// Package gio was automatically generated by github.com/bnema/puregotk DO NOT EDIT
package gio

import (
	"structs"
	"unsafe"

	"github.com/ebitengine/purego"

	"github.com/bnema/puregotk/pkg/core"
	"github.com/bnema/puregotk/v4/glib"
	"github.com/bnema/puregotk/v4/gobject"
	"github.com/bnema/puregotk/v4/gobject/types"
)

// Virtual function table for #GApplication.
type ApplicationClass struct {
	_ structs.HostLayout

	ParentClass gobject.ObjectClass

	xStartup uintptr

	xActivate uintptr

	xOpen uintptr

	xCommandLine uintptr

	xLocalCommandLine uintptr

	xBeforeEmit uintptr

	xAfterEmit uintptr

	xAddPlatformData uintptr

	xQuitMainloop uintptr

	xRunMainloop uintptr

	xShutdown uintptr

	xDbusRegister uintptr

	xDbusUnregister uintptr

	xHandleLocalOptions uintptr

	xNameLost uintptr

	Padding [7]uintptr
}

func (x *ApplicationClass) GoPointer() uintptr {
	return uintptr(unsafe.Pointer(x))
}

// OverrideStartup sets the "startup" callback function.
// invoked on the primary instance immediately after registration
func (x *ApplicationClass) OverrideStartup(cb func(*Application)) {
	if cb == nil {
		x.xStartup = 0
	} else {
		x.xStartup = purego.NewCallback(func(ApplicationVarp uintptr) {
			cb(ApplicationNewFromInternalPtr(ApplicationVarp))
		})
	}
}

// GetStartup gets the "startup" callback function.
// invoked on the primary instance immediately after registration
func (x *ApplicationClass) GetStartup() func(*Application) {
	if x.xStartup == 0 {
		return nil
	}
	var rawCallback func(ApplicationVarp uintptr)
	purego.RegisterFunc(&rawCallback, x.xStartup)
	return func(ApplicationVar *Application) {
		rawCallback(ApplicationVar.GoPointer())
	}
}

// OverrideActivate sets the "activate" callback function.
// invoked on the primary instance when an activation occurs
func (x *ApplicationClass) OverrideActivate(cb func(*Application)) {
	if cb == nil {
		x.xActivate = 0
	} else {
		x.xActivate = purego.NewCallback(func(ApplicationVarp uintptr) {
			cb(ApplicationNewFromInternalPtr(ApplicationVarp))
		})
	}
}

// GetActivate gets the "activate" callback function.
// invoked on the primary instance when an activation occurs
func (x *ApplicationClass) GetActivate() func(*Application) {
	if x.xActivate == 0 {
		return nil
	}
	var rawCallback func(ApplicationVarp uintptr)
	purego.RegisterFunc(&rawCallback, x.xActivate)
	return func(ApplicationVar *Application) {
		rawCallback(ApplicationVar.GoPointer())
	}
}

// OverrideOpen sets the "open" callback function.
// invoked on the primary instance when there are files to open
func (x *ApplicationClass) OverrideOpen(cb func(*Application, uintptr, int, string)) {
	if cb == nil {
		x.xOpen = 0
	} else {
		x.xOpen = purego.NewCallback(func(ApplicationVarp uintptr, FilesVarp uintptr, NFilesVarp int, HintVarp string) {
			cb(ApplicationNewFromInternalPtr(ApplicationVarp), FilesVarp, NFilesVarp, HintVarp)
		})
	}
}

// GetOpen gets the "open" callback function.
// invoked on the primary instance when there are files to open
func (x *ApplicationClass) GetOpen() func(*Application, uintptr, int, string) {
	if x.xOpen == 0 {
		return nil
	}
	var rawCallback func(ApplicationVarp uintptr, FilesVarp uintptr, NFilesVarp int, HintVarp string)
	purego.RegisterFunc(&rawCallback, x.xOpen)
	return func(ApplicationVar *Application, FilesVar uintptr, NFilesVar int, HintVar string) {
		rawCallback(ApplicationVar.GoPointer(), FilesVar, NFilesVar, HintVar)
	}
}

// OverrideCommandLine sets the "command_line" callback function.
// invoked on the primary instance when a command-line is
//
//	not handled locally
func (x *ApplicationClass) OverrideCommandLine(cb func(*Application, *ApplicationCommandLine) int) {
	if cb == nil {
		x.xCommandLine = 0
	} else {
		x.xCommandLine = purego.NewCallback(func(ApplicationVarp uintptr, CommandLineVarp uintptr) int {
			return cb(ApplicationNewFromInternalPtr(ApplicationVarp), ApplicationCommandLineNewFromInternalPtr(CommandLineVarp))
		})
	}
}

// GetCommandLine gets the "command_line" callback function.
// invoked on the primary instance when a command-line is
//
//	not handled locally
func (x *ApplicationClass) GetCommandLine() func(*Application, *ApplicationCommandLine) int {
	if x.xCommandLine == 0 {
		return nil
	}
	var rawCallback func(ApplicationVarp uintptr, CommandLineVarp uintptr) int
	purego.RegisterFunc(&rawCallback, x.xCommandLine)
	return func(ApplicationVar *Application, CommandLineVar *ApplicationCommandLine) int {
		return rawCallback(ApplicationVar.GoPointer(), CommandLineVar.GoPointer())
	}
}

// OverrideLocalCommandLine sets the "local_command_line" callback function.
// invoked (locally). The virtual function has the chance
//
//	to inspect (and possibly replace) command line arguments. See
//	g_application_run() for more information. Also see the
//	#GApplication::handle-local-options signal, which is a simpler
//	alternative to handling some commandline options locally
func (x *ApplicationClass) OverrideLocalCommandLine(cb func(*Application, *[]string, *int) bool) {
	if cb == nil {
		x.xLocalCommandLine = 0
	} else {
		x.xLocalCommandLine = purego.NewCallback(func(ApplicationVarp uintptr, ArgumentsVarp *[]string, ExitStatusVarp *int) bool {
			return cb(ApplicationNewFromInternalPtr(ApplicationVarp), ArgumentsVarp, ExitStatusVarp)
		})
	}
}

// GetLocalCommandLine gets the "local_command_line" callback function.
// invoked (locally). The virtual function has the chance
//
//	to inspect (and possibly replace) command line arguments. See
//	g_application_run() for more information. Also see the
//	#GApplication::handle-local-options signal, which is a simpler
//	alternative to handling some commandline options locally
func (x *ApplicationClass) GetLocalCommandLine() func(*Application, *[]string, *int) bool {
	if x.xLocalCommandLine == 0 {
		return nil
	}
	var rawCallback func(ApplicationVarp uintptr, ArgumentsVarp *[]string, ExitStatusVarp *int) bool
	purego.RegisterFunc(&rawCallback, x.xLocalCommandLine)
	return func(ApplicationVar *Application, ArgumentsVar *[]string, ExitStatusVar *int) bool {
		return rawCallback(ApplicationVar.GoPointer(), ArgumentsVar, ExitStatusVar)
	}
}

// OverrideBeforeEmit sets the "before_emit" callback function.
// invoked on the primary instance before 'activate', 'open',
//
//	'command-line' or any action invocation, gets the 'platform data' from
//	the calling instance. Must chain up
func (x *ApplicationClass) OverrideBeforeEmit(cb func(*Application, *glib.Variant)) {
	if cb == nil {
		x.xBeforeEmit = 0
	} else {
		x.xBeforeEmit = purego.NewCallback(func(ApplicationVarp uintptr, PlatformDataVarp *glib.Variant) {
			cb(ApplicationNewFromInternalPtr(ApplicationVarp), PlatformDataVarp)
		})
	}
}

// GetBeforeEmit gets the "before_emit" callback function.
// invoked on the primary instance before 'activate', 'open',
//
//	'command-line' or any action invocation, gets the 'platform data' from
//	the calling instance. Must chain up
func (x *ApplicationClass) GetBeforeEmit() func(*Application, *glib.Variant) {
	if x.xBeforeEmit == 0 {
		return nil
	}
	var rawCallback func(ApplicationVarp uintptr, PlatformDataVarp *glib.Variant)
	purego.RegisterFunc(&rawCallback, x.xBeforeEmit)
	return func(ApplicationVar *Application, PlatformDataVar *glib.Variant) {
		rawCallback(ApplicationVar.GoPointer(), PlatformDataVar)
	}
}

// OverrideAfterEmit sets the "after_emit" callback function.
// invoked on the primary instance after 'activate', 'open',
//
//	'command-line' or any action invocation, gets the 'platform data' from
//	the calling instance. Must chain up
func (x *ApplicationClass) OverrideAfterEmit(cb func(*Application, *glib.Variant)) {
	if cb == nil {
		x.xAfterEmit = 0
	} else {
		x.xAfterEmit = purego.NewCallback(func(ApplicationVarp uintptr, PlatformDataVarp *glib.Variant) {
			cb(ApplicationNewFromInternalPtr(ApplicationVarp), PlatformDataVarp)
		})
	}
}

// GetAfterEmit gets the "after_emit" callback function.
// invoked on the primary instance after 'activate', 'open',
//
//	'command-line' or any action invocation, gets the 'platform data' from
//	the calling instance. Must chain up
func (x *ApplicationClass) GetAfterEmit() func(*Application, *glib.Variant) {
	if x.xAfterEmit == 0 {
		return nil
	}
	var rawCallback func(ApplicationVarp uintptr, PlatformDataVarp *glib.Variant)
	purego.RegisterFunc(&rawCallback, x.xAfterEmit)
	return func(ApplicationVar *Application, PlatformDataVar *glib.Variant) {
		rawCallback(ApplicationVar.GoPointer(), PlatformDataVar)
	}
}

// OverrideAddPlatformData sets the "add_platform_data" callback function.
// invoked (locally) to add 'platform data' to be sent to
//
//	the primary instance when activating, opening or invoking actions. Must chain up
func (x *ApplicationClass) OverrideAddPlatformData(cb func(*Application, *glib.VariantBuilder)) {
	if cb == nil {
		x.xAddPlatformData = 0
	} else {
		x.xAddPlatformData = purego.NewCallback(func(ApplicationVarp uintptr, BuilderVarp *glib.VariantBuilder) {
			cb(ApplicationNewFromInternalPtr(ApplicationVarp), BuilderVarp)
		})
	}
}

// GetAddPlatformData gets the "add_platform_data" callback function.
// invoked (locally) to add 'platform data' to be sent to
//
//	the primary instance when activating, opening or invoking actions. Must chain up
func (x *ApplicationClass) GetAddPlatformData() func(*Application, *glib.VariantBuilder) {
	if x.xAddPlatformData == 0 {
		return nil
	}
	var rawCallback func(ApplicationVarp uintptr, BuilderVarp *glib.VariantBuilder)
	purego.RegisterFunc(&rawCallback, x.xAddPlatformData)
	return func(ApplicationVar *Application, BuilderVar *glib.VariantBuilder) {
		rawCallback(ApplicationVar.GoPointer(), BuilderVar)
	}
}

// OverrideQuitMainloop sets the "quit_mainloop" callback function.
// Used to be invoked on the primary instance when the use
//
//	count of the application drops to zero (and after any inactivity
//	timeout, if requested). Not used anymore since 2.32
func (x *ApplicationClass) OverrideQuitMainloop(cb func(*Application)) {
	if cb == nil {
		x.xQuitMainloop = 0
	} else {
		x.xQuitMainloop = purego.NewCallback(func(ApplicationVarp uintptr) {
			cb(ApplicationNewFromInternalPtr(ApplicationVarp))
		})
	}
}

// GetQuitMainloop gets the "quit_mainloop" callback function.
// Used to be invoked on the primary instance when the use
//
//	count of the application drops to zero (and after any inactivity
//	timeout, if requested). Not used anymore since 2.32
func (x *ApplicationClass) GetQuitMainloop() func(*Application) {
	if x.xQuitMainloop == 0 {
		return nil
	}
	var rawCallback func(ApplicationVarp uintptr)
	purego.RegisterFunc(&rawCallback, x.xQuitMainloop)
	return func(ApplicationVar *Application) {
		rawCallback(ApplicationVar.GoPointer())
	}
}

// OverrideRunMainloop sets the "run_mainloop" callback function.
// Used to be invoked on the primary instance from
//
//	g_application_run() if the use-count is non-zero. Since 2.32,
//	GApplication is iterating the main context directly and is not
//	using @run_mainloop anymore
func (x *ApplicationClass) OverrideRunMainloop(cb func(*Application)) {
	if cb == nil {
		x.xRunMainloop = 0
	} else {
		x.xRunMainloop = purego.NewCallback(func(ApplicationVarp uintptr) {
			cb(ApplicationNewFromInternalPtr(ApplicationVarp))
		})
	}
}

// GetRunMainloop gets the "run_mainloop" callback function.
// Used to be invoked on the primary instance from
//
//	g_application_run() if the use-count is non-zero. Since 2.32,
//	GApplication is iterating the main context directly and is not
//	using @run_mainloop anymore
func (x *ApplicationClass) GetRunMainloop() func(*Application) {
	if x.xRunMainloop == 0 {
		return nil
	}
	var rawCallback func(ApplicationVarp uintptr)
	purego.RegisterFunc(&rawCallback, x.xRunMainloop)
	return func(ApplicationVar *Application) {
		rawCallback(ApplicationVar.GoPointer())
	}
}

// OverrideShutdown sets the "shutdown" callback function.
// invoked only on the registered primary instance immediately
//
//	after the main loop terminates
func (x *ApplicationClass) OverrideShutdown(cb func(*Application)) {
	if cb == nil {
		x.xShutdown = 0
	} else {
		x.xShutdown = purego.NewCallback(func(ApplicationVarp uintptr) {
			cb(ApplicationNewFromInternalPtr(ApplicationVarp))
		})
	}
}

// GetShutdown gets the "shutdown" callback function.
// invoked only on the registered primary instance immediately
//
//	after the main loop terminates
func (x *ApplicationClass) GetShutdown() func(*Application) {
	if x.xShutdown == 0 {
		return nil
	}
	var rawCallback func(ApplicationVarp uintptr)
	purego.RegisterFunc(&rawCallback, x.xShutdown)
	return func(ApplicationVar *Application) {
		rawCallback(ApplicationVar.GoPointer())
	}
}

// OverrideDbusRegister sets the "dbus_register" callback function.
// invoked locally during registration, if the application is
//
//	using its D-Bus backend. You can use this to export extra objects on the
//	bus, that need to exist before the application tries to own the bus name.
//	The function is passed the #GDBusConnection to to session bus, and the
//	object path that #GApplication will use to export its D-Bus API.
//	If this function returns %TRUE, registration will proceed; otherwise
//	registration will abort. Since: 2.34
func (x *ApplicationClass) OverrideDbusRegister(cb func(*Application, *DBusConnection, string) bool) {
	if cb == nil {
		x.xDbusRegister = 0
	} else {
		x.xDbusRegister = purego.NewCallback(func(ApplicationVarp uintptr, ConnectionVarp uintptr, ObjectPathVarp string) bool {
			return cb(ApplicationNewFromInternalPtr(ApplicationVarp), DBusConnectionNewFromInternalPtr(ConnectionVarp), ObjectPathVarp)
		})
	}
}

// GetDbusRegister gets the "dbus_register" callback function.
// invoked locally during registration, if the application is
//
//	using its D-Bus backend. You can use this to export extra objects on the
//	bus, that need to exist before the application tries to own the bus name.
//	The function is passed the #GDBusConnection to to session bus, and the
//	object path that #GApplication will use to export its D-Bus API.
//	If this function returns %TRUE, registration will proceed; otherwise
//	registration will abort. Since: 2.34
func (x *ApplicationClass) GetDbusRegister() func(*Application, *DBusConnection, string) bool {
	if x.xDbusRegister == 0 {
		return nil
	}
	var rawCallback func(ApplicationVarp uintptr, ConnectionVarp uintptr, ObjectPathVarp string) bool
	purego.RegisterFunc(&rawCallback, x.xDbusRegister)
	return func(ApplicationVar *Application, ConnectionVar *DBusConnection, ObjectPathVar string) bool {
		return rawCallback(ApplicationVar.GoPointer(), ConnectionVar.GoPointer(), ObjectPathVar)
	}
}

// OverrideDbusUnregister sets the "dbus_unregister" callback function.
// invoked locally during unregistration, if the application
//
//	is using its D-Bus backend. Use this to undo anything done by
//	the @dbus_register vfunc. Since: 2.34
func (x *ApplicationClass) OverrideDbusUnregister(cb func(*Application, *DBusConnection, string)) {
	if cb == nil {
		x.xDbusUnregister = 0
	} else {
		x.xDbusUnregister = purego.NewCallback(func(ApplicationVarp uintptr, ConnectionVarp uintptr, ObjectPathVarp string) {
			cb(ApplicationNewFromInternalPtr(ApplicationVarp), DBusConnectionNewFromInternalPtr(ConnectionVarp), ObjectPathVarp)
		})
	}
}

// GetDbusUnregister gets the "dbus_unregister" callback function.
// invoked locally during unregistration, if the application
//
//	is using its D-Bus backend. Use this to undo anything done by
//	the @dbus_register vfunc. Since: 2.34
func (x *ApplicationClass) GetDbusUnregister() func(*Application, *DBusConnection, string) {
	if x.xDbusUnregister == 0 {
		return nil
	}
	var rawCallback func(ApplicationVarp uintptr, ConnectionVarp uintptr, ObjectPathVarp string)
	purego.RegisterFunc(&rawCallback, x.xDbusUnregister)
	return func(ApplicationVar *Application, ConnectionVar *DBusConnection, ObjectPathVar string) {
		rawCallback(ApplicationVar.GoPointer(), ConnectionVar.GoPointer(), ObjectPathVar)
	}
}

// OverrideHandleLocalOptions sets the "handle_local_options" callback function.
// invoked locally after the parsing of the commandline
//
//	options has occurred. Since: 2.40
func (x *ApplicationClass) OverrideHandleLocalOptions(cb func(*Application, *glib.VariantDict) int) {
	if cb == nil {
		x.xHandleLocalOptions = 0
	} else {
		x.xHandleLocalOptions = purego.NewCallback(func(ApplicationVarp uintptr, OptionsVarp *glib.VariantDict) int {
			return cb(ApplicationNewFromInternalPtr(ApplicationVarp), OptionsVarp)
		})
	}
}

// GetHandleLocalOptions gets the "handle_local_options" callback function.
// invoked locally after the parsing of the commandline
//
//	options has occurred. Since: 2.40
func (x *ApplicationClass) GetHandleLocalOptions() func(*Application, *glib.VariantDict) int {
	if x.xHandleLocalOptions == 0 {
		return nil
	}
	var rawCallback func(ApplicationVarp uintptr, OptionsVarp *glib.VariantDict) int
	purego.RegisterFunc(&rawCallback, x.xHandleLocalOptions)
	return func(ApplicationVar *Application, OptionsVar *glib.VariantDict) int {
		return rawCallback(ApplicationVar.GoPointer(), OptionsVar)
	}
}

// OverrideNameLost sets the "name_lost" callback function.
// invoked when another instance is taking over the name. Since: 2.60
func (x *ApplicationClass) OverrideNameLost(cb func(*Application) bool) {
	if cb == nil {
		x.xNameLost = 0
	} else {
		x.xNameLost = purego.NewCallback(func(ApplicationVarp uintptr) bool {
			return cb(ApplicationNewFromInternalPtr(ApplicationVarp))
		})
	}
}

// GetNameLost gets the "name_lost" callback function.
// invoked when another instance is taking over the name. Since: 2.60
func (x *ApplicationClass) GetNameLost() func(*Application) bool {
	if x.xNameLost == 0 {
		return nil
	}
	var rawCallback func(ApplicationVarp uintptr) bool
	purego.RegisterFunc(&rawCallback, x.xNameLost)
	return func(ApplicationVar *Application) bool {
		return rawCallback(ApplicationVar.GoPointer())
	}
}

type ApplicationPrivate struct {
	_ structs.HostLayout
}

func (x *ApplicationPrivate) GoPointer() uintptr {
	return uintptr(unsafe.Pointer(x))
}

// `GApplication` is the core class for application support.
//
// A `GApplication` is the foundation of an application. It wraps some
// low-level platform-specific services and is intended to act as the
// foundation for higher-level application classes such as
// `GtkApplication` or `MxApplication`. In general, you should not use
// this class outside of a higher level framework.
//
// `GApplication` provides convenient life-cycle management by maintaining
// a "use count" for the primary application instance. The use count can
// be changed using [method@Gio.Application.hold] and
// [method@Gio.Application.release]. If it drops to zero, the application
// exits. Higher-level classes such as `GtkApplication` employ the use count
// to ensure that the application stays alive as long as it has any opened
// windows.
//
// Another feature that `GApplication` (optionally) provides is process
// uniqueness. Applications can make use of this functionality by
// providing a unique application ID. If given, only one application
// with this ID can be running at a time per session. The session
// concept is platform-dependent, but corresponds roughly to a graphical
// desktop login. When your application is launched again, its
// arguments are passed through platform communication to the already
// running program. The already running instance of the program is
// called the "primary instance"; for non-unique applications this is
// always the current instance. On Linux, the D-Bus session bus
// is used for communication.
//
// The use of `GApplication` differs from some other commonly-used
// uniqueness libraries (such as libunique) in important ways. The
// application is not expected to manually register itself and check
// if it is the primary instance. Instead, the main() function of a
// `GApplication` should do very little more than instantiating the
// application instance, possibly connecting signal handlers, then
// calling [method@Gio.Application.run]. All checks for uniqueness are done
// internally. If the application is the primary instance then the
// startup signal is emitted and the mainloop runs. If the application
// is not the primary instance then a signal is sent to the primary
// instance and [method@Gio.Application.run] promptly returns. See the code
// examples below.
//
// If used, the expected form of an application identifier is the
// same as that of a
// [D-Bus well-known bus name](https://dbus.freedesktop.org/doc/dbus-specification.html#message-protocol-names-bus).
// Examples include: `com.example.MyApp`, `org.example.internal_apps.Calculator`,
// `org._7_zip.Archiver`.
// For details on valid application identifiers, see [func@Gio.Application.id_is_valid].
//
// On Linux, the application identifier is claimed as a well-known bus name
// on the user's session bus. This means that the uniqueness of your
// application is scoped to the current session. It also means that your
// application may provide additional services (through registration of other
// object paths) at that bus name. The registration of these object paths
// should be done with the shared GDBus session bus. Note that due to the
// internal architecture of GDBus, method calls can be dispatched at any time
// (even if a main loop is not running). For this reason, you must ensure that
// any object paths that you wish to register are registered before #GApplication
// attempts to acquire the bus name of your application (which happens in
// [method@Gio.Application.register]). Unfortunately, this means that you cannot
// use [property@Gio.Application:is-remote] to decide if you want to register
// object paths.
//
// `GApplication` also implements the [iface@Gio.ActionGroup] and [iface@Gio.ActionMap]
// interfaces and lets you easily export actions by adding them with
// [method@Gio.ActionMap.add_action]. When invoking an action by calling
// [method@Gio.ActionGroup.activate_action] on the application, it is always
// invoked in the primary instance. The actions are also exported on
// the session bus, and GIO provides the [class@Gio.DBusActionGroup] wrapper to
// conveniently access them remotely. GIO provides a [class@Gio.DBusMenuModel] wrapper
// for remote access to exported [class@Gio.MenuModel]s.
//
// Note: Due to the fact that actions are exported on the session bus,
// using `maybe` parameters is not supported, since D-Bus does not support
// `maybe` types.
//
// There is a number of different entry points into a `GApplication`:
//
// - via 'Activate' (i.e. just starting the application)
//
// - via 'Open' (i.e. opening some files)
//
// - by handling a command-line
//
// - via activating an action
//
// The [signal@Gio.Application::startup] signal lets you handle the application
// initialization for all of these in a single place.
//
// Regardless of which of these entry points is used to start the
// application, `GApplication` passes some ‘platform data’ from the
// launching instance to the primary instance, in the form of a
// [struct@GLib.Variant] dictionary mapping strings to variants. To use platform
// data, override the [vfunc@Gio.Application.before_emit] or
// [vfunc@Gio.Application.after_emit] virtual functions
// in your `GApplication` subclass. When dealing with
// [class@Gio.ApplicationCommandLine] objects, the platform data is
// directly available via [method@Gio.ApplicationCommandLine.get_cwd],
// [method@Gio.ApplicationCommandLine.get_environ] and
// [method@Gio.ApplicationCommandLine.get_platform_data].
//
// As the name indicates, the platform data may vary depending on the
// operating system, but it always includes the current directory (key
// `cwd`), and optionally the environment (ie the set of environment
// variables and their values) of the calling process (key `environ`).
// The environment is only added to the platform data if the
// `G_APPLICATION_SEND_ENVIRONMENT` flag is set. `GApplication` subclasses
// can add their own platform data by overriding the
// [vfunc@Gio.Application.add_platform_data] virtual function. For instance,
// `GtkApplication` adds startup notification data in this way.
//
// To parse commandline arguments you may handle the
// [signal@Gio.Application::command-line] signal or override the
// [vfunc@Gio.Application.local_command_line] virtual function, to parse them in
// either the primary instance or the local instance, respectively.
//
// For an example of opening files with a `GApplication`, see
// [gapplication-example-open.c](https://gitlab.gnome.org/GNOME/glib/-/blob/HEAD/gio/tests/gapplication-example-open.c).
//
// For an example of using actions with `GApplication`, see
// [gapplication-example-actions.c](https://gitlab.gnome.org/GNOME/glib/-/blob/HEAD/gio/tests/gapplication-example-actions.c).
//
// For an example of using extra D-Bus hooks with `GApplication`, see
// [gapplication-example-dbushooks.c](https://gitlab.gnome.org/GNOME/glib/-/blob/HEAD/gio/tests/gapplication-example-dbushooks.c).
type Application struct {
	gobject.Object
}

var xApplicationGLibType func() types.GType

func ApplicationGLibType() types.GType {
	return xApplicationGLibType()
}

func ApplicationNewFromInternalPtr(ptr uintptr) *Application {
	cls := &Application{}
	cls.Ptr = ptr
	return cls
}

var xNewApplication func(uintptr, ApplicationFlags) uintptr

// Creates a new #GApplication instance.
//
// If non-%NULL, the application id must be valid.  See
// g_application_id_is_valid().
//
// If no application ID is given then some features of #GApplication
// (most notably application uniqueness) will be disabled.
func NewApplication(ApplicationIdVar *string, FlagsVar ApplicationFlags) *Application {
	var cls *Application

	ApplicationIdVarPtr := core.GStrdupNullable(ApplicationIdVar)
	defer core.GFreeNullable(ApplicationIdVarPtr)

	cret := xNewApplication(ApplicationIdVarPtr, FlagsVar)

	if cret == 0 {
		return nil
	}
	cls = &Application{}
	cls.Ptr = cret
	return cls
}

var xApplicationActivate func(uintptr)

// Activates the application.
//
// In essence, this results in the #GApplication::activate signal being
// emitted in the primary instance.
//
// The application must be registered before calling this function.
func (x *Application) Activate() {

	xApplicationActivate(x.GoPointer())

}

var xApplicationAddMainOption func(uintptr, string, byte, glib.OptionFlags, glib.OptionArg, string, uintptr)

// Add an option to be handled by @application.
//
// Calling this function is the equivalent of calling
// g_application_add_main_option_entries() with a single #GOptionEntry
// that has its arg_data member set to %NULL.
//
// The parsed arguments will be packed into a #GVariantDict which
// is passed to #GApplication::handle-local-options. If
// %G_APPLICATION_HANDLES_COMMAND_LINE is set, then it will also
// be sent to the primary instance. See
// g_application_add_main_option_entries() for more details.
//
// See #GOptionEntry for more documentation of the arguments.
func (x *Application) AddMainOption(LongNameVar string, ShortNameVar byte, FlagsVar glib.OptionFlags, ArgVar glib.OptionArg, DescriptionVar string, ArgDescriptionVar *string) {

	ArgDescriptionVarPtr := core.GStrdupNullable(ArgDescriptionVar)
	defer core.GFreeNullable(ArgDescriptionVarPtr)

	xApplicationAddMainOption(x.GoPointer(), LongNameVar, ShortNameVar, FlagsVar, ArgVar, DescriptionVar, ArgDescriptionVarPtr)

}

var xApplicationAddMainOptionEntries func(uintptr, []glib.OptionEntry)

// Adds main option entries to be handled by @application.
//
// This function is comparable to g_option_context_add_main_entries().
//
// After the commandline arguments are parsed, the
// #GApplication::handle-local-options signal will be emitted.  At this
// point, the application can inspect the values pointed to by @arg_data
// in the given #GOptionEntrys.
//
// Unlike #GOptionContext, #GApplication supports giving a %NULL
// @arg_data for a non-callback #GOptionEntry.  This results in the
// argument in question being packed into a #GVariantDict which is also
// passed to #GApplication::handle-local-options, where it can be
// inspected and modified.  If %G_APPLICATION_HANDLES_COMMAND_LINE is
// set, then the resulting dictionary is sent to the primary instance,
// where g_application_command_line_get_options_dict() will return it.
// As it has been passed outside the process at this point, the types of all
// values in the options dict must be checked before being used.
// This "packing" is done according to the type of the argument --
// booleans for normal flags, strings for strings, bytestrings for
// filenames, etc.  The packing only occurs if the flag is given (ie: we
// do not pack a "false" #GVariant in the case that a flag is missing).
//
// In general, it is recommended that all commandline arguments are
// parsed locally.  The options dictionary should then be used to
// transmit the result of the parsing to the primary instance, where
// g_variant_dict_lookup() can be used.  For local options, it is
// possible to either use @arg_data in the usual way, or to consult (and
// potentially remove) the option from the options dictionary.
//
// This function is new in GLib 2.40.  Before then, the only real choice
// was to send all of the commandline arguments (options and all) to the
// primary instance for handling.  #GApplication ignored them completely
// on the local side.  Calling this function "opts in" to the new
// behaviour, and in particular, means that unrecognized options will be
// treated as errors.  Unrecognized options have never been ignored when
// %G_APPLICATION_HANDLES_COMMAND_LINE is unset.
//
// If #GApplication::handle-local-options needs to see the list of
// filenames, then the use of %G_OPTION_REMAINING is recommended.  If
// @arg_data is %NULL then %G_OPTION_REMAINING can be used as a key into
// the options dictionary.  If you do use %G_OPTION_REMAINING then you
// need to handle these arguments for yourself because once they are
// consumed, they will no longer be visible to the default handling
// (which treats them as filenames to be opened).
//
// It is important to use the proper GVariant format when retrieving
// the options with g_variant_dict_lookup():
// - for %G_OPTION_ARG_NONE, use `b`
// - for %G_OPTION_ARG_STRING, use `&s`
// - for %G_OPTION_ARG_INT, use `i`
// - for %G_OPTION_ARG_INT64, use `x`
// - for %G_OPTION_ARG_DOUBLE, use `d`
// - for %G_OPTION_ARG_FILENAME, use `^&ay`
// - for %G_OPTION_ARG_STRING_ARRAY, use `^a&s`
// - for %G_OPTION_ARG_FILENAME_ARRAY, use `^a&ay`
func (x *Application) AddMainOptionEntries(EntriesVar []glib.OptionEntry) {

	xApplicationAddMainOptionEntries(x.GoPointer(), EntriesVar)

}

var xApplicationAddOptionGroup func(uintptr, *glib.OptionGroup)

// Adds a #GOptionGroup to the commandline handling of @application.
//
// This function is comparable to g_option_context_add_group().
//
// Unlike g_application_add_main_option_entries(), this function does
// not deal with %NULL @arg_data and never transmits options to the
// primary instance.
//
// The reason for that is because, by the time the options arrive at the
// primary instance, it is typically too late to do anything with them.
// Taking the GTK option group as an example: GTK will already have been
// initialised by the time the #GApplication::command-line handler runs.
// In the case that this is not the first-running instance of the
// application, the existing instance may already have been running for
// a very long time.
//
// This means that the options from #GOptionGroup are only really usable
// in the case that the instance of the application being run is the
// first instance.  Passing options like `--display=` or `--gdk-debug=`
// on future runs will have no effect on the existing primary instance.
//
// Calling this function will cause the options in the supplied option
// group to be parsed, but it does not cause you to be "opted in" to the
// new functionality whereby unrecognized options are rejected even if
// %G_APPLICATION_HANDLES_COMMAND_LINE was given.
func (x *Application) AddOptionGroup(GroupVar *glib.OptionGroup) {

	xApplicationAddOptionGroup(x.GoPointer(), GroupVar)

}

var xApplicationBindBusyProperty func(uintptr, uintptr, string)

// Marks @application as busy (see g_application_mark_busy()) while
// @property on @object is %TRUE.
//
// The binding holds a reference to @application while it is active, but
// not to @object. Instead, the binding is destroyed when @object is
// finalized.
func (x *Application) BindBusyProperty(ObjectVar *gobject.Object, PropertyVar string) {

	xApplicationBindBusyProperty(x.GoPointer(), ObjectVar.GoPointer(), PropertyVar)

}

var xApplicationGetApplicationId func(uintptr) string

// Gets the unique identifier for @application.
func (x *Application) GetApplicationId() string {

	cret := xApplicationGetApplicationId(x.GoPointer())
	return cret
}

var xApplicationGetDbusConnection func(uintptr) uintptr

// Gets the #GDBusConnection being used by the application, or %NULL.
//
// If #GApplication is using its D-Bus backend then this function will
// return the #GDBusConnection being used for uniqueness and
// communication with the desktop environment and other instances of the
// application.
//
// If #GApplication is not using D-Bus then this function will return
// %NULL.  This includes the situation where the D-Bus backend would
// normally be in use but we were unable to connect to the bus.
//
// This function must not be called before the application has been
// registered.  See g_application_get_is_registered().
func (x *Application) GetDbusConnection() *DBusConnection {
	var cls *DBusConnection

	cret := xApplicationGetDbusConnection(x.GoPointer())

	if cret == 0 {
		return nil
	}
	gobject.IncreaseRef(cret)
	cls = &DBusConnection{}
	cls.Ptr = cret
	return cls
}

var xApplicationGetDbusObjectPath func(uintptr) string

// Gets the D-Bus object path being used by the application, or %NULL.
//
// If #GApplication is using its D-Bus backend then this function will
// return the D-Bus object path that #GApplication is using.  If the
// application is the primary instance then there is an object published
// at this path.  If the application is not the primary instance then
// the result of this function is undefined.
//
// If #GApplication is not using D-Bus then this function will return
// %NULL.  This includes the situation where the D-Bus backend would
// normally be in use but we were unable to connect to the bus.
//
// This function must not be called before the application has been
// registered.  See g_application_get_is_registered().
func (x *Application) GetDbusObjectPath() string {

	cret := xApplicationGetDbusObjectPath(x.GoPointer())
	return cret
}

var xApplicationGetFlags func(uintptr) ApplicationFlags

// Gets the flags for @application.
//
// See #GApplicationFlags.
func (x *Application) GetFlags() ApplicationFlags {

	cret := xApplicationGetFlags(x.GoPointer())
	return cret
}

var xApplicationGetInactivityTimeout func(uintptr) uint

// Gets the current inactivity timeout for the application.
//
// This is the amount of time (in milliseconds) after the last call to
// g_application_release() before the application stops running.
func (x *Application) GetInactivityTimeout() uint {

	cret := xApplicationGetInactivityTimeout(x.GoPointer())
	return cret
}

var xApplicationGetIsBusy func(uintptr) bool

// Gets the application's current busy state, as set through
// g_application_mark_busy() or g_application_bind_busy_property().
func (x *Application) GetIsBusy() bool {

	cret := xApplicationGetIsBusy(x.GoPointer())
	return cret
}

var xApplicationGetIsRegistered func(uintptr) bool

// Checks if @application is registered.
//
// An application is registered if g_application_register() has been
// successfully called.
func (x *Application) GetIsRegistered() bool {

	cret := xApplicationGetIsRegistered(x.GoPointer())
	return cret
}

var xApplicationGetIsRemote func(uintptr) bool

// Checks if @application is remote.
//
// If @application is remote then it means that another instance of
// application already exists (the 'primary' instance).  Calls to
// perform actions on @application will result in the actions being
// performed by the primary instance.
//
// The value of this property cannot be accessed before
// g_application_register() has been called.  See
// g_application_get_is_registered().
func (x *Application) GetIsRemote() bool {

	cret := xApplicationGetIsRemote(x.GoPointer())
	return cret
}

var xApplicationGetResourceBasePath func(uintptr) string

// Gets the resource base path of @application.
//
// See g_application_set_resource_base_path() for more information.
func (x *Application) GetResourceBasePath() string {

	cret := xApplicationGetResourceBasePath(x.GoPointer())
	return cret
}

var xApplicationGetVersion func(uintptr) string

// Gets the version of @application.
func (x *Application) GetVersion() string {

	cret := xApplicationGetVersion(x.GoPointer())
	return cret
}

var xApplicationHold func(uintptr)

// Increases the use count of @application.
//
// Use this function to indicate that the application has a reason to
// continue to run.  For example, g_application_hold() is called by GTK
// when a toplevel window is on the screen.
//
// To cancel the hold, call g_application_release().
func (x *Application) Hold() {

	xApplicationHold(x.GoPointer())

}

var xApplicationMarkBusy func(uintptr)

// Increases the busy count of @application.
//
// Use this function to indicate that the application is busy, for instance
// while a long running operation is pending.
//
// The busy state will be exposed to other processes, so a session shell will
// use that information to indicate the state to the user (e.g. with a
// spinner).
//
// To cancel the busy indication, use g_application_unmark_busy().
//
// The application must be registered before calling this function.
func (x *Application) MarkBusy() {

	xApplicationMarkBusy(x.GoPointer())

}

var xApplicationOpen func(uintptr, uintptr, int, string)

// Opens the given files.
//
// In essence, this results in the #GApplication::open signal being emitted
// in the primary instance.
//
// @n_files must be greater than zero.
//
// @hint is simply passed through to the ::open signal.  It is
// intended to be used by applications that have multiple modes for
// opening files (eg: "view" vs "edit", etc).  Unless you have a need
// for this functionality, you should use "".
//
// The application must be registered before calling this function
// and it must have the %G_APPLICATION_HANDLES_OPEN flag set.
func (x *Application) Open(FilesVar uintptr, NFilesVar int, HintVar string) {

	xApplicationOpen(x.GoPointer(), FilesVar, NFilesVar, HintVar)

}

var xApplicationQuit func(uintptr)

// Immediately quits the application.
//
// Upon return to the mainloop, g_application_run() will return,
// calling only the 'shutdown' function before doing so.
//
// The hold count is ignored.
// Take care if your code has called g_application_hold() on the application and
// is therefore still expecting it to exist.
// (Note that you may have called g_application_hold() indirectly, for example
// through gtk_application_add_window().)
//
// The result of calling g_application_run() again after it returns is
// unspecified.
func (x *Application) Quit() {

	xApplicationQuit(x.GoPointer())

}

var xApplicationRegister func(uintptr, uintptr, **glib.Error) bool

// Attempts registration of the application.
//
// This is the point at which the application discovers if it is the
// primary instance or merely acting as a remote for an already-existing
// primary instance.  This is implemented by attempting to acquire the
// application identifier as a unique bus name on the session bus using
// GDBus.
//
// If there is no application ID or if %G_APPLICATION_NON_UNIQUE was
// given, then this process will always become the primary instance.
//
// Due to the internal architecture of GDBus, method calls can be
// dispatched at any time (even if a main loop is not running).  For
// this reason, you must ensure that any object paths that you wish to
// register are registered before calling this function.
//
// If the application has already been registered then %TRUE is
// returned with no work performed.
//
// The #GApplication::startup signal is emitted if registration succeeds
// and @application is the primary instance (including the non-unique
// case).
//
// In the event of an error (such as @cancellable being cancelled, or a
// failure to connect to the session bus), %FALSE is returned and @error
// is set appropriately.
//
// Note: the return value of this function is not an indicator that this
// instance is or is not the primary instance of the application.  See
// g_application_get_is_remote() for that.
func (x *Application) Register(CancellableVar *Cancellable) (bool, error) {
	var cerr *glib.Error

	cret := xApplicationRegister(x.GoPointer(), CancellableVar.GoPointer(), &cerr)
	if cerr == nil {
		return cret, nil
	}
	return cret, cerr

}

var xApplicationRelease func(uintptr)

// Decrease the use count of @application.
//
// When the use count reaches zero, the application will stop running.
//
// Never call this function except to cancel the effect of a previous
// call to g_application_hold().
func (x *Application) Release() {

	xApplicationRelease(x.GoPointer())

}

var xApplicationRun func(uintptr, int, []string) int

// Runs the application.
//
// This function is intended to be run from main() and its return value
// is intended to be returned by main(). Although you are expected to pass
// the @argc, @argv parameters from main() to this function, it is possible
// to pass %NULL if @argv is not available or commandline handling is not
// required.  Note that on Windows, @argc and @argv are ignored, and
// g_win32_get_command_line() is called internally (for proper support
// of Unicode commandline arguments).
//
// #GApplication will attempt to parse the commandline arguments.  You
// can add commandline flags to the list of recognised options by way of
// g_application_add_main_option_entries().  After this, the
// #GApplication::handle-local-options signal is emitted, from which the
// application can inspect the values of its #GOptionEntrys.
//
// #GApplication::handle-local-options is a good place to handle options
// such as `--version`, where an immediate reply from the local process is
// desired (instead of communicating with an already-running instance).
// A #GApplication::handle-local-options handler can stop further processing
// by returning a non-negative value, which then becomes the exit status of
// the process.
//
// What happens next depends on the flags: if
// %G_APPLICATION_HANDLES_COMMAND_LINE was specified then the remaining
// commandline arguments are sent to the primary instance, where a
// #GApplication::command-line signal is emitted.  Otherwise, the
// remaining commandline arguments are assumed to be a list of files.
// If there are no files listed, the application is activated via the
// #GApplication::activate signal.  If there are one or more files, and
// %G_APPLICATION_HANDLES_OPEN was specified then the files are opened
// via the #GApplication::open signal.
//
// If you are interested in doing more complicated local handling of the
// commandline then you should implement your own #GApplication subclass
// and override local_command_line(). In this case, you most likely want
// to return %TRUE from your local_command_line() implementation to
// suppress the default handling. See
// [gapplication-example-cmdline2.c][https://gitlab.gnome.org/GNOME/glib/-/blob/HEAD/gio/tests/gapplication-example-cmdline2.c]
// for an example.
//
// If, after the above is done, the use count of the application is zero
// then the exit status is returned immediately.  If the use count is
// non-zero then the default main context is iterated until the use count
// falls to zero, at which point 0 is returned.
//
// If the %G_APPLICATION_IS_SERVICE flag is set, then the service will
// run for as much as 10 seconds with a use count of zero while waiting
// for the message that caused the activation to arrive.  After that,
// if the use count falls to zero the application will exit immediately,
// except in the case that g_application_set_inactivity_timeout() is in
// use.
//
// This function sets the prgname (g_set_prgname()), if not already set,
// to the basename of argv[0].
//
// Much like g_main_loop_run(), this function will acquire the main context
// for the duration that the application is running.
//
// Since 2.40, applications that are not explicitly flagged as services
// or launchers (ie: neither %G_APPLICATION_IS_SERVICE or
// %G_APPLICATION_IS_LAUNCHER are given as flags) will check (from the
// default handler for local_command_line) if "--gapplication-service"
// was given in the command line.  If this flag is present then normal
// commandline processing is interrupted and the
// %G_APPLICATION_IS_SERVICE flag is set.  This provides a "compromise"
// solution whereby running an application directly from the commandline
// will invoke it in the normal way (which can be useful for debugging)
// while still allowing applications to be D-Bus activated in service
// mode.  The D-Bus service file should invoke the executable with
// "--gapplication-service" as the sole commandline argument.  This
// approach is suitable for use by most graphical applications but
// should not be used from applications like editors that need precise
// control over when processes invoked via the commandline will exit and
// what their exit status will be.
func (x *Application) Run(ArgcVar int, ArgvVar []string) int {

	cret := xApplicationRun(x.GoPointer(), ArgcVar, ArgvVar)
	return cret
}

var xApplicationSendNotification func(uintptr, uintptr, uintptr)

// Sends a notification on behalf of @application to the desktop shell.
// There is no guarantee that the notification is displayed immediately,
// or even at all.
//
// Notifications may persist after the application exits. It will be
// D-Bus-activated when the notification or one of its actions is
// activated.
//
// Modifying @notification after this call has no effect. However, the
// object can be reused for a later call to this function.
//
// @id may be any string that uniquely identifies the event for the
// application. It does not need to be in any special format. For
// example, "new-message" might be appropriate for a notification about
// new messages.
//
// If a previous notification was sent with the same @id, it will be
// replaced with @notification and shown again as if it was a new
// notification. This works even for notifications sent from a previous
// execution of the application, as long as @id is the same string.
//
// @id may be `NULL`, but it is impossible to replace or withdraw
// notifications without an id.
//
// If @notification is no longer relevant, it can be withdrawn with
// [method@Gio.Application.withdraw_notification].
//
// It is an error to call this function if @application has no
// application ID.
func (x *Application) SendNotification(IdVar *string, NotificationVar *Notification) {

	IdVarPtr := core.GStrdupNullable(IdVar)
	defer core.GFreeNullable(IdVarPtr)

	xApplicationSendNotification(x.GoPointer(), IdVarPtr, NotificationVar.GoPointer())

}

var xApplicationSetActionGroup func(uintptr, uintptr)

// This used to be how actions were associated with a #GApplication.
// Now there is #GActionMap for that.
func (x *Application) SetActionGroup(ActionGroupVar ActionGroup) {

	xApplicationSetActionGroup(x.GoPointer(), ActionGroupVar.GoPointer())

}

var xApplicationSetApplicationId func(uintptr, uintptr)

// Sets the unique identifier for @application.
//
// The application id can only be modified if @application has not yet
// been registered.
//
// If non-%NULL, the application id must be valid.  See
// g_application_id_is_valid().
func (x *Application) SetApplicationId(ApplicationIdVar *string) {

	ApplicationIdVarPtr := core.GStrdupNullable(ApplicationIdVar)
	defer core.GFreeNullable(ApplicationIdVarPtr)

	xApplicationSetApplicationId(x.GoPointer(), ApplicationIdVarPtr)

}

var xApplicationSetDefault func(uintptr)

// Sets or unsets the default application for the process, as returned
// by g_application_get_default().
//
// This function does not take its own reference on @application.  If
// @application is destroyed then the default application will revert
// back to %NULL.
func (x *Application) SetDefault() {

	xApplicationSetDefault(x.GoPointer())

}

var xApplicationSetFlags func(uintptr, ApplicationFlags)

// Sets the flags for @application.
//
// The flags can only be modified if @application has not yet been
// registered.
//
// See #GApplicationFlags.
func (x *Application) SetFlags(FlagsVar ApplicationFlags) {

	xApplicationSetFlags(x.GoPointer(), FlagsVar)

}

var xApplicationSetInactivityTimeout func(uintptr, uint)

// Sets the current inactivity timeout for the application.
//
// This is the amount of time (in milliseconds) after the last call to
// g_application_release() before the application stops running.
//
// This call has no side effects of its own.  The value set here is only
// used for next time g_application_release() drops the use count to
// zero.  Any timeouts currently in progress are not impacted.
func (x *Application) SetInactivityTimeout(InactivityTimeoutVar uint) {

	xApplicationSetInactivityTimeout(x.GoPointer(), InactivityTimeoutVar)

}

var xApplicationSetOptionContextDescription func(uintptr, uintptr)

// Adds a description to the @application option context.
//
// See g_option_context_set_description() for more information.
func (x *Application) SetOptionContextDescription(DescriptionVar *string) {

	DescriptionVarPtr := core.GStrdupNullable(DescriptionVar)
	defer core.GFreeNullable(DescriptionVarPtr)

	xApplicationSetOptionContextDescription(x.GoPointer(), DescriptionVarPtr)

}

var xApplicationSetOptionContextParameterString func(uintptr, uintptr)

// Sets the parameter string to be used by the commandline handling of @application.
//
// This function registers the argument to be passed to g_option_context_new()
// when the internal #GOptionContext of @application is created.
//
// See g_option_context_new() for more information about @parameter_string.
func (x *Application) SetOptionContextParameterString(ParameterStringVar *string) {

	ParameterStringVarPtr := core.GStrdupNullable(ParameterStringVar)
	defer core.GFreeNullable(ParameterStringVarPtr)

	xApplicationSetOptionContextParameterString(x.GoPointer(), ParameterStringVarPtr)

}

var xApplicationSetOptionContextSummary func(uintptr, uintptr)

// Adds a summary to the @application option context.
//
// See g_option_context_set_summary() for more information.
func (x *Application) SetOptionContextSummary(SummaryVar *string) {

	SummaryVarPtr := core.GStrdupNullable(SummaryVar)
	defer core.GFreeNullable(SummaryVarPtr)

	xApplicationSetOptionContextSummary(x.GoPointer(), SummaryVarPtr)

}

var xApplicationSetResourceBasePath func(uintptr, uintptr)

// Sets (or unsets) the base resource path of @application.
//
// The path is used to automatically load various
// [application resources][struct@Gio.Resource] such as menu layouts and
// action descriptions. The various types of resources will be found at
// fixed names relative to the given base path.
//
// By default, the resource base path is determined from the application
// ID by prefixing '/' and replacing each '.' with '/'.  This is done at
// the time that the #GApplication object is constructed.  Changes to
// the application ID after that point will not have an impact on the
// resource base path.
//
// As an example, if the application has an ID of "org.example.app" then
// the default resource base path will be "/org/example/app".  If this
// is a #GtkApplication (and you have not manually changed the path)
// then Gtk will then search for the menus of the application at
// "/org/example/app/gtk/menus.ui".
//
// See #GResource for more information about adding resources to your
// application.
//
// You can disable automatic resource loading functionality by setting
// the path to %NULL.
//
// Changing the resource base path once the application is running is
// not recommended.  The point at which the resource path is consulted
// for forming paths for various purposes is unspecified.  When writing
// a sub-class of #GApplication you should either set the
// #GApplication:resource-base-path property at construction time, or call
// this function during the instance initialization. Alternatively, you
// can call this function in the #GApplicationClass.startup virtual function,
// before chaining up to the parent implementation.
func (x *Application) SetResourceBasePath(ResourcePathVar *string) {

	ResourcePathVarPtr := core.GStrdupNullable(ResourcePathVar)
	defer core.GFreeNullable(ResourcePathVarPtr)

	xApplicationSetResourceBasePath(x.GoPointer(), ResourcePathVarPtr)

}

var xApplicationSetVersion func(uintptr, string)

// Sets the version number of @application. This will be used to implement
// a `--version` command line argument
//
// The application version can only be modified if @application has not yet
// been registered.
func (x *Application) SetVersion(VersionVar string) {

	xApplicationSetVersion(x.GoPointer(), VersionVar)

}

var xApplicationUnbindBusyProperty func(uintptr, uintptr, string)

// Destroys a binding between @property and the busy state of
// @application that was previously created with
// g_application_bind_busy_property().
func (x *Application) UnbindBusyProperty(ObjectVar *gobject.Object, PropertyVar string) {

	xApplicationUnbindBusyProperty(x.GoPointer(), ObjectVar.GoPointer(), PropertyVar)

}

var xApplicationUnmarkBusy func(uintptr)

// Decreases the busy count of @application.
//
// When the busy count reaches zero, the new state will be propagated
// to other processes.
//
// This function must only be called to cancel the effect of a previous
// call to g_application_mark_busy().
func (x *Application) UnmarkBusy() {

	xApplicationUnmarkBusy(x.GoPointer())

}

var xApplicationWithdrawNotification func(uintptr, string)

// Withdraws a notification that was sent with
// g_application_send_notification().
//
// This call does nothing if a notification with @id doesn't exist or
// the notification was never sent.
//
// This function works even for notifications sent in previous
// executions of this application, as long @id is the same as it was for
// the sent notification.
//
// Note that notifications are dismissed when the user clicks on one
// of the buttons in a notification or triggers its default action, so
// there is no need to explicitly withdraw the notification in that case.
func (x *Application) WithdrawNotification(IdVar string) {

	xApplicationWithdrawNotification(x.GoPointer(), IdVar)

}

func (c *Application) GoPointer() uintptr {
	if c == nil {
		return 0
	}
	return c.Ptr
}

func (c *Application) SetGoPointer(ptr uintptr) {
	c.Ptr = ptr
}

// SetPropertyApplicationId sets the "application-id" property.
// The unique identifier for the application.
func (x *Application) SetPropertyApplicationId(value string) {
	var v gobject.Value
	v.Init(gobject.TypeStringVal)
	v.SetString(&value)
	x.SetProperty("application-id", &v)
}

// GetPropertyApplicationId gets the "application-id" property.
// The unique identifier for the application.
func (x *Application) GetPropertyApplicationId() string {
	var v gobject.Value
	x.GetProperty("application-id", &v)
	return v.GetString()
}

// SetPropertyInactivityTimeout sets the "inactivity-timeout" property.
// Time (in milliseconds) to stay alive after becoming idle.
func (x *Application) SetPropertyInactivityTimeout(value uint) {
	var v gobject.Value
	v.Init(gobject.TypeUintVal)
	v.SetUint(value)
	x.SetProperty("inactivity-timeout", &v)
}

// GetPropertyInactivityTimeout gets the "inactivity-timeout" property.
// Time (in milliseconds) to stay alive after becoming idle.
func (x *Application) GetPropertyInactivityTimeout() uint {
	var v gobject.Value
	x.GetProperty("inactivity-timeout", &v)
	return v.GetUint()
}

// GetPropertyIsBusy gets the "is-busy" property.
// Whether the application is currently marked as busy through
// g_application_mark_busy() or g_application_bind_busy_property().
func (x *Application) GetPropertyIsBusy() bool {
	var v gobject.Value
	x.GetProperty("is-busy", &v)
	return v.GetBoolean()
}

// GetPropertyIsRegistered gets the "is-registered" property.
// Whether [method@Gio.Application.register] has been called.
func (x *Application) GetPropertyIsRegistered() bool {
	var v gobject.Value
	x.GetProperty("is-registered", &v)
	return v.GetBoolean()
}

// GetPropertyIsRemote gets the "is-remote" property.
// Whether this application instance is remote.
func (x *Application) GetPropertyIsRemote() bool {
	var v gobject.Value
	x.GetProperty("is-remote", &v)
	return v.GetBoolean()
}

// SetPropertyResourceBasePath sets the "resource-base-path" property.
// The base resource path for the application.
func (x *Application) SetPropertyResourceBasePath(value string) {
	var v gobject.Value
	v.Init(gobject.TypeStringVal)
	v.SetString(&value)
	x.SetProperty("resource-base-path", &v)
}

// GetPropertyResourceBasePath gets the "resource-base-path" property.
// The base resource path for the application.
func (x *Application) GetPropertyResourceBasePath() string {
	var v gobject.Value
	x.GetProperty("resource-base-path", &v)
	return v.GetString()
}

// SetPropertyVersion sets the "version" property.
// The human-readable version number of the application.
func (x *Application) SetPropertyVersion(value string) {
	var v gobject.Value
	v.Init(gobject.TypeStringVal)
	v.SetString(&value)
	x.SetProperty("version", &v)
}

// GetPropertyVersion gets the "version" property.
// The human-readable version number of the application.
func (x *Application) GetPropertyVersion() string {
	var v gobject.Value
	x.GetProperty("version", &v)
	return v.GetString()
}

// The ::activate signal is emitted on the primary instance when an
// activation occurs. See g_application_activate().
func (x *Application) ConnectActivate(cb *func(Application)) uint {
	cbPtr := uintptr(unsafe.Pointer(cb))
	if cbRefPtr, ok := glib.GetCallback(cbPtr); ok {
		handlerID := gobject.SignalConnect(x.GoPointer(), "activate", cbRefPtr)
		glib.SaveHandlerMapping(handlerID, cbPtr)
		return handlerID
	}

	fcb := func(clsPtr uintptr) {
		fa := Application{}
		fa.Ptr = clsPtr
		cbFn := *cb

		cbFn(fa)

	}
	cbRefPtr := purego.NewCallback(fcb)
	glib.SaveCallbackWithClosure(cbPtr, cbRefPtr, cb)
	handlerID := gobject.SignalConnect(x.GoPointer(), "activate", cbRefPtr)
	glib.SaveHandlerMapping(handlerID, cbPtr)
	return handlerID
}

// The ::command-line signal is emitted on the primary instance when
// a commandline is not handled locally. See g_application_run() and
// the #GApplicationCommandLine documentation for more information.
func (x *Application) ConnectCommandLine(cb *func(Application, uintptr) int) uint {
	cbPtr := uintptr(unsafe.Pointer(cb))
	if cbRefPtr, ok := glib.GetCallback(cbPtr); ok {
		handlerID := gobject.SignalConnect(x.GoPointer(), "command-line", cbRefPtr)
		glib.SaveHandlerMapping(handlerID, cbPtr)
		return handlerID
	}

	fcb := func(clsPtr uintptr, CommandLineVarp uintptr) int {
		fa := Application{}
		fa.Ptr = clsPtr
		cbFn := *cb

		return cbFn(fa, CommandLineVarp)

	}
	cbRefPtr := purego.NewCallback(fcb)
	glib.SaveCallbackWithClosure(cbPtr, cbRefPtr, cb)
	handlerID := gobject.SignalConnect(x.GoPointer(), "command-line", cbRefPtr)
	glib.SaveHandlerMapping(handlerID, cbPtr)
	return handlerID
}

// The ::handle-local-options signal is emitted on the local instance
// after the parsing of the commandline options has occurred.
//
// You can add options to be recognised during commandline option
// parsing using g_application_add_main_option_entries() and
// g_application_add_option_group().
//
// Signal handlers can inspect @options (along with values pointed to
// from the @arg_data of an installed #GOptionEntrys) in order to
// decide to perform certain actions, including direct local handling
// (which may be useful for options like --version).
//
// In the event that the application is marked
// %G_APPLICATION_HANDLES_COMMAND_LINE the "normal processing" will
// send the @options dictionary to the primary instance where it can be
// read with g_application_command_line_get_options_dict().  The signal
// handler can modify the dictionary before returning, and the
// modified dictionary will be sent.
//
// In the event that %G_APPLICATION_HANDLES_COMMAND_LINE is not set,
// "normal processing" will treat the remaining uncollected command
// line arguments as filenames or URIs.  If there are no arguments,
// the application is activated by g_application_activate().  One or
// more arguments results in a call to g_application_open().
//
// If you want to handle the local commandline arguments for yourself
// by converting them to calls to g_application_open() or
// g_action_group_activate_action() then you must be sure to register
// the application first.  You should probably not call
// g_application_activate() for yourself, however: just return -1 and
// allow the default handler to do it for you.  This will ensure that
// the `--gapplication-service` switch works properly (i.e. no activation
// in that case).
//
// Note that this signal is emitted from the default implementation of
// local_command_line().  If you override that function and don't
// chain up then this signal will never be emitted.
//
// You can override local_command_line() if you need more powerful
// capabilities than what is provided here, but this should not
// normally be required.
func (x *Application) ConnectHandleLocalOptions(cb *func(Application, uintptr) int) uint {
	cbPtr := uintptr(unsafe.Pointer(cb))
	if cbRefPtr, ok := glib.GetCallback(cbPtr); ok {
		handlerID := gobject.SignalConnect(x.GoPointer(), "handle-local-options", cbRefPtr)
		glib.SaveHandlerMapping(handlerID, cbPtr)
		return handlerID
	}

	fcb := func(clsPtr uintptr, OptionsVarp uintptr) int {
		fa := Application{}
		fa.Ptr = clsPtr
		cbFn := *cb

		return cbFn(fa, OptionsVarp)

	}
	cbRefPtr := purego.NewCallback(fcb)
	glib.SaveCallbackWithClosure(cbPtr, cbRefPtr, cb)
	handlerID := gobject.SignalConnect(x.GoPointer(), "handle-local-options", cbRefPtr)
	glib.SaveHandlerMapping(handlerID, cbPtr)
	return handlerID
}

// The ::name-lost signal is emitted only on the registered primary instance
// when a new instance has taken over. This can only happen if the application
// is using the %G_APPLICATION_ALLOW_REPLACEMENT flag.
//
// The default handler for this signal calls g_application_quit().
func (x *Application) ConnectNameLost(cb *func(Application) bool) uint {
	cbPtr := uintptr(unsafe.Pointer(cb))
	if cbRefPtr, ok := glib.GetCallback(cbPtr); ok {
		handlerID := gobject.SignalConnect(x.GoPointer(), "name-lost", cbRefPtr)
		glib.SaveHandlerMapping(handlerID, cbPtr)
		return handlerID
	}

	fcb := func(clsPtr uintptr) bool {
		fa := Application{}
		fa.Ptr = clsPtr
		cbFn := *cb

		return cbFn(fa)

	}
	cbRefPtr := purego.NewCallback(fcb)
	glib.SaveCallbackWithClosure(cbPtr, cbRefPtr, cb)
	handlerID := gobject.SignalConnect(x.GoPointer(), "name-lost", cbRefPtr)
	glib.SaveHandlerMapping(handlerID, cbPtr)
	return handlerID
}

// The ::open signal is emitted on the primary instance when there are
// files to open. See g_application_open() for more information.
func (x *Application) ConnectOpen(cb *func(Application, uintptr, int, string)) uint {
	cbPtr := uintptr(unsafe.Pointer(cb))
	if cbRefPtr, ok := glib.GetCallback(cbPtr); ok {
		handlerID := gobject.SignalConnect(x.GoPointer(), "open", cbRefPtr)
		glib.SaveHandlerMapping(handlerID, cbPtr)
		return handlerID
	}

	fcb := func(clsPtr uintptr, FilesVarp uintptr, NFilesVarp int, HintVarp uintptr) {
		fa := Application{}
		fa.Ptr = clsPtr
		cbFn := *cb

		cbFn(fa, FilesVarp, NFilesVarp, core.GoString(HintVarp))

	}
	cbRefPtr := purego.NewCallback(fcb)
	glib.SaveCallbackWithClosure(cbPtr, cbRefPtr, cb)
	handlerID := gobject.SignalConnect(x.GoPointer(), "open", cbRefPtr)
	glib.SaveHandlerMapping(handlerID, cbPtr)
	return handlerID
}

// The ::shutdown signal is emitted only on the registered primary instance
// immediately after the main loop terminates.
func (x *Application) ConnectShutdown(cb *func(Application)) uint {
	cbPtr := uintptr(unsafe.Pointer(cb))
	if cbRefPtr, ok := glib.GetCallback(cbPtr); ok {
		handlerID := gobject.SignalConnect(x.GoPointer(), "shutdown", cbRefPtr)
		glib.SaveHandlerMapping(handlerID, cbPtr)
		return handlerID
	}

	fcb := func(clsPtr uintptr) {
		fa := Application{}
		fa.Ptr = clsPtr
		cbFn := *cb

		cbFn(fa)

	}
	cbRefPtr := purego.NewCallback(fcb)
	glib.SaveCallbackWithClosure(cbPtr, cbRefPtr, cb)
	handlerID := gobject.SignalConnect(x.GoPointer(), "shutdown", cbRefPtr)
	glib.SaveHandlerMapping(handlerID, cbPtr)
	return handlerID
}

// The ::startup signal is emitted on the primary instance immediately
// after registration. See g_application_register().
func (x *Application) ConnectStartup(cb *func(Application)) uint {
	cbPtr := uintptr(unsafe.Pointer(cb))
	if cbRefPtr, ok := glib.GetCallback(cbPtr); ok {
		handlerID := gobject.SignalConnect(x.GoPointer(), "startup", cbRefPtr)
		glib.SaveHandlerMapping(handlerID, cbPtr)
		return handlerID
	}

	fcb := func(clsPtr uintptr) {
		fa := Application{}
		fa.Ptr = clsPtr
		cbFn := *cb

		cbFn(fa)

	}
	cbRefPtr := purego.NewCallback(fcb)
	glib.SaveCallbackWithClosure(cbPtr, cbRefPtr, cb)
	handlerID := gobject.SignalConnect(x.GoPointer(), "startup", cbRefPtr)
	glib.SaveHandlerMapping(handlerID, cbPtr)
	return handlerID
}

// Emits the [signal@Gio.ActionGroup::action-added] signal on @action_group.
//
// This function should only be called by [type@Gio.ActionGroup] implementations.
func (x *Application) ActionAdded(ActionNameVar string) {

	XGActionGroupActionAdded(x.GoPointer(), ActionNameVar)

}

// Emits the [signal@Gio.ActionGroup::action-enabled-changed] signal on @action_group.
//
// This function should only be called by [type@Gio.ActionGroup] implementations.
func (x *Application) ActionEnabledChanged(ActionNameVar string, EnabledVar bool) {

	XGActionGroupActionEnabledChanged(x.GoPointer(), ActionNameVar, EnabledVar)

}

// Emits the [signal@Gio.ActionGroup::action-removed] signal on @action_group.
//
// This function should only be called by [type@Gio.ActionGroup] implementations.
func (x *Application) ActionRemoved(ActionNameVar string) {

	XGActionGroupActionRemoved(x.GoPointer(), ActionNameVar)

}

// Emits the [signal@Gio.ActionGroup::action-state-changed] signal on @action_group.
//
// This function should only be called by [type@Gio.ActionGroup] implementations.
func (x *Application) ActionStateChanged(ActionNameVar string, StateVar *glib.Variant) {

	XGActionGroupActionStateChanged(x.GoPointer(), ActionNameVar, StateVar)

}

// Activate the named action within @action_group.
//
// If the action is expecting a parameter, then the correct type of
// parameter must be given as @parameter.  If the action is expecting no
// parameters then @parameter must be `NULL`.  See
// [method@Gio.ActionGroup.get_action_parameter_type].
//
// If the [type@Gio.ActionGroup] implementation supports asynchronous remote
// activation over D-Bus, this call may return before the relevant
// D-Bus traffic has been sent, or any replies have been received. In
// order to block on such asynchronous activation calls,
// [method@Gio.DBusConnection.flush] should be called prior to the code, which
// depends on the result of the action activation. Without flushing
// the D-Bus connection, there is no guarantee that the action would
// have been activated.
//
// The following code which runs in a remote app instance, shows an
// example of a ‘quit’ action being activated on the primary app
// instance over D-Bus. Here [method@Gio.DBusConnection.flush] is called
// before `exit()`. Without `g_dbus_connection_flush()`, the ‘quit’ action
// may fail to be activated on the primary instance.
//
// ```c
// // call ‘quit’ action on primary instance
// g_action_group_activate_action (G_ACTION_GROUP (app), "quit", NULL);
//
// // make sure the action is activated now
// g_dbus_connection_flush (…);
//
// g_debug ("Application has been terminated. Exiting.");
//
// exit (0);
// ```
func (x *Application) ActivateAction(ActionNameVar string, ParameterVar *glib.Variant) {

	XGActionGroupActivateAction(x.GoPointer(), ActionNameVar, ParameterVar)

}

// Request for the state of the named action within @action_group to be
// changed to @value.
//
// The action must be stateful and @value must be of the correct type.
// See [method@Gio.ActionGroup.get_action_state_type].
//
// This call merely requests a change.  The action may refuse to change
// its state or may change its state to something other than @value.
// See [method@Gio.ActionGroup.get_action_state_hint].
//
// If the @value GVariant is floating, it is consumed.
func (x *Application) ChangeActionState(ActionNameVar string, ValueVar *glib.Variant) {

	XGActionGroupChangeActionState(x.GoPointer(), ActionNameVar, ValueVar)

}

// Checks if the named action within @action_group is currently enabled.
//
// An action must be enabled in order to be activated or in order to
// have its state changed from outside callers.
func (x *Application) GetActionEnabled(ActionNameVar string) bool {

	cret := XGActionGroupGetActionEnabled(x.GoPointer(), ActionNameVar)
	return cret
}

// Queries the type of the parameter that must be given when activating
// the named action within @action_group.
//
// When activating the action using [method@Gio.ActionGroup.activate_action],
// the [type@GLib.Variant] given to that function must be of the type returned
// by this function.
//
// In the case that this function returns `NULL`, you must not give any
// [type@GLib.Variant], but `NULL` instead.
//
// The parameter type of a particular action will never change but it is
// possible for an action to be removed and for a new action to be added
// with the same name but a different parameter type.
func (x *Application) GetActionParameterType(ActionNameVar string) *glib.VariantType {

	cret := XGActionGroupGetActionParameterType(x.GoPointer(), ActionNameVar)
	return cret
}

// Queries the current state of the named action within @action_group.
//
// If the action is not stateful then `NULL` will be returned.  If the
// action is stateful then the type of the return value is the type
// given by [method@Gio.ActionGroup.get_action_state_type].
//
// The return value (if non-`NULL`) should be freed with
// [method@GLib.Variant.unref] when it is no longer required.
func (x *Application) GetActionState(ActionNameVar string) *glib.Variant {

	cret := XGActionGroupGetActionState(x.GoPointer(), ActionNameVar)
	return cret
}

// Requests a hint about the valid range of values for the state of the
// named action within @action_group.
//
// If `NULL` is returned it either means that the action is not stateful
// or that there is no hint about the valid range of values for the
// state of the action.
//
// If a [type@GLib.Variant] array is returned then each item in the array is a
// possible value for the state.  If a [type@GLib.Variant] pair (ie: two-tuple) is
// returned then the tuple specifies the inclusive lower and upper bound
// of valid values for the state.
//
// In any case, the information is merely a hint.  It may be possible to
// have a state value outside of the hinted range and setting a value
// within the range may fail.
//
// The return value (if non-`NULL`) should be freed with
// [method@GLib.Variant.unref] when it is no longer required.
func (x *Application) GetActionStateHint(ActionNameVar string) *glib.Variant {

	cret := XGActionGroupGetActionStateHint(x.GoPointer(), ActionNameVar)
	return cret
}

// Queries the type of the state of the named action within
// @action_group.
//
// If the action is stateful then this function returns the
// [type@GLib.VariantType] of the state.  All calls to
// [method@Gio.ActionGroup.change_action_state] must give a [type@GLib.Variant] of this
// type and [method@Gio.ActionGroup.get_action_state] will return a [type@GLib.Variant]
// of the same type.
//
// If the action is not stateful then this function will return `NULL`.
// In that case, [method@Gio.ActionGroup.get_action_state] will return `NULL`
// and you must not call [method@Gio.ActionGroup.change_action_state].
//
// The state type of a particular action will never change but it is
// possible for an action to be removed and for a new action to be added
// with the same name but a different state type.
func (x *Application) GetActionStateType(ActionNameVar string) *glib.VariantType {

	cret := XGActionGroupGetActionStateType(x.GoPointer(), ActionNameVar)
	return cret
}

// Checks if the named action exists within @action_group.
func (x *Application) HasAction(ActionNameVar string) bool {

	cret := XGActionGroupHasAction(x.GoPointer(), ActionNameVar)
	return cret
}

// Lists the actions contained within @action_group.
//
// The caller is responsible for freeing the list with [func@GLib.strfreev] when
// it is no longer required.
func (x *Application) ListActions() []string {

	cret := XGActionGroupListActions(x.GoPointer())
	return cret
}

// Queries all aspects of the named action within an @action_group.
//
// This function acquires the information available from
// [method@Gio.ActionGroup.has_action], [method@Gio.ActionGroup.get_action_enabled],
// [method@Gio.ActionGroup.get_action_parameter_type],
// [method@Gio.ActionGroup.get_action_state_type],
// [method@Gio.ActionGroup.get_action_state_hint] and
// [method@Gio.ActionGroup.get_action_state] with a single function call.
//
// This provides two main benefits.
//
// The first is the improvement in efficiency that comes with not having
// to perform repeated lookups of the action in order to discover
// different things about it.  The second is that implementing
// [type@Gio.ActionGroup] can now be done by only overriding this one virtual
// function.
//
// The interface provides a default implementation of this function that
// calls the individual functions, as required, to fetch the
// information.  The interface also provides default implementations of
// those functions that call this function.  All implementations,
// therefore, must override either this function or all of the others.
//
// If the action exists, `TRUE` is returned and any of the requested
// fields (as indicated by having a non-`NULL` reference passed in) are
// filled.  If the action doesn’t exist, `FALSE` is returned and the
// fields may or may not have been modified.
func (x *Application) QueryAction(ActionNameVar string, EnabledVar *bool, ParameterTypeVar **glib.VariantType, StateTypeVar **glib.VariantType, StateHintVar **glib.Variant, StateVar **glib.Variant) bool {

	cret := XGActionGroupQueryAction(x.GoPointer(), ActionNameVar, EnabledVar, ParameterTypeVar, StateTypeVar, StateHintVar, StateVar)
	return cret
}

// Adds an action to the @action_map.
//
// If the action map already contains an action with the same name
// as @action then the old action is dropped from the action map.
//
// The action map takes its own reference on @action.
func (x *Application) AddAction(ActionVar Action) {

	XGActionMapAddAction(x.GoPointer(), ActionVar.GoPointer())

}

// A convenience function for creating multiple [class@Gio.SimpleAction]
// instances and adding them to a [iface@Gio.ActionMap].
//
// Each action is constructed as per one [struct@Gio.ActionEntry].
//
// ```c
// static void
// activate_quit (GSimpleAction *simple,
//
//	GVariant      *parameter,
//	gpointer       user_data)
//
//	{
//	  exit (0);
//	}
//
// static void
// activate_print_string (GSimpleAction *simple,
//
//	GVariant      *parameter,
//	gpointer       user_data)
//
//	{
//	  g_print ("%s\n", g_variant_get_string (parameter, NULL));
//	}
//
// static GActionGroup *
// create_action_group (void)
//
//	{
//	  const GActionEntry entries[] = {
//	    { "quit",         activate_quit              },
//	    { "print-string", activate_print_string, "s" }
//	  };
//	  GSimpleActionGroup *group;
//
//	  group = g_simple_action_group_new ();
//	  g_action_map_add_action_entries (G_ACTION_MAP (group), entries, G_N_ELEMENTS (entries), NULL);
//
//	  return G_ACTION_GROUP (group);
//	}
//
// ```
func (x *Application) AddActionEntries(EntriesVar []ActionEntry, NEntriesVar int, UserDataVar uintptr) {

	XGActionMapAddActionEntries(x.GoPointer(), EntriesVar, NEntriesVar, UserDataVar)

}

// Looks up the action with the name @action_name in @action_map.
//
// If no such action exists, returns `NULL`.
func (x *Application) LookupAction(ActionNameVar string) *ActionBase {
	var cls *ActionBase

	cret := XGActionMapLookupAction(x.GoPointer(), ActionNameVar)

	if cret == 0 {
		return nil
	}
	gobject.IncreaseRef(cret)
	cls = &ActionBase{}
	cls.Ptr = cret
	return cls
}

// Removes the named action from the action map.
//
// If no action of this name is in the map then nothing happens.
func (x *Application) RemoveAction(ActionNameVar string) {

	XGActionMapRemoveAction(x.GoPointer(), ActionNameVar)

}

// Remove actions from a [iface@Gio.ActionMap]. This is meant as the reverse of
// [method@Gio.ActionMap.add_action_entries].
//
// ```c
//
//	static const GActionEntry entries[] = {
//	    { "quit",         activate_quit              },
//	    { "print-string", activate_print_string, "s" }
//	};
//
// void
// add_actions (GActionMap *map)
//
//	{
//	  g_action_map_add_action_entries (map, entries, G_N_ELEMENTS (entries), NULL);
//	}
//
// void
// remove_actions (GActionMap *map)
//
//	{
//	  g_action_map_remove_action_entries (map, entries, G_N_ELEMENTS (entries));
//	}
//
// ```
func (x *Application) RemoveActionEntries(EntriesVar []ActionEntry, NEntriesVar int) {

	XGActionMapRemoveActionEntries(x.GoPointer(), EntriesVar, NEntriesVar)

}

var xApplicationGetDefault func() uintptr

// Returns the default #GApplication instance for this process.
//
// Normally there is only one #GApplication per process and it becomes
// the default when it is created.  You can exercise more control over
// this by using g_application_set_default().
//
// If there is no default application then %NULL is returned.
func ApplicationGetDefault() *Application {
	var cls *Application

	cret := xApplicationGetDefault()

	if cret == 0 {
		return nil
	}
	gobject.IncreaseRef(cret)
	cls = &Application{}
	cls.Ptr = cret
	return cls
}

var xApplicationIdIsValid func(string) bool

// Checks if @application_id is a valid application identifier.
//
// A valid ID is required for calls to g_application_new() and
// g_application_set_application_id().
//
// Application identifiers follow the same format as
// [D-Bus well-known bus names](https://dbus.freedesktop.org/doc/dbus-specification.html#message-protocol-names-bus).
// For convenience, the restrictions on application identifiers are
// reproduced here:
//
//   - Application identifiers are composed of 1 or more elements separated by a
//     period (`.`) character. All elements must contain at least one character.
//
//   - Each element must only contain the ASCII characters `[A-Z][a-z][0-9]_-`,
//     with `-` discouraged in new application identifiers. Each element must not
//     begin with a digit.
//
//   - Application identifiers must contain at least one `.` (period) character
//     (and thus at least two elements).
//
// - Application identifiers must not begin with a `.` (period) character.
//
// - Application identifiers must not exceed 255 characters.
//
// Note that the hyphen (`-`) character is allowed in application identifiers,
// but is problematic or not allowed in various specifications and APIs that
// refer to D-Bus, such as
// [Flatpak application IDs](http://docs.flatpak.org/en/latest/introduction.html#identifiers),
// the
// [`DBusActivatable` interface in the Desktop Entry Specification](https://specifications.freedesktop.org/desktop-entry-spec/desktop-entry-spec-latest.html#dbus),
// and the convention that an application's "main" interface and object path
// resemble its application identifier and bus name. To avoid situations that
// require special-case handling, it is recommended that new application
// identifiers consistently replace hyphens with underscores.
//
// Like D-Bus interface names, application identifiers should start with the
// reversed DNS domain name of the author of the interface (in lower-case), and
// it is conventional for the rest of the application identifier to consist of
// words run together, with initial capital letters.
//
// As with D-Bus interface names, if the author's DNS domain name contains
// hyphen/minus characters they should be replaced by underscores, and if it
// contains leading digits they should be escaped by prepending an underscore.
// For example, if the owner of 7-zip.org used an application identifier for an
// archiving application, it might be named `org._7_zip.Archiver`.
func ApplicationIdIsValid(ApplicationIdVar string) bool {

	cret := xApplicationIdIsValid(ApplicationIdVar)
	return cret
}

func init() {
	core.SetPackageName("GIO", "gio-2.0")
	core.SetSharedLibraries("GIO", []string{"libgio-2.0.so.0"})
	var libs []uintptr
	for _, libPath := range core.GetPaths("GIO") {
		lib, err := purego.Dlopen(libPath, purego.RTLD_NOW|purego.RTLD_GLOBAL)
		if err != nil {
			panic(err)
		}
		libs = append(libs, lib)
	}

	core.PuregoSafeRegister(&xApplicationGLibType, libs, "g_application_get_type")

	core.PuregoSafeRegister(&xNewApplication, libs, "g_application_new")

	core.PuregoSafeRegister(&xApplicationActivate, libs, "g_application_activate")
	core.PuregoSafeRegister(&xApplicationAddMainOption, libs, "g_application_add_main_option")
	core.PuregoSafeRegister(&xApplicationAddMainOptionEntries, libs, "g_application_add_main_option_entries")
	core.PuregoSafeRegister(&xApplicationAddOptionGroup, libs, "g_application_add_option_group")
	core.PuregoSafeRegister(&xApplicationBindBusyProperty, libs, "g_application_bind_busy_property")
	core.PuregoSafeRegister(&xApplicationGetApplicationId, libs, "g_application_get_application_id")
	core.PuregoSafeRegister(&xApplicationGetDbusConnection, libs, "g_application_get_dbus_connection")
	core.PuregoSafeRegister(&xApplicationGetDbusObjectPath, libs, "g_application_get_dbus_object_path")
	core.PuregoSafeRegister(&xApplicationGetFlags, libs, "g_application_get_flags")
	core.PuregoSafeRegister(&xApplicationGetInactivityTimeout, libs, "g_application_get_inactivity_timeout")
	core.PuregoSafeRegister(&xApplicationGetIsBusy, libs, "g_application_get_is_busy")
	core.PuregoSafeRegister(&xApplicationGetIsRegistered, libs, "g_application_get_is_registered")
	core.PuregoSafeRegister(&xApplicationGetIsRemote, libs, "g_application_get_is_remote")
	core.PuregoSafeRegister(&xApplicationGetResourceBasePath, libs, "g_application_get_resource_base_path")
	core.PuregoSafeRegister(&xApplicationGetVersion, libs, "g_application_get_version")
	core.PuregoSafeRegister(&xApplicationHold, libs, "g_application_hold")
	core.PuregoSafeRegister(&xApplicationMarkBusy, libs, "g_application_mark_busy")
	core.PuregoSafeRegister(&xApplicationOpen, libs, "g_application_open")
	core.PuregoSafeRegister(&xApplicationQuit, libs, "g_application_quit")
	core.PuregoSafeRegister(&xApplicationRegister, libs, "g_application_register")
	core.PuregoSafeRegister(&xApplicationRelease, libs, "g_application_release")
	core.PuregoSafeRegister(&xApplicationRun, libs, "g_application_run")
	core.PuregoSafeRegister(&xApplicationSendNotification, libs, "g_application_send_notification")
	core.PuregoSafeRegister(&xApplicationSetActionGroup, libs, "g_application_set_action_group")
	core.PuregoSafeRegister(&xApplicationSetApplicationId, libs, "g_application_set_application_id")
	core.PuregoSafeRegister(&xApplicationSetDefault, libs, "g_application_set_default")
	core.PuregoSafeRegister(&xApplicationSetFlags, libs, "g_application_set_flags")
	core.PuregoSafeRegister(&xApplicationSetInactivityTimeout, libs, "g_application_set_inactivity_timeout")
	core.PuregoSafeRegister(&xApplicationSetOptionContextDescription, libs, "g_application_set_option_context_description")
	core.PuregoSafeRegister(&xApplicationSetOptionContextParameterString, libs, "g_application_set_option_context_parameter_string")
	core.PuregoSafeRegister(&xApplicationSetOptionContextSummary, libs, "g_application_set_option_context_summary")
	core.PuregoSafeRegister(&xApplicationSetResourceBasePath, libs, "g_application_set_resource_base_path")
	core.PuregoSafeRegister(&xApplicationSetVersion, libs, "g_application_set_version")
	core.PuregoSafeRegister(&xApplicationUnbindBusyProperty, libs, "g_application_unbind_busy_property")
	core.PuregoSafeRegister(&xApplicationUnmarkBusy, libs, "g_application_unmark_busy")
	core.PuregoSafeRegister(&xApplicationWithdrawNotification, libs, "g_application_withdraw_notification")

	core.PuregoSafeRegister(&xApplicationGetDefault, libs, "g_application_get_default")
	core.PuregoSafeRegister(&xApplicationIdIsValid, libs, "g_application_id_is_valid")

}