[−]Struct gio::Settings
The Settings
class provides a convenient API for storing and retrieving
application settings.
Reads and writes can be considered to be non-blocking. Reading
settings with Settings
is typically extremely fast: on
approximately the same order of magnitude (but slower than) a
glib::HashTable
lookup. Writing settings is also extremely fast in terms
of time to return to your application, but can be extremely expensive
for other threads and other processes. Many settings backends
(including dconf) have lazy initialisation which means in the common
case of the user using their computer without modifying any settings
a lot of work can be avoided. For dconf, the D-Bus service doesn't
even need to be started in this case. For this reason, you should
only ever modify Settings
keys in response to explicit user action.
Particular care should be paid to ensure that modifications are not
made during startup -- for example, when setting the initial value
of preferences widgets. The built-in SettingsExt::bind
functionality
is careful not to write settings in response to notify signals as a
result of modifications that it makes to widgets.
When creating a GSettings instance, you have to specify a schema that describes the keys in your settings and their types and default values, as well as some other information.
Normally, a schema has a fixed path that determines where the settings are stored in the conceptual global tree of settings. However, schemas can also be '[relocatable][gsettings-relocatable]', i.e. not equipped with a fixed path. This is useful e.g. when the schema describes an 'account', and you want to be able to store a arbitrary number of accounts.
Paths must start with and end with a forward slash character ('/') and must not contain two sequential slash characters. Paths should be chosen based on a domain name associated with the program or library to which the settings belong. Examples of paths are "/org/gtk/settings/file-chooser/" and "/ca/desrt/dconf-editor/". Paths should not start with "/apps/", "/desktop/" or "/system/" as they often did in GConf.
Unlike other configuration systems (like GConf), GSettings does not
restrict keys to basic types like strings and numbers. GSettings stores
values as glib::Variant
, and allows any glib::VariantType
for keys. Key names
are restricted to lowercase characters, numbers and '-'. Furthermore,
the names must begin with a lowercase character, must not end
with a '-', and must not contain consecutive dashes.
Similar to GConf, the default values in GSettings schemas can be
localized, but the localized values are stored in gettext catalogs
and looked up with the domain that is specified in the
gettext-domain
attribute of the <schemalist>
or <schema>
elements and the category that is specified in the l10n
attribute of
the <default>
element. The string which is translated includes all text in
the <default>
element, including any surrounding quotation marks.
The l10n
attribute must be set to messages
or time
, and sets the
locale category for
translation.
The messages
category should be used by default; use time
for
translatable date or time formats. A translation comment can be added as an
XML comment immediately above the <default>
element — it is recommended to
add these comments to aid translators understand the meaning and
implications of the default value. An optional translation context
attribute can be set on the <default>
element to disambiguate multiple
defaults which use the same string.
For example:
<!-- Translators: A list of words which are not allowed to be typed, in
GVariant serialization syntax.
See: https://developer.gnome.org/glib/stable/gvariant-text.html -->
<default l10n='messages' context='Banned words'>['bad', 'words']</default>
Translations of default values must remain syntactically valid serialized
GVariants
(e.g. retaining any surrounding quotation marks) or runtime
errors will occur.
GSettings uses schemas in a compact binary form that is created by the [glib-compile-schemas][glib-compile-schemas] utility. The input is a schema description in an XML format.
A DTD for the gschema XML format can be found here: gschema.dtd
The [glib-compile-schemas][glib-compile-schemas] tool expects schema
files to have the extension .gschema.xml
.
At runtime, schemas are identified by their id (as specified in the
id attribute of the <schema>
element). The convention for schema
ids is to use a dotted name, similar in style to a D-Bus bus name,
e.g. "org.gnome.SessionManager". In particular, if the settings are
for a specific service that owns a D-Bus bus name, the D-Bus bus name
and schema id should match. For schemas which deal with settings not
associated with one named application, the id should not use
StudlyCaps, e.g. "org.gnome.font-rendering".
In addition to glib::Variant
types, keys can have types that have
enumerated types. These can be described by a <choice>
,
<enum>
or <flags>
element, as seen in the
[example][schema-enumerated]. The underlying type of such a key
is string, but you can use SettingsExt::get_enum
, SettingsExt::set_enum
,
SettingsExt::get_flags
, SettingsExt::set_flags
access the numeric values
corresponding to the string value of enum and flags keys.
An example for default value:
<schemalist>
<schema id="org.gtk.Test" path="/org/gtk/Test/" gettext-domain="test">
<key name="greeting" type="s">
<default l10n="messages">"Hello, earthlings"</default>
<summary>A greeting</summary>
<description>
Greeting of the invading martians
</description>
</key>
<key name="box" type="(ii)">
<default>(20,30)</default>
</key>
<key name="empty-string" type="s">
<default>""</default>
<summary>Empty strings have to be provided in GVariant form</summary>
</key>
</schema>
</schemalist>
An example for ranges, choices and enumerated types:
<schemalist>
<enum id="org.gtk.Test.myenum">
<value nick="first" value="1"/>
<value nick="second" value="2"/>
</enum>
<flags id="org.gtk.Test.myflags">
<value nick="flag1" value="1"/>
<value nick="flag2" value="2"/>
<value nick="flag3" value="4"/>
</flags>
<schema id="org.gtk.Test">
<key name="key-with-range" type="i">
<range min="1" max="100"/>
<default>10</default>
</key>
<key name="key-with-choices" type="s">
<choices>
<choice value='Elisabeth'/>
<choice value='Annabeth'/>
<choice value='Joe'/>
</choices>
<aliases>
<alias value='Anna' target='Annabeth'/>
<alias value='Beth' target='Elisabeth'/>
</aliases>
<default>'Joe'</default>
</key>
<key name='enumerated-key' enum='org.gtk.Test.myenum'>
<default>'first'</default>
</key>
<key name='flags-key' flags='org.gtk.Test.myflags'>
<default>["flag1","flag2"]</default>
</key>
</schema>
</schemalist>
Vendor overrides
Default values are defined in the schemas that get installed by an application. Sometimes, it is necessary for a vendor or distributor to adjust these defaults. Since patching the XML source for the schema is inconvenient and error-prone, [glib-compile-schemas][glib-compile-schemas] reads so-called vendor override' files. These are keyfiles in the same directory as the XML schema sources which can override default values. The schema id serves as the group name in the key file, and the values are expected in serialized GVariant form, as in the following example:
[org.gtk.Example]
key1='string'
key2=1.5
glib-compile-schemas expects schema files to have the extension
.gschema.override
.
Binding
A very convenient feature of GSettings lets you bind gobject::Object
properties
directly to settings, using SettingsExt::bind
. Once a GObject property
has been bound to a setting, changes on either side are automatically
propagated to the other side. GSettings handles details like mapping
between GObject and GVariant types, and preventing infinite cycles.
This makes it very easy to hook up a preferences dialog to the
underlying settings. To make this even more convenient, GSettings
looks for a boolean property with the name "sensitivity" and
automatically binds it to the writability of the bound setting.
If this 'magic' gets in the way, it can be suppressed with the
SettingsBindFlags::NoSensitivity
flag.
Relocatable schemas # {gsettings
-relocatable}
A relocatable schema is one with no path
attribute specified on its
<schema>
element. By using Settings::new_with_path
, a Settings
object
can be instantiated for a relocatable schema, assigning a path to the
instance. Paths passed to Settings::new_with_path
will typically be
constructed dynamically from a constant prefix plus some form of instance
identifier; but they must still be valid GSettings paths. Paths could also
be constant and used with a globally installed schema originating from a
dependency library.
For example, a relocatable schema could be used to store geometry information
for different windows in an application. If the schema ID was
org.foo.MyApp.Window
, it could be instantiated for paths
/org/foo/MyApp/main/
, /org/foo/MyApp/document-1/
,
/org/foo/MyApp/document-2/
, etc. If any of the paths are well-known
they can be specified as <child>
elements in the parent schema, e.g.:
<schema id="org.foo.MyApp" path="/org/foo/MyApp/">
<child name="main" schema="org.foo.MyApp.Window"/>
</schema>
Build system integration # {gsettings
-build-system}
GSettings comes with autotools integration to simplify compiling and
installing schemas. To add GSettings support to an application, add the
following to your configure.ac
:
GLIB_GSETTINGS
In the appropriate Makefile.am
, use the following snippet to compile and
install the named schema:
gsettings_SCHEMAS = org.foo.MyApp.gschema.xml
EXTRA_DIST = $(gsettings_SCHEMAS)
@GSETTINGS_RULES@
No changes are needed to the build system to mark a schema XML file for
translation. Assuming it sets the gettext-domain
attribute, a schema may
be marked for translation by adding it to POTFILES.in
, assuming gettext
0.19 is in use (the preferred method for translation):
data/org.foo.MyApp.gschema.xml
Alternatively, if intltool 0.50.1 is in use:
[type: gettext/gsettings]data/org.foo.MyApp.gschema.xml
GSettings will use gettext to look up translations for the <summary>
and
<description>
elements, and also any <default>
elements which have a l10n
attribute set. Translations must not be included in the .gschema.xml
file
by the build system, for example by using intltool XML rules with a
.gschema.xml.in
template.
If an enumerated type defined in a C header file is to be used in a GSettings
schema, it can either be defined manually using an <enum>
element in the
schema XML, or it can be extracted automatically from the C header. This
approach is preferred, as it ensures the two representations are always
synchronised. To do so, add the following to the relevant Makefile.am
:
gsettings_ENUM_NAMESPACE = org.foo.MyApp
gsettings_ENUM_FILES = my-app-enums.h my-app-misc.h
gsettings_ENUM_NAMESPACE
specifies the schema namespace for the enum files,
which are specified in gsettings_ENUM_FILES
. This will generate a
org.foo.MyApp.enums.xml
file containing the extracted enums, which will be
automatically included in the schema compilation, install and uninstall
rules. It should not be committed to version control or included in
EXTRA_DIST
.
Implements
Methods
impl Settings
[src]
pub fn new(schema_id: &str) -> Settings
[src]
Creates a new Settings
object with the schema specified by
schema_id
.
Signals on the newly created Settings
object will be dispatched
via the thread-default glib::MainContext
in effect at the time of the
call to Settings::new
. The new Settings
will hold a reference
on the context. See glib::MainContext::push_thread_default
.
schema_id
the id of the schema
Returns
a new Settings
object
pub fn new_full<P: IsA<SettingsBackend>>(
schema: &SettingsSchema,
backend: Option<&P>,
path: Option<&str>
) -> Settings
[src]
schema: &SettingsSchema,
backend: Option<&P>,
path: Option<&str>
) -> Settings
Creates a new Settings
object with a given schema, backend and
path.
It should be extremely rare that you ever want to use this function. It is made available for advanced use-cases (such as plugin systems that want to provide access to schemas loaded from custom locations, etc).
At the most basic level, a Settings
object is a pure composition of
4 things: a SettingsSchema
, a SettingsBackend
, a path within that
backend, and a glib::MainContext
to which signals are dispatched.
This constructor therefore gives you full control over constructing
Settings
instances. The first 3 parameters are given directly as
schema
, backend
and path
, and the main context is taken from the
thread-default (as per Settings::new
).
If backend
is None
then the default backend is used.
If path
is None
then the path from the schema is used. It is an
error if path
is None
and the schema has no path of its own or if
path
is non-None
and not equal to the path that the schema does
have.
schema
a SettingsSchema
backend
a SettingsBackend
path
the path to use
Returns
a new Settings
object
pub fn new_with_backend<P: IsA<SettingsBackend>>(
schema_id: &str,
backend: &P
) -> Settings
[src]
schema_id: &str,
backend: &P
) -> Settings
Creates a new Settings
object with the schema specified by
schema_id
and a given SettingsBackend
.
Creating a Settings
object with a different backend allows accessing
settings from a database other than the usual one. For example, it may make
sense to pass a backend corresponding to the "defaults" settings database on
the system to get a settings object that modifies the system default
settings instead of the settings for this user.
schema_id
the id of the schema
backend
the SettingsBackend
to use
Returns
a new Settings
object
pub fn new_with_backend_and_path<P: IsA<SettingsBackend>>(
schema_id: &str,
backend: &P,
path: &str
) -> Settings
[src]
schema_id: &str,
backend: &P,
path: &str
) -> Settings
Creates a new Settings
object with the schema specified by
schema_id
and a given SettingsBackend
and path.
This is a mix of Settings::new_with_backend
and
Settings::new_with_path
.
schema_id
the id of the schema
backend
the SettingsBackend
to use
path
the path to use
Returns
a new Settings
object
pub fn new_with_path(schema_id: &str, path: &str) -> Settings
[src]
Creates a new Settings
object with the relocatable schema specified
by schema_id
and a given path.
You only need to do this if you want to directly create a settings object with a schema that doesn't have a specified path of its own. That's quite rare.
It is a programmer error to call this function for a schema that has an explicitly specified path.
It is a programmer error if path
is not a valid path. A valid path
begins and ends with '/' and does not contain two consecutive '/'
characters.
schema_id
the id of the schema
path
the path to use
Returns
a new Settings
object
pub fn sync()
[src]
Ensures that all pending operations are complete for the default backend.
Writes made to a Settings
are handled asynchronously. For this
reason, it is very unlikely that the changes have it to disk by the
time SettingsExt::set
returns.
This call will block until all of the writes have made it to the backend. Since the mainloop is not running, no change notifications will be dispatched during this call (but some may be queued by the time the call is done).
pub fn unbind<P: IsA<Object>>(object: &P, property: &str)
[src]
Trait Implementations
impl Clone for Settings
fn clone(&self) -> Settings
fn clone_from(&mut self, source: &Self)
1.0.0[src]
impl Debug for Settings
impl Display for Settings
[src]
impl Eq for Settings
impl Hash for Settings
fn hash<__H: Hasher>(&self, state: &mut __H)
fn hash_slice<H>(data: &[Self], state: &mut H) where
H: Hasher,
1.3.0[src]
H: Hasher,
impl Ord for Settings
fn cmp(&self, other: &Settings) -> Ordering
#[must_use]
fn max(self, other: Self) -> Self
1.21.0[src]
#[must_use]
fn min(self, other: Self) -> Self
1.21.0[src]
#[must_use]
fn clamp(self, min: Self, max: Self) -> Self
[src]
impl<T: ObjectType> PartialEq<T> for Settings
impl<T: ObjectType> PartialOrd<T> for Settings
fn partial_cmp(&self, other: &T) -> Option<Ordering>
#[must_use]
fn lt(&self, other: &Rhs) -> bool
1.0.0[src]
#[must_use]
fn le(&self, other: &Rhs) -> bool
1.0.0[src]
#[must_use]
fn gt(&self, other: &Rhs) -> bool
1.0.0[src]
#[must_use]
fn ge(&self, other: &Rhs) -> bool
1.0.0[src]
impl StaticType for Settings
fn static_type() -> Type
Auto Trait Implementations
impl RefUnwindSafe for Settings
impl !Send for Settings
impl !Sync for Settings
impl Unpin for Settings
impl UnwindSafe for Settings
Blanket Implementations
impl<T> Any for T where
T: 'static + ?Sized,
[src]
T: 'static + ?Sized,
impl<T> Borrow<T> for T where
T: ?Sized,
[src]
T: ?Sized,
impl<T> BorrowMut<T> for T where
T: ?Sized,
[src]
T: ?Sized,
fn borrow_mut(&mut self) -> &mut T
[src]
impl<Super, Sub> CanDowncast<Sub> for Super where
Sub: IsA<Super>,
Super: IsA<Super>,
[src]
Sub: IsA<Super>,
Super: IsA<Super>,
impl<T> Cast for T where
T: ObjectType,
[src]
T: ObjectType,
fn upcast<T>(self) -> T where
Self: IsA<T>,
T: ObjectType,
[src]
Self: IsA<T>,
T: ObjectType,
fn upcast_ref<T>(&self) -> &T where
Self: IsA<T>,
T: ObjectType,
[src]
Self: IsA<T>,
T: ObjectType,
fn downcast<T>(self) -> Result<T, Self> where
Self: CanDowncast<T>,
T: ObjectType,
[src]
Self: CanDowncast<T>,
T: ObjectType,
fn downcast_ref<T>(&self) -> Option<&T> where
Self: CanDowncast<T>,
T: ObjectType,
[src]
Self: CanDowncast<T>,
T: ObjectType,
fn dynamic_cast<T>(self) -> Result<T, Self> where
T: ObjectType,
[src]
T: ObjectType,
fn dynamic_cast_ref<T>(&self) -> Option<&T> where
T: ObjectType,
[src]
T: ObjectType,
unsafe fn unsafe_cast<T>(self) -> T where
T: ObjectType,
[src]
T: ObjectType,
unsafe fn unsafe_cast_ref<T>(&self) -> &T where
T: ObjectType,
[src]
T: ObjectType,
impl<T> From<T> for T
[src]
impl<T, U> Into<U> for T where
U: From<T>,
[src]
U: From<T>,
impl<T> ObjectExt for T where
T: ObjectType,
[src]
T: ObjectType,
fn is<U>(&self) -> bool where
U: StaticType,
[src]
U: StaticType,
fn get_type(&self) -> Type
[src]
fn get_object_class(&self) -> &ObjectClass
[src]
fn set_property<'a, N>(
&self,
property_name: N,
value: &dyn ToValue
) -> Result<(), BoolError> where
N: Into<&'a str>,
[src]
&self,
property_name: N,
value: &dyn ToValue
) -> Result<(), BoolError> where
N: Into<&'a str>,
fn get_property<'a, N>(&self, property_name: N) -> Result<Value, BoolError> where
N: Into<&'a str>,
[src]
N: Into<&'a str>,
fn block_signal(&self, handler_id: &SignalHandlerId)
[src]
fn unblock_signal(&self, handler_id: &SignalHandlerId)
[src]
fn stop_signal_emission(&self, signal_name: &str)
[src]
fn disconnect(&self, handler_id: SignalHandlerId)
[src]
fn connect_notify<F>(&self, name: Option<&str>, f: F) -> SignalHandlerId where
F: 'static + Send + Sync + Fn(&T, &ParamSpec),
[src]
F: 'static + Send + Sync + Fn(&T, &ParamSpec),
unsafe fn connect_notify_unsafe<F>(
&self,
name: Option<&str>,
f: F
) -> SignalHandlerId where
F: Fn(&T, &ParamSpec),
[src]
&self,
name: Option<&str>,
f: F
) -> SignalHandlerId where
F: Fn(&T, &ParamSpec),
fn notify<'a, N>(&self, property_name: N) where
N: Into<&'a str>,
[src]
N: Into<&'a str>,
fn notify_by_pspec(&self, pspec: &ParamSpec)
[src]
fn has_property<'a, N>(
&self,
property_name: N,
type_: Option<Type>
) -> Result<(), BoolError> where
N: Into<&'a str>,
[src]
&self,
property_name: N,
type_: Option<Type>
) -> Result<(), BoolError> where
N: Into<&'a str>,
fn get_property_type<'a, N>(&self, property_name: N) -> Option<Type> where
N: Into<&'a str>,
[src]
N: Into<&'a str>,
fn find_property<'a, N>(&self, property_name: N) -> Option<ParamSpec> where
N: Into<&'a str>,
[src]
N: Into<&'a str>,
fn list_properties(&self) -> Vec<ParamSpec>
[src]
fn connect<'a, N, F>(
&self,
signal_name: N,
after: bool,
callback: F
) -> Result<SignalHandlerId, BoolError> where
F: Fn(&[Value]) -> Option<Value> + Send + Sync + 'static,
N: Into<&'a str>,
[src]
&self,
signal_name: N,
after: bool,
callback: F
) -> Result<SignalHandlerId, BoolError> where
F: Fn(&[Value]) -> Option<Value> + Send + Sync + 'static,
N: Into<&'a str>,
fn connect_local<'a, N, F>(
&self,
signal_name: N,
after: bool,
callback: F
) -> Result<SignalHandlerId, BoolError> where
F: Fn(&[Value]) -> Option<Value> + 'static,
N: Into<&'a str>,
[src]
&self,
signal_name: N,
after: bool,
callback: F
) -> Result<SignalHandlerId, BoolError> where
F: Fn(&[Value]) -> Option<Value> + 'static,
N: Into<&'a str>,
unsafe fn connect_unsafe<'a, N, F>(
&self,
signal_name: N,
after: bool,
callback: F
) -> Result<SignalHandlerId, BoolError> where
F: Fn(&[Value]) -> Option<Value>,
N: Into<&'a str>,
[src]
&self,
signal_name: N,
after: bool,
callback: F
) -> Result<SignalHandlerId, BoolError> where
F: Fn(&[Value]) -> Option<Value>,
N: Into<&'a str>,
fn emit<'a, N>(
&self,
signal_name: N,
args: &[&dyn ToValue]
) -> Result<Option<Value>, BoolError> where
N: Into<&'a str>,
[src]
&self,
signal_name: N,
args: &[&dyn ToValue]
) -> Result<Option<Value>, BoolError> where
N: Into<&'a str>,
fn downgrade(&self) -> WeakRef<T>
[src]
fn bind_property<'a, O, N, M>(
&'a self,
source_property: N,
target: &'a O,
target_property: M
) -> BindingBuilder<'a> where
M: Into<&'a str>,
N: Into<&'a str>,
O: ObjectType,
[src]
&'a self,
source_property: N,
target: &'a O,
target_property: M
) -> BindingBuilder<'a> where
M: Into<&'a str>,
N: Into<&'a str>,
O: ObjectType,
fn ref_count(&self) -> u32
[src]
impl<'a, T> ToGlibContainerFromSlice<'a, *const GList> for T where
T: GlibPtrDefault + ToGlibPtr<'a, <T as GlibPtrDefault>::GlibType>,
[src]
T: GlibPtrDefault + ToGlibPtr<'a, <T as GlibPtrDefault>::GlibType>,
type Storage = (Option<List>, Vec<Stash<'a, <T as GlibPtrDefault>::GlibType, T>>)
fn to_glib_none_from_slice(
t: &'a [T]
) -> (*const GList, <T as ToGlibContainerFromSlice<'a, *const GList>>::Storage)
[src]
t: &'a [T]
) -> (*const GList, <T as ToGlibContainerFromSlice<'a, *const GList>>::Storage)
fn to_glib_container_from_slice(
_t: &'a [T]
) -> (*const GList, <T as ToGlibContainerFromSlice<'a, *const GList>>::Storage)
[src]
_t: &'a [T]
) -> (*const GList, <T as ToGlibContainerFromSlice<'a, *const GList>>::Storage)
fn to_glib_full_from_slice(_t: &[T]) -> *const GList
[src]
impl<'a, T> ToGlibContainerFromSlice<'a, *const GPtrArray> for T where
T: GlibPtrDefault + ToGlibPtr<'a, <T as GlibPtrDefault>::GlibType>,
[src]
T: GlibPtrDefault + ToGlibPtr<'a, <T as GlibPtrDefault>::GlibType>,
type Storage = (Option<PtrArray>, Vec<Stash<'a, <T as GlibPtrDefault>::GlibType, T>>)
fn to_glib_none_from_slice(
t: &'a [T]
) -> (*const GPtrArray, <T as ToGlibContainerFromSlice<'a, *const GPtrArray>>::Storage)
[src]
t: &'a [T]
) -> (*const GPtrArray, <T as ToGlibContainerFromSlice<'a, *const GPtrArray>>::Storage)
fn to_glib_container_from_slice(
_t: &'a [T]
) -> (*const GPtrArray, <T as ToGlibContainerFromSlice<'a, *const GPtrArray>>::Storage)
[src]
_t: &'a [T]
) -> (*const GPtrArray, <T as ToGlibContainerFromSlice<'a, *const GPtrArray>>::Storage)
fn to_glib_full_from_slice(_t: &[T]) -> *const GPtrArray
[src]
impl<'a, T> ToGlibContainerFromSlice<'a, *mut GArray> for T where
T: GlibPtrDefault + ToGlibPtr<'a, <T as GlibPtrDefault>::GlibType>,
[src]
T: GlibPtrDefault + ToGlibPtr<'a, <T as GlibPtrDefault>::GlibType>,
type Storage = (Option<Array>, Vec<Stash<'a, <T as GlibPtrDefault>::GlibType, T>>)
fn to_glib_none_from_slice(
t: &'a [T]
) -> (*mut GArray, <T as ToGlibContainerFromSlice<'a, *mut GArray>>::Storage)
[src]
t: &'a [T]
) -> (*mut GArray, <T as ToGlibContainerFromSlice<'a, *mut GArray>>::Storage)
fn to_glib_container_from_slice(
t: &'a [T]
) -> (*mut GArray, <T as ToGlibContainerFromSlice<'a, *mut GArray>>::Storage)
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t: &'a [T]
) -> (*mut GArray, <T as ToGlibContainerFromSlice<'a, *mut GArray>>::Storage)
fn to_glib_full_from_slice(t: &[T]) -> *mut GArray
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impl<'a, T> ToGlibContainerFromSlice<'a, *mut GList> for T where
T: GlibPtrDefault + ToGlibPtr<'a, <T as GlibPtrDefault>::GlibType>,
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T: GlibPtrDefault + ToGlibPtr<'a, <T as GlibPtrDefault>::GlibType>,
type Storage = (Option<List>, Vec<Stash<'a, <T as GlibPtrDefault>::GlibType, T>>)
fn to_glib_none_from_slice(
t: &'a [T]
) -> (*mut GList, <T as ToGlibContainerFromSlice<'a, *mut GList>>::Storage)
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t: &'a [T]
) -> (*mut GList, <T as ToGlibContainerFromSlice<'a, *mut GList>>::Storage)
fn to_glib_container_from_slice(
t: &'a [T]
) -> (*mut GList, <T as ToGlibContainerFromSlice<'a, *mut GList>>::Storage)
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t: &'a [T]
) -> (*mut GList, <T as ToGlibContainerFromSlice<'a, *mut GList>>::Storage)
fn to_glib_full_from_slice(t: &[T]) -> *mut GList
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impl<'a, T> ToGlibContainerFromSlice<'a, *mut GPtrArray> for T where
T: GlibPtrDefault + ToGlibPtr<'a, <T as GlibPtrDefault>::GlibType>,
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T: GlibPtrDefault + ToGlibPtr<'a, <T as GlibPtrDefault>::GlibType>,
type Storage = (Option<PtrArray>, Vec<Stash<'a, <T as GlibPtrDefault>::GlibType, T>>)
fn to_glib_none_from_slice(
t: &'a [T]
) -> (*mut GPtrArray, <T as ToGlibContainerFromSlice<'a, *mut GPtrArray>>::Storage)
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t: &'a [T]
) -> (*mut GPtrArray, <T as ToGlibContainerFromSlice<'a, *mut GPtrArray>>::Storage)
fn to_glib_container_from_slice(
t: &'a [T]
) -> (*mut GPtrArray, <T as ToGlibContainerFromSlice<'a, *mut GPtrArray>>::Storage)
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t: &'a [T]
) -> (*mut GPtrArray, <T as ToGlibContainerFromSlice<'a, *mut GPtrArray>>::Storage)
fn to_glib_full_from_slice(t: &[T]) -> *mut GPtrArray
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impl<T> ToOwned for T where
T: Clone,
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T: Clone,
type Owned = T
The resulting type after obtaining ownership.
fn to_owned(&self) -> T
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fn clone_into(&self, target: &mut T)
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impl<T> ToString for T where
T: Display + ?Sized,
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T: Display + ?Sized,
impl<T> ToValue for T where
T: SetValue + ?Sized,
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T: SetValue + ?Sized,
impl<T, U> TryFrom<U> for T where
U: Into<T>,
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U: Into<T>,
type Error = Infallible
The type returned in the event of a conversion error.
fn try_from(value: U) -> Result<T, <T as TryFrom<U>>::Error>
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impl<T, U> TryInto<U> for T where
U: TryFrom<T>,
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U: TryFrom<T>,