hodasemi/evdev-rs
1
0
Fork 0
Code Issues Pull requests Projects Releases Packages Wiki Activity

Update dependencies and fix cross-compatibility issues (#24)

Browse source 
* Update dependencies and fix some cross-compatibility issues
* version 0.11.0-alpha.1
This commit is contained in:
Jeff Hiner 2021-02-20 19:09:39 -07:00 committed by GitHub
parent e55142087e
commit fe3d0e9ab0
No known key found for this signature in database
GPG key ID: 4AEE18F83AFDEB23
4 changed files with 217 additions and 235 deletions
Show stats Download patch file Download diff file Expand all files Collapse all files

1
.gitignore vendored
View file

@ -1,2 +1,3 @@
target
Cargo.lock
.vscode

13
Cargo.toml
View file

@ -1,6 +1,6 @@
[package]
name = "evdev"
version = "0.10.1"
version = "0.11.0-alpha.1"
authors = ["Corey Richardson <corey@octayn.net>"]
description = "evdev interface for Linux"
license = "Apache-2.0 OR MIT"
@ -8,11 +8,8 @@ repository = "https://github.com/cmr/evdev"
documentation = "https://docs.rs/evdev"
[dependencies]
bitflags = "0.8.2"
bitflags = "1.2"
libc = "0.2.22"
fixedbitset = "0.1.6"
num = "0.1.37"
nix = "0.9.0"
[features]
unstable = []
fixedbitset = "0.3.2"
num-traits = { version = "0.2", default-features = false }
nix = "0.19.0"

379
src/lib.rs
View file

@ -40,12 +40,11 @@ extern crate bitflags;
extern crate nix;
extern crate libc;
extern crate fixedbitset;
extern crate num;
extern crate num_traits;
pub mod raw;
use std::os::unix::io::*;
use std::os::unix::ffi::*;
use std::os::unix::{io::RawFd, ffi::*};
use std::path::Path;
use std::ffi::{CString, CStr};
use std::mem::{size_of, transmute};
@ -87,229 +86,229 @@ macro_rules! do_ioctl_buf {
bitflags! {
/// Event types supported by the device.
pub flags Types: u32 {
pub struct Types: u32 {
/// A bookkeeping event. Usually not important to applications.
const SYNCHRONIZATION = 1 << 0x00,
const SYNCHRONIZATION = 1 << 0x00;
/// A key changed state. A key, or button, is usually a momentary switch (in the circuit sense). It has two
/// states: down, or up. There are events for when keys are pressed (become down) and
/// released (become up). There are also "key repeats", where multiple events are sent
/// while a key is down.
const KEY = 1 << 0x01,
const KEY = 1 << 0x01;
/// Movement on a relative axis. There is no absolute coordinate frame, just the fact that
/// there was a change of a certain amount of units. Used for things like mouse movement or
/// scroll wheels.
const RELATIVE = 1 << 0x02,
const RELATIVE = 1 << 0x02;
/// Movement on an absolute axis. Used for things such as touch events and joysticks.
const ABSOLUTE = 1 << 0x03,
const ABSOLUTE = 1 << 0x03;
/// Miscellaneous events that don't fall into other categories. I'm not quite sure when
/// these happen or what they correspond to.
const MISC = 1 << 0x04,
const MISC = 1 << 0x04;
/// Change in a switch value. Switches are boolean conditions and usually correspond to a
/// toggle switch of some kind in hardware.
const SWITCH = 1 << 0x05,
const SWITCH = 1 << 0x05;
/// An LED was toggled.
const LED = 1 << 0x11,
const LED = 1 << 0x11;
/// A sound was made.
const SOUND = 1 << 0x12,
const SOUND = 1 << 0x12;
/// There are no events of this type, to my knowledge, but represents metadata about key
/// repeat configuration.
const REPEAT = 1 << 0x14,
const REPEAT = 1 << 0x14;
/// I believe there are no events of this type, but rather this is used to represent that
/// the device can create haptic effects.
const FORCEFEEDBACK = 1 << 0x15,
const FORCEFEEDBACK = 1 << 0x15;
/// I think this is unused?
const POWER = 1 << 0x16,
const POWER = 1 << 0x16;
/// A force feedback effect's state changed.
const FORCEFEEDBACKSTATUS = 1 << 0x17,
const FORCEFEEDBACKSTATUS = 1 << 0x17;
}
}
bitflags! {
/// Device properties.
pub flags Props: u32 {
pub struct Props: u32 {
/// This input device needs a pointer ("cursor") for the user to know its state.
const POINTER = 1 << 0x00,
const POINTER = 1 << 0x00;
/// "direct input devices", according to the header.
const DIRECT = 1 << 0x01,
const DIRECT = 1 << 0x01;
/// "has button(s) under pad", according to the header.
const BUTTONPAD = 1 << 0x02,
const BUTTONPAD = 1 << 0x02;
/// Touch rectangle only (I think this means that if there are multiple touches, then the
/// bounding rectangle of all the touches is returned, not each touch).
const SEMI_MT = 1 << 0x03,
const SEMI_MT = 1 << 0x03;
/// "softbuttons at top of pad", according to the header.
const TOPBUTTONPAD = 1 << 0x04,
const TOPBUTTONPAD = 1 << 0x04;
/// Is a pointing stick ("clit mouse" etc, https://xkcd.com/243/)
const POINTING_STICK = 1 << 0x05,
const POINTING_STICK = 1 << 0x05;
/// Has an accelerometer. Probably reports relative events in that case?
const ACCELEROMETER = 1 << 0x06
const ACCELEROMETER = 1 << 0x06;
}
}
include!("scancodes.rs"); // it's a huge glob of text that I'm tired of skipping over.
bitflags! {
pub flags RelativeAxis: u32 {
const REL_X = 1 << 0x00,
const REL_Y = 1 << 0x01,
const REL_Z = 1 << 0x02,
const REL_RX = 1 << 0x03,
const REL_RY = 1 << 0x04,
const REL_RZ = 1 << 0x05,
const REL_HWHEEL = 1 << 0x06,
const REL_DIAL = 1 << 0x07,
const REL_WHEEL = 1 << 0x08,
const REL_MISC = 1 << 0x09,
const REL_RESERVED = 1 << 0x0a,
const REL_WHEEL_HI_RES = 1 << 0x0b,
const REL_HWHEEL_HI_RES = 1 << 0x0c,
const REL_MAX = 1 << 0x0f,
pub struct RelativeAxis: u32 {
const REL_X = 1 << 0x00;
const REL_Y = 1 << 0x01;
const REL_Z = 1 << 0x02;
const REL_RX = 1 << 0x03;
const REL_RY = 1 << 0x04;
const REL_RZ = 1 << 0x05;
const REL_HWHEEL = 1 << 0x06;
const REL_DIAL = 1 << 0x07;
const REL_WHEEL = 1 << 0x08;
const REL_MISC = 1 << 0x09;
const REL_RESERVED = 1 << 0x0a;
const REL_WHEEL_HI_RES = 1 << 0x0b;
const REL_HWHEEL_HI_RES = 1 << 0x0c;
const REL_MAX = 1 << 0x0f;
}
}
bitflags! {
pub flags AbsoluteAxis: u64 {
const ABS_X = 1 << 0x00,
const ABS_Y = 1 << 0x01,
const ABS_Z = 1 << 0x02,
const ABS_RX = 1 << 0x03,
const ABS_RY = 1 << 0x04,
const ABS_RZ = 1 << 0x05,
const ABS_THROTTLE = 1 << 0x06,
const ABS_RUDDER = 1 << 0x07,
const ABS_WHEEL = 1 << 0x08,
const ABS_GAS = 1 << 0x09,
const ABS_BRAKE = 1 << 0x0a,
const ABS_HAT0X = 1 << 0x10,
const ABS_HAT0Y = 1 << 0x11,
const ABS_HAT1X = 1 << 0x12,
const ABS_HAT1Y = 1 << 0x13,
const ABS_HAT2X = 1 << 0x14,
const ABS_HAT2Y = 1 << 0x15,
const ABS_HAT3X = 1 << 0x16,
const ABS_HAT3Y = 1 << 0x17,
const ABS_PRESSURE = 1 << 0x18,
const ABS_DISTANCE = 1 << 0x19,
const ABS_TILT_X = 1 << 0x1a,
const ABS_TILT_Y = 1 << 0x1b,
const ABS_TOOL_WIDTH = 1 << 0x1c,
const ABS_VOLUME = 1 << 0x20,
const ABS_MISC = 1 << 0x28,
pub struct AbsoluteAxis: u64 {
const ABS_X = 1 << 0x00;
const ABS_Y = 1 << 0x01;
const ABS_Z = 1 << 0x02;
const ABS_RX = 1 << 0x03;
const ABS_RY = 1 << 0x04;
const ABS_RZ = 1 << 0x05;
const ABS_THROTTLE = 1 << 0x06;
const ABS_RUDDER = 1 << 0x07;
const ABS_WHEEL = 1 << 0x08;
const ABS_GAS = 1 << 0x09;
const ABS_BRAKE = 1 << 0x0a;
const ABS_HAT0X = 1 << 0x10;
const ABS_HAT0Y = 1 << 0x11;
const ABS_HAT1X = 1 << 0x12;
const ABS_HAT1Y = 1 << 0x13;
const ABS_HAT2X = 1 << 0x14;
const ABS_HAT2Y = 1 << 0x15;
const ABS_HAT3X = 1 << 0x16;
const ABS_HAT3Y = 1 << 0x17;
const ABS_PRESSURE = 1 << 0x18;
const ABS_DISTANCE = 1 << 0x19;
const ABS_TILT_X = 1 << 0x1a;
const ABS_TILT_Y = 1 << 0x1b;
const ABS_TOOL_WIDTH = 1 << 0x1c;
const ABS_VOLUME = 1 << 0x20;
const ABS_MISC = 1 << 0x28;
/// "MT slot being modified"
const ABS_MT_SLOT = 1 << 0x2f,
const ABS_MT_SLOT = 1 << 0x2f;
/// "Major axis of touching ellipse"
const ABS_MT_TOUCH_MAJOR = 1 << 0x30,
const ABS_MT_TOUCH_MAJOR = 1 << 0x30;
/// "Minor axis (omit if circular)"
const ABS_MT_TOUCH_MINOR = 1 << 0x31,
const ABS_MT_TOUCH_MINOR = 1 << 0x31;
/// "Major axis of approaching ellipse"
const ABS_MT_WIDTH_MAJOR = 1 << 0x32,
const ABS_MT_WIDTH_MAJOR = 1 << 0x32;
/// "Minor axis (omit if circular)"
const ABS_MT_WIDTH_MINOR = 1 << 0x33,
const ABS_MT_WIDTH_MINOR = 1 << 0x33;
/// "Ellipse orientation"
const ABS_MT_ORIENTATION = 1 << 0x34,
const ABS_MT_ORIENTATION = 1 << 0x34;
/// "Center X touch position"
const ABS_MT_POSITION_X = 1 << 0x35,
const ABS_MT_POSITION_X = 1 << 0x35;
/// "Center Y touch position"
const ABS_MT_POSITION_Y = 1 << 0x36,
const ABS_MT_POSITION_Y = 1 << 0x36;
/// "Type of touching device"
const ABS_MT_TOOL_TYPE = 1 << 0x37,
const ABS_MT_TOOL_TYPE = 1 << 0x37;
/// "Group a set of packets as a blob"
const ABS_MT_BLOB_ID = 1 << 0x38,
const ABS_MT_BLOB_ID = 1 << 0x38;
/// "Unique ID of the initiated contact"
const ABS_MT_TRACKING_ID = 1 << 0x39,
const ABS_MT_TRACKING_ID = 1 << 0x39;
/// "Pressure on contact area"
const ABS_MT_PRESSURE = 1 << 0x3a,
const ABS_MT_PRESSURE = 1 << 0x3a;
/// "Contact over distance"
const ABS_MT_DISTANCE = 1 << 0x3b,
const ABS_MT_DISTANCE = 1 << 0x3b;
/// "Center X tool position"
const ABS_MT_TOOL_X = 1 << 0x3c,
const ABS_MT_TOOL_X = 1 << 0x3c;
/// "Center Y tool position"
const ABS_MT_TOOL_Y = 1 << 0x3d,
const ABS_MT_TOOL_Y = 1 << 0x3d;
}
}
bitflags! {
pub flags Switch: u32 {
pub struct Switch: u32 {
/// "set = lid shut"
const SW_LID = 1 << 0x00,
const SW_LID = 1 << 0x00;
/// "set = tablet mode"
const SW_TABLET_MODE = 1 << 0x01,
const SW_TABLET_MODE = 1 << 0x01;
/// "set = inserted"
const SW_HEADPHONE_INSERT = 1 << 0x02,
const SW_HEADPHONE_INSERT = 1 << 0x02;
/// "rfkill master switch, type 'any'"
const SW_RFKILL_ALL = 1 << 0x03,
const SW_RFKILL_ALL = 1 << 0x03;
/// "set = inserted"
const SW_MICROPHONE_INSERT = 1 << 0x04,
const SW_MICROPHONE_INSERT = 1 << 0x04;
/// "set = plugged into doc"
const SW_DOCK = 1 << 0x05,
const SW_DOCK = 1 << 0x05;
/// "set = inserted"
const SW_LINEOUT_INSERT = 1 << 0x06,
const SW_LINEOUT_INSERT = 1 << 0x06;
/// "set = mechanical switch set"
const SW_JACK_PHYSICAL_INSERT = 1 << 0x07,
const SW_JACK_PHYSICAL_INSERT = 1 << 0x07;
/// "set = inserted"
const SW_VIDEOOUT_INSERT = 1 << 0x08,
const SW_VIDEOOUT_INSERT = 1 << 0x08;
/// "set = lens covered"
const SW_CAMERA_LENS_COVER = 1 << 0x09,
const SW_CAMERA_LENS_COVER = 1 << 0x09;
/// "set = keypad slide out"
const SW_KEYPAD_SLIDE = 1 << 0x0a,
const SW_KEYPAD_SLIDE = 1 << 0x0a;
/// "set = front proximity sensor active"
const SW_FRONT_PROXIMITY = 1 << 0x0b,
const SW_FRONT_PROXIMITY = 1 << 0x0b;
/// "set = rotate locked/disabled"
const SW_ROTATE_LOCK = 1 << 0x0c,
const SW_ROTATE_LOCK = 1 << 0x0c;
/// "set = inserted"
const SW_LINEIN_INSERT = 1 << 0x0d,
const SW_LINEIN_INSERT = 1 << 0x0d;
/// "set = device disabled"
const SW_MUTE_DEVICE = 1 << 0x0e,
const SW_MUTE_DEVICE = 1 << 0x0e;
/// "set = pen inserted"
const SW_PEN_INSERTED = 1 << 0x0f,
const SW_MAX = 0xf,
const SW_PEN_INSERTED = 1 << 0x0f;
const SW_MAX = 0xf;
}
}
bitflags! {
/// LEDs specified by USB HID.
pub flags Led: u32 {
const LED_NUML = 1 << 0x00,
const LED_CAPSL = 1 << 0x01,
const LED_SCROLLL = 1 << 0x02,
const LED_COMPOSE = 1 << 0x03,
const LED_KANA = 1 << 0x04,
pub struct Led: u32 {
const LED_NUML = 1 << 0x00;
const LED_CAPSL = 1 << 0x01;
const LED_SCROLLL = 1 << 0x02;
const LED_COMPOSE = 1 << 0x03;
const LED_KANA = 1 << 0x04;
/// "Stand-by"
const LED_SLEEP = 1 << 0x05,
const LED_SUSPEND = 1 << 0x06,
const LED_MUTE = 1 << 0x07,
const LED_SLEEP = 1 << 0x05;
const LED_SUSPEND = 1 << 0x06;
const LED_MUTE = 1 << 0x07;
/// "Generic indicator"
const LED_MISC = 1 << 0x08,
const LED_MISC = 1 << 0x08;
/// "Message waiting"
const LED_MAIL = 1 << 0x09,
const LED_MAIL = 1 << 0x09;
/// "External power connected"
const LED_CHARGING = 1 << 0x0a,
const LED_MAX = 1 << 0x0f,
const LED_CHARGING = 1 << 0x0a;
const LED_MAX = 1 << 0x0f;
}
}
bitflags! {
/// Various miscellaneous event types. Current as of kernel 4.1.
pub flags Misc: u32 {
pub struct Misc: u32 {
/// Serial number, only exported for tablets ("Transducer Serial Number")
const MSC_SERIAL = 1 << 0x00,
const MSC_SERIAL = 1 << 0x00;
/// Only used by the PowerMate driver, right now.
const MSC_PULSELED = 1 << 0x01,
const MSC_PULSELED = 1 << 0x01;
/// Completely unused.
const MSC_GESTURE = 1 << 0x02,
const MSC_GESTURE = 1 << 0x02;
/// "Raw" event, rarely used.
const MSC_RAW = 1 << 0x03,
const MSC_RAW = 1 << 0x03;
/// Key scancode
const MSC_SCAN = 1 << 0x04,
const MSC_SCAN = 1 << 0x04;
/// Completely unused.
const MSC_TIMESTAMP = 1 << 0x05,
const MSC_MAX = 1 << 0x07,
const MSC_TIMESTAMP = 1 << 0x05;
const MSC_MAX = 1 << 0x07;
}
}
bitflags! {
pub flags FFStatus: u32 {
const FF_STATUS_STOPPED = 1 << 0x00,
const FF_STATUS_PLAYING = 1 << 0x01,
pub struct FFStatus: u32 {
const FF_STATUS_STOPPED = 1 << 0x00;
const FF_STATUS_PLAYING = 1 << 0x01;
}
}
@ -336,17 +335,17 @@ pub enum FFEffect {
}
bitflags! {
pub flags Repeat: u32 {
const REP_DELAY = 1 << 0x00,
const REP_PERIOD = 1 << 0x01,
pub struct Repeat: u32 {
const REP_DELAY = 1 << 0x00;
const REP_PERIOD = 1 << 0x01;
}
}
bitflags! {
pub flags Sound: u32 {
const SND_CLICK = 1 << 0x00,
const SND_BELL = 1 << 0x01,
const SND_TONE = 1 << 0x02,
pub struct Sound: u32 {
const SND_CLICK = 1 << 0x00;
const SND_BELL = 1 << 0x01;
const SND_TONE = 1 << 0x02;
}
}
@ -357,7 +356,7 @@ macro_rules! impl_number {
/// event. If multiple flags are set, the one with the most significant bit wins. In debug
/// mode,
#[inline(always)]
pub fn number<T: num::FromPrimitive>(&self) -> T {
pub fn number<T: num_traits::FromPrimitive>(&self) -> T {
let val = self.bits().trailing_zeros();
debug_assert!(self.bits() == 1 << val, "{:?} ought to have only one flag set to be used with .number()", self);
T::from_u32(val).unwrap()
@ -434,17 +433,17 @@ impl std::fmt::Debug for Device {
.field("id", &self.id)
.field("props", &self.props)
.field("driver_version", &self.driver_version);
if self.ty.contains(SYNCHRONIZATION) {
if self.ty.contains(Types::SYNCHRONIZATION) {
}
if self.ty.contains(KEY) {
if self.ty.contains(Types::KEY) {
ds.field("key_bits", &self.key_bits)
.field("key_vals", &self.state.key_vals);
}
if self.ty.contains(RELATIVE) {
if self.ty.contains(Types::RELATIVE) {
ds.field("rel", &self.rel);
}
if self.ty.contains(ABSOLUTE) {
if self.ty.contains(Types::ABSOLUTE) {
ds.field("abs", &self.abs);
for idx in 0..0x3f {
let abs = 1 << idx;
@ -455,29 +454,29 @@ impl std::fmt::Debug for Device {
}
}
}
if self.ty.contains(MISC) {
if self.ty.contains(Types::MISC) {
}
if self.ty.contains(SWITCH) {
if self.ty.contains(Types::SWITCH) {
ds.field("switch", &self.switch)
.field("switch_vals", &self.state.switch_vals);
}
if self.ty.contains(LED) {
if self.ty.contains(Types::LED) {
ds.field("led", &self.led)
.field("led_vals", &self.state.led_vals);
}
if self.ty.contains(SOUND) {
if self.ty.contains(Types::SOUND) {
ds.field("snd", &self.snd);
}
if self.ty.contains(REPEAT) {
if self.ty.contains(Types::REPEAT) {
ds.field("rep", &self.rep);
}
if self.ty.contains(FORCEFEEDBACK) {
if self.ty.contains(Types::FORCEFEEDBACK) {
ds.field("ff", &self.ff);
}
if self.ty.contains(POWER) {
if self.ty.contains(Types::POWER) {
}
if self.ty.contains(FORCEFEEDBACKSTATUS) {
if self.ty.contains(Types::FORCEFEEDBACKSTATUS) {
ds.field("ff_stat", &self.ff_stat);
}
ds.finish()
@ -526,11 +525,11 @@ impl std::fmt::Display for Device {
try!(writeln!(f, " Version: 0x{:x}", self.id.version));
try!(writeln!(f, " Properties: {:?}", self.props));
if self.ty.contains(SYNCHRONIZATION) {
if self.ty.contains(Types::SYNCHRONIZATION) {
}
if self.ty.contains(KEY) {
if self.ty.contains(Types::KEY) {
try!(writeln!(f, " Keys supported:"));
for key_idx in 0..self.key_bits.len() {
if self.key_bits.contains(key_idx) {
@ -542,10 +541,10 @@ impl std::fmt::Display for Device {
}
}
}
if self.ty.contains(RELATIVE) {
if self.ty.contains(Types::RELATIVE) {
try!(writeln!(f, " Relative Axes: {:?}", self.rel));
}
if self.ty.contains(ABSOLUTE) {
if self.ty.contains(Types::ABSOLUTE) {
try!(writeln!(f, " Absolute Axes:"));
for idx in 0..0x3f {
let abs = 1<< idx;
@ -558,14 +557,14 @@ impl std::fmt::Display for Device {
}
}
}
if self.ty.contains(MISC) {
if self.ty.contains(Types::MISC) {
try!(writeln!(f, " Miscellaneous capabilities: {:?}", self.misc));
}
if self.ty.contains(SWITCH) {
if self.ty.contains(Types::SWITCH) {
try!(writeln!(f, " Switches:"));
for idx in 0..0xf {
let sw = 1 << idx;
if sw < SW_MAX.bits() && self.switch.bits() & sw == 1 {
if sw < Switch::SW_MAX.bits() && self.switch.bits() & sw == 1 {
try!(writeln!(f, " {:?} ({:?}, index {})",
Switch::from_bits(sw).unwrap(),
self.state.switch_vals[idx as usize],
@ -573,11 +572,11 @@ impl std::fmt::Display for Device {
}
}
}
if self.ty.contains(LED) {
if self.ty.contains(Types::LED) {
try!(writeln!(f, " LEDs:"));
for idx in 0..0xf {
let led = 1 << idx;
if led < LED_MAX.bits() && self.led.bits() & led == 1 {
if led < Led::LED_MAX.bits() && self.led.bits() & led == 1 {
try!(writeln!(f, " {:?} ({:?}, index {})",
Led::from_bits(led).unwrap(),
self.state.led_vals[idx as usize],
@ -585,19 +584,19 @@ impl std::fmt::Display for Device {
}
}
}
if self.ty.contains(SOUND) {
if self.ty.contains(Types::SOUND) {
try!(writeln!(f, " Sound: {:?}", self.snd));
}
if self.ty.contains(REPEAT) {
if self.ty.contains(Types::REPEAT) {
try!(writeln!(f, " Repeats: {:?}", self.rep));
}
if self.ty.contains(FORCEFEEDBACK) {
if self.ty.contains(Types::FORCEFEEDBACK) {
try!(writeln!(f, " Force Feedback supported"));
}
if self.ty.contains(POWER) {
if self.ty.contains(Types::POWER) {
try!(writeln!(f, " Power supported"));
}
if self.ty.contains(FORCEFEEDBACKSTATUS) {
if self.ty.contains(Types::FORCEFEEDBACKSTATUS) {
try!(writeln!(f, " Force Feedback status supported"));
}
Ok(())
@ -689,7 +688,7 @@ impl Device {
// later.
let fd = unsafe { libc::open(cstr.as_ptr(), libc::O_NONBLOCK | libc::O_RDWR | libc::O_CLOEXEC, 0) };
if fd == -1 {
return Err(Error::from_errno(::nix::Errno::last()));
return Err(Error::from_errno(::nix::errno::Errno::last()));
}
let mut dev = Device {
@ -745,40 +744,40 @@ impl Device {
do_ioctl!(eviocgprop(fd, std::slice::from_raw_parts_mut(&mut bits as *mut u32 as *mut u8, 0x1f))); // FIXME: handle old kernel
dev.props = Props::from_bits(bits).expect("evdev: unexpected prop bits! report a bug");
if dev.ty.contains(KEY) {
do_ioctl!(eviocgbit(fd, KEY.number(), dev.key_bits.len() as libc::c_int, dev.key_bits.as_mut_slice().as_mut_ptr() as *mut u8));
if dev.ty.contains(Types::KEY) {
do_ioctl!(eviocgbit(fd, Types::KEY.number(), dev.key_bits.len() as libc::c_int, dev.key_bits.as_mut_slice().as_mut_ptr() as *mut u8));
}
if dev.ty.contains(RELATIVE) {
do_ioctl!(eviocgbit(fd, RELATIVE.number(), 0xf, &mut bits as *mut u32 as *mut u8));
if dev.ty.contains(Types::RELATIVE) {
do_ioctl!(eviocgbit(fd, Types::RELATIVE.number(), 0xf, &mut bits as *mut u32 as *mut u8));
dev.rel = RelativeAxis::from_bits(bits).expect("evdev: unexpected rel bits! report a bug");
}
if dev.ty.contains(ABSOLUTE) {
do_ioctl!(eviocgbit(fd, ABSOLUTE.number(), 0x3f, &mut bits64 as *mut u64 as *mut u8));
if dev.ty.contains(Types::ABSOLUTE) {
do_ioctl!(eviocgbit(fd, Types::ABSOLUTE.number(), 0x3f, &mut bits64 as *mut u64 as *mut u8));
dev.abs = AbsoluteAxis::from_bits(bits64).expect("evdev: unexpected abs bits! report a bug");
dev.state.abs_vals = vec![input_absinfo::default(); 0x3f];
}
if dev.ty.contains(SWITCH) {
do_ioctl!(eviocgbit(fd, SWITCH.number(), 0xf, &mut bits as *mut u32 as *mut u8));
if dev.ty.contains(Types::SWITCH) {
do_ioctl!(eviocgbit(fd, Types::SWITCH.number(), 0xf, &mut bits as *mut u32 as *mut u8));
dev.switch = Switch::from_bits(bits).expect("evdev: unexpected switch bits! report a bug");
}
if dev.ty.contains(LED) {
do_ioctl!(eviocgbit(fd, LED.number(), 0xf, &mut bits as *mut u32 as *mut u8));
if dev.ty.contains(Types::LED) {
do_ioctl!(eviocgbit(fd, Types::LED.number(), 0xf, &mut bits as *mut u32 as *mut u8));
dev.led = Led::from_bits(bits).expect("evdev: unexpected led bits! report a bug");
}
if dev.ty.contains(MISC) {
do_ioctl!(eviocgbit(fd, MISC.number(), 0x7, &mut bits as *mut u32 as *mut u8));
if dev.ty.contains(Types::MISC) {
do_ioctl!(eviocgbit(fd, Types::MISC.number(), 0x7, &mut bits as *mut u32 as *mut u8));
dev.misc = Misc::from_bits(bits).expect("evdev: unexpected misc bits! report a bug");
}
//do_ioctl!(eviocgbit(fd, ffs(FORCEFEEDBACK.bits()), 0x7f, &mut bits as *mut u32 as *mut u8));
if dev.ty.contains(SOUND) {
do_ioctl!(eviocgbit(fd, SOUND.number(), 0x7, &mut bits as *mut u32 as *mut u8));
if dev.ty.contains(Types::SOUND) {
do_ioctl!(eviocgbit(fd, Types::SOUND.number(), 0x7, &mut bits as *mut u32 as *mut u8));
dev.snd = Sound::from_bits(bits).expect("evdev: unexpected sound bits! report a bug");
}
@ -791,10 +790,10 @@ impl Device {
///
/// If there is an error at any point, the state will not be synchronized completely.
pub fn sync_state(&mut self) -> Result<(), Error> {
if self.ty.contains(KEY) {
if self.ty.contains(Types::KEY) {
do_ioctl!(eviocgkey(self.fd, transmute::<&mut [u32], &mut [u8]>(self.state.key_vals.as_mut_slice())));
}
if self.ty.contains(ABSOLUTE) {
if self.ty.contains(Types::ABSOLUTE) {
for idx in 0..0x3f {
let abs = 1 << idx;
// ignore multitouch, we'll handle that later.
@ -806,10 +805,10 @@ impl Device {
}
}
}
if self.ty.contains(SWITCH) {
if self.ty.contains(Types::SWITCH) {
do_ioctl!(eviocgsw(self.fd, transmute::<&mut [u32], &mut [u8]>(self.state.switch_vals.as_mut_slice())));
}
if self.ty.contains(LED) {
if self.ty.contains(Types::LED) {
do_ioctl!(eviocgled(self.fd, transmute::<&mut [u32], &mut [u8]>(self.state.led_vals.as_mut_slice())));
}
@ -855,13 +854,13 @@ impl Device {
tv_usec: time.tv_nsec / 1000,
};
if self.ty.contains(KEY) {
if self.ty.contains(Types::KEY) {
for key_idx in 0..self.key_bits.len() {
if self.key_bits.contains(key_idx) {
if old_state.key_vals[key_idx] != self.state.key_vals[key_idx] {
self.pending_events.push(raw::input_event {
time: time,
_type: KEY.number(),
_type: Types::KEY.number(),
code: key_idx as u16,
value: if self.state.key_vals[key_idx] { 1 } else { 0 },
});
@ -869,14 +868,14 @@ impl Device {
}
}
}
if self.ty.contains(ABSOLUTE) {
if self.ty.contains(Types::ABSOLUTE) {
for idx in 0..0x3f {
let abs = 1 << idx;
if self.abs.bits() & abs != 0 {
if old_state.abs_vals[idx as usize] != self.state.abs_vals[idx as usize] {
self.pending_events.push(raw::input_event {
time: time,
_type: ABSOLUTE.number(),
_type: Types::ABSOLUTE.number(),
code: idx as u16,
value: self.state.abs_vals[idx as usize].value,
});
@ -884,14 +883,14 @@ impl Device {
}
}
}
if self.ty.contains(SWITCH) {
if self.ty.contains(Types::SWITCH) {
for idx in 0..0xf {
let sw = 1 << idx;
if sw < SW_MAX.bits() && self.switch.bits() & sw == 1 {
if sw < Switch::SW_MAX.bits() && self.switch.bits() & sw == 1 {
if old_state.switch_vals[idx as usize] != self.state.switch_vals[idx as usize] {
self.pending_events.push(raw::input_event {
time: time,
_type: SWITCH.number(),
_type: Types::SWITCH.number(),
code: idx as u16,
value: if self.state.switch_vals[idx as usize] { 1 } else { 0 },
});
@ -899,14 +898,14 @@ impl Device {
}
}
}
if self.ty.contains(LED) {
if self.ty.contains(Types::LED) {
for idx in 0..0xf {
let led = 1 << idx;
if led < LED_MAX.bits() && self.led.bits() & led == 1 {
if led < Led::LED_MAX.bits() && self.led.bits() & led == 1 {
if old_state.led_vals[idx as usize] != self.state.led_vals[idx as usize] {
self.pending_events.push(raw::input_event {
time: time,
_type: LED.number(),
_type: Types::LED.number(),
code: idx as u16,
value: if self.state.led_vals[idx as usize] { 1 } else { 0 },
});
@ -917,7 +916,7 @@ impl Device {
self.pending_events.push(raw::input_event {
time: time,
_type: SYNCHRONIZATION.number(),
_type: Types::SYNCHRONIZATION.number(),
code: SYN_REPORT as u16,
value: 0,
});
@ -936,8 +935,8 @@ impl Device {
(size_of::<raw::input_event>() * (buf.capacity() - pre_len)) as libc::size_t)
};
if sz == -1 {
let errno = ::nix::Errno::last();
if errno != ::nix::Errno::EAGAIN {
let errno = ::nix::errno::Errno::last();
if errno != ::nix::errno::Errno::EAGAIN {
return Err(Error::from_errno(errno));
} else {
break;
@ -1012,5 +1011,3 @@ pub fn enumerate() -> Vec<Device> {
}
res
}
#[cfg(test)] mod test { include!("tests.rs"); }

59
src/raw.rs
View file

@ -1,14 +1,14 @@
ioctl!(read eviocgeffects with b'E', 0x84; ::libc::c_int);
ioctl!(read eviocgid with b'E', 0x02; /*struct*/ input_id);
ioctl!(read eviocgkeycode with b'E', 0x04; [::libc::c_uint; 2]);
ioctl!(read eviocgrep with b'E', 0x03; [::libc::c_uint; 2]);
ioctl!(read eviocgversion with b'E', 0x01; ::libc::c_int);
ioctl!(write_int eviocrmff with b'E', 0x81);
ioctl_read!(eviocgeffects, b'E', 0x84, ::libc::c_int);
ioctl_read!(eviocgid, b'E', 0x02, /*struct*/ input_id);
ioctl_read!(eviocgkeycode, b'E', 0x04, [::libc::c_uint; 2]);
ioctl_read!(eviocgrep, b'E', 0x03, [::libc::c_uint; 2]);
ioctl_read!(eviocgversion, b'E', 0x01, ::libc::c_int);
ioctl_write_int!(eviocrmff, b'E', 0x81);
// ioctl!(read eviocgkeycode_v2 with b'E', 0x04; /*struct*/ input_keymap_entry);
// TODO #define EVIOCSFF _IOC ( _IOC_WRITE , 'E' , 0x80 , sizeof ( struct ff_effect ) )
ioctl!(write_ptr eviocskeycode with b'E', 0x04; [::libc::c_uint; 2]);
ioctl_write_ptr!(eviocskeycode, b'E', 0x04, [::libc::c_uint; 2]);
// ioctl!(write_int eviocskeycode_v2 with b'E', 0x04; /*struct*/ input_keymap_entry);
ioctl!(write_ptr eviocsrep with b'E', 0x03; [::libc::c_uint; 2]);
ioctl_write_ptr!(eviocsrep, b'E', 0x03, [::libc::c_uint; 2]);
#[repr(C)]
#[derive(Copy, Clone)]
@ -191,38 +191,25 @@ impl ::std::default::Default for ff_rumble_effect {
fn default() -> Self { unsafe { ::std::mem::zeroed() } }
}
ioctl!(read_buf eviocgname with b'E', 0x06; u8);
ioctl!(read_buf eviocgphys with b'E', 0x07; u8);
ioctl!(read_buf eviocguniq with b'E', 0x08; u8);
ioctl!(read_buf eviocgprop with b'E', 0x09; u8);
ioctl!(read_buf eviocgmtslots with b'E', 0x0a; u8);
ioctl!(read_buf eviocgkey with b'E', 0x18; u8);
ioctl!(read_buf eviocgled with b'E', 0x19; u8);
ioctl!(read_buf eviocgsnd with b'E', 0x1a; u8);
ioctl!(read_buf eviocgsw with b'E', 0x1b; u8);
ioctl_read_buf!(eviocgname, b'E', 0x06, u8);
ioctl_read_buf!(eviocgphys, b'E', 0x07, u8);
ioctl_read_buf!(eviocguniq, b'E', 0x08, u8);
ioctl_read_buf!(eviocgprop, b'E', 0x09, u8);
ioctl_read_buf!(eviocgmtslots, b'E', 0x0a, u8);
ioctl_read_buf!(eviocgkey, b'E', 0x18, u8);
ioctl_read_buf!(eviocgled, b'E', 0x19, u8);
ioctl_read_buf!(eviocgsnd, b'E', 0x1a, u8);
ioctl_read_buf!(eviocgsw, b'E', 0x1b, u8);
ioctl!(write_ptr eviocsff with b'E', 0x80; ff_effect);
ioctl!(write_int eviocgrab with b'E', 0x90);
ioctl!(write_int eviocrevoke with b'E', 0x91);
ioctl!(write_int eviocsclockid with b'E', 0xa0);
ioctl_write_ptr!(eviocsff, b'E', 0x80, ff_effect);
ioctl_write_int!(eviocgrab, b'E', 0x90);
ioctl_write_int!(eviocrevoke, b'E', 0x91);
ioctl_write_int!(eviocsclockid, b'E', 0xa0);
#[cfg(target_arch = "arm")]
pub unsafe fn eviocgbit(fd: ::libc::c_int, ev: u32, len: ::libc::c_int, buf: *mut u8) -> ::nix::Result<i32> {
convert_ioctl_res!(::nix::libc::ioctl(fd, ior!(b'E', 0x20 + ev, len) as ::libc::c_long, buf))
convert_ioctl_res!(::nix::libc::ioctl(fd, request_code_read!(b'E', 0x20 + ev, len), buf))
}
#[cfg(not(target_arch = "arm"))]
pub unsafe fn eviocgbit(fd: ::libc::c_int, ev: u32, len: ::libc::c_int, buf: *mut u8) -> ::nix::Result<i32> {
convert_ioctl_res!(::nix::libc::ioctl(fd, ior!(b'E', 0x20 + ev, len) as ::libc::c_ulong, buf))
}
#[cfg(target_arch = "arm")]
pub unsafe fn eviocgabs(fd: ::libc::c_int, abs: u32, buf: *mut input_absinfo) -> ::nix::Result<i32> {
convert_ioctl_res!(::nix::libc::ioctl(fd, ior!(b'E', 0x40 + abs, ::std::mem::size_of::<input_absinfo>()) as ::libc::c_long, buf))
convert_ioctl_res!(::nix::libc::ioctl(fd, request_code_read!(b'E', 0x40 + abs, ::std::mem::size_of::<input_absinfo>()), buf))
}
#[cfg(not(target_arch = "arm"))]
pub unsafe fn eviocgabs(fd: ::libc::c_int, abs: u32, buf: *mut input_absinfo) -> ::nix::Result<i32> {
convert_ioctl_res!(::nix::libc::ioctl(fd, ior!(b'E', 0x40 + abs, ::std::mem::size_of::<input_absinfo>()) as ::libc::c_ulong, buf))
}