
* If you use this method for searching you should only use
* dee_model_insert_row_sorted() (or dee_model_insert_row_sorted_with_sizes())
* to insert rows in the model.
* @param row_spec An array of #GVariants with type signature matching those of the column schemas of @self. No references will be taken on the variants.
* @param cmp_func Callback used for comparison or rows
* @returns If @out_was_found is set to %TRUE then a #DeeModelIter pointing to the last matching row. If it is %FALSE then the iter pointing to the row just after where @row_spec_would have been inserted.
*/
find_row_sorted_with_sizes(row_spec: GLib.Variant[], cmp_func: CompareRowSizedFunc): [ModelIter, boolean];
get_bool(iter: ModelIter, column: number): boolean;
/**
* Get the column index of a column.
* @param column_name the column name to retrieve the index of
* @returns 0-based index of the column or -1 if column with this name wasn't found
*/
get_column_index(column_name: string): number;
/**
* Get a %NULL-terminated array of column names for the columns of `self`.
* These names can be used in calls to dee_model_build_named_row().
* @returns A %NULL-terminated array of #GVariant type strings. The length of the returned array is written to @num_columns. The returned array should not be freed or modified. It is owned by the model.
*/
get_column_names(): string[];
/**
* Get the #GVariant signature of a column
* @param column the column to get retrieve the #GVariant type string of
* @returns the #GVariant signature of the column at index @column
*/
get_column_schema(column: number): string;
get_double(iter: ModelIter, column: number): number;
/**
* Get the #GVariant signature of field previously registered with
* dee_model_register_vardict_schema().
* @param field_name name of vardict field to get schema of
* @returns the #GVariant signature for the field, or %NULL if given field wasn't registered with dee_model_register_vardict_schema().
*/
get_field_schema(field_name: string): [string, number];
/**
* Retrieves a #DeeModelIter representing the first row in `self`.
* @returns A #DeeModelIter (owned by @self, do not free it)
*/
get_first_iter(): ModelIter;
get_int32(iter: ModelIter, column: number): number;
get_int64(iter: ModelIter, column: number): number;
/**
* Retrieves a #DeeModelIter representing the row at the given index.
*
* Note that this method does not have any performance guarantees. In particular
* it is not guaranteed to be O(1).
* @param row position of the row to retrieve
* @returns A new #DeeModelIter, or %NULL if @row was out of bounds. The returned iter is owned by @self, so do not free it.
*/
get_iter_at_row(row: number): ModelIter;
/**
* Retrieves a #DeeModelIter pointing right after the
* last row in `self`. This is refered to also the the
* end iter.
*
* As with other iters the end iter, in particular, is stable over inserts,
* changes, or removals.
* @returns A #DeeModelIter (owned by @self, do not free it)
*/
get_last_iter(): ModelIter;
/**
* Gets the number of columns in `self`
* @returns the number of columns per row in @self
*/
get_n_columns(): number;
/**
* Gets the number of rows in `self`
* @returns the number of rows in @self
*/
get_n_rows(): number;
/**
* Get the numeric offset of `iter` into `self`. Note that this method is
* not guaranteed to be O(1).
* @param iter The iter to get the position of
* @returns The integer offset of @iter in @self
*/
get_position(iter: ModelIter): number;
get_row(iter: ModelIter): [GLib.Variant[], GLib.Variant[] | null];
/**
* Get a %NULL-terminated array of #GVariant type strings that defines the
* required formats for the columns of `self`.
* @returns A %NULL-terminated array of #GVariant type strings. The length of the returned array is written to @num_columns. The returned array should not be freed or modified. It is owned by the model.
*/
get_schema(): string[];
get_string(iter: ModelIter, column: number): string;
/**
* Look up a tag value for a given row in a model. This method is guaranteed
* to be O(1).
* @param iter A #DeeModelIter pointing to the row to get the tag from
* @param tag The tag handle to retrieve the tag value for
* @returns Returns %NULL if @tag is unset otherwise the value of the tag as it was set with dee_model_set_tag().
*/
get_tag(iter: ModelIter, tag: ModelTag): any | null;
get_uchar(iter: ModelIter, column: number): number;
get_uint32(iter: ModelIter, column: number): number;
get_uint64(iter: ModelIter, column: number): number;
get_value(iter: ModelIter, column: number): GLib.Variant;
get_value_by_name(iter: ModelIter, column_name: string): GLib.Variant;
/**
* Get a schema for variant dictionary column previously registered using
* dee_model_register_vardict_schema().
* @param column the column index to get the schemas for
* @returns Hashtable containing a mapping from field names to schemas or NULL. Note that keys and values in the hashtable may be owned by the model, so you need to create a deep copy if you intend to keep the hashtable around.
*/
get_vardict_schema(column: number): GLib.HashTable;
/**
* As dee_model_insert(), but intended for language bindings or
* situations where you work with models on a meta level and may not have
* a priori knowledge of the column schemas of the models. See also
* dee_model_build_row().
* @param pos The index to insert the row on. The existing row will be pushed down.
* @param row_members An array of #GVariants with type signature matching those of the column schemas of @self. If any of the variants have floating references they will be consumed.
* @returns A #DeeModelIter pointing to the new row
*/
insert_row(pos: number, row_members: GLib.Variant[]): ModelIter;
/**
* As dee_model_insert_before(), but intended for language bindings or
* situations where you work with models on a meta level and may not have
* a priori knowledge of the column schemas of the models. See also
* dee_model_build_row().
* @param iter An iter pointing to the row before which to insert the new one
* @param row_members An array of #GVariants with type signature matching those of the column schemas of @self. If any of the variants have floating references they will be consumed.
* @returns A #DeeModelIter pointing to the new row
*/
insert_row_before(iter: ModelIter, row_members: GLib.Variant[]): ModelIter;
/**
* Inserts a row in `self` according to the sorting specified by `cmp_func`.
* If you use this method for insertion you should not use other methods as this
* method assumes the model to be already sorted by `cmp_func`.
* @param row_members An array of #GVariants with type signature matching those of the column schemas of @self. If any of the variants have floating references they will be consumed.
* @param cmp_func Callback used for comparison or rows
* @returns A #DeeModelIter pointing to the new row
*/
insert_row_sorted(row_members: GLib.Variant[], cmp_func: CompareRowFunc): ModelIter;
/**
* Inserts a row in `self` according to the sorting specified by `cmp_func`.
* If you use this method for insertion you should not use other methods as this
* method assumes the model to be already sorted by `cmp_func`.
* @param row_members An array of #GVariants with type signature matching those of the column schemas of @self. If any of the variants have floating references they will be consumed.
* @param cmp_func Callback used for comparison or rows
* @returns A #DeeModelIter pointing to the new row
*/
insert_row_sorted_with_sizes(row_members: GLib.Variant[], cmp_func: CompareRowSizedFunc): ModelIter;
/**
* Checks if `iter` is the very first iter `self`.
* @param iter a #DeeModelIter
* @returns #TRUE if @iter is the first iter in the model
*/
is_first(iter: ModelIter): boolean;
/**
* Whether `iter` is the end iter of `self`. Note that the end iter points
* right after the last valid row in `self`.
* @param iter a #DeeModelIter
* @returns #TRUE if @iter is the last iter in the model
*/
is_last(iter: ModelIter): boolean;
/**
* Returns a #DeeModelIter that points to the next position in the model.
* @param iter a #DeeModelIter
* @returns A #DeeModelIter, pointing to the next row in the model. The iter is owned by @self, do not free it.
*/
next(iter: ModelIter): ModelIter;
/**
* Like dee_model_prepend() but intended for language bindings or
* situations where you work with models on a meta level and may not have
* a priori knowledge of the column schemas of the models. See also
* dee_model_build_row().
* @param row_members An array of #GVariants with type signature matching those of the column schemas of @self. If any of the variants have floating references they will be consumed.
* @returns A #DeeModelIter pointing to the new row
*/
prepend_row(row_members: GLib.Variant[]): ModelIter;
/**
* Returns a #DeeModelIter that points to the previous position in the model.
* @param iter a #DeeModelIter
* @returns A #DeeModelIter, pointing to the previous row in the model. The iter is owned by @self, do not free it.
*/
prev(iter: ModelIter): ModelIter;
/**
* Register a new tag on a #DeeModel. A tag is an extra
* value attached to a given row on a model. The tags are invisible to all
* that doesn't have the tag handle returned by this method. #DeeModel
* implementations must ensure that dee_model_get_tag() is an O(1) operation.
*
* Tags can be very useful in associating some extra data to a row in a model
* and have that automatically synced when the model changes. If you're
* writing a tiled view for a model you might want to tag each row with the
* tile widget for that row. That way you have very convenient access to the
* tile widget given any row in the model.
*
* The private nature of tags and the fact that you can store arbitrary pointers
* and binary data in them also means that they are not serialized if you
* utilize a model implementation that exposes the #DeeSerializable interface.
* @returns A #DeeModelTag handle that you can use to set and get tags with
*/
register_tag(): ModelTag;
/**
* Register schema for fields in a model containing column with variant
* dictionary schema ('a{sv}').
* The keys registered with this function can be later used
* with dee_model_build_named_row() function, as well as
* dee_model_get_value_by_name(). Note that it is possible to register
* the same field name for multiple columns, in which case you need to use
* fully-qualified "column_name::field" name in the calls to
* dee_model_build_named_row() and dee_model_get_field_schema().
* @param column the column index to register the schemas with
* @param schemas hashtable with keys specifying names of the fields and values defining their schema
*/
register_vardict_schema(
column: number,
schemas: { [key: string]: any } | GLib.HashTable,
): void;
/**
* Removes the row at the given position from the model.
* @param iter a #DeeModelIter pointing to the row to remove
*/
remove(iter: ModelIter): void;
/**
* Set column names used by `self`.
* This method must be called exactly once, but only after setting
* a schema of the model. Note that some constructors will do this for you.
* @param column_names A list of column names terminated by a %NULL
*/
set_column_names_full(column_names: string[]): void;
/**
* Sets all columns in the row `iter` points to, to those found in
* `row_members`. The variants in `row_members` must match the types defined in
* the model's schema.
* @param iter a #DeeModelIter
* @param row_members And array of #GVariants with type signature matching those from the model schema. If any of the variants have floating references these will be consumed
*/
set_row(iter: ModelIter, row_members: GLib.Variant[]): void;
/**
* Set the #GVariant types and the number of columns used by `self`.
* This method must be called exactly once before using `self`. Note that
* some constructors will do this for you.
* @param column_schemas A list of #GVariant type strings terminated by a %NULL
*/
set_schema_full(column_schemas: string[]): void;
/**
* Set a tag on a row in a model. This function is guaranteed to be O(1).
* See also dee_model_register_tag().
*
* If `tag` is already set on this row the existing tag value will be destroyed
* with the #GDestroyNotify passed to the dee_model_register_tag().
* @param iter The row to set the tag on
* @param tag The tag handle for the tag as obtained from dee_model_register_tag()
* @param value The value to set for @tag. Note that %NULL represents an unset tag
*/
set_tag(iter: ModelIter, tag: ModelTag, value?: any | null): void;
/**
* Sets the data in `column` for the row `iter` points to, to `value`. The type
* of `value` must be convertible to the type of the column.
*
* When this method call completes the model will emit ::row-changed. You can
* edit the model in place without triggering the change signals by calling
* dee_model_set_value_silently().
* @param iter a #DeeModelIter
* @param column column number to set the value
* @param value New value for cell. If @value is a floating reference the model will assume ownership of the variant
*/
set_value(iter: ModelIter, column: number, value: GLib.Variant): void;
/**
* Like dee_model_append() but intended for language bindings or
* situations where you work with models on a meta level and may not have
* a prior knowledge of the column schemas of the models. See also
* dee_model_build_row().
* @param row_members An array of #GVariants with type signature matching those of the column schemas of @self. If any of the variants have floating references they will be consumed
*/
vfunc_append_row(row_members: GLib.Variant[]): ModelIter;
/**
* Notify listeners that the model is about to be changed, which means that
* multiple row additions / changes / removals will follow.
* The default implementation of this method will emit
* the ::changeset-started signal.
*
* It is not stricly necessary to enclose every change to a model
* in a dee_model_begin_changeset() and dee_model_end_changeset() calls, but
* doing so is highly recommended and allows implementing various optimizations.
*
* The usual way to perform multiple changes to a model is as follows:
*
*
* void update_model (DeeModel *model)
* {
* GVariant **added_row_data1 = ...;
* GVariant **added_row_data2 = ...;
*
* dee_model_begin_changeset (model);
*
* dee_model_remove (model, dee_model_get_first_iter (model));
* dee_model_append_row (model, added_row_data1);
* dee_model_append_row (model, added_row_data2);
*
* dee_model_end_changeset (model);
* }
*
*/
vfunc_begin_changeset(): void;
vfunc_changeset_finished(): void;
vfunc_changeset_started(): void;
/**
* Removes all rows in the model. Signals are emitted for each row in the model
*/
vfunc_clear(): void;
/**
* Notify listeners that all changes have been committed to the model.
* The default implementation of this method will emit
* the ::changeset-finished signal.
*
* See also dee_model_begin_changeset().
*/
vfunc_end_changeset(): void;
/**
* Finds a row in `self` according to the sorting specified by `cmp_func`.
* This method will assume that `self` is already sorted by `cmp_func`.
*
* If you use this method for searching you should only use
* dee_model_insert_row_sorted() to insert rows in the model.
* @param row_spec An array of #GVariants with type signature matching those of the column schemas of @self. No references will be taken on the variants.
* @param cmp_func Callback used for comparison or rows
*/
vfunc_find_row_sorted(row_spec: GLib.Variant[], cmp_func: CompareRowFunc): [ModelIter, boolean];
vfunc_get_bool(iter: ModelIter, column: number): boolean;
/**
* Get the column index of a column.
* @param column_name the column name to retrieve the index of
*/
vfunc_get_column_index(column_name: string): number;
/**
* Get a %NULL-terminated array of column names for the columns of `self`.
* These names can be used in calls to dee_model_build_named_row().
*/
vfunc_get_column_names(): string[];
/**
* Get the #GVariant signature of a column
* @param column the column to get retrieve the #GVariant type string of
*/
vfunc_get_column_schema(column: number): string;
vfunc_get_double(iter: ModelIter, column: number): number;
/**
* Get the #GVariant signature of field previously registered with
* dee_model_register_vardict_schema().
* @param field_name name of vardict field to get schema of
*/
vfunc_get_field_schema(field_name: string): [string, number];
/**
* Retrieves a #DeeModelIter representing the first row in `self`.
*/
vfunc_get_first_iter(): ModelIter;
vfunc_get_int32(iter: ModelIter, column: number): number;
vfunc_get_int64(iter: ModelIter, column: number): number;
/**
* Retrieves a #DeeModelIter representing the row at the given index.
*
* Note that this method does not have any performance guarantees. In particular
* it is not guaranteed to be O(1).
* @param row position of the row to retrieve
*/
vfunc_get_iter_at_row(row: number): ModelIter;
/**
* Retrieves a #DeeModelIter pointing right after the
* last row in `self`. This is refered to also the the
* end iter.
*
* As with other iters the end iter, in particular, is stable over inserts,
* changes, or removals.
*/
vfunc_get_last_iter(): ModelIter;
/**
* Gets the number of columns in `self`
*/
vfunc_get_n_columns(): number;
/**
* Gets the number of rows in `self`
*/
vfunc_get_n_rows(): number;
/**
* Get the numeric offset of `iter` into `self`. Note that this method is
* not guaranteed to be O(1).
* @param iter The iter to get the position of
*/
vfunc_get_position(iter: ModelIter): number;
vfunc_get_row(iter: ModelIter, out_row_members: GLib.Variant): GLib.Variant;
/**
* Get a %NULL-terminated array of #GVariant type strings that defines the
* required formats for the columns of `self`.
*/
vfunc_get_schema(): string[];
vfunc_get_string(iter: ModelIter, column: number): string;
/**
* Look up a tag value for a given row in a model. This method is guaranteed
* to be O(1).
* @param iter A #DeeModelIter pointing to the row to get the tag from
* @param tag The tag handle to retrieve the tag value for
*/
vfunc_get_tag(iter: ModelIter, tag: ModelTag): any | null;
vfunc_get_uchar(iter: ModelIter, column: number): number;
vfunc_get_uint32(iter: ModelIter, column: number): number;
vfunc_get_uint64(iter: ModelIter, column: number): number;
vfunc_get_value(iter: ModelIter, column: number): GLib.Variant;
vfunc_get_value_by_name(iter: ModelIter, column_name: string): GLib.Variant;
/**
* Get a schema for variant dictionary column previously registered using
* dee_model_register_vardict_schema().
* @param num_column
*/
vfunc_get_vardict_schema(num_column: number): GLib.HashTable;
/**
* As dee_model_insert(), but intended for language bindings or
* situations where you work with models on a meta level and may not have
* a priori knowledge of the column schemas of the models. See also
* dee_model_build_row().
* @param pos The index to insert the row on. The existing row will be pushed down.
* @param row_members An array of #GVariants with type signature matching those of the column schemas of @self. If any of the variants have floating references they will be consumed.
*/
vfunc_insert_row(pos: number, row_members: GLib.Variant[]): ModelIter;
/**
* As dee_model_insert_before(), but intended for language bindings or
* situations where you work with models on a meta level and may not have
* a priori knowledge of the column schemas of the models. See also
* dee_model_build_row().
* @param iter An iter pointing to the row before which to insert the new one
* @param row_members An array of #GVariants with type signature matching those of the column schemas of @self. If any of the variants have floating references they will be consumed.
*/
vfunc_insert_row_before(iter: ModelIter, row_members: GLib.Variant[]): ModelIter;
/**
* Inserts a row in `self` according to the sorting specified by `cmp_func`.
* If you use this method for insertion you should not use other methods as this
* method assumes the model to be already sorted by `cmp_func`.
* @param row_members An array of #GVariants with type signature matching those of the column schemas of @self. If any of the variants have floating references they will be consumed.
* @param cmp_func Callback used for comparison or rows
*/
vfunc_insert_row_sorted(row_members: GLib.Variant[], cmp_func: CompareRowFunc): ModelIter;
/**
* Checks if `iter` is the very first iter `self`.
* @param iter a #DeeModelIter
*/
vfunc_is_first(iter: ModelIter): boolean;
/**
* Whether `iter` is the end iter of `self`. Note that the end iter points
* right after the last valid row in `self`.
* @param iter a #DeeModelIter
*/
vfunc_is_last(iter: ModelIter): boolean;
/**
* Returns a #DeeModelIter that points to the next position in the model.
* @param iter a #DeeModelIter
*/
vfunc_next(iter: ModelIter): ModelIter;
/**
* Like dee_model_prepend() but intended for language bindings or
* situations where you work with models on a meta level and may not have
* a priori knowledge of the column schemas of the models. See also
* dee_model_build_row().
* @param row_members An array of #GVariants with type signature matching those of the column schemas of @self. If any of the variants have floating references they will be consumed.
*/
vfunc_prepend_row(row_members: GLib.Variant[]): ModelIter;
/**
* Returns a #DeeModelIter that points to the previous position in the model.
* @param iter a #DeeModelIter
*/
vfunc_prev(iter: ModelIter): ModelIter;
/**
* Register a new tag on a #DeeModel. A tag is an extra
* value attached to a given row on a model. The tags are invisible to all
* that doesn't have the tag handle returned by this method. #DeeModel
* implementations must ensure that dee_model_get_tag() is an O(1) operation.
*
* Tags can be very useful in associating some extra data to a row in a model
* and have that automatically synced when the model changes. If you're
* writing a tiled view for a model you might want to tag each row with the
* tile widget for that row. That way you have very convenient access to the
* tile widget given any row in the model.
*
* The private nature of tags and the fact that you can store arbitrary pointers
* and binary data in them also means that they are not serialized if you
* utilize a model implementation that exposes the #DeeSerializable interface.
*/
vfunc_register_tag(): ModelTag;
/**
* Register schema for fields in a model containing column with variant
* dictionary schema ('a{sv}').
* The keys registered with this function can be later used
* with dee_model_build_named_row() function, as well as
* dee_model_get_value_by_name(). Note that it is possible to register
* the same field name for multiple columns, in which case you need to use
* fully-qualified "column_name::field" name in the calls to
* dee_model_build_named_row() and dee_model_get_field_schema().
* @param num_column
* @param schemas hashtable with keys specifying names of the fields and values defining their schema
*/
vfunc_register_vardict_schema(
num_column: number,
schemas: { [key: string]: any } | GLib.HashTable,
): void;
/**
* Removes the row at the given position from the model.
* @param iter a #DeeModelIter pointing to the row to remove
*/
vfunc_remove(iter: ModelIter): void;
vfunc_row_added(iter: ModelIter): void;
vfunc_row_changed(iter: ModelIter): void;
vfunc_row_removed(iter: ModelIter): void;
/**
* Set column names used by `self`.
* This method must be called exactly once, but only after setting
* a schema of the model. Note that some constructors will do this for you.
* @param column_names A list of column names terminated by a %NULL
*/
vfunc_set_column_names_full(column_names: string[]): void;
/**
* Sets all columns in the row `iter` points to, to those found in
* `row_members`. The variants in `row_members` must match the types defined in
* the model's schema.
* @param iter a #DeeModelIter
* @param row_members And array of #GVariants with type signature matching those from the model schema. If any of the variants have floating references these will be consumed
*/
vfunc_set_row(iter: ModelIter, row_members: GLib.Variant[]): void;
/**
* Set the #GVariant types and the number of columns used by `self`.
* This method must be called exactly once before using `self`. Note that
* some constructors will do this for you.
* @param column_schemas A list of #GVariant type strings terminated by a %NULL
*/
vfunc_set_schema_full(column_schemas: string[]): void;
/**
* Set a tag on a row in a model. This function is guaranteed to be O(1).
* See also dee_model_register_tag().
*
* If `tag` is already set on this row the existing tag value will be destroyed
* with the #GDestroyNotify passed to the dee_model_register_tag().
* @param iter The row to set the tag on
* @param tag The tag handle for the tag as obtained from dee_model_register_tag()
* @param value The value to set for @tag. Note that %NULL represents an unset tag
*/
vfunc_set_tag(iter: ModelIter, tag: ModelTag, value?: any | null): void;
/**
* Sets the data in `column` for the row `iter` points to, to `value`. The type
* of `value` must be convertible to the type of the column.
*
* When this method call completes the model will emit ::row-changed. You can
* edit the model in place without triggering the change signals by calling
* dee_model_set_value_silently().
* @param iter a #DeeModelIter
* @param column column number to set the value
* @param value New value for cell. If @value is a floating reference the model will assume ownership of the variant
*/
vfunc_set_value(iter: ModelIter, column: number, value: GLib.Variant): void;
/**
* Build an externalized form of `self` which can be used together with
* dee_serializable_parse_external() to rebuild a copy of `self`.
*
* It is important to note that the variant returned from this method does
* not have the same type signature as returned from a call to
* dee_serializable_serialize(). Externalization will wrap the serialized data
* in a container format with versioning information and headers with type
* information.
* @returns A floating reference to a #GVariant with the externalized data.
*/
externalize(): GLib.Variant;
/**
* Build a clean serialized representation of `self`. The signature of the
* returned variant is entirely determined by the underlying implementation.
* You can recreate a serialized instance by calling dee_serializable_parse()
* provided that you know the correct #GType for the serialized instance.
* @returns A reference to a #GVariant with the serialized data. The variants type signature is entirely dependent of the underlying implementation. Free using g_variant_unref().
*/
serialize(): GLib.Variant;
/**
* Build a clean serialized representation of `self`. The signature of the
* returned variant is entirely determined by the underlying implementation.
* You can recreate a serialized instance by calling dee_serializable_parse()
* provided that you know the correct #GType for the serialized instance.
*/
vfunc_serialize(): GLib.Variant;
/**
* Creates a binding between `source_property` on `source` and `target_property`
* on `target`.
*
* Whenever the `source_property` is changed the `target_property` is
* updated using the same value. For instance:
*
*
* ```c
* g_object_bind_property (action, "active", widget, "sensitive", 0);
* ```
*
*
* Will result in the "sensitive" property of the widget #GObject instance to be
* updated with the same value of the "active" property of the action #GObject
* instance.
*
* If `flags` contains %G_BINDING_BIDIRECTIONAL then the binding will be mutual:
* if `target_property` on `target` changes then the `source_property` on `source`
* will be updated as well.
*
* The binding will automatically be removed when either the `source` or the
* `target` instances are finalized. To remove the binding without affecting the
* `source` and the `target` you can just call g_object_unref() on the returned
* #GBinding instance.
*
* Removing the binding by calling g_object_unref() on it must only be done if
* the binding, `source` and `target` are only used from a single thread and it
* is clear that both `source` and `target` outlive the binding. Especially it
* is not safe to rely on this if the binding, `source` or `target` can be
* finalized from different threads. Keep another reference to the binding and
* use g_binding_unbind() instead to be on the safe side.
*
* A #GObject can have multiple bindings.
* @param source_property the property on @source to bind
* @param target the target #GObject
* @param target_property the property on @target to bind
* @param flags flags to pass to #GBinding
* @returns the #GBinding instance representing the binding between the two #GObject instances. The binding is released whenever the #GBinding reference count reaches zero.
*/
bind_property(
source_property: string,
target: GObject.Object,
target_property: string,
flags: GObject.BindingFlags | null,
): GObject.Binding;
/**
* Complete version of g_object_bind_property().
*
* Creates a binding between `source_property` on `source` and `target_property`
* on `target,` allowing you to set the transformation functions to be used by
* the binding.
*
* If `flags` contains %G_BINDING_BIDIRECTIONAL then the binding will be mutual:
* if `target_property` on `target` changes then the `source_property` on `source`
* will be updated as well. The `transform_from` function is only used in case
* of bidirectional bindings, otherwise it will be ignored
*
* The binding will automatically be removed when either the `source` or the
* `target` instances are finalized. This will release the reference that is
* being held on the #GBinding instance; if you want to hold on to the
* #GBinding instance, you will need to hold a reference to it.
*
* To remove the binding, call g_binding_unbind().
*
* A #GObject can have multiple bindings.
*
* The same `user_data` parameter will be used for both `transform_to`
* and `transform_from` transformation functions; the `notify` function will
* be called once, when the binding is removed. If you need different data
* for each transformation function, please use
* g_object_bind_property_with_closures() instead.
* @param source_property the property on @source to bind
* @param target the target #GObject
* @param target_property the property on @target to bind
* @param flags flags to pass to #GBinding
* @param transform_to the transformation function from the @source to the @target, or %NULL to use the default
* @param transform_from the transformation function from the @target to the @source, or %NULL to use the default
* @param notify a function to call when disposing the binding, to free resources used by the transformation functions, or %NULL if not required
* @returns the #GBinding instance representing the binding between the two #GObject instances. The binding is released whenever the #GBinding reference count reaches zero.
*/
bind_property_full(
source_property: string,
target: GObject.Object,
target_property: string,
flags: GObject.BindingFlags | null,
transform_to?: GObject.BindingTransformFunc | null,
transform_from?: GObject.BindingTransformFunc | null,
notify?: GLib.DestroyNotify | null,
): GObject.Binding;
// Conflicted with GObject.Object.bind_property_full
bind_property_full(...args: never[]): any;
/**
* This function is intended for #GObject implementations to re-enforce
* a [floating][floating-ref] object reference. Doing this is seldom
* required: all #GInitiallyUnowneds are created with a floating reference
* which usually just needs to be sunken by calling g_object_ref_sink().
*/
force_floating(): void;
/**
* Increases the freeze count on `object`. If the freeze count is
* non-zero, the emission of "notify" signals on `object` is
* stopped. The signals are queued until the freeze count is decreased
* to zero. Duplicate notifications are squashed so that at most one
* #GObject::notify signal is emitted for each property modified while the
* object is frozen.
*
* This is necessary for accessors that modify multiple properties to prevent
* premature notification while the object is still being modified.
*/
freeze_notify(): void;
/**
* Gets a named field from the objects table of associations (see g_object_set_data()).
* @param key name of the key for that association
* @returns the data if found, or %NULL if no such data exists.
*/
get_data(key: string): any | null;
get_property(property_name: string): any;
/**
* This function gets back user data pointers stored via
* g_object_set_qdata().
* @param quark A #GQuark, naming the user data pointer
* @returns The user data pointer set, or %NULL
*/
get_qdata(quark: GLib.Quark): any | null;
/**
* Gets `n_properties` properties for an `object`.
* Obtained properties will be set to `values`. All properties must be valid.
* Warnings will be emitted and undefined behaviour may result if invalid
* properties are passed in.
* @param names the names of each property to get
* @param values the values of each property to get
*/
getv(names: string[], values: (GObject.Value | any)[]): void;
/**
* Checks whether `object` has a [floating][floating-ref] reference.
* @returns %TRUE if @object has a floating reference
*/
is_floating(): boolean;
/**
* Emits a "notify" signal for the property `property_name` on `object`.
*
* When possible, eg. when signaling a property change from within the class
* that registered the property, you should use g_object_notify_by_pspec()
* instead.
*
* Note that emission of the notify signal may be blocked with
* g_object_freeze_notify(). In this case, the signal emissions are queued
* and will be emitted (in reverse order) when g_object_thaw_notify() is
* called.
* @param property_name the name of a property installed on the class of @object.
*/
notify(property_name: string): void;
/**
* Emits a "notify" signal for the property specified by `pspec` on `object`.
*
* This function omits the property name lookup, hence it is faster than
* g_object_notify().
*
* One way to avoid using g_object_notify() from within the
* class that registered the properties, and using g_object_notify_by_pspec()
* instead, is to store the GParamSpec used with
* g_object_class_install_property() inside a static array, e.g.:
*
*
* ```c
* typedef enum
* {
* PROP_FOO = 1,
* PROP_LAST
* } MyObjectProperty;
*
* static GParamSpec *properties[PROP_LAST];
*
* static void
* my_object_class_init (MyObjectClass *klass)
* {
* properties[PROP_FOO] = g_param_spec_int ("foo", NULL, NULL,
* 0, 100,
* 50,
* G_PARAM_READWRITE | G_PARAM_STATIC_STRINGS);
* g_object_class_install_property (gobject_class,
* PROP_FOO,
* properties[PROP_FOO]);
* }
* ```
*
*
* and then notify a change on the "foo" property with:
*
*
* ```c
* g_object_notify_by_pspec (self, properties[PROP_FOO]);
* ```
*
* @param pspec the #GParamSpec of a property installed on the class of @object.
*/
notify_by_pspec(pspec: GObject.ParamSpec): void;
/**
* Increases the reference count of `object`.
*
* Since GLib 2.56, if `GLIB_VERSION_MAX_ALLOWED` is 2.56 or greater, the type
* of `object` will be propagated to the return type (using the GCC typeof()
* extension), so any casting the caller needs to do on the return type must be
* explicit.
* @returns the same @object
*/
ref(): GObject.Object;
/**
* Increase the reference count of `object,` and possibly remove the
* [floating][floating-ref] reference, if `object` has a floating reference.
*
* In other words, if the object is floating, then this call "assumes
* ownership" of the floating reference, converting it to a normal
* reference by clearing the floating flag while leaving the reference
* count unchanged. If the object is not floating, then this call
* adds a new normal reference increasing the reference count by one.
*
* Since GLib 2.56, the type of `object` will be propagated to the return type
* under the same conditions as for g_object_ref().
* @returns @object
*/
ref_sink(): GObject.Object;
/**
* Releases all references to other objects. This can be used to break
* reference cycles.
*
* This function should only be called from object system implementations.
*/
run_dispose(): void;
/**
* Each object carries around a table of associations from
* strings to pointers. This function lets you set an association.
*
* If the object already had an association with that name,
* the old association will be destroyed.
*
* Internally, the `key` is converted to a #GQuark using g_quark_from_string().
* This means a copy of `key` is kept permanently (even after `object` has been
* finalized) — so it is recommended to only use a small, bounded set of values
* for `key` in your program, to avoid the #GQuark storage growing unbounded.
* @param key name of the key
* @param data data to associate with that key
*/
set_data(key: string, data?: any | null): void;
set_property(property_name: string, value: any): void;
/**
* Remove a specified datum from the object's data associations,
* without invoking the association's destroy handler.
* @param key name of the key
* @returns the data if found, or %NULL if no such data exists.
*/
steal_data(key: string): any | null;
/**
* This function gets back user data pointers stored via
* g_object_set_qdata() and removes the `data` from object
* without invoking its destroy() function (if any was
* set).
* Usually, calling this function is only required to update
* user data pointers with a destroy notifier, for example:
*
* ```c
* void
* object_add_to_user_list (GObject *object,
* const gchar *new_string)
* {
* // the quark, naming the object data
* GQuark quark_string_list = g_quark_from_static_string ("my-string-list");
* // retrieve the old string list
* GList *list = g_object_steal_qdata (object, quark_string_list);
*
* // prepend new string
* list = g_list_prepend (list, g_strdup (new_string));
* // this changed 'list', so we need to set it again
* g_object_set_qdata_full (object, quark_string_list, list, free_string_list);
* }
* static void
* free_string_list (gpointer data)
* {
* GList *node, *list = data;
*
* for (node = list; node; node = node->next)
* g_free (node->data);
* g_list_free (list);
* }
* ```
*
* Using g_object_get_qdata() in the above example, instead of
* g_object_steal_qdata() would have left the destroy function set,
* and thus the partial string list would have been freed upon
* g_object_set_qdata_full().
* @param quark A #GQuark, naming the user data pointer
* @returns The user data pointer set, or %NULL
*/
steal_qdata(quark: GLib.Quark): any | null;
/**
* Reverts the effect of a previous call to
* g_object_freeze_notify(). The freeze count is decreased on `object`
* and when it reaches zero, queued "notify" signals are emitted.
*
* Duplicate notifications for each property are squashed so that at most one
* #GObject::notify signal is emitted for each property, in the reverse order
* in which they have been queued.
*
* It is an error to call this function when the freeze count is zero.
*/
thaw_notify(): void;
/**
* Decreases the reference count of `object`. When its reference count
* drops to 0, the object is finalized (i.e. its memory is freed).
*
* If the pointer to the #GObject may be reused in future (for example, if it is
* an instance variable of another object), it is recommended to clear the
* pointer to %NULL rather than retain a dangling pointer to a potentially
* invalid #GObject instance. Use g_clear_object() for this.
*/
unref(): void;
/**
* This function essentially limits the life time of the `closure` to
* the life time of the object. That is, when the object is finalized,
* the `closure` is invalidated by calling g_closure_invalidate() on
* it, in order to prevent invocations of the closure with a finalized
* (nonexisting) object. Also, g_object_ref() and g_object_unref() are
* added as marshal guards to the `closure,` to ensure that an extra
* reference count is held on `object` during invocation of the
* `closure`. Usually, this function will be called on closures that
* use this `object` as closure data.
* @param closure #GClosure to watch
*/
watch_closure(closure: GObject.Closure): void;
/**
* the `constructed` function is called by g_object_new() as the
* final step of the object creation process. At the point of the call, all
* construction properties have been set on the object. The purpose of this
* call is to allow for object initialisation steps that can only be performed
* after construction properties have been set. `constructed` implementors
* should chain up to the `constructed` call of their parent class to allow it
* to complete its initialisation.
*/
vfunc_constructed(): void;
/**
* emits property change notification for a bunch
* of properties. Overriding `dispatch_properties_changed` should be rarely
* needed.
* @param n_pspecs
* @param pspecs
*/
vfunc_dispatch_properties_changed(n_pspecs: number, pspecs: GObject.ParamSpec): void;
/**
* the `dispose` function is supposed to drop all references to other
* objects, but keep the instance otherwise intact, so that client method
* invocations still work. It may be run multiple times (due to reference
* loops). Before returning, `dispose` should chain up to the `dispose` method
* of the parent class.
*/
vfunc_dispose(): void;
/**
* instance finalization function, should finish the finalization of
* the instance begun in `dispose` and chain up to the `finalize` method of the
* parent class.
*/
vfunc_finalize(): void;
/**
* the generic getter for all properties of this type. Should be
* overridden for every type with properties.
* @param property_id
* @param value
* @param pspec
*/
vfunc_get_property(property_id: number, value: GObject.Value | any, pspec: GObject.ParamSpec): void;
/**
* Emits a "notify" signal for the property `property_name` on `object`.
*
* When possible, eg. when signaling a property change from within the class
* that registered the property, you should use g_object_notify_by_pspec()
* instead.
*
* Note that emission of the notify signal may be blocked with
* g_object_freeze_notify(). In this case, the signal emissions are queued
* and will be emitted (in reverse order) when g_object_thaw_notify() is
* called.
* @param pspec
*/
vfunc_notify(pspec: GObject.ParamSpec): void;
/**
* the generic setter for all properties of this type. Should be
* overridden for every type with properties. If implementations of
* `set_property` don't emit property change notification explicitly, this will
* be done implicitly by the type system. However, if the notify signal is
* emitted explicitly, the type system will not emit it a second time.
* @param property_id
* @param value
* @param pspec
*/
vfunc_set_property(property_id: number, value: GObject.Value | any, pspec: GObject.ParamSpec): void;
disconnect(id: number): void;
set(properties: { [key: string]: any }): void;
block_signal_handler(id: number): any;
unblock_signal_handler(id: number): any;
stop_emission_by_name(detailedName: string): any;
}
module SequenceModel {
// Constructor properties interface
interface ConstructorProps
extends SerializableModel.ConstructorProps,
Model.ConstructorProps,
Serializable.ConstructorProps {}
}
/**
* All fields in the DeeSequenceModel structure are private and should never be
* accessed directly
*/
class SequenceModel extends SerializableModel implements Model, Serializable {
static $gtype: GObject.GType;
// Constructors
constructor(properties?: Partial, ...args: any[]);
_init(...args: any[]): void;
static ['new'](): SequenceModel;
// Inherited methods
/**
* Like dee_model_append() but intended for language bindings or
* situations where you work with models on a meta level and may not have
* a prior knowledge of the column schemas of the models. See also
* dee_model_build_row().
* @param row_members An array of #GVariants with type signature matching those of the column schemas of @self. If any of the variants have floating references they will be consumed
* @returns A #DeeModelIter pointing to the new row
*/
append_row(row_members: GLib.Variant[]): ModelIter;
/**
* Notify listeners that the model is about to be changed, which means that
* multiple row additions / changes / removals will follow.
* The default implementation of this method will emit
* the ::changeset-started signal.
*
* It is not stricly necessary to enclose every change to a model
* in a dee_model_begin_changeset() and dee_model_end_changeset() calls, but
* doing so is highly recommended and allows implementing various optimizations.
*
* The usual way to perform multiple changes to a model is as follows:
*
*
* void update_model (DeeModel *model)
* {
* GVariant **added_row_data1 = ...;
* GVariant **added_row_data2 = ...;
*
* dee_model_begin_changeset (model);
*
* dee_model_remove (model, dee_model_get_first_iter (model));
* dee_model_append_row (model, added_row_data1);
* dee_model_append_row (model, added_row_data2);
*
* dee_model_end_changeset (model);
* }
*
*/
begin_changeset(): void;
/**
* Removes all rows in the model. Signals are emitted for each row in the model
*/
clear(): void;
/**
* This method is purely syntactic sugar for calling dee_model_set_tag() with
* a `value` of %NULL. It's included in order to help developers write more
* readable code.
* @param iter The row to clear the tag from
* @param tag The tag to clear from @iter
*/
clear_tag(iter: ModelIter, tag: ModelTag): void;
/**
* Notify listeners that all changes have been committed to the model.
* The default implementation of this method will emit
* the ::changeset-finished signal.
*
* See also dee_model_begin_changeset().
*/
end_changeset(): void;
/**
* Finds a row in `self` according to the sorting specified by `cmp_func`.
* This method will assume that `self` is already sorted by `cmp_func`.
*
* If you use this method for searching you should only use
* dee_model_insert_row_sorted() to insert rows in the model.
* @param row_spec An array of #GVariants with type signature matching those of the column schemas of @self. No references will be taken on the variants.
* @param cmp_func Callback used for comparison or rows
* @returns If @out_was_found is set to %TRUE then a #DeeModelIter pointing to the last matching row. If it is %FALSE then the iter pointing to the row just after where @row_spec_would have been inserted.
*/
find_row_sorted(row_spec: GLib.Variant[], cmp_func: CompareRowFunc): [ModelIter, boolean];
/**
* Like dee_model_find_row_sorted(), but uses DeeCompareRowSizedFunc and
* therefore doesn't cause trouble when used from introspected languages.
*
* Finds a row in `self` according to the sorting specified by `cmp_func`.
* This method will assume that `self` is already sorted by `cmp_func`.
*
* If you use this method for searching you should only use
* dee_model_insert_row_sorted() (or dee_model_insert_row_sorted_with_sizes())
* to insert rows in the model.
* @param row_spec An array of #GVariants with type signature matching those of the column schemas of @self. No references will be taken on the variants.
* @param cmp_func Callback used for comparison or rows
* @returns If @out_was_found is set to %TRUE then a #DeeModelIter pointing to the last matching row. If it is %FALSE then the iter pointing to the row just after where @row_spec_would have been inserted.
*/
find_row_sorted_with_sizes(row_spec: GLib.Variant[], cmp_func: CompareRowSizedFunc): [ModelIter, boolean];
get_bool(iter: ModelIter, column: number): boolean;
/**
* Get the column index of a column.
* @param column_name the column name to retrieve the index of
* @returns 0-based index of the column or -1 if column with this name wasn't found
*/
get_column_index(column_name: string): number;
/**
* Get a %NULL-terminated array of column names for the columns of `self`.
* These names can be used in calls to dee_model_build_named_row().
* @returns A %NULL-terminated array of #GVariant type strings. The length of the returned array is written to @num_columns. The returned array should not be freed or modified. It is owned by the model.
*/
get_column_names(): string[];
/**
* Get the #GVariant signature of a column
* @param column the column to get retrieve the #GVariant type string of
* @returns the #GVariant signature of the column at index @column
*/
get_column_schema(column: number): string;
get_double(iter: ModelIter, column: number): number;
/**
* Get the #GVariant signature of field previously registered with
* dee_model_register_vardict_schema().
* @param field_name name of vardict field to get schema of
* @returns the #GVariant signature for the field, or %NULL if given field wasn't registered with dee_model_register_vardict_schema().
*/
get_field_schema(field_name: string): [string, number];
/**
* Retrieves a #DeeModelIter representing the first row in `self`.
* @returns A #DeeModelIter (owned by @self, do not free it)
*/
get_first_iter(): ModelIter;
get_int32(iter: ModelIter, column: number): number;
get_int64(iter: ModelIter, column: number): number;
/**
* Retrieves a #DeeModelIter representing the row at the given index.
*
* Note that this method does not have any performance guarantees. In particular
* it is not guaranteed to be O(1).
* @param row position of the row to retrieve
* @returns A new #DeeModelIter, or %NULL if @row was out of bounds. The returned iter is owned by @self, so do not free it.
*/
get_iter_at_row(row: number): ModelIter;
/**
* Retrieves a #DeeModelIter pointing right after the
* last row in `self`. This is refered to also the the
* end iter.
*
* As with other iters the end iter, in particular, is stable over inserts,
* changes, or removals.
* @returns A #DeeModelIter (owned by @self, do not free it)
*/
get_last_iter(): ModelIter;
/**
* Gets the number of columns in `self`
* @returns the number of columns per row in @self
*/
get_n_columns(): number;
/**
* Gets the number of rows in `self`
* @returns the number of rows in @self
*/
get_n_rows(): number;
/**
* Get the numeric offset of `iter` into `self`. Note that this method is
* not guaranteed to be O(1).
* @param iter The iter to get the position of
* @returns The integer offset of @iter in @self
*/
get_position(iter: ModelIter): number;
get_row(iter: ModelIter): [GLib.Variant[], GLib.Variant[] | null];
/**
* Get a %NULL-terminated array of #GVariant type strings that defines the
* required formats for the columns of `self`.
* @returns A %NULL-terminated array of #GVariant type strings. The length of the returned array is written to @num_columns. The returned array should not be freed or modified. It is owned by the model.
*/
get_schema(): string[];
get_string(iter: ModelIter, column: number): string;
/**
* Look up a tag value for a given row in a model. This method is guaranteed
* to be O(1).
* @param iter A #DeeModelIter pointing to the row to get the tag from
* @param tag The tag handle to retrieve the tag value for
* @returns Returns %NULL if @tag is unset otherwise the value of the tag as it was set with dee_model_set_tag().
*/
get_tag(iter: ModelIter, tag: ModelTag): any | null;
get_uchar(iter: ModelIter, column: number): number;
get_uint32(iter: ModelIter, column: number): number;
get_uint64(iter: ModelIter, column: number): number;
get_value(iter: ModelIter, column: number): GLib.Variant;
get_value_by_name(iter: ModelIter, column_name: string): GLib.Variant;
/**
* Get a schema for variant dictionary column previously registered using
* dee_model_register_vardict_schema().
* @param column the column index to get the schemas for
* @returns Hashtable containing a mapping from field names to schemas or NULL. Note that keys and values in the hashtable may be owned by the model, so you need to create a deep copy if you intend to keep the hashtable around.
*/
get_vardict_schema(column: number): GLib.HashTable;
/**
* As dee_model_insert(), but intended for language bindings or
* situations where you work with models on a meta level and may not have
* a priori knowledge of the column schemas of the models. See also
* dee_model_build_row().
* @param pos The index to insert the row on. The existing row will be pushed down.
* @param row_members An array of #GVariants with type signature matching those of the column schemas of @self. If any of the variants have floating references they will be consumed.
* @returns A #DeeModelIter pointing to the new row
*/
insert_row(pos: number, row_members: GLib.Variant[]): ModelIter;
/**
* As dee_model_insert_before(), but intended for language bindings or
* situations where you work with models on a meta level and may not have
* a priori knowledge of the column schemas of the models. See also
* dee_model_build_row().
* @param iter An iter pointing to the row before which to insert the new one
* @param row_members An array of #GVariants with type signature matching those of the column schemas of @self. If any of the variants have floating references they will be consumed.
* @returns A #DeeModelIter pointing to the new row
*/
insert_row_before(iter: ModelIter, row_members: GLib.Variant[]): ModelIter;
/**
* Inserts a row in `self` according to the sorting specified by `cmp_func`.
* If you use this method for insertion you should not use other methods as this
* method assumes the model to be already sorted by `cmp_func`.
* @param row_members An array of #GVariants with type signature matching those of the column schemas of @self. If any of the variants have floating references they will be consumed.
* @param cmp_func Callback used for comparison or rows
* @returns A #DeeModelIter pointing to the new row
*/
insert_row_sorted(row_members: GLib.Variant[], cmp_func: CompareRowFunc): ModelIter;
/**
* Inserts a row in `self` according to the sorting specified by `cmp_func`.
* If you use this method for insertion you should not use other methods as this
* method assumes the model to be already sorted by `cmp_func`.
* @param row_members An array of #GVariants with type signature matching those of the column schemas of @self. If any of the variants have floating references they will be consumed.
* @param cmp_func Callback used for comparison or rows
* @returns A #DeeModelIter pointing to the new row
*/
insert_row_sorted_with_sizes(row_members: GLib.Variant[], cmp_func: CompareRowSizedFunc): ModelIter;
/**
* Checks if `iter` is the very first iter `self`.
* @param iter a #DeeModelIter
* @returns #TRUE if @iter is the first iter in the model
*/
is_first(iter: ModelIter): boolean;
/**
* Whether `iter` is the end iter of `self`. Note that the end iter points
* right after the last valid row in `self`.
* @param iter a #DeeModelIter
* @returns #TRUE if @iter is the last iter in the model
*/
is_last(iter: ModelIter): boolean;
/**
* Returns a #DeeModelIter that points to the next position in the model.
* @param iter a #DeeModelIter
* @returns A #DeeModelIter, pointing to the next row in the model. The iter is owned by @self, do not free it.
*/
next(iter: ModelIter): ModelIter;
/**
* Like dee_model_prepend() but intended for language bindings or
* situations where you work with models on a meta level and may not have
* a priori knowledge of the column schemas of the models. See also
* dee_model_build_row().
* @param row_members An array of #GVariants with type signature matching those of the column schemas of @self. If any of the variants have floating references they will be consumed.
* @returns A #DeeModelIter pointing to the new row
*/
prepend_row(row_members: GLib.Variant[]): ModelIter;
/**
* Returns a #DeeModelIter that points to the previous position in the model.
* @param iter a #DeeModelIter
* @returns A #DeeModelIter, pointing to the previous row in the model. The iter is owned by @self, do not free it.
*/
prev(iter: ModelIter): ModelIter;
/**
* Register a new tag on a #DeeModel. A tag is an extra
* value attached to a given row on a model. The tags are invisible to all
* that doesn't have the tag handle returned by this method. #DeeModel
* implementations must ensure that dee_model_get_tag() is an O(1) operation.
*
* Tags can be very useful in associating some extra data to a row in a model
* and have that automatically synced when the model changes. If you're
* writing a tiled view for a model you might want to tag each row with the
* tile widget for that row. That way you have very convenient access to the
* tile widget given any row in the model.
*
* The private nature of tags and the fact that you can store arbitrary pointers
* and binary data in them also means that they are not serialized if you
* utilize a model implementation that exposes the #DeeSerializable interface.
* @returns A #DeeModelTag handle that you can use to set and get tags with
*/
register_tag(): ModelTag;
/**
* Register schema for fields in a model containing column with variant
* dictionary schema ('a{sv}').
* The keys registered with this function can be later used
* with dee_model_build_named_row() function, as well as
* dee_model_get_value_by_name(). Note that it is possible to register
* the same field name for multiple columns, in which case you need to use
* fully-qualified "column_name::field" name in the calls to
* dee_model_build_named_row() and dee_model_get_field_schema().
* @param column the column index to register the schemas with
* @param schemas hashtable with keys specifying names of the fields and values defining their schema
*/
register_vardict_schema(
column: number,
schemas: { [key: string]: any } | GLib.HashTable,
): void;
/**
* Removes the row at the given position from the model.
* @param iter a #DeeModelIter pointing to the row to remove
*/
remove(iter: ModelIter): void;
/**
* Set column names used by `self`.
* This method must be called exactly once, but only after setting
* a schema of the model. Note that some constructors will do this for you.
* @param column_names A list of column names terminated by a %NULL
*/
set_column_names_full(column_names: string[]): void;
/**
* Sets all columns in the row `iter` points to, to those found in
* `row_members`. The variants in `row_members` must match the types defined in
* the model's schema.
* @param iter a #DeeModelIter
* @param row_members And array of #GVariants with type signature matching those from the model schema. If any of the variants have floating references these will be consumed
*/
set_row(iter: ModelIter, row_members: GLib.Variant[]): void;
/**
* Set the #GVariant types and the number of columns used by `self`.
* This method must be called exactly once before using `self`. Note that
* some constructors will do this for you.
* @param column_schemas A list of #GVariant type strings terminated by a %NULL
*/
set_schema_full(column_schemas: string[]): void;
/**
* Set a tag on a row in a model. This function is guaranteed to be O(1).
* See also dee_model_register_tag().
*
* If `tag` is already set on this row the existing tag value will be destroyed
* with the #GDestroyNotify passed to the dee_model_register_tag().
* @param iter The row to set the tag on
* @param tag The tag handle for the tag as obtained from dee_model_register_tag()
* @param value The value to set for @tag. Note that %NULL represents an unset tag
*/
set_tag(iter: ModelIter, tag: ModelTag, value?: any | null): void;
/**
* Sets the data in `column` for the row `iter` points to, to `value`. The type
* of `value` must be convertible to the type of the column.
*
* When this method call completes the model will emit ::row-changed. You can
* edit the model in place without triggering the change signals by calling
* dee_model_set_value_silently().
* @param iter a #DeeModelIter
* @param column column number to set the value
* @param value New value for cell. If @value is a floating reference the model will assume ownership of the variant
*/
set_value(iter: ModelIter, column: number, value: GLib.Variant): void;
/**
* Like dee_model_append() but intended for language bindings or
* situations where you work with models on a meta level and may not have
* a prior knowledge of the column schemas of the models. See also
* dee_model_build_row().
* @param row_members An array of #GVariants with type signature matching those of the column schemas of @self. If any of the variants have floating references they will be consumed
*/
vfunc_append_row(row_members: GLib.Variant[]): ModelIter;
/**
* Notify listeners that the model is about to be changed, which means that
* multiple row additions / changes / removals will follow.
* The default implementation of this method will emit
* the ::changeset-started signal.
*
* It is not stricly necessary to enclose every change to a model
* in a dee_model_begin_changeset() and dee_model_end_changeset() calls, but
* doing so is highly recommended and allows implementing various optimizations.
*
* The usual way to perform multiple changes to a model is as follows:
*
*
* void update_model (DeeModel *model)
* {
* GVariant **added_row_data1 = ...;
* GVariant **added_row_data2 = ...;
*
* dee_model_begin_changeset (model);
*
* dee_model_remove (model, dee_model_get_first_iter (model));
* dee_model_append_row (model, added_row_data1);
* dee_model_append_row (model, added_row_data2);
*
* dee_model_end_changeset (model);
* }
*
*/
vfunc_begin_changeset(): void;
vfunc_changeset_finished(): void;
vfunc_changeset_started(): void;
/**
* Removes all rows in the model. Signals are emitted for each row in the model
*/
vfunc_clear(): void;
/**
* Notify listeners that all changes have been committed to the model.
* The default implementation of this method will emit
* the ::changeset-finished signal.
*
* See also dee_model_begin_changeset().
*/
vfunc_end_changeset(): void;
/**
* Finds a row in `self` according to the sorting specified by `cmp_func`.
* This method will assume that `self` is already sorted by `cmp_func`.
*
* If you use this method for searching you should only use
* dee_model_insert_row_sorted() to insert rows in the model.
* @param row_spec An array of #GVariants with type signature matching those of the column schemas of @self. No references will be taken on the variants.
* @param cmp_func Callback used for comparison or rows
*/
vfunc_find_row_sorted(row_spec: GLib.Variant[], cmp_func: CompareRowFunc): [ModelIter, boolean];
vfunc_get_bool(iter: ModelIter, column: number): boolean;
/**
* Get the column index of a column.
* @param column_name the column name to retrieve the index of
*/
vfunc_get_column_index(column_name: string): number;
/**
* Get a %NULL-terminated array of column names for the columns of `self`.
* These names can be used in calls to dee_model_build_named_row().
*/
vfunc_get_column_names(): string[];
/**
* Get the #GVariant signature of a column
* @param column the column to get retrieve the #GVariant type string of
*/
vfunc_get_column_schema(column: number): string;
vfunc_get_double(iter: ModelIter, column: number): number;
/**
* Get the #GVariant signature of field previously registered with
* dee_model_register_vardict_schema().
* @param field_name name of vardict field to get schema of
*/
vfunc_get_field_schema(field_name: string): [string, number];
/**
* Retrieves a #DeeModelIter representing the first row in `self`.
*/
vfunc_get_first_iter(): ModelIter;
vfunc_get_int32(iter: ModelIter, column: number): number;
vfunc_get_int64(iter: ModelIter, column: number): number;
/**
* Retrieves a #DeeModelIter representing the row at the given index.
*
* Note that this method does not have any performance guarantees. In particular
* it is not guaranteed to be O(1).
* @param row position of the row to retrieve
*/
vfunc_get_iter_at_row(row: number): ModelIter;
/**
* Retrieves a #DeeModelIter pointing right after the
* last row in `self`. This is refered to also the the
* end iter.
*
* As with other iters the end iter, in particular, is stable over inserts,
* changes, or removals.
*/
vfunc_get_last_iter(): ModelIter;
/**
* Gets the number of columns in `self`
*/
vfunc_get_n_columns(): number;
/**
* Gets the number of rows in `self`
*/
vfunc_get_n_rows(): number;
/**
* Get the numeric offset of `iter` into `self`. Note that this method is
* not guaranteed to be O(1).
* @param iter The iter to get the position of
*/
vfunc_get_position(iter: ModelIter): number;
vfunc_get_row(iter: ModelIter, out_row_members: GLib.Variant): GLib.Variant;
/**
* Get a %NULL-terminated array of #GVariant type strings that defines the
* required formats for the columns of `self`.
*/
vfunc_get_schema(): string[];
vfunc_get_string(iter: ModelIter, column: number): string;
/**
* Look up a tag value for a given row in a model. This method is guaranteed
* to be O(1).
* @param iter A #DeeModelIter pointing to the row to get the tag from
* @param tag The tag handle to retrieve the tag value for
*/
vfunc_get_tag(iter: ModelIter, tag: ModelTag): any | null;
vfunc_get_uchar(iter: ModelIter, column: number): number;
vfunc_get_uint32(iter: ModelIter, column: number): number;
vfunc_get_uint64(iter: ModelIter, column: number): number;
vfunc_get_value(iter: ModelIter, column: number): GLib.Variant;
vfunc_get_value_by_name(iter: ModelIter, column_name: string): GLib.Variant;
/**
* Get a schema for variant dictionary column previously registered using
* dee_model_register_vardict_schema().
* @param num_column
*/
vfunc_get_vardict_schema(num_column: number): GLib.HashTable;
/**
* As dee_model_insert(), but intended for language bindings or
* situations where you work with models on a meta level and may not have
* a priori knowledge of the column schemas of the models. See also
* dee_model_build_row().
* @param pos The index to insert the row on. The existing row will be pushed down.
* @param row_members An array of #GVariants with type signature matching those of the column schemas of @self. If any of the variants have floating references they will be consumed.
*/
vfunc_insert_row(pos: number, row_members: GLib.Variant[]): ModelIter;
/**
* As dee_model_insert_before(), but intended for language bindings or
* situations where you work with models on a meta level and may not have
* a priori knowledge of the column schemas of the models. See also
* dee_model_build_row().
* @param iter An iter pointing to the row before which to insert the new one
* @param row_members An array of #GVariants with type signature matching those of the column schemas of @self. If any of the variants have floating references they will be consumed.
*/
vfunc_insert_row_before(iter: ModelIter, row_members: GLib.Variant[]): ModelIter;
/**
* Inserts a row in `self` according to the sorting specified by `cmp_func`.
* If you use this method for insertion you should not use other methods as this
* method assumes the model to be already sorted by `cmp_func`.
* @param row_members An array of #GVariants with type signature matching those of the column schemas of @self. If any of the variants have floating references they will be consumed.
* @param cmp_func Callback used for comparison or rows
*/
vfunc_insert_row_sorted(row_members: GLib.Variant[], cmp_func: CompareRowFunc): ModelIter;
/**
* Checks if `iter` is the very first iter `self`.
* @param iter a #DeeModelIter
*/
vfunc_is_first(iter: ModelIter): boolean;
/**
* Whether `iter` is the end iter of `self`. Note that the end iter points
* right after the last valid row in `self`.
* @param iter a #DeeModelIter
*/
vfunc_is_last(iter: ModelIter): boolean;
/**
* Returns a #DeeModelIter that points to the next position in the model.
* @param iter a #DeeModelIter
*/
vfunc_next(iter: ModelIter): ModelIter;
/**
* Like dee_model_prepend() but intended for language bindings or
* situations where you work with models on a meta level and may not have
* a priori knowledge of the column schemas of the models. See also
* dee_model_build_row().
* @param row_members An array of #GVariants with type signature matching those of the column schemas of @self. If any of the variants have floating references they will be consumed.
*/
vfunc_prepend_row(row_members: GLib.Variant[]): ModelIter;
/**
* Returns a #DeeModelIter that points to the previous position in the model.
* @param iter a #DeeModelIter
*/
vfunc_prev(iter: ModelIter): ModelIter;
/**
* Register a new tag on a #DeeModel. A tag is an extra
* value attached to a given row on a model. The tags are invisible to all
* that doesn't have the tag handle returned by this method. #DeeModel
* implementations must ensure that dee_model_get_tag() is an O(1) operation.
*
* Tags can be very useful in associating some extra data to a row in a model
* and have that automatically synced when the model changes. If you're
* writing a tiled view for a model you might want to tag each row with the
* tile widget for that row. That way you have very convenient access to the
* tile widget given any row in the model.
*
* The private nature of tags and the fact that you can store arbitrary pointers
* and binary data in them also means that they are not serialized if you
* utilize a model implementation that exposes the #DeeSerializable interface.
*/
vfunc_register_tag(): ModelTag;
/**
* Register schema for fields in a model containing column with variant
* dictionary schema ('a{sv}').
* The keys registered with this function can be later used
* with dee_model_build_named_row() function, as well as
* dee_model_get_value_by_name(). Note that it is possible to register
* the same field name for multiple columns, in which case you need to use
* fully-qualified "column_name::field" name in the calls to
* dee_model_build_named_row() and dee_model_get_field_schema().
* @param num_column
* @param schemas hashtable with keys specifying names of the fields and values defining their schema
*/
vfunc_register_vardict_schema(
num_column: number,
schemas: { [key: string]: any } | GLib.HashTable,
): void;
/**
* Removes the row at the given position from the model.
* @param iter a #DeeModelIter pointing to the row to remove
*/
vfunc_remove(iter: ModelIter): void;
vfunc_row_added(iter: ModelIter): void;
vfunc_row_changed(iter: ModelIter): void;
vfunc_row_removed(iter: ModelIter): void;
/**
* Set column names used by `self`.
* This method must be called exactly once, but only after setting
* a schema of the model. Note that some constructors will do this for you.
* @param column_names A list of column names terminated by a %NULL
*/
vfunc_set_column_names_full(column_names: string[]): void;
/**
* Sets all columns in the row `iter` points to, to those found in
* `row_members`. The variants in `row_members` must match the types defined in
* the model's schema.
* @param iter a #DeeModelIter
* @param row_members And array of #GVariants with type signature matching those from the model schema. If any of the variants have floating references these will be consumed
*/
vfunc_set_row(iter: ModelIter, row_members: GLib.Variant[]): void;
/**
* Set the #GVariant types and the number of columns used by `self`.
* This method must be called exactly once before using `self`. Note that
* some constructors will do this for you.
* @param column_schemas A list of #GVariant type strings terminated by a %NULL
*/
vfunc_set_schema_full(column_schemas: string[]): void;
/**
* Set a tag on a row in a model. This function is guaranteed to be O(1).
* See also dee_model_register_tag().
*
* If `tag` is already set on this row the existing tag value will be destroyed
* with the #GDestroyNotify passed to the dee_model_register_tag().
* @param iter The row to set the tag on
* @param tag The tag handle for the tag as obtained from dee_model_register_tag()
* @param value The value to set for @tag. Note that %NULL represents an unset tag
*/
vfunc_set_tag(iter: ModelIter, tag: ModelTag, value?: any | null): void;
/**
* Sets the data in `column` for the row `iter` points to, to `value`. The type
* of `value` must be convertible to the type of the column.
*
* When this method call completes the model will emit ::row-changed. You can
* edit the model in place without triggering the change signals by calling
* dee_model_set_value_silently().
* @param iter a #DeeModelIter
* @param column column number to set the value
* @param value New value for cell. If @value is a floating reference the model will assume ownership of the variant
*/
vfunc_set_value(iter: ModelIter, column: number, value: GLib.Variant): void;
/**
* Build an externalized form of `self` which can be used together with
* dee_serializable_parse_external() to rebuild a copy of `self`.
*
* It is important to note that the variant returned from this method does
* not have the same type signature as returned from a call to
* dee_serializable_serialize(). Externalization will wrap the serialized data
* in a container format with versioning information and headers with type
* information.
* @returns A floating reference to a #GVariant with the externalized data.
*/
externalize(): GLib.Variant;
/**
* Build a clean serialized representation of `self`. The signature of the
* returned variant is entirely determined by the underlying implementation.
* You can recreate a serialized instance by calling dee_serializable_parse()
* provided that you know the correct #GType for the serialized instance.
* @returns A reference to a #GVariant with the serialized data. The variants type signature is entirely dependent of the underlying implementation. Free using g_variant_unref().
*/
serialize(): GLib.Variant;
/**
* Build a clean serialized representation of `self`. The signature of the
* returned variant is entirely determined by the underlying implementation.
* You can recreate a serialized instance by calling dee_serializable_parse()
* provided that you know the correct #GType for the serialized instance.
*/
vfunc_serialize(): GLib.Variant;
/**
* Creates a binding between `source_property` on `source` and `target_property`
* on `target`.
*
* Whenever the `source_property` is changed the `target_property` is
* updated using the same value. For instance:
*
*
* ```c
* g_object_bind_property (action, "active", widget, "sensitive", 0);
* ```
*
*
* Will result in the "sensitive" property of the widget #GObject instance to be
* updated with the same value of the "active" property of the action #GObject
* instance.
*
* If `flags` contains %G_BINDING_BIDIRECTIONAL then the binding will be mutual:
* if `target_property` on `target` changes then the `source_property` on `source`
* will be updated as well.
*
* The binding will automatically be removed when either the `source` or the
* `target` instances are finalized. To remove the binding without affecting the
* `source` and the `target` you can just call g_object_unref() on the returned
* #GBinding instance.
*
* Removing the binding by calling g_object_unref() on it must only be done if
* the binding, `source` and `target` are only used from a single thread and it
* is clear that both `source` and `target` outlive the binding. Especially it
* is not safe to rely on this if the binding, `source` or `target` can be
* finalized from different threads. Keep another reference to the binding and
* use g_binding_unbind() instead to be on the safe side.
*
* A #GObject can have multiple bindings.
* @param source_property the property on @source to bind
* @param target the target #GObject
* @param target_property the property on @target to bind
* @param flags flags to pass to #GBinding
* @returns the #GBinding instance representing the binding between the two #GObject instances. The binding is released whenever the #GBinding reference count reaches zero.
*/
bind_property(
source_property: string,
target: GObject.Object,
target_property: string,
flags: GObject.BindingFlags | null,
): GObject.Binding;
/**
* Complete version of g_object_bind_property().
*
* Creates a binding between `source_property` on `source` and `target_property`
* on `target,` allowing you to set the transformation functions to be used by
* the binding.
*
* If `flags` contains %G_BINDING_BIDIRECTIONAL then the binding will be mutual:
* if `target_property` on `target` changes then the `source_property` on `source`
* will be updated as well. The `transform_from` function is only used in case
* of bidirectional bindings, otherwise it will be ignored
*
* The binding will automatically be removed when either the `source` or the
* `target` instances are finalized. This will release the reference that is
* being held on the #GBinding instance; if you want to hold on to the
* #GBinding instance, you will need to hold a reference to it.
*
* To remove the binding, call g_binding_unbind().
*
* A #GObject can have multiple bindings.
*
* The same `user_data` parameter will be used for both `transform_to`
* and `transform_from` transformation functions; the `notify` function will
* be called once, when the binding is removed. If you need different data
* for each transformation function, please use
* g_object_bind_property_with_closures() instead.
* @param source_property the property on @source to bind
* @param target the target #GObject
* @param target_property the property on @target to bind
* @param flags flags to pass to #GBinding
* @param transform_to the transformation function from the @source to the @target, or %NULL to use the default
* @param transform_from the transformation function from the @target to the @source, or %NULL to use the default
* @param notify a function to call when disposing the binding, to free resources used by the transformation functions, or %NULL if not required
* @returns the #GBinding instance representing the binding between the two #GObject instances. The binding is released whenever the #GBinding reference count reaches zero.
*/
bind_property_full(
source_property: string,
target: GObject.Object,
target_property: string,
flags: GObject.BindingFlags | null,
transform_to?: GObject.BindingTransformFunc | null,
transform_from?: GObject.BindingTransformFunc | null,
notify?: GLib.DestroyNotify | null,
): GObject.Binding;
// Conflicted with GObject.Object.bind_property_full
bind_property_full(...args: never[]): any;
/**
* This function is intended for #GObject implementations to re-enforce
* a [floating][floating-ref] object reference. Doing this is seldom
* required: all #GInitiallyUnowneds are created with a floating reference
* which usually just needs to be sunken by calling g_object_ref_sink().
*/
force_floating(): void;
/**
* Increases the freeze count on `object`. If the freeze count is
* non-zero, the emission of "notify" signals on `object` is
* stopped. The signals are queued until the freeze count is decreased
* to zero. Duplicate notifications are squashed so that at most one
* #GObject::notify signal is emitted for each property modified while the
* object is frozen.
*
* This is necessary for accessors that modify multiple properties to prevent
* premature notification while the object is still being modified.
*/
freeze_notify(): void;
/**
* Gets a named field from the objects table of associations (see g_object_set_data()).
* @param key name of the key for that association
* @returns the data if found, or %NULL if no such data exists.
*/
get_data(key: string): any | null;
get_property(property_name: string): any;
/**
* This function gets back user data pointers stored via
* g_object_set_qdata().
* @param quark A #GQuark, naming the user data pointer
* @returns The user data pointer set, or %NULL
*/
get_qdata(quark: GLib.Quark): any | null;
/**
* Gets `n_properties` properties for an `object`.
* Obtained properties will be set to `values`. All properties must be valid.
* Warnings will be emitted and undefined behaviour may result if invalid
* properties are passed in.
* @param names the names of each property to get
* @param values the values of each property to get
*/
getv(names: string[], values: (GObject.Value | any)[]): void;
/**
* Checks whether `object` has a [floating][floating-ref] reference.
* @returns %TRUE if @object has a floating reference
*/
is_floating(): boolean;
/**
* Emits a "notify" signal for the property `property_name` on `object`.
*
* When possible, eg. when signaling a property change from within the class
* that registered the property, you should use g_object_notify_by_pspec()
* instead.
*
* Note that emission of the notify signal may be blocked with
* g_object_freeze_notify(). In this case, the signal emissions are queued
* and will be emitted (in reverse order) when g_object_thaw_notify() is
* called.
* @param property_name the name of a property installed on the class of @object.
*/
notify(property_name: string): void;
/**
* Emits a "notify" signal for the property specified by `pspec` on `object`.
*
* This function omits the property name lookup, hence it is faster than
* g_object_notify().
*
* One way to avoid using g_object_notify() from within the
* class that registered the properties, and using g_object_notify_by_pspec()
* instead, is to store the GParamSpec used with
* g_object_class_install_property() inside a static array, e.g.:
*
*
* ```c
* typedef enum
* {
* PROP_FOO = 1,
* PROP_LAST
* } MyObjectProperty;
*
* static GParamSpec *properties[PROP_LAST];
*
* static void
* my_object_class_init (MyObjectClass *klass)
* {
* properties[PROP_FOO] = g_param_spec_int ("foo", NULL, NULL,
* 0, 100,
* 50,
* G_PARAM_READWRITE | G_PARAM_STATIC_STRINGS);
* g_object_class_install_property (gobject_class,
* PROP_FOO,
* properties[PROP_FOO]);
* }
* ```
*
*
* and then notify a change on the "foo" property with:
*
*
* ```c
* g_object_notify_by_pspec (self, properties[PROP_FOO]);
* ```
*
* @param pspec the #GParamSpec of a property installed on the class of @object.
*/
notify_by_pspec(pspec: GObject.ParamSpec): void;
/**
* Increases the reference count of `object`.
*
* Since GLib 2.56, if `GLIB_VERSION_MAX_ALLOWED` is 2.56 or greater, the type
* of `object` will be propagated to the return type (using the GCC typeof()
* extension), so any casting the caller needs to do on the return type must be
* explicit.
* @returns the same @object
*/
ref(): GObject.Object;
/**
* Increase the reference count of `object,` and possibly remove the
* [floating][floating-ref] reference, if `object` has a floating reference.
*
* In other words, if the object is floating, then this call "assumes
* ownership" of the floating reference, converting it to a normal
* reference by clearing the floating flag while leaving the reference
* count unchanged. If the object is not floating, then this call
* adds a new normal reference increasing the reference count by one.
*
* Since GLib 2.56, the type of `object` will be propagated to the return type
* under the same conditions as for g_object_ref().
* @returns @object
*/
ref_sink(): GObject.Object;
/**
* Releases all references to other objects. This can be used to break
* reference cycles.
*
* This function should only be called from object system implementations.
*/
run_dispose(): void;
/**
* Each object carries around a table of associations from
* strings to pointers. This function lets you set an association.
*
* If the object already had an association with that name,
* the old association will be destroyed.
*
* Internally, the `key` is converted to a #GQuark using g_quark_from_string().
* This means a copy of `key` is kept permanently (even after `object` has been
* finalized) — so it is recommended to only use a small, bounded set of values
* for `key` in your program, to avoid the #GQuark storage growing unbounded.
* @param key name of the key
* @param data data to associate with that key
*/
set_data(key: string, data?: any | null): void;
set_property(property_name: string, value: any): void;
/**
* Remove a specified datum from the object's data associations,
* without invoking the association's destroy handler.
* @param key name of the key
* @returns the data if found, or %NULL if no such data exists.
*/
steal_data(key: string): any | null;
/**
* This function gets back user data pointers stored via
* g_object_set_qdata() and removes the `data` from object
* without invoking its destroy() function (if any was
* set).
* Usually, calling this function is only required to update
* user data pointers with a destroy notifier, for example:
*
* ```c
* void
* object_add_to_user_list (GObject *object,
* const gchar *new_string)
* {
* // the quark, naming the object data
* GQuark quark_string_list = g_quark_from_static_string ("my-string-list");
* // retrieve the old string list
* GList *list = g_object_steal_qdata (object, quark_string_list);
*
* // prepend new string
* list = g_list_prepend (list, g_strdup (new_string));
* // this changed 'list', so we need to set it again
* g_object_set_qdata_full (object, quark_string_list, list, free_string_list);
* }
* static void
* free_string_list (gpointer data)
* {
* GList *node, *list = data;
*
* for (node = list; node; node = node->next)
* g_free (node->data);
* g_list_free (list);
* }
* ```
*
* Using g_object_get_qdata() in the above example, instead of
* g_object_steal_qdata() would have left the destroy function set,
* and thus the partial string list would have been freed upon
* g_object_set_qdata_full().
* @param quark A #GQuark, naming the user data pointer
* @returns The user data pointer set, or %NULL
*/
steal_qdata(quark: GLib.Quark): any | null;
/**
* Reverts the effect of a previous call to
* g_object_freeze_notify(). The freeze count is decreased on `object`
* and when it reaches zero, queued "notify" signals are emitted.
*
* Duplicate notifications for each property are squashed so that at most one
* #GObject::notify signal is emitted for each property, in the reverse order
* in which they have been queued.
*
* It is an error to call this function when the freeze count is zero.
*/
thaw_notify(): void;
/**
* Decreases the reference count of `object`. When its reference count
* drops to 0, the object is finalized (i.e. its memory is freed).
*
* If the pointer to the #GObject may be reused in future (for example, if it is
* an instance variable of another object), it is recommended to clear the
* pointer to %NULL rather than retain a dangling pointer to a potentially
* invalid #GObject instance. Use g_clear_object() for this.
*/
unref(): void;
/**
* This function essentially limits the life time of the `closure` to
* the life time of the object. That is, when the object is finalized,
* the `closure` is invalidated by calling g_closure_invalidate() on
* it, in order to prevent invocations of the closure with a finalized
* (nonexisting) object. Also, g_object_ref() and g_object_unref() are
* added as marshal guards to the `closure,` to ensure that an extra
* reference count is held on `object` during invocation of the
* `closure`. Usually, this function will be called on closures that
* use this `object` as closure data.
* @param closure #GClosure to watch
*/
watch_closure(closure: GObject.Closure): void;
/**
* the `constructed` function is called by g_object_new() as the
* final step of the object creation process. At the point of the call, all
* construction properties have been set on the object. The purpose of this
* call is to allow for object initialisation steps that can only be performed
* after construction properties have been set. `constructed` implementors
* should chain up to the `constructed` call of their parent class to allow it
* to complete its initialisation.
*/
vfunc_constructed(): void;
/**
* emits property change notification for a bunch
* of properties. Overriding `dispatch_properties_changed` should be rarely
* needed.
* @param n_pspecs
* @param pspecs
*/
vfunc_dispatch_properties_changed(n_pspecs: number, pspecs: GObject.ParamSpec): void;
/**
* the `dispose` function is supposed to drop all references to other
* objects, but keep the instance otherwise intact, so that client method
* invocations still work. It may be run multiple times (due to reference
* loops). Before returning, `dispose` should chain up to the `dispose` method
* of the parent class.
*/
vfunc_dispose(): void;
/**
* instance finalization function, should finish the finalization of
* the instance begun in `dispose` and chain up to the `finalize` method of the
* parent class.
*/
vfunc_finalize(): void;
/**
* the generic getter for all properties of this type. Should be
* overridden for every type with properties.
* @param property_id
* @param value
* @param pspec
*/
vfunc_get_property(property_id: number, value: GObject.Value | any, pspec: GObject.ParamSpec): void;
/**
* Emits a "notify" signal for the property `property_name` on `object`.
*
* When possible, eg. when signaling a property change from within the class
* that registered the property, you should use g_object_notify_by_pspec()
* instead.
*
* Note that emission of the notify signal may be blocked with
* g_object_freeze_notify(). In this case, the signal emissions are queued
* and will be emitted (in reverse order) when g_object_thaw_notify() is
* called.
* @param pspec
*/
vfunc_notify(pspec: GObject.ParamSpec): void;
/**
* the generic setter for all properties of this type. Should be
* overridden for every type with properties. If implementations of
* `set_property` don't emit property change notification explicitly, this will
* be done implicitly by the type system. However, if the notify signal is
* emitted explicitly, the type system will not emit it a second time.
* @param property_id
* @param value
* @param pspec
*/
vfunc_set_property(property_id: number, value: GObject.Value | any, pspec: GObject.ParamSpec): void;
disconnect(id: number): void;
set(properties: { [key: string]: any }): void;
block_signal_handler(id: number): any;
unblock_signal_handler(id: number): any;
stop_emission_by_name(detailedName: string): any;
}
module SerializableModel {
// Constructor properties interface
interface ConstructorProps
extends GObject.Object.ConstructorProps,
Model.ConstructorProps,
Serializable.ConstructorProps {}
}
/**
* All fields in the DeeSerializableModel structure are private and should never be
* accessed directly
*/
abstract class SerializableModel extends GObject.Object implements Model, Serializable {
static $gtype: GObject.GType;
// Constructors
constructor(properties?: Partial, ...args: any[]);
_init(...args: any[]): void;
// Methods
get_seqnum(): number;
/**
* Increments sequence number of this #DeeSerializableModel.
*/
inc_seqnum(): number;
/**
* Sets sequence number of this #DeeSerializableModel.
* @param seqnum Sequence number
*/
set_seqnum(seqnum: number): void;
// Inherited methods
/**
* Like dee_model_append() but intended for language bindings or
* situations where you work with models on a meta level and may not have
* a prior knowledge of the column schemas of the models. See also
* dee_model_build_row().
* @param row_members An array of #GVariants with type signature matching those of the column schemas of @self. If any of the variants have floating references they will be consumed
* @returns A #DeeModelIter pointing to the new row
*/
append_row(row_members: GLib.Variant[]): ModelIter;
/**
* Notify listeners that the model is about to be changed, which means that
* multiple row additions / changes / removals will follow.
* The default implementation of this method will emit
* the ::changeset-started signal.
*
* It is not stricly necessary to enclose every change to a model
* in a dee_model_begin_changeset() and dee_model_end_changeset() calls, but
* doing so is highly recommended and allows implementing various optimizations.
*
* The usual way to perform multiple changes to a model is as follows:
*
*
* void update_model (DeeModel *model)
* {
* GVariant **added_row_data1 = ...;
* GVariant **added_row_data2 = ...;
*
* dee_model_begin_changeset (model);
*
* dee_model_remove (model, dee_model_get_first_iter (model));
* dee_model_append_row (model, added_row_data1);
* dee_model_append_row (model, added_row_data2);
*
* dee_model_end_changeset (model);
* }
*
*/
begin_changeset(): void;
/**
* Removes all rows in the model. Signals are emitted for each row in the model
*/
clear(): void;
/**
* This method is purely syntactic sugar for calling dee_model_set_tag() with
* a `value` of %NULL. It's included in order to help developers write more
* readable code.
* @param iter The row to clear the tag from
* @param tag The tag to clear from @iter
*/
clear_tag(iter: ModelIter, tag: ModelTag): void;
/**
* Notify listeners that all changes have been committed to the model.
* The default implementation of this method will emit
* the ::changeset-finished signal.
*
* See also dee_model_begin_changeset().
*/
end_changeset(): void;
/**
* Finds a row in `self` according to the sorting specified by `cmp_func`.
* This method will assume that `self` is already sorted by `cmp_func`.
*
* If you use this method for searching you should only use
* dee_model_insert_row_sorted() to insert rows in the model.
* @param row_spec An array of #GVariants with type signature matching those of the column schemas of @self. No references will be taken on the variants.
* @param cmp_func Callback used for comparison or rows
* @returns If @out_was_found is set to %TRUE then a #DeeModelIter pointing to the last matching row. If it is %FALSE then the iter pointing to the row just after where @row_spec_would have been inserted.
*/
find_row_sorted(row_spec: GLib.Variant[], cmp_func: CompareRowFunc): [ModelIter, boolean];
/**
* Like dee_model_find_row_sorted(), but uses DeeCompareRowSizedFunc and
* therefore doesn't cause trouble when used from introspected languages.
*
* Finds a row in `self` according to the sorting specified by `cmp_func`.
* This method will assume that `self` is already sorted by `cmp_func`.
*
* If you use this method for searching you should only use
* dee_model_insert_row_sorted() (or dee_model_insert_row_sorted_with_sizes())
* to insert rows in the model.
* @param row_spec An array of #GVariants with type signature matching those of the column schemas of @self. No references will be taken on the variants.
* @param cmp_func Callback used for comparison or rows
* @returns If @out_was_found is set to %TRUE then a #DeeModelIter pointing to the last matching row. If it is %FALSE then the iter pointing to the row just after where @row_spec_would have been inserted.
*/
find_row_sorted_with_sizes(row_spec: GLib.Variant[], cmp_func: CompareRowSizedFunc): [ModelIter, boolean];
get_bool(iter: ModelIter, column: number): boolean;
/**
* Get the column index of a column.
* @param column_name the column name to retrieve the index of
* @returns 0-based index of the column or -1 if column with this name wasn't found
*/
get_column_index(column_name: string): number;
/**
* Get a %NULL-terminated array of column names for the columns of `self`.
* These names can be used in calls to dee_model_build_named_row().
* @returns A %NULL-terminated array of #GVariant type strings. The length of the returned array is written to @num_columns. The returned array should not be freed or modified. It is owned by the model.
*/
get_column_names(): string[];
/**
* Get the #GVariant signature of a column
* @param column the column to get retrieve the #GVariant type string of
* @returns the #GVariant signature of the column at index @column
*/
get_column_schema(column: number): string;
get_double(iter: ModelIter, column: number): number;
/**
* Get the #GVariant signature of field previously registered with
* dee_model_register_vardict_schema().
* @param field_name name of vardict field to get schema of
* @returns the #GVariant signature for the field, or %NULL if given field wasn't registered with dee_model_register_vardict_schema().
*/
get_field_schema(field_name: string): [string, number];
/**
* Retrieves a #DeeModelIter representing the first row in `self`.
* @returns A #DeeModelIter (owned by @self, do not free it)
*/
get_first_iter(): ModelIter;
get_int32(iter: ModelIter, column: number): number;
get_int64(iter: ModelIter, column: number): number;
/**
* Retrieves a #DeeModelIter representing the row at the given index.
*
* Note that this method does not have any performance guarantees. In particular
* it is not guaranteed to be O(1).
* @param row position of the row to retrieve
* @returns A new #DeeModelIter, or %NULL if @row was out of bounds. The returned iter is owned by @self, so do not free it.
*/
get_iter_at_row(row: number): ModelIter;
/**
* Retrieves a #DeeModelIter pointing right after the
* last row in `self`. This is refered to also the the
* end iter.
*
* As with other iters the end iter, in particular, is stable over inserts,
* changes, or removals.
* @returns A #DeeModelIter (owned by @self, do not free it)
*/
get_last_iter(): ModelIter;
/**
* Gets the number of columns in `self`
* @returns the number of columns per row in @self
*/
get_n_columns(): number;
/**
* Gets the number of rows in `self`
* @returns the number of rows in @self
*/
get_n_rows(): number;
/**
* Get the numeric offset of `iter` into `self`. Note that this method is
* not guaranteed to be O(1).
* @param iter The iter to get the position of
* @returns The integer offset of @iter in @self
*/
get_position(iter: ModelIter): number;
get_row(iter: ModelIter): [GLib.Variant[], GLib.Variant[] | null];
/**
* Get a %NULL-terminated array of #GVariant type strings that defines the
* required formats for the columns of `self`.
* @returns A %NULL-terminated array of #GVariant type strings. The length of the returned array is written to @num_columns. The returned array should not be freed or modified. It is owned by the model.
*/
get_schema(): string[];
get_string(iter: ModelIter, column: number): string;
/**
* Look up a tag value for a given row in a model. This method is guaranteed
* to be O(1).
* @param iter A #DeeModelIter pointing to the row to get the tag from
* @param tag The tag handle to retrieve the tag value for
* @returns Returns %NULL if @tag is unset otherwise the value of the tag as it was set with dee_model_set_tag().
*/
get_tag(iter: ModelIter, tag: ModelTag): any | null;
get_uchar(iter: ModelIter, column: number): number;
get_uint32(iter: ModelIter, column: number): number;
get_uint64(iter: ModelIter, column: number): number;
get_value(iter: ModelIter, column: number): GLib.Variant;
get_value_by_name(iter: ModelIter, column_name: string): GLib.Variant;
/**
* Get a schema for variant dictionary column previously registered using
* dee_model_register_vardict_schema().
* @param column the column index to get the schemas for
* @returns Hashtable containing a mapping from field names to schemas or NULL. Note that keys and values in the hashtable may be owned by the model, so you need to create a deep copy if you intend to keep the hashtable around.
*/
get_vardict_schema(column: number): GLib.HashTable;
/**
* As dee_model_insert(), but intended for language bindings or
* situations where you work with models on a meta level and may not have
* a priori knowledge of the column schemas of the models. See also
* dee_model_build_row().
* @param pos The index to insert the row on. The existing row will be pushed down.
* @param row_members An array of #GVariants with type signature matching those of the column schemas of @self. If any of the variants have floating references they will be consumed.
* @returns A #DeeModelIter pointing to the new row
*/
insert_row(pos: number, row_members: GLib.Variant[]): ModelIter;
/**
* As dee_model_insert_before(), but intended for language bindings or
* situations where you work with models on a meta level and may not have
* a priori knowledge of the column schemas of the models. See also
* dee_model_build_row().
* @param iter An iter pointing to the row before which to insert the new one
* @param row_members An array of #GVariants with type signature matching those of the column schemas of @self. If any of the variants have floating references they will be consumed.
* @returns A #DeeModelIter pointing to the new row
*/
insert_row_before(iter: ModelIter, row_members: GLib.Variant[]): ModelIter;
/**
* Inserts a row in `self` according to the sorting specified by `cmp_func`.
* If you use this method for insertion you should not use other methods as this
* method assumes the model to be already sorted by `cmp_func`.
* @param row_members An array of #GVariants with type signature matching those of the column schemas of @self. If any of the variants have floating references they will be consumed.
* @param cmp_func Callback used for comparison or rows
* @returns A #DeeModelIter pointing to the new row
*/
insert_row_sorted(row_members: GLib.Variant[], cmp_func: CompareRowFunc): ModelIter;
/**
* Inserts a row in `self` according to the sorting specified by `cmp_func`.
* If you use this method for insertion you should not use other methods as this
* method assumes the model to be already sorted by `cmp_func`.
* @param row_members An array of #GVariants with type signature matching those of the column schemas of @self. If any of the variants have floating references they will be consumed.
* @param cmp_func Callback used for comparison or rows
* @returns A #DeeModelIter pointing to the new row
*/
insert_row_sorted_with_sizes(row_members: GLib.Variant[], cmp_func: CompareRowSizedFunc): ModelIter;
/**
* Checks if `iter` is the very first iter `self`.
* @param iter a #DeeModelIter
* @returns #TRUE if @iter is the first iter in the model
*/
is_first(iter: ModelIter): boolean;
/**
* Whether `iter` is the end iter of `self`. Note that the end iter points
* right after the last valid row in `self`.
* @param iter a #DeeModelIter
* @returns #TRUE if @iter is the last iter in the model
*/
is_last(iter: ModelIter): boolean;
/**
* Returns a #DeeModelIter that points to the next position in the model.
* @param iter a #DeeModelIter
* @returns A #DeeModelIter, pointing to the next row in the model. The iter is owned by @self, do not free it.
*/
next(iter: ModelIter): ModelIter;
/**
* Like dee_model_prepend() but intended for language bindings or
* situations where you work with models on a meta level and may not have
* a priori knowledge of the column schemas of the models. See also
* dee_model_build_row().
* @param row_members An array of #GVariants with type signature matching those of the column schemas of @self. If any of the variants have floating references they will be consumed.
* @returns A #DeeModelIter pointing to the new row
*/
prepend_row(row_members: GLib.Variant[]): ModelIter;
/**
* Returns a #DeeModelIter that points to the previous position in the model.
* @param iter a #DeeModelIter
* @returns A #DeeModelIter, pointing to the previous row in the model. The iter is owned by @self, do not free it.
*/
prev(iter: ModelIter): ModelIter;
/**
* Register a new tag on a #DeeModel. A tag is an extra
* value attached to a given row on a model. The tags are invisible to all
* that doesn't have the tag handle returned by this method. #DeeModel
* implementations must ensure that dee_model_get_tag() is an O(1) operation.
*
* Tags can be very useful in associating some extra data to a row in a model
* and have that automatically synced when the model changes. If you're
* writing a tiled view for a model you might want to tag each row with the
* tile widget for that row. That way you have very convenient access to the
* tile widget given any row in the model.
*
* The private nature of tags and the fact that you can store arbitrary pointers
* and binary data in them also means that they are not serialized if you
* utilize a model implementation that exposes the #DeeSerializable interface.
* @returns A #DeeModelTag handle that you can use to set and get tags with
*/
register_tag(): ModelTag;
/**
* Register schema for fields in a model containing column with variant
* dictionary schema ('a{sv}').
* The keys registered with this function can be later used
* with dee_model_build_named_row() function, as well as
* dee_model_get_value_by_name(). Note that it is possible to register
* the same field name for multiple columns, in which case you need to use
* fully-qualified "column_name::field" name in the calls to
* dee_model_build_named_row() and dee_model_get_field_schema().
* @param column the column index to register the schemas with
* @param schemas hashtable with keys specifying names of the fields and values defining their schema
*/
register_vardict_schema(
column: number,
schemas: { [key: string]: any } | GLib.HashTable,
): void;
/**
* Removes the row at the given position from the model.
* @param iter a #DeeModelIter pointing to the row to remove
*/
remove(iter: ModelIter): void;
/**
* Set column names used by `self`.
* This method must be called exactly once, but only after setting
* a schema of the model. Note that some constructors will do this for you.
* @param column_names A list of column names terminated by a %NULL
*/
set_column_names_full(column_names: string[]): void;
/**
* Sets all columns in the row `iter` points to, to those found in
* `row_members`. The variants in `row_members` must match the types defined in
* the model's schema.
* @param iter a #DeeModelIter
* @param row_members And array of #GVariants with type signature matching those from the model schema. If any of the variants have floating references these will be consumed
*/
set_row(iter: ModelIter, row_members: GLib.Variant[]): void;
/**
* Set the #GVariant types and the number of columns used by `self`.
* This method must be called exactly once before using `self`. Note that
* some constructors will do this for you.
* @param column_schemas A list of #GVariant type strings terminated by a %NULL
*/
set_schema_full(column_schemas: string[]): void;
/**
* Set a tag on a row in a model. This function is guaranteed to be O(1).
* See also dee_model_register_tag().
*
* If `tag` is already set on this row the existing tag value will be destroyed
* with the #GDestroyNotify passed to the dee_model_register_tag().
* @param iter The row to set the tag on
* @param tag The tag handle for the tag as obtained from dee_model_register_tag()
* @param value The value to set for @tag. Note that %NULL represents an unset tag
*/
set_tag(iter: ModelIter, tag: ModelTag, value?: any | null): void;
/**
* Sets the data in `column` for the row `iter` points to, to `value`. The type
* of `value` must be convertible to the type of the column.
*
* When this method call completes the model will emit ::row-changed. You can
* edit the model in place without triggering the change signals by calling
* dee_model_set_value_silently().
* @param iter a #DeeModelIter
* @param column column number to set the value
* @param value New value for cell. If @value is a floating reference the model will assume ownership of the variant
*/
set_value(iter: ModelIter, column: number, value: GLib.Variant): void;
/**
* Like dee_model_append() but intended for language bindings or
* situations where you work with models on a meta level and may not have
* a prior knowledge of the column schemas of the models. See also
* dee_model_build_row().
* @param row_members An array of #GVariants with type signature matching those of the column schemas of @self. If any of the variants have floating references they will be consumed
*/
vfunc_append_row(row_members: GLib.Variant[]): ModelIter;
/**
* Notify listeners that the model is about to be changed, which means that
* multiple row additions / changes / removals will follow.
* The default implementation of this method will emit
* the ::changeset-started signal.
*
* It is not stricly necessary to enclose every change to a model
* in a dee_model_begin_changeset() and dee_model_end_changeset() calls, but
* doing so is highly recommended and allows implementing various optimizations.
*
* The usual way to perform multiple changes to a model is as follows:
*
*
* void update_model (DeeModel *model)
* {
* GVariant **added_row_data1 = ...;
* GVariant **added_row_data2 = ...;
*
* dee_model_begin_changeset (model);
*
* dee_model_remove (model, dee_model_get_first_iter (model));
* dee_model_append_row (model, added_row_data1);
* dee_model_append_row (model, added_row_data2);
*
* dee_model_end_changeset (model);
* }
*
*/
vfunc_begin_changeset(): void;
vfunc_changeset_finished(): void;
vfunc_changeset_started(): void;
/**
* Removes all rows in the model. Signals are emitted for each row in the model
*/
vfunc_clear(): void;
/**
* Notify listeners that all changes have been committed to the model.
* The default implementation of this method will emit
* the ::changeset-finished signal.
*
* See also dee_model_begin_changeset().
*/
vfunc_end_changeset(): void;
/**
* Finds a row in `self` according to the sorting specified by `cmp_func`.
* This method will assume that `self` is already sorted by `cmp_func`.
*
* If you use this method for searching you should only use
* dee_model_insert_row_sorted() to insert rows in the model.
* @param row_spec An array of #GVariants with type signature matching those of the column schemas of @self. No references will be taken on the variants.
* @param cmp_func Callback used for comparison or rows
*/
vfunc_find_row_sorted(row_spec: GLib.Variant[], cmp_func: CompareRowFunc): [ModelIter, boolean];
vfunc_get_bool(iter: ModelIter, column: number): boolean;
/**
* Get the column index of a column.
* @param column_name the column name to retrieve the index of
*/
vfunc_get_column_index(column_name: string): number;
/**
* Get a %NULL-terminated array of column names for the columns of `self`.
* These names can be used in calls to dee_model_build_named_row().
*/
vfunc_get_column_names(): string[];
/**
* Get the #GVariant signature of a column
* @param column the column to get retrieve the #GVariant type string of
*/
vfunc_get_column_schema(column: number): string;
vfunc_get_double(iter: ModelIter, column: number): number;
/**
* Get the #GVariant signature of field previously registered with
* dee_model_register_vardict_schema().
* @param field_name name of vardict field to get schema of
*/
vfunc_get_field_schema(field_name: string): [string, number];
/**
* Retrieves a #DeeModelIter representing the first row in `self`.
*/
vfunc_get_first_iter(): ModelIter;
vfunc_get_int32(iter: ModelIter, column: number): number;
vfunc_get_int64(iter: ModelIter, column: number): number;
/**
* Retrieves a #DeeModelIter representing the row at the given index.
*
* Note that this method does not have any performance guarantees. In particular
* it is not guaranteed to be O(1).
* @param row position of the row to retrieve
*/
vfunc_get_iter_at_row(row: number): ModelIter;
/**
* Retrieves a #DeeModelIter pointing right after the
* last row in `self`. This is refered to also the the
* end iter.
*
* As with other iters the end iter, in particular, is stable over inserts,
* changes, or removals.
*/
vfunc_get_last_iter(): ModelIter;
/**
* Gets the number of columns in `self`
*/
vfunc_get_n_columns(): number;
/**
* Gets the number of rows in `self`
*/
vfunc_get_n_rows(): number;
/**
* Get the numeric offset of `iter` into `self`. Note that this method is
* not guaranteed to be O(1).
* @param iter The iter to get the position of
*/
vfunc_get_position(iter: ModelIter): number;
vfunc_get_row(iter: ModelIter, out_row_members: GLib.Variant): GLib.Variant;
/**
* Get a %NULL-terminated array of #GVariant type strings that defines the
* required formats for the columns of `self`.
*/
vfunc_get_schema(): string[];
vfunc_get_string(iter: ModelIter, column: number): string;
/**
* Look up a tag value for a given row in a model. This method is guaranteed
* to be O(1).
* @param iter A #DeeModelIter pointing to the row to get the tag from
* @param tag The tag handle to retrieve the tag value for
*/
vfunc_get_tag(iter: ModelIter, tag: ModelTag): any | null;
vfunc_get_uchar(iter: ModelIter, column: number): number;
vfunc_get_uint32(iter: ModelIter, column: number): number;
vfunc_get_uint64(iter: ModelIter, column: number): number;
vfunc_get_value(iter: ModelIter, column: number): GLib.Variant;
vfunc_get_value_by_name(iter: ModelIter, column_name: string): GLib.Variant;
/**
* Get a schema for variant dictionary column previously registered using
* dee_model_register_vardict_schema().
* @param num_column
*/
vfunc_get_vardict_schema(num_column: number): GLib.HashTable;
/**
* As dee_model_insert(), but intended for language bindings or
* situations where you work with models on a meta level and may not have
* a priori knowledge of the column schemas of the models. See also
* dee_model_build_row().
* @param pos The index to insert the row on. The existing row will be pushed down.
* @param row_members An array of #GVariants with type signature matching those of the column schemas of @self. If any of the variants have floating references they will be consumed.
*/
vfunc_insert_row(pos: number, row_members: GLib.Variant[]): ModelIter;
/**
* As dee_model_insert_before(), but intended for language bindings or
* situations where you work with models on a meta level and may not have
* a priori knowledge of the column schemas of the models. See also
* dee_model_build_row().
* @param iter An iter pointing to the row before which to insert the new one
* @param row_members An array of #GVariants with type signature matching those of the column schemas of @self. If any of the variants have floating references they will be consumed.
*/
vfunc_insert_row_before(iter: ModelIter, row_members: GLib.Variant[]): ModelIter;
/**
* Inserts a row in `self` according to the sorting specified by `cmp_func`.
* If you use this method for insertion you should not use other methods as this
* method assumes the model to be already sorted by `cmp_func`.
* @param row_members An array of #GVariants with type signature matching those of the column schemas of @self. If any of the variants have floating references they will be consumed.
* @param cmp_func Callback used for comparison or rows
*/
vfunc_insert_row_sorted(row_members: GLib.Variant[], cmp_func: CompareRowFunc): ModelIter;
/**
* Checks if `iter` is the very first iter `self`.
* @param iter a #DeeModelIter
*/
vfunc_is_first(iter: ModelIter): boolean;
/**
* Whether `iter` is the end iter of `self`. Note that the end iter points
* right after the last valid row in `self`.
* @param iter a #DeeModelIter
*/
vfunc_is_last(iter: ModelIter): boolean;
/**
* Returns a #DeeModelIter that points to the next position in the model.
* @param iter a #DeeModelIter
*/
vfunc_next(iter: ModelIter): ModelIter;
/**
* Like dee_model_prepend() but intended for language bindings or
* situations where you work with models on a meta level and may not have
* a priori knowledge of the column schemas of the models. See also
* dee_model_build_row().
* @param row_members An array of #GVariants with type signature matching those of the column schemas of @self. If any of the variants have floating references they will be consumed.
*/
vfunc_prepend_row(row_members: GLib.Variant[]): ModelIter;
/**
* Returns a #DeeModelIter that points to the previous position in the model.
* @param iter a #DeeModelIter
*/
vfunc_prev(iter: ModelIter): ModelIter;
/**
* Register a new tag on a #DeeModel. A tag is an extra
* value attached to a given row on a model. The tags are invisible to all
* that doesn't have the tag handle returned by this method. #DeeModel
* implementations must ensure that dee_model_get_tag() is an O(1) operation.
*
* Tags can be very useful in associating some extra data to a row in a model
* and have that automatically synced when the model changes. If you're
* writing a tiled view for a model you might want to tag each row with the
* tile widget for that row. That way you have very convenient access to the
* tile widget given any row in the model.
*
* The private nature of tags and the fact that you can store arbitrary pointers
* and binary data in them also means that they are not serialized if you
* utilize a model implementation that exposes the #DeeSerializable interface.
*/
vfunc_register_tag(): ModelTag;
/**
* Register schema for fields in a model containing column with variant
* dictionary schema ('a{sv}').
* The keys registered with this function can be later used
* with dee_model_build_named_row() function, as well as
* dee_model_get_value_by_name(). Note that it is possible to register
* the same field name for multiple columns, in which case you need to use
* fully-qualified "column_name::field" name in the calls to
* dee_model_build_named_row() and dee_model_get_field_schema().
* @param num_column
* @param schemas hashtable with keys specifying names of the fields and values defining their schema
*/
vfunc_register_vardict_schema(
num_column: number,
schemas: { [key: string]: any } | GLib.HashTable,
): void;
/**
* Removes the row at the given position from the model.
* @param iter a #DeeModelIter pointing to the row to remove
*/
vfunc_remove(iter: ModelIter): void;
vfunc_row_added(iter: ModelIter): void;
vfunc_row_changed(iter: ModelIter): void;
vfunc_row_removed(iter: ModelIter): void;
/**
* Set column names used by `self`.
* This method must be called exactly once, but only after setting
* a schema of the model. Note that some constructors will do this for you.
* @param column_names A list of column names terminated by a %NULL
*/
vfunc_set_column_names_full(column_names: string[]): void;
/**
* Sets all columns in the row `iter` points to, to those found in
* `row_members`. The variants in `row_members` must match the types defined in
* the model's schema.
* @param iter a #DeeModelIter
* @param row_members And array of #GVariants with type signature matching those from the model schema. If any of the variants have floating references these will be consumed
*/
vfunc_set_row(iter: ModelIter, row_members: GLib.Variant[]): void;
/**
* Set the #GVariant types and the number of columns used by `self`.
* This method must be called exactly once before using `self`. Note that
* some constructors will do this for you.
* @param column_schemas A list of #GVariant type strings terminated by a %NULL
*/
vfunc_set_schema_full(column_schemas: string[]): void;
/**
* Set a tag on a row in a model. This function is guaranteed to be O(1).
* See also dee_model_register_tag().
*
* If `tag` is already set on this row the existing tag value will be destroyed
* with the #GDestroyNotify passed to the dee_model_register_tag().
* @param iter The row to set the tag on
* @param tag The tag handle for the tag as obtained from dee_model_register_tag()
* @param value The value to set for @tag. Note that %NULL represents an unset tag
*/
vfunc_set_tag(iter: ModelIter, tag: ModelTag, value?: any | null): void;
/**
* Sets the data in `column` for the row `iter` points to, to `value`. The type
* of `value` must be convertible to the type of the column.
*
* When this method call completes the model will emit ::row-changed. You can
* edit the model in place without triggering the change signals by calling
* dee_model_set_value_silently().
* @param iter a #DeeModelIter
* @param column column number to set the value
* @param value New value for cell. If @value is a floating reference the model will assume ownership of the variant
*/
vfunc_set_value(iter: ModelIter, column: number, value: GLib.Variant): void;
/**
* Build an externalized form of `self` which can be used together with
* dee_serializable_parse_external() to rebuild a copy of `self`.
*
* It is important to note that the variant returned from this method does
* not have the same type signature as returned from a call to
* dee_serializable_serialize(). Externalization will wrap the serialized data
* in a container format with versioning information and headers with type
* information.
* @returns A floating reference to a #GVariant with the externalized data.
*/
externalize(): GLib.Variant;
/**
* Build a clean serialized representation of `self`. The signature of the
* returned variant is entirely determined by the underlying implementation.
* You can recreate a serialized instance by calling dee_serializable_parse()
* provided that you know the correct #GType for the serialized instance.
* @returns A reference to a #GVariant with the serialized data. The variants type signature is entirely dependent of the underlying implementation. Free using g_variant_unref().
*/
serialize(): GLib.Variant;
/**
* Build a clean serialized representation of `self`. The signature of the
* returned variant is entirely determined by the underlying implementation.
* You can recreate a serialized instance by calling dee_serializable_parse()
* provided that you know the correct #GType for the serialized instance.
*/
vfunc_serialize(): GLib.Variant;
/**
* Creates a binding between `source_property` on `source` and `target_property`
* on `target`.
*
* Whenever the `source_property` is changed the `target_property` is
* updated using the same value. For instance:
*
*
* ```c
* g_object_bind_property (action, "active", widget, "sensitive", 0);
* ```
*
*
* Will result in the "sensitive" property of the widget #GObject instance to be
* updated with the same value of the "active" property of the action #GObject
* instance.
*
* If `flags` contains %G_BINDING_BIDIRECTIONAL then the binding will be mutual:
* if `target_property` on `target` changes then the `source_property` on `source`
* will be updated as well.
*
* The binding will automatically be removed when either the `source` or the
* `target` instances are finalized. To remove the binding without affecting the
* `source` and the `target` you can just call g_object_unref() on the returned
* #GBinding instance.
*
* Removing the binding by calling g_object_unref() on it must only be done if
* the binding, `source` and `target` are only used from a single thread and it
* is clear that both `source` and `target` outlive the binding. Especially it
* is not safe to rely on this if the binding, `source` or `target` can be
* finalized from different threads. Keep another reference to the binding and
* use g_binding_unbind() instead to be on the safe side.
*
* A #GObject can have multiple bindings.
* @param source_property the property on @source to bind
* @param target the target #GObject
* @param target_property the property on @target to bind
* @param flags flags to pass to #GBinding
* @returns the #GBinding instance representing the binding between the two #GObject instances. The binding is released whenever the #GBinding reference count reaches zero.
*/
bind_property(
source_property: string,
target: GObject.Object,
target_property: string,
flags: GObject.BindingFlags | null,
): GObject.Binding;
/**
* Complete version of g_object_bind_property().
*
* Creates a binding between `source_property` on `source` and `target_property`
* on `target,` allowing you to set the transformation functions to be used by
* the binding.
*
* If `flags` contains %G_BINDING_BIDIRECTIONAL then the binding will be mutual:
* if `target_property` on `target` changes then the `source_property` on `source`
* will be updated as well. The `transform_from` function is only used in case
* of bidirectional bindings, otherwise it will be ignored
*
* The binding will automatically be removed when either the `source` or the
* `target` instances are finalized. This will release the reference that is
* being held on the #GBinding instance; if you want to hold on to the
* #GBinding instance, you will need to hold a reference to it.
*
* To remove the binding, call g_binding_unbind().
*
* A #GObject can have multiple bindings.
*
* The same `user_data` parameter will be used for both `transform_to`
* and `transform_from` transformation functions; the `notify` function will
* be called once, when the binding is removed. If you need different data
* for each transformation function, please use
* g_object_bind_property_with_closures() instead.
* @param source_property the property on @source to bind
* @param target the target #GObject
* @param target_property the property on @target to bind
* @param flags flags to pass to #GBinding
* @param transform_to the transformation function from the @source to the @target, or %NULL to use the default
* @param transform_from the transformation function from the @target to the @source, or %NULL to use the default
* @param notify a function to call when disposing the binding, to free resources used by the transformation functions, or %NULL if not required
* @returns the #GBinding instance representing the binding between the two #GObject instances. The binding is released whenever the #GBinding reference count reaches zero.
*/
bind_property_full(
source_property: string,
target: GObject.Object,
target_property: string,
flags: GObject.BindingFlags | null,
transform_to?: GObject.BindingTransformFunc | null,
transform_from?: GObject.BindingTransformFunc | null,
notify?: GLib.DestroyNotify | null,
): GObject.Binding;
// Conflicted with GObject.Object.bind_property_full
bind_property_full(...args: never[]): any;
/**
* This function is intended for #GObject implementations to re-enforce
* a [floating][floating-ref] object reference. Doing this is seldom
* required: all #GInitiallyUnowneds are created with a floating reference
* which usually just needs to be sunken by calling g_object_ref_sink().
*/
force_floating(): void;
/**
* Increases the freeze count on `object`. If the freeze count is
* non-zero, the emission of "notify" signals on `object` is
* stopped. The signals are queued until the freeze count is decreased
* to zero. Duplicate notifications are squashed so that at most one
* #GObject::notify signal is emitted for each property modified while the
* object is frozen.
*
* This is necessary for accessors that modify multiple properties to prevent
* premature notification while the object is still being modified.
*/
freeze_notify(): void;
/**
* Gets a named field from the objects table of associations (see g_object_set_data()).
* @param key name of the key for that association
* @returns the data if found, or %NULL if no such data exists.
*/
get_data(key: string): any | null;
get_property(property_name: string): any;
/**
* This function gets back user data pointers stored via
* g_object_set_qdata().
* @param quark A #GQuark, naming the user data pointer
* @returns The user data pointer set, or %NULL
*/
get_qdata(quark: GLib.Quark): any | null;
/**
* Gets `n_properties` properties for an `object`.
* Obtained properties will be set to `values`. All properties must be valid.
* Warnings will be emitted and undefined behaviour may result if invalid
* properties are passed in.
* @param names the names of each property to get
* @param values the values of each property to get
*/
getv(names: string[], values: (GObject.Value | any)[]): void;
/**
* Checks whether `object` has a [floating][floating-ref] reference.
* @returns %TRUE if @object has a floating reference
*/
is_floating(): boolean;
/**
* Emits a "notify" signal for the property `property_name` on `object`.
*
* When possible, eg. when signaling a property change from within the class
* that registered the property, you should use g_object_notify_by_pspec()
* instead.
*
* Note that emission of the notify signal may be blocked with
* g_object_freeze_notify(). In this case, the signal emissions are queued
* and will be emitted (in reverse order) when g_object_thaw_notify() is
* called.
* @param property_name the name of a property installed on the class of @object.
*/
notify(property_name: string): void;
/**
* Emits a "notify" signal for the property specified by `pspec` on `object`.
*
* This function omits the property name lookup, hence it is faster than
* g_object_notify().
*
* One way to avoid using g_object_notify() from within the
* class that registered the properties, and using g_object_notify_by_pspec()
* instead, is to store the GParamSpec used with
* g_object_class_install_property() inside a static array, e.g.:
*
*
* ```c
* typedef enum
* {
* PROP_FOO = 1,
* PROP_LAST
* } MyObjectProperty;
*
* static GParamSpec *properties[PROP_LAST];
*
* static void
* my_object_class_init (MyObjectClass *klass)
* {
* properties[PROP_FOO] = g_param_spec_int ("foo", NULL, NULL,
* 0, 100,
* 50,
* G_PARAM_READWRITE | G_PARAM_STATIC_STRINGS);
* g_object_class_install_property (gobject_class,
* PROP_FOO,
* properties[PROP_FOO]);
* }
* ```
*
*
* and then notify a change on the "foo" property with:
*
*
* ```c
* g_object_notify_by_pspec (self, properties[PROP_FOO]);
* ```
*
* @param pspec the #GParamSpec of a property installed on the class of @object.
*/
notify_by_pspec(pspec: GObject.ParamSpec): void;
/**
* Increases the reference count of `object`.
*
* Since GLib 2.56, if `GLIB_VERSION_MAX_ALLOWED` is 2.56 or greater, the type
* of `object` will be propagated to the return type (using the GCC typeof()
* extension), so any casting the caller needs to do on the return type must be
* explicit.
* @returns the same @object
*/
ref(): GObject.Object;
/**
* Increase the reference count of `object,` and possibly remove the
* [floating][floating-ref] reference, if `object` has a floating reference.
*
* In other words, if the object is floating, then this call "assumes
* ownership" of the floating reference, converting it to a normal
* reference by clearing the floating flag while leaving the reference
* count unchanged. If the object is not floating, then this call
* adds a new normal reference increasing the reference count by one.
*
* Since GLib 2.56, the type of `object` will be propagated to the return type
* under the same conditions as for g_object_ref().
* @returns @object
*/
ref_sink(): GObject.Object;
/**
* Releases all references to other objects. This can be used to break
* reference cycles.
*
* This function should only be called from object system implementations.
*/
run_dispose(): void;
/**
* Each object carries around a table of associations from
* strings to pointers. This function lets you set an association.
*
* If the object already had an association with that name,
* the old association will be destroyed.
*
* Internally, the `key` is converted to a #GQuark using g_quark_from_string().
* This means a copy of `key` is kept permanently (even after `object` has been
* finalized) — so it is recommended to only use a small, bounded set of values
* for `key` in your program, to avoid the #GQuark storage growing unbounded.
* @param key name of the key
* @param data data to associate with that key
*/
set_data(key: string, data?: any | null): void;
set_property(property_name: string, value: any): void;
/**
* Remove a specified datum from the object's data associations,
* without invoking the association's destroy handler.
* @param key name of the key
* @returns the data if found, or %NULL if no such data exists.
*/
steal_data(key: string): any | null;
/**
* This function gets back user data pointers stored via
* g_object_set_qdata() and removes the `data` from object
* without invoking its destroy() function (if any was
* set).
* Usually, calling this function is only required to update
* user data pointers with a destroy notifier, for example:
*
* ```c
* void
* object_add_to_user_list (GObject *object,
* const gchar *new_string)
* {
* // the quark, naming the object data
* GQuark quark_string_list = g_quark_from_static_string ("my-string-list");
* // retrieve the old string list
* GList *list = g_object_steal_qdata (object, quark_string_list);
*
* // prepend new string
* list = g_list_prepend (list, g_strdup (new_string));
* // this changed 'list', so we need to set it again
* g_object_set_qdata_full (object, quark_string_list, list, free_string_list);
* }
* static void
* free_string_list (gpointer data)
* {
* GList *node, *list = data;
*
* for (node = list; node; node = node->next)
* g_free (node->data);
* g_list_free (list);
* }
* ```
*
* Using g_object_get_qdata() in the above example, instead of
* g_object_steal_qdata() would have left the destroy function set,
* and thus the partial string list would have been freed upon
* g_object_set_qdata_full().
* @param quark A #GQuark, naming the user data pointer
* @returns The user data pointer set, or %NULL
*/
steal_qdata(quark: GLib.Quark): any | null;
/**
* Reverts the effect of a previous call to
* g_object_freeze_notify(). The freeze count is decreased on `object`
* and when it reaches zero, queued "notify" signals are emitted.
*
* Duplicate notifications for each property are squashed so that at most one
* #GObject::notify signal is emitted for each property, in the reverse order
* in which they have been queued.
*
* It is an error to call this function when the freeze count is zero.
*/
thaw_notify(): void;
/**
* Decreases the reference count of `object`. When its reference count
* drops to 0, the object is finalized (i.e. its memory is freed).
*
* If the pointer to the #GObject may be reused in future (for example, if it is
* an instance variable of another object), it is recommended to clear the
* pointer to %NULL rather than retain a dangling pointer to a potentially
* invalid #GObject instance. Use g_clear_object() for this.
*/
unref(): void;
/**
* This function essentially limits the life time of the `closure` to
* the life time of the object. That is, when the object is finalized,
* the `closure` is invalidated by calling g_closure_invalidate() on
* it, in order to prevent invocations of the closure with a finalized
* (nonexisting) object. Also, g_object_ref() and g_object_unref() are
* added as marshal guards to the `closure,` to ensure that an extra
* reference count is held on `object` during invocation of the
* `closure`. Usually, this function will be called on closures that
* use this `object` as closure data.
* @param closure #GClosure to watch
*/
watch_closure(closure: GObject.Closure): void;
/**
* the `constructed` function is called by g_object_new() as the
* final step of the object creation process. At the point of the call, all
* construction properties have been set on the object. The purpose of this
* call is to allow for object initialisation steps that can only be performed
* after construction properties have been set. `constructed` implementors
* should chain up to the `constructed` call of their parent class to allow it
* to complete its initialisation.
*/
vfunc_constructed(): void;
/**
* emits property change notification for a bunch
* of properties. Overriding `dispatch_properties_changed` should be rarely
* needed.
* @param n_pspecs
* @param pspecs
*/
vfunc_dispatch_properties_changed(n_pspecs: number, pspecs: GObject.ParamSpec): void;
/**
* the `dispose` function is supposed to drop all references to other
* objects, but keep the instance otherwise intact, so that client method
* invocations still work. It may be run multiple times (due to reference
* loops). Before returning, `dispose` should chain up to the `dispose` method
* of the parent class.
*/
vfunc_dispose(): void;
/**
* instance finalization function, should finish the finalization of
* the instance begun in `dispose` and chain up to the `finalize` method of the
* parent class.
*/
vfunc_finalize(): void;
/**
* the generic getter for all properties of this type. Should be
* overridden for every type with properties.
* @param property_id
* @param value
* @param pspec
*/
vfunc_get_property(property_id: number, value: GObject.Value | any, pspec: GObject.ParamSpec): void;
/**
* Emits a "notify" signal for the property `property_name` on `object`.
*
* When possible, eg. when signaling a property change from within the class
* that registered the property, you should use g_object_notify_by_pspec()
* instead.
*
* Note that emission of the notify signal may be blocked with
* g_object_freeze_notify(). In this case, the signal emissions are queued
* and will be emitted (in reverse order) when g_object_thaw_notify() is
* called.
* @param pspec
*/
vfunc_notify(pspec: GObject.ParamSpec): void;
/**
* the generic setter for all properties of this type. Should be
* overridden for every type with properties. If implementations of
* `set_property` don't emit property change notification explicitly, this will
* be done implicitly by the type system. However, if the notify signal is
* emitted explicitly, the type system will not emit it a second time.
* @param property_id
* @param value
* @param pspec
*/
vfunc_set_property(property_id: number, value: GObject.Value | any, pspec: GObject.ParamSpec): void;
disconnect(id: number): void;
set(properties: { [key: string]: any }): void;
block_signal_handler(id: number): any;
unblock_signal_handler(id: number): any;
stop_emission_by_name(detailedName: string): any;
}
module Server {
// Constructor properties interface
interface ConstructorProps extends Peer.ConstructorProps {
bus_address: string;
busAddress: string;
same_user_only: boolean;
sameUserOnly: boolean;
}
}
class Server extends Peer {
static $gtype: GObject.GType;
// Properties
get bus_address(): string;
get busAddress(): string;
get same_user_only(): boolean;
get sameUserOnly(): boolean;
// Constructors
constructor(properties?: Partial, ...args: any[]);
_init(...args: any[]): void;
static ['new'](swarm_name: string): Server;
static new_for_address(swarm_name: string, bus_address: string): Server;
// Static methods
/**
* Helper method which creates bus address string for the given name, which
* should have the same format as a DBus unique name.
* @param name A name to create bus address for.
* @param include_username Include current user name as part of the bus address.
*/
static bus_address_for_name(name: string, include_username: boolean): string;
// Methods
/**
* Gets a D-Bus address string that can be used by clients to connect to server.
* @returns A D-Bus address string. Do not free.
*/
get_client_address(): string;
}
module SharedModel {
// Signal callback interfaces
interface BeginTransaction {
(begin_seqnum: number, end_seqnum: number): void;
}
interface EndTransaction {
(begin_seqnum: number, end_seqnum: number): void;
}
// Constructor properties interface
interface ConstructorProps
extends ProxyModel.ConstructorProps,
Model.ConstructorProps,
Serializable.ConstructorProps {
access_mode: SharedModelAccessMode;
accessMode: SharedModelAccessMode;
flush_mode: SharedModelFlushMode;
flushMode: SharedModelFlushMode;
peer: Peer;
synchronized: boolean;
}
}
/**
* All fields in the DeeSharedModel structure are private and should never be
* accessed directly
*/
class SharedModel extends ProxyModel implements Model, Serializable {
static $gtype: GObject.GType;
// Properties
/**
* Enumeration defining behavior of this model when trying to write to it.
*
* Setting this to #DEE_SHARED_MODEL_ACCESS_MODE_LEADER_WRITABLE is useful
* when one process is considered an "owner" of a model and all the other
* peers are supposed to only synchronize it for reading.
*
* See also DeePeer:swarm-owner property to ensure ownership of a swarm.
*/
get access_mode(): SharedModelAccessMode;
/**
* Enumeration defining behavior of this model when trying to write to it.
*
* Setting this to #DEE_SHARED_MODEL_ACCESS_MODE_LEADER_WRITABLE is useful
* when one process is considered an "owner" of a model and all the other
* peers are supposed to only synchronize it for reading.
*
* See also DeePeer:swarm-owner property to ensure ownership of a swarm.
*/
get accessMode(): SharedModelAccessMode;
/**
* Enumeration defining the flushing behavior.
*
* Setting this to #DEE_SHARED_MODEL_FLUSH_MODE_MANUAL will disable
* automatic flushing that usually happens when the application's main event
* loop is idle. Automatic flushing should be primarily disabled when
* a shared model is used from multiple threads, or when not using #GMainLoop.
* When disabled, dee_shared_model_flush_revision_queue() needs to be called
* explicitely.
*/
get flush_mode(): SharedModelFlushMode;
set flush_mode(val: SharedModelFlushMode);
/**
* Enumeration defining the flushing behavior.
*
* Setting this to #DEE_SHARED_MODEL_FLUSH_MODE_MANUAL will disable
* automatic flushing that usually happens when the application's main event
* loop is idle. Automatic flushing should be primarily disabled when
* a shared model is used from multiple threads, or when not using #GMainLoop.
* When disabled, dee_shared_model_flush_revision_queue() needs to be called
* explicitely.
*/
get flushMode(): SharedModelFlushMode;
set flushMode(val: SharedModelFlushMode);
/**
* The #DeePeer that this model uses to connect to the swarm
*/
get peer(): Peer;
/**
* Boolean property defining whether or not the model has synchronized with
* its peers (if any) yet.
*
* You should not modify a #DeeSharedModel that is not synchronized. Before
* modifying the model in any way (except calling dee_model_set_schema())
* you should wait for it to become synchronized.
*/
get synchronized(): boolean;
// Constructors
constructor(properties?: Partial, ...args: any[]);
_init(...args: any[]): void;
static ['new'](name: string): SharedModel;
static new_for_peer(peer: Peer): SharedModel;
static new_with_back_end(name: string, back_end: Model): SharedModel;
// Signals
connect(id: string, callback: (...args: any[]) => any): number;
connect_after(id: string, callback: (...args: any[]) => any): number;
emit(id: string, ...args: any[]): void;
connect(
signal: 'begin-transaction',
callback: (_source: this, begin_seqnum: number, end_seqnum: number) => void,
): number;
connect_after(
signal: 'begin-transaction',
callback: (_source: this, begin_seqnum: number, end_seqnum: number) => void,
): number;
emit(signal: 'begin-transaction', begin_seqnum: number, end_seqnum: number): void;
connect(
signal: 'end-transaction',
callback: (_source: this, begin_seqnum: number, end_seqnum: number) => void,
): number;
connect_after(
signal: 'end-transaction',
callback: (_source: this, begin_seqnum: number, end_seqnum: number) => void,
): number;
emit(signal: 'end-transaction', begin_seqnum: number, end_seqnum: number): void;
// Methods
/**
* Expert: All changes to `self` that has not yet been propagated to the peer
* models are send. If you also want to block the mainloop until
* all the underlying transport streams have been flushed use
* dee_shared_model_flush_revision_queue_sync().
*
* Normally #DeeSharedModel collects changes to `self` into batches and sends
* them automatically to all peers. You can use this call to provide fine
* grained control of exactly when changes to `self` are synchronized to its
* peers. This may for example be useful to improve the interactivity of your
* application if you have a model-process which intermix small and light
* changes with big and expensive changes. Using this call you can make sure
* the model-process dispatches small changes more aggresively to the
* view-process, while holding on to the expensive changes a bit longer.
* @returns The number of revisions flushed.
*/
flush_revision_queue(): number;
/**
* Similar to dee_shared_model_flush_revision_queue(), but also blocks
* the mainloop until all the underlying transport streams have been flushed.
*
* Important: This method may flush
* your internal queue of DBus messages forcing them to be send before this call
* returns.
* @returns The number of revisions flushed.
*/
flush_revision_queue_sync(): number;
/**
* Convenience function for accessing the #DeeSharedModel:flush-mode property.
* @returns The #DeeSharedModelFlushMode used by the model
*/
get_flush_mode(): SharedModelFlushMode;
/**
* Convenience function for accessing the #DeeSharedModel:peer property
* @returns The #DeePeer used to interact with the peer models
*/
get_peer(): Peer;
/**
* Convenience function for accessing the #DeePeer:swarm-name property of the
* #DeePeer defined in the #DeeSharedModel:peer property.
* @returns The name of the swarm this model synchrnonizes with
*/
get_swarm_name(): string;
/**
* Check if the model is the swarm leader. This is a convenience function for
* accessing the #DeeSharedModel:peer property and checking if it's the swarm
* leader.
* @returns The value of dee_peer_is_swarm_leader() for the #DeePeer used by this shared model
*/
is_leader(): boolean;
/**
* Check if the model is synchronized with its peers. Before modifying a
* shared model in any way (except dee_model_set_schema()) you should wait for
* it to become synchronized. This is normally done by waiting for the
* "notify::synchronized" signal.
*
* This method is purely a convenience function for accessing the
* #DeeSharedModel:synchronized property.
* @returns The value of the :synchronized property
*/
is_synchronized(): boolean;
/**
* Convenience function for setting the #DeeSharedModel:flush-mode property.
* @param mode Flush mode to use
*/
set_flush_mode(mode: SharedModelFlushMode | null): void;
// Inherited methods
/**
* Creates a binding between `source_property` on `source` and `target_property`
* on `target`.
*
* Whenever the `source_property` is changed the `target_property` is
* updated using the same value. For instance:
*
*
* ```c
* g_object_bind_property (action, "active", widget, "sensitive", 0);
* ```
*
*
* Will result in the "sensitive" property of the widget #GObject instance to be
* updated with the same value of the "active" property of the action #GObject
* instance.
*
* If `flags` contains %G_BINDING_BIDIRECTIONAL then the binding will be mutual:
* if `target_property` on `target` changes then the `source_property` on `source`
* will be updated as well.
*
* The binding will automatically be removed when either the `source` or the
* `target` instances are finalized. To remove the binding without affecting the
* `source` and the `target` you can just call g_object_unref() on the returned
* #GBinding instance.
*
* Removing the binding by calling g_object_unref() on it must only be done if
* the binding, `source` and `target` are only used from a single thread and it
* is clear that both `source` and `target` outlive the binding. Especially it
* is not safe to rely on this if the binding, `source` or `target` can be
* finalized from different threads. Keep another reference to the binding and
* use g_binding_unbind() instead to be on the safe side.
*
* A #GObject can have multiple bindings.
* @param source_property the property on @source to bind
* @param target the target #GObject
* @param target_property the property on @target to bind
* @param flags flags to pass to #GBinding
* @returns the #GBinding instance representing the binding between the two #GObject instances. The binding is released whenever the #GBinding reference count reaches zero.
*/
bind_property(
source_property: string,
target: GObject.Object,
target_property: string,
flags: GObject.BindingFlags | null,
): GObject.Binding;
/**
* Complete version of g_object_bind_property().
*
* Creates a binding between `source_property` on `source` and `target_property`
* on `target,` allowing you to set the transformation functions to be used by
* the binding.
*
* If `flags` contains %G_BINDING_BIDIRECTIONAL then the binding will be mutual:
* if `target_property` on `target` changes then the `source_property` on `source`
* will be updated as well. The `transform_from` function is only used in case
* of bidirectional bindings, otherwise it will be ignored
*
* The binding will automatically be removed when either the `source` or the
* `target` instances are finalized. This will release the reference that is
* being held on the #GBinding instance; if you want to hold on to the
* #GBinding instance, you will need to hold a reference to it.
*
* To remove the binding, call g_binding_unbind().
*
* A #GObject can have multiple bindings.
*
* The same `user_data` parameter will be used for both `transform_to`
* and `transform_from` transformation functions; the `notify` function will
* be called once, when the binding is removed. If you need different data
* for each transformation function, please use
* g_object_bind_property_with_closures() instead.
* @param source_property the property on @source to bind
* @param target the target #GObject
* @param target_property the property on @target to bind
* @param flags flags to pass to #GBinding
* @param transform_to the transformation function from the @source to the @target, or %NULL to use the default
* @param transform_from the transformation function from the @target to the @source, or %NULL to use the default
* @param notify a function to call when disposing the binding, to free resources used by the transformation functions, or %NULL if not required
* @returns the #GBinding instance representing the binding between the two #GObject instances. The binding is released whenever the #GBinding reference count reaches zero.
*/
bind_property_full(
source_property: string,
target: GObject.Object,
target_property: string,
flags: GObject.BindingFlags | null,
transform_to?: GObject.BindingTransformFunc | null,
transform_from?: GObject.BindingTransformFunc | null,
notify?: GLib.DestroyNotify | null,
): GObject.Binding;
// Conflicted with GObject.Object.bind_property_full
bind_property_full(...args: never[]): any;
/**
* This function is intended for #GObject implementations to re-enforce
* a [floating][floating-ref] object reference. Doing this is seldom
* required: all #GInitiallyUnowneds are created with a floating reference
* which usually just needs to be sunken by calling g_object_ref_sink().
*/
force_floating(): void;
/**
* Increases the freeze count on `object`. If the freeze count is
* non-zero, the emission of "notify" signals on `object` is
* stopped. The signals are queued until the freeze count is decreased
* to zero. Duplicate notifications are squashed so that at most one
* #GObject::notify signal is emitted for each property modified while the
* object is frozen.
*
* This is necessary for accessors that modify multiple properties to prevent
* premature notification while the object is still being modified.
*/
freeze_notify(): void;
/**
* Gets a named field from the objects table of associations (see g_object_set_data()).
* @param key name of the key for that association
* @returns the data if found, or %NULL if no such data exists.
*/
get_data(key: string): any | null;
get_property(property_name: string): any;
/**
* This function gets back user data pointers stored via
* g_object_set_qdata().
* @param quark A #GQuark, naming the user data pointer
* @returns The user data pointer set, or %NULL
*/
get_qdata(quark: GLib.Quark): any | null;
/**
* Gets `n_properties` properties for an `object`.
* Obtained properties will be set to `values`. All properties must be valid.
* Warnings will be emitted and undefined behaviour may result if invalid
* properties are passed in.
* @param names the names of each property to get
* @param values the values of each property to get
*/
getv(names: string[], values: (GObject.Value | any)[]): void;
/**
* Checks whether `object` has a [floating][floating-ref] reference.
* @returns %TRUE if @object has a floating reference
*/
is_floating(): boolean;
/**
* Emits a "notify" signal for the property `property_name` on `object`.
*
* When possible, eg. when signaling a property change from within the class
* that registered the property, you should use g_object_notify_by_pspec()
* instead.
*
* Note that emission of the notify signal may be blocked with
* g_object_freeze_notify(). In this case, the signal emissions are queued
* and will be emitted (in reverse order) when g_object_thaw_notify() is
* called.
* @param property_name the name of a property installed on the class of @object.
*/
notify(property_name: string): void;
/**
* Emits a "notify" signal for the property specified by `pspec` on `object`.
*
* This function omits the property name lookup, hence it is faster than
* g_object_notify().
*
* One way to avoid using g_object_notify() from within the
* class that registered the properties, and using g_object_notify_by_pspec()
* instead, is to store the GParamSpec used with
* g_object_class_install_property() inside a static array, e.g.:
*
*
* ```c
* typedef enum
* {
* PROP_FOO = 1,
* PROP_LAST
* } MyObjectProperty;
*
* static GParamSpec *properties[PROP_LAST];
*
* static void
* my_object_class_init (MyObjectClass *klass)
* {
* properties[PROP_FOO] = g_param_spec_int ("foo", NULL, NULL,
* 0, 100,
* 50,
* G_PARAM_READWRITE | G_PARAM_STATIC_STRINGS);
* g_object_class_install_property (gobject_class,
* PROP_FOO,
* properties[PROP_FOO]);
* }
* ```
*
*
* and then notify a change on the "foo" property with:
*
*
* ```c
* g_object_notify_by_pspec (self, properties[PROP_FOO]);
* ```
*
* @param pspec the #GParamSpec of a property installed on the class of @object.
*/
notify_by_pspec(pspec: GObject.ParamSpec): void;
/**
* Increases the reference count of `object`.
*
* Since GLib 2.56, if `GLIB_VERSION_MAX_ALLOWED` is 2.56 or greater, the type
* of `object` will be propagated to the return type (using the GCC typeof()
* extension), so any casting the caller needs to do on the return type must be
* explicit.
* @returns the same @object
*/
ref(): GObject.Object;
/**
* Increase the reference count of `object,` and possibly remove the
* [floating][floating-ref] reference, if `object` has a floating reference.
*
* In other words, if the object is floating, then this call "assumes
* ownership" of the floating reference, converting it to a normal
* reference by clearing the floating flag while leaving the reference
* count unchanged. If the object is not floating, then this call
* adds a new normal reference increasing the reference count by one.
*
* Since GLib 2.56, the type of `object` will be propagated to the return type
* under the same conditions as for g_object_ref().
* @returns @object
*/
ref_sink(): GObject.Object;
/**
* Releases all references to other objects. This can be used to break
* reference cycles.
*
* This function should only be called from object system implementations.
*/
run_dispose(): void;
/**
* Each object carries around a table of associations from
* strings to pointers. This function lets you set an association.
*
* If the object already had an association with that name,
* the old association will be destroyed.
*
* Internally, the `key` is converted to a #GQuark using g_quark_from_string().
* This means a copy of `key` is kept permanently (even after `object` has been
* finalized) — so it is recommended to only use a small, bounded set of values
* for `key` in your program, to avoid the #GQuark storage growing unbounded.
* @param key name of the key
* @param data data to associate with that key
*/
set_data(key: string, data?: any | null): void;
set_property(property_name: string, value: any): void;
/**
* Remove a specified datum from the object's data associations,
* without invoking the association's destroy handler.
* @param key name of the key
* @returns the data if found, or %NULL if no such data exists.
*/
steal_data(key: string): any | null;
/**
* This function gets back user data pointers stored via
* g_object_set_qdata() and removes the `data` from object
* without invoking its destroy() function (if any was
* set).
* Usually, calling this function is only required to update
* user data pointers with a destroy notifier, for example:
*
* ```c
* void
* object_add_to_user_list (GObject *object,
* const gchar *new_string)
* {
* // the quark, naming the object data
* GQuark quark_string_list = g_quark_from_static_string ("my-string-list");
* // retrieve the old string list
* GList *list = g_object_steal_qdata (object, quark_string_list);
*
* // prepend new string
* list = g_list_prepend (list, g_strdup (new_string));
* // this changed 'list', so we need to set it again
* g_object_set_qdata_full (object, quark_string_list, list, free_string_list);
* }
* static void
* free_string_list (gpointer data)
* {
* GList *node, *list = data;
*
* for (node = list; node; node = node->next)
* g_free (node->data);
* g_list_free (list);
* }
* ```
*
* Using g_object_get_qdata() in the above example, instead of
* g_object_steal_qdata() would have left the destroy function set,
* and thus the partial string list would have been freed upon
* g_object_set_qdata_full().
* @param quark A #GQuark, naming the user data pointer
* @returns The user data pointer set, or %NULL
*/
steal_qdata(quark: GLib.Quark): any | null;
/**
* Reverts the effect of a previous call to
* g_object_freeze_notify(). The freeze count is decreased on `object`
* and when it reaches zero, queued "notify" signals are emitted.
*
* Duplicate notifications for each property are squashed so that at most one
* #GObject::notify signal is emitted for each property, in the reverse order
* in which they have been queued.
*
* It is an error to call this function when the freeze count is zero.
*/
thaw_notify(): void;
/**
* Decreases the reference count of `object`. When its reference count
* drops to 0, the object is finalized (i.e. its memory is freed).
*
* If the pointer to the #GObject may be reused in future (for example, if it is
* an instance variable of another object), it is recommended to clear the
* pointer to %NULL rather than retain a dangling pointer to a potentially
* invalid #GObject instance. Use g_clear_object() for this.
*/
unref(): void;
/**
* This function essentially limits the life time of the `closure` to
* the life time of the object. That is, when the object is finalized,
* the `closure` is invalidated by calling g_closure_invalidate() on
* it, in order to prevent invocations of the closure with a finalized
* (nonexisting) object. Also, g_object_ref() and g_object_unref() are
* added as marshal guards to the `closure,` to ensure that an extra
* reference count is held on `object` during invocation of the
* `closure`. Usually, this function will be called on closures that
* use this `object` as closure data.
* @param closure #GClosure to watch
*/
watch_closure(closure: GObject.Closure): void;
/**
* the `constructed` function is called by g_object_new() as the
* final step of the object creation process. At the point of the call, all
* construction properties have been set on the object. The purpose of this
* call is to allow for object initialisation steps that can only be performed
* after construction properties have been set. `constructed` implementors
* should chain up to the `constructed` call of their parent class to allow it
* to complete its initialisation.
*/
vfunc_constructed(): void;
/**
* emits property change notification for a bunch
* of properties. Overriding `dispatch_properties_changed` should be rarely
* needed.
* @param n_pspecs
* @param pspecs
*/
vfunc_dispatch_properties_changed(n_pspecs: number, pspecs: GObject.ParamSpec): void;
/**
* the `dispose` function is supposed to drop all references to other
* objects, but keep the instance otherwise intact, so that client method
* invocations still work. It may be run multiple times (due to reference
* loops). Before returning, `dispose` should chain up to the `dispose` method
* of the parent class.
*/
vfunc_dispose(): void;
/**
* instance finalization function, should finish the finalization of
* the instance begun in `dispose` and chain up to the `finalize` method of the
* parent class.
*/
vfunc_finalize(): void;
/**
* the generic getter for all properties of this type. Should be
* overridden for every type with properties.
* @param property_id
* @param value
* @param pspec
*/
vfunc_get_property(property_id: number, value: GObject.Value | any, pspec: GObject.ParamSpec): void;
/**
* Emits a "notify" signal for the property `property_name` on `object`.
*
* When possible, eg. when signaling a property change from within the class
* that registered the property, you should use g_object_notify_by_pspec()
* instead.
*
* Note that emission of the notify signal may be blocked with
* g_object_freeze_notify(). In this case, the signal emissions are queued
* and will be emitted (in reverse order) when g_object_thaw_notify() is
* called.
* @param pspec
*/
vfunc_notify(pspec: GObject.ParamSpec): void;
/**
* the generic setter for all properties of this type. Should be
* overridden for every type with properties. If implementations of
* `set_property` don't emit property change notification explicitly, this will
* be done implicitly by the type system. However, if the notify signal is
* emitted explicitly, the type system will not emit it a second time.
* @param property_id
* @param value
* @param pspec
*/
vfunc_set_property(property_id: number, value: GObject.Value | any, pspec: GObject.ParamSpec): void;
disconnect(id: number): void;
set(properties: { [key: string]: any }): void;
block_signal_handler(id: number): any;
unblock_signal_handler(id: number): any;
stop_emission_by_name(detailedName: string): any;
}
module TermList {
// Constructor properties interface
interface ConstructorProps extends GObject.Object.ConstructorProps {}
}
/**
* All fields in the DeeTermList structure are private and should never be
* accessed directly
*/
class TermList extends GObject.Object {
static $gtype: GObject.GType;
// Constructors
constructor(properties?: Partial, ...args: any[]);
_init(...args: any[]): void;
// Virtual methods
/**
* Add a term to the termlist. Note that it is possible to add a term multiple
* times. The effect of this is determined by the #DeeModelIndex consuming the
* #DeeTermList.
* @param term The term to add
*/
vfunc_add_term(term: string): TermList;
/**
* Remove all terms from a term list making it ready for reuse. Note that
* term list implementations will often have optimized memory allocation
* schemes so reuse is often more efficient than allocating a new term list
* each time you need it.
*/
vfunc_clear(): TermList;
/**
* Create a copy of `self` that shares the underlying string pool and containing
* a list of terms as currently set in `self`.
*
* Subsequently freeing the original and keeping the clone around is not a
* problem. The clone works as a standalone term list. The only gotcha may be
* threading issues because of concurrent access to the shared string pool.
*
* Creating a clone very efficient since only very little memory allocation
* is required. It's advised that you use a clone instead a new instance
* whenever you work over a common corpus of strings.
*
* It is also worth noting that terms obtained from the original term list
* and a clone can be compared directly as pointers (fx. with g_direct_equal()).
* This is because they share the underlying string pool.
*/
vfunc_clone(): TermList;
/**
* Get the n'th term in the list.
*
* Note that in the default implementation it is guaranteed that the returned
* string is valid for the entire lifetime of the #DeeTermList.
* @param n The (zero based) offset into the term list
*/
vfunc_get_term(n: number): string;
vfunc_num_terms(): number;
// Methods
/**
* Add a term to the termlist. Note that it is possible to add a term multiple
* times. The effect of this is determined by the #DeeModelIndex consuming the
* #DeeTermList.
* @param term The term to add
* @returns Always returns @self
*/
add_term(term: string): TermList;
/**
* Remove all terms from a term list making it ready for reuse. Note that
* term list implementations will often have optimized memory allocation
* schemes so reuse is often more efficient than allocating a new term list
* each time you need it.
* @returns Always returns @self
*/
clear(): TermList;
/**
* Create a copy of `self` that shares the underlying string pool and containing
* a list of terms as currently set in `self`.
*
* Subsequently freeing the original and keeping the clone around is not a
* problem. The clone works as a standalone term list. The only gotcha may be
* threading issues because of concurrent access to the shared string pool.
*
* Creating a clone very efficient since only very little memory allocation
* is required. It's advised that you use a clone instead a new instance
* whenever you work over a common corpus of strings.
*
* It is also worth noting that terms obtained from the original term list
* and a clone can be compared directly as pointers (fx. with g_direct_equal()).
* This is because they share the underlying string pool.
* @returns A newly allocated term list. Free with g_object_unref().
*/
clone(): TermList;
/**
* Get the n'th term in the list.
*
* Note that in the default implementation it is guaranteed that the returned
* string is valid for the entire lifetime of the #DeeTermList.
* @param n The (zero based) offset into the term list
* @returns The @nth string held in the term list
*/
get_term(n: number): string;
num_terms(): number;
}
module TextAnalyzer {
// Constructor properties interface
interface ConstructorProps extends Analyzer.ConstructorProps {}
}
/**
* All fields in the DeeTextAnalyzer structure are private and should never be
* accessed directly
*/
class TextAnalyzer extends Analyzer {
static $gtype: GObject.GType;
// Constructors
constructor(properties?: Partial, ...args: any[]);
_init(...args: any[]): void;
static ['new'](): TextAnalyzer;
}
module Transaction {
// Constructor properties interface
interface ConstructorProps
extends SerializableModel.ConstructorProps,
Model.ConstructorProps,
Serializable.ConstructorProps {
target: Model;
}
}
/**
* All fields in the DeeTransaction structure are private and should never be
* accessed directly
*/
class Transaction extends SerializableModel implements Model, Serializable {
static $gtype: GObject.GType;
// Properties
get target(): Model;
// Constructors
constructor(properties?: Partial, ...args: any[]);
_init(...args: any[]): void;
static ['new'](target: Model): Transaction;
// Static methods
static error_quark(): GLib.Quark;
// Methods
/**
* Apply a transaction to its target model. After this call the transaction
* is invalidated and must be freed with g_object_unref().
* @returns %TRUE if and only if the transaction successfully applies to :target.
*/
commit(): boolean;
/**
* Get the target model of a transaction. This is just a convenience method
* for accessing the :target property.
* @returns The target model
*/
get_target(): Model;
/**
* Check if a #DeeTransaction has been committed. This method is mainly for
* debugging and testing purposes.
* @returns %TRUE if and only if dee_transaction_commit() has completed successfully on the transaction.
*/
is_committed(): boolean;
// Inherited methods
/**
* Like dee_model_append() but intended for language bindings or
* situations where you work with models on a meta level and may not have
* a prior knowledge of the column schemas of the models. See also
* dee_model_build_row().
* @param row_members An array of #GVariants with type signature matching those of the column schemas of @self. If any of the variants have floating references they will be consumed
* @returns A #DeeModelIter pointing to the new row
*/
append_row(row_members: GLib.Variant[]): ModelIter;
/**
* Notify listeners that the model is about to be changed, which means that
* multiple row additions / changes / removals will follow.
* The default implementation of this method will emit
* the ::changeset-started signal.
*
* It is not stricly necessary to enclose every change to a model
* in a dee_model_begin_changeset() and dee_model_end_changeset() calls, but
* doing so is highly recommended and allows implementing various optimizations.
*
* The usual way to perform multiple changes to a model is as follows:
*
*
* void update_model (DeeModel *model)
* {
* GVariant **added_row_data1 = ...;
* GVariant **added_row_data2 = ...;
*
* dee_model_begin_changeset (model);
*
* dee_model_remove (model, dee_model_get_first_iter (model));
* dee_model_append_row (model, added_row_data1);
* dee_model_append_row (model, added_row_data2);
*
* dee_model_end_changeset (model);
* }
*
*/
begin_changeset(): void;
/**
* Removes all rows in the model. Signals are emitted for each row in the model
*/
clear(): void;
/**
* This method is purely syntactic sugar for calling dee_model_set_tag() with
* a `value` of %NULL. It's included in order to help developers write more
* readable code.
* @param iter The row to clear the tag from
* @param tag The tag to clear from @iter
*/
clear_tag(iter: ModelIter, tag: ModelTag): void;
/**
* Notify listeners that all changes have been committed to the model.
* The default implementation of this method will emit
* the ::changeset-finished signal.
*
* See also dee_model_begin_changeset().
*/
end_changeset(): void;
/**
* Finds a row in `self` according to the sorting specified by `cmp_func`.
* This method will assume that `self` is already sorted by `cmp_func`.
*
* If you use this method for searching you should only use
* dee_model_insert_row_sorted() to insert rows in the model.
* @param row_spec An array of #GVariants with type signature matching those of the column schemas of @self. No references will be taken on the variants.
* @param cmp_func Callback used for comparison or rows
* @returns If @out_was_found is set to %TRUE then a #DeeModelIter pointing to the last matching row. If it is %FALSE then the iter pointing to the row just after where @row_spec_would have been inserted.
*/
find_row_sorted(row_spec: GLib.Variant[], cmp_func: CompareRowFunc): [ModelIter, boolean];
/**
* Like dee_model_find_row_sorted(), but uses DeeCompareRowSizedFunc and
* therefore doesn't cause trouble when used from introspected languages.
*
* Finds a row in `self` according to the sorting specified by `cmp_func`.
* This method will assume that `self` is already sorted by `cmp_func`.
*
* If you use this method for searching you should only use
* dee_model_insert_row_sorted() (or dee_model_insert_row_sorted_with_sizes())
* to insert rows in the model.
* @param row_spec An array of #GVariants with type signature matching those of the column schemas of @self. No references will be taken on the variants.
* @param cmp_func Callback used for comparison or rows
* @returns If @out_was_found is set to %TRUE then a #DeeModelIter pointing to the last matching row. If it is %FALSE then the iter pointing to the row just after where @row_spec_would have been inserted.
*/
find_row_sorted_with_sizes(row_spec: GLib.Variant[], cmp_func: CompareRowSizedFunc): [ModelIter, boolean];
get_bool(iter: ModelIter, column: number): boolean;
/**
* Get the column index of a column.
* @param column_name the column name to retrieve the index of
* @returns 0-based index of the column or -1 if column with this name wasn't found
*/
get_column_index(column_name: string): number;
/**
* Get a %NULL-terminated array of column names for the columns of `self`.
* These names can be used in calls to dee_model_build_named_row().
* @returns A %NULL-terminated array of #GVariant type strings. The length of the returned array is written to @num_columns. The returned array should not be freed or modified. It is owned by the model.
*/
get_column_names(): string[];
/**
* Get the #GVariant signature of a column
* @param column the column to get retrieve the #GVariant type string of
* @returns the #GVariant signature of the column at index @column
*/
get_column_schema(column: number): string;
get_double(iter: ModelIter, column: number): number;
/**
* Get the #GVariant signature of field previously registered with
* dee_model_register_vardict_schema().
* @param field_name name of vardict field to get schema of
* @returns the #GVariant signature for the field, or %NULL if given field wasn't registered with dee_model_register_vardict_schema().
*/
get_field_schema(field_name: string): [string, number];
/**
* Retrieves a #DeeModelIter representing the first row in `self`.
* @returns A #DeeModelIter (owned by @self, do not free it)
*/
get_first_iter(): ModelIter;
get_int32(iter: ModelIter, column: number): number;
get_int64(iter: ModelIter, column: number): number;
/**
* Retrieves a #DeeModelIter representing the row at the given index.
*
* Note that this method does not have any performance guarantees. In particular
* it is not guaranteed to be O(1).
* @param row position of the row to retrieve
* @returns A new #DeeModelIter, or %NULL if @row was out of bounds. The returned iter is owned by @self, so do not free it.
*/
get_iter_at_row(row: number): ModelIter;
/**
* Retrieves a #DeeModelIter pointing right after the
* last row in `self`. This is refered to also the the
* end iter.
*
* As with other iters the end iter, in particular, is stable over inserts,
* changes, or removals.
* @returns A #DeeModelIter (owned by @self, do not free it)
*/
get_last_iter(): ModelIter;
/**
* Gets the number of columns in `self`
* @returns the number of columns per row in @self
*/
get_n_columns(): number;
/**
* Gets the number of rows in `self`
* @returns the number of rows in @self
*/
get_n_rows(): number;
/**
* Get the numeric offset of `iter` into `self`. Note that this method is
* not guaranteed to be O(1).
* @param iter The iter to get the position of
* @returns The integer offset of @iter in @self
*/
get_position(iter: ModelIter): number;
get_row(iter: ModelIter): [GLib.Variant[], GLib.Variant[] | null];
/**
* Get a %NULL-terminated array of #GVariant type strings that defines the
* required formats for the columns of `self`.
* @returns A %NULL-terminated array of #GVariant type strings. The length of the returned array is written to @num_columns. The returned array should not be freed or modified. It is owned by the model.
*/
get_schema(): string[];
get_string(iter: ModelIter, column: number): string;
/**
* Look up a tag value for a given row in a model. This method is guaranteed
* to be O(1).
* @param iter A #DeeModelIter pointing to the row to get the tag from
* @param tag The tag handle to retrieve the tag value for
* @returns Returns %NULL if @tag is unset otherwise the value of the tag as it was set with dee_model_set_tag().
*/
get_tag(iter: ModelIter, tag: ModelTag): any | null;
get_uchar(iter: ModelIter, column: number): number;
get_uint32(iter: ModelIter, column: number): number;
get_uint64(iter: ModelIter, column: number): number;
get_value(iter: ModelIter, column: number): GLib.Variant;
get_value_by_name(iter: ModelIter, column_name: string): GLib.Variant;
/**
* Get a schema for variant dictionary column previously registered using
* dee_model_register_vardict_schema().
* @param column the column index to get the schemas for
* @returns Hashtable containing a mapping from field names to schemas or NULL. Note that keys and values in the hashtable may be owned by the model, so you need to create a deep copy if you intend to keep the hashtable around.
*/
get_vardict_schema(column: number): GLib.HashTable;
/**
* As dee_model_insert(), but intended for language bindings or
* situations where you work with models on a meta level and may not have
* a priori knowledge of the column schemas of the models. See also
* dee_model_build_row().
* @param pos The index to insert the row on. The existing row will be pushed down.
* @param row_members An array of #GVariants with type signature matching those of the column schemas of @self. If any of the variants have floating references they will be consumed.
* @returns A #DeeModelIter pointing to the new row
*/
insert_row(pos: number, row_members: GLib.Variant[]): ModelIter;
/**
* As dee_model_insert_before(), but intended for language bindings or
* situations where you work with models on a meta level and may not have
* a priori knowledge of the column schemas of the models. See also
* dee_model_build_row().
* @param iter An iter pointing to the row before which to insert the new one
* @param row_members An array of #GVariants with type signature matching those of the column schemas of @self. If any of the variants have floating references they will be consumed.
* @returns A #DeeModelIter pointing to the new row
*/
insert_row_before(iter: ModelIter, row_members: GLib.Variant[]): ModelIter;
/**
* Inserts a row in `self` according to the sorting specified by `cmp_func`.
* If you use this method for insertion you should not use other methods as this
* method assumes the model to be already sorted by `cmp_func`.
* @param row_members An array of #GVariants with type signature matching those of the column schemas of @self. If any of the variants have floating references they will be consumed.
* @param cmp_func Callback used for comparison or rows
* @returns A #DeeModelIter pointing to the new row
*/
insert_row_sorted(row_members: GLib.Variant[], cmp_func: CompareRowFunc): ModelIter;
/**
* Inserts a row in `self` according to the sorting specified by `cmp_func`.
* If you use this method for insertion you should not use other methods as this
* method assumes the model to be already sorted by `cmp_func`.
* @param row_members An array of #GVariants with type signature matching those of the column schemas of @self. If any of the variants have floating references they will be consumed.
* @param cmp_func Callback used for comparison or rows
* @returns A #DeeModelIter pointing to the new row
*/
insert_row_sorted_with_sizes(row_members: GLib.Variant[], cmp_func: CompareRowSizedFunc): ModelIter;
/**
* Checks if `iter` is the very first iter `self`.
* @param iter a #DeeModelIter
* @returns #TRUE if @iter is the first iter in the model
*/
is_first(iter: ModelIter): boolean;
/**
* Whether `iter` is the end iter of `self`. Note that the end iter points
* right after the last valid row in `self`.
* @param iter a #DeeModelIter
* @returns #TRUE if @iter is the last iter in the model
*/
is_last(iter: ModelIter): boolean;
/**
* Returns a #DeeModelIter that points to the next position in the model.
* @param iter a #DeeModelIter
* @returns A #DeeModelIter, pointing to the next row in the model. The iter is owned by @self, do not free it.
*/
next(iter: ModelIter): ModelIter;
/**
* Like dee_model_prepend() but intended for language bindings or
* situations where you work with models on a meta level and may not have
* a priori knowledge of the column schemas of the models. See also
* dee_model_build_row().
* @param row_members An array of #GVariants with type signature matching those of the column schemas of @self. If any of the variants have floating references they will be consumed.
* @returns A #DeeModelIter pointing to the new row
*/
prepend_row(row_members: GLib.Variant[]): ModelIter;
/**
* Returns a #DeeModelIter that points to the previous position in the model.
* @param iter a #DeeModelIter
* @returns A #DeeModelIter, pointing to the previous row in the model. The iter is owned by @self, do not free it.
*/
prev(iter: ModelIter): ModelIter;
/**
* Register a new tag on a #DeeModel. A tag is an extra
* value attached to a given row on a model. The tags are invisible to all
* that doesn't have the tag handle returned by this method. #DeeModel
* implementations must ensure that dee_model_get_tag() is an O(1) operation.
*
* Tags can be very useful in associating some extra data to a row in a model
* and have that automatically synced when the model changes. If you're
* writing a tiled view for a model you might want to tag each row with the
* tile widget for that row. That way you have very convenient access to the
* tile widget given any row in the model.
*
* The private nature of tags and the fact that you can store arbitrary pointers
* and binary data in them also means that they are not serialized if you
* utilize a model implementation that exposes the #DeeSerializable interface.
* @returns A #DeeModelTag handle that you can use to set and get tags with
*/
register_tag(): ModelTag;
/**
* Register schema for fields in a model containing column with variant
* dictionary schema ('a{sv}').
* The keys registered with this function can be later used
* with dee_model_build_named_row() function, as well as
* dee_model_get_value_by_name(). Note that it is possible to register
* the same field name for multiple columns, in which case you need to use
* fully-qualified "column_name::field" name in the calls to
* dee_model_build_named_row() and dee_model_get_field_schema().
* @param column the column index to register the schemas with
* @param schemas hashtable with keys specifying names of the fields and values defining their schema
*/
register_vardict_schema(
column: number,
schemas: { [key: string]: any } | GLib.HashTable,
): void;
/**
* Removes the row at the given position from the model.
* @param iter a #DeeModelIter pointing to the row to remove
*/
remove(iter: ModelIter): void;
/**
* Set column names used by `self`.
* This method must be called exactly once, but only after setting
* a schema of the model. Note that some constructors will do this for you.
* @param column_names A list of column names terminated by a %NULL
*/
set_column_names_full(column_names: string[]): void;
/**
* Sets all columns in the row `iter` points to, to those found in
* `row_members`. The variants in `row_members` must match the types defined in
* the model's schema.
* @param iter a #DeeModelIter
* @param row_members And array of #GVariants with type signature matching those from the model schema. If any of the variants have floating references these will be consumed
*/
set_row(iter: ModelIter, row_members: GLib.Variant[]): void;
/**
* Set the #GVariant types and the number of columns used by `self`.
* This method must be called exactly once before using `self`. Note that
* some constructors will do this for you.
* @param column_schemas A list of #GVariant type strings terminated by a %NULL
*/
set_schema_full(column_schemas: string[]): void;
/**
* Set a tag on a row in a model. This function is guaranteed to be O(1).
* See also dee_model_register_tag().
*
* If `tag` is already set on this row the existing tag value will be destroyed
* with the #GDestroyNotify passed to the dee_model_register_tag().
* @param iter The row to set the tag on
* @param tag The tag handle for the tag as obtained from dee_model_register_tag()
* @param value The value to set for @tag. Note that %NULL represents an unset tag
*/
set_tag(iter: ModelIter, tag: ModelTag, value?: any | null): void;
/**
* Sets the data in `column` for the row `iter` points to, to `value`. The type
* of `value` must be convertible to the type of the column.
*
* When this method call completes the model will emit ::row-changed. You can
* edit the model in place without triggering the change signals by calling
* dee_model_set_value_silently().
* @param iter a #DeeModelIter
* @param column column number to set the value
* @param value New value for cell. If @value is a floating reference the model will assume ownership of the variant
*/
set_value(iter: ModelIter, column: number, value: GLib.Variant): void;
/**
* Like dee_model_append() but intended for language bindings or
* situations where you work with models on a meta level and may not have
* a prior knowledge of the column schemas of the models. See also
* dee_model_build_row().
* @param row_members An array of #GVariants with type signature matching those of the column schemas of @self. If any of the variants have floating references they will be consumed
*/
vfunc_append_row(row_members: GLib.Variant[]): ModelIter;
/**
* Notify listeners that the model is about to be changed, which means that
* multiple row additions / changes / removals will follow.
* The default implementation of this method will emit
* the ::changeset-started signal.
*
* It is not stricly necessary to enclose every change to a model
* in a dee_model_begin_changeset() and dee_model_end_changeset() calls, but
* doing so is highly recommended and allows implementing various optimizations.
*
* The usual way to perform multiple changes to a model is as follows:
*
*
* void update_model (DeeModel *model)
* {
* GVariant **added_row_data1 = ...;
* GVariant **added_row_data2 = ...;
*
* dee_model_begin_changeset (model);
*
* dee_model_remove (model, dee_model_get_first_iter (model));
* dee_model_append_row (model, added_row_data1);
* dee_model_append_row (model, added_row_data2);
*
* dee_model_end_changeset (model);
* }
*
*/
vfunc_begin_changeset(): void;
vfunc_changeset_finished(): void;
vfunc_changeset_started(): void;
/**
* Removes all rows in the model. Signals are emitted for each row in the model
*/
vfunc_clear(): void;
/**
* Notify listeners that all changes have been committed to the model.
* The default implementation of this method will emit
* the ::changeset-finished signal.
*
* See also dee_model_begin_changeset().
*/
vfunc_end_changeset(): void;
/**
* Finds a row in `self` according to the sorting specified by `cmp_func`.
* This method will assume that `self` is already sorted by `cmp_func`.
*
* If you use this method for searching you should only use
* dee_model_insert_row_sorted() to insert rows in the model.
* @param row_spec An array of #GVariants with type signature matching those of the column schemas of @self. No references will be taken on the variants.
* @param cmp_func Callback used for comparison or rows
*/
vfunc_find_row_sorted(row_spec: GLib.Variant[], cmp_func: CompareRowFunc): [ModelIter, boolean];
vfunc_get_bool(iter: ModelIter, column: number): boolean;
/**
* Get the column index of a column.
* @param column_name the column name to retrieve the index of
*/
vfunc_get_column_index(column_name: string): number;
/**
* Get a %NULL-terminated array of column names for the columns of `self`.
* These names can be used in calls to dee_model_build_named_row().
*/
vfunc_get_column_names(): string[];
/**
* Get the #GVariant signature of a column
* @param column the column to get retrieve the #GVariant type string of
*/
vfunc_get_column_schema(column: number): string;
vfunc_get_double(iter: ModelIter, column: number): number;
/**
* Get the #GVariant signature of field previously registered with
* dee_model_register_vardict_schema().
* @param field_name name of vardict field to get schema of
*/
vfunc_get_field_schema(field_name: string): [string, number];
/**
* Retrieves a #DeeModelIter representing the first row in `self`.
*/
vfunc_get_first_iter(): ModelIter;
vfunc_get_int32(iter: ModelIter, column: number): number;
vfunc_get_int64(iter: ModelIter, column: number): number;
/**
* Retrieves a #DeeModelIter representing the row at the given index.
*
* Note that this method does not have any performance guarantees. In particular
* it is not guaranteed to be O(1).
* @param row position of the row to retrieve
*/
vfunc_get_iter_at_row(row: number): ModelIter;
/**
* Retrieves a #DeeModelIter pointing right after the
* last row in `self`. This is refered to also the the
* end iter.
*
* As with other iters the end iter, in particular, is stable over inserts,
* changes, or removals.
*/
vfunc_get_last_iter(): ModelIter;
/**
* Gets the number of columns in `self`
*/
vfunc_get_n_columns(): number;
/**
* Gets the number of rows in `self`
*/
vfunc_get_n_rows(): number;
/**
* Get the numeric offset of `iter` into `self`. Note that this method is
* not guaranteed to be O(1).
* @param iter The iter to get the position of
*/
vfunc_get_position(iter: ModelIter): number;
vfunc_get_row(iter: ModelIter, out_row_members: GLib.Variant): GLib.Variant;
/**
* Get a %NULL-terminated array of #GVariant type strings that defines the
* required formats for the columns of `self`.
*/
vfunc_get_schema(): string[];
vfunc_get_string(iter: ModelIter, column: number): string;
/**
* Look up a tag value for a given row in a model. This method is guaranteed
* to be O(1).
* @param iter A #DeeModelIter pointing to the row to get the tag from
* @param tag The tag handle to retrieve the tag value for
*/
vfunc_get_tag(iter: ModelIter, tag: ModelTag): any | null;
vfunc_get_uchar(iter: ModelIter, column: number): number;
vfunc_get_uint32(iter: ModelIter, column: number): number;
vfunc_get_uint64(iter: ModelIter, column: number): number;
vfunc_get_value(iter: ModelIter, column: number): GLib.Variant;
vfunc_get_value_by_name(iter: ModelIter, column_name: string): GLib.Variant;
/**
* Get a schema for variant dictionary column previously registered using
* dee_model_register_vardict_schema().
* @param num_column
*/
vfunc_get_vardict_schema(num_column: number): GLib.HashTable;
/**
* As dee_model_insert(), but intended for language bindings or
* situations where you work with models on a meta level and may not have
* a priori knowledge of the column schemas of the models. See also
* dee_model_build_row().
* @param pos The index to insert the row on. The existing row will be pushed down.
* @param row_members An array of #GVariants with type signature matching those of the column schemas of @self. If any of the variants have floating references they will be consumed.
*/
vfunc_insert_row(pos: number, row_members: GLib.Variant[]): ModelIter;
/**
* As dee_model_insert_before(), but intended for language bindings or
* situations where you work with models on a meta level and may not have
* a priori knowledge of the column schemas of the models. See also
* dee_model_build_row().
* @param iter An iter pointing to the row before which to insert the new one
* @param row_members An array of #GVariants with type signature matching those of the column schemas of @self. If any of the variants have floating references they will be consumed.
*/
vfunc_insert_row_before(iter: ModelIter, row_members: GLib.Variant[]): ModelIter;
/**
* Inserts a row in `self` according to the sorting specified by `cmp_func`.
* If you use this method for insertion you should not use other methods as this
* method assumes the model to be already sorted by `cmp_func`.
* @param row_members An array of #GVariants with type signature matching those of the column schemas of @self. If any of the variants have floating references they will be consumed.
* @param cmp_func Callback used for comparison or rows
*/
vfunc_insert_row_sorted(row_members: GLib.Variant[], cmp_func: CompareRowFunc): ModelIter;
/**
* Checks if `iter` is the very first iter `self`.
* @param iter a #DeeModelIter
*/
vfunc_is_first(iter: ModelIter): boolean;
/**
* Whether `iter` is the end iter of `self`. Note that the end iter points
* right after the last valid row in `self`.
* @param iter a #DeeModelIter
*/
vfunc_is_last(iter: ModelIter): boolean;
/**
* Returns a #DeeModelIter that points to the next position in the model.
* @param iter a #DeeModelIter
*/
vfunc_next(iter: ModelIter): ModelIter;
/**
* Like dee_model_prepend() but intended for language bindings or
* situations where you work with models on a meta level and may not have
* a priori knowledge of the column schemas of the models. See also
* dee_model_build_row().
* @param row_members An array of #GVariants with type signature matching those of the column schemas of @self. If any of the variants have floating references they will be consumed.
*/
vfunc_prepend_row(row_members: GLib.Variant[]): ModelIter;
/**
* Returns a #DeeModelIter that points to the previous position in the model.
* @param iter a #DeeModelIter
*/
vfunc_prev(iter: ModelIter): ModelIter;
/**
* Register a new tag on a #DeeModel. A tag is an extra
* value attached to a given row on a model. The tags are invisible to all
* that doesn't have the tag handle returned by this method. #DeeModel
* implementations must ensure that dee_model_get_tag() is an O(1) operation.
*
* Tags can be very useful in associating some extra data to a row in a model
* and have that automatically synced when the model changes. If you're
* writing a tiled view for a model you might want to tag each row with the
* tile widget for that row. That way you have very convenient access to the
* tile widget given any row in the model.
*
* The private nature of tags and the fact that you can store arbitrary pointers
* and binary data in them also means that they are not serialized if you
* utilize a model implementation that exposes the #DeeSerializable interface.
*/
vfunc_register_tag(): ModelTag;
/**
* Register schema for fields in a model containing column with variant
* dictionary schema ('a{sv}').
* The keys registered with this function can be later used
* with dee_model_build_named_row() function, as well as
* dee_model_get_value_by_name(). Note that it is possible to register
* the same field name for multiple columns, in which case you need to use
* fully-qualified "column_name::field" name in the calls to
* dee_model_build_named_row() and dee_model_get_field_schema().
* @param num_column
* @param schemas hashtable with keys specifying names of the fields and values defining their schema
*/
vfunc_register_vardict_schema(
num_column: number,
schemas: { [key: string]: any } | GLib.HashTable,
): void;
/**
* Removes the row at the given position from the model.
* @param iter a #DeeModelIter pointing to the row to remove
*/
vfunc_remove(iter: ModelIter): void;
vfunc_row_added(iter: ModelIter): void;
vfunc_row_changed(iter: ModelIter): void;
vfunc_row_removed(iter: ModelIter): void;
/**
* Set column names used by `self`.
* This method must be called exactly once, but only after setting
* a schema of the model. Note that some constructors will do this for you.
* @param column_names A list of column names terminated by a %NULL
*/
vfunc_set_column_names_full(column_names: string[]): void;
/**
* Sets all columns in the row `iter` points to, to those found in
* `row_members`. The variants in `row_members` must match the types defined in
* the model's schema.
* @param iter a #DeeModelIter
* @param row_members And array of #GVariants with type signature matching those from the model schema. If any of the variants have floating references these will be consumed
*/
vfunc_set_row(iter: ModelIter, row_members: GLib.Variant[]): void;
/**
* Set the #GVariant types and the number of columns used by `self`.
* This method must be called exactly once before using `self`. Note that
* some constructors will do this for you.
* @param column_schemas A list of #GVariant type strings terminated by a %NULL
*/
vfunc_set_schema_full(column_schemas: string[]): void;
/**
* Set a tag on a row in a model. This function is guaranteed to be O(1).
* See also dee_model_register_tag().
*
* If `tag` is already set on this row the existing tag value will be destroyed
* with the #GDestroyNotify passed to the dee_model_register_tag().
* @param iter The row to set the tag on
* @param tag The tag handle for the tag as obtained from dee_model_register_tag()
* @param value The value to set for @tag. Note that %NULL represents an unset tag
*/
vfunc_set_tag(iter: ModelIter, tag: ModelTag, value?: any | null): void;
/**
* Sets the data in `column` for the row `iter` points to, to `value`. The type
* of `value` must be convertible to the type of the column.
*
* When this method call completes the model will emit ::row-changed. You can
* edit the model in place without triggering the change signals by calling
* dee_model_set_value_silently().
* @param iter a #DeeModelIter
* @param column column number to set the value
* @param value New value for cell. If @value is a floating reference the model will assume ownership of the variant
*/
vfunc_set_value(iter: ModelIter, column: number, value: GLib.Variant): void;
/**
* Build an externalized form of `self` which can be used together with
* dee_serializable_parse_external() to rebuild a copy of `self`.
*
* It is important to note that the variant returned from this method does
* not have the same type signature as returned from a call to
* dee_serializable_serialize(). Externalization will wrap the serialized data
* in a container format with versioning information and headers with type
* information.
* @returns A floating reference to a #GVariant with the externalized data.
*/
externalize(): GLib.Variant;
/**
* Build a clean serialized representation of `self`. The signature of the
* returned variant is entirely determined by the underlying implementation.
* You can recreate a serialized instance by calling dee_serializable_parse()
* provided that you know the correct #GType for the serialized instance.
* @returns A reference to a #GVariant with the serialized data. The variants type signature is entirely dependent of the underlying implementation. Free using g_variant_unref().
*/
serialize(): GLib.Variant;
/**
* Build a clean serialized representation of `self`. The signature of the
* returned variant is entirely determined by the underlying implementation.
* You can recreate a serialized instance by calling dee_serializable_parse()
* provided that you know the correct #GType for the serialized instance.
*/
vfunc_serialize(): GLib.Variant;
/**
* Creates a binding between `source_property` on `source` and `target_property`
* on `target`.
*
* Whenever the `source_property` is changed the `target_property` is
* updated using the same value. For instance:
*
*
* ```c
* g_object_bind_property (action, "active", widget, "sensitive", 0);
* ```
*
*
* Will result in the "sensitive" property of the widget #GObject instance to be
* updated with the same value of the "active" property of the action #GObject
* instance.
*
* If `flags` contains %G_BINDING_BIDIRECTIONAL then the binding will be mutual:
* if `target_property` on `target` changes then the `source_property` on `source`
* will be updated as well.
*
* The binding will automatically be removed when either the `source` or the
* `target` instances are finalized. To remove the binding without affecting the
* `source` and the `target` you can just call g_object_unref() on the returned
* #GBinding instance.
*
* Removing the binding by calling g_object_unref() on it must only be done if
* the binding, `source` and `target` are only used from a single thread and it
* is clear that both `source` and `target` outlive the binding. Especially it
* is not safe to rely on this if the binding, `source` or `target` can be
* finalized from different threads. Keep another reference to the binding and
* use g_binding_unbind() instead to be on the safe side.
*
* A #GObject can have multiple bindings.
* @param source_property the property on @source to bind
* @param target the target #GObject
* @param target_property the property on @target to bind
* @param flags flags to pass to #GBinding
* @returns the #GBinding instance representing the binding between the two #GObject instances. The binding is released whenever the #GBinding reference count reaches zero.
*/
bind_property(
source_property: string,
target: GObject.Object,
target_property: string,
flags: GObject.BindingFlags | null,
): GObject.Binding;
/**
* Complete version of g_object_bind_property().
*
* Creates a binding between `source_property` on `source` and `target_property`
* on `target,` allowing you to set the transformation functions to be used by
* the binding.
*
* If `flags` contains %G_BINDING_BIDIRECTIONAL then the binding will be mutual:
* if `target_property` on `target` changes then the `source_property` on `source`
* will be updated as well. The `transform_from` function is only used in case
* of bidirectional bindings, otherwise it will be ignored
*
* The binding will automatically be removed when either the `source` or the
* `target` instances are finalized. This will release the reference that is
* being held on the #GBinding instance; if you want to hold on to the
* #GBinding instance, you will need to hold a reference to it.
*
* To remove the binding, call g_binding_unbind().
*
* A #GObject can have multiple bindings.
*
* The same `user_data` parameter will be used for both `transform_to`
* and `transform_from` transformation functions; the `notify` function will
* be called once, when the binding is removed. If you need different data
* for each transformation function, please use
* g_object_bind_property_with_closures() instead.
* @param source_property the property on @source to bind
* @param target the target #GObject
* @param target_property the property on @target to bind
* @param flags flags to pass to #GBinding
* @param transform_to the transformation function from the @source to the @target, or %NULL to use the default
* @param transform_from the transformation function from the @target to the @source, or %NULL to use the default
* @param notify a function to call when disposing the binding, to free resources used by the transformation functions, or %NULL if not required
* @returns the #GBinding instance representing the binding between the two #GObject instances. The binding is released whenever the #GBinding reference count reaches zero.
*/
bind_property_full(
source_property: string,
target: GObject.Object,
target_property: string,
flags: GObject.BindingFlags | null,
transform_to?: GObject.BindingTransformFunc | null,
transform_from?: GObject.BindingTransformFunc | null,
notify?: GLib.DestroyNotify | null,
): GObject.Binding;
// Conflicted with GObject.Object.bind_property_full
bind_property_full(...args: never[]): any;
/**
* This function is intended for #GObject implementations to re-enforce
* a [floating][floating-ref] object reference. Doing this is seldom
* required: all #GInitiallyUnowneds are created with a floating reference
* which usually just needs to be sunken by calling g_object_ref_sink().
*/
force_floating(): void;
/**
* Increases the freeze count on `object`. If the freeze count is
* non-zero, the emission of "notify" signals on `object` is
* stopped. The signals are queued until the freeze count is decreased
* to zero. Duplicate notifications are squashed so that at most one
* #GObject::notify signal is emitted for each property modified while the
* object is frozen.
*
* This is necessary for accessors that modify multiple properties to prevent
* premature notification while the object is still being modified.
*/
freeze_notify(): void;
/**
* Gets a named field from the objects table of associations (see g_object_set_data()).
* @param key name of the key for that association
* @returns the data if found, or %NULL if no such data exists.
*/
get_data(key: string): any | null;
get_property(property_name: string): any;
/**
* This function gets back user data pointers stored via
* g_object_set_qdata().
* @param quark A #GQuark, naming the user data pointer
* @returns The user data pointer set, or %NULL
*/
get_qdata(quark: GLib.Quark): any | null;
/**
* Gets `n_properties` properties for an `object`.
* Obtained properties will be set to `values`. All properties must be valid.
* Warnings will be emitted and undefined behaviour may result if invalid
* properties are passed in.
* @param names the names of each property to get
* @param values the values of each property to get
*/
getv(names: string[], values: (GObject.Value | any)[]): void;
/**
* Checks whether `object` has a [floating][floating-ref] reference.
* @returns %TRUE if @object has a floating reference
*/
is_floating(): boolean;
/**
* Emits a "notify" signal for the property `property_name` on `object`.
*
* When possible, eg. when signaling a property change from within the class
* that registered the property, you should use g_object_notify_by_pspec()
* instead.
*
* Note that emission of the notify signal may be blocked with
* g_object_freeze_notify(). In this case, the signal emissions are queued
* and will be emitted (in reverse order) when g_object_thaw_notify() is
* called.
* @param property_name the name of a property installed on the class of @object.
*/
notify(property_name: string): void;
/**
* Emits a "notify" signal for the property specified by `pspec` on `object`.
*
* This function omits the property name lookup, hence it is faster than
* g_object_notify().
*
* One way to avoid using g_object_notify() from within the
* class that registered the properties, and using g_object_notify_by_pspec()
* instead, is to store the GParamSpec used with
* g_object_class_install_property() inside a static array, e.g.:
*
*
* ```c
* typedef enum
* {
* PROP_FOO = 1,
* PROP_LAST
* } MyObjectProperty;
*
* static GParamSpec *properties[PROP_LAST];
*
* static void
* my_object_class_init (MyObjectClass *klass)
* {
* properties[PROP_FOO] = g_param_spec_int ("foo", NULL, NULL,
* 0, 100,
* 50,
* G_PARAM_READWRITE | G_PARAM_STATIC_STRINGS);
* g_object_class_install_property (gobject_class,
* PROP_FOO,
* properties[PROP_FOO]);
* }
* ```
*
*
* and then notify a change on the "foo" property with:
*
*
* ```c
* g_object_notify_by_pspec (self, properties[PROP_FOO]);
* ```
*
* @param pspec the #GParamSpec of a property installed on the class of @object.
*/
notify_by_pspec(pspec: GObject.ParamSpec): void;
/**
* Increases the reference count of `object`.
*
* Since GLib 2.56, if `GLIB_VERSION_MAX_ALLOWED` is 2.56 or greater, the type
* of `object` will be propagated to the return type (using the GCC typeof()
* extension), so any casting the caller needs to do on the return type must be
* explicit.
* @returns the same @object
*/
ref(): GObject.Object;
/**
* Increase the reference count of `object,` and possibly remove the
* [floating][floating-ref] reference, if `object` has a floating reference.
*
* In other words, if the object is floating, then this call "assumes
* ownership" of the floating reference, converting it to a normal
* reference by clearing the floating flag while leaving the reference
* count unchanged. If the object is not floating, then this call
* adds a new normal reference increasing the reference count by one.
*
* Since GLib 2.56, the type of `object` will be propagated to the return type
* under the same conditions as for g_object_ref().
* @returns @object
*/
ref_sink(): GObject.Object;
/**
* Releases all references to other objects. This can be used to break
* reference cycles.
*
* This function should only be called from object system implementations.
*/
run_dispose(): void;
/**
* Each object carries around a table of associations from
* strings to pointers. This function lets you set an association.
*
* If the object already had an association with that name,
* the old association will be destroyed.
*
* Internally, the `key` is converted to a #GQuark using g_quark_from_string().
* This means a copy of `key` is kept permanently (even after `object` has been
* finalized) — so it is recommended to only use a small, bounded set of values
* for `key` in your program, to avoid the #GQuark storage growing unbounded.
* @param key name of the key
* @param data data to associate with that key
*/
set_data(key: string, data?: any | null): void;
set_property(property_name: string, value: any): void;
/**
* Remove a specified datum from the object's data associations,
* without invoking the association's destroy handler.
* @param key name of the key
* @returns the data if found, or %NULL if no such data exists.
*/
steal_data(key: string): any | null;
/**
* This function gets back user data pointers stored via
* g_object_set_qdata() and removes the `data` from object
* without invoking its destroy() function (if any was
* set).
* Usually, calling this function is only required to update
* user data pointers with a destroy notifier, for example:
*
* ```c
* void
* object_add_to_user_list (GObject *object,
* const gchar *new_string)
* {
* // the quark, naming the object data
* GQuark quark_string_list = g_quark_from_static_string ("my-string-list");
* // retrieve the old string list
* GList *list = g_object_steal_qdata (object, quark_string_list);
*
* // prepend new string
* list = g_list_prepend (list, g_strdup (new_string));
* // this changed 'list', so we need to set it again
* g_object_set_qdata_full (object, quark_string_list, list, free_string_list);
* }
* static void
* free_string_list (gpointer data)
* {
* GList *node, *list = data;
*
* for (node = list; node; node = node->next)
* g_free (node->data);
* g_list_free (list);
* }
* ```
*
* Using g_object_get_qdata() in the above example, instead of
* g_object_steal_qdata() would have left the destroy function set,
* and thus the partial string list would have been freed upon
* g_object_set_qdata_full().
* @param quark A #GQuark, naming the user data pointer
* @returns The user data pointer set, or %NULL
*/
steal_qdata(quark: GLib.Quark): any | null;
/**
* Reverts the effect of a previous call to
* g_object_freeze_notify(). The freeze count is decreased on `object`
* and when it reaches zero, queued "notify" signals are emitted.
*
* Duplicate notifications for each property are squashed so that at most one
* #GObject::notify signal is emitted for each property, in the reverse order
* in which they have been queued.
*
* It is an error to call this function when the freeze count is zero.
*/
thaw_notify(): void;
/**
* Decreases the reference count of `object`. When its reference count
* drops to 0, the object is finalized (i.e. its memory is freed).
*
* If the pointer to the #GObject may be reused in future (for example, if it is
* an instance variable of another object), it is recommended to clear the
* pointer to %NULL rather than retain a dangling pointer to a potentially
* invalid #GObject instance. Use g_clear_object() for this.
*/
unref(): void;
/**
* This function essentially limits the life time of the `closure` to
* the life time of the object. That is, when the object is finalized,
* the `closure` is invalidated by calling g_closure_invalidate() on
* it, in order to prevent invocations of the closure with a finalized
* (nonexisting) object. Also, g_object_ref() and g_object_unref() are
* added as marshal guards to the `closure,` to ensure that an extra
* reference count is held on `object` during invocation of the
* `closure`. Usually, this function will be called on closures that
* use this `object` as closure data.
* @param closure #GClosure to watch
*/
watch_closure(closure: GObject.Closure): void;
/**
* the `constructed` function is called by g_object_new() as the
* final step of the object creation process. At the point of the call, all
* construction properties have been set on the object. The purpose of this
* call is to allow for object initialisation steps that can only be performed
* after construction properties have been set. `constructed` implementors
* should chain up to the `constructed` call of their parent class to allow it
* to complete its initialisation.
*/
vfunc_constructed(): void;
/**
* emits property change notification for a bunch
* of properties. Overriding `dispatch_properties_changed` should be rarely
* needed.
* @param n_pspecs
* @param pspecs
*/
vfunc_dispatch_properties_changed(n_pspecs: number, pspecs: GObject.ParamSpec): void;
/**
* the `dispose` function is supposed to drop all references to other
* objects, but keep the instance otherwise intact, so that client method
* invocations still work. It may be run multiple times (due to reference
* loops). Before returning, `dispose` should chain up to the `dispose` method
* of the parent class.
*/
vfunc_dispose(): void;
/**
* instance finalization function, should finish the finalization of
* the instance begun in `dispose` and chain up to the `finalize` method of the
* parent class.
*/
vfunc_finalize(): void;
/**
* the generic getter for all properties of this type. Should be
* overridden for every type with properties.
* @param property_id
* @param value
* @param pspec
*/
vfunc_get_property(property_id: number, value: GObject.Value | any, pspec: GObject.ParamSpec): void;
/**
* Emits a "notify" signal for the property `property_name` on `object`.
*
* When possible, eg. when signaling a property change from within the class
* that registered the property, you should use g_object_notify_by_pspec()
* instead.
*
* Note that emission of the notify signal may be blocked with
* g_object_freeze_notify(). In this case, the signal emissions are queued
* and will be emitted (in reverse order) when g_object_thaw_notify() is
* called.
* @param pspec
*/
vfunc_notify(pspec: GObject.ParamSpec): void;
/**
* the generic setter for all properties of this type. Should be
* overridden for every type with properties. If implementations of
* `set_property` don't emit property change notification explicitly, this will
* be done implicitly by the type system. However, if the notify signal is
* emitted explicitly, the type system will not emit it a second time.
* @param property_id
* @param value
* @param pspec
*/
vfunc_set_property(property_id: number, value: GObject.Value | any, pspec: GObject.ParamSpec): void;
disconnect(id: number): void;
set(properties: { [key: string]: any }): void;
block_signal_handler(id: number): any;
unblock_signal_handler(id: number): any;
stop_emission_by_name(detailedName: string): any;
}
module TreeIndex {
// Constructor properties interface
interface ConstructorProps extends Index.ConstructorProps {}
}
/**
* All fields in the DeeTreeIndex structure are private and should never be
* accessed directly
*/
class TreeIndex extends Index {
static $gtype: GObject.GType;
// Constructors
constructor(properties?: Partial, ...args: any[]);
_init(...args: any[]): void;
static ['new'](model: Model, analyzer: Analyzer, reader: ModelReader): TreeIndex;
}
type AnalyzerClass = typeof Analyzer;
/**
* Ignore this structure.
*/
abstract class AnalyzerPrivate {
static $gtype: GObject.GType;
// Constructors
_init(...args: any[]): void;
}
type ClientClass = typeof Client;
/**
* Ignore this structure.
*/
abstract class ClientPrivate {
static $gtype: GObject.GType;
// Constructors
_init(...args: any[]): void;
}
type FileResourceManagerClass = typeof FileResourceManager;
/**
* Structure encapsulating the mapping logic used to construct a #DeeFilterModel
*/
class Filter {
static $gtype: GObject.GType;
// Fields
map_func: FilterMapFunc;
map_notify: FilterMapNotify;
userdata: any;
// Constructors
_init(...args: any[]): void;
// Static methods
/**
* Create a new #DeeFilter with the given parameters. This call will zero
* the `out_filter` struct.
* @param map_func The #DeeFilterMapFunc to use for the filter
* @param map_notify The #DeeFilterMapNotify to use for the filter
* @param destroy The #GDestroyNotify to call on @userdata when disposing of the filter
*/
static ['new'](
map_func: FilterMapFunc,
map_notify: FilterMapNotify,
destroy: GLib.DestroyNotify | null,
): Filter;
/**
* Create a #DeeFilter that takes string values from a column in the model
* and builds a #DeeFilterModel with the rows sorted according to the
* collation rules of the current locale.
* @param column The index of a column containing the strings to sort after
*/
static new_collator(column: number): Filter;
/**
* Create a #DeeFilter that takes string values from a column in the model
* and builds a #DeeFilterModel with the rows sorted descending according to the
* collation rules of the current locale.
* @param column The index of a column containing the strings to sort after
*/
static new_collator_desc(column: number): Filter;
/**
* Create a #DeeFilter that only includes rows from the original model
* which match a variant value in a given column. A #DeeFilterModel
* created with this filter will be ordered in accordance with its parent model.
*
* This method will work on any column, disregarding its schema, since the
* value comparison is done using g_variant_equal(). This means you can use
* this filter as a convenient fallback when there is no predefined filter
* for your column type if raw performance is not paramount.
* @param column The index of a column containing the string to match
* @param value A #GVariant value columns must match exactly. The matching semantics are those of g_variant_equal(). If @value is floating the ownership will be transfered to the filter
*/
static new_for_any_column(column: number, value: GLib.Variant): Filter;
/**
* Create a #DeeFilter that only includes rows from the original model
* which has an exact match on some string column. A #DeeFilterModel created
* with this filter will be ordered in accordance with its parent model.
* @param column The index of a column containing the string key to match
* @param key
*/
static new_for_key_column(column: number, key: string): Filter;
/**
* Create a #DeeFilter that only includes rows from the original model
* which match a regular expression on some string column. A #DeeFilterModel
* created with this filter will be ordered in accordance with its parent model.
* @param column The index of a column containing the string to match
* @param regex The regular expression @column must match
*/
static new_regex(column: number, regex: GLib.Regex): Filter;
/**
* Create a new #DeeFilter sorting a model according to a #DeeCompareRowFunc.
* @param cmp_row A #DeeCompareRowFunc to use for sorting
* @param cmp_destroy The #GDestroyNotify to call on @cmp_user_data when disposing of the filter
*/
static new_sort(cmp_row: CompareRowFunc, cmp_destroy: GLib.DestroyNotify | null): Filter;
// Methods
/**
* Call the #GDestroyNotify function on the userdata pointer of a #DeeFilter
* (if the destroy member is set, that is).
*
* When using a #DeeFilterModel you should not call this method yourself.
*
* This method will not free the memory allocated for `filter`.
*/
destroy(): void;
/**
* Call the #DeeFilterMapFunc function of a #DeeFilter.
* When using a #DeeFilterModel you should not call this method yourself.
* @param orig_model The model that is being filtered
* @param filter_model The #DeeFilterModel that holds the filtered subset of @orig_model
*/
map(orig_model: Model, filter_model: FilterModel): void;
/**
* Call the #DeeFilterMapNotify function of a #DeeFilter.
* When using a #DeeFilterModel you should not call this method yourself.
* @param orig_iter The #DeeModelIter added to @orig_model
* @param orig_model The model that is being filtered
* @param filter_model The #DeeFilterModel that holds the filtered subset of @orig_model
* @returns The return value from the #DeeFilterMapNotify. That is; %TRUE if @orig_iter was added to @filter_model
*/
notify(orig_iter: ModelIter, orig_model: Model, filter_model: FilterModel): boolean;
}
type FilterModelClass = typeof FilterModel;
/**
* Ignore this structure.
*/
abstract class FilterModelPrivate {
static $gtype: GObject.GType;
// Constructors
_init(...args: any[]): void;
}
type GListResultSetClass = typeof GListResultSet;
type HashIndexClass = typeof HashIndex;
abstract class HashIndexPrivate {
static $gtype: GObject.GType;
// Constructors
_init(...args: any[]): void;
}
abstract class ICUTermFilter {
static $gtype: GObject.GType;
// Constructors
_init(...args: any[]): void;
// Methods
/**
* Apply a #DeeICUTermFilter on a piece of UTF-8 text.
* @param text The text to apply the filter on
* @returns A newly allocated string. Free with g_free().
*/
apply(text: string): string;
/**
* Free all resources allocated by a #DeeICUTermFilter.
*/
destroy(): void;
}
type IndexClass = typeof Index;
/**
* Ignore this structure.
*/
abstract class IndexPrivate {
static $gtype: GObject.GType;
// Constructors
_init(...args: any[]): void;
}
type ModelIface = typeof Model;
/**
* The DeeModelIter structure is private and should only be used with the
* provided #DeeModel API. It is owned by DeeModel and should not be freed.
*/
abstract class ModelIter {
static $gtype: GObject.GType;
// Constructors
_init(...args: any[]): void;
}
/**
* Structure encapsulating the information needed to read strings from a
* model. Used for example by #DeeIndex.
*/
class ModelReader {
static $gtype: GObject.GType;
// Fields
reader_func: ModelReaderFunc;
userdata: any;
// Constructors
_init(...args: any[]): void;
// Static methods
/**
* Create a new #DeeModelReader with the given parameters. This call will zero
* the `out_reader` struct.
* @param reader_func The #DeeModelReaderFunc to use for the reader
* @param destroy The #GDestroyNotify to call on @userdata when disposing of the reader
*/
static ['new'](reader_func: ModelReaderFunc, destroy: GLib.DestroyNotify | null): ModelReader;
/**
* A #DeeModelReader reading a %gint32 from a #DeeModel at a given column
* @param column The column index to read a %gint32 from
*/
static new_for_int32_column(column: number): ModelReader;
/**
* A #DeeModelReader reading a string from a #DeeModel at a given column
* @param column The column index to read a string from
*/
static new_for_string_column(column: number): ModelReader;
/**
* A #DeeModelReader reading a %guint32 from a #DeeModel at a given column
* @param column The column index to read a %guint32 from
*/
static new_for_uint32_column(column: number): ModelReader;
// Methods
/**
* Release resources associated with `reader,` but does not free the
* #DeeModelReader structure itself.
*
* This will call the destroy() function registered with the reader
* if it is set.
*/
destroy(): void;
/**
* Read data from a row in a #DeeModel and extract a string representation from
* it.
*
* Note that generally a #DeeModelReader need not be confined to reading from
* one specific column, although in practice most are.
* @param model The #DeeModel to read a string from
* @param iter The row to read a string from
* @returns A newly allocated string. Free with g_free().
*/
read(model: Model, iter: ModelIter): string;
}
/**
* The DeeModelTag structure is private and should only be used with the
* provided #DeeModel API. It is owned by DeeModel and should not be freed.
*/
abstract class ModelTag {
static $gtype: GObject.GType;
// Constructors
_init(...args: any[]): void;
}
type PeerClass = typeof Peer;
/**
* Ignore this structure.
*/
abstract class PeerPrivate {
static $gtype: GObject.GType;
// Constructors
_init(...args: any[]): void;
}
type ProxyModelClass = typeof ProxyModel;
/**
* Ignore this structure.
*/
abstract class ProxyModelPrivate {
static $gtype: GObject.GType;
// Constructors
_init(...args: any[]): void;
}
type ResourceManagerIface = typeof ResourceManager;
type ResultSetIface = typeof ResultSet;
type SequenceModelClass = typeof SequenceModel;
/**
* Ignore this structure.
*/
abstract class SequenceModelPrivate {
static $gtype: GObject.GType;
// Constructors
_init(...args: any[]): void;
}
type SerializableIface = typeof Serializable;
type SerializableModelClass = typeof SerializableModel;
/**
* Ignore this structure.
*/
abstract class SerializableModelPrivate {
static $gtype: GObject.GType;
// Constructors
_init(...args: any[]): void;
}
type ServerClass = typeof Server;
/**
* Ignore this structure.
*/
abstract class ServerPrivate {
static $gtype: GObject.GType;
// Constructors
_init(...args: any[]): void;
}
type SharedModelClass = typeof SharedModel;
/**
* Ignore this structure.
*/
abstract class SharedModelPrivate {
static $gtype: GObject.GType;
// Constructors
_init(...args: any[]): void;
}
type TermListClass = typeof TermList;
/**
* Ignore this structure.
*/
abstract class TermListPrivate {
static $gtype: GObject.GType;
// Constructors
_init(...args: any[]): void;
}
type TextAnalyzerClass = typeof TextAnalyzer;
abstract class TextAnalyzerPrivate {
static $gtype: GObject.GType;
// Constructors
_init(...args: any[]): void;
}
type TransactionClass = typeof Transaction;
/**
* Ignore this structure.
*/
abstract class TransactionPrivate {
static $gtype: GObject.GType;
// Constructors
_init(...args: any[]): void;
}
type TreeIndexClass = typeof TreeIndex;
abstract class TreeIndexPrivate {
static $gtype: GObject.GType;
// Constructors
_init(...args: any[]): void;
}
module Model {
// Constructor properties interface
interface ConstructorProps extends GObject.Object.ConstructorProps {}
}
export interface ModelNamespace {
$gtype: GObject.GType;
prototype: Model;
}
interface Model extends GObject.Object {
// Methods
/**
* Like dee_model_append() but intended for language bindings or
* situations where you work with models on a meta level and may not have
* a prior knowledge of the column schemas of the models. See also
* dee_model_build_row().
* @param row_members An array of #GVariants with type signature matching those of the column schemas of @self. If any of the variants have floating references they will be consumed
* @returns A #DeeModelIter pointing to the new row
*/
append_row(row_members: GLib.Variant[]): ModelIter;
/**
* Notify listeners that the model is about to be changed, which means that
* multiple row additions / changes / removals will follow.
* The default implementation of this method will emit
* the ::changeset-started signal.
*
* It is not stricly necessary to enclose every change to a model
* in a dee_model_begin_changeset() and dee_model_end_changeset() calls, but
* doing so is highly recommended and allows implementing various optimizations.
*
* The usual way to perform multiple changes to a model is as follows:
*
*
* void update_model (DeeModel *model)
* {
* GVariant **added_row_data1 = ...;
* GVariant **added_row_data2 = ...;
*
* dee_model_begin_changeset (model);
*
* dee_model_remove (model, dee_model_get_first_iter (model));
* dee_model_append_row (model, added_row_data1);
* dee_model_append_row (model, added_row_data2);
*
* dee_model_end_changeset (model);
* }
*
*/
begin_changeset(): void;
/**
* Removes all rows in the model. Signals are emitted for each row in the model
*/
clear(): void;
/**
* This method is purely syntactic sugar for calling dee_model_set_tag() with
* a `value` of %NULL. It's included in order to help developers write more
* readable code.
* @param iter The row to clear the tag from
* @param tag The tag to clear from @iter
*/
clear_tag(iter: ModelIter, tag: ModelTag): void;
/**
* Notify listeners that all changes have been committed to the model.
* The default implementation of this method will emit
* the ::changeset-finished signal.
*
* See also dee_model_begin_changeset().
*/
end_changeset(): void;
/**
* Finds a row in `self` according to the sorting specified by `cmp_func`.
* This method will assume that `self` is already sorted by `cmp_func`.
*
* If you use this method for searching you should only use
* dee_model_insert_row_sorted() to insert rows in the model.
* @param row_spec An array of #GVariants with type signature matching those of the column schemas of @self. No references will be taken on the variants.
* @param cmp_func Callback used for comparison or rows
* @returns If @out_was_found is set to %TRUE then a #DeeModelIter pointing to the last matching row. If it is %FALSE then the iter pointing to the row just after where @row_spec_would have been inserted.
*/
find_row_sorted(row_spec: GLib.Variant[], cmp_func: CompareRowFunc): [ModelIter, boolean];
/**
* Like dee_model_find_row_sorted(), but uses DeeCompareRowSizedFunc and
* therefore doesn't cause trouble when used from introspected languages.
*
* Finds a row in `self` according to the sorting specified by `cmp_func`.
* This method will assume that `self` is already sorted by `cmp_func`.
*
* If you use this method for searching you should only use
* dee_model_insert_row_sorted() (or dee_model_insert_row_sorted_with_sizes())
* to insert rows in the model.
* @param row_spec An array of #GVariants with type signature matching those of the column schemas of @self. No references will be taken on the variants.
* @param cmp_func Callback used for comparison or rows
* @returns If @out_was_found is set to %TRUE then a #DeeModelIter pointing to the last matching row. If it is %FALSE then the iter pointing to the row just after where @row_spec_would have been inserted.
*/
find_row_sorted_with_sizes(row_spec: GLib.Variant[], cmp_func: CompareRowSizedFunc): [ModelIter, boolean];
get_bool(iter: ModelIter, column: number): boolean;
/**
* Get the column index of a column.
* @param column_name the column name to retrieve the index of
* @returns 0-based index of the column or -1 if column with this name wasn't found
*/
get_column_index(column_name: string): number;
/**
* Get a %NULL-terminated array of column names for the columns of `self`.
* These names can be used in calls to dee_model_build_named_row().
* @returns A %NULL-terminated array of #GVariant type strings. The length of the returned array is written to @num_columns. The returned array should not be freed or modified. It is owned by the model.
*/
get_column_names(): string[];
/**
* Get the #GVariant signature of a column
* @param column the column to get retrieve the #GVariant type string of
* @returns the #GVariant signature of the column at index @column
*/
get_column_schema(column: number): string;
get_double(iter: ModelIter, column: number): number;
/**
* Get the #GVariant signature of field previously registered with
* dee_model_register_vardict_schema().
* @param field_name name of vardict field to get schema of
* @returns the #GVariant signature for the field, or %NULL if given field wasn't registered with dee_model_register_vardict_schema().
*/
get_field_schema(field_name: string): [string, number];
/**
* Retrieves a #DeeModelIter representing the first row in `self`.
* @returns A #DeeModelIter (owned by @self, do not free it)
*/
get_first_iter(): ModelIter;
get_int32(iter: ModelIter, column: number): number;
get_int64(iter: ModelIter, column: number): number;
/**
* Retrieves a #DeeModelIter representing the row at the given index.
*
* Note that this method does not have any performance guarantees. In particular
* it is not guaranteed to be O(1).
* @param row position of the row to retrieve
* @returns A new #DeeModelIter, or %NULL if @row was out of bounds. The returned iter is owned by @self, so do not free it.
*/
get_iter_at_row(row: number): ModelIter;
/**
* Retrieves a #DeeModelIter pointing right after the
* last row in `self`. This is refered to also the the
* end iter.
*
* As with other iters the end iter, in particular, is stable over inserts,
* changes, or removals.
* @returns A #DeeModelIter (owned by @self, do not free it)
*/
get_last_iter(): ModelIter;
/**
* Gets the number of columns in `self`
* @returns the number of columns per row in @self
*/
get_n_columns(): number;
/**
* Gets the number of rows in `self`
* @returns the number of rows in @self
*/
get_n_rows(): number;
/**
* Get the numeric offset of `iter` into `self`. Note that this method is
* not guaranteed to be O(1).
* @param iter The iter to get the position of
* @returns The integer offset of @iter in @self
*/
get_position(iter: ModelIter): number;
get_row(iter: ModelIter): [GLib.Variant[], GLib.Variant[] | null];
/**
* Get a %NULL-terminated array of #GVariant type strings that defines the
* required formats for the columns of `self`.
* @returns A %NULL-terminated array of #GVariant type strings. The length of the returned array is written to @num_columns. The returned array should not be freed or modified. It is owned by the model.
*/
get_schema(): string[];
get_string(iter: ModelIter, column: number): string;
/**
* Look up a tag value for a given row in a model. This method is guaranteed
* to be O(1).
* @param iter A #DeeModelIter pointing to the row to get the tag from
* @param tag The tag handle to retrieve the tag value for
* @returns Returns %NULL if @tag is unset otherwise the value of the tag as it was set with dee_model_set_tag().
*/
get_tag(iter: ModelIter, tag: ModelTag): any | null;
get_uchar(iter: ModelIter, column: number): number;
get_uint32(iter: ModelIter, column: number): number;
get_uint64(iter: ModelIter, column: number): number;
get_value(iter: ModelIter, column: number): GLib.Variant;
get_value_by_name(iter: ModelIter, column_name: string): GLib.Variant;
/**
* Get a schema for variant dictionary column previously registered using
* dee_model_register_vardict_schema().
* @param column the column index to get the schemas for
* @returns Hashtable containing a mapping from field names to schemas or NULL. Note that keys and values in the hashtable may be owned by the model, so you need to create a deep copy if you intend to keep the hashtable around.
*/
get_vardict_schema(column: number): GLib.HashTable;
/**
* As dee_model_insert(), but intended for language bindings or
* situations where you work with models on a meta level and may not have
* a priori knowledge of the column schemas of the models. See also
* dee_model_build_row().
* @param pos The index to insert the row on. The existing row will be pushed down.
* @param row_members An array of #GVariants with type signature matching those of the column schemas of @self. If any of the variants have floating references they will be consumed.
* @returns A #DeeModelIter pointing to the new row
*/
insert_row(pos: number, row_members: GLib.Variant[]): ModelIter;
/**
* As dee_model_insert_before(), but intended for language bindings or
* situations where you work with models on a meta level and may not have
* a priori knowledge of the column schemas of the models. See also
* dee_model_build_row().
* @param iter An iter pointing to the row before which to insert the new one
* @param row_members An array of #GVariants with type signature matching those of the column schemas of @self. If any of the variants have floating references they will be consumed.
* @returns A #DeeModelIter pointing to the new row
*/
insert_row_before(iter: ModelIter, row_members: GLib.Variant[]): ModelIter;
/**
* Inserts a row in `self` according to the sorting specified by `cmp_func`.
* If you use this method for insertion you should not use other methods as this
* method assumes the model to be already sorted by `cmp_func`.
* @param row_members An array of #GVariants with type signature matching those of the column schemas of @self. If any of the variants have floating references they will be consumed.
* @param cmp_func Callback used for comparison or rows
* @returns A #DeeModelIter pointing to the new row
*/
insert_row_sorted(row_members: GLib.Variant[], cmp_func: CompareRowFunc): ModelIter;
/**
* Inserts a row in `self` according to the sorting specified by `cmp_func`.
* If you use this method for insertion you should not use other methods as this
* method assumes the model to be already sorted by `cmp_func`.
* @param row_members An array of #GVariants with type signature matching those of the column schemas of @self. If any of the variants have floating references they will be consumed.
* @param cmp_func Callback used for comparison or rows
* @returns A #DeeModelIter pointing to the new row
*/
insert_row_sorted_with_sizes(row_members: GLib.Variant[], cmp_func: CompareRowSizedFunc): ModelIter;
/**
* Checks if `iter` is the very first iter `self`.
* @param iter a #DeeModelIter
* @returns #TRUE if @iter is the first iter in the model
*/
is_first(iter: ModelIter): boolean;
/**
* Whether `iter` is the end iter of `self`. Note that the end iter points
* right after the last valid row in `self`.
* @param iter a #DeeModelIter
* @returns #TRUE if @iter is the last iter in the model
*/
is_last(iter: ModelIter): boolean;
/**
* Returns a #DeeModelIter that points to the next position in the model.
* @param iter a #DeeModelIter
* @returns A #DeeModelIter, pointing to the next row in the model. The iter is owned by @self, do not free it.
*/
next(iter: ModelIter): ModelIter;
/**
* Like dee_model_prepend() but intended for language bindings or
* situations where you work with models on a meta level and may not have
* a priori knowledge of the column schemas of the models. See also
* dee_model_build_row().
* @param row_members An array of #GVariants with type signature matching those of the column schemas of @self. If any of the variants have floating references they will be consumed.
* @returns A #DeeModelIter pointing to the new row
*/
prepend_row(row_members: GLib.Variant[]): ModelIter;
/**
* Returns a #DeeModelIter that points to the previous position in the model.
* @param iter a #DeeModelIter
* @returns A #DeeModelIter, pointing to the previous row in the model. The iter is owned by @self, do not free it.
*/
prev(iter: ModelIter): ModelIter;
/**
* Register a new tag on a #DeeModel. A tag is an extra
* value attached to a given row on a model. The tags are invisible to all
* that doesn't have the tag handle returned by this method. #DeeModel
* implementations must ensure that dee_model_get_tag() is an O(1) operation.
*
* Tags can be very useful in associating some extra data to a row in a model
* and have that automatically synced when the model changes. If you're
* writing a tiled view for a model you might want to tag each row with the
* tile widget for that row. That way you have very convenient access to the
* tile widget given any row in the model.
*
* The private nature of tags and the fact that you can store arbitrary pointers
* and binary data in them also means that they are not serialized if you
* utilize a model implementation that exposes the #DeeSerializable interface.
* @returns A #DeeModelTag handle that you can use to set and get tags with
*/
register_tag(): ModelTag;
/**
* Register schema for fields in a model containing column with variant
* dictionary schema ('a{sv}').
* The keys registered with this function can be later used
* with dee_model_build_named_row() function, as well as
* dee_model_get_value_by_name(). Note that it is possible to register
* the same field name for multiple columns, in which case you need to use
* fully-qualified "column_name::field" name in the calls to
* dee_model_build_named_row() and dee_model_get_field_schema().
* @param column the column index to register the schemas with
* @param schemas hashtable with keys specifying names of the fields and values defining their schema
*/
register_vardict_schema(
column: number,
schemas: { [key: string]: any } | GLib.HashTable,
): void;
/**
* Removes the row at the given position from the model.
* @param iter a #DeeModelIter pointing to the row to remove
*/
remove(iter: ModelIter): void;
/**
* Set column names used by `self`.
* This method must be called exactly once, but only after setting
* a schema of the model. Note that some constructors will do this for you.
* @param column_names A list of column names terminated by a %NULL
*/
set_column_names_full(column_names: string[]): void;
/**
* Sets all columns in the row `iter` points to, to those found in
* `row_members`. The variants in `row_members` must match the types defined in
* the model's schema.
* @param iter a #DeeModelIter
* @param row_members And array of #GVariants with type signature matching those from the model schema. If any of the variants have floating references these will be consumed
*/
set_row(iter: ModelIter, row_members: GLib.Variant[]): void;
/**
* Set the #GVariant types and the number of columns used by `self`.
* This method must be called exactly once before using `self`. Note that
* some constructors will do this for you.
* @param column_schemas A list of #GVariant type strings terminated by a %NULL
*/
set_schema_full(column_schemas: string[]): void;
/**
* Set a tag on a row in a model. This function is guaranteed to be O(1).
* See also dee_model_register_tag().
*
* If `tag` is already set on this row the existing tag value will be destroyed
* with the #GDestroyNotify passed to the dee_model_register_tag().
* @param iter The row to set the tag on
* @param tag The tag handle for the tag as obtained from dee_model_register_tag()
* @param value The value to set for @tag. Note that %NULL represents an unset tag
*/
set_tag(iter: ModelIter, tag: ModelTag, value?: any | null): void;
/**
* Sets the data in `column` for the row `iter` points to, to `value`. The type
* of `value` must be convertible to the type of the column.
*
* When this method call completes the model will emit ::row-changed. You can
* edit the model in place without triggering the change signals by calling
* dee_model_set_value_silently().
* @param iter a #DeeModelIter
* @param column column number to set the value
* @param value New value for cell. If @value is a floating reference the model will assume ownership of the variant
*/
set_value(iter: ModelIter, column: number, value: GLib.Variant): void;
// Virtual methods
/**
* Like dee_model_append() but intended for language bindings or
* situations where you work with models on a meta level and may not have
* a prior knowledge of the column schemas of the models. See also
* dee_model_build_row().
* @param row_members An array of #GVariants with type signature matching those of the column schemas of @self. If any of the variants have floating references they will be consumed
*/
vfunc_append_row(row_members: GLib.Variant[]): ModelIter;
/**
* Notify listeners that the model is about to be changed, which means that
* multiple row additions / changes / removals will follow.
* The default implementation of this method will emit
* the ::changeset-started signal.
*
* It is not stricly necessary to enclose every change to a model
* in a dee_model_begin_changeset() and dee_model_end_changeset() calls, but
* doing so is highly recommended and allows implementing various optimizations.
*
* The usual way to perform multiple changes to a model is as follows:
*
*
* void update_model (DeeModel *model)
* {
* GVariant **added_row_data1 = ...;
* GVariant **added_row_data2 = ...;
*
* dee_model_begin_changeset (model);
*
* dee_model_remove (model, dee_model_get_first_iter (model));
* dee_model_append_row (model, added_row_data1);
* dee_model_append_row (model, added_row_data2);
*
* dee_model_end_changeset (model);
* }
*
*/
vfunc_begin_changeset(): void;
vfunc_changeset_finished(): void;
vfunc_changeset_started(): void;
/**
* Removes all rows in the model. Signals are emitted for each row in the model
*/
vfunc_clear(): void;
/**
* Notify listeners that all changes have been committed to the model.
* The default implementation of this method will emit
* the ::changeset-finished signal.
*
* See also dee_model_begin_changeset().
*/
vfunc_end_changeset(): void;
/**
* Finds a row in `self` according to the sorting specified by `cmp_func`.
* This method will assume that `self` is already sorted by `cmp_func`.
*
* If you use this method for searching you should only use
* dee_model_insert_row_sorted() to insert rows in the model.
* @param row_spec An array of #GVariants with type signature matching those of the column schemas of @self. No references will be taken on the variants.
* @param cmp_func Callback used for comparison or rows
*/
vfunc_find_row_sorted(row_spec: GLib.Variant[], cmp_func: CompareRowFunc): [ModelIter, boolean];
vfunc_get_bool(iter: ModelIter, column: number): boolean;
/**
* Get the column index of a column.
* @param column_name the column name to retrieve the index of
*/
vfunc_get_column_index(column_name: string): number;
/**
* Get a %NULL-terminated array of column names for the columns of `self`.
* These names can be used in calls to dee_model_build_named_row().
*/
vfunc_get_column_names(): string[];
/**
* Get the #GVariant signature of a column
* @param column the column to get retrieve the #GVariant type string of
*/
vfunc_get_column_schema(column: number): string;
vfunc_get_double(iter: ModelIter, column: number): number;
/**
* Get the #GVariant signature of field previously registered with
* dee_model_register_vardict_schema().
* @param field_name name of vardict field to get schema of
*/
vfunc_get_field_schema(field_name: string): [string, number];
/**
* Retrieves a #DeeModelIter representing the first row in `self`.
*/
vfunc_get_first_iter(): ModelIter;
vfunc_get_int32(iter: ModelIter, column: number): number;
vfunc_get_int64(iter: ModelIter, column: number): number;
/**
* Retrieves a #DeeModelIter representing the row at the given index.
*
* Note that this method does not have any performance guarantees. In particular
* it is not guaranteed to be O(1).
* @param row position of the row to retrieve
*/
vfunc_get_iter_at_row(row: number): ModelIter;
/**
* Retrieves a #DeeModelIter pointing right after the
* last row in `self`. This is refered to also the the
* end iter.
*
* As with other iters the end iter, in particular, is stable over inserts,
* changes, or removals.
*/
vfunc_get_last_iter(): ModelIter;
/**
* Gets the number of columns in `self`
*/
vfunc_get_n_columns(): number;
/**
* Gets the number of rows in `self`
*/
vfunc_get_n_rows(): number;
/**
* Get the numeric offset of `iter` into `self`. Note that this method is
* not guaranteed to be O(1).
* @param iter The iter to get the position of
*/
vfunc_get_position(iter: ModelIter): number;
vfunc_get_row(iter: ModelIter, out_row_members: GLib.Variant): GLib.Variant;
/**
* Get a %NULL-terminated array of #GVariant type strings that defines the
* required formats for the columns of `self`.
*/
vfunc_get_schema(): string[];
vfunc_get_string(iter: ModelIter, column: number): string;
/**
* Look up a tag value for a given row in a model. This method is guaranteed
* to be O(1).
* @param iter A #DeeModelIter pointing to the row to get the tag from
* @param tag The tag handle to retrieve the tag value for
*/
vfunc_get_tag(iter: ModelIter, tag: ModelTag): any | null;
vfunc_get_uchar(iter: ModelIter, column: number): number;
vfunc_get_uint32(iter: ModelIter, column: number): number;
vfunc_get_uint64(iter: ModelIter, column: number): number;
vfunc_get_value(iter: ModelIter, column: number): GLib.Variant;
vfunc_get_value_by_name(iter: ModelIter, column_name: string): GLib.Variant;
/**
* Get a schema for variant dictionary column previously registered using
* dee_model_register_vardict_schema().
* @param num_column
*/
vfunc_get_vardict_schema(num_column: number): GLib.HashTable;
/**
* As dee_model_insert(), but intended for language bindings or
* situations where you work with models on a meta level and may not have
* a priori knowledge of the column schemas of the models. See also
* dee_model_build_row().
* @param pos The index to insert the row on. The existing row will be pushed down.
* @param row_members An array of #GVariants with type signature matching those of the column schemas of @self. If any of the variants have floating references they will be consumed.
*/
vfunc_insert_row(pos: number, row_members: GLib.Variant[]): ModelIter;
/**
* As dee_model_insert_before(), but intended for language bindings or
* situations where you work with models on a meta level and may not have
* a priori knowledge of the column schemas of the models. See also
* dee_model_build_row().
* @param iter An iter pointing to the row before which to insert the new one
* @param row_members An array of #GVariants with type signature matching those of the column schemas of @self. If any of the variants have floating references they will be consumed.
*/
vfunc_insert_row_before(iter: ModelIter, row_members: GLib.Variant[]): ModelIter;
/**
* Inserts a row in `self` according to the sorting specified by `cmp_func`.
* If you use this method for insertion you should not use other methods as this
* method assumes the model to be already sorted by `cmp_func`.
* @param row_members An array of #GVariants with type signature matching those of the column schemas of @self. If any of the variants have floating references they will be consumed.
* @param cmp_func Callback used for comparison or rows
*/
vfunc_insert_row_sorted(row_members: GLib.Variant[], cmp_func: CompareRowFunc): ModelIter;
/**
* Checks if `iter` is the very first iter `self`.
* @param iter a #DeeModelIter
*/
vfunc_is_first(iter: ModelIter): boolean;
/**
* Whether `iter` is the end iter of `self`. Note that the end iter points
* right after the last valid row in `self`.
* @param iter a #DeeModelIter
*/
vfunc_is_last(iter: ModelIter): boolean;
/**
* Returns a #DeeModelIter that points to the next position in the model.
* @param iter a #DeeModelIter
*/
vfunc_next(iter: ModelIter): ModelIter;
/**
* Like dee_model_prepend() but intended for language bindings or
* situations where you work with models on a meta level and may not have
* a priori knowledge of the column schemas of the models. See also
* dee_model_build_row().
* @param row_members An array of #GVariants with type signature matching those of the column schemas of @self. If any of the variants have floating references they will be consumed.
*/
vfunc_prepend_row(row_members: GLib.Variant[]): ModelIter;
/**
* Returns a #DeeModelIter that points to the previous position in the model.
* @param iter a #DeeModelIter
*/
vfunc_prev(iter: ModelIter): ModelIter;
/**
* Register a new tag on a #DeeModel. A tag is an extra
* value attached to a given row on a model. The tags are invisible to all
* that doesn't have the tag handle returned by this method. #DeeModel
* implementations must ensure that dee_model_get_tag() is an O(1) operation.
*
* Tags can be very useful in associating some extra data to a row in a model
* and have that automatically synced when the model changes. If you're
* writing a tiled view for a model you might want to tag each row with the
* tile widget for that row. That way you have very convenient access to the
* tile widget given any row in the model.
*
* The private nature of tags and the fact that you can store arbitrary pointers
* and binary data in them also means that they are not serialized if you
* utilize a model implementation that exposes the #DeeSerializable interface.
*/
vfunc_register_tag(): ModelTag;
/**
* Register schema for fields in a model containing column with variant
* dictionary schema ('a{sv}').
* The keys registered with this function can be later used
* with dee_model_build_named_row() function, as well as
* dee_model_get_value_by_name(). Note that it is possible to register
* the same field name for multiple columns, in which case you need to use
* fully-qualified "column_name::field" name in the calls to
* dee_model_build_named_row() and dee_model_get_field_schema().
* @param num_column
* @param schemas hashtable with keys specifying names of the fields and values defining their schema
*/
vfunc_register_vardict_schema(
num_column: number,
schemas: { [key: string]: any } | GLib.HashTable,
): void;
/**
* Removes the row at the given position from the model.
* @param iter a #DeeModelIter pointing to the row to remove
*/
vfunc_remove(iter: ModelIter): void;
vfunc_row_added(iter: ModelIter): void;
vfunc_row_changed(iter: ModelIter): void;
vfunc_row_removed(iter: ModelIter): void;
/**
* Set column names used by `self`.
* This method must be called exactly once, but only after setting
* a schema of the model. Note that some constructors will do this for you.
* @param column_names A list of column names terminated by a %NULL
*/
vfunc_set_column_names_full(column_names: string[]): void;
/**
* Sets all columns in the row `iter` points to, to those found in
* `row_members`. The variants in `row_members` must match the types defined in
* the model's schema.
* @param iter a #DeeModelIter
* @param row_members And array of #GVariants with type signature matching those from the model schema. If any of the variants have floating references these will be consumed
*/
vfunc_set_row(iter: ModelIter, row_members: GLib.Variant[]): void;
/**
* Set the #GVariant types and the number of columns used by `self`.
* This method must be called exactly once before using `self`. Note that
* some constructors will do this for you.
* @param column_schemas A list of #GVariant type strings terminated by a %NULL
*/
vfunc_set_schema_full(column_schemas: string[]): void;
/**
* Set a tag on a row in a model. This function is guaranteed to be O(1).
* See also dee_model_register_tag().
*
* If `tag` is already set on this row the existing tag value will be destroyed
* with the #GDestroyNotify passed to the dee_model_register_tag().
* @param iter The row to set the tag on
* @param tag The tag handle for the tag as obtained from dee_model_register_tag()
* @param value The value to set for @tag. Note that %NULL represents an unset tag
*/
vfunc_set_tag(iter: ModelIter, tag: ModelTag, value?: any | null): void;
/**
* Sets the data in `column` for the row `iter` points to, to `value`. The type
* of `value` must be convertible to the type of the column.
*
* When this method call completes the model will emit ::row-changed. You can
* edit the model in place without triggering the change signals by calling
* dee_model_set_value_silently().
* @param iter a #DeeModelIter
* @param column column number to set the value
* @param value New value for cell. If @value is a floating reference the model will assume ownership of the variant
*/
vfunc_set_value(iter: ModelIter, column: number, value: GLib.Variant): void;
}
export const Model: ModelNamespace & {
new (): Model; // This allows `obj instanceof Model`
};
module ResourceManager {
// Constructor properties interface
interface ConstructorProps extends GObject.Object.ConstructorProps {}
}
export interface ResourceManagerNamespace {
$gtype: GObject.GType;
prototype: ResourceManager;
/**
* Get a pointer to the platform default #DeeResourceManager.
*/
get_default(): ResourceManager;
}
interface ResourceManager extends GObject.Object {
// Methods
/**
* Load a resource from persistent storage. The loaded resource will be of the
* same GType as when it was stored (provided that the same serialization and
* parse functions are registered).
*
* In case of an error the error will be in the #GFileError domain. Specifically
* if there is no resource with the name `resource_name` the error code will
* be #G_FILE_ERROR_NOENT.
*
* Important note: This call may do blocking IO. The resource manager must
* guarantee that this call is reasonably fast, like writing the externalized
* resource to a file, but not blocking IO over a network socket.
* @param resource_name The name of the resource to retrieve
* @returns A newly allocated #GObject in case of success and %NULL otherwise. In case of a runtime error the @error pointer will be set.
*/
load(resource_name: string): T;
/**
* Store a resource under a given name. The resource manager must guarantee
* that the stored data survives system reboots and that you can recreate a
* copy of `resource` by calling dee_resource_manager_load() using the
* same `resource_name`.
*
* Important note: This call may do blocking IO. The resource manager must
* guarantee that this call is reasonably fast, like writing the externalized
* resource to a file, but not blocking IO over a network socket.
* @param resource A #DeeSerializable to store under @resource_name
* @param resource_name The name to store the resource under. Will overwrite any existing resource with the same name
* @returns %TRUE on success and %FALSE otherwise. In case of a runtime error the @error pointer will point to a #GError in the #DeeResourceError domain.
*/
store(resource: Serializable, resource_name: string): boolean;
// Virtual methods
/**
* Load a resource from persistent storage. The loaded resource will be of the
* same GType as when it was stored (provided that the same serialization and
* parse functions are registered).
*
* In case of an error the error will be in the #GFileError domain. Specifically
* if there is no resource with the name `resource_name` the error code will
* be #G_FILE_ERROR_NOENT.
*
* Important note: This call may do blocking IO. The resource manager must
* guarantee that this call is reasonably fast, like writing the externalized
* resource to a file, but not blocking IO over a network socket.
* @param resource_name The name of the resource to retrieve
*/
vfunc_load(resource_name: string): T;
/**
* Store a resource under a given name. The resource manager must guarantee
* that the stored data survives system reboots and that you can recreate a
* copy of `resource` by calling dee_resource_manager_load() using the
* same `resource_name`.
*
* Important note: This call may do blocking IO. The resource manager must
* guarantee that this call is reasonably fast, like writing the externalized
* resource to a file, but not blocking IO over a network socket.
* @param resource A #DeeSerializable to store under @resource_name
* @param resource_name The name to store the resource under. Will overwrite any existing resource with the same name
*/
vfunc_store(resource: Serializable, resource_name: string): boolean;
}
export const ResourceManager: ResourceManagerNamespace & {
new (): ResourceManager; // This allows `obj instanceof ResourceManager`
};
module ResultSet {
// Constructor properties interface
interface ConstructorProps extends GObject.Object.ConstructorProps {}
}
export interface ResultSetNamespace {
$gtype: GObject.GType;
prototype: ResultSet;
}
interface ResultSet extends GObject.Object {
// Methods
/**
* Get the model associated with a result set
* @returns The model that the rows point into
*/
get_model(): Model;
/**
* Get the number of #DeeModelIters held in a #DeeResultSet.
* @returns The number of rows held in the result set
*/
get_n_rows(): number;
/**
* Check if a call to dee_result_set_next() will succeed.
* @returns %TRUE if and only if more rows can be retrieved by calling dee_result_set_next()
*/
has_next(): boolean;
/**
* Get the current row from the result set and advance the cursor.
* To ensure that calls to this method will succeed you can call
* dee_result_set_has_next().
*
* To retrieve the current row without advancing the cursor call
* dee_result_set_peek() in stead of this method.
* @returns The #DeeModelIter at the current cursor position
*/
next(): ModelIter;
/**
* Get the row at the current cursor position.
*
* To retrieve the current row and advance the cursor position call
* dee_result_set_next() in stead of this method.
* @returns The #DeeModelIter at the current cursor position
*/
peek(): ModelIter;
/**
* Set the cursor position. Following calls to dee_result_set_peek()
* or dee_result_set_next() will read the row at position `pos`.
* @param pos The position to seek to
*/
seek(pos: number): void;
/**
* Get the current position of the cursor.
* @returns The current position of the cursor
*/
tell(): number;
// Virtual methods
/**
* Get the model associated with a result set
*/
vfunc_get_model(): Model;
/**
* Get the number of #DeeModelIters held in a #DeeResultSet.
*/
vfunc_get_n_rows(): number;
/**
* Check if a call to dee_result_set_next() will succeed.
*/
vfunc_has_next(): boolean;
/**
* Get the current row from the result set and advance the cursor.
* To ensure that calls to this method will succeed you can call
* dee_result_set_has_next().
*
* To retrieve the current row without advancing the cursor call
* dee_result_set_peek() in stead of this method.
*/
vfunc_next(): ModelIter;
/**
* Get the row at the current cursor position.
*
* To retrieve the current row and advance the cursor position call
* dee_result_set_next() in stead of this method.
*/
vfunc_peek(): ModelIter;
/**
* Set the cursor position. Following calls to dee_result_set_peek()
* or dee_result_set_next() will read the row at position `pos`.
* @param pos The position to seek to
*/
vfunc_seek(pos: number): void;
/**
* Get the current position of the cursor.
*/
vfunc_tell(): number;
}
export const ResultSet: ResultSetNamespace & {
new (): ResultSet; // This allows `obj instanceof ResultSet`
};
module Serializable {
// Constructor properties interface
interface ConstructorProps extends GObject.Object.ConstructorProps {}
}
export interface SerializableNamespace {
$gtype: GObject.GType;
prototype: Serializable;
/**
* Reconstruct a #DeeSerializable from #GVariant data. For this function
* to work you need to register a parser with
* dee_serializable_register_parser(). Any native Dee class will do so
* automatically.
*
* This method only works on data created with dee_serializable_serialize()
* and not with data from dee_serializable_externalize().
*
* Since a #DeeSerializableParseFunc is not allowed to fail - by contract -
* it can be guaranteed that this function only returns %NULL in case there
* is no known parser for `type` and #GVariant signature of `data`.
* @param data The #GVariant data to parse. If this is a floating reference it will be consumed
* @param type The #GType of the class to instantiate from @data
*/
parse(data: GLib.Variant, type: GObject.GType): T;
/**
* Reconstruct a #DeeSerializable from #GVariant data. For this function
* to work you need to register a parser with
* dee_serializable_register_parser(). Any native Dee class will do so
* automatically.
*
* This method only works on data created with dee_serializable_externalize()
* and not with data from dee_serializable_serialize().
*
* Since a #DeeSerializableParseFunc is not allowed to fail - by contract -
* it can be guaranteed that this function only returns %NULL in case there
* is no known parser for the #GType or #GVariant signature of `data`.
* @param data The #GVariant data to parse
*/
parse_external(data: GLib.Variant): T;
}
interface Serializable extends GObject.Object {
// Methods
/**
* Build an externalized form of `self` which can be used together with
* dee_serializable_parse_external() to rebuild a copy of `self`.
*
* It is important to note that the variant returned from this method does
* not have the same type signature as returned from a call to
* dee_serializable_serialize(). Externalization will wrap the serialized data
* in a container format with versioning information and headers with type
* information.
* @returns A floating reference to a #GVariant with the externalized data.
*/
externalize(): GLib.Variant;
/**
* Build a clean serialized representation of `self`. The signature of the
* returned variant is entirely determined by the underlying implementation.
* You can recreate a serialized instance by calling dee_serializable_parse()
* provided that you know the correct #GType for the serialized instance.
* @returns A reference to a #GVariant with the serialized data. The variants type signature is entirely dependent of the underlying implementation. Free using g_variant_unref().
*/
serialize(): GLib.Variant;
// Virtual methods
/**
* Build a clean serialized representation of `self`. The signature of the
* returned variant is entirely determined by the underlying implementation.
* You can recreate a serialized instance by calling dee_serializable_parse()
* provided that you know the correct #GType for the serialized instance.
*/
vfunc_serialize(): GLib.Variant;
}
export const Serializable: SerializableNamespace & {
new (): Serializable; // This allows `obj instanceof Serializable`
};
/**
* Name of the imported GIR library
* `see` https://gitlab.gnome.org/GNOME/gjs/-/blob/master/gi/ns.cpp#L188
*/
const __name__: string;
/**
* Version of the imported GIR library
* `see` https://gitlab.gnome.org/GNOME/gjs/-/blob/master/gi/ns.cpp#L189
*/
const __version__: string;
}
export default Dee;
}
declare module 'gi://Dee' {
import Dee10 from 'gi://Dee?version=1.0';
export default Dee10;
}
// END