Update SCTK to 0.11.0

* Update SCTK to 0.11.0

Updates smithay-client-toolkit to 0.11.0. The major highlight
of that updated, is update of wayland-rs to 0.27.0. Switching
to wayland-cursor, instead of using libwayland-cursor. It
also fixes the following bugs:

  - Disabled repeat rate not being handled.
  - Decoration buttons not working after tty switch.
  - Scaling not being applied on output reenable.
  - Crash when `XCURSOR_SIZE` is `0`.
  - Pointer getting created in some cases without pointer capability.
  - On kwin, fix space between window and decorations on startup.
  - Incorrect size event when entering fullscreen when using
    client side decorations.
  - Client side decorations not being hided properly in fullscreen.
  - Size tracking between fullscreen/tiled state changes.
  - Repeat rate triggering multiple times from slow callback handler.
  - Resizable attribute not being applied properly on startup.
  - Not working IME

Besides those fixes it also adds a bunch of missing virtual key codes,
implements proper cursor grabbing, adds right click on decorations
to open application menu, disabled maximize button for non-resizeable
window, and fall back for cursor icon to similar ones, if the requested
is missing.

It also adds new methods to a `Theme` trait, such as:
  - `title_font(&self) -> Option<(String, f32)>` - The font for a title.
  - `title_color(&self, window_active: bool) -> [u8; 4]` - The color of
  the text in the title.

Fixes #1680.
Fixes #1678.
Fixes #1676.
Fixes #1646.
Fixes #1614.
Fixes #1601.
Fixes #1533.
Fixes #1509.
Fixes #952.
Fixes #947.
This commit is contained in:
Kirill Chibisov 2020-09-29 00:11:43 +03:00 committed by GitHub
parent 471b1e003a
commit 3d85af04be
No known key found for this signature in database
GPG key ID: 4AEE18F83AFDEB23
31 changed files with 3791 additions and 2630 deletions

View file

@ -44,6 +44,23 @@
- On Web, `WindowEvent::Resized` is now emitted when `Window::set_inner_size` is called.
- **Breaking:** `Fullscreen` enum now uses `Borderless(Option<MonitorHandle>)` instead of `Borderless(MonitorHandle)` to allow picking the current monitor.
- On MacOS, fix `WindowEvent::Moved` ignoring the scale factor.
- On Wayland, add missing virtual keycodes.
- On Wayland, implement proper `set_cursor_grab`.
- On Wayland, the cursor will use similar icons if the requested one isn't available.
- On Wayland, right clicking on client side decorations will request application menu.
- On Wayland, fix tracking of window size after state changes.
- On Wayland, fix client side decorations not being hidden properly in fullscreen.
- On Wayland, fix incorrect size event when entering fullscreen with client side decorations.
- On Wayland, fix `resizable` attribute not being applied properly on startup.
- On Wayland, fix disabled repeat rate not being handled.
- On Wayland, fix decoration buttons not working after tty switch.
- On Wayland, fix scaling not being applied on output re-enable.
- On Wayland, fix crash when `XCURSOR_SIZE` is `0`.
- On Wayland, fix pointer getting created in some cases without pointer capability.
- On Wayland, on kwin, fix space between window and decorations on startup.
- **Breaking:** On Wayland, `Theme` trait was reworked.
- On Wayland, disable maximize button for non-resizable window.
- On Wayland, added support for `set_ime_position`.
# 0.22.2 (2020-05-16)

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@ -21,7 +21,7 @@ default = ["x11", "wayland"]
web-sys = ["web_sys", "wasm-bindgen", "instant/wasm-bindgen"]
stdweb = ["std_web", "instant/stdweb"]
x11 = ["x11-dl"]
wayland = ["wayland-client", "smithay-client-toolkit"]
wayland = ["wayland-client", "sctk"]
[dependencies]
instant = "0.1"
@ -81,10 +81,10 @@ features = [
]
[target.'cfg(any(target_os = "linux", target_os = "dragonfly", target_os = "freebsd", target_os = "openbsd", target_os = "netbsd"))'.dependencies]
wayland-client = { version = "0.23.0", features = [ "dlopen", "egl", "cursor", "eventloop"] , optional = true }
wayland-client = { version = "0.27", features = [ "dlopen"] , optional = true }
sctk = { package = "smithay-client-toolkit", version = "0.11", optional = true }
mio = "0.6"
mio-extras = "2.0"
smithay-client-toolkit = { version = "^0.6.6", optional = true }
x11-dl = { version = "2.18.5", optional = true }
percent-encoding = "2.0"

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@ -2,7 +2,11 @@
target_os = "windows",
target_os = "macos",
target_os = "android",
target_os = "linux", target_os = "dragonfly", target_os = "freebsd", target_os = "netbsd", target_os = "openbsd"
target_os = "linux",
target_os = "dragonfly",
target_os = "freebsd",
target_os = "netbsd",
target_os = "openbsd"
))]
use crate::{

View file

@ -1,12 +1,15 @@
#![cfg(any(target_os = "linux", target_os = "dragonfly", target_os = "freebsd", target_os = "netbsd", target_os = "openbsd"))]
#![cfg(any(
target_os = "linux",
target_os = "dragonfly",
target_os = "freebsd",
target_os = "netbsd",
target_os = "openbsd"
))]
use std::os::raw;
#[cfg(feature = "x11")]
use std::{ptr, sync::Arc};
#[cfg(feature = "wayland")]
use smithay_client_toolkit::window::{ButtonState as SCTKButtonState, Theme as SCTKTheme};
use crate::{
event_loop::{EventLoop, EventLoopWindowTarget},
monitor::MonitorHandle,
@ -328,7 +331,7 @@ impl WindowExtUnix for Window {
#[cfg(feature = "wayland")]
fn wayland_display(&self) -> Option<*mut raw::c_void> {
match self.window {
LinuxWindow::Wayland(ref w) => Some(w.display().as_ref().c_ptr() as *mut _),
LinuxWindow::Wayland(ref w) => Some(w.display().get_display_ptr() as *mut _),
#[cfg(feature = "x11")]
_ => None,
}
@ -338,7 +341,7 @@ impl WindowExtUnix for Window {
#[cfg(feature = "wayland")]
fn set_wayland_theme<T: Theme>(&self, theme: T) {
match self.window {
LinuxWindow::Wayland(ref w) => w.set_theme(WaylandTheme(theme)),
LinuxWindow::Wayland(ref w) => w.set_theme(theme),
#[cfg(feature = "x11")]
_ => {}
}
@ -466,83 +469,50 @@ impl MonitorHandleExtUnix for MonitorHandle {
}
}
/// Wrapper for implementing SCTK's theme trait.
/// A theme for a Wayland's client side decorations.
#[cfg(feature = "wayland")]
struct WaylandTheme<T: Theme>(T);
pub trait Theme: Send + 'static {
/// Primary color of the scheme.
fn primary_color(&self, window_active: bool) -> [u8; 4];
/// Title bar color.
fn element_color(&self, element: Element, window_active: bool) -> ARGBColor;
/// Secondary color of the scheme.
fn secondary_color(&self, window_active: bool) -> [u8; 4];
/// Color for a given button part.
fn button_color(
&self,
button: Button,
state: ButtonState,
foreground: bool,
window_active: bool,
) -> ARGBColor;
/// Color for the close button.
fn close_button_color(&self, status: ButtonState) -> [u8; 4];
/// Icon color for the close button, defaults to the secondary color.
#[allow(unused_variables)]
fn close_button_icon_color(&self, status: ButtonState) -> [u8; 4] {
self.secondary_color(true)
}
/// Background color for the maximize button.
fn maximize_button_color(&self, status: ButtonState) -> [u8; 4];
/// Icon color for the maximize button, defaults to the secondary color.
#[allow(unused_variables)]
fn maximize_button_icon_color(&self, status: ButtonState) -> [u8; 4] {
self.secondary_color(true)
}
/// Background color for the minimize button.
fn minimize_button_color(&self, status: ButtonState) -> [u8; 4];
/// Icon color for the minimize button, defaults to the secondary color.
#[allow(unused_variables)]
fn minimize_button_icon_color(&self, status: ButtonState) -> [u8; 4] {
self.secondary_color(true)
/// Font name and the size for the title bar.
///
/// By default the font is `sans-serif` at the size of 11.
///
/// Returning `None` means that title won't be drawn.
fn font(&self) -> Option<(String, f32)> {
// Not having any title isn't something desirable for the users, so setting it to
// something generic.
Some((String::from("sans-serif"), 11.))
}
}
/// A button on Wayland's client side decorations.
#[cfg(feature = "wayland")]
impl<T: Theme> SCTKTheme for WaylandTheme<T> {
fn get_primary_color(&self, active: bool) -> [u8; 4] {
self.0.primary_color(active)
}
#[derive(Clone, Copy, Debug, PartialEq, Eq)]
pub enum Button {
/// Button that maximizes the window.
Maximize,
fn get_secondary_color(&self, active: bool) -> [u8; 4] {
self.0.secondary_color(active)
}
/// Button that minimizes the window.
Minimize,
fn get_close_button_color(&self, status: SCTKButtonState) -> [u8; 4] {
self.0.close_button_color(ButtonState::from_sctk(status))
}
fn get_close_button_icon_color(&self, status: SCTKButtonState) -> [u8; 4] {
self.0
.close_button_icon_color(ButtonState::from_sctk(status))
}
fn get_maximize_button_color(&self, status: SCTKButtonState) -> [u8; 4] {
self.0.maximize_button_color(ButtonState::from_sctk(status))
}
fn get_maximize_button_icon_color(&self, status: SCTKButtonState) -> [u8; 4] {
self.0
.maximize_button_icon_color(ButtonState::from_sctk(status))
}
fn get_minimize_button_color(&self, status: SCTKButtonState) -> [u8; 4] {
self.0.minimize_button_color(ButtonState::from_sctk(status))
}
fn get_minimize_button_icon_color(&self, status: SCTKButtonState) -> [u8; 4] {
self.0
.minimize_button_icon_color(ButtonState::from_sctk(status))
}
/// Button that closes the window.
Close,
}
/// A button state of the button on Wayland's client side decorations.
#[cfg(feature = "wayland")]
#[derive(Clone, Copy, Debug, PartialEq, Eq)]
pub enum ButtonState {
/// Button is being hovered over by pointer.
Hovered,
@ -553,12 +523,23 @@ pub enum ButtonState {
}
#[cfg(feature = "wayland")]
impl ButtonState {
fn from_sctk(button_state: SCTKButtonState) -> Self {
match button_state {
SCTKButtonState::Hovered => Self::Hovered,
SCTKButtonState::Idle => Self::Idle,
SCTKButtonState::Disabled => Self::Disabled,
}
}
#[derive(Clone, Copy, Debug, PartialEq, Eq)]
pub enum Element {
/// Bar itself.
Bar,
/// Separator between window and title bar.
Separator,
/// Title bar text.
Text,
}
#[cfg(feature = "wayland")]
#[derive(Clone, Copy, Debug, PartialEq, Eq)]
pub struct ARGBColor {
pub a: u8,
pub r: u8,
pub g: u8,
pub b: u8,
}

View file

@ -9,6 +9,8 @@
#[cfg(all(not(feature = "x11"), not(feature = "wayland")))]
compile_error!("Please select a feature to build for unix: `x11`, `wayland`");
#[cfg(feature = "wayland")]
use std::error::Error;
use std::{collections::VecDeque, env, fmt};
#[cfg(feature = "x11")]
use std::{ffi::CStr, mem::MaybeUninit, os::raw::*, sync::Arc};
@ -16,8 +18,6 @@ use std::{ffi::CStr, mem::MaybeUninit, os::raw::*, sync::Arc};
#[cfg(feature = "x11")]
use parking_lot::Mutex;
use raw_window_handle::RawWindowHandle;
#[cfg(feature = "wayland")]
use smithay_client_toolkit::reexports::client::ConnectError;
#[cfg(feature = "x11")]
pub use self::x11::XNotSupported;
@ -108,6 +108,8 @@ pub enum OsError {
XError(XError),
#[cfg(feature = "x11")]
XMisc(&'static str),
#[cfg(feature = "wayland")]
WaylandMisc(&'static str),
}
impl fmt::Display for OsError {
@ -117,6 +119,8 @@ impl fmt::Display for OsError {
OsError::XError(ref e) => _f.pad(&e.description),
#[cfg(feature = "x11")]
OsError::XMisc(ref e) => _f.pad(e),
#[cfg(feature = "wayland")]
OsError::WaylandMisc(ref e) => _f.pad(e),
}
}
}
@ -410,13 +414,8 @@ impl Window {
}
#[inline]
pub fn set_ime_position(&self, _position: Position) {
match self {
#[cfg(feature = "x11")]
&Window::X(ref w) => w.set_ime_position(_position),
#[cfg(feature = "wayland")]
_ => (),
}
pub fn set_ime_position(&self, position: Position) {
x11_or_wayland!(match self; Window(w) => w.set_ime_position(position))
}
#[inline]
@ -597,14 +596,14 @@ impl<T: 'static> EventLoop<T> {
}
#[cfg(feature = "wayland")]
pub fn new_wayland() -> Result<EventLoop<T>, ConnectError> {
pub fn new_wayland() -> Result<EventLoop<T>, Box<dyn Error>> {
assert_is_main_thread("new_wayland_any_thread");
EventLoop::new_wayland_any_thread()
}
#[cfg(feature = "wayland")]
pub fn new_wayland_any_thread() -> Result<EventLoop<T>, ConnectError> {
pub fn new_wayland_any_thread() -> Result<EventLoop<T>, Box<dyn Error>> {
wayland::EventLoop::new().map(EventLoop::Wayland)
}

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@ -0,0 +1,149 @@
//! SCTK environment setup.
use sctk::reexports::client::protocol::wl_compositor::WlCompositor;
use sctk::reexports::client::protocol::wl_output::WlOutput;
use sctk::reexports::protocols::unstable::xdg_shell::v6::client::zxdg_shell_v6::ZxdgShellV6;
use sctk::reexports::client::protocol::wl_seat::WlSeat;
use sctk::reexports::protocols::unstable::xdg_decoration::v1::client::zxdg_decoration_manager_v1::ZxdgDecorationManagerV1;
use sctk::reexports::client::protocol::wl_shell::WlShell;
use sctk::reexports::client::protocol::wl_subcompositor::WlSubcompositor;
use sctk::reexports::client::{Attached, DispatchData};
use sctk::reexports::client::protocol::wl_shm::WlShm;
use sctk::reexports::protocols::xdg_shell::client::xdg_wm_base::XdgWmBase;
use sctk::reexports::protocols::unstable::relative_pointer::v1::client::zwp_relative_pointer_manager_v1::ZwpRelativePointerManagerV1;
use sctk::reexports::protocols::unstable::pointer_constraints::v1::client::zwp_pointer_constraints_v1::ZwpPointerConstraintsV1;
use sctk::reexports::protocols::unstable::text_input::v3::client::zwp_text_input_manager_v3::ZwpTextInputManagerV3;
use sctk::environment::{Environment, SimpleGlobal};
use sctk::output::{OutputHandler, OutputHandling, OutputInfo, OutputStatusListener};
use sctk::seat::{SeatData, SeatHandler, SeatHandling, SeatListener};
use sctk::shell::{Shell, ShellHandler, ShellHandling};
use sctk::shm::ShmHandler;
/// Set of extra features that are supported by the compositor.
#[derive(Debug, Clone, Copy)]
pub struct WindowingFeatures {
cursor_grab: bool,
}
impl WindowingFeatures {
/// Create `WindowingFeatures` based on the presented interfaces.
pub fn new(env: &Environment<WinitEnv>) -> Self {
let cursor_grab = env.get_global::<ZwpPointerConstraintsV1>().is_some();
Self { cursor_grab }
}
pub fn cursor_grab(&self) -> bool {
self.cursor_grab
}
}
sctk::environment!(WinitEnv,
singles = [
WlShm => shm,
WlCompositor => compositor,
WlSubcompositor => subcompositor,
WlShell => shell,
XdgWmBase => shell,
ZxdgShellV6 => shell,
ZxdgDecorationManagerV1 => decoration_manager,
ZwpRelativePointerManagerV1 => relative_pointer_manager,
ZwpPointerConstraintsV1 => pointer_constraints,
ZwpTextInputManagerV3 => text_input_manager,
],
multis = [
WlSeat => seats,
WlOutput => outputs,
]
);
/// The environment that we utilize.
pub struct WinitEnv {
seats: SeatHandler,
outputs: OutputHandler,
shm: ShmHandler,
compositor: SimpleGlobal<WlCompositor>,
subcompositor: SimpleGlobal<WlSubcompositor>,
shell: ShellHandler,
relative_pointer_manager: SimpleGlobal<ZwpRelativePointerManagerV1>,
pointer_constraints: SimpleGlobal<ZwpPointerConstraintsV1>,
text_input_manager: SimpleGlobal<ZwpTextInputManagerV3>,
decoration_manager: SimpleGlobal<ZxdgDecorationManagerV1>,
}
impl WinitEnv {
pub fn new() -> Self {
// Output tracking for available_monitors, etc.
let outputs = OutputHandler::new();
// Keyboard/Pointer/Touch input.
let seats = SeatHandler::new();
// Essential globals.
let shm = ShmHandler::new();
let compositor = SimpleGlobal::new();
let subcompositor = SimpleGlobal::new();
// Gracefully handle shell picking, since SCTK automatically supports multiple
// backends.
let shell = ShellHandler::new();
// Server side decorations.
let decoration_manager = SimpleGlobal::new();
// Device events for pointer.
let relative_pointer_manager = SimpleGlobal::new();
// Pointer grab functionality.
let pointer_constraints = SimpleGlobal::new();
// IME handling.
let text_input_manager = SimpleGlobal::new();
Self {
seats,
outputs,
shm,
compositor,
subcompositor,
shell,
decoration_manager,
relative_pointer_manager,
pointer_constraints,
text_input_manager,
}
}
}
impl ShellHandling for WinitEnv {
fn get_shell(&self) -> Option<Shell> {
self.shell.get_shell()
}
}
impl SeatHandling for WinitEnv {
fn listen<F: FnMut(Attached<WlSeat>, &SeatData, DispatchData<'_>) + 'static>(
&mut self,
f: F,
) -> SeatListener {
self.seats.listen(f)
}
}
impl OutputHandling for WinitEnv {
fn listen<F: FnMut(WlOutput, &OutputInfo, DispatchData<'_>) + 'static>(
&mut self,
f: F,
) -> OutputStatusListener {
self.outputs.listen(f)
}
}

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@ -0,0 +1,539 @@
use std::cell::RefCell;
use std::collections::HashMap;
use std::error::Error;
use std::process;
use std::rc::Rc;
use std::time::{Duration, Instant};
use sctk::reexports::client::protocol::wl_compositor::WlCompositor;
use sctk::reexports::client::protocol::wl_shm::WlShm;
use sctk::reexports::client::Display;
use sctk::reexports::calloop;
use sctk::environment::Environment;
use sctk::seat::pointer::{ThemeManager, ThemeSpec};
use sctk::WaylandSource;
use crate::event::{Event, StartCause, WindowEvent};
use crate::event_loop::{ControlFlow, EventLoopWindowTarget as RootEventLoopWindowTarget};
use crate::platform_impl::platform::sticky_exit_callback;
use super::env::{WindowingFeatures, WinitEnv};
use super::output::OutputManager;
use super::seat::SeatManager;
use super::window::shim::{self, WindowUpdate};
use super::{DeviceId, WindowId};
mod proxy;
mod sink;
mod state;
pub use proxy::EventLoopProxy;
pub use state::WinitState;
use sink::EventSink;
pub struct EventLoopWindowTarget<T> {
/// Wayland display.
pub display: Display,
/// Environment to handle object creation, etc.
pub env: Environment<WinitEnv>,
/// Event loop handle.
pub event_loop_handle: calloop::LoopHandle<WinitState>,
/// Output manager.
pub output_manager: OutputManager,
/// State that we share across callbacks.
pub state: RefCell<WinitState>,
/// Wayland source.
pub wayland_source: Rc<calloop::Source<WaylandSource>>,
/// A proxy to wake up event loop.
pub event_loop_awakener: calloop::ping::Ping,
/// The available windowing features.
pub windowing_features: WindowingFeatures,
/// Theme manager to manage cursors.
///
/// It's being shared amoung all windows to avoid loading
/// multiple similar themes.
pub theme_manager: ThemeManager,
_marker: std::marker::PhantomData<T>,
}
pub struct EventLoop<T: 'static> {
/// Event loop.
event_loop: calloop::EventLoop<WinitState>,
/// Wayland display.
display: Display,
/// Pending user events.
pending_user_events: Rc<RefCell<Vec<T>>>,
/// Sender of user events.
user_events_sender: calloop::channel::Sender<T>,
/// Wayland source of events.
wayland_source: Rc<calloop::Source<WaylandSource>>,
/// Window target.
window_target: RootEventLoopWindowTarget<T>,
/// Output manager.
_seat_manager: SeatManager,
}
impl<T: 'static> EventLoop<T> {
pub fn new() -> Result<EventLoop<T>, Box<dyn Error>> {
// Connect to wayland server and setup event queue.
let display = Display::connect_to_env()?;
let mut event_queue = display.create_event_queue();
let display_proxy = display.attach(event_queue.token());
// Setup environment.
let env = Environment::init(&display_proxy, WinitEnv::new());
// Issue 2 sync roundtrips to initialize environment.
event_queue.sync_roundtrip(&mut (), |_, _, _| unreachable!())?;
event_queue.sync_roundtrip(&mut (), |_, _, _| unreachable!())?;
// Create event loop.
let event_loop = calloop::EventLoop::<WinitState>::new()?;
// Build windowing features.
let windowing_features = WindowingFeatures::new(&env);
// Create a theme manager.
let compositor = env.require_global::<WlCompositor>();
let shm = env.require_global::<WlShm>();
let theme_manager = ThemeManager::init(ThemeSpec::System, compositor, shm);
// Setup theme seat and output managers.
let seat_manager = SeatManager::new(&env, event_loop.handle(), theme_manager.clone());
let output_manager = OutputManager::new(&env);
// A source of events that we plug into our event loop.
let wayland_source = WaylandSource::new(event_queue).quick_insert(event_loop.handle())?;
let wayland_source = Rc::new(wayland_source);
// A source of user events.
let pending_user_events = Rc::new(RefCell::new(Vec::new()));
let pending_user_events_clone = pending_user_events.clone();
let (user_events_sender, user_events_channel) = calloop::channel::channel();
// User events channel.
event_loop
.handle()
.insert_source(user_events_channel, move |event, _, _| {
if let calloop::channel::Event::Msg(msg) = event {
pending_user_events_clone.borrow_mut().push(msg);
}
})?;
// An event's loop awakener to wake up for window events from winit's windows.
let (event_loop_awakener, event_loop_awakener_source) = calloop::ping::make_ping()?;
// Handler of window requests.
event_loop.handle().insert_source(
event_loop_awakener_source,
move |_, _, winit_state| {
shim::handle_window_requests(winit_state);
},
)?;
let event_loop_handle = event_loop.handle();
let window_map = HashMap::new();
let event_sink = EventSink::new();
let window_updates = HashMap::new();
// Create event loop window target.
let event_loop_window_target = EventLoopWindowTarget {
display: display.clone(),
env,
state: RefCell::new(WinitState {
window_map,
event_sink,
window_updates,
}),
event_loop_handle,
output_manager,
event_loop_awakener,
wayland_source: wayland_source.clone(),
windowing_features,
theme_manager,
_marker: std::marker::PhantomData,
};
// Create event loop itself.
let event_loop = Self {
event_loop,
display,
pending_user_events,
wayland_source,
_seat_manager: seat_manager,
user_events_sender,
window_target: RootEventLoopWindowTarget {
p: crate::platform_impl::EventLoopWindowTarget::Wayland(event_loop_window_target),
_marker: std::marker::PhantomData,
},
};
Ok(event_loop)
}
pub fn run<F>(mut self, callback: F) -> !
where
F: FnMut(Event<'_, T>, &RootEventLoopWindowTarget<T>, &mut ControlFlow) + 'static,
{
self.run_return(callback);
process::exit(0)
}
pub fn run_return<F>(&mut self, mut callback: F)
where
F: FnMut(Event<'_, T>, &RootEventLoopWindowTarget<T>, &mut ControlFlow),
{
// Send pending events to the server.
let _ = self.display.flush();
let mut control_flow = ControlFlow::default();
let pending_user_events = self.pending_user_events.clone();
callback(
Event::NewEvents(StartCause::Init),
&self.window_target,
&mut control_flow,
);
let mut window_updates: Vec<(WindowId, WindowUpdate)> = Vec::new();
let mut event_sink_back_buffer = Vec::new();
// NOTE We break on errors from dispatches, since if we've got protocol error
// libwayland-client/wayland-rs will inform us anyway, but crashing downstream is not
// really an option. Instead we inform that the event loop got destroyed. We may
// communicate an error that something was terminated, but winit doesn't provide us
// with an API to do that via some event.
loop {
// Handle pending user events. We don't need back buffer, since we can't dispatch
// user events indirectly via callback to the user.
for user_event in pending_user_events.borrow_mut().drain(..) {
sticky_exit_callback(
Event::UserEvent(user_event),
&self.window_target,
&mut control_flow,
&mut callback,
);
}
// Process 'new' pending updates.
self.with_state(|state| {
window_updates.clear();
window_updates.extend(
state
.window_updates
.iter_mut()
.map(|(wid, window_update)| (*wid, window_update.take())),
);
});
for (window_id, window_update) in window_updates.iter_mut() {
if let Some(scale_factor) = window_update.scale_factor.map(|f| f as f64) {
let mut physical_size = self.with_state(|state| {
let window_handle = state.window_map.get(&window_id).unwrap();
let mut size = window_handle.size.lock().unwrap();
// Update the new logical size if it was changed.
let window_size = window_update.size.unwrap_or(*size);
*size = window_size;
window_size.to_physical(scale_factor)
});
sticky_exit_callback(
Event::WindowEvent {
window_id: crate::window::WindowId(
crate::platform_impl::WindowId::Wayland(*window_id),
),
event: WindowEvent::ScaleFactorChanged {
scale_factor,
new_inner_size: &mut physical_size,
},
},
&self.window_target,
&mut control_flow,
&mut callback,
);
// We don't update size on a window handle since we'll do that later
// when handling size update.
let new_logical_size = physical_size.to_logical(scale_factor);
window_update.size = Some(new_logical_size);
}
if let Some(size) = window_update.size.take() {
let physical_size = self.with_state(|state| {
let window_handle = state.window_map.get_mut(&window_id).unwrap();
let mut window_size = window_handle.size.lock().unwrap();
// Always issue resize event on scale factor change.
let physical_size =
if window_update.scale_factor.is_none() && *window_size == size {
// The size hasn't changed, don't inform downstream about that.
None
} else {
*window_size = size;
let scale_factor =
sctk::get_surface_scale_factor(&window_handle.window.surface());
let physical_size = size.to_physical(scale_factor as f64);
Some(physical_size)
};
// We still perform all of those resize related logic even if the size
// hasn't changed, since GNOME relies on `set_geometry` calls after
// configures.
window_handle.window.resize(size.width, size.height);
window_handle.window.refresh();
// Mark that refresh isn't required, since we've done it right now.
window_update.refresh_frame = false;
physical_size
});
if let Some(physical_size) = physical_size {
sticky_exit_callback(
Event::WindowEvent {
window_id: crate::window::WindowId(
crate::platform_impl::WindowId::Wayland(*window_id),
),
event: WindowEvent::Resized(physical_size),
},
&self.window_target,
&mut control_flow,
&mut callback,
);
}
}
if window_update.close_window {
sticky_exit_callback(
Event::WindowEvent {
window_id: crate::window::WindowId(
crate::platform_impl::WindowId::Wayland(*window_id),
),
event: WindowEvent::CloseRequested,
},
&self.window_target,
&mut control_flow,
&mut callback,
);
}
}
// The purpose of the back buffer and that swap is to not hold borrow_mut when
// we're doing callback to the user, since we can double borrow if the user decides
// to create a window in one of those callbacks.
self.with_state(|state| {
std::mem::swap(
&mut event_sink_back_buffer,
&mut state.event_sink.window_events,
)
});
// Handle pending window events.
for event in event_sink_back_buffer.drain(..) {
let event = event.map_nonuser_event().unwrap();
sticky_exit_callback(event, &self.window_target, &mut control_flow, &mut callback);
}
// Send events cleared.
sticky_exit_callback(
Event::MainEventsCleared,
&self.window_target,
&mut control_flow,
&mut callback,
);
// Handle RedrawRequested events.
for (window_id, window_update) in window_updates.iter() {
// Handle refresh of the frame.
if window_update.refresh_frame {
self.with_state(|state| {
let window_handle = state.window_map.get_mut(&window_id).unwrap();
window_handle.window.refresh();
if !window_update.redraw_requested {
window_handle.window.surface().commit();
}
});
}
// Handle redraw request.
if window_update.redraw_requested {
sticky_exit_callback(
Event::RedrawRequested(crate::window::WindowId(
crate::platform_impl::WindowId::Wayland(*window_id),
)),
&self.window_target,
&mut control_flow,
&mut callback,
);
}
}
// Send RedrawEventCleared.
sticky_exit_callback(
Event::RedrawEventsCleared,
&self.window_target,
&mut control_flow,
&mut callback,
);
// Send pending events to the server.
let _ = self.display.flush();
// During the run of the user callback, some other code monitoring and reading the
// Wayland socket may have been run (mesa for example does this with vsync), if that
// is the case, some events may have been enqueued in our event queue.
//
// If some messages are there, the event loop needs to behave as if it was instantly
// woken up by messages arriving from the Wayland socket, to avoid delaying the
// dispatch of these events until we're woken up again.
let instant_wakeup = {
let handle = self.event_loop.handle();
let source = self.wayland_source.clone();
let dispatched = handle.with_source(&source, |wayland_source| {
let queue = wayland_source.queue();
self.with_state(|state| {
queue.dispatch_pending(state, |_, _, _| unimplemented!())
})
});
if let Ok(dispatched) = dispatched {
dispatched > 0
} else {
break;
}
};
match control_flow {
ControlFlow::Exit => break,
ControlFlow::Poll => {
// Non-blocking dispatch.
let timeout = Duration::from_millis(0);
if self.loop_dispatch(Some(timeout)).is_err() {
break;
}
callback(
Event::NewEvents(StartCause::Poll),
&self.window_target,
&mut control_flow,
);
}
ControlFlow::Wait => {
let timeout = if instant_wakeup {
Some(Duration::from_millis(0))
} else {
None
};
if self.loop_dispatch(timeout).is_err() {
break;
}
callback(
Event::NewEvents(StartCause::WaitCancelled {
start: Instant::now(),
requested_resume: None,
}),
&self.window_target,
&mut control_flow,
);
}
ControlFlow::WaitUntil(deadline) => {
let start = Instant::now();
// Compute the amount of time we'll block for.
let duration = if deadline > start && !instant_wakeup {
deadline - start
} else {
Duration::from_millis(0)
};
if self.loop_dispatch(Some(duration)).is_err() {
break;
}
let now = Instant::now();
if now < deadline {
callback(
Event::NewEvents(StartCause::WaitCancelled {
start,
requested_resume: Some(deadline),
}),
&self.window_target,
&mut control_flow,
)
} else {
callback(
Event::NewEvents(StartCause::ResumeTimeReached {
start,
requested_resume: deadline,
}),
&self.window_target,
&mut control_flow,
)
}
}
}
}
callback(Event::LoopDestroyed, &self.window_target, &mut control_flow);
}
#[inline]
pub fn create_proxy(&self) -> EventLoopProxy<T> {
EventLoopProxy::new(self.user_events_sender.clone())
}
#[inline]
pub fn window_target(&self) -> &RootEventLoopWindowTarget<T> {
&self.window_target
}
fn with_state<U, F: FnOnce(&mut WinitState) -> U>(&mut self, f: F) -> U {
let state = match &mut self.window_target.p {
crate::platform_impl::EventLoopWindowTarget::Wayland(ref mut window_target) => {
window_target.state.get_mut()
}
#[cfg(feature = "x11")]
_ => unreachable!(),
};
f(state)
}
fn loop_dispatch<D: Into<Option<std::time::Duration>>>(
&mut self,
timeout: D,
) -> std::io::Result<()> {
let mut state = match &mut self.window_target.p {
crate::platform_impl::EventLoopWindowTarget::Wayland(ref mut window_target) => {
window_target.state.get_mut()
}
#[cfg(feature = "x11")]
_ => unreachable!(),
};
self.event_loop.dispatch(timeout, &mut state)
}
}

View file

@ -0,0 +1,32 @@
//! An event loop proxy.
use std::sync::mpsc::SendError;
use sctk::reexports::calloop::channel::Sender;
use crate::event_loop::EventLoopClosed;
/// A handle that can be sent across the threads and used to wake up the `EventLoop`.
pub struct EventLoopProxy<T: 'static> {
user_events_sender: Sender<T>,
}
impl<T: 'static> Clone for EventLoopProxy<T> {
fn clone(&self) -> Self {
EventLoopProxy {
user_events_sender: self.user_events_sender.clone(),
}
}
}
impl<T: 'static> EventLoopProxy<T> {
pub fn new(user_events_sender: Sender<T>) -> Self {
Self { user_events_sender }
}
pub fn send_event(&self, event: T) -> Result<(), EventLoopClosed<T>> {
self.user_events_sender
.send(event)
.map_err(|SendError(error)| EventLoopClosed(error))
}
}

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@ -0,0 +1,36 @@
//! An event loop's sink to deliver events from the Wayland event callbacks.
use crate::event::{DeviceEvent, DeviceId as RootDeviceId, Event, WindowEvent};
use crate::platform_impl::platform::{DeviceId as PlatformDeviceId, WindowId as PlatformWindowId};
use crate::window::WindowId as RootWindowId;
use super::{DeviceId, WindowId};
/// An event loop's sink to deliver events from the Wayland event callbacks
/// to the winit's user.
#[derive(Default)]
pub struct EventSink {
pub window_events: Vec<Event<'static, ()>>,
}
impl EventSink {
pub fn new() -> Self {
Default::default()
}
/// Add new device event to a queue.
pub fn push_device_event(&mut self, event: DeviceEvent, device_id: DeviceId) {
self.window_events.push(Event::DeviceEvent {
event,
device_id: RootDeviceId(PlatformDeviceId::Wayland(device_id)),
});
}
/// Add new window event to a queue.
pub fn push_window_event(&mut self, event: WindowEvent<'static>, window_id: WindowId) {
self.window_events.push(Event::WindowEvent {
event,
window_id: RootWindowId(PlatformWindowId::Wayland(window_id)),
});
}
}

View file

@ -0,0 +1,25 @@
//! A state that we pass around in a dispatch.
use std::collections::HashMap;
use super::EventSink;
use crate::platform_impl::wayland::window::shim::{WindowHandle, WindowUpdate};
use crate::platform_impl::wayland::WindowId;
/// Wrapper to carry winit's state.
pub struct WinitState {
/// A sink for window and device events that is being filled during dispatching
/// event loop and forwarded downstream afterwards.
pub event_sink: EventSink,
/// Window updates, which are coming from SCTK or the compositor, which require
/// calling back to the winit's downstream. They are handled right in the event loop,
/// unlike the ones coming from buffers on the `WindowHandle`'s.
pub window_updates: HashMap<WindowId, WindowUpdate>,
/// Window map containing all SCTK windows. Since those windows aren't allowed
/// to be sent to other threads, they live on the event loop's thread
/// and requests from winit's windows are being forwarded to them either via
/// `WindowUpdate` or buffer on the associated with it `WindowHandle`.
pub window_map: HashMap<WindowId, WindowHandle>,
}

View file

@ -1,396 +0,0 @@
use std::sync::{Arc, Mutex};
use super::{event_loop::EventsSink, make_wid, DeviceId};
use smithay_client_toolkit::{
keyboard::{
self, map_keyboard_auto_with_repeat, Event as KbEvent, KeyRepeatEvent, KeyRepeatKind,
},
reexports::client::protocol::{wl_keyboard, wl_seat},
};
use crate::event::{ElementState, KeyboardInput, ModifiersState, VirtualKeyCode, WindowEvent};
pub fn init_keyboard(
seat: &wl_seat::WlSeat,
sink: EventsSink,
modifiers_tracker: Arc<Mutex<ModifiersState>>,
) -> wl_keyboard::WlKeyboard {
// { variables to be captured by the closures
let target = Arc::new(Mutex::new(None));
let my_sink = sink.clone();
let repeat_sink = sink.clone();
let repeat_target = target.clone();
let my_modifiers = modifiers_tracker.clone();
// }
let ret = map_keyboard_auto_with_repeat(
seat,
KeyRepeatKind::System,
move |evt: KbEvent<'_>, _| {
match evt {
KbEvent::Enter { surface, .. } => {
let wid = make_wid(&surface);
my_sink.send_window_event(WindowEvent::Focused(true), wid);
*target.lock().unwrap() = Some(wid);
let modifiers = *modifiers_tracker.lock().unwrap();
if !modifiers.is_empty() {
my_sink.send_window_event(WindowEvent::ModifiersChanged(modifiers), wid);
}
}
KbEvent::Leave { surface, .. } => {
let wid = make_wid(&surface);
let modifiers = *modifiers_tracker.lock().unwrap();
if !modifiers.is_empty() {
my_sink.send_window_event(
WindowEvent::ModifiersChanged(ModifiersState::empty()),
wid,
);
}
my_sink.send_window_event(WindowEvent::Focused(false), wid);
*target.lock().unwrap() = None;
}
KbEvent::Key {
rawkey,
keysym,
state,
utf8,
..
} => {
if let Some(wid) = *target.lock().unwrap() {
let state = match state {
wl_keyboard::KeyState::Pressed => ElementState::Pressed,
wl_keyboard::KeyState::Released => ElementState::Released,
_ => unreachable!(),
};
let vkcode = key_to_vkey(rawkey, keysym);
my_sink.send_window_event(
#[allow(deprecated)]
WindowEvent::KeyboardInput {
device_id: crate::event::DeviceId(
crate::platform_impl::DeviceId::Wayland(DeviceId),
),
input: KeyboardInput {
state,
scancode: rawkey,
virtual_keycode: vkcode,
modifiers: modifiers_tracker.lock().unwrap().clone(),
},
is_synthetic: false,
},
wid,
);
// send char event only on key press, not release
if let ElementState::Released = state {
return;
}
if let Some(txt) = utf8 {
for chr in txt.chars() {
my_sink.send_window_event(WindowEvent::ReceivedCharacter(chr), wid);
}
}
}
}
KbEvent::RepeatInfo { .. } => { /* Handled by smithay client toolkit */ }
KbEvent::Modifiers {
modifiers: event_modifiers,
} => {
let modifiers = ModifiersState::from_wayland(event_modifiers);
*modifiers_tracker.lock().unwrap() = modifiers;
if let Some(wid) = *target.lock().unwrap() {
my_sink.send_window_event(WindowEvent::ModifiersChanged(modifiers), wid);
}
}
}
},
move |repeat_event: KeyRepeatEvent, _| {
if let Some(wid) = *repeat_target.lock().unwrap() {
let state = ElementState::Pressed;
let vkcode = key_to_vkey(repeat_event.rawkey, repeat_event.keysym);
repeat_sink.send_window_event(
#[allow(deprecated)]
WindowEvent::KeyboardInput {
device_id: crate::event::DeviceId(crate::platform_impl::DeviceId::Wayland(
DeviceId,
)),
input: KeyboardInput {
state,
scancode: repeat_event.rawkey,
virtual_keycode: vkcode,
modifiers: my_modifiers.lock().unwrap().clone(),
},
is_synthetic: false,
},
wid,
);
if let Some(txt) = repeat_event.utf8 {
for chr in txt.chars() {
repeat_sink.send_window_event(WindowEvent::ReceivedCharacter(chr), wid);
}
}
}
},
);
match ret {
Ok(keyboard) => keyboard,
Err(_) => {
// This is a fallback impl if libxkbcommon was not available
// This case should probably never happen, as most wayland
// compositors _need_ libxkbcommon anyway...
//
// In this case, we don't have the keymap information (it is
// supposed to be serialized by the compositor using libxkbcommon)
seat.get_keyboard(|keyboard| {
// { variables to be captured by the closure
let mut target = None;
let my_sink = sink;
// }
keyboard.implement_closure(
move |evt, _| match evt {
wl_keyboard::Event::Enter { surface, .. } => {
let wid = make_wid(&surface);
my_sink.send_window_event(WindowEvent::Focused(true), wid);
target = Some(wid);
}
wl_keyboard::Event::Leave { surface, .. } => {
let wid = make_wid(&surface);
my_sink.send_window_event(WindowEvent::Focused(false), wid);
target = None;
}
wl_keyboard::Event::Key { key, state, .. } => {
if let Some(wid) = target {
let state = match state {
wl_keyboard::KeyState::Pressed => ElementState::Pressed,
wl_keyboard::KeyState::Released => ElementState::Released,
_ => unreachable!(),
};
my_sink.send_window_event(
#[allow(deprecated)]
WindowEvent::KeyboardInput {
device_id: crate::event::DeviceId(
crate::platform_impl::DeviceId::Wayland(DeviceId),
),
input: KeyboardInput {
state,
scancode: key,
virtual_keycode: None,
modifiers: ModifiersState::default(),
},
is_synthetic: false,
},
wid,
);
}
}
_ => (),
},
(),
)
})
.unwrap()
}
}
}
fn key_to_vkey(rawkey: u32, keysym: u32) -> Option<VirtualKeyCode> {
match rawkey {
1 => Some(VirtualKeyCode::Escape),
2 => Some(VirtualKeyCode::Key1),
3 => Some(VirtualKeyCode::Key2),
4 => Some(VirtualKeyCode::Key3),
5 => Some(VirtualKeyCode::Key4),
6 => Some(VirtualKeyCode::Key5),
7 => Some(VirtualKeyCode::Key6),
8 => Some(VirtualKeyCode::Key7),
9 => Some(VirtualKeyCode::Key8),
10 => Some(VirtualKeyCode::Key9),
11 => Some(VirtualKeyCode::Key0),
_ => keysym_to_vkey(keysym),
}
}
fn keysym_to_vkey(keysym: u32) -> Option<VirtualKeyCode> {
use smithay_client_toolkit::keyboard::keysyms;
match keysym {
// letters
keysyms::XKB_KEY_A | keysyms::XKB_KEY_a => Some(VirtualKeyCode::A),
keysyms::XKB_KEY_B | keysyms::XKB_KEY_b => Some(VirtualKeyCode::B),
keysyms::XKB_KEY_C | keysyms::XKB_KEY_c => Some(VirtualKeyCode::C),
keysyms::XKB_KEY_D | keysyms::XKB_KEY_d => Some(VirtualKeyCode::D),
keysyms::XKB_KEY_E | keysyms::XKB_KEY_e => Some(VirtualKeyCode::E),
keysyms::XKB_KEY_F | keysyms::XKB_KEY_f => Some(VirtualKeyCode::F),
keysyms::XKB_KEY_G | keysyms::XKB_KEY_g => Some(VirtualKeyCode::G),
keysyms::XKB_KEY_H | keysyms::XKB_KEY_h => Some(VirtualKeyCode::H),
keysyms::XKB_KEY_I | keysyms::XKB_KEY_i => Some(VirtualKeyCode::I),
keysyms::XKB_KEY_J | keysyms::XKB_KEY_j => Some(VirtualKeyCode::J),
keysyms::XKB_KEY_K | keysyms::XKB_KEY_k => Some(VirtualKeyCode::K),
keysyms::XKB_KEY_L | keysyms::XKB_KEY_l => Some(VirtualKeyCode::L),
keysyms::XKB_KEY_M | keysyms::XKB_KEY_m => Some(VirtualKeyCode::M),
keysyms::XKB_KEY_N | keysyms::XKB_KEY_n => Some(VirtualKeyCode::N),
keysyms::XKB_KEY_O | keysyms::XKB_KEY_o => Some(VirtualKeyCode::O),
keysyms::XKB_KEY_P | keysyms::XKB_KEY_p => Some(VirtualKeyCode::P),
keysyms::XKB_KEY_Q | keysyms::XKB_KEY_q => Some(VirtualKeyCode::Q),
keysyms::XKB_KEY_R | keysyms::XKB_KEY_r => Some(VirtualKeyCode::R),
keysyms::XKB_KEY_S | keysyms::XKB_KEY_s => Some(VirtualKeyCode::S),
keysyms::XKB_KEY_T | keysyms::XKB_KEY_t => Some(VirtualKeyCode::T),
keysyms::XKB_KEY_U | keysyms::XKB_KEY_u => Some(VirtualKeyCode::U),
keysyms::XKB_KEY_V | keysyms::XKB_KEY_v => Some(VirtualKeyCode::V),
keysyms::XKB_KEY_W | keysyms::XKB_KEY_w => Some(VirtualKeyCode::W),
keysyms::XKB_KEY_X | keysyms::XKB_KEY_x => Some(VirtualKeyCode::X),
keysyms::XKB_KEY_Y | keysyms::XKB_KEY_y => Some(VirtualKeyCode::Y),
keysyms::XKB_KEY_Z | keysyms::XKB_KEY_z => Some(VirtualKeyCode::Z),
// F--
keysyms::XKB_KEY_F1 => Some(VirtualKeyCode::F1),
keysyms::XKB_KEY_F2 => Some(VirtualKeyCode::F2),
keysyms::XKB_KEY_F3 => Some(VirtualKeyCode::F3),
keysyms::XKB_KEY_F4 => Some(VirtualKeyCode::F4),
keysyms::XKB_KEY_F5 => Some(VirtualKeyCode::F5),
keysyms::XKB_KEY_F6 => Some(VirtualKeyCode::F6),
keysyms::XKB_KEY_F7 => Some(VirtualKeyCode::F7),
keysyms::XKB_KEY_F8 => Some(VirtualKeyCode::F8),
keysyms::XKB_KEY_F9 => Some(VirtualKeyCode::F9),
keysyms::XKB_KEY_F10 => Some(VirtualKeyCode::F10),
keysyms::XKB_KEY_F11 => Some(VirtualKeyCode::F11),
keysyms::XKB_KEY_F12 => Some(VirtualKeyCode::F12),
keysyms::XKB_KEY_F13 => Some(VirtualKeyCode::F13),
keysyms::XKB_KEY_F14 => Some(VirtualKeyCode::F14),
keysyms::XKB_KEY_F15 => Some(VirtualKeyCode::F15),
keysyms::XKB_KEY_F16 => Some(VirtualKeyCode::F16),
keysyms::XKB_KEY_F17 => Some(VirtualKeyCode::F17),
keysyms::XKB_KEY_F18 => Some(VirtualKeyCode::F18),
keysyms::XKB_KEY_F19 => Some(VirtualKeyCode::F19),
keysyms::XKB_KEY_F20 => Some(VirtualKeyCode::F20),
keysyms::XKB_KEY_F21 => Some(VirtualKeyCode::F21),
keysyms::XKB_KEY_F22 => Some(VirtualKeyCode::F22),
keysyms::XKB_KEY_F23 => Some(VirtualKeyCode::F23),
keysyms::XKB_KEY_F24 => Some(VirtualKeyCode::F24),
// flow control
keysyms::XKB_KEY_Print => Some(VirtualKeyCode::Snapshot),
keysyms::XKB_KEY_Scroll_Lock => Some(VirtualKeyCode::Scroll),
keysyms::XKB_KEY_Pause => Some(VirtualKeyCode::Pause),
keysyms::XKB_KEY_Insert => Some(VirtualKeyCode::Insert),
keysyms::XKB_KEY_Home => Some(VirtualKeyCode::Home),
keysyms::XKB_KEY_Delete => Some(VirtualKeyCode::Delete),
keysyms::XKB_KEY_End => Some(VirtualKeyCode::End),
keysyms::XKB_KEY_Page_Down => Some(VirtualKeyCode::PageDown),
keysyms::XKB_KEY_Page_Up => Some(VirtualKeyCode::PageUp),
// arrows
keysyms::XKB_KEY_Left => Some(VirtualKeyCode::Left),
keysyms::XKB_KEY_Up => Some(VirtualKeyCode::Up),
keysyms::XKB_KEY_Right => Some(VirtualKeyCode::Right),
keysyms::XKB_KEY_Down => Some(VirtualKeyCode::Down),
//
keysyms::XKB_KEY_BackSpace => Some(VirtualKeyCode::Back),
keysyms::XKB_KEY_Return => Some(VirtualKeyCode::Return),
keysyms::XKB_KEY_space => Some(VirtualKeyCode::Space),
// keypad
keysyms::XKB_KEY_Num_Lock => Some(VirtualKeyCode::Numlock),
keysyms::XKB_KEY_KP_0 => Some(VirtualKeyCode::Numpad0),
keysyms::XKB_KEY_KP_1 => Some(VirtualKeyCode::Numpad1),
keysyms::XKB_KEY_KP_2 => Some(VirtualKeyCode::Numpad2),
keysyms::XKB_KEY_KP_3 => Some(VirtualKeyCode::Numpad3),
keysyms::XKB_KEY_KP_4 => Some(VirtualKeyCode::Numpad4),
keysyms::XKB_KEY_KP_5 => Some(VirtualKeyCode::Numpad5),
keysyms::XKB_KEY_KP_6 => Some(VirtualKeyCode::Numpad6),
keysyms::XKB_KEY_KP_7 => Some(VirtualKeyCode::Numpad7),
keysyms::XKB_KEY_KP_8 => Some(VirtualKeyCode::Numpad8),
keysyms::XKB_KEY_KP_9 => Some(VirtualKeyCode::Numpad9),
// misc
// => Some(VirtualKeyCode::AbntC1),
// => Some(VirtualKeyCode::AbntC2),
keysyms::XKB_KEY_plus => Some(VirtualKeyCode::Plus),
keysyms::XKB_KEY_apostrophe => Some(VirtualKeyCode::Apostrophe),
// => Some(VirtualKeyCode::Apps),
// => Some(VirtualKeyCode::At),
// => Some(VirtualKeyCode::Ax),
keysyms::XKB_KEY_backslash => Some(VirtualKeyCode::Backslash),
// => Some(VirtualKeyCode::Calculator),
// => Some(VirtualKeyCode::Capital),
keysyms::XKB_KEY_colon => Some(VirtualKeyCode::Colon),
keysyms::XKB_KEY_comma => Some(VirtualKeyCode::Comma),
// => Some(VirtualKeyCode::Convert),
keysyms::XKB_KEY_equal => Some(VirtualKeyCode::Equals),
// => Some(VirtualKeyCode::Grave),
// => Some(VirtualKeyCode::Kana),
// => Some(VirtualKeyCode::Kanji),
keysyms::XKB_KEY_Alt_L => Some(VirtualKeyCode::LAlt),
// => Some(VirtualKeyCode::LBracket),
keysyms::XKB_KEY_Control_L => Some(VirtualKeyCode::LControl),
keysyms::XKB_KEY_Shift_L => Some(VirtualKeyCode::LShift),
// => Some(VirtualKeyCode::LWin),
// => Some(VirtualKeyCode::Mail),
// => Some(VirtualKeyCode::MediaSelect),
// => Some(VirtualKeyCode::MediaStop),
keysyms::XKB_KEY_minus => Some(VirtualKeyCode::Minus),
keysyms::XKB_KEY_asterisk => Some(VirtualKeyCode::Asterisk),
// => Some(VirtualKeyCode::Mute),
// => Some(VirtualKeyCode::MyComputer),
// => Some(VirtualKeyCode::NextTrack),
// => Some(VirtualKeyCode::NoConvert),
keysyms::XKB_KEY_KP_Separator => Some(VirtualKeyCode::NumpadComma),
keysyms::XKB_KEY_KP_Enter => Some(VirtualKeyCode::NumpadEnter),
keysyms::XKB_KEY_KP_Equal => Some(VirtualKeyCode::NumpadEquals),
keysyms::XKB_KEY_KP_Add => Some(VirtualKeyCode::NumpadAdd),
keysyms::XKB_KEY_KP_Subtract => Some(VirtualKeyCode::NumpadSubtract),
keysyms::XKB_KEY_KP_Multiply => Some(VirtualKeyCode::NumpadMultiply),
keysyms::XKB_KEY_KP_Decimal => Some(VirtualKeyCode::NumpadDecimal),
keysyms::XKB_KEY_KP_Divide => Some(VirtualKeyCode::NumpadDivide),
keysyms::XKB_KEY_KP_Page_Up => Some(VirtualKeyCode::PageUp),
keysyms::XKB_KEY_KP_Page_Down => Some(VirtualKeyCode::PageDown),
keysyms::XKB_KEY_KP_Home => Some(VirtualKeyCode::Home),
keysyms::XKB_KEY_KP_End => Some(VirtualKeyCode::End),
// => Some(VirtualKeyCode::OEM102),
// => Some(VirtualKeyCode::Period),
// => Some(VirtualKeyCode::Playpause),
// => Some(VirtualKeyCode::Power),
// => Some(VirtualKeyCode::Prevtrack),
keysyms::XKB_KEY_Alt_R => Some(VirtualKeyCode::RAlt),
// => Some(VirtualKeyCode::RBracket),
keysyms::XKB_KEY_Control_R => Some(VirtualKeyCode::RControl),
keysyms::XKB_KEY_Shift_R => Some(VirtualKeyCode::RShift),
// => Some(VirtualKeyCode::RWin),
keysyms::XKB_KEY_semicolon => Some(VirtualKeyCode::Semicolon),
keysyms::XKB_KEY_slash => Some(VirtualKeyCode::Slash),
// => Some(VirtualKeyCode::Sleep),
// => Some(VirtualKeyCode::Stop),
// => Some(VirtualKeyCode::Sysrq),
keysyms::XKB_KEY_Tab => Some(VirtualKeyCode::Tab),
keysyms::XKB_KEY_ISO_Left_Tab => Some(VirtualKeyCode::Tab),
// => Some(VirtualKeyCode::Underline),
// => Some(VirtualKeyCode::Unlabeled),
keysyms::XKB_KEY_XF86AudioLowerVolume => Some(VirtualKeyCode::VolumeDown),
keysyms::XKB_KEY_XF86AudioRaiseVolume => Some(VirtualKeyCode::VolumeUp),
// => Some(VirtualKeyCode::Wake),
// => Some(VirtualKeyCode::Webback),
// => Some(VirtualKeyCode::WebFavorites),
// => Some(VirtualKeyCode::WebForward),
// => Some(VirtualKeyCode::WebHome),
// => Some(VirtualKeyCode::WebRefresh),
// => Some(VirtualKeyCode::WebSearch),
// => Some(VirtualKeyCode::WebStop),
// => Some(VirtualKeyCode::Yen),
keysyms::XKB_KEY_XF86Copy => Some(VirtualKeyCode::Copy),
keysyms::XKB_KEY_XF86Paste => Some(VirtualKeyCode::Paste),
keysyms::XKB_KEY_XF86Cut => Some(VirtualKeyCode::Cut),
// fallback
_ => None,
}
}
impl ModifiersState {
pub(crate) fn from_wayland(mods: keyboard::ModifiersState) -> ModifiersState {
let mut m = ModifiersState::empty();
m.set(ModifiersState::SHIFT, mods.shift);
m.set(ModifiersState::CTRL, mods.ctrl);
m.set(ModifiersState::ALT, mods.alt);
m.set(ModifiersState::LOGO, mods.logo);
m
}
}

View file

@ -1,17 +1,21 @@
#![cfg(any(target_os = "linux", target_os = "dragonfly", target_os = "freebsd",
target_os = "netbsd", target_os = "openbsd"))]
#![cfg(any(
target_os = "linux",
target_os = "dragonfly",
target_os = "freebsd",
target_os = "netbsd",
target_os = "openbsd"
))]
pub use self::{
event_loop::{EventLoop, EventLoopProxy, EventLoopWindowTarget, MonitorHandle, VideoMode},
window::Window,
};
use sctk::reexports::client::protocol::wl_surface::WlSurface;
use smithay_client_toolkit::reexports::client::protocol::wl_surface;
pub use event_loop::{EventLoop, EventLoopProxy, EventLoopWindowTarget};
pub use output::{MonitorHandle, VideoMode};
pub use window::Window;
mod env;
mod event_loop;
mod keyboard;
mod pointer;
mod touch;
mod output;
mod seat;
mod window;
#[derive(Debug, Copy, Clone, PartialEq, Eq, PartialOrd, Ord, Hash)]
@ -33,6 +37,6 @@ impl WindowId {
}
#[inline]
fn make_wid(s: &wl_surface::WlSurface) -> WindowId {
WindowId(s.as_ref().c_ptr() as usize)
fn make_wid(surface: &WlSurface) -> WindowId {
WindowId(surface.as_ref().c_ptr() as usize)
}

View file

@ -0,0 +1,240 @@
use std::collections::VecDeque;
use std::sync::{Arc, Mutex};
use sctk::reexports::client::protocol::wl_output::WlOutput;
use sctk::reexports::client::Display;
use sctk::environment::Environment;
use sctk::output::OutputStatusListener;
use crate::dpi::{PhysicalPosition, PhysicalSize};
use crate::monitor::{MonitorHandle as RootMonitorHandle, VideoMode as RootVideoMode};
use crate::platform_impl::platform::{
MonitorHandle as PlatformMonitorHandle, VideoMode as PlatformVideoMode,
};
use super::env::WinitEnv;
use super::event_loop::EventLoopWindowTarget;
/// Output manager.
pub struct OutputManager {
/// A handle that actually performs all operations on outputs.
handle: OutputManagerHandle,
_output_listener: OutputStatusListener,
}
impl OutputManager {
pub fn new(env: &Environment<WinitEnv>) -> Self {
let handle = OutputManagerHandle::new();
// Handle existing outputs.
for output in env.get_all_outputs() {
match sctk::output::with_output_info(&output, |info| info.obsolete) {
Some(false) => (),
// The output is obsolete or we've failed to access its data, skipping.
_ => continue,
}
// The output is present and unusable, add it to the output manager manager.
handle.add_output(output);
}
let handle_for_listener = handle.clone();
let output_listener = env.listen_for_outputs(move |output, info, _| {
if info.obsolete {
handle_for_listener.remove_output(output)
} else {
handle_for_listener.add_output(output)
}
});
Self {
handle,
_output_listener: output_listener,
}
}
pub fn handle(&self) -> OutputManagerHandle {
self.handle.clone()
}
}
/// A handle to output manager.
#[derive(Debug, Clone)]
pub struct OutputManagerHandle {
outputs: Arc<Mutex<VecDeque<MonitorHandle>>>,
}
impl OutputManagerHandle {
fn new() -> Self {
let outputs = Arc::new(Mutex::new(VecDeque::new()));
Self { outputs }
}
/// Handle addition of the output.
fn add_output(&self, output: WlOutput) {
let mut outputs = self.outputs.lock().unwrap();
let position = outputs.iter().position(|handle| handle.proxy == output);
if position.is_none() {
outputs.push_back(MonitorHandle::new(output));
}
}
/// Handle removal of the output.
fn remove_output(&self, output: WlOutput) {
let mut outputs = self.outputs.lock().unwrap();
let position = outputs.iter().position(|handle| handle.proxy == output);
if let Some(position) = position {
outputs.remove(position);
}
}
/// Get all observed outputs.
pub fn available_outputs(&self) -> VecDeque<MonitorHandle> {
self.outputs.lock().unwrap().clone()
}
}
#[derive(Clone, Debug)]
pub struct MonitorHandle {
pub(crate) proxy: WlOutput,
}
impl PartialEq for MonitorHandle {
fn eq(&self, other: &Self) -> bool {
self.native_identifier() == other.native_identifier()
}
}
impl Eq for MonitorHandle {}
impl PartialOrd for MonitorHandle {
fn partial_cmp(&self, other: &Self) -> Option<std::cmp::Ordering> {
Some(self.cmp(&other))
}
}
impl Ord for MonitorHandle {
fn cmp(&self, other: &Self) -> std::cmp::Ordering {
self.native_identifier().cmp(&other.native_identifier())
}
}
impl std::hash::Hash for MonitorHandle {
fn hash<H: std::hash::Hasher>(&self, state: &mut H) {
self.native_identifier().hash(state);
}
}
impl MonitorHandle {
#[inline]
pub(crate) fn new(proxy: WlOutput) -> Self {
Self { proxy }
}
#[inline]
pub fn name(&self) -> Option<String> {
sctk::output::with_output_info(&self.proxy, |info| {
format!("{} ({})", info.model, info.make)
})
}
#[inline]
pub fn native_identifier(&self) -> u32 {
sctk::output::with_output_info(&self.proxy, |info| info.id).unwrap_or(0)
}
#[inline]
pub fn size(&self) -> PhysicalSize<u32> {
match sctk::output::with_output_info(&self.proxy, |info| {
info.modes
.iter()
.find(|mode| mode.is_current)
.map(|mode| mode.dimensions)
}) {
Some(Some((w, h))) => (w as u32, h as u32),
_ => (0, 0),
}
.into()
}
#[inline]
pub fn position(&self) -> PhysicalPosition<i32> {
sctk::output::with_output_info(&self.proxy, |info| info.location)
.unwrap_or((0, 0))
.into()
}
#[inline]
pub fn scale_factor(&self) -> i32 {
sctk::output::with_output_info(&self.proxy, |info| info.scale_factor).unwrap_or(1)
}
#[inline]
pub fn video_modes(&self) -> impl Iterator<Item = RootVideoMode> {
let modes = sctk::output::with_output_info(&self.proxy, |info| info.modes.clone())
.unwrap_or_else(Vec::new);
let monitor = self.clone();
modes.into_iter().map(move |mode| RootVideoMode {
video_mode: PlatformVideoMode::Wayland(VideoMode {
size: (mode.dimensions.0 as u32, mode.dimensions.1 as u32).into(),
refresh_rate: (mode.refresh_rate as f32 / 1000.0).round() as u16,
bit_depth: 32,
monitor: monitor.clone(),
}),
})
}
}
#[derive(Debug, Clone, PartialEq, Eq, Hash)]
pub struct VideoMode {
pub(crate) size: PhysicalSize<u32>,
pub(crate) bit_depth: u16,
pub(crate) refresh_rate: u16,
pub(crate) monitor: MonitorHandle,
}
impl VideoMode {
#[inline]
pub fn size(&self) -> PhysicalSize<u32> {
self.size
}
#[inline]
pub fn bit_depth(&self) -> u16 {
self.bit_depth
}
#[inline]
pub fn refresh_rate(&self) -> u16 {
self.refresh_rate
}
pub fn monitor(&self) -> RootMonitorHandle {
RootMonitorHandle {
inner: PlatformMonitorHandle::Wayland(self.monitor.clone()),
}
}
}
impl<T> EventLoopWindowTarget<T> {
#[inline]
pub fn display(&self) -> &Display {
&self.display
}
#[inline]
pub fn available_monitors(&self) -> VecDeque<MonitorHandle> {
self.output_manager.handle.available_outputs()
}
#[inline]
pub fn primary_monitor(&self) -> Option<RootMonitorHandle> {
// There's no primary monitor on Wayland.
None
}
}

View file

@ -1,290 +0,0 @@
use std::sync::{Arc, Mutex};
use crate::dpi::LogicalPosition;
use crate::event::{
DeviceEvent, ElementState, ModifiersState, MouseButton, MouseScrollDelta, TouchPhase,
WindowEvent,
};
use super::{
event_loop::{CursorManager, EventsSink},
make_wid,
window::WindowStore,
DeviceId,
};
use smithay_client_toolkit::surface;
use smithay_client_toolkit::reexports::client::protocol::{
wl_pointer::{self, Event as PtrEvent, WlPointer},
wl_seat,
};
use smithay_client_toolkit::reexports::protocols::unstable::relative_pointer::v1::client::{
zwp_relative_pointer_manager_v1::ZwpRelativePointerManagerV1, zwp_relative_pointer_v1::Event,
zwp_relative_pointer_v1::ZwpRelativePointerV1,
};
use smithay_client_toolkit::reexports::protocols::unstable::pointer_constraints::v1::client::{
zwp_locked_pointer_v1::ZwpLockedPointerV1, zwp_pointer_constraints_v1::Lifetime,
zwp_pointer_constraints_v1::ZwpPointerConstraintsV1,
};
use smithay_client_toolkit::reexports::client::protocol::wl_surface::WlSurface;
pub fn implement_pointer(
seat: &wl_seat::WlSeat,
sink: EventsSink,
store: Arc<Mutex<WindowStore>>,
modifiers_tracker: Arc<Mutex<ModifiersState>>,
cursor_manager: Arc<Mutex<CursorManager>>,
) -> WlPointer {
seat.get_pointer(|pointer| {
// Currently focused winit surface
let mut mouse_focus = None;
let mut axis_buffer = None;
let mut axis_discrete_buffer = None;
let mut axis_state = TouchPhase::Ended;
pointer.implement_closure(
move |evt, pointer| {
let store = store.lock().unwrap();
let mut cursor_manager = cursor_manager.lock().unwrap();
match evt {
PtrEvent::Enter {
surface,
surface_x,
surface_y,
..
} => {
let wid = store.find_wid(&surface);
if let Some(wid) = wid {
let scale_factor = surface::get_dpi_factor(&surface) as f64;
mouse_focus = Some(surface);
// Reload cursor style only when we enter winit's surface. Calling
// this function every time on `PtrEvent::Enter` could interfere with
// SCTK CSD handling, since it changes cursor icons when you hover
// cursor over the window borders.
cursor_manager.reload_cursor_style();
sink.send_window_event(
WindowEvent::CursorEntered {
device_id: crate::event::DeviceId(
crate::platform_impl::DeviceId::Wayland(DeviceId),
),
},
wid,
);
let position = LogicalPosition::new(surface_x, surface_y)
.to_physical(scale_factor);
sink.send_window_event(
WindowEvent::CursorMoved {
device_id: crate::event::DeviceId(
crate::platform_impl::DeviceId::Wayland(DeviceId),
),
position,
modifiers: modifiers_tracker.lock().unwrap().clone(),
},
wid,
);
}
}
PtrEvent::Leave { surface, .. } => {
mouse_focus = None;
let wid = store.find_wid(&surface);
if let Some(wid) = wid {
sink.send_window_event(
WindowEvent::CursorLeft {
device_id: crate::event::DeviceId(
crate::platform_impl::DeviceId::Wayland(DeviceId),
),
},
wid,
);
}
}
PtrEvent::Motion {
surface_x,
surface_y,
..
} => {
if let Some(surface) = mouse_focus.as_ref() {
let wid = make_wid(surface);
let scale_factor = surface::get_dpi_factor(&surface) as f64;
let position = LogicalPosition::new(surface_x, surface_y)
.to_physical(scale_factor);
sink.send_window_event(
WindowEvent::CursorMoved {
device_id: crate::event::DeviceId(
crate::platform_impl::DeviceId::Wayland(DeviceId),
),
position,
modifiers: modifiers_tracker.lock().unwrap().clone(),
},
wid,
);
}
}
PtrEvent::Button { button, state, .. } => {
if let Some(surface) = mouse_focus.as_ref() {
let state = match state {
wl_pointer::ButtonState::Pressed => ElementState::Pressed,
wl_pointer::ButtonState::Released => ElementState::Released,
_ => unreachable!(),
};
let button = match button {
0x110 => MouseButton::Left,
0x111 => MouseButton::Right,
0x112 => MouseButton::Middle,
// TODO figure out the translation ?
_ => return,
};
sink.send_window_event(
WindowEvent::MouseInput {
device_id: crate::event::DeviceId(
crate::platform_impl::DeviceId::Wayland(DeviceId),
),
state,
button,
modifiers: modifiers_tracker.lock().unwrap().clone(),
},
make_wid(surface),
);
}
}
PtrEvent::Axis { axis, value, .. } => {
if let Some(surface) = mouse_focus.as_ref() {
let wid = make_wid(surface);
if pointer.as_ref().version() < 5 {
let (mut x, mut y) = (0.0, 0.0);
// old seat compatibility
match axis {
// wayland vertical sign convention is the inverse of winit
wl_pointer::Axis::VerticalScroll => y -= value as f32,
wl_pointer::Axis::HorizontalScroll => x += value as f32,
_ => unreachable!(),
}
let scale_factor = surface::get_dpi_factor(&surface) as f64;
let delta = LogicalPosition::new(x as f64, y as f64)
.to_physical(scale_factor);
sink.send_window_event(
WindowEvent::MouseWheel {
device_id: crate::event::DeviceId(
crate::platform_impl::DeviceId::Wayland(DeviceId),
),
delta: MouseScrollDelta::PixelDelta(delta),
phase: TouchPhase::Moved,
modifiers: modifiers_tracker.lock().unwrap().clone(),
},
wid,
);
} else {
let (mut x, mut y) = axis_buffer.unwrap_or((0.0, 0.0));
match axis {
// wayland vertical sign convention is the inverse of winit
wl_pointer::Axis::VerticalScroll => y -= value as f32,
wl_pointer::Axis::HorizontalScroll => x += value as f32,
_ => unreachable!(),
}
axis_buffer = Some((x, y));
axis_state = match axis_state {
TouchPhase::Started | TouchPhase::Moved => TouchPhase::Moved,
_ => TouchPhase::Started,
}
}
}
}
PtrEvent::Frame => {
let axis_buffer = axis_buffer.take();
let axis_discrete_buffer = axis_discrete_buffer.take();
if let Some(surface) = mouse_focus.as_ref() {
let wid = make_wid(surface);
if let Some((x, y)) = axis_discrete_buffer {
sink.send_window_event(
WindowEvent::MouseWheel {
device_id: crate::event::DeviceId(
crate::platform_impl::DeviceId::Wayland(DeviceId),
),
delta: MouseScrollDelta::LineDelta(x, y),
phase: axis_state,
modifiers: modifiers_tracker.lock().unwrap().clone(),
},
wid,
);
} else if let Some((x, y)) = axis_buffer {
let scale_factor = surface::get_dpi_factor(&surface) as f64;
let delta = LogicalPosition::new(x, y).to_physical(scale_factor);
sink.send_window_event(
WindowEvent::MouseWheel {
device_id: crate::event::DeviceId(
crate::platform_impl::DeviceId::Wayland(DeviceId),
),
delta: MouseScrollDelta::PixelDelta(delta),
phase: axis_state,
modifiers: modifiers_tracker.lock().unwrap().clone(),
},
wid,
);
}
}
}
PtrEvent::AxisSource { .. } => (),
PtrEvent::AxisStop { .. } => {
axis_state = TouchPhase::Ended;
}
PtrEvent::AxisDiscrete { axis, discrete } => {
let (mut x, mut y) = axis_discrete_buffer.unwrap_or((0.0, 0.0));
match axis {
// wayland vertical sign convention is the inverse of winit
wl_pointer::Axis::VerticalScroll => y -= discrete as f32,
wl_pointer::Axis::HorizontalScroll => x += discrete as f32,
_ => unreachable!(),
}
axis_discrete_buffer = Some((x, y));
axis_state = match axis_state {
TouchPhase::Started | TouchPhase::Moved => TouchPhase::Moved,
_ => TouchPhase::Started,
}
}
_ => unreachable!(),
}
},
(),
)
})
.unwrap()
}
pub fn implement_relative_pointer(
sink: EventsSink,
pointer: &WlPointer,
manager: &ZwpRelativePointerManagerV1,
) -> Result<ZwpRelativePointerV1, ()> {
manager.get_relative_pointer(pointer, |rel_pointer| {
rel_pointer.implement_closure(
move |evt, _rel_pointer| match evt {
Event::RelativeMotion { dx, dy, .. } => {
sink.send_device_event(DeviceEvent::MouseMotion { delta: (dx, dy) }, DeviceId)
}
_ => unreachable!(),
},
(),
)
})
}
pub fn implement_locked_pointer(
surface: &WlSurface,
pointer: &WlPointer,
constraints: &ZwpPointerConstraintsV1,
) -> Result<ZwpLockedPointerV1, ()> {
constraints.lock_pointer(surface, pointer, None, Lifetime::Persistent.to_raw(), |c| {
c.implement_closure(|_, _| (), ())
})
}

View file

@ -0,0 +1,151 @@
//! Handling of various keyboard events.
use sctk::reexports::client::protocol::wl_keyboard::KeyState;
use sctk::seat::keyboard::Event as KeyboardEvent;
use crate::event::{ElementState, KeyboardInput, ModifiersState, WindowEvent};
use crate::platform_impl::wayland::event_loop::WinitState;
use crate::platform_impl::wayland::{self, DeviceId};
use super::keymap;
use super::KeyboardInner;
#[inline]
pub(super) fn handle_keyboard(
event: KeyboardEvent<'_>,
inner: &mut KeyboardInner,
winit_state: &mut WinitState,
) {
let event_sink = &mut winit_state.event_sink;
match event {
KeyboardEvent::Enter { surface, .. } => {
let window_id = wayland::make_wid(&surface);
// Window gained focus.
event_sink.push_window_event(WindowEvent::Focused(true), window_id);
// Dispatch modifers changes that we've received before getting `Enter` event.
if let Some(modifiers) = inner.pending_modifers_state.take() {
*inner.modifiers_state.borrow_mut() = modifiers;
event_sink.push_window_event(WindowEvent::ModifiersChanged(modifiers), window_id);
}
inner.target_window_id = Some(window_id);
}
KeyboardEvent::Leave { surface, .. } => {
let window_id = wayland::make_wid(&surface);
// Notify that no modifiers are being pressed.
if !inner.modifiers_state.borrow().is_empty() {
event_sink.push_window_event(
WindowEvent::ModifiersChanged(ModifiersState::empty()),
window_id,
);
}
// Window lost focus.
event_sink.push_window_event(WindowEvent::Focused(false), window_id);
// Reset the id.
inner.target_window_id = None;
}
KeyboardEvent::Key {
rawkey,
keysym,
state,
utf8,
..
} => {
let window_id = match inner.target_window_id {
Some(window_id) => window_id,
None => return,
};
let state = match state {
KeyState::Pressed => ElementState::Pressed,
KeyState::Released => ElementState::Released,
_ => unreachable!(),
};
let virtual_keycode = keymap::keysym_to_vkey(keysym);
event_sink.push_window_event(
#[allow(deprecated)]
WindowEvent::KeyboardInput {
device_id: crate::event::DeviceId(crate::platform_impl::DeviceId::Wayland(
DeviceId,
)),
input: KeyboardInput {
state,
scancode: rawkey,
virtual_keycode,
modifiers: *inner.modifiers_state.borrow(),
},
is_synthetic: false,
},
window_id,
);
// Send ReceivedCharacter event only on ElementState::Pressed.
if ElementState::Released == state {
return;
}
if let Some(txt) = utf8 {
for ch in txt.chars() {
event_sink.push_window_event(WindowEvent::ReceivedCharacter(ch), window_id);
}
}
}
KeyboardEvent::Repeat {
rawkey,
keysym,
utf8,
..
} => {
let window_id = match inner.target_window_id {
Some(window_id) => window_id,
None => return,
};
let virtual_keycode = keymap::keysym_to_vkey(keysym);
event_sink.push_window_event(
#[allow(deprecated)]
WindowEvent::KeyboardInput {
device_id: crate::event::DeviceId(crate::platform_impl::DeviceId::Wayland(
DeviceId,
)),
input: KeyboardInput {
state: ElementState::Pressed,
scancode: rawkey,
virtual_keycode,
modifiers: *inner.modifiers_state.borrow(),
},
is_synthetic: false,
},
window_id,
);
if let Some(txt) = utf8 {
for ch in txt.chars() {
event_sink.push_window_event(WindowEvent::ReceivedCharacter(ch), window_id);
}
}
}
KeyboardEvent::Modifiers { modifiers } => {
let modifiers = ModifiersState::from(modifiers);
if let Some(window_id) = inner.target_window_id {
*inner.modifiers_state.borrow_mut() = modifiers;
event_sink.push_window_event(WindowEvent::ModifiersChanged(modifiers), window_id);
} else {
// Compositor must send modifiers after wl_keyboard::enter, however certain
// compositors are still sending it before, so stash such events and send
// them on wl_keyboard::enter.
inner.pending_modifers_state = Some(modifiers);
}
}
}
}

View file

@ -0,0 +1,188 @@
//! Convert Wayland keys to winit keys.
use crate::event::VirtualKeyCode;
pub fn keysym_to_vkey(keysym: u32) -> Option<VirtualKeyCode> {
use sctk::seat::keyboard::keysyms;
match keysym {
// Numbers.
keysyms::XKB_KEY_1 => Some(VirtualKeyCode::Key1),
keysyms::XKB_KEY_2 => Some(VirtualKeyCode::Key2),
keysyms::XKB_KEY_3 => Some(VirtualKeyCode::Key3),
keysyms::XKB_KEY_4 => Some(VirtualKeyCode::Key4),
keysyms::XKB_KEY_5 => Some(VirtualKeyCode::Key5),
keysyms::XKB_KEY_6 => Some(VirtualKeyCode::Key6),
keysyms::XKB_KEY_7 => Some(VirtualKeyCode::Key7),
keysyms::XKB_KEY_8 => Some(VirtualKeyCode::Key8),
keysyms::XKB_KEY_9 => Some(VirtualKeyCode::Key9),
keysyms::XKB_KEY_0 => Some(VirtualKeyCode::Key0),
// Letters.
keysyms::XKB_KEY_A | keysyms::XKB_KEY_a => Some(VirtualKeyCode::A),
keysyms::XKB_KEY_B | keysyms::XKB_KEY_b => Some(VirtualKeyCode::B),
keysyms::XKB_KEY_C | keysyms::XKB_KEY_c => Some(VirtualKeyCode::C),
keysyms::XKB_KEY_D | keysyms::XKB_KEY_d => Some(VirtualKeyCode::D),
keysyms::XKB_KEY_E | keysyms::XKB_KEY_e => Some(VirtualKeyCode::E),
keysyms::XKB_KEY_F | keysyms::XKB_KEY_f => Some(VirtualKeyCode::F),
keysyms::XKB_KEY_G | keysyms::XKB_KEY_g => Some(VirtualKeyCode::G),
keysyms::XKB_KEY_H | keysyms::XKB_KEY_h => Some(VirtualKeyCode::H),
keysyms::XKB_KEY_I | keysyms::XKB_KEY_i => Some(VirtualKeyCode::I),
keysyms::XKB_KEY_J | keysyms::XKB_KEY_j => Some(VirtualKeyCode::J),
keysyms::XKB_KEY_K | keysyms::XKB_KEY_k => Some(VirtualKeyCode::K),
keysyms::XKB_KEY_L | keysyms::XKB_KEY_l => Some(VirtualKeyCode::L),
keysyms::XKB_KEY_M | keysyms::XKB_KEY_m => Some(VirtualKeyCode::M),
keysyms::XKB_KEY_N | keysyms::XKB_KEY_n => Some(VirtualKeyCode::N),
keysyms::XKB_KEY_O | keysyms::XKB_KEY_o => Some(VirtualKeyCode::O),
keysyms::XKB_KEY_P | keysyms::XKB_KEY_p => Some(VirtualKeyCode::P),
keysyms::XKB_KEY_Q | keysyms::XKB_KEY_q => Some(VirtualKeyCode::Q),
keysyms::XKB_KEY_R | keysyms::XKB_KEY_r => Some(VirtualKeyCode::R),
keysyms::XKB_KEY_S | keysyms::XKB_KEY_s => Some(VirtualKeyCode::S),
keysyms::XKB_KEY_T | keysyms::XKB_KEY_t => Some(VirtualKeyCode::T),
keysyms::XKB_KEY_U | keysyms::XKB_KEY_u => Some(VirtualKeyCode::U),
keysyms::XKB_KEY_V | keysyms::XKB_KEY_v => Some(VirtualKeyCode::V),
keysyms::XKB_KEY_W | keysyms::XKB_KEY_w => Some(VirtualKeyCode::W),
keysyms::XKB_KEY_X | keysyms::XKB_KEY_x => Some(VirtualKeyCode::X),
keysyms::XKB_KEY_Y | keysyms::XKB_KEY_y => Some(VirtualKeyCode::Y),
keysyms::XKB_KEY_Z | keysyms::XKB_KEY_z => Some(VirtualKeyCode::Z),
// Escape.
keysyms::XKB_KEY_Escape => Some(VirtualKeyCode::Escape),
// Function keys.
keysyms::XKB_KEY_F1 => Some(VirtualKeyCode::F1),
keysyms::XKB_KEY_F2 => Some(VirtualKeyCode::F2),
keysyms::XKB_KEY_F3 => Some(VirtualKeyCode::F3),
keysyms::XKB_KEY_F4 => Some(VirtualKeyCode::F4),
keysyms::XKB_KEY_F5 => Some(VirtualKeyCode::F5),
keysyms::XKB_KEY_F6 => Some(VirtualKeyCode::F6),
keysyms::XKB_KEY_F7 => Some(VirtualKeyCode::F7),
keysyms::XKB_KEY_F8 => Some(VirtualKeyCode::F8),
keysyms::XKB_KEY_F9 => Some(VirtualKeyCode::F9),
keysyms::XKB_KEY_F10 => Some(VirtualKeyCode::F10),
keysyms::XKB_KEY_F11 => Some(VirtualKeyCode::F11),
keysyms::XKB_KEY_F12 => Some(VirtualKeyCode::F12),
keysyms::XKB_KEY_F13 => Some(VirtualKeyCode::F13),
keysyms::XKB_KEY_F14 => Some(VirtualKeyCode::F14),
keysyms::XKB_KEY_F15 => Some(VirtualKeyCode::F15),
keysyms::XKB_KEY_F16 => Some(VirtualKeyCode::F16),
keysyms::XKB_KEY_F17 => Some(VirtualKeyCode::F17),
keysyms::XKB_KEY_F18 => Some(VirtualKeyCode::F18),
keysyms::XKB_KEY_F19 => Some(VirtualKeyCode::F19),
keysyms::XKB_KEY_F20 => Some(VirtualKeyCode::F20),
keysyms::XKB_KEY_F21 => Some(VirtualKeyCode::F21),
keysyms::XKB_KEY_F22 => Some(VirtualKeyCode::F22),
keysyms::XKB_KEY_F23 => Some(VirtualKeyCode::F23),
keysyms::XKB_KEY_F24 => Some(VirtualKeyCode::F24),
// Flow control.
keysyms::XKB_KEY_Print => Some(VirtualKeyCode::Snapshot),
keysyms::XKB_KEY_Scroll_Lock => Some(VirtualKeyCode::Scroll),
keysyms::XKB_KEY_Pause => Some(VirtualKeyCode::Pause),
keysyms::XKB_KEY_Insert => Some(VirtualKeyCode::Insert),
keysyms::XKB_KEY_Home => Some(VirtualKeyCode::Home),
keysyms::XKB_KEY_Delete => Some(VirtualKeyCode::Delete),
keysyms::XKB_KEY_End => Some(VirtualKeyCode::End),
keysyms::XKB_KEY_Page_Down => Some(VirtualKeyCode::PageDown),
keysyms::XKB_KEY_Page_Up => Some(VirtualKeyCode::PageUp),
// Arrows.
keysyms::XKB_KEY_Left => Some(VirtualKeyCode::Left),
keysyms::XKB_KEY_Up => Some(VirtualKeyCode::Up),
keysyms::XKB_KEY_Right => Some(VirtualKeyCode::Right),
keysyms::XKB_KEY_Down => Some(VirtualKeyCode::Down),
keysyms::XKB_KEY_BackSpace => Some(VirtualKeyCode::Back),
keysyms::XKB_KEY_Return => Some(VirtualKeyCode::Return),
keysyms::XKB_KEY_space => Some(VirtualKeyCode::Space),
keysyms::XKB_KEY_Multi_key => Some(VirtualKeyCode::Compose),
keysyms::XKB_KEY_caret => Some(VirtualKeyCode::Caret),
// Keypad.
keysyms::XKB_KEY_Num_Lock => Some(VirtualKeyCode::Numlock),
keysyms::XKB_KEY_KP_0 => Some(VirtualKeyCode::Numpad0),
keysyms::XKB_KEY_KP_1 => Some(VirtualKeyCode::Numpad1),
keysyms::XKB_KEY_KP_2 => Some(VirtualKeyCode::Numpad2),
keysyms::XKB_KEY_KP_3 => Some(VirtualKeyCode::Numpad3),
keysyms::XKB_KEY_KP_4 => Some(VirtualKeyCode::Numpad4),
keysyms::XKB_KEY_KP_5 => Some(VirtualKeyCode::Numpad5),
keysyms::XKB_KEY_KP_6 => Some(VirtualKeyCode::Numpad6),
keysyms::XKB_KEY_KP_7 => Some(VirtualKeyCode::Numpad7),
keysyms::XKB_KEY_KP_8 => Some(VirtualKeyCode::Numpad8),
keysyms::XKB_KEY_KP_9 => Some(VirtualKeyCode::Numpad9),
// Misc.
// => Some(VirtualKeyCode::AbntC1),
// => Some(VirtualKeyCode::AbntC2),
keysyms::XKB_KEY_plus => Some(VirtualKeyCode::Plus),
keysyms::XKB_KEY_apostrophe => Some(VirtualKeyCode::Apostrophe),
// => Some(VirtualKeyCode::Apps),
keysyms::XKB_KEY_at => Some(VirtualKeyCode::At),
// => Some(VirtualKeyCode::Ax),
keysyms::XKB_KEY_backslash => Some(VirtualKeyCode::Backslash),
keysyms::XKB_KEY_XF86Calculator => Some(VirtualKeyCode::Calculator),
// => Some(VirtualKeyCode::Capital),
keysyms::XKB_KEY_colon => Some(VirtualKeyCode::Colon),
keysyms::XKB_KEY_comma => Some(VirtualKeyCode::Comma),
// => Some(VirtualKeyCode::Convert),
keysyms::XKB_KEY_equal => Some(VirtualKeyCode::Equals),
keysyms::XKB_KEY_grave => Some(VirtualKeyCode::Grave),
// => Some(VirtualKeyCode::Kana),
keysyms::XKB_KEY_Kanji => Some(VirtualKeyCode::Kanji),
keysyms::XKB_KEY_Alt_L => Some(VirtualKeyCode::LAlt),
keysyms::XKB_KEY_bracketleft => Some(VirtualKeyCode::LBracket),
keysyms::XKB_KEY_Control_L => Some(VirtualKeyCode::LControl),
keysyms::XKB_KEY_Shift_L => Some(VirtualKeyCode::LShift),
keysyms::XKB_KEY_Super_L => Some(VirtualKeyCode::LWin),
keysyms::XKB_KEY_XF86Mail => Some(VirtualKeyCode::Mail),
// => Some(VirtualKeyCode::MediaSelect),
// => Some(VirtualKeyCode::MediaStop),
keysyms::XKB_KEY_minus => Some(VirtualKeyCode::Minus),
keysyms::XKB_KEY_asterisk => Some(VirtualKeyCode::Asterisk),
keysyms::XKB_KEY_XF86AudioMute => Some(VirtualKeyCode::Mute),
// => Some(VirtualKeyCode::MyComputer),
keysyms::XKB_KEY_XF86AudioNext => Some(VirtualKeyCode::NextTrack),
// => Some(VirtualKeyCode::NoConvert),
keysyms::XKB_KEY_KP_Separator => Some(VirtualKeyCode::NumpadComma),
keysyms::XKB_KEY_KP_Enter => Some(VirtualKeyCode::NumpadEnter),
keysyms::XKB_KEY_KP_Equal => Some(VirtualKeyCode::NumpadEquals),
keysyms::XKB_KEY_KP_Add => Some(VirtualKeyCode::NumpadAdd),
keysyms::XKB_KEY_KP_Subtract => Some(VirtualKeyCode::NumpadSubtract),
keysyms::XKB_KEY_KP_Multiply => Some(VirtualKeyCode::NumpadMultiply),
keysyms::XKB_KEY_KP_Divide => Some(VirtualKeyCode::NumpadDivide),
keysyms::XKB_KEY_KP_Decimal => Some(VirtualKeyCode::NumpadDecimal),
keysyms::XKB_KEY_KP_Page_Up => Some(VirtualKeyCode::PageUp),
keysyms::XKB_KEY_KP_Page_Down => Some(VirtualKeyCode::PageDown),
keysyms::XKB_KEY_KP_Home => Some(VirtualKeyCode::Home),
keysyms::XKB_KEY_KP_End => Some(VirtualKeyCode::End),
// => Some(VirtualKeyCode::OEM102),
keysyms::XKB_KEY_period => Some(VirtualKeyCode::Period),
// => Some(VirtualKeyCode::Playpause),
keysyms::XKB_KEY_XF86PowerOff => Some(VirtualKeyCode::Power),
keysyms::XKB_KEY_XF86AudioPrev => Some(VirtualKeyCode::PrevTrack),
keysyms::XKB_KEY_Alt_R => Some(VirtualKeyCode::RAlt),
keysyms::XKB_KEY_bracketright => Some(VirtualKeyCode::RBracket),
keysyms::XKB_KEY_Control_R => Some(VirtualKeyCode::RControl),
keysyms::XKB_KEY_Shift_R => Some(VirtualKeyCode::RShift),
keysyms::XKB_KEY_Super_R => Some(VirtualKeyCode::RWin),
keysyms::XKB_KEY_semicolon => Some(VirtualKeyCode::Semicolon),
keysyms::XKB_KEY_slash => Some(VirtualKeyCode::Slash),
keysyms::XKB_KEY_XF86Sleep => Some(VirtualKeyCode::Sleep),
// => Some(VirtualKeyCode::Stop),
// => Some(VirtualKeyCode::Sysrq),
keysyms::XKB_KEY_Tab => Some(VirtualKeyCode::Tab),
keysyms::XKB_KEY_ISO_Left_Tab => Some(VirtualKeyCode::Tab),
keysyms::XKB_KEY_underscore => Some(VirtualKeyCode::Underline),
// => Some(VirtualKeyCode::Unlabeled),
keysyms::XKB_KEY_XF86AudioLowerVolume => Some(VirtualKeyCode::VolumeDown),
keysyms::XKB_KEY_XF86AudioRaiseVolume => Some(VirtualKeyCode::VolumeUp),
// => Some(VirtualKeyCode::Wake),
// => Some(VirtualKeyCode::Webback),
// => Some(VirtualKeyCode::WebFavorites),
// => Some(VirtualKeyCode::WebForward),
// => Some(VirtualKeyCode::WebHome),
// => Some(VirtualKeyCode::WebRefresh),
// => Some(VirtualKeyCode::WebSearch),
// => Some(VirtualKeyCode::WebStop),
keysyms::XKB_KEY_yen => Some(VirtualKeyCode::Yen),
keysyms::XKB_KEY_XF86Copy => Some(VirtualKeyCode::Copy),
keysyms::XKB_KEY_XF86Paste => Some(VirtualKeyCode::Paste),
keysyms::XKB_KEY_XF86Cut => Some(VirtualKeyCode::Cut),
// Fallback.
_ => None,
}
}

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//! Wayland keyboard handling.
use std::cell::RefCell;
use std::rc::Rc;
use sctk::reexports::client::protocol::wl_keyboard::WlKeyboard;
use sctk::reexports::client::protocol::wl_seat::WlSeat;
use sctk::reexports::client::Attached;
use sctk::reexports::calloop::{LoopHandle, Source};
use sctk::seat::keyboard::{self, RepeatSource};
use crate::event::ModifiersState;
use crate::platform_impl::wayland::event_loop::WinitState;
use crate::platform_impl::wayland::WindowId;
mod handlers;
mod keymap;
pub(crate) struct Keyboard {
pub keyboard: WlKeyboard,
/// The source for repeat keys.
pub repeat_source: Option<Source<RepeatSource>>,
/// LoopHandle to drop `RepeatSource`, when dropping the keyboard.
pub loop_handle: LoopHandle<WinitState>,
}
impl Keyboard {
pub fn new(
seat: &Attached<WlSeat>,
loop_handle: LoopHandle<WinitState>,
modifiers_state: Rc<RefCell<ModifiersState>>,
) -> Option<Self> {
let mut inner = KeyboardInner::new(modifiers_state);
let keyboard_data = keyboard::map_keyboard_repeat(
loop_handle.clone(),
&seat,
None,
keyboard::RepeatKind::System,
move |event, _, mut dispatch_data| {
let winit_state = dispatch_data.get::<WinitState>().unwrap();
handlers::handle_keyboard(event, &mut inner, winit_state);
},
);
let (keyboard, repeat_source) = keyboard_data.ok()?;
Some(Self {
keyboard,
loop_handle,
repeat_source: Some(repeat_source),
})
}
}
impl Drop for Keyboard {
fn drop(&mut self) {
if self.keyboard.as_ref().version() >= 3 {
self.keyboard.release();
}
if let Some(repeat_source) = self.repeat_source.take() {
self.loop_handle.remove(repeat_source);
}
}
}
struct KeyboardInner {
/// Currently focused surface.
target_window_id: Option<WindowId>,
/// A pending state of modifiers.
///
/// This state is getting set if we've got a modifiers update
/// before `Enter` event, which shouldn't happen in general, however
/// some compositors are still doing so.
pending_modifers_state: Option<ModifiersState>,
/// Current state of modifiers keys.
modifiers_state: Rc<RefCell<ModifiersState>>,
}
impl KeyboardInner {
fn new(modifiers_state: Rc<RefCell<ModifiersState>>) -> Self {
Self {
target_window_id: None,
pending_modifers_state: None,
modifiers_state,
}
}
}
impl From<keyboard::ModifiersState> for ModifiersState {
fn from(mods: keyboard::ModifiersState) -> ModifiersState {
let mut wl_mods = ModifiersState::empty();
wl_mods.set(ModifiersState::SHIFT, mods.shift);
wl_mods.set(ModifiersState::CTRL, mods.ctrl);
wl_mods.set(ModifiersState::ALT, mods.alt);
wl_mods.set(ModifiersState::LOGO, mods.logo);
wl_mods
}
}

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//! Seat handling and managing.
use std::cell::RefCell;
use std::rc::Rc;
use sctk::reexports::protocols::unstable::relative_pointer::v1::client::zwp_relative_pointer_manager_v1::ZwpRelativePointerManagerV1;
use sctk::reexports::protocols::unstable::pointer_constraints::v1::client::zwp_pointer_constraints_v1::ZwpPointerConstraintsV1;
use sctk::reexports::protocols::unstable::text_input::v3::client::zwp_text_input_manager_v3::ZwpTextInputManagerV3;
use sctk::reexports::client::protocol::wl_seat::WlSeat;
use sctk::reexports::client::Attached;
use sctk::environment::Environment;
use sctk::reexports::calloop::LoopHandle;
use sctk::seat::pointer::ThemeManager;
use sctk::seat::{SeatData, SeatListener};
use super::env::WinitEnv;
use super::event_loop::WinitState;
use crate::event::ModifiersState;
mod keyboard;
pub mod pointer;
pub mod text_input;
mod touch;
use keyboard::Keyboard;
use pointer::Pointers;
use text_input::TextInput;
use touch::Touch;
pub struct SeatManager {
/// Listener for seats.
_seat_listener: SeatListener,
}
impl SeatManager {
pub fn new(
env: &Environment<WinitEnv>,
loop_handle: LoopHandle<WinitState>,
theme_manager: ThemeManager,
) -> Self {
let relative_pointer_manager = env.get_global::<ZwpRelativePointerManagerV1>();
let pointer_constraints = env.get_global::<ZwpPointerConstraintsV1>();
let text_input_manager = env.get_global::<ZwpTextInputManagerV3>();
let mut inner = SeatManagerInner::new(
theme_manager,
relative_pointer_manager,
pointer_constraints,
text_input_manager,
loop_handle,
);
// Handle existing seats.
for seat in env.get_all_seats() {
let seat_data = match sctk::seat::clone_seat_data(&seat) {
Some(seat_data) => seat_data,
None => continue,
};
inner.process_seat_update(&seat, &seat_data);
}
let seat_listener = env.listen_for_seats(move |seat, seat_data, _| {
inner.process_seat_update(&seat, &seat_data);
});
Self {
_seat_listener: seat_listener,
}
}
}
/// Inner state of the seat manager.
struct SeatManagerInner {
/// Currently observed seats.
seats: Vec<SeatInfo>,
/// Loop handle.
loop_handle: LoopHandle<WinitState>,
/// Relative pointer manager.
relative_pointer_manager: Option<Attached<ZwpRelativePointerManagerV1>>,
/// Pointer constraints.
pointer_constraints: Option<Attached<ZwpPointerConstraintsV1>>,
/// Text input manager.
text_input_manager: Option<Attached<ZwpTextInputManagerV3>>,
/// A theme manager.
theme_manager: ThemeManager,
}
impl SeatManagerInner {
fn new(
theme_manager: ThemeManager,
relative_pointer_manager: Option<Attached<ZwpRelativePointerManagerV1>>,
pointer_constraints: Option<Attached<ZwpPointerConstraintsV1>>,
text_input_manager: Option<Attached<ZwpTextInputManagerV3>>,
loop_handle: LoopHandle<WinitState>,
) -> Self {
Self {
seats: Vec::new(),
loop_handle,
relative_pointer_manager,
pointer_constraints,
text_input_manager,
theme_manager,
}
}
/// Handle seats update from the `SeatListener`.
pub fn process_seat_update(&mut self, seat: &Attached<WlSeat>, seat_data: &SeatData) {
let detached_seat = seat.detach();
let position = self.seats.iter().position(|si| si.seat == detached_seat);
let index = position.unwrap_or_else(|| {
self.seats.push(SeatInfo::new(detached_seat));
self.seats.len() - 1
});
let seat_info = &mut self.seats[index];
// Pointer handling.
if seat_data.has_pointer && !seat_data.defunct {
if seat_info.pointer.is_none() {
seat_info.pointer = Some(Pointers::new(
&seat,
&self.theme_manager,
&self.relative_pointer_manager,
&self.pointer_constraints,
seat_info.modifiers_state.clone(),
));
}
} else {
seat_info.pointer = None;
}
// Handle keyboard.
if seat_data.has_keyboard && !seat_data.defunct {
if seat_info.keyboard.is_none() {
seat_info.keyboard = Keyboard::new(
&seat,
self.loop_handle.clone(),
seat_info.modifiers_state.clone(),
);
}
} else {
seat_info.keyboard = None;
}
// Handle touch.
if seat_data.has_touch && !seat_data.defunct {
if seat_info.touch.is_none() {
seat_info.touch = Some(Touch::new(&seat));
}
} else {
seat_info.touch = None;
}
// Handle text input.
if let Some(text_input_manager) = self.text_input_manager.as_ref() {
if seat_data.defunct {
seat_info.text_input = None;
} else if seat_info.text_input.is_none() {
seat_info.text_input = Some(TextInput::new(&seat, &text_input_manager));
}
}
}
}
/// Resources associtated with a given seat.
struct SeatInfo {
/// Seat to which this `SeatInfo` belongs.
seat: WlSeat,
/// A keyboard handle with its repeat rate handling.
keyboard: Option<Keyboard>,
/// All pointers we're using on a seat.
pointer: Option<Pointers>,
/// Touch handling.
touch: Option<Touch>,
/// Text input handling aka IME.
text_input: Option<TextInput>,
/// The current state of modifiers observed in keyboard handler.
///
/// We keep modifiers state on a seat, since it's being used by pointer events as well.
modifiers_state: Rc<RefCell<ModifiersState>>,
}
impl SeatInfo {
pub fn new(seat: WlSeat) -> Self {
Self {
seat,
keyboard: None,
pointer: None,
touch: None,
text_input: None,
modifiers_state: Rc::new(RefCell::new(ModifiersState::default())),
}
}
}

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//! Data which is used in pointer callbacks.
use std::cell::{Cell, RefCell};
use std::rc::Rc;
use sctk::reexports::client::protocol::wl_surface::WlSurface;
use sctk::reexports::client::Attached;
use sctk::reexports::protocols::unstable::pointer_constraints::v1::client::zwp_pointer_constraints_v1::{ZwpPointerConstraintsV1};
use sctk::reexports::protocols::unstable::pointer_constraints::v1::client::zwp_confined_pointer_v1::ZwpConfinedPointerV1;
use crate::event::{ModifiersState, TouchPhase};
/// A data being used by pointer handlers.
pub(super) struct PointerData {
/// Winit's surface the pointer is currently over.
pub surface: Option<WlSurface>,
/// Current modifiers state.
///
/// This refers a state of modifiers from `WlKeyboard` on
/// the given seat.
pub modifiers_state: Rc<RefCell<ModifiersState>>,
/// Pointer constraints.
pub pointer_constraints: Option<Attached<ZwpPointerConstraintsV1>>,
pub confined_pointer: Rc<RefCell<Option<ZwpConfinedPointerV1>>>,
/// A latest event serial.
pub latest_serial: Rc<Cell<u32>>,
/// The currently accumulated axis data on a pointer.
pub axis_data: AxisData,
}
impl PointerData {
pub fn new(
confined_pointer: Rc<RefCell<Option<ZwpConfinedPointerV1>>>,
pointer_constraints: Option<Attached<ZwpPointerConstraintsV1>>,
modifiers_state: Rc<RefCell<ModifiersState>>,
) -> Self {
Self {
surface: None,
latest_serial: Rc::new(Cell::new(0)),
confined_pointer,
modifiers_state,
pointer_constraints,
axis_data: AxisData::new(),
}
}
}
/// Axis data.
#[derive(Clone, Copy)]
pub(super) struct AxisData {
/// Current state of the axis.
pub axis_state: TouchPhase,
/// A buffer for `PixelDelta` event.
pub axis_buffer: Option<(f32, f32)>,
/// A buffer for `LineDelta` event.
pub axis_discrete_buffer: Option<(f32, f32)>,
}
impl AxisData {
pub fn new() -> Self {
Self {
axis_state: TouchPhase::Ended,
axis_buffer: None,
axis_discrete_buffer: None,
}
}
}

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//! Handlers for the pointers we're using.
use std::cell::RefCell;
use std::rc::Rc;
use sctk::reexports::client::protocol::wl_pointer::{self, Event as PointerEvent};
use sctk::reexports::protocols::unstable::relative_pointer::v1::client::zwp_relative_pointer_v1::Event as RelativePointerEvent;
use sctk::seat::pointer::ThemedPointer;
use crate::dpi::LogicalPosition;
use crate::event::{
DeviceEvent, ElementState, MouseButton, MouseScrollDelta, TouchPhase, WindowEvent,
};
use crate::platform_impl::wayland::event_loop::WinitState;
use crate::platform_impl::wayland::{self, DeviceId};
use super::{PointerData, WinitPointer};
#[inline]
pub(super) fn handle_pointer(
pointer: ThemedPointer,
event: PointerEvent,
pointer_data: &Rc<RefCell<PointerData>>,
winit_state: &mut WinitState,
) {
let event_sink = &mut winit_state.event_sink;
let mut pointer_data = pointer_data.borrow_mut();
match event {
PointerEvent::Enter {
surface,
surface_x,
surface_y,
serial,
..
} => {
pointer_data.latest_serial.replace(serial);
let window_id = wayland::make_wid(&surface);
if !winit_state.window_map.contains_key(&window_id) {
return;
}
let window_handle = match winit_state.window_map.get_mut(&window_id) {
Some(window_handle) => window_handle,
None => return,
};
let scale_factor = sctk::get_surface_scale_factor(&surface) as f64;
pointer_data.surface = Some(surface);
// Notify window that pointer entered the surface.
let winit_pointer = WinitPointer {
pointer,
confined_pointer: Rc::downgrade(&pointer_data.confined_pointer),
pointer_constraints: pointer_data.pointer_constraints.clone(),
latest_serial: pointer_data.latest_serial.clone(),
};
window_handle.pointer_entered(winit_pointer);
event_sink.push_window_event(
WindowEvent::CursorEntered {
device_id: crate::event::DeviceId(crate::platform_impl::DeviceId::Wayland(
DeviceId,
)),
},
window_id,
);
let position = LogicalPosition::new(surface_x, surface_y).to_physical(scale_factor);
event_sink.push_window_event(
WindowEvent::CursorMoved {
device_id: crate::event::DeviceId(crate::platform_impl::DeviceId::Wayland(
DeviceId,
)),
position,
modifiers: *pointer_data.modifiers_state.borrow(),
},
window_id,
);
}
PointerEvent::Leave { surface, serial } => {
pointer_data.surface = None;
pointer_data.latest_serial.replace(serial);
let window_id = wayland::make_wid(&surface);
let window_handle = match winit_state.window_map.get_mut(&window_id) {
Some(window_handle) => window_handle,
None => return,
};
// Notify a window that pointer is no longer observing it.
let winit_pointer = WinitPointer {
pointer,
confined_pointer: Rc::downgrade(&pointer_data.confined_pointer),
pointer_constraints: pointer_data.pointer_constraints.clone(),
latest_serial: pointer_data.latest_serial.clone(),
};
window_handle.pointer_left(winit_pointer);
event_sink.push_window_event(
WindowEvent::CursorLeft {
device_id: crate::event::DeviceId(crate::platform_impl::DeviceId::Wayland(
DeviceId,
)),
},
window_id,
);
}
PointerEvent::Motion {
surface_x,
surface_y,
..
} => {
let surface = match pointer_data.surface.as_ref() {
Some(surface) => surface,
None => return,
};
let window_id = wayland::make_wid(surface);
let scale_factor = sctk::get_surface_scale_factor(&surface) as f64;
let position = LogicalPosition::new(surface_x, surface_y).to_physical(scale_factor);
event_sink.push_window_event(
WindowEvent::CursorMoved {
device_id: crate::event::DeviceId(crate::platform_impl::DeviceId::Wayland(
DeviceId,
)),
position,
modifiers: *pointer_data.modifiers_state.borrow(),
},
window_id,
);
}
PointerEvent::Button {
button,
state,
serial,
..
} => {
pointer_data.latest_serial.replace(serial);
let window_id = match pointer_data.surface.as_ref().map(wayland::make_wid) {
Some(window_id) => window_id,
None => return,
};
let state = match state {
wl_pointer::ButtonState::Pressed => ElementState::Pressed,
wl_pointer::ButtonState::Released => ElementState::Released,
_ => unreachable!(),
};
let button = match button {
0x110 => MouseButton::Left,
0x111 => MouseButton::Right,
0x112 => MouseButton::Middle,
// TODO - figure out the translation.
_ => return,
};
event_sink.push_window_event(
WindowEvent::MouseInput {
device_id: crate::event::DeviceId(crate::platform_impl::DeviceId::Wayland(
DeviceId,
)),
state,
button,
modifiers: *pointer_data.modifiers_state.borrow(),
},
window_id,
);
}
PointerEvent::Axis { axis, value, .. } => {
let surface = match pointer_data.surface.as_ref() {
Some(surface) => surface,
None => return,
};
let window_id = wayland::make_wid(&surface);
if pointer.as_ref().version() < 5 {
let (mut x, mut y) = (0.0, 0.0);
// Old seat compatibility.
match axis {
// Wayland vertical sign convention is the inverse of winit.
wl_pointer::Axis::VerticalScroll => y -= value as f32,
wl_pointer::Axis::HorizontalScroll => x += value as f32,
_ => unreachable!(),
}
let scale_factor = sctk::get_surface_scale_factor(&surface) as f64;
let delta = LogicalPosition::new(x as f64, y as f64).to_physical(scale_factor);
event_sink.push_window_event(
WindowEvent::MouseWheel {
device_id: crate::event::DeviceId(crate::platform_impl::DeviceId::Wayland(
DeviceId,
)),
delta: MouseScrollDelta::PixelDelta(delta),
phase: TouchPhase::Moved,
modifiers: *pointer_data.modifiers_state.borrow(),
},
window_id,
);
} else {
let (mut x, mut y) = pointer_data.axis_data.axis_buffer.unwrap_or((0.0, 0.0));
match axis {
// Wayland vertical sign convention is the inverse of winit.
wl_pointer::Axis::VerticalScroll => y -= value as f32,
wl_pointer::Axis::HorizontalScroll => x += value as f32,
_ => unreachable!(),
}
pointer_data.axis_data.axis_buffer = Some((x, y));
pointer_data.axis_data.axis_state = match pointer_data.axis_data.axis_state {
TouchPhase::Started | TouchPhase::Moved => TouchPhase::Moved,
_ => TouchPhase::Started,
}
}
}
PointerEvent::AxisDiscrete { axis, discrete } => {
let (mut x, mut y) = pointer_data
.axis_data
.axis_discrete_buffer
.unwrap_or((0., 0.));
match axis {
// Wayland vertical sign convention is the inverse of winit.
wl_pointer::Axis::VerticalScroll => y -= discrete as f32,
wl_pointer::Axis::HorizontalScroll => x += discrete as f32,
_ => unreachable!(),
}
pointer_data.axis_data.axis_discrete_buffer = Some((x, y));
pointer_data.axis_data.axis_state = match pointer_data.axis_data.axis_state {
TouchPhase::Started | TouchPhase::Moved => TouchPhase::Moved,
_ => TouchPhase::Started,
}
}
PointerEvent::AxisSource { .. } => (),
PointerEvent::AxisStop { .. } => {
pointer_data.axis_data.axis_state = TouchPhase::Ended;
}
PointerEvent::Frame => {
let axis_buffer = pointer_data.axis_data.axis_buffer.take();
let axis_discrete_buffer = pointer_data.axis_data.axis_discrete_buffer.take();
let surface = match pointer_data.surface.as_ref() {
Some(surface) => surface,
None => return,
};
let window_id = wayland::make_wid(&surface);
let window_event = if let Some((x, y)) = axis_discrete_buffer {
WindowEvent::MouseWheel {
device_id: crate::event::DeviceId(crate::platform_impl::DeviceId::Wayland(
DeviceId,
)),
delta: MouseScrollDelta::LineDelta(x, y),
phase: pointer_data.axis_data.axis_state,
modifiers: *pointer_data.modifiers_state.borrow(),
}
} else if let Some((x, y)) = axis_buffer {
let scale_factor = sctk::get_surface_scale_factor(&surface) as f64;
let delta = LogicalPosition::new(x, y).to_physical(scale_factor);
WindowEvent::MouseWheel {
device_id: crate::event::DeviceId(crate::platform_impl::DeviceId::Wayland(
DeviceId,
)),
delta: MouseScrollDelta::PixelDelta(delta),
phase: pointer_data.axis_data.axis_state,
modifiers: *pointer_data.modifiers_state.borrow(),
}
} else {
return;
};
event_sink.push_window_event(window_event, window_id);
}
_ => (),
}
}
#[inline]
pub(super) fn handle_relative_pointer(event: RelativePointerEvent, winit_state: &mut WinitState) {
if let RelativePointerEvent::RelativeMotion { dx, dy, .. } = event {
winit_state
.event_sink
.push_device_event(DeviceEvent::MouseMotion { delta: (dx, dy) }, DeviceId)
}
}

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//! All pointer related handling.
use std::cell::{Cell, RefCell};
use std::rc::{Rc, Weak};
use sctk::reexports::client::protocol::wl_pointer::WlPointer;
use sctk::reexports::client::protocol::wl_seat::WlSeat;
use sctk::reexports::client::protocol::wl_surface::WlSurface;
use sctk::reexports::client::Attached;
use sctk::reexports::protocols::unstable::relative_pointer::v1::client::zwp_relative_pointer_manager_v1::ZwpRelativePointerManagerV1;
use sctk::reexports::protocols::unstable::relative_pointer::v1::client::zwp_relative_pointer_v1::ZwpRelativePointerV1;
use sctk::reexports::protocols::unstable::pointer_constraints::v1::client::zwp_pointer_constraints_v1::{ZwpPointerConstraintsV1, Lifetime};
use sctk::reexports::protocols::unstable::pointer_constraints::v1::client::zwp_confined_pointer_v1::ZwpConfinedPointerV1;
use sctk::seat::pointer::{ThemeManager, ThemedPointer};
use crate::event::ModifiersState;
use crate::platform_impl::wayland::event_loop::WinitState;
use crate::window::CursorIcon;
mod data;
mod handlers;
use data::PointerData;
/// A proxy to Wayland pointer, which serves requests from a `WindowHandle`.
pub struct WinitPointer {
pointer: ThemedPointer,
/// Create confined pointers.
pointer_constraints: Option<Attached<ZwpPointerConstraintsV1>>,
/// Cursor to handle confine requests.
confined_pointer: Weak<RefCell<Option<ZwpConfinedPointerV1>>>,
/// Latest observed serial in pointer events.
latest_serial: Rc<Cell<u32>>,
}
impl PartialEq for WinitPointer {
fn eq(&self, other: &Self) -> bool {
*self.pointer == *other.pointer
}
}
impl Eq for WinitPointer {}
impl WinitPointer {
/// Set the cursor icon.
///
/// Providing `None` will hide the cursor.
pub fn set_cursor(&self, cursor_icon: Option<CursorIcon>) {
let cursor_icon = match cursor_icon {
Some(cursor_icon) => cursor_icon,
None => {
// Hide the cursor.
(*self.pointer).set_cursor(self.latest_serial.get(), None, 0, 0);
return;
}
};
let cursors: &[&str] = match cursor_icon {
CursorIcon::Alias => &["link"],
CursorIcon::Arrow => &["arrow"],
CursorIcon::Cell => &["plus"],
CursorIcon::Copy => &["copy"],
CursorIcon::Crosshair => &["crosshair"],
CursorIcon::Default => &["left_ptr"],
CursorIcon::Hand => &["hand"],
CursorIcon::Help => &["question_arrow"],
CursorIcon::Move => &["move"],
CursorIcon::Grab => &["openhand", "grab"],
CursorIcon::Grabbing => &["closedhand", "grabbing"],
CursorIcon::Progress => &["progress"],
CursorIcon::AllScroll => &["all-scroll"],
CursorIcon::ContextMenu => &["context-menu"],
CursorIcon::NoDrop => &["no-drop", "circle"],
CursorIcon::NotAllowed => &["crossed_circle"],
// Resize cursors
CursorIcon::EResize => &["right_side"],
CursorIcon::NResize => &["top_side"],
CursorIcon::NeResize => &["top_right_corner"],
CursorIcon::NwResize => &["top_left_corner"],
CursorIcon::SResize => &["bottom_side"],
CursorIcon::SeResize => &["bottom_right_corner"],
CursorIcon::SwResize => &["bottom_left_corner"],
CursorIcon::WResize => &["left_side"],
CursorIcon::EwResize => &["h_double_arrow"],
CursorIcon::NsResize => &["v_double_arrow"],
CursorIcon::NwseResize => &["bd_double_arrow", "size_bdiag"],
CursorIcon::NeswResize => &["fd_double_arrow", "size_fdiag"],
CursorIcon::ColResize => &["split_h", "h_double_arrow"],
CursorIcon::RowResize => &["split_v", "v_double_arrow"],
CursorIcon::Text => &["text", "xterm"],
CursorIcon::VerticalText => &["vertical-text"],
CursorIcon::Wait => &["watch"],
CursorIcon::ZoomIn => &["zoom-in"],
CursorIcon::ZoomOut => &["zoom-out"],
};
let serial = Some(self.latest_serial.get());
for cursor in cursors {
if self.pointer.set_cursor(cursor, serial).is_ok() {
break;
}
}
}
/// Confine the pointer to a surface.
pub fn confine(&self, surface: &WlSurface) {
let pointer_constraints = match &self.pointer_constraints {
Some(pointer_constraints) => pointer_constraints,
None => return,
};
let confined_pointer = match self.confined_pointer.upgrade() {
Some(confined_pointer) => confined_pointer,
// A pointer is gone.
None => return,
};
*confined_pointer.borrow_mut() = Some(init_confined_pointer(
&pointer_constraints,
&surface,
&*self.pointer,
));
}
/// Tries to unconfine the pointer if the current pointer is confined.
pub fn unconfine(&self) {
let confined_pointer = match self.confined_pointer.upgrade() {
Some(confined_pointer) => confined_pointer,
// A pointer is gone.
None => return,
};
let mut confined_pointer = confined_pointer.borrow_mut();
if let Some(confined_pointer) = confined_pointer.take() {
confined_pointer.destroy();
}
}
}
/// A pointer wrapper for easy releasing and managing pointers.
pub(super) struct Pointers {
/// A pointer itself.
pointer: ThemedPointer,
/// A relative pointer handler.
relative_pointer: Option<ZwpRelativePointerV1>,
/// Confined pointer.
confined_pointer: Rc<RefCell<Option<ZwpConfinedPointerV1>>>,
}
impl Pointers {
pub(super) fn new(
seat: &Attached<WlSeat>,
theme_manager: &ThemeManager,
relative_pointer_manager: &Option<Attached<ZwpRelativePointerManagerV1>>,
pointer_constraints: &Option<Attached<ZwpPointerConstraintsV1>>,
modifiers_state: Rc<RefCell<ModifiersState>>,
) -> Self {
let confined_pointer = Rc::new(RefCell::new(None));
let pointer_data = Rc::new(RefCell::new(PointerData::new(
confined_pointer.clone(),
pointer_constraints.clone(),
modifiers_state,
)));
let pointer = theme_manager.theme_pointer_with_impl(
seat,
move |event, pointer, mut dispatch_data| {
let winit_state = dispatch_data.get::<WinitState>().unwrap();
handlers::handle_pointer(pointer, event, &pointer_data, winit_state);
},
);
// Setup relative_pointer if it's available.
let relative_pointer = match relative_pointer_manager.as_ref() {
Some(relative_pointer_manager) => {
Some(init_relative_pointer(&relative_pointer_manager, &*pointer))
}
None => None,
};
Self {
pointer,
relative_pointer,
confined_pointer,
}
}
}
impl Drop for Pointers {
fn drop(&mut self) {
// Drop relative pointer.
if let Some(relative_pointer) = self.relative_pointer.take() {
relative_pointer.destroy();
}
// Drop confined pointer.
if let Some(confined_pointer) = self.confined_pointer.borrow_mut().take() {
confined_pointer.destroy();
}
// Drop the pointer itself in case it's possible.
if self.pointer.as_ref().version() >= 3 {
self.pointer.release();
}
}
}
pub(super) fn init_relative_pointer(
relative_pointer_manager: &ZwpRelativePointerManagerV1,
pointer: &WlPointer,
) -> ZwpRelativePointerV1 {
let relative_pointer = relative_pointer_manager.get_relative_pointer(&*pointer);
relative_pointer.quick_assign(move |_, event, mut dispatch_data| {
let winit_state = dispatch_data.get::<WinitState>().unwrap();
handlers::handle_relative_pointer(event, winit_state);
});
relative_pointer.detach()
}
pub(super) fn init_confined_pointer(
pointer_constraints: &Attached<ZwpPointerConstraintsV1>,
surface: &WlSurface,
pointer: &WlPointer,
) -> ZwpConfinedPointerV1 {
let confined_pointer =
pointer_constraints.confine_pointer(surface, pointer, None, Lifetime::Persistent.to_raw());
confined_pointer.quick_assign(move |_, _, _| {});
confined_pointer.detach()
}

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//! Handling of IME events.
use sctk::reexports::client::Main;
use sctk::reexports::protocols::unstable::text_input::v3::client::zwp_text_input_v3::{
Event as TextInputEvent, ZwpTextInputV3,
};
use crate::event::WindowEvent;
use crate::platform_impl::wayland;
use crate::platform_impl::wayland::event_loop::WinitState;
use super::{TextInputHandler, TextInputInner};
#[inline]
pub(super) fn handle_text_input(
text_input: Main<ZwpTextInputV3>,
inner: &mut TextInputInner,
event: TextInputEvent,
winit_state: &mut WinitState,
) {
let event_sink = &mut winit_state.event_sink;
match event {
TextInputEvent::Enter { surface } => {
let window_id = wayland::make_wid(&surface);
let window_handle = match winit_state.window_map.get_mut(&window_id) {
Some(window_handle) => window_handle,
None => return,
};
inner.target_window_id = Some(window_id);
// Enable text input on that surface.
text_input.enable();
text_input.commit();
// Notify a window we're currently over about text input handler.
let text_input_handler = TextInputHandler {
text_input: text_input.detach(),
};
window_handle.text_input_entered(text_input_handler);
}
TextInputEvent::Leave { surface } => {
// Always issue a disable.
text_input.disable();
text_input.commit();
let window_id = wayland::make_wid(&surface);
let window_handle = match winit_state.window_map.get_mut(&window_id) {
Some(window_handle) => window_handle,
None => return,
};
inner.target_window_id = None;
// Remove text input handler from the window we're leaving.
let text_input_handler = TextInputHandler {
text_input: text_input.detach(),
};
window_handle.text_input_left(text_input_handler);
}
TextInputEvent::CommitString { text } => {
// Update currenly commited string.
inner.commit_string = text;
}
TextInputEvent::Done { .. } => {
let (window_id, text) = match (inner.target_window_id, inner.commit_string.take()) {
(Some(window_id), Some(text)) => (window_id, text),
_ => return,
};
for ch in text.chars() {
event_sink.push_window_event(WindowEvent::ReceivedCharacter(ch), window_id);
}
}
_ => (),
}
}

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use sctk::reexports::client::protocol::wl_seat::WlSeat;
use sctk::reexports::client::Attached;
use sctk::reexports::protocols::unstable::text_input::v3::client::zwp_text_input_manager_v3::ZwpTextInputManagerV3;
use sctk::reexports::protocols::unstable::text_input::v3::client::zwp_text_input_v3::ZwpTextInputV3;
use crate::platform_impl::wayland::event_loop::WinitState;
use crate::platform_impl::wayland::WindowId;
mod handlers;
/// A handler for text input that we're advertising for `WindowHandle`.
#[derive(Eq, PartialEq)]
pub struct TextInputHandler {
text_input: ZwpTextInputV3,
}
impl TextInputHandler {
#[inline]
pub fn set_ime_position(&self, x: i32, y: i32) {
self.text_input.set_cursor_rectangle(x, y, 0, 0);
self.text_input.commit();
}
}
/// A wrapper around text input to automatically destroy the object on `Drop`.
pub struct TextInput {
text_input: Attached<ZwpTextInputV3>,
}
impl TextInput {
pub fn new(seat: &Attached<WlSeat>, text_input_manager: &ZwpTextInputManagerV3) -> Self {
let text_input = text_input_manager.get_text_input(seat);
let mut text_input_inner = TextInputInner::new();
text_input.quick_assign(move |text_input, event, mut dispatch_data| {
let winit_state = dispatch_data.get::<WinitState>().unwrap();
handlers::handle_text_input(text_input, &mut text_input_inner, event, winit_state);
});
let text_input: Attached<ZwpTextInputV3> = text_input.into();
Self { text_input }
}
}
impl Drop for TextInput {
fn drop(&mut self) {
self.text_input.destroy();
}
}
struct TextInputInner {
/// Currently focused surface.
target_window_id: Option<WindowId>,
/// Pending string to commit.
commit_string: Option<String>,
}
impl TextInputInner {
fn new() -> Self {
Self {
target_window_id: None,
commit_string: None,
}
}
}

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//! Various handlers for touch events.
use sctk::reexports::client::protocol::wl_touch::Event as TouchEvent;
use crate::dpi::LogicalPosition;
use crate::event::{TouchPhase, WindowEvent};
use crate::platform_impl::wayland::event_loop::WinitState;
use crate::platform_impl::wayland::{self, DeviceId};
use super::{TouchInner, TouchPoint};
/// Handle WlTouch events.
#[inline]
pub(super) fn handle_touch(
event: TouchEvent,
inner: &mut TouchInner,
winit_state: &mut WinitState,
) {
let event_sink = &mut winit_state.event_sink;
match event {
TouchEvent::Down {
surface, id, x, y, ..
} => {
let window_id = wayland::make_wid(&surface);
if !winit_state.window_map.contains_key(&window_id) {
return;
}
let scale_factor = sctk::get_surface_scale_factor(&surface) as f64;
let position = LogicalPosition::new(x, y);
event_sink.push_window_event(
WindowEvent::Touch(crate::event::Touch {
device_id: crate::event::DeviceId(crate::platform_impl::DeviceId::Wayland(
DeviceId,
)),
phase: TouchPhase::Started,
location: position.to_physical(scale_factor),
force: None, // TODO
id: id as u64,
}),
window_id,
);
inner
.touch_points
.push(TouchPoint::new(surface, position, id));
}
TouchEvent::Up { id, .. } => {
let touch_point = match inner.touch_points.iter().find(|p| p.id == id) {
Some(touch_point) => touch_point,
None => return,
};
let scale_factor = sctk::get_surface_scale_factor(&touch_point.surface) as f64;
let location = touch_point.position.to_physical(scale_factor);
let window_id = wayland::make_wid(&touch_point.surface);
event_sink.push_window_event(
WindowEvent::Touch(crate::event::Touch {
device_id: crate::event::DeviceId(crate::platform_impl::DeviceId::Wayland(
DeviceId,
)),
phase: TouchPhase::Ended,
location,
force: None, // TODO
id: id as u64,
}),
window_id,
);
}
TouchEvent::Motion { id, x, y, .. } => {
let touch_point = match inner.touch_points.iter_mut().find(|p| p.id == id) {
Some(touch_point) => touch_point,
None => return,
};
touch_point.position = LogicalPosition::new(x, y);
let scale_factor = sctk::get_surface_scale_factor(&touch_point.surface) as f64;
let location = touch_point.position.to_physical(scale_factor);
let window_id = wayland::make_wid(&touch_point.surface);
event_sink.push_window_event(
WindowEvent::Touch(crate::event::Touch {
device_id: crate::event::DeviceId(crate::platform_impl::DeviceId::Wayland(
DeviceId,
)),
phase: TouchPhase::Moved,
location,
force: None, // TODO
id: id as u64,
}),
window_id,
);
}
TouchEvent::Frame => (),
TouchEvent::Cancel => {
for touch_point in inner.touch_points.drain(..) {
let scale_factor = sctk::get_surface_scale_factor(&touch_point.surface) as f64;
let location = touch_point.position.to_physical(scale_factor);
let window_id = wayland::make_wid(&touch_point.surface);
event_sink.push_window_event(
WindowEvent::Touch(crate::event::Touch {
device_id: crate::event::DeviceId(crate::platform_impl::DeviceId::Wayland(
DeviceId,
)),
phase: TouchPhase::Cancelled,
location,
force: None, // TODO
id: touch_point.id as u64,
}),
window_id,
);
}
}
_ => (),
}
}

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//! Touch handling.
use sctk::reexports::client::protocol::wl_seat::WlSeat;
use sctk::reexports::client::protocol::wl_surface::WlSurface;
use sctk::reexports::client::protocol::wl_touch::WlTouch;
use sctk::reexports::client::Attached;
use crate::dpi::LogicalPosition;
use crate::platform_impl::wayland::event_loop::WinitState;
mod handlers;
/// Wrapper around touch to handle release.
pub struct Touch {
/// Proxy to touch.
touch: WlTouch,
}
impl Touch {
pub fn new(seat: &Attached<WlSeat>) -> Self {
let touch = seat.get_touch();
let mut inner = TouchInner::new();
touch.quick_assign(move |_, event, mut dispatch_data| {
let winit_state = dispatch_data.get::<WinitState>().unwrap();
handlers::handle_touch(event, &mut inner, winit_state);
});
Self {
touch: touch.detach(),
}
}
}
impl Drop for Touch {
fn drop(&mut self) {
if self.touch.as_ref().version() >= 3 {
self.touch.release();
}
}
}
/// The data used by touch handlers.
pub(super) struct TouchInner {
/// Current touch points.
touch_points: Vec<TouchPoint>,
}
impl TouchInner {
fn new() -> Self {
Self {
touch_points: Vec::new(),
}
}
}
/// Location of touch press.
pub(super) struct TouchPoint {
/// A surface where the touch point is located.
surface: WlSurface,
/// Location of the touch point.
position: LogicalPosition<f64>,
/// Id.
id: i32,
}
impl TouchPoint {
pub fn new(surface: WlSurface, position: LogicalPosition<f64>, id: i32) -> Self {
Self {
surface,
position,
id,
}
}
}

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@ -1,132 +0,0 @@
use std::sync::{Arc, Mutex};
use crate::dpi::LogicalPosition;
use crate::event::{TouchPhase, WindowEvent};
use super::{event_loop::EventsSink, make_wid, window::WindowStore, DeviceId};
use smithay_client_toolkit::surface;
use smithay_client_toolkit::reexports::client::protocol::{
wl_seat,
wl_surface::WlSurface,
wl_touch::{Event as TouchEvent, WlTouch},
};
// location is in logical coordinates.
struct TouchPoint {
surface: WlSurface,
position: LogicalPosition<f64>,
id: i32,
}
pub(crate) fn implement_touch(
seat: &wl_seat::WlSeat,
sink: EventsSink,
store: Arc<Mutex<WindowStore>>,
) -> WlTouch {
let mut pending_ids = Vec::new();
seat.get_touch(|touch| {
touch.implement_closure(
move |evt, _| {
let store = store.lock().unwrap();
match evt {
TouchEvent::Down {
surface, id, x, y, ..
} => {
let wid = store.find_wid(&surface);
if let Some(wid) = wid {
let scale_factor = surface::get_dpi_factor(&surface) as f64;
let position = LogicalPosition::new(x, y);
sink.send_window_event(
WindowEvent::Touch(crate::event::Touch {
device_id: crate::event::DeviceId(
crate::platform_impl::DeviceId::Wayland(DeviceId),
),
phase: TouchPhase::Started,
location: position.to_physical(scale_factor),
force: None, // TODO
id: id as u64,
}),
wid,
);
pending_ids.push(TouchPoint {
surface,
position,
id,
});
}
}
TouchEvent::Up { id, .. } => {
let idx = pending_ids.iter().position(|p| p.id == id);
if let Some(idx) = idx {
let pt = pending_ids.remove(idx);
let scale_factor = surface::get_dpi_factor(&pt.surface) as f64;
let location = pt.position.to_physical(scale_factor);
sink.send_window_event(
WindowEvent::Touch(crate::event::Touch {
device_id: crate::event::DeviceId(
crate::platform_impl::DeviceId::Wayland(DeviceId),
),
phase: TouchPhase::Ended,
location,
force: None, // TODO
id: id as u64,
}),
make_wid(&pt.surface),
);
}
}
TouchEvent::Motion { id, x, y, .. } => {
let pt = pending_ids.iter_mut().find(|p| p.id == id);
if let Some(pt) = pt {
pt.position = LogicalPosition::new(x, y);
let scale_factor = surface::get_dpi_factor(&pt.surface) as f64;
let location = pt.position.to_physical(scale_factor);
sink.send_window_event(
WindowEvent::Touch(crate::event::Touch {
device_id: crate::event::DeviceId(
crate::platform_impl::DeviceId::Wayland(DeviceId),
),
phase: TouchPhase::Moved,
location,
force: None, // TODO
id: id as u64,
}),
make_wid(&pt.surface),
);
}
}
TouchEvent::Frame => (),
TouchEvent::Cancel => {
for pt in pending_ids.drain(..) {
let scale_factor = surface::get_dpi_factor(&pt.surface) as f64;
let location = pt.position.to_physical(scale_factor);
sink.send_window_event(
WindowEvent::Touch(crate::event::Touch {
device_id: crate::event::DeviceId(
crate::platform_impl::DeviceId::Wayland(DeviceId),
),
phase: TouchPhase::Cancelled,
location,
force: None, // TODO
id: pt.id as u64,
}),
make_wid(&pt.surface),
);
}
}
_ => unreachable!(),
}
},
(),
)
})
.unwrap()
}

View file

@ -1,569 +0,0 @@
use raw_window_handle::unix::WaylandHandle;
use std::{
collections::VecDeque,
mem::replace,
sync::{Arc, Mutex, Weak},
};
use crate::{
dpi::{LogicalSize, PhysicalPosition, PhysicalSize, Position, Size},
error::{ExternalError, NotSupportedError, OsError as RootOsError},
monitor::MonitorHandle as RootMonitorHandle,
platform_impl::{
platform::wayland::event_loop::available_monitors, MonitorHandle as PlatformMonitorHandle,
PlatformSpecificWindowBuilderAttributes as PlAttributes,
},
window::{CursorIcon, Fullscreen, WindowAttributes},
};
use smithay_client_toolkit::{
output::OutputMgr,
reexports::client::{
protocol::{wl_seat, wl_surface},
Display,
},
surface::{get_dpi_factor, get_outputs},
window::{ConceptFrame, Event as WEvent, State as WState, Theme, Window as SWindow},
};
use super::{event_loop::CursorManager, make_wid, EventLoopWindowTarget, MonitorHandle, WindowId};
pub struct Window {
surface: wl_surface::WlSurface,
frame: Arc<Mutex<SWindow<ConceptFrame>>>,
cursor_manager: Arc<Mutex<CursorManager>>,
outputs: OutputMgr, // Access to info for all monitors
size: Arc<Mutex<(u32, u32)>>,
kill_switch: (Arc<Mutex<bool>>, Arc<Mutex<bool>>),
display: Arc<Display>,
need_frame_refresh: Arc<Mutex<bool>>,
need_refresh: Arc<Mutex<bool>>,
fullscreen: Arc<Mutex<bool>>,
cursor_grab_changed: Arc<Mutex<Option<bool>>>, // Update grab state
decorated: Arc<Mutex<bool>>,
}
#[derive(Clone, Copy, Debug)]
pub enum DecorationsAction {
Hide,
Show,
}
impl Window {
pub fn new<T>(
evlp: &EventLoopWindowTarget<T>,
attributes: WindowAttributes,
pl_attribs: PlAttributes,
) -> Result<Window, RootOsError> {
// Create the surface first to get initial DPI
let window_store = evlp.store.clone();
let cursor_manager = evlp.cursor_manager.clone();
let surface = evlp.env.create_surface(move |scale_factor, surface| {
window_store
.lock()
.unwrap()
.scale_factor_change(&surface, scale_factor);
surface.set_buffer_scale(scale_factor);
});
// Always 1.
let scale_factor = get_dpi_factor(&surface);
let (width, height) = attributes
.inner_size
.map(|size| size.to_logical::<f64>(scale_factor as f64).into())
.unwrap_or((800, 600));
// Create the window
let size = Arc::new(Mutex::new((width, height)));
let fullscreen = Arc::new(Mutex::new(false));
let window_store = evlp.store.clone();
let decorated = Arc::new(Mutex::new(attributes.decorations));
let pending_decorations_action = Arc::new(Mutex::new(None));
let my_surface = surface.clone();
let mut frame = SWindow::<ConceptFrame>::init_from_env(
&evlp.env,
surface.clone(),
(width, height),
move |event| match event {
WEvent::Configure { new_size, states } => {
let mut store = window_store.lock().unwrap();
let is_fullscreen = states.contains(&WState::Fullscreen);
for window in &mut store.windows {
if window.surface.as_ref().equals(&my_surface.as_ref()) {
window.new_size = new_size;
*(window.need_refresh.lock().unwrap()) = true;
{
// Get whether we're in fullscreen
let mut fullscreen = window.fullscreen.lock().unwrap();
// Fullscreen state was changed, so update decorations
if *fullscreen != is_fullscreen {
let decorated = { *window.decorated.lock().unwrap() };
if decorated {
*window.pending_decorations_action.lock().unwrap() =
if is_fullscreen {
Some(DecorationsAction::Hide)
} else {
Some(DecorationsAction::Show)
};
}
}
*fullscreen = is_fullscreen;
}
*(window.need_frame_refresh.lock().unwrap()) = true;
return;
}
}
}
WEvent::Refresh => {
let store = window_store.lock().unwrap();
for window in &store.windows {
if window.surface.as_ref().equals(&my_surface.as_ref()) {
*(window.need_frame_refresh.lock().unwrap()) = true;
return;
}
}
}
WEvent::Close => {
let mut store = window_store.lock().unwrap();
for window in &mut store.windows {
if window.surface.as_ref().equals(&my_surface.as_ref()) {
window.closed = true;
return;
}
}
}
},
)
.unwrap();
if let Some(app_id) = pl_attribs.app_id {
frame.set_app_id(app_id);
}
for &(_, ref seat) in evlp.seats.lock().unwrap().iter() {
frame.new_seat(seat);
}
// Check for fullscreen requirements
match attributes.fullscreen {
Some(Fullscreen::Exclusive(_)) => {
panic!("Wayland doesn't support exclusive fullscreen")
}
Some(Fullscreen::Borderless(monitor)) => {
let monitor =
monitor.and_then(|RootMonitorHandle { inner: monitor }| match monitor {
PlatformMonitorHandle::Wayland(monitor) => Some(monitor.proxy),
#[cfg(feature = "x11")]
PlatformMonitorHandle::X(_) => None,
});
frame.set_fullscreen(monitor.as_ref())
}
None => {
if attributes.maximized {
frame.set_maximized();
}
}
}
frame.set_resizable(attributes.resizable);
// set decorations
frame.set_decorate(attributes.decorations);
// set title
frame.set_title(attributes.title);
// min-max dimensions
frame.set_min_size(
attributes
.min_inner_size
.map(|size| size.to_logical::<f64>(scale_factor as f64).into()),
);
frame.set_max_size(
attributes
.max_inner_size
.map(|size| size.to_logical::<f64>(scale_factor as f64).into()),
);
let kill_switch = Arc::new(Mutex::new(false));
let need_frame_refresh = Arc::new(Mutex::new(true));
let frame = Arc::new(Mutex::new(frame));
let need_refresh = Arc::new(Mutex::new(true));
let cursor_grab_changed = Arc::new(Mutex::new(None));
evlp.store.lock().unwrap().windows.push(InternalWindow {
closed: false,
new_size: None,
size: size.clone(),
need_refresh: need_refresh.clone(),
fullscreen: fullscreen.clone(),
cursor_grab_changed: cursor_grab_changed.clone(),
need_frame_refresh: need_frame_refresh.clone(),
surface: surface.clone(),
kill_switch: kill_switch.clone(),
frame: Arc::downgrade(&frame),
current_scale_factor: scale_factor,
new_scale_factor: None,
decorated: decorated.clone(),
pending_decorations_action: pending_decorations_action.clone(),
});
evlp.evq.borrow_mut().sync_roundtrip().unwrap();
Ok(Window {
display: evlp.display.clone(),
surface,
frame,
outputs: evlp.env.outputs.clone(),
size,
kill_switch: (kill_switch, evlp.cleanup_needed.clone()),
need_frame_refresh,
need_refresh,
cursor_manager,
fullscreen,
cursor_grab_changed,
decorated,
})
}
#[inline]
pub fn id(&self) -> WindowId {
make_wid(&self.surface)
}
pub fn set_title(&self, title: &str) {
self.frame.lock().unwrap().set_title(title.into());
}
pub fn set_visible(&self, _visible: bool) {
// TODO
}
#[inline]
pub fn outer_position(&self) -> Result<PhysicalPosition<i32>, NotSupportedError> {
Err(NotSupportedError::new())
}
#[inline]
pub fn inner_position(&self) -> Result<PhysicalPosition<i32>, NotSupportedError> {
Err(NotSupportedError::new())
}
#[inline]
pub fn set_outer_position(&self, _pos: Position) {
// Not possible with wayland
}
pub fn inner_size(&self) -> PhysicalSize<u32> {
let scale_factor = self.scale_factor() as f64;
let size = LogicalSize::<f64>::from(*self.size.lock().unwrap());
size.to_physical(scale_factor)
}
pub fn request_redraw(&self) {
*self.need_refresh.lock().unwrap() = true;
}
#[inline]
pub fn outer_size(&self) -> PhysicalSize<u32> {
let scale_factor = self.scale_factor() as f64;
let (w, h) = self.size.lock().unwrap().clone();
// let (w, h) = super::wayland_window::add_borders(w as i32, h as i32);
let size = LogicalSize::<f64>::from((w, h));
size.to_physical(scale_factor)
}
#[inline]
// NOTE: This will only resize the borders, the contents must be updated by the user
pub fn set_inner_size(&self, size: Size) {
let scale_factor = self.scale_factor() as f64;
let (w, h) = size.to_logical::<u32>(scale_factor).into();
self.frame.lock().unwrap().resize(w, h);
*(self.size.lock().unwrap()) = (w, h);
}
#[inline]
pub fn set_min_inner_size(&self, dimensions: Option<Size>) {
let scale_factor = self.scale_factor() as f64;
self.frame
.lock()
.unwrap()
.set_min_size(dimensions.map(|dim| dim.to_logical::<f64>(scale_factor).into()));
}
#[inline]
pub fn set_max_inner_size(&self, dimensions: Option<Size>) {
let scale_factor = self.scale_factor() as f64;
self.frame
.lock()
.unwrap()
.set_max_size(dimensions.map(|dim| dim.to_logical::<f64>(scale_factor).into()));
}
#[inline]
pub fn set_resizable(&self, resizable: bool) {
self.frame.lock().unwrap().set_resizable(resizable);
}
#[inline]
pub fn scale_factor(&self) -> i32 {
get_dpi_factor(&self.surface)
}
pub fn set_decorations(&self, decorate: bool) {
*(self.decorated.lock().unwrap()) = decorate;
self.frame.lock().unwrap().set_decorate(decorate);
*(self.need_frame_refresh.lock().unwrap()) = true;
}
pub fn set_minimized(&self, minimized: bool) {
// An app cannot un-minimize itself on Wayland
if minimized {
self.frame.lock().unwrap().set_minimized();
}
}
pub fn set_maximized(&self, maximized: bool) {
if maximized {
self.frame.lock().unwrap().set_maximized();
} else {
self.frame.lock().unwrap().unset_maximized();
}
}
pub fn fullscreen(&self) -> Option<Fullscreen> {
if *(self.fullscreen.lock().unwrap()) {
let current_monitor = self
.current_monitor()
.map(|current_monitor| RootMonitorHandle {
inner: PlatformMonitorHandle::Wayland(current_monitor),
});
Some(Fullscreen::Borderless(current_monitor))
} else {
None
}
}
pub fn set_fullscreen(&self, fullscreen: Option<Fullscreen>) {
match fullscreen {
Some(Fullscreen::Exclusive(_)) => {
panic!("Wayland doesn't support exclusive fullscreen")
}
Some(Fullscreen::Borderless(monitor)) => {
let monitor =
monitor.and_then(|RootMonitorHandle { inner: monitor }| match monitor {
PlatformMonitorHandle::Wayland(monitor) => Some(monitor.proxy),
#[cfg(feature = "x11")]
PlatformMonitorHandle::X(_) => None,
});
self.frame.lock().unwrap().set_fullscreen(monitor.as_ref());
}
None => self.frame.lock().unwrap().unset_fullscreen(),
}
}
pub fn set_theme<T: Theme>(&self, theme: T) {
self.frame.lock().unwrap().set_theme(theme)
}
#[inline]
pub fn set_cursor_icon(&self, cursor: CursorIcon) {
let mut cursor_manager = self.cursor_manager.lock().unwrap();
cursor_manager.set_cursor_icon(cursor);
}
#[inline]
pub fn set_cursor_visible(&self, visible: bool) {
let mut cursor_manager = self.cursor_manager.lock().unwrap();
cursor_manager.set_cursor_visible(visible);
}
#[inline]
pub fn set_cursor_grab(&self, grab: bool) -> Result<(), ExternalError> {
*self.cursor_grab_changed.lock().unwrap() = Some(grab);
Ok(())
}
#[inline]
pub fn set_cursor_position(&self, _pos: Position) -> Result<(), ExternalError> {
Err(ExternalError::NotSupported(NotSupportedError::new()))
}
pub fn display(&self) -> &Display {
&*self.display
}
pub fn surface(&self) -> &wl_surface::WlSurface {
&self.surface
}
pub fn current_monitor(&self) -> Option<MonitorHandle> {
let output = get_outputs(&self.surface).last()?.clone();
Some(MonitorHandle {
proxy: output,
mgr: self.outputs.clone(),
})
}
pub fn available_monitors(&self) -> VecDeque<MonitorHandle> {
available_monitors(&self.outputs)
}
pub fn primary_monitor(&self) -> Option<RootMonitorHandle> {
// Wayland doesn't have a notion of primary monitor.
None
}
pub fn raw_window_handle(&self) -> WaylandHandle {
WaylandHandle {
surface: self.surface().as_ref().c_ptr() as *mut _,
display: self.display().as_ref().c_ptr() as *mut _,
..WaylandHandle::empty()
}
}
}
impl Drop for Window {
fn drop(&mut self) {
*(self.kill_switch.0.lock().unwrap()) = true;
*(self.kill_switch.1.lock().unwrap()) = true;
}
}
/*
* Internal store for windows
*/
struct InternalWindow {
surface: wl_surface::WlSurface,
// TODO: CONVERT TO LogicalSize<u32>s
new_size: Option<(u32, u32)>,
size: Arc<Mutex<(u32, u32)>>,
need_refresh: Arc<Mutex<bool>>,
fullscreen: Arc<Mutex<bool>>,
need_frame_refresh: Arc<Mutex<bool>>,
cursor_grab_changed: Arc<Mutex<Option<bool>>>,
closed: bool,
kill_switch: Arc<Mutex<bool>>,
frame: Weak<Mutex<SWindow<ConceptFrame>>>,
current_scale_factor: i32,
new_scale_factor: Option<i32>,
decorated: Arc<Mutex<bool>>,
pending_decorations_action: Arc<Mutex<Option<DecorationsAction>>>,
}
pub struct WindowStore {
windows: Vec<InternalWindow>,
}
pub struct WindowStoreForEach<'a> {
pub new_size: Option<(u32, u32)>,
pub size: &'a Mutex<(u32, u32)>,
pub prev_scale_factor: i32,
pub new_scale_factor: Option<i32>,
pub closed: bool,
pub grab_cursor: Option<bool>,
pub surface: &'a wl_surface::WlSurface,
pub wid: WindowId,
pub frame: Option<Arc<Mutex<SWindow<ConceptFrame>>>>,
pub decorations_action: Option<DecorationsAction>,
}
impl WindowStore {
pub fn new() -> WindowStore {
WindowStore {
windows: Vec::new(),
}
}
pub fn find_wid(&self, surface: &wl_surface::WlSurface) -> Option<WindowId> {
for window in &self.windows {
if surface.as_ref().equals(&window.surface.as_ref()) {
return Some(make_wid(surface));
}
}
None
}
pub fn cleanup(&mut self) -> Vec<WindowId> {
let mut pruned = Vec::new();
self.windows.retain(|w| {
if *w.kill_switch.lock().unwrap() {
// window is dead, cleanup
pruned.push(make_wid(&w.surface));
w.surface.destroy();
false
} else {
true
}
});
pruned
}
pub fn new_seat(&self, seat: &wl_seat::WlSeat) {
for window in &self.windows {
if let Some(w) = window.frame.upgrade() {
w.lock().unwrap().new_seat(seat);
}
}
}
fn scale_factor_change(&mut self, surface: &wl_surface::WlSurface, new: i32) {
for window in &mut self.windows {
if surface.as_ref().equals(&window.surface.as_ref()) {
window.new_scale_factor = Some(new);
*(window.need_refresh.lock().unwrap()) = true;
}
}
}
pub fn for_each<F>(&mut self, mut f: F)
where
F: FnMut(WindowStoreForEach<'_>),
{
for window in &mut self.windows {
let prev_scale_factor = window.current_scale_factor;
if let Some(scale_factor) = window.new_scale_factor {
window.current_scale_factor = scale_factor;
}
let frame = window.frame.upgrade();
let decorations_action = { window.pending_decorations_action.lock().unwrap().take() };
f(WindowStoreForEach {
new_size: window.new_size.take(),
size: &window.size,
prev_scale_factor,
new_scale_factor: window.new_scale_factor.take(),
closed: window.closed,
grab_cursor: window.cursor_grab_changed.lock().unwrap().take(),
surface: &window.surface,
wid: make_wid(&window.surface),
frame,
decorations_action,
});
// avoid re-spamming the event
window.closed = false;
}
}
pub fn for_each_redraw_trigger<F>(&mut self, mut f: F)
where
F: FnMut(bool, bool, WindowId, Option<Arc<Mutex<SWindow<ConceptFrame>>>>),
{
for window in &mut self.windows {
let frame = window.frame.upgrade();
f(
replace(&mut *window.need_refresh.lock().unwrap(), false),
replace(&mut *window.need_frame_refresh.lock().unwrap(), false),
make_wid(&window.surface),
frame,
);
}
}
}

View file

@ -0,0 +1,656 @@
use std::collections::VecDeque;
use std::sync::atomic::{AtomicBool, Ordering};
use std::sync::{Arc, Mutex};
use sctk::reexports::client::protocol::wl_surface::WlSurface;
use sctk::reexports::client::Display;
use sctk::reexports::calloop;
use sctk::window::{
ARGBColor, ButtonColorSpec, ColorSpec, ConceptConfig, ConceptFrame, Decorations,
};
use raw_window_handle::unix::WaylandHandle;
use crate::dpi::{LogicalSize, PhysicalPosition, PhysicalSize, Position, Size};
use crate::error::{ExternalError, NotSupportedError, OsError as RootOsError};
use crate::monitor::MonitorHandle as RootMonitorHandle;
use crate::platform::unix::{ARGBColor as LocalARGBColor, Button, ButtonState, Element, Theme};
use crate::platform_impl::{
MonitorHandle as PlatformMonitorHandle, OsError,
PlatformSpecificWindowBuilderAttributes as PlatformAttributes,
};
use crate::window::{CursorIcon, Fullscreen, WindowAttributes};
use super::env::WindowingFeatures;
use super::event_loop::WinitState;
use super::output::{MonitorHandle, OutputManagerHandle};
use super::{EventLoopWindowTarget, WindowId};
pub mod shim;
use shim::{WindowHandle, WindowRequest, WindowUpdate};
pub struct Window {
/// Window id.
window_id: WindowId,
/// The Wayland display.
display: Display,
/// The underlying wl_surface.
surface: WlSurface,
/// The current window size.
size: Arc<Mutex<LogicalSize<u32>>>,
/// A handle to output manager.
output_manager_handle: OutputManagerHandle,
/// Event loop proxy to wake it up.
event_loop_awakener: calloop::ping::Ping,
/// Fullscreen state.
fullscreen: Arc<AtomicBool>,
/// Available windowing features.
windowing_features: WindowingFeatures,
/// Requests that SCTK window should perform.
window_requests: Arc<Mutex<Vec<WindowRequest>>>,
}
impl Window {
pub fn new<T>(
event_loop_window_target: &EventLoopWindowTarget<T>,
attributes: WindowAttributes,
platform_attributes: PlatformAttributes,
) -> Result<Self, RootOsError> {
let surface = event_loop_window_target
.env
.create_surface_with_scale_callback(move |scale, surface, mut dispatch_data| {
let winit_state = dispatch_data.get::<WinitState>().unwrap();
// Get the window that receiced the event.
let window_id = super::make_wid(&surface);
let mut window_update = winit_state.window_updates.get_mut(&window_id).unwrap();
// Set pending scale factor.
window_update.scale_factor = Some(scale);
window_update.redraw_requested = true;
surface.set_buffer_scale(scale);
})
.detach();
let scale_factor = sctk::get_surface_scale_factor(&surface);
let window_id = super::make_wid(&surface);
let fullscreen = Arc::new(AtomicBool::new(false));
let fullscreen_clone = fullscreen.clone();
let (width, height) = attributes
.inner_size
.map(|size| size.to_logical::<f64>(scale_factor as f64).into())
.unwrap_or((800, 600));
let theme_manager = event_loop_window_target.theme_manager.clone();
let mut window = event_loop_window_target
.env
.create_window::<ConceptFrame, _>(
surface.clone(),
Some(theme_manager),
(width, height),
move |event, mut dispatch_data| {
use sctk::window::{Event, State};
let winit_state = dispatch_data.get::<WinitState>().unwrap();
let mut window_update = winit_state.window_updates.get_mut(&window_id).unwrap();
match event {
Event::Refresh => {
window_update.refresh_frame = true;
}
Event::Configure { new_size, states } => {
let is_fullscreen = states.contains(&State::Fullscreen);
fullscreen_clone.store(is_fullscreen, Ordering::Relaxed);
window_update.refresh_frame = true;
window_update.redraw_requested = true;
if let Some((w, h)) = new_size {
window_update.size = Some(LogicalSize::new(w, h));
}
}
Event::Close => {
window_update.close_window = true;
}
}
},
)
.map_err(|_| os_error!(OsError::WaylandMisc("failed to create window.")))?;
// Set decorations.
if attributes.decorations {
window.set_decorate(Decorations::FollowServer);
} else {
window.set_decorate(Decorations::None);
}
// Min dimensions.
let min_size = attributes
.min_inner_size
.map(|size| size.to_logical::<f64>(scale_factor as f64).into());
window.set_min_size(min_size);
// Max dimensions.
let max_size = attributes
.min_inner_size
.map(|size| size.to_logical::<f64>(scale_factor as f64).into());
window.set_max_size(max_size);
// Set Wayland specific window attributes.
if let Some(app_id) = platform_attributes.app_id {
window.set_app_id(app_id);
}
// Set common window attributes.
//
// We set resizable after other attributes, since it touches min and max size under
// the hood.
window.set_resizable(attributes.resizable);
window.set_title(attributes.title);
// Set fullscreen/maximized if so was requested.
match attributes.fullscreen {
Some(Fullscreen::Exclusive(_)) => {
warn!("`Fullscreen::Exclusive` is ignored on Wayland")
}
Some(Fullscreen::Borderless(monitor)) => {
let monitor =
monitor.and_then(|RootMonitorHandle { inner: monitor }| match monitor {
PlatformMonitorHandle::Wayland(monitor) => Some(monitor.proxy),
#[cfg(feature = "x11")]
PlatformMonitorHandle::X(_) => None,
});
window.set_fullscreen(monitor.as_ref());
}
None => {
if attributes.maximized {
window.set_maximized();
}
}
}
let size = Arc::new(Mutex::new(LogicalSize::new(width, height)));
// We should trigger redraw and commit the surface for the newly created window.
let mut window_update = WindowUpdate::new();
window_update.refresh_frame = true;
window_update.redraw_requested = true;
let window_id = super::make_wid(&surface);
let window_requests = Arc::new(Mutex::new(Vec::with_capacity(64)));
// Create a handle that performs all the requests on underlying sctk a window.
let window_handle = WindowHandle::new(window, size.clone(), window_requests.clone());
let mut winit_state = event_loop_window_target.state.borrow_mut();
winit_state.window_map.insert(window_id, window_handle);
winit_state
.window_updates
.insert(window_id, WindowUpdate::new());
let windowing_features = event_loop_window_target.windowing_features;
// Send all updates to the server.
let wayland_source = &event_loop_window_target.wayland_source;
let event_loop_handle = &event_loop_window_target.event_loop_handle;
// To make our window usable for drawing right away we must `ack` a `configure`
// from the server, the acking part here is done by SCTK window frame, so we just
// need to sync with server so it'll be done automatically for us.
event_loop_handle.with_source(&wayland_source, |event_queue| {
let event_queue = event_queue.queue();
let _ = event_queue.sync_roundtrip(&mut *winit_state, |_, _, _| unreachable!());
});
// We all praise GNOME for these 3 lines of pure magic. If we don't do that,
// GNOME will shrink our window a bit for the size of the decorations. I guess it
// happens because we haven't committed them with buffers to the server.
let window_handle = winit_state.window_map.get_mut(&window_id).unwrap();
window_handle.window.refresh();
let output_manager_handle = event_loop_window_target.output_manager.handle();
let window = Self {
window_id,
surface,
display: event_loop_window_target.display.clone(),
output_manager_handle,
size,
window_requests,
event_loop_awakener: event_loop_window_target.event_loop_awakener.clone(),
fullscreen,
windowing_features,
};
Ok(window)
}
}
impl Window {
#[inline]
pub fn id(&self) -> WindowId {
self.window_id
}
#[inline]
pub fn set_title(&self, title: &str) {
let title_request = WindowRequest::Title(title.to_owned());
self.window_requests.lock().unwrap().push(title_request);
self.event_loop_awakener.ping();
}
#[inline]
pub fn set_visible(&self, _visible: bool) {
// Not possible on Wayland.
}
#[inline]
pub fn outer_position(&self) -> Result<PhysicalPosition<i32>, NotSupportedError> {
Err(NotSupportedError::new())
}
#[inline]
pub fn inner_position(&self) -> Result<PhysicalPosition<i32>, NotSupportedError> {
Err(NotSupportedError::new())
}
#[inline]
pub fn set_outer_position(&self, _: Position) {
// Not possible on Wayland.
}
pub fn inner_size(&self) -> PhysicalSize<u32> {
self.size
.lock()
.unwrap()
.to_physical(self.scale_factor() as f64)
}
#[inline]
pub fn request_redraw(&self) {
let redraw_request = WindowRequest::Redraw;
self.window_requests.lock().unwrap().push(redraw_request);
self.event_loop_awakener.ping();
}
#[inline]
pub fn outer_size(&self) -> PhysicalSize<u32> {
self.size
.lock()
.unwrap()
.to_physical(self.scale_factor() as f64)
}
#[inline]
pub fn set_inner_size(&self, size: Size) {
let scale_factor = self.scale_factor() as f64;
let size = size.to_logical::<u32>(scale_factor);
*self.size.lock().unwrap() = size;
let frame_size_request = WindowRequest::FrameSize(size);
self.window_requests
.lock()
.unwrap()
.push(frame_size_request);
self.event_loop_awakener.ping();
}
#[inline]
pub fn set_min_inner_size(&self, dimensions: Option<Size>) {
let scale_factor = self.scale_factor() as f64;
let size = dimensions.map(|size| size.to_logical::<u32>(scale_factor));
let min_size_request = WindowRequest::MinSize(size);
self.window_requests.lock().unwrap().push(min_size_request);
self.event_loop_awakener.ping();
}
#[inline]
pub fn set_max_inner_size(&self, dimensions: Option<Size>) {
let scale_factor = self.scale_factor() as f64;
let size = dimensions.map(|size| size.to_logical::<u32>(scale_factor));
let max_size_request = WindowRequest::MaxSize(size);
self.window_requests.lock().unwrap().push(max_size_request);
self.event_loop_awakener.ping();
}
#[inline]
pub fn set_resizable(&self, resizable: bool) {
let resizeable_request = WindowRequest::Resizeable(resizable);
self.window_requests
.lock()
.unwrap()
.push(resizeable_request);
self.event_loop_awakener.ping();
}
#[inline]
pub fn scale_factor(&self) -> u32 {
// The scale factor from `get_surface_scale_factor` is always greater than zero, so
// u32 conversion is safe.
sctk::get_surface_scale_factor(&self.surface) as u32
}
#[inline]
pub fn set_decorations(&self, decorate: bool) {
let decorate_request = WindowRequest::Decorate(decorate);
self.window_requests.lock().unwrap().push(decorate_request);
self.event_loop_awakener.ping();
}
#[inline]
pub fn set_minimized(&self, minimized: bool) {
// You can't unminimize the window on Wayland.
if !minimized {
return;
}
let minimize_request = WindowRequest::Minimize;
self.window_requests.lock().unwrap().push(minimize_request);
self.event_loop_awakener.ping();
}
#[inline]
pub fn set_maximized(&self, maximized: bool) {
let maximize_request = WindowRequest::Maximize(maximized);
self.window_requests.lock().unwrap().push(maximize_request);
self.event_loop_awakener.ping();
}
#[inline]
pub fn fullscreen(&self) -> Option<Fullscreen> {
if self.fullscreen.load(Ordering::Relaxed) {
let current_monitor = self.current_monitor().map(|monitor| RootMonitorHandle {
inner: PlatformMonitorHandle::Wayland(monitor),
});
Some(Fullscreen::Borderless(current_monitor))
} else {
None
}
}
#[inline]
pub fn set_fullscreen(&self, fullscreen: Option<Fullscreen>) {
let fullscreen_request = match fullscreen {
Some(Fullscreen::Exclusive(_)) => {
warn!("`Fullscreen::Exclusive` is ignored on Wayland");
return;
}
Some(Fullscreen::Borderless(monitor)) => {
let monitor =
monitor.and_then(|RootMonitorHandle { inner: monitor }| match monitor {
PlatformMonitorHandle::Wayland(monitor) => Some(monitor.proxy),
#[cfg(feature = "x11")]
PlatformMonitorHandle::X(_) => None,
});
WindowRequest::Fullscreen(monitor)
}
None => WindowRequest::UnsetFullscreen,
};
self.window_requests
.lock()
.unwrap()
.push(fullscreen_request);
self.event_loop_awakener.ping();
}
#[inline]
pub fn set_theme<T: Theme>(&self, theme: T) {
// First buttons is minimize, then maximize, and then close.
let buttons: Vec<(ButtonColorSpec, ButtonColorSpec)> =
[Button::Minimize, Button::Maximize, Button::Close]
.iter()
.map(|button| {
let button = *button;
let idle_active_bg = theme
.button_color(button, ButtonState::Idle, false, true)
.into();
let idle_inactive_bg = theme
.button_color(button, ButtonState::Idle, false, false)
.into();
let idle_active_icon = theme
.button_color(button, ButtonState::Idle, true, true)
.into();
let idle_inactive_icon = theme
.button_color(button, ButtonState::Idle, true, false)
.into();
let idle_bg = ColorSpec {
active: idle_active_bg,
inactive: idle_inactive_bg,
};
let idle_icon = ColorSpec {
active: idle_active_icon,
inactive: idle_inactive_icon,
};
let hovered_active_bg = theme
.button_color(button, ButtonState::Hovered, false, true)
.into();
let hovered_inactive_bg = theme
.button_color(button, ButtonState::Hovered, false, false)
.into();
let hovered_active_icon = theme
.button_color(button, ButtonState::Hovered, true, true)
.into();
let hovered_inactive_icon = theme
.button_color(button, ButtonState::Hovered, true, false)
.into();
let hovered_bg = ColorSpec {
active: hovered_active_bg,
inactive: hovered_inactive_bg,
};
let hovered_icon = ColorSpec {
active: hovered_active_icon,
inactive: hovered_inactive_icon,
};
let disabled_active_bg = theme
.button_color(button, ButtonState::Disabled, false, true)
.into();
let disabled_inactive_bg = theme
.button_color(button, ButtonState::Disabled, false, false)
.into();
let disabled_active_icon = theme
.button_color(button, ButtonState::Disabled, true, true)
.into();
let disabled_inactive_icon = theme
.button_color(button, ButtonState::Disabled, true, false)
.into();
let disabled_bg = ColorSpec {
active: disabled_active_bg,
inactive: disabled_inactive_bg,
};
let disabled_icon = ColorSpec {
active: disabled_active_icon,
inactive: disabled_inactive_icon,
};
let button_bg = ButtonColorSpec {
idle: idle_bg,
hovered: hovered_bg,
disabled: disabled_bg,
};
let button_icon = ButtonColorSpec {
idle: idle_icon,
hovered: hovered_icon,
disabled: disabled_icon,
};
(button_icon, button_bg)
})
.collect();
let minimize_button = Some(buttons[0]);
let maximize_button = Some(buttons[1]);
let close_button = Some(buttons[2]);
// The first color is bar, then separator, and then text color.
let titlebar_colors: Vec<ColorSpec> = [Element::Bar, Element::Separator, Element::Text]
.iter()
.map(|element| {
let element = *element;
let active = theme.element_color(element, true).into();
let inactive = theme.element_color(element, false).into();
ColorSpec { active, inactive }
})
.collect();
let primary_color = titlebar_colors[0];
let secondary_color = titlebar_colors[1];
let title_color = titlebar_colors[2];
let title_font = theme.font();
let concept_config = ConceptConfig {
primary_color,
secondary_color,
title_color,
title_font,
minimize_button,
maximize_button,
close_button,
};
let theme_request = WindowRequest::Theme(concept_config);
self.window_requests.lock().unwrap().push(theme_request);
self.event_loop_awakener.ping();
}
#[inline]
pub fn set_cursor_icon(&self, cursor: CursorIcon) {
let cursor_icon_request = WindowRequest::NewCursorIcon(cursor);
self.window_requests
.lock()
.unwrap()
.push(cursor_icon_request);
self.event_loop_awakener.ping();
}
#[inline]
pub fn set_cursor_visible(&self, visible: bool) {
let cursor_visible_request = WindowRequest::ShowCursor(visible);
self.window_requests
.lock()
.unwrap()
.push(cursor_visible_request);
self.event_loop_awakener.ping();
}
#[inline]
pub fn set_cursor_grab(&self, grab: bool) -> Result<(), ExternalError> {
if !self.windowing_features.cursor_grab() {
return Err(ExternalError::NotSupported(NotSupportedError::new()));
}
let cursor_grab_request = WindowRequest::GrabCursor(grab);
self.window_requests
.lock()
.unwrap()
.push(cursor_grab_request);
self.event_loop_awakener.ping();
Ok(())
}
#[inline]
pub fn set_cursor_position(&self, _: Position) -> Result<(), ExternalError> {
// XXX This is possible if the locked pointer is being used. We don't have any
// API for that right now, but it could be added in
// https://github.com/rust-windowing/winit/issues/1677.
//
// This function is essential for the locked pointer API.
//
// See pointer-constraints-unstable-v1.xml.
Err(ExternalError::NotSupported(NotSupportedError::new()))
}
#[inline]
pub fn set_ime_position(&self, position: Position) {
let scale_factor = self.scale_factor() as f64;
let position = position.to_logical(scale_factor);
let ime_position_request = WindowRequest::IMEPosition(position);
self.window_requests
.lock()
.unwrap()
.push(ime_position_request);
self.event_loop_awakener.ping();
}
#[inline]
pub fn display(&self) -> &Display {
&self.display
}
#[inline]
pub fn surface(&self) -> &WlSurface {
&self.surface
}
#[inline]
pub fn current_monitor(&self) -> Option<MonitorHandle> {
let output = sctk::get_surface_outputs(&self.surface).last()?.clone();
Some(MonitorHandle::new(output))
}
#[inline]
pub fn available_monitors(&self) -> VecDeque<MonitorHandle> {
self.output_manager_handle.available_outputs()
}
#[inline]
pub fn primary_monitor(&self) -> Option<RootMonitorHandle> {
None
}
#[inline]
pub fn raw_window_handle(&self) -> WaylandHandle {
let display = self.display.get_display_ptr() as *mut _;
let surface = self.surface.as_ref().c_ptr() as *mut _;
WaylandHandle {
display,
surface,
..WaylandHandle::empty()
}
}
}
impl From<LocalARGBColor> for ARGBColor {
fn from(color: LocalARGBColor) -> Self {
let a = color.a;
let r = color.r;
let g = color.g;
let b = color.b;
Self { a, r, g, b }
}
}
impl Drop for Window {
fn drop(&mut self) {
let close_request = WindowRequest::Close;
self.window_requests.lock().unwrap().push(close_request);
self.event_loop_awakener.ping();
}
}

View file

@ -0,0 +1,388 @@
use std::cell::Cell;
use std::sync::{Arc, Mutex};
use sctk::reexports::client::protocol::wl_output::WlOutput;
use sctk::window::{ConceptConfig, ConceptFrame, Decorations, Window};
use crate::dpi::{LogicalPosition, LogicalSize};
use crate::event::WindowEvent;
use crate::platform_impl::wayland::event_loop::WinitState;
use crate::platform_impl::wayland::seat::pointer::WinitPointer;
use crate::platform_impl::wayland::seat::text_input::TextInputHandler;
use crate::platform_impl::wayland::WindowId;
use crate::window::CursorIcon;
/// A request to SCTK window from Winit window.
#[derive(Debug, Clone)]
pub enum WindowRequest {
/// Set fullscreen.
///
/// Passing `None` will set it on the current monitor.
Fullscreen(Option<WlOutput>),
/// Unset fullscreen.
UnsetFullscreen,
/// Show cursor for the certain window or not.
ShowCursor(bool),
/// Change the cursor icon.
NewCursorIcon(CursorIcon),
/// Grab cursor.
GrabCursor(bool),
/// Maximize the window.
Maximize(bool),
/// Minimize the window.
Minimize,
/// Request decorations change.
Decorate(bool),
/// Make the window resizeable.
Resizeable(bool),
/// Set the title for window.
Title(String),
/// Min size.
MinSize(Option<LogicalSize<u32>>),
/// Max size.
MaxSize(Option<LogicalSize<u32>>),
/// New frame size.
FrameSize(LogicalSize<u32>),
/// Set IME window position.
IMEPosition(LogicalPosition<u32>),
/// Redraw was requested.
Redraw,
/// A new theme for a concept frame was requested.
Theme(ConceptConfig),
/// Window should be closed.
Close,
}
/// Pending update to a window from SCTK window.
#[derive(Debug, Clone, Copy)]
pub struct WindowUpdate {
/// New window size.
pub size: Option<LogicalSize<u32>>,
/// New scale factor.
pub scale_factor: Option<i32>,
/// Whether `redraw` was requested.
pub redraw_requested: bool,
/// Wether the frame should be refreshed.
pub refresh_frame: bool,
/// Close the window.
pub close_window: bool,
}
impl WindowUpdate {
pub fn new() -> Self {
Self {
size: None,
scale_factor: None,
redraw_requested: false,
refresh_frame: false,
close_window: false,
}
}
pub fn take(&mut self) -> Self {
let size = self.size.take();
let scale_factor = self.scale_factor.take();
let redraw_requested = self.redraw_requested;
self.redraw_requested = false;
let refresh_frame = self.refresh_frame;
self.refresh_frame = false;
let close_window = self.close_window;
self.close_window = false;
Self {
size,
scale_factor,
redraw_requested,
refresh_frame,
close_window,
}
}
}
/// A handle to perform operations on SCTK window
/// and react to events.
pub struct WindowHandle {
/// An actual window.
pub window: Window<ConceptFrame>,
/// The current size of the window.
pub size: Arc<Mutex<LogicalSize<u32>>>,
/// A pending requests to SCTK window.
pub pending_window_requests: Arc<Mutex<Vec<WindowRequest>>>,
/// Current cursor icon.
pub cursor_icon: Cell<CursorIcon>,
/// Visible cursor or not.
cursor_visible: Cell<bool>,
/// Cursor confined to the surface.
confined: Cell<bool>,
/// Pointers over the current surface.
pointers: Vec<WinitPointer>,
/// Text inputs on the current surface.
text_inputs: Vec<TextInputHandler>,
}
impl WindowHandle {
pub fn new(
window: Window<ConceptFrame>,
size: Arc<Mutex<LogicalSize<u32>>>,
pending_window_requests: Arc<Mutex<Vec<WindowRequest>>>,
) -> Self {
Self {
window,
size,
pending_window_requests,
cursor_icon: Cell::new(CursorIcon::Default),
confined: Cell::new(false),
cursor_visible: Cell::new(true),
pointers: Vec::new(),
text_inputs: Vec::new(),
}
}
pub fn set_cursor_grab(&self, grab: bool) {
// The new requested state matches the current confine status, return.
if self.confined.get() == grab {
return;
}
self.confined.replace(grab);
for pointer in self.pointers.iter() {
if self.confined.get() {
let surface = self.window.surface();
pointer.confine(&surface);
} else {
pointer.unconfine();
}
}
}
/// Pointer appeared over the window.
pub fn pointer_entered(&mut self, pointer: WinitPointer) {
let position = self.pointers.iter().position(|p| *p == pointer);
if position.is_none() {
if self.confined.get() {
let surface = self.window.surface();
pointer.confine(&surface);
}
self.pointers.push(pointer);
}
// Apply the current cursor style.
self.set_cursor_visible(self.cursor_visible.get());
}
/// Pointer left the window.
pub fn pointer_left(&mut self, pointer: WinitPointer) {
let position = self.pointers.iter().position(|p| *p == pointer);
if let Some(position) = position {
let pointer = self.pointers.remove(position);
// Drop the confined pointer.
if self.confined.get() {
pointer.unconfine();
}
}
}
pub fn text_input_entered(&mut self, text_input: TextInputHandler) {
if self
.text_inputs
.iter()
.find(|t| *t == &text_input)
.is_none()
{
self.text_inputs.push(text_input);
}
}
pub fn text_input_left(&mut self, text_input: TextInputHandler) {
if let Some(position) = self.text_inputs.iter().position(|t| *t == text_input) {
self.text_inputs.remove(position);
}
}
pub fn set_ime_position(&self, position: LogicalPosition<u32>) {
// XXX This won't fly unless user will have a way to request IME window per seat, since
// the ime windows will be overlapping, but winit doesn't expose API to specify for
// which seat we're setting IME position.
let (x, y) = (position.x as i32, position.y as i32);
for text_input in self.text_inputs.iter() {
text_input.set_ime_position(x, y);
}
}
pub fn set_cursor_visible(&self, visible: bool) {
self.cursor_visible.replace(visible);
let cursor_icon = match visible {
true => Some(self.cursor_icon.get()),
false => None,
};
for pointer in self.pointers.iter() {
pointer.set_cursor(cursor_icon)
}
}
pub fn set_cursor_icon(&self, cursor_icon: CursorIcon) {
self.cursor_icon.replace(cursor_icon);
if !self.cursor_visible.get() {
return;
}
for pointer in self.pointers.iter() {
pointer.set_cursor(Some(cursor_icon));
}
}
}
#[inline]
pub fn handle_window_requests(winit_state: &mut WinitState) {
let window_map = &mut winit_state.window_map;
let window_updates = &mut winit_state.window_updates;
let mut windows_to_close: Vec<WindowId> = Vec::new();
// Process the rest of the events.
for (window_id, window_handle) in window_map.iter_mut() {
let mut requests = window_handle.pending_window_requests.lock().unwrap();
for request in requests.drain(..) {
match request {
WindowRequest::Fullscreen(fullscreen) => {
window_handle.window.set_fullscreen(fullscreen.as_ref());
}
WindowRequest::UnsetFullscreen => {
window_handle.window.unset_fullscreen();
}
WindowRequest::ShowCursor(show_cursor) => {
window_handle.set_cursor_visible(show_cursor);
}
WindowRequest::NewCursorIcon(cursor_icon) => {
window_handle.set_cursor_icon(cursor_icon);
}
WindowRequest::IMEPosition(position) => {
window_handle.set_ime_position(position);
}
WindowRequest::GrabCursor(grab) => {
window_handle.set_cursor_grab(grab);
}
WindowRequest::Maximize(maximize) => {
if maximize {
window_handle.window.set_maximized();
} else {
window_handle.window.unset_maximized();
}
}
WindowRequest::Minimize => {
window_handle.window.set_minimized();
}
WindowRequest::Decorate(decorate) => {
let decorations = match decorate {
true => Decorations::FollowServer,
false => Decorations::None,
};
window_handle.window.set_decorate(decorations);
// We should refresh the frame to apply decorations change.
let window_update = window_updates.get_mut(&window_id).unwrap();
window_update.refresh_frame = true;
}
WindowRequest::Resizeable(resizeable) => {
window_handle.window.set_resizable(resizeable);
// We should refresh the frame to update button state.
let window_update = window_updates.get_mut(&window_id).unwrap();
window_update.refresh_frame = true;
}
WindowRequest::Title(title) => {
window_handle.window.set_title(title);
// We should refresh the frame to draw new title.
let window_update = window_updates.get_mut(&window_id).unwrap();
window_update.refresh_frame = true;
}
WindowRequest::MinSize(size) => {
let size = size.map(|size| (size.width, size.height));
window_handle.window.set_min_size(size);
let window_update = window_updates.get_mut(&window_id).unwrap();
window_update.redraw_requested = true;
}
WindowRequest::MaxSize(size) => {
let size = size.map(|size| (size.width, size.height));
window_handle.window.set_max_size(size);
let window_update = window_updates.get_mut(&window_id).unwrap();
window_update.redraw_requested = true;
}
WindowRequest::FrameSize(size) => {
// Set new size.
window_handle.window.resize(size.width, size.height);
// We should refresh the frame after resize.
let window_update = window_updates.get_mut(&window_id).unwrap();
window_update.refresh_frame = true;
}
WindowRequest::Redraw => {
let window_update = window_updates.get_mut(&window_id).unwrap();
window_update.redraw_requested = true;
}
WindowRequest::Theme(concept_config) => {
window_handle.window.set_frame_config(concept_config);
// We should refresh the frame to apply new theme.
let window_update = window_updates.get_mut(&window_id).unwrap();
window_update.refresh_frame = true;
}
WindowRequest::Close => {
// The window was requested to be closed.
windows_to_close.push(*window_id);
// Send event that the window was destroyed.
let event_sink = &mut winit_state.event_sink;
event_sink.push_window_event(WindowEvent::Destroyed, *window_id);
}
};
}
}
// Close the windows.
for window in windows_to_close {
let _ = window_map.remove(&window);
let _ = window_updates.remove(&window);
}
}

View file

@ -614,7 +614,7 @@ impl Window {
///
/// The dock and the menu bar are always disabled in fullscreen mode.
/// - **iOS:** Can only be called on the main thread.
/// - **Wayland:** Does not support exclusive fullscreen mode.
/// - **Wayland:** Does not support exclusive fullscreen mode and will no-op a request.
/// - **Windows:** Screen saver is disabled in fullscreen mode.
/// - **Android:** Unsupported.
#[inline]
@ -677,7 +677,7 @@ impl Window {
///
/// ## Platform-specific
///
/// - **iOS / Android / Web / Wayland / Windows:** Unsupported.
/// - **iOS / Android / Web / Windows:** Unsupported.
#[inline]
pub fn set_ime_position<P: Into<Position>>(&self, position: P) {
self.window.set_ime_position(position.into())
@ -708,9 +708,12 @@ impl Window {
/// Grabs the cursor, preventing it from leaving the window.
///
/// There's no guarantee that the cursor will be hidden. You should
/// hide it by yourself if you want so.
///
/// ## Platform-specific
///
/// - **macOS / Wayland:** This locks the cursor in a fixed location, which looks visually awkward.
/// - **macOS:** This locks the cursor in a fixed location, which looks visually awkward.
/// - **iOS / Android / Web:** Always returns an [`ExternalError::NotSupported`].
#[inline]
pub fn set_cursor_grab(&self, grab: bool) -> Result<(), ExternalError> {