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cobalt / cobalt / HEAD / . / ui / gfx / x / generated_protos / xinput.cc
blob: f98f5b23b84c4bda69cce4a5fdd9640bb96d821a [file] [log] [blame]
// Copyright 2021 The Chromium Authors. All rights reserved.
// Use of this source code is governed by a BSD-style license that can be
// found in the LICENSE file.
// This file was automatically generated with:
// ../../ui/gfx/x/gen_xproto.py \
// ../../third_party/xcbproto/src \
// gen/ui/gfx/x \
// bigreq \
// composite \
// damage \
// dpms \
// dri2 \
// dri3 \
// ge \
// glx \
// present \
// randr \
// record \
// render \
// res \
// screensaver \
// shape \
// shm \
// sync \
// xc_misc \
// xevie \
// xf86dri \
// xf86vidmode \
// xfixes \
// xinerama \
// xinput \
// xkb \
// xprint \
// xproto \
// xselinux \
// xtest \
// xv \
// xvmc
#include "xinput.h"
#include <xcb/xcb.h>
#include <xcb/xcbext.h>
#include "base/logging.h"
#include "base/posix/eintr_wrapper.h"
#include "ui/gfx/x/xproto_internal.h"
namespace x11 {
Input::Input(Connection* connection, const x11::QueryExtensionReply& info)
: connection_(connection), info_(info) {}
template <>
COMPONENT_EXPORT(X11)
void ReadEvent<Input::DeviceValuatorEvent>(Input::DeviceValuatorEvent* event_,
ReadBuffer* buffer) {
auto& buf = *buffer;
auto& device_id = (*event_).device_id;
auto& sequence = (*event_).sequence;
auto& device_state = (*event_).device_state;
auto& num_valuators = (*event_).num_valuators;
auto& first_valuator = (*event_).first_valuator;
auto& valuators = (*event_).valuators;
size_t valuators_len = valuators.size();
// response_type
uint8_t response_type;
Read(&response_type, &buf);
// device_id
Read(&device_id, &buf);
// sequence
Read(&sequence, &buf);
// device_state
Read(&device_state, &buf);
// num_valuators
Read(&num_valuators, &buf);
// first_valuator
Read(&first_valuator, &buf);
// valuators
for (auto& valuators_elem : valuators) {
// valuators_elem
Read(&valuators_elem, &buf);
}
DCHECK_LE(buf.offset, 32ul);
}
template <>
COMPONENT_EXPORT(X11)
void ReadEvent<Input::LegacyDeviceEvent>(Input::LegacyDeviceEvent* event_,
ReadBuffer* buffer) {
auto& buf = *buffer;
auto& detail = (*event_).detail;
auto& sequence = (*event_).sequence;
auto& time = (*event_).time;
auto& root = (*event_).root;
auto& event = (*event_).event;
auto& child = (*event_).child;
auto& root_x = (*event_).root_x;
auto& root_y = (*event_).root_y;
auto& event_x = (*event_).event_x;
auto& event_y = (*event_).event_y;
auto& state = (*event_).state;
auto& same_screen = (*event_).same_screen;
auto& device_id = (*event_).device_id;
// response_type
uint8_t response_type;
Read(&response_type, &buf);
// detail
Read(&detail, &buf);
// sequence
Read(&sequence, &buf);
// time
Read(&time, &buf);
// root
Read(&root, &buf);
// event
Read(&event, &buf);
// child
Read(&child, &buf);
// root_x
Read(&root_x, &buf);
// root_y
Read(&root_y, &buf);
// event_x
Read(&event_x, &buf);
// event_y
Read(&event_y, &buf);
// state
uint16_t tmp0;
Read(&tmp0, &buf);
state = static_cast<KeyButMask>(tmp0);
// same_screen
Read(&same_screen, &buf);
// device_id
Read(&device_id, &buf);
DCHECK_LE(buf.offset, 32ul);
}
template <>
COMPONENT_EXPORT(X11)
void ReadEvent<Input::DeviceFocusEvent>(Input::DeviceFocusEvent* event_,
ReadBuffer* buffer) {
auto& buf = *buffer;
auto& detail = (*event_).detail;
auto& sequence = (*event_).sequence;
auto& time = (*event_).time;
auto& window = (*event_).window;
auto& mode = (*event_).mode;
auto& device_id = (*event_).device_id;
// response_type
uint8_t response_type;
Read(&response_type, &buf);
// detail
uint8_t tmp1;
Read(&tmp1, &buf);
detail = static_cast<NotifyDetail>(tmp1);
// sequence
Read(&sequence, &buf);
// time
Read(&time, &buf);
// window
Read(&window, &buf);
// mode
uint8_t tmp2;
Read(&tmp2, &buf);
mode = static_cast<NotifyMode>(tmp2);
// device_id
Read(&device_id, &buf);
// pad0
Pad(&buf, 18);
DCHECK_LE(buf.offset, 32ul);
}
template <>
COMPONENT_EXPORT(X11)
void ReadEvent<Input::DeviceStateNotifyEvent>(
Input::DeviceStateNotifyEvent* event_,
ReadBuffer* buffer) {
auto& buf = *buffer;
auto& device_id = (*event_).device_id;
auto& sequence = (*event_).sequence;
auto& time = (*event_).time;
auto& num_keys = (*event_).num_keys;
auto& num_buttons = (*event_).num_buttons;
auto& num_valuators = (*event_).num_valuators;
auto& classes_reported = (*event_).classes_reported;
auto& buttons = (*event_).buttons;
size_t buttons_len = buttons.size();
auto& keys = (*event_).keys;
size_t keys_len = keys.size();
auto& valuators = (*event_).valuators;
size_t valuators_len = valuators.size();
// response_type
uint8_t response_type;
Read(&response_type, &buf);
// device_id
Read(&device_id, &buf);
// sequence
Read(&sequence, &buf);
// time
Read(&time, &buf);
// num_keys
Read(&num_keys, &buf);
// num_buttons
Read(&num_buttons, &buf);
// num_valuators
Read(&num_valuators, &buf);
// classes_reported
uint8_t tmp3;
Read(&tmp3, &buf);
classes_reported = static_cast<Input::ClassesReportedMask>(tmp3);
// buttons
for (auto& buttons_elem : buttons) {
// buttons_elem
Read(&buttons_elem, &buf);
}
// keys
for (auto& keys_elem : keys) {
// keys_elem
Read(&keys_elem, &buf);
}
// valuators
for (auto& valuators_elem : valuators) {
// valuators_elem
Read(&valuators_elem, &buf);
}
DCHECK_LE(buf.offset, 32ul);
}
template <>
COMPONENT_EXPORT(X11)
void ReadEvent<Input::DeviceMappingNotifyEvent>(
Input::DeviceMappingNotifyEvent* event_,
ReadBuffer* buffer) {
auto& buf = *buffer;
auto& device_id = (*event_).device_id;
auto& sequence = (*event_).sequence;
auto& request = (*event_).request;
auto& first_keycode = (*event_).first_keycode;
auto& count = (*event_).count;
auto& time = (*event_).time;
// response_type
uint8_t response_type;
Read(&response_type, &buf);
// device_id
Read(&device_id, &buf);
// sequence
Read(&sequence, &buf);
// request
uint8_t tmp4;
Read(&tmp4, &buf);
request = static_cast<Mapping>(tmp4);
// first_keycode
Read(&first_keycode, &buf);
// count
Read(&count, &buf);
// pad0
Pad(&buf, 1);
// time
Read(&time, &buf);
// pad1
Pad(&buf, 20);
DCHECK_LE(buf.offset, 32ul);
}
template <>
COMPONENT_EXPORT(X11)
void ReadEvent<Input::ChangeDeviceNotifyEvent>(
Input::ChangeDeviceNotifyEvent* event_,
ReadBuffer* buffer) {
auto& buf = *buffer;
auto& device_id = (*event_).device_id;
auto& sequence = (*event_).sequence;
auto& time = (*event_).time;
auto& request = (*event_).request;
// response_type
uint8_t response_type;
Read(&response_type, &buf);
// device_id
Read(&device_id, &buf);
// sequence
Read(&sequence, &buf);
// time
Read(&time, &buf);
// request
uint8_t tmp5;
Read(&tmp5, &buf);
request = static_cast<Input::ChangeDevice>(tmp5);
// pad0
Pad(&buf, 23);
DCHECK_LE(buf.offset, 32ul);
}
template <>
COMPONENT_EXPORT(X11)
void ReadEvent<Input::DeviceKeyStateNotifyEvent>(
Input::DeviceKeyStateNotifyEvent* event_,
ReadBuffer* buffer) {
auto& buf = *buffer;
auto& device_id = (*event_).device_id;
auto& sequence = (*event_).sequence;
auto& keys = (*event_).keys;
size_t keys_len = keys.size();
// response_type
uint8_t response_type;
Read(&response_type, &buf);
// device_id
Read(&device_id, &buf);
// sequence
Read(&sequence, &buf);
// keys
for (auto& keys_elem : keys) {
// keys_elem
Read(&keys_elem, &buf);
}
DCHECK_LE(buf.offset, 32ul);
}
template <>
COMPONENT_EXPORT(X11)
void ReadEvent<Input::DeviceButtonStateNotifyEvent>(
Input::DeviceButtonStateNotifyEvent* event_,
ReadBuffer* buffer) {
auto& buf = *buffer;
auto& device_id = (*event_).device_id;
auto& sequence = (*event_).sequence;
auto& buttons = (*event_).buttons;
size_t buttons_len = buttons.size();
// response_type
uint8_t response_type;
Read(&response_type, &buf);
// device_id
Read(&device_id, &buf);
// sequence
Read(&sequence, &buf);
// buttons
for (auto& buttons_elem : buttons) {
// buttons_elem
Read(&buttons_elem, &buf);
}
DCHECK_LE(buf.offset, 32ul);
}
template <>
COMPONENT_EXPORT(X11)
void ReadEvent<Input::DevicePresenceNotifyEvent>(
Input::DevicePresenceNotifyEvent* event_,
ReadBuffer* buffer) {
auto& buf = *buffer;
auto& sequence = (*event_).sequence;
auto& time = (*event_).time;
auto& devchange = (*event_).devchange;
auto& device_id = (*event_).device_id;
auto& control = (*event_).control;
// response_type
uint8_t response_type;
Read(&response_type, &buf);
// pad0
Pad(&buf, 1);
// sequence
Read(&sequence, &buf);
// time
Read(&time, &buf);
// devchange
uint8_t tmp6;
Read(&tmp6, &buf);
devchange = static_cast<Input::DeviceChange>(tmp6);
// device_id
Read(&device_id, &buf);
// control
Read(&control, &buf);
// pad1
Pad(&buf, 20);
DCHECK_LE(buf.offset, 32ul);
}
template <>
COMPONENT_EXPORT(X11)
void ReadEvent<Input::DevicePropertyNotifyEvent>(
Input::DevicePropertyNotifyEvent* event_,
ReadBuffer* buffer) {
auto& buf = *buffer;
auto& state = (*event_).state;
auto& sequence = (*event_).sequence;
auto& time = (*event_).time;
auto& property = (*event_).property;
auto& device_id = (*event_).device_id;
// response_type
uint8_t response_type;
Read(&response_type, &buf);
// state
uint8_t tmp7;
Read(&tmp7, &buf);
state = static_cast<Property>(tmp7);
// sequence
Read(&sequence, &buf);
// time
Read(&time, &buf);
// property
Read(&property, &buf);
// pad0
Pad(&buf, 19);
// device_id
Read(&device_id, &buf);
DCHECK_LE(buf.offset, 32ul);
}
template <>
COMPONENT_EXPORT(X11)
void ReadEvent<Input::DeviceChangedEvent>(Input::DeviceChangedEvent* event_,
ReadBuffer* buffer) {
auto& buf = *buffer;
auto& sequence = (*event_).sequence;
auto& deviceid = (*event_).deviceid;
auto& time = (*event_).time;
uint16_t num_classes{};
auto& sourceid = (*event_).sourceid;
auto& reason = (*event_).reason;
auto& classes = (*event_).classes;
size_t classes_len = classes.size();
// response_type
uint8_t response_type;
Read(&response_type, &buf);
// extension
uint8_t extension;
Read(&extension, &buf);
// sequence
Read(&sequence, &buf);
// length
uint32_t length;
Read(&length, &buf);
// event_type
uint16_t event_type;
Read(&event_type, &buf);
// deviceid
Read(&deviceid, &buf);
// time
Read(&time, &buf);
// num_classes
Read(&num_classes, &buf);
// sourceid
Read(&sourceid, &buf);
// reason
uint8_t tmp8;
Read(&tmp8, &buf);
reason = static_cast<Input::ChangeReason>(tmp8);
// pad0
Pad(&buf, 11);
// classes
classes.resize(num_classes);
for (auto& classes_elem : classes) {
// classes_elem
{
Input::DeviceClassType type{};
auto& len = classes_elem.len;
auto& sourceid = classes_elem.sourceid;
auto& data = classes_elem;
// type
uint16_t tmp9;
Read(&tmp9, &buf);
type = static_cast<Input::DeviceClassType>(tmp9);
// len
Read(&len, &buf);
// sourceid
Read(&sourceid, &buf);
// data
auto data_expr = type;
if (CaseEq(data_expr, Input::DeviceClassType::Key)) {
data.key.emplace();
uint16_t num_keys{};
auto& keys = (*data.key).keys;
size_t keys_len = keys.size();
// num_keys
Read(&num_keys, &buf);
// keys
keys.resize(num_keys);
for (auto& keys_elem : keys) {
// keys_elem
Read(&keys_elem, &buf);
}
}
if (CaseEq(data_expr, Input::DeviceClassType::Button)) {
data.button.emplace();
uint16_t num_buttons{};
auto& state = (*data.button).state;
size_t state_len = state.size();
auto& labels = (*data.button).labels;
size_t labels_len = labels.size();
// num_buttons
Read(&num_buttons, &buf);
// state
state.resize(((num_buttons) + (31)) / (32));
for (auto& state_elem : state) {
// state_elem
Read(&state_elem, &buf);
}
// labels
labels.resize(num_buttons);
for (auto& labels_elem : labels) {
// labels_elem
Read(&labels_elem, &buf);
}
}
if (CaseEq(data_expr, Input::DeviceClassType::Valuator)) {
data.valuator.emplace();
auto& number = (*data.valuator).number;
auto& label = (*data.valuator).label;
auto& min = (*data.valuator).min;
auto& max = (*data.valuator).max;
auto& value = (*data.valuator).value;
auto& resolution = (*data.valuator).resolution;
auto& mode = (*data.valuator).mode;
// number
Read(&number, &buf);
// label
Read(&label, &buf);
// min
{
auto& integral = min.integral;
auto& frac = min.frac;
// integral
Read(&integral, &buf);
// frac
Read(&frac, &buf);
}
// max
{
auto& integral = max.integral;
auto& frac = max.frac;
// integral
Read(&integral, &buf);
// frac
Read(&frac, &buf);
}
// value
{
auto& integral = value.integral;
auto& frac = value.frac;
// integral
Read(&integral, &buf);
// frac
Read(&frac, &buf);
}
// resolution
Read(&resolution, &buf);
// mode
uint8_t tmp10;
Read(&tmp10, &buf);
mode = static_cast<Input::ValuatorMode>(tmp10);
// pad0
Pad(&buf, 3);
}
if (CaseEq(data_expr, Input::DeviceClassType::Scroll)) {
data.scroll.emplace();
auto& number = (*data.scroll).number;
auto& scroll_type = (*data.scroll).scroll_type;
auto& flags = (*data.scroll).flags;
auto& increment = (*data.scroll).increment;
// number
Read(&number, &buf);
// scroll_type
uint16_t tmp11;
Read(&tmp11, &buf);
scroll_type = static_cast<Input::ScrollType>(tmp11);
// pad1
Pad(&buf, 2);
// flags
uint32_t tmp12;
Read(&tmp12, &buf);
flags = static_cast<Input::ScrollFlags>(tmp12);
// increment
{
auto& integral = increment.integral;
auto& frac = increment.frac;
// integral
Read(&integral, &buf);
// frac
Read(&frac, &buf);
}
}
if (CaseEq(data_expr, Input::DeviceClassType::Touch)) {
data.touch.emplace();
auto& mode = (*data.touch).mode;
auto& num_touches = (*data.touch).num_touches;
// mode
uint8_t tmp13;
Read(&tmp13, &buf);
mode = static_cast<Input::TouchMode>(tmp13);
// num_touches
Read(&num_touches, &buf);
}
}
}
Align(&buf, 4);
DCHECK_EQ(buf.offset, 32 + 4 * length);
}
template <>
COMPONENT_EXPORT(X11)
void ReadEvent<Input::DeviceEvent>(Input::DeviceEvent* event_,
ReadBuffer* buffer) {
auto& buf = *buffer;
auto& sequence = (*event_).sequence;
auto& deviceid = (*event_).deviceid;
auto& time = (*event_).time;
auto& detail = (*event_).detail;
auto& root = (*event_).root;
auto& event = (*event_).event;
auto& child = (*event_).child;
auto& root_x = (*event_).root_x;
auto& root_y = (*event_).root_y;
auto& event_x = (*event_).event_x;
auto& event_y = (*event_).event_y;
uint16_t buttons_len{};
uint16_t valuators_len{};
auto& sourceid = (*event_).sourceid;
auto& flags = (*event_).flags;
auto& mods = (*event_).mods;
auto& group = (*event_).group;
auto& button_mask = (*event_).button_mask;
size_t button_mask_len = button_mask.size();
auto& valuator_mask = (*event_).valuator_mask;
size_t valuator_mask_len = valuator_mask.size();
auto& axisvalues = (*event_).axisvalues;
size_t axisvalues_len = axisvalues.size();
// response_type
uint8_t response_type;
Read(&response_type, &buf);
// extension
uint8_t extension;
Read(&extension, &buf);
// sequence
Read(&sequence, &buf);
// length
uint32_t length;
Read(&length, &buf);
// event_type
uint16_t event_type;
Read(&event_type, &buf);
// deviceid
Read(&deviceid, &buf);
// time
Read(&time, &buf);
// detail
Read(&detail, &buf);
// root
Read(&root, &buf);
// event
Read(&event, &buf);
// child
Read(&child, &buf);
// root_x
Read(&root_x, &buf);
// root_y
Read(&root_y, &buf);
// event_x
Read(&event_x, &buf);
// event_y
Read(&event_y, &buf);
// buttons_len
Read(&buttons_len, &buf);
// valuators_len
Read(&valuators_len, &buf);
// sourceid
Read(&sourceid, &buf);
// pad0
Pad(&buf, 2);
// flags
uint32_t tmp14;
Read(&tmp14, &buf);
flags = static_cast<Input::KeyEventFlags>(tmp14);
// mods
{
auto& base = mods.base;
auto& latched = mods.latched;
auto& locked = mods.locked;
auto& effective = mods.effective;
// base
Read(&base, &buf);
// latched
Read(&latched, &buf);
// locked
Read(&locked, &buf);
// effective
Read(&effective, &buf);
}
// group
{
auto& base = group.base;
auto& latched = group.latched;
auto& locked = group.locked;
auto& effective = group.effective;
// base
Read(&base, &buf);
// latched
Read(&latched, &buf);
// locked
Read(&locked, &buf);
// effective
Read(&effective, &buf);
}
// button_mask
button_mask.resize(buttons_len);
for (auto& button_mask_elem : button_mask) {
// button_mask_elem
Read(&button_mask_elem, &buf);
}
// valuator_mask
valuator_mask.resize(valuators_len);
for (auto& valuator_mask_elem : valuator_mask) {
// valuator_mask_elem
Read(&valuator_mask_elem, &buf);
}
// axisvalues
auto sum15_ = SumOf([](auto& listelem_ref) { return PopCount(listelem_ref); },
valuator_mask);
axisvalues.resize(sum15_);
for (auto& axisvalues_elem : axisvalues) {
// axisvalues_elem
{
auto& integral = axisvalues_elem.integral;
auto& frac = axisvalues_elem.frac;
// integral
Read(&integral, &buf);
// frac
Read(&frac, &buf);
}
}
Align(&buf, 4);
DCHECK_EQ(buf.offset, 32 + 4 * length);
}
template <>
COMPONENT_EXPORT(X11)
void ReadEvent<Input::CrossingEvent>(Input::CrossingEvent* event_,
ReadBuffer* buffer) {
auto& buf = *buffer;
auto& sequence = (*event_).sequence;
auto& deviceid = (*event_).deviceid;
auto& time = (*event_).time;
auto& sourceid = (*event_).sourceid;
auto& mode = (*event_).mode;
auto& detail = (*event_).detail;
auto& root = (*event_).root;
auto& event = (*event_).event;
auto& child = (*event_).child;
auto& root_x = (*event_).root_x;
auto& root_y = (*event_).root_y;
auto& event_x = (*event_).event_x;
auto& event_y = (*event_).event_y;
auto& same_screen = (*event_).same_screen;
auto& focus = (*event_).focus;
uint16_t buttons_len{};
auto& mods = (*event_).mods;
auto& group = (*event_).group;
auto& buttons = (*event_).buttons;
// response_type
uint8_t response_type;
Read(&response_type, &buf);
// extension
uint8_t extension;
Read(&extension, &buf);
// sequence
Read(&sequence, &buf);
// length
uint32_t length;
Read(&length, &buf);
// event_type
uint16_t event_type;
Read(&event_type, &buf);
// deviceid
Read(&deviceid, &buf);
// time
Read(&time, &buf);
// sourceid
Read(&sourceid, &buf);
// mode
uint8_t tmp16;
Read(&tmp16, &buf);
mode = static_cast<Input::NotifyMode>(tmp16);
// detail
uint8_t tmp17;
Read(&tmp17, &buf);
detail = static_cast<Input::NotifyDetail>(tmp17);
// root
Read(&root, &buf);
// event
Read(&event, &buf);
// child
Read(&child, &buf);
// root_x
Read(&root_x, &buf);
// root_y
Read(&root_y, &buf);
// event_x
Read(&event_x, &buf);
// event_y
Read(&event_y, &buf);
// same_screen
Read(&same_screen, &buf);
// focus
Read(&focus, &buf);
// buttons_len
Read(&buttons_len, &buf);
// mods
{
auto& base = mods.base;
auto& latched = mods.latched;
auto& locked = mods.locked;
auto& effective = mods.effective;
// base
Read(&base, &buf);
// latched
Read(&latched, &buf);
// locked
Read(&locked, &buf);
// effective
Read(&effective, &buf);
}
// group
{
auto& base = group.base;
auto& latched = group.latched;
auto& locked = group.locked;
auto& effective = group.effective;
// base
Read(&base, &buf);
// latched
Read(&latched, &buf);
// locked
Read(&locked, &buf);
// effective
Read(&effective, &buf);
}
// buttons
buttons.resize(buttons_len);
for (auto& buttons_elem : buttons) {
// buttons_elem
Read(&buttons_elem, &buf);
}
Align(&buf, 4);
DCHECK_EQ(buf.offset, 32 + 4 * length);
}
template <>
COMPONENT_EXPORT(X11)
void ReadEvent<Input::HierarchyEvent>(Input::HierarchyEvent* event_,
ReadBuffer* buffer) {
auto& buf = *buffer;
auto& sequence = (*event_).sequence;
auto& deviceid = (*event_).deviceid;
auto& time = (*event_).time;
auto& flags = (*event_).flags;
uint16_t num_infos{};
auto& infos = (*event_).infos;
size_t infos_len = infos.size();
// response_type
uint8_t response_type;
Read(&response_type, &buf);
// extension
uint8_t extension;
Read(&extension, &buf);
// sequence
Read(&sequence, &buf);
// length
uint32_t length;
Read(&length, &buf);
// event_type
uint16_t event_type;
Read(&event_type, &buf);
// deviceid
Read(&deviceid, &buf);
// time
Read(&time, &buf);
// flags
uint32_t tmp18;
Read(&tmp18, &buf);
flags = static_cast<Input::HierarchyMask>(tmp18);
// num_infos
Read(&num_infos, &buf);
// pad0
Pad(&buf, 10);
// infos
infos.resize(num_infos);
for (auto& infos_elem : infos) {
// infos_elem
{
auto& deviceid = infos_elem.deviceid;
auto& attachment = infos_elem.attachment;
auto& type = infos_elem.type;
auto& enabled = infos_elem.enabled;
auto& flags = infos_elem.flags;
// deviceid
Read(&deviceid, &buf);
// attachment
Read(&attachment, &buf);
// type
uint8_t tmp19;
Read(&tmp19, &buf);
type = static_cast<Input::DeviceType>(tmp19);
// enabled
Read(&enabled, &buf);
// pad0
Pad(&buf, 2);
// flags
uint32_t tmp20;
Read(&tmp20, &buf);
flags = static_cast<Input::HierarchyMask>(tmp20);
}
}
Align(&buf, 4);
DCHECK_EQ(buf.offset, 32 + 4 * length);
}
template <>
COMPONENT_EXPORT(X11)
void ReadEvent<Input::PropertyEvent>(Input::PropertyEvent* event_,
ReadBuffer* buffer) {
auto& buf = *buffer;
auto& sequence = (*event_).sequence;
auto& deviceid = (*event_).deviceid;
auto& time = (*event_).time;
auto& property = (*event_).property;
auto& what = (*event_).what;
// response_type
uint8_t response_type;
Read(&response_type, &buf);
// extension
uint8_t extension;
Read(&extension, &buf);
// sequence
Read(&sequence, &buf);
// length
uint32_t length;
Read(&length, &buf);
// event_type
uint16_t event_type;
Read(&event_type, &buf);
// deviceid
Read(&deviceid, &buf);
// time
Read(&time, &buf);
// property
Read(&property, &buf);
// what
uint8_t tmp21;
Read(&tmp21, &buf);
what = static_cast<Input::PropertyFlag>(tmp21);
// pad0
Pad(&buf, 11);
Align(&buf, 4);
DCHECK_EQ(buf.offset, 32 + 4 * length);
}
template <>
COMPONENT_EXPORT(X11)
void ReadEvent<Input::RawDeviceEvent>(Input::RawDeviceEvent* event_,
ReadBuffer* buffer) {
auto& buf = *buffer;
auto& sequence = (*event_).sequence;
auto& deviceid = (*event_).deviceid;
auto& time = (*event_).time;
auto& detail = (*event_).detail;
auto& sourceid = (*event_).sourceid;
uint16_t valuators_len{};
auto& flags = (*event_).flags;
auto& valuator_mask = (*event_).valuator_mask;
size_t valuator_mask_len = valuator_mask.size();
auto& axisvalues = (*event_).axisvalues;
size_t axisvalues_len = axisvalues.size();
auto& axisvalues_raw = (*event_).axisvalues_raw;
size_t axisvalues_raw_len = axisvalues_raw.size();
// response_type
uint8_t response_type;
Read(&response_type, &buf);
// extension
uint8_t extension;
Read(&extension, &buf);
// sequence
Read(&sequence, &buf);
// length
uint32_t length;
Read(&length, &buf);
// event_type
uint16_t event_type;
Read(&event_type, &buf);
// deviceid
Read(&deviceid, &buf);
// time
Read(&time, &buf);
// detail
Read(&detail, &buf);
// sourceid
Read(&sourceid, &buf);
// valuators_len
Read(&valuators_len, &buf);
// flags
uint32_t tmp22;
Read(&tmp22, &buf);
flags = static_cast<Input::KeyEventFlags>(tmp22);
// pad0
Pad(&buf, 4);
// valuator_mask
valuator_mask.resize(valuators_len);
for (auto& valuator_mask_elem : valuator_mask) {
// valuator_mask_elem
Read(&valuator_mask_elem, &buf);
}
// axisvalues
auto sum23_ = SumOf([](auto& listelem_ref) { return PopCount(listelem_ref); },
valuator_mask);
axisvalues.resize(sum23_);
for (auto& axisvalues_elem : axisvalues) {
// axisvalues_elem
{
auto& integral = axisvalues_elem.integral;
auto& frac = axisvalues_elem.frac;
// integral
Read(&integral, &buf);
// frac
Read(&frac, &buf);
}
}
// axisvalues_raw
auto sum24_ = SumOf([](auto& listelem_ref) { return PopCount(listelem_ref); },
valuator_mask);
axisvalues_raw.resize(sum24_);
for (auto& axisvalues_raw_elem : axisvalues_raw) {
// axisvalues_raw_elem
{
auto& integral = axisvalues_raw_elem.integral;
auto& frac = axisvalues_raw_elem.frac;
// integral
Read(&integral, &buf);
// frac
Read(&frac, &buf);
}
}
Align(&buf, 4);
DCHECK_EQ(buf.offset, 32 + 4 * length);
}
template <>
COMPONENT_EXPORT(X11)
void ReadEvent<Input::TouchOwnershipEvent>(Input::TouchOwnershipEvent* event_,
ReadBuffer* buffer) {
auto& buf = *buffer;
auto& sequence = (*event_).sequence;
auto& deviceid = (*event_).deviceid;
auto& time = (*event_).time;
auto& touchid = (*event_).touchid;
auto& root = (*event_).root;
auto& event = (*event_).event;
auto& child = (*event_).child;
auto& sourceid = (*event_).sourceid;
auto& flags = (*event_).flags;
// response_type
uint8_t response_type;
Read(&response_type, &buf);
// extension
uint8_t extension;
Read(&extension, &buf);
// sequence
Read(&sequence, &buf);
// length
uint32_t length;
Read(&length, &buf);
// event_type
uint16_t event_type;
Read(&event_type, &buf);
// deviceid
Read(&deviceid, &buf);
// time
Read(&time, &buf);
// touchid
Read(&touchid, &buf);
// root
Read(&root, &buf);
// event
Read(&event, &buf);
// child
Read(&child, &buf);
// sourceid
Read(&sourceid, &buf);
// pad0
Pad(&buf, 2);
// flags
uint32_t tmp25;
Read(&tmp25, &buf);
flags = static_cast<Input::TouchOwnershipFlags>(tmp25);
// pad1
Pad(&buf, 8);
Align(&buf, 4);
DCHECK_EQ(buf.offset, 32 + 4 * length);
}
template <>
COMPONENT_EXPORT(X11)
void ReadEvent<Input::BarrierEvent>(Input::BarrierEvent* event_,
ReadBuffer* buffer) {
auto& buf = *buffer;
auto& sequence = (*event_).sequence;
auto& deviceid = (*event_).deviceid;
auto& time = (*event_).time;
auto& eventid = (*event_).eventid;
auto& root = (*event_).root;
auto& event = (*event_).event;
auto& barrier = (*event_).barrier;
auto& dtime = (*event_).dtime;
auto& flags = (*event_).flags;
auto& sourceid = (*event_).sourceid;
auto& root_x = (*event_).root_x;
auto& root_y = (*event_).root_y;
auto& dx = (*event_).dx;
auto& dy = (*event_).dy;
// response_type
uint8_t response_type;
Read(&response_type, &buf);
// extension
uint8_t extension;
Read(&extension, &buf);
// sequence
Read(&sequence, &buf);
// length
uint32_t length;
Read(&length, &buf);
// event_type
uint16_t event_type;
Read(&event_type, &buf);
// deviceid
Read(&deviceid, &buf);
// time
Read(&time, &buf);
// eventid
Read(&eventid, &buf);
// root
Read(&root, &buf);
// event
Read(&event, &buf);
// barrier
Read(&barrier, &buf);
// dtime
Read(&dtime, &buf);
// flags
uint32_t tmp26;
Read(&tmp26, &buf);
flags = static_cast<Input::BarrierFlags>(tmp26);
// sourceid
Read(&sourceid, &buf);
// pad0
Pad(&buf, 2);
// root_x
Read(&root_x, &buf);
// root_y
Read(&root_y, &buf);
// dx
{
auto& integral = dx.integral;
auto& frac = dx.frac;
// integral
Read(&integral, &buf);
// frac
Read(&frac, &buf);
}
// dy
{
auto& integral = dy.integral;
auto& frac = dy.frac;
// integral
Read(&integral, &buf);
// frac
Read(&frac, &buf);
}
Align(&buf, 4);
DCHECK_EQ(buf.offset, 32 + 4 * length);
}
std::string Input::DeviceError::ToString() const {
std::stringstream ss_;
ss_ << "Input::DeviceError{";
ss_ << ".sequence = " << static_cast<uint64_t>(sequence);
ss_ << "}";
return ss_.str();
}
template <>
void ReadError<Input::DeviceError>(Input::DeviceError* error_,
ReadBuffer* buffer) {
auto& buf = *buffer;
auto& sequence = (*error_).sequence;
// response_type
uint8_t response_type;
Read(&response_type, &buf);
// error_code
uint8_t error_code;
Read(&error_code, &buf);
// sequence
Read(&sequence, &buf);
DCHECK_LE(buf.offset, 32ul);
}
std::string Input::EventError::ToString() const {
std::stringstream ss_;
ss_ << "Input::EventError{";
ss_ << ".sequence = " << static_cast<uint64_t>(sequence);
ss_ << "}";
return ss_.str();
}
template <>
void ReadError<Input::EventError>(Input::EventError* error_,
ReadBuffer* buffer) {
auto& buf = *buffer;
auto& sequence = (*error_).sequence;
// response_type
uint8_t response_type;
Read(&response_type, &buf);
// error_code
uint8_t error_code;
Read(&error_code, &buf);
// sequence
Read(&sequence, &buf);
DCHECK_LE(buf.offset, 32ul);
}
std::string Input::ModeError::ToString() const {
std::stringstream ss_;
ss_ << "Input::ModeError{";
ss_ << ".sequence = " << static_cast<uint64_t>(sequence);
ss_ << "}";
return ss_.str();
}
template <>
void ReadError<Input::ModeError>(Input::ModeError* error_, ReadBuffer* buffer) {
auto& buf = *buffer;
auto& sequence = (*error_).sequence;
// response_type
uint8_t response_type;
Read(&response_type, &buf);
// error_code
uint8_t error_code;
Read(&error_code, &buf);
// sequence
Read(&sequence, &buf);
DCHECK_LE(buf.offset, 32ul);
}
std::string Input::DeviceBusyError::ToString() const {
std::stringstream ss_;
ss_ << "Input::DeviceBusyError{";
ss_ << ".sequence = " << static_cast<uint64_t>(sequence);
ss_ << "}";
return ss_.str();
}
template <>
void ReadError<Input::DeviceBusyError>(Input::DeviceBusyError* error_,
ReadBuffer* buffer) {
auto& buf = *buffer;
auto& sequence = (*error_).sequence;
// response_type
uint8_t response_type;
Read(&response_type, &buf);
// error_code
uint8_t error_code;
Read(&error_code, &buf);
// sequence
Read(&sequence, &buf);
DCHECK_LE(buf.offset, 32ul);
}
std::string Input::ClassError::ToString() const {
std::stringstream ss_;
ss_ << "Input::ClassError{";
ss_ << ".sequence = " << static_cast<uint64_t>(sequence);
ss_ << "}";
return ss_.str();
}
template <>
void ReadError<Input::ClassError>(Input::ClassError* error_,
ReadBuffer* buffer) {
auto& buf = *buffer;
auto& sequence = (*error_).sequence;
// response_type
uint8_t response_type;
Read(&response_type, &buf);
// error_code
uint8_t error_code;
Read(&error_code, &buf);
// sequence
Read(&sequence, &buf);
DCHECK_LE(buf.offset, 32ul);
}
Future<Input::GetExtensionVersionReply> Input::GetExtensionVersion(
const Input::GetExtensionVersionRequest& request) {
if (!connection_->Ready() || !present())
return {};
WriteBuffer buf;
uint16_t name_len{};
auto& name = request.name;
// major_opcode
uint8_t major_opcode = info_.major_opcode;
buf.Write(&major_opcode);
// minor_opcode
uint8_t minor_opcode = 1;
buf.Write(&minor_opcode);
// length
// Caller fills in length for writes.
Pad(&buf, sizeof(uint16_t));
// name_len
name_len = name.size();
buf.Write(&name_len);
// pad0
Pad(&buf, 2);
// name
DCHECK_EQ(static_cast<size_t>(name_len), name.size());
for (auto& name_elem : name) {
// name_elem
buf.Write(&name_elem);
}
Align(&buf, 4);
return connection_->SendRequest<Input::GetExtensionVersionReply>(
&buf, "Input::GetExtensionVersion", false);
}
Future<Input::GetExtensionVersionReply> Input::GetExtensionVersion(
const std::string& name) {
return Input::GetExtensionVersion(Input::GetExtensionVersionRequest{name});
}
template <>
COMPONENT_EXPORT(X11)
std::unique_ptr<Input::GetExtensionVersionReply> detail::ReadReply<
Input::GetExtensionVersionReply>(ReadBuffer* buffer) {
auto& buf = *buffer;
auto reply = std::make_unique<Input::GetExtensionVersionReply>();
auto& xi_reply_type = (*reply).xi_reply_type;
auto& sequence = (*reply).sequence;
auto& server_major = (*reply).server_major;
auto& server_minor = (*reply).server_minor;
auto& present = (*reply).present;
// response_type
uint8_t response_type;
Read(&response_type, &buf);
// xi_reply_type
Read(&xi_reply_type, &buf);
// sequence
Read(&sequence, &buf);
// length
uint32_t length;
Read(&length, &buf);
// server_major
Read(&server_major, &buf);
// server_minor
Read(&server_minor, &buf);
// present
Read(&present, &buf);
// pad0
Pad(&buf, 19);
Align(&buf, 4);
DCHECK_EQ(buf.offset < 32 ? 0 : buf.offset - 32, 4 * length);
return reply;
}
Future<Input::ListInputDevicesReply> Input::ListInputDevices(
const Input::ListInputDevicesRequest& request) {
if (!connection_->Ready() || !present())
return {};
WriteBuffer buf;
// major_opcode
uint8_t major_opcode = info_.major_opcode;
buf.Write(&major_opcode);
// minor_opcode
uint8_t minor_opcode = 2;
buf.Write(&minor_opcode);
// length
// Caller fills in length for writes.
Pad(&buf, sizeof(uint16_t));
Align(&buf, 4);
return connection_->SendRequest<Input::ListInputDevicesReply>(
&buf, "Input::ListInputDevices", false);
}
Future<Input::ListInputDevicesReply> Input::ListInputDevices() {
return Input::ListInputDevices(Input::ListInputDevicesRequest{});
}
template <>
COMPONENT_EXPORT(X11)
std::unique_ptr<Input::ListInputDevicesReply> detail::ReadReply<
Input::ListInputDevicesReply>(ReadBuffer* buffer) {
auto& buf = *buffer;
auto reply = std::make_unique<Input::ListInputDevicesReply>();
auto& xi_reply_type = (*reply).xi_reply_type;
auto& sequence = (*reply).sequence;
uint8_t devices_len{};
auto& devices = (*reply).devices;
auto& infos = (*reply).infos;
size_t infos_len = infos.size();
auto& names = (*reply).names;
size_t names_len = names.size();
// response_type
uint8_t response_type;
Read(&response_type, &buf);
// xi_reply_type
Read(&xi_reply_type, &buf);
// sequence
Read(&sequence, &buf);
// length
uint32_t length;
Read(&length, &buf);
// devices_len
Read(&devices_len, &buf);
// pad0
Pad(&buf, 23);
// devices
devices.resize(devices_len);
for (auto& devices_elem : devices) {
// devices_elem
{
auto& device_type = devices_elem.device_type;
auto& device_id = devices_elem.device_id;
auto& num_class_info = devices_elem.num_class_info;
auto& device_use = devices_elem.device_use;
// device_type
Read(&device_type, &buf);
// device_id
Read(&device_id, &buf);
// num_class_info
Read(&num_class_info, &buf);
// device_use
uint8_t tmp27;
Read(&tmp27, &buf);
device_use = static_cast<Input::DeviceUse>(tmp27);
// pad0
Pad(&buf, 1);
}
}
// infos
auto sum28_ = SumOf(
[](auto& listelem_ref) {
auto& device_type = listelem_ref.device_type;
auto& device_id = listelem_ref.device_id;
auto& num_class_info = listelem_ref.num_class_info;
auto& device_use = listelem_ref.device_use;
return num_class_info;
},
devices);
infos.resize(sum28_);
for (auto& infos_elem : infos) {
// infos_elem
{
Input::InputClass class_id{};
auto& len = infos_elem.len;
auto& info = infos_elem;
// class_id
uint8_t tmp29;
Read(&tmp29, &buf);
class_id = static_cast<Input::InputClass>(tmp29);
// len
Read(&len, &buf);
// info
auto info_expr = class_id;
if (CaseEq(info_expr, Input::InputClass::Key)) {
info.key.emplace();
auto& min_keycode = (*info.key).min_keycode;
auto& max_keycode = (*info.key).max_keycode;
auto& num_keys = (*info.key).num_keys;
// min_keycode
Read(&min_keycode, &buf);
// max_keycode
Read(&max_keycode, &buf);
// num_keys
Read(&num_keys, &buf);
// pad0
Pad(&buf, 2);
}
if (CaseEq(info_expr, Input::InputClass::Button)) {
info.button.emplace();
auto& num_buttons = (*info.button).num_buttons;
// num_buttons
Read(&num_buttons, &buf);
}
if (CaseEq(info_expr, Input::InputClass::Valuator)) {
info.valuator.emplace();
uint8_t axes_len{};
auto& mode = (*info.valuator).mode;
auto& motion_size = (*info.valuator).motion_size;
auto& axes = (*info.valuator).axes;
// axes_len
Read(&axes_len, &buf);
// mode
uint8_t tmp30;
Read(&tmp30, &buf);
mode = static_cast<Input::ValuatorMode>(tmp30);
// motion_size
Read(&motion_size, &buf);
// axes
axes.resize(axes_len);
for (auto& axes_elem : axes) {
// axes_elem
{
auto& resolution = axes_elem.resolution;
auto& minimum = axes_elem.minimum;
auto& maximum = axes_elem.maximum;
// resolution
Read(&resolution, &buf);
// minimum
Read(&minimum, &buf);
// maximum
Read(&maximum, &buf);
}
}
}
}
}
// names
names.resize(devices_len);
for (auto& names_elem : names) {
// names_elem
{
uint8_t name_len{};
auto& name = names_elem.name;
// name_len
Read(&name_len, &buf);
// name
name.resize(name_len);
for (auto& name_elem : name) {
// name_elem
Read(&name_elem, &buf);
}
}
}
// pad1
Pad(&buf, 1);
Align(&buf, 4);
DCHECK_EQ(buf.offset < 32 ? 0 : buf.offset - 32, 4 * length);
return reply;
}
Future<Input::OpenDeviceReply> Input::OpenDevice(
const Input::OpenDeviceRequest& request) {
if (!connection_->Ready() || !present())
return {};
WriteBuffer buf;
auto& device_id = request.device_id;
// major_opcode
uint8_t major_opcode = info_.major_opcode;
buf.Write(&major_opcode);
// minor_opcode
uint8_t minor_opcode = 3;
buf.Write(&minor_opcode);
// length
// Caller fills in length for writes.
Pad(&buf, sizeof(uint16_t));
// device_id
buf.Write(&device_id);
// pad0
Pad(&buf, 3);
Align(&buf, 4);
return connection_->SendRequest<Input::OpenDeviceReply>(
&buf, "Input::OpenDevice", false);
}
Future<Input::OpenDeviceReply> Input::OpenDevice(const uint8_t& device_id) {
return Input::OpenDevice(Input::OpenDeviceRequest{device_id});
}
template <>
COMPONENT_EXPORT(X11)
std::unique_ptr<Input::OpenDeviceReply> detail::ReadReply<
Input::OpenDeviceReply>(ReadBuffer* buffer) {
auto& buf = *buffer;
auto reply = std::make_unique<Input::OpenDeviceReply>();
auto& xi_reply_type = (*reply).xi_reply_type;
auto& sequence = (*reply).sequence;
uint8_t num_classes{};
auto& class_info = (*reply).class_info;
size_t class_info_len = class_info.size();
// response_type
uint8_t response_type;
Read(&response_type, &buf);
// xi_reply_type
Read(&xi_reply_type, &buf);
// sequence
Read(&sequence, &buf);
// length
uint32_t length;
Read(&length, &buf);
// num_classes
Read(&num_classes, &buf);
// pad0
Pad(&buf, 23);
// class_info
class_info.resize(num_classes);
for (auto& class_info_elem : class_info) {
// class_info_elem
{
auto& class_id = class_info_elem.class_id;
auto& event_type_base = class_info_elem.event_type_base;
// class_id
uint8_t tmp31;
Read(&tmp31, &buf);
class_id = static_cast<Input::InputClass>(tmp31);
// event_type_base
Read(&event_type_base, &buf);
}
}
// pad1
Align(&buf, 4);
Align(&buf, 4);
DCHECK_EQ(buf.offset < 32 ? 0 : buf.offset - 32, 4 * length);
return reply;
}
Future<void> Input::CloseDevice(const Input::CloseDeviceRequest& request) {
if (!connection_->Ready() || !present())
return {};
WriteBuffer buf;
auto& device_id = request.device_id;
// major_opcode
uint8_t major_opcode = info_.major_opcode;
buf.Write(&major_opcode);
// minor_opcode
uint8_t minor_opcode = 4;
buf.Write(&minor_opcode);
// length
// Caller fills in length for writes.
Pad(&buf, sizeof(uint16_t));
// device_id
buf.Write(&device_id);
// pad0
Pad(&buf, 3);
Align(&buf, 4);
return connection_->SendRequest<void>(&buf, "Input::CloseDevice", false);
}
Future<void> Input::CloseDevice(const uint8_t& device_id) {
return Input::CloseDevice(Input::CloseDeviceRequest{device_id});
}
Future<Input::SetDeviceModeReply> Input::SetDeviceMode(
const Input::SetDeviceModeRequest& request) {
if (!connection_->Ready() || !present())
return {};
WriteBuffer buf;
auto& device_id = request.device_id;
auto& mode = request.mode;
// major_opcode
uint8_t major_opcode = info_.major_opcode;
buf.Write(&major_opcode);
// minor_opcode
uint8_t minor_opcode = 5;
buf.Write(&minor_opcode);
// length
// Caller fills in length for writes.
Pad(&buf, sizeof(uint16_t));
// device_id
buf.Write(&device_id);
// mode
uint8_t tmp32;
tmp32 = static_cast<uint8_t>(mode);
buf.Write(&tmp32);
// pad0
Pad(&buf, 2);
Align(&buf, 4);
return connection_->SendRequest<Input::SetDeviceModeReply>(
&buf, "Input::SetDeviceMode", false);
}
Future<Input::SetDeviceModeReply> Input::SetDeviceMode(
const uint8_t& device_id,
const ValuatorMode& mode) {
return Input::SetDeviceMode(Input::SetDeviceModeRequest{device_id, mode});
}
template <>
COMPONENT_EXPORT(X11)
std::unique_ptr<Input::SetDeviceModeReply> detail::ReadReply<
Input::SetDeviceModeReply>(ReadBuffer* buffer) {
auto& buf = *buffer;
auto reply = std::make_unique<Input::SetDeviceModeReply>();
auto& xi_reply_type = (*reply).xi_reply_type;
auto& sequence = (*reply).sequence;
auto& status = (*reply).status;
// response_type
uint8_t response_type;
Read(&response_type, &buf);
// xi_reply_type
Read(&xi_reply_type, &buf);
// sequence
Read(&sequence, &buf);
// length
uint32_t length;
Read(&length, &buf);
// status
uint8_t tmp33;
Read(&tmp33, &buf);
status = static_cast<GrabStatus>(tmp33);
// pad0
Pad(&buf, 23);
Align(&buf, 4);
DCHECK_EQ(buf.offset < 32 ? 0 : buf.offset - 32, 4 * length);
return reply;
}
Future<void> Input::SelectExtensionEvent(
const Input::SelectExtensionEventRequest& request) {
if (!connection_->Ready() || !present())
return {};
WriteBuffer buf;
auto& window = request.window;
uint16_t num_classes{};
auto& classes = request.classes;
size_t classes_len = classes.size();
// major_opcode
uint8_t major_opcode = info_.major_opcode;
buf.Write(&major_opcode);
// minor_opcode
uint8_t minor_opcode = 6;
buf.Write(&minor_opcode);
// length
// Caller fills in length for writes.
Pad(&buf, sizeof(uint16_t));
// window
buf.Write(&window);
// num_classes
num_classes = classes.size();
buf.Write(&num_classes);
// pad0
Pad(&buf, 2);
// classes
DCHECK_EQ(static_cast<size_t>(num_classes), classes.size());
for (auto& classes_elem : classes) {
// classes_elem
buf.Write(&classes_elem);
}
Align(&buf, 4);
return connection_->SendRequest<void>(&buf, "Input::SelectExtensionEvent",
false);
}
Future<void> Input::SelectExtensionEvent(
const Window& window,
const std::vector<EventClass>& classes) {
return Input::SelectExtensionEvent(
Input::SelectExtensionEventRequest{window, classes});
}
Future<Input::GetSelectedExtensionEventsReply>
Input::GetSelectedExtensionEvents(
const Input::GetSelectedExtensionEventsRequest& request) {
if (!connection_->Ready() || !present())
return {};
WriteBuffer buf;
auto& window = request.window;
// major_opcode
uint8_t major_opcode = info_.major_opcode;
buf.Write(&major_opcode);
// minor_opcode
uint8_t minor_opcode = 7;
buf.Write(&minor_opcode);
// length
// Caller fills in length for writes.
Pad(&buf, sizeof(uint16_t));
// window
buf.Write(&window);
Align(&buf, 4);
return connection_->SendRequest<Input::GetSelectedExtensionEventsReply>(
&buf, "Input::GetSelectedExtensionEvents", false);
}
Future<Input::GetSelectedExtensionEventsReply>
Input::GetSelectedExtensionEvents(const Window& window) {
return Input::GetSelectedExtensionEvents(
Input::GetSelectedExtensionEventsRequest{window});
}
template <>
COMPONENT_EXPORT(X11)
std::unique_ptr<Input::GetSelectedExtensionEventsReply> detail::ReadReply<
Input::GetSelectedExtensionEventsReply>(ReadBuffer* buffer) {
auto& buf = *buffer;
auto reply = std::make_unique<Input::GetSelectedExtensionEventsReply>();
auto& xi_reply_type = (*reply).xi_reply_type;
auto& sequence = (*reply).sequence;
uint16_t num_this_classes{};
uint16_t num_all_classes{};
auto& this_classes = (*reply).this_classes;
size_t this_classes_len = this_classes.size();
auto& all_classes = (*reply).all_classes;
size_t all_classes_len = all_classes.size();
// response_type
uint8_t response_type;
Read(&response_type, &buf);
// xi_reply_type
Read(&xi_reply_type, &buf);
// sequence
Read(&sequence, &buf);
// length
uint32_t length;
Read(&length, &buf);
// num_this_classes
Read(&num_this_classes, &buf);
// num_all_classes
Read(&num_all_classes, &buf);
// pad0
Pad(&buf, 20);
// this_classes
this_classes.resize(num_this_classes);
for (auto& this_classes_elem : this_classes) {
// this_classes_elem
Read(&this_classes_elem, &buf);
}
// all_classes
all_classes.resize(num_all_classes);
for (auto& all_classes_elem : all_classes) {
// all_classes_elem
Read(&all_classes_elem, &buf);
}
Align(&buf, 4);
DCHECK_EQ(buf.offset < 32 ? 0 : buf.offset - 32, 4 * length);
return reply;
}
Future<void> Input::ChangeDeviceDontPropagateList(
const Input::ChangeDeviceDontPropagateListRequest& request) {
if (!connection_->Ready() || !present())
return {};
WriteBuffer buf;
auto& window = request.window;
uint16_t num_classes{};
auto& mode = request.mode;
auto& classes = request.classes;
size_t classes_len = classes.size();
// major_opcode
uint8_t major_opcode = info_.major_opcode;
buf.Write(&major_opcode);
// minor_opcode
uint8_t minor_opcode = 8;
buf.Write(&minor_opcode);
// length
// Caller fills in length for writes.
Pad(&buf, sizeof(uint16_t));
// window
buf.Write(&window);
// num_classes
num_classes = classes.size();
buf.Write(&num_classes);
// mode
uint8_t tmp34;
tmp34 = static_cast<uint8_t>(mode);
buf.Write(&tmp34);
// pad0
Pad(&buf, 1);
// classes
DCHECK_EQ(static_cast<size_t>(num_classes), classes.size());
for (auto& classes_elem : classes) {
// classes_elem
buf.Write(&classes_elem);
}
Align(&buf, 4);
return connection_->SendRequest<void>(
&buf, "Input::ChangeDeviceDontPropagateList", false);
}
Future<void> Input::ChangeDeviceDontPropagateList(
const Window& window,
const PropagateMode& mode,
const std::vector<EventClass>& classes) {
return Input::ChangeDeviceDontPropagateList(
Input::ChangeDeviceDontPropagateListRequest{window, mode, classes});
}
Future<Input::GetDeviceDontPropagateListReply>
Input::GetDeviceDontPropagateList(
const Input::GetDeviceDontPropagateListRequest& request) {
if (!connection_->Ready() || !present())
return {};
WriteBuffer buf;
auto& window = request.window;
// major_opcode
uint8_t major_opcode = info_.major_opcode;
buf.Write(&major_opcode);
// minor_opcode
uint8_t minor_opcode = 9;
buf.Write(&minor_opcode);
// length
// Caller fills in length for writes.
Pad(&buf, sizeof(uint16_t));
// window
buf.Write(&window);
Align(&buf, 4);
return connection_->SendRequest<Input::GetDeviceDontPropagateListReply>(
&buf, "Input::GetDeviceDontPropagateList", false);
}
Future<Input::GetDeviceDontPropagateListReply>
Input::GetDeviceDontPropagateList(const Window& window) {
return Input::GetDeviceDontPropagateList(
Input::GetDeviceDontPropagateListRequest{window});
}
template <>
COMPONENT_EXPORT(X11)
std::unique_ptr<Input::GetDeviceDontPropagateListReply> detail::ReadReply<
Input::GetDeviceDontPropagateListReply>(ReadBuffer* buffer) {
auto& buf = *buffer;
auto reply = std::make_unique<Input::GetDeviceDontPropagateListReply>();
auto& xi_reply_type = (*reply).xi_reply_type;
auto& sequence = (*reply).sequence;
uint16_t num_classes{};
auto& classes = (*reply).classes;
size_t classes_len = classes.size();
// response_type
uint8_t response_type;
Read(&response_type, &buf);
// xi_reply_type
Read(&xi_reply_type, &buf);
// sequence
Read(&sequence, &buf);
// length
uint32_t length;
Read(&length, &buf);
// num_classes
Read(&num_classes, &buf);
// pad0
Pad(&buf, 22);
// classes
classes.resize(num_classes);
for (auto& classes_elem : classes) {
// classes_elem
Read(&classes_elem, &buf);
}
Align(&buf, 4);
DCHECK_EQ(buf.offset < 32 ? 0 : buf.offset - 32, 4 * length);
return reply;
}
Future<Input::GetDeviceMotionEventsReply> Input::GetDeviceMotionEvents(
const Input::GetDeviceMotionEventsRequest& request) {
if (!connection_->Ready() || !present())
return {};
WriteBuffer buf;
auto& start = request.start;
auto& stop = request.stop;
auto& device_id = request.device_id;
// major_opcode
uint8_t major_opcode = info_.major_opcode;
buf.Write(&major_opcode);
// minor_opcode
uint8_t minor_opcode = 10;
buf.Write(&minor_opcode);
// length
// Caller fills in length for writes.
Pad(&buf, sizeof(uint16_t));
// start
buf.Write(&start);
// stop
buf.Write(&stop);
// device_id
buf.Write(&device_id);
// pad0
Pad(&buf, 3);
Align(&buf, 4);
return connection_->SendRequest<Input::GetDeviceMotionEventsReply>(
&buf, "Input::GetDeviceMotionEvents", false);
}
Future<Input::GetDeviceMotionEventsReply> Input::GetDeviceMotionEvents(
const Time& start,
const Time& stop,
const uint8_t& device_id) {
return Input::GetDeviceMotionEvents(
Input::GetDeviceMotionEventsRequest{start, stop, device_id});
}
template <>
COMPONENT_EXPORT(X11)
std::unique_ptr<Input::GetDeviceMotionEventsReply> detail::ReadReply<
Input::GetDeviceMotionEventsReply>(ReadBuffer* buffer) {
auto& buf = *buffer;
auto reply = std::make_unique<Input::GetDeviceMotionEventsReply>();
auto& xi_reply_type = (*reply).xi_reply_type;
auto& sequence = (*reply).sequence;
uint32_t num_events{};
auto& num_axes = (*reply).num_axes;
auto& device_mode = (*reply).device_mode;
auto& events = (*reply).events;
size_t events_len = events.size();
// response_type
uint8_t response_type;
Read(&response_type, &buf);
// xi_reply_type
Read(&xi_reply_type, &buf);
// sequence
Read(&sequence, &buf);
// length
uint32_t length;
Read(&length, &buf);
// num_events
Read(&num_events, &buf);
// num_axes
Read(&num_axes, &buf);
// device_mode
uint8_t tmp35;
Read(&tmp35, &buf);
device_mode = static_cast<Input::ValuatorMode>(tmp35);
// pad0
Pad(&buf, 18);
// events
events.resize(num_events);
for (auto& events_elem : events) {
// events_elem
{
auto& time = events_elem.time;
auto& axisvalues = events_elem.axisvalues;
size_t axisvalues_len = axisvalues.size();
// time
Read(&time, &buf);
// axisvalues
axisvalues.resize(num_axes);
for (auto& axisvalues_elem : axisvalues) {
// axisvalues_elem
Read(&axisvalues_elem, &buf);
}
}
}
Align(&buf, 4);
DCHECK_EQ(buf.offset < 32 ? 0 : buf.offset - 32, 4 * length);
return reply;
}
Future<Input::ChangeKeyboardDeviceReply> Input::ChangeKeyboardDevice(
const Input::ChangeKeyboardDeviceRequest& request) {
if (!connection_->Ready() || !present())
return {};
WriteBuffer buf;
auto& device_id = request.device_id;
// major_opcode
uint8_t major_opcode = info_.major_opcode;
buf.Write(&major_opcode);
// minor_opcode
uint8_t minor_opcode = 11;
buf.Write(&minor_opcode);
// length
// Caller fills in length for writes.
Pad(&buf, sizeof(uint16_t));
// device_id
buf.Write(&device_id);
// pad0
Pad(&buf, 3);
Align(&buf, 4);
return connection_->SendRequest<Input::ChangeKeyboardDeviceReply>(
&buf, "Input::ChangeKeyboardDevice", false);
}
Future<Input::ChangeKeyboardDeviceReply> Input::ChangeKeyboardDevice(
const uint8_t& device_id) {
return Input::ChangeKeyboardDevice(
Input::ChangeKeyboardDeviceRequest{device_id});
}
template <>
COMPONENT_EXPORT(X11)
std::unique_ptr<Input::ChangeKeyboardDeviceReply> detail::ReadReply<
Input::ChangeKeyboardDeviceReply>(ReadBuffer* buffer) {
auto& buf = *buffer;
auto reply = std::make_unique<Input::ChangeKeyboardDeviceReply>();
auto& xi_reply_type = (*reply).xi_reply_type;
auto& sequence = (*reply).sequence;
auto& status = (*reply).status;
// response_type
uint8_t response_type;
Read(&response_type, &buf);
// xi_reply_type
Read(&xi_reply_type, &buf);
// sequence
Read(&sequence, &buf);
// length
uint32_t length;
Read(&length, &buf);
// status
uint8_t tmp36;
Read(&tmp36, &buf);
status = static_cast<GrabStatus>(tmp36);
// pad0
Pad(&buf, 23);
Align(&buf, 4);
DCHECK_EQ(buf.offset < 32 ? 0 : buf.offset - 32, 4 * length);
return reply;
}
Future<Input::ChangePointerDeviceReply> Input::ChangePointerDevice(
const Input::ChangePointerDeviceRequest& request) {
if (!connection_->Ready() || !present())
return {};
WriteBuffer buf;
auto& x_axis = request.x_axis;
auto& y_axis = request.y_axis;
auto& device_id = request.device_id;
// major_opcode
uint8_t major_opcode = info_.major_opcode;
buf.Write(&major_opcode);
// minor_opcode
uint8_t minor_opcode = 12;
buf.Write(&minor_opcode);
// length
// Caller fills in length for writes.
Pad(&buf, sizeof(uint16_t));
// x_axis
buf.Write(&x_axis);
// y_axis
buf.Write(&y_axis);
// device_id
buf.Write(&device_id);
// pad0
Pad(&buf, 1);
Align(&buf, 4);
return connection_->SendRequest<Input::ChangePointerDeviceReply>(
&buf, "Input::ChangePointerDevice", false);
}
Future<Input::ChangePointerDeviceReply> Input::ChangePointerDevice(
const uint8_t& x_axis,
const uint8_t& y_axis,
const uint8_t& device_id) {
return Input::ChangePointerDevice(
Input::ChangePointerDeviceRequest{x_axis, y_axis, device_id});
}
template <>
COMPONENT_EXPORT(X11)
std::unique_ptr<Input::ChangePointerDeviceReply> detail::ReadReply<
Input::ChangePointerDeviceReply>(ReadBuffer* buffer) {
auto& buf = *buffer;
auto reply = std::make_unique<Input::ChangePointerDeviceReply>();
auto& xi_reply_type = (*reply).xi_reply_type;
auto& sequence = (*reply).sequence;
auto& status = (*reply).status;
// response_type
uint8_t response_type;
Read(&response_type, &buf);
// xi_reply_type
Read(&xi_reply_type, &buf);
// sequence
Read(&sequence, &buf);
// length
uint32_t length;
Read(&length, &buf);
// status
uint8_t tmp37;
Read(&tmp37, &buf);
status = static_cast<GrabStatus>(tmp37);
// pad0
Pad(&buf, 23);
Align(&buf, 4);
DCHECK_EQ(buf.offset < 32 ? 0 : buf.offset - 32, 4 * length);
return reply;
}
Future<Input::GrabDeviceReply> Input::GrabDevice(
const Input::GrabDeviceRequest& request) {
if (!connection_->Ready() || !present())
return {};
WriteBuffer buf;
auto& grab_window = request.grab_window;
auto& time = request.time;
uint16_t num_classes{};
auto& this_device_mode = request.this_device_mode;
auto& other_device_mode = request.other_device_mode;
auto& owner_events = request.owner_events;
auto& device_id = request.device_id;
auto& classes = request.classes;
size_t classes_len = classes.size();
// major_opcode
uint8_t major_opcode = info_.major_opcode;
buf.Write(&major_opcode);
// minor_opcode
uint8_t minor_opcode = 13;
buf.Write(&minor_opcode);
// length
// Caller fills in length for writes.
Pad(&buf, sizeof(uint16_t));
// grab_window
buf.Write(&grab_window);
// time
buf.Write(&time);
// num_classes
num_classes = classes.size();
buf.Write(&num_classes);
// this_device_mode
uint8_t tmp38;
tmp38 = static_cast<uint8_t>(this_device_mode);
buf.Write(&tmp38);
// other_device_mode
uint8_t tmp39;
tmp39 = static_cast<uint8_t>(other_device_mode);
buf.Write(&tmp39);
// owner_events
buf.Write(&owner_events);
// device_id
buf.Write(&device_id);
// pad0
Pad(&buf, 2);
// classes
DCHECK_EQ(static_cast<size_t>(num_classes), classes.size());
for (auto& classes_elem : classes) {
// classes_elem
buf.Write(&classes_elem);
}
Align(&buf, 4);
return connection_->SendRequest<Input::GrabDeviceReply>(
&buf, "Input::GrabDevice", false);
}
Future<Input::GrabDeviceReply> Input::GrabDevice(
const Window& grab_window,
const Time& time,
const GrabMode& this_device_mode,
const GrabMode& other_device_mode,
const uint8_t& owner_events,
const uint8_t& device_id,
const std::vector<EventClass>& classes) {
return Input::GrabDevice(Input::GrabDeviceRequest{
grab_window, time, this_device_mode, other_device_mode, owner_events,
device_id, classes});
}
template <>
COMPONENT_EXPORT(X11)
std::unique_ptr<Input::GrabDeviceReply> detail::ReadReply<
Input::GrabDeviceReply>(ReadBuffer* buffer) {
auto& buf = *buffer;
auto reply = std::make_unique<Input::GrabDeviceReply>();
auto& xi_reply_type = (*reply).xi_reply_type;
auto& sequence = (*reply).sequence;
auto& status = (*reply).status;
// response_type
uint8_t response_type;
Read(&response_type, &buf);
// xi_reply_type
Read(&xi_reply_type, &buf);
// sequence
Read(&sequence, &buf);
// length
uint32_t length;
Read(&length, &buf);
// status
uint8_t tmp40;
Read(&tmp40, &buf);
status = static_cast<GrabStatus>(tmp40);
// pad0
Pad(&buf, 23);
Align(&buf, 4);
DCHECK_EQ(buf.offset < 32 ? 0 : buf.offset - 32, 4 * length);
return reply;
}
Future<void> Input::UngrabDevice(const Input::UngrabDeviceRequest& request) {
if (!connection_->Ready() || !present())
return {};
WriteBuffer buf;
auto& time = request.time;
auto& device_id = request.device_id;
// major_opcode
uint8_t major_opcode = info_.major_opcode;
buf.Write(&major_opcode);
// minor_opcode
uint8_t minor_opcode = 14;
buf.Write(&minor_opcode);
// length
// Caller fills in length for writes.
Pad(&buf, sizeof(uint16_t));
// time
buf.Write(&time);
// device_id
buf.Write(&device_id);
// pad0
Pad(&buf, 3);
Align(&buf, 4);
return connection_->SendRequest<void>(&buf, "Input::UngrabDevice", false);
}
Future<void> Input::UngrabDevice(const Time& time, const uint8_t& device_id) {
return Input::UngrabDevice(Input::UngrabDeviceRequest{time, device_id});
}
Future<void> Input::GrabDeviceKey(const Input::GrabDeviceKeyRequest& request) {
if (!connection_->Ready() || !present())
return {};
WriteBuffer buf;
auto& grab_window = request.grab_window;
uint16_t num_classes{};
auto& modifiers = request.modifiers;
auto& modifier_device = request.modifier_device;
auto& grabbed_device = request.grabbed_device;
auto& key = request.key;
auto& this_device_mode = request.this_device_mode;
auto& other_device_mode = request.other_device_mode;
auto& owner_events = request.owner_events;
auto& classes = request.classes;
size_t classes_len = classes.size();
// major_opcode
uint8_t major_opcode = info_.major_opcode;
buf.Write(&major_opcode);
// minor_opcode
uint8_t minor_opcode = 15;
buf.Write(&minor_opcode);
// length
// Caller fills in length for writes.
Pad(&buf, sizeof(uint16_t));
// grab_window
buf.Write(&grab_window);
// num_classes
num_classes = classes.size();
buf.Write(&num_classes);
// modifiers
uint16_t tmp41;
tmp41 = static_cast<uint16_t>(modifiers);
buf.Write(&tmp41);
// modifier_device
buf.Write(&modifier_device);
// grabbed_device
buf.Write(&grabbed_device);
// key
buf.Write(&key);
// this_device_mode
uint8_t tmp42;
tmp42 = static_cast<uint8_t>(this_device_mode);
buf.Write(&tmp42);
// other_device_mode
uint8_t tmp43;
tmp43 = static_cast<uint8_t>(other_device_mode);
buf.Write(&tmp43);
// owner_events
buf.Write(&owner_events);
// pad0
Pad(&buf, 2);
// classes
DCHECK_EQ(static_cast<size_t>(num_classes), classes.size());
for (auto& classes_elem : classes) {
// classes_elem
buf.Write(&classes_elem);
}
Align(&buf, 4);
return connection_->SendRequest<void>(&buf, "Input::GrabDeviceKey", false);
}
Future<void> Input::GrabDeviceKey(const Window& grab_window,
const ModMask& modifiers,
const uint8_t& modifier_device,
const uint8_t& grabbed_device,
const uint8_t& key,
const GrabMode& this_device_mode,
const GrabMode& other_device_mode,
const uint8_t& owner_events,
const std::vector<EventClass>& classes) {
return Input::GrabDeviceKey(Input::GrabDeviceKeyRequest{
grab_window, modifiers, modifier_device, grabbed_device, key,
this_device_mode, other_device_mode, owner_events, classes});
}
Future<void> Input::UngrabDeviceKey(
const Input::UngrabDeviceKeyRequest& request) {
if (!connection_->Ready() || !present())
return {};
WriteBuffer buf;
auto& grabWindow = request.grabWindow;
auto& modifiers = request.modifiers;
auto& modifier_device = request.modifier_device;
auto& key = request.key;
auto& grabbed_device = request.grabbed_device;
// major_opcode
uint8_t major_opcode = info_.major_opcode;
buf.Write(&major_opcode);
// minor_opcode
uint8_t minor_opcode = 16;
buf.Write(&minor_opcode);
// length
// Caller fills in length for writes.
Pad(&buf, sizeof(uint16_t));
// grabWindow
buf.Write(&grabWindow);
// modifiers
uint16_t tmp44;
tmp44 = static_cast<uint16_t>(modifiers);
buf.Write(&tmp44);
// modifier_device
buf.Write(&modifier_device);
// key
buf.Write(&key);
// grabbed_device
buf.Write(&grabbed_device);
Align(&buf, 4);
return connection_->SendRequest<void>(&buf, "Input::UngrabDeviceKey", false);
}
Future<void> Input::UngrabDeviceKey(const Window& grabWindow,
const ModMask& modifiers,
const uint8_t& modifier_device,
const uint8_t& key,
const uint8_t& grabbed_device) {
return Input::UngrabDeviceKey(Input::UngrabDeviceKeyRequest{
grabWindow, modifiers, modifier_device, key, grabbed_device});
}
Future<void> Input::GrabDeviceButton(
const Input::GrabDeviceButtonRequest& request) {
if (!connection_->Ready() || !present())
return {};
WriteBuffer buf;
auto& grab_window = request.grab_window;
auto& grabbed_device = request.grabbed_device;
auto& modifier_device = request.modifier_device;
uint16_t num_classes{};
auto& modifiers = request.modifiers;
auto& this_device_mode = request.this_device_mode;
auto& other_device_mode = request.other_device_mode;
auto& button = request.button;
auto& owner_events = request.owner_events;
auto& classes = request.classes;
size_t classes_len = classes.size();
// major_opcode
uint8_t major_opcode = info_.major_opcode;
buf.Write(&major_opcode);
// minor_opcode
uint8_t minor_opcode = 17;
buf.Write(&minor_opcode);
// length
// Caller fills in length for writes.
Pad(&buf, sizeof(uint16_t));
// grab_window
buf.Write(&grab_window);
// grabbed_device
buf.Write(&grabbed_device);
// modifier_device
buf.Write(&modifier_device);
// num_classes
num_classes = classes.size();
buf.Write(&num_classes);
// modifiers
uint16_t tmp45;
tmp45 = static_cast<uint16_t>(modifiers);
buf.Write(&tmp45);
// this_device_mode
uint8_t tmp46;
tmp46 = static_cast<uint8_t>(this_device_mode);
buf.Write(&tmp46);
// other_device_mode
uint8_t tmp47;
tmp47 = static_cast<uint8_t>(other_device_mode);
buf.Write(&tmp47);
// button
buf.Write(&button);
// owner_events
buf.Write(&owner_events);
// pad0
Pad(&buf, 2);
// classes
DCHECK_EQ(static_cast<size_t>(num_classes), classes.size());
for (auto& classes_elem : classes) {
// classes_elem
buf.Write(&classes_elem);
}
Align(&buf, 4);
return connection_->SendRequest<void>(&buf, "Input::GrabDeviceButton", false);
}
Future<void> Input::GrabDeviceButton(const Window& grab_window,
const uint8_t& grabbed_device,
const uint8_t& modifier_device,
const ModMask& modifiers,
const GrabMode& this_device_mode,
const GrabMode& other_device_mode,
const uint8_t& button,
const uint8_t& owner_events,
const std::vector<EventClass>& classes) {
return Input::GrabDeviceButton(Input::GrabDeviceButtonRequest{
grab_window, grabbed_device, modifier_device, modifiers, this_device_mode,
other_device_mode, button, owner_events, classes});
}
Future<void> Input::UngrabDeviceButton(
const Input::UngrabDeviceButtonRequest& request) {
if (!connection_->Ready() || !present())
return {};
WriteBuffer buf;
auto& grab_window = request.grab_window;
auto& modifiers = request.modifiers;
auto& modifier_device = request.modifier_device;
auto& button = request.button;
auto& grabbed_device = request.grabbed_device;
// major_opcode
uint8_t major_opcode = info_.major_opcode;
buf.Write(&major_opcode);
// minor_opcode
uint8_t minor_opcode = 18;
buf.Write(&minor_opcode);
// length
// Caller fills in length for writes.
Pad(&buf, sizeof(uint16_t));
// grab_window
buf.Write(&grab_window);
// modifiers
uint16_t tmp48;
tmp48 = static_cast<uint16_t>(modifiers);
buf.Write(&tmp48);
// modifier_device
buf.Write(&modifier_device);
// button
buf.Write(&button);
// grabbed_device
buf.Write(&grabbed_device);
// pad0
Pad(&buf, 3);
Align(&buf, 4);
return connection_->SendRequest<void>(&buf, "Input::UngrabDeviceButton",
false);
}
Future<void> Input::UngrabDeviceButton(const Window& grab_window,
const ModMask& modifiers,
const uint8_t& modifier_device,
const uint8_t& button,
const uint8_t& grabbed_device) {
return Input::UngrabDeviceButton(Input::UngrabDeviceButtonRequest{
grab_window, modifiers, modifier_device, button, grabbed_device});
}
Future<void> Input::AllowDeviceEvents(
const Input::AllowDeviceEventsRequest& request) {
if (!connection_->Ready() || !present())
return {};
WriteBuffer buf;
auto& time = request.time;
auto& mode = request.mode;
auto& device_id = request.device_id;
// major_opcode
uint8_t major_opcode = info_.major_opcode;
buf.Write(&major_opcode);
// minor_opcode
uint8_t minor_opcode = 19;
buf.Write(&minor_opcode);
// length
// Caller fills in length for writes.
Pad(&buf, sizeof(uint16_t));
// time
buf.Write(&time);
// mode
uint8_t tmp49;
tmp49 = static_cast<uint8_t>(mode);
buf.Write(&tmp49);
// device_id
buf.Write(&device_id);
// pad0
Pad(&buf, 2);
Align(&buf, 4);
return connection_->SendRequest<void>(&buf, "Input::AllowDeviceEvents",
false);
}
Future<void> Input::AllowDeviceEvents(const Time& time,
const DeviceInputMode& mode,
const uint8_t& device_id) {
return Input::AllowDeviceEvents(
Input::AllowDeviceEventsRequest{time, mode, device_id});
}
Future<Input::GetDeviceFocusReply> Input::GetDeviceFocus(
const Input::GetDeviceFocusRequest& request) {
if (!connection_->Ready() || !present())
return {};
WriteBuffer buf;
auto& device_id = request.device_id;
// major_opcode
uint8_t major_opcode = info_.major_opcode;
buf.Write(&major_opcode);
// minor_opcode
uint8_t minor_opcode = 20;
buf.Write(&minor_opcode);
// length
// Caller fills in length for writes.
Pad(&buf, sizeof(uint16_t));
// device_id
buf.Write(&device_id);
// pad0
Pad(&buf, 3);
Align(&buf, 4);
return connection_->SendRequest<Input::GetDeviceFocusReply>(
&buf, "Input::GetDeviceFocus", false);
}
Future<Input::GetDeviceFocusReply> Input::GetDeviceFocus(
const uint8_t& device_id) {
return Input::GetDeviceFocus(Input::GetDeviceFocusRequest{device_id});
}
template <>
COMPONENT_EXPORT(X11)
std::unique_ptr<Input::GetDeviceFocusReply> detail::ReadReply<
Input::GetDeviceFocusReply>(ReadBuffer* buffer) {
auto& buf = *buffer;
auto reply = std::make_unique<Input::GetDeviceFocusReply>();
auto& xi_reply_type = (*reply).xi_reply_type;
auto& sequence = (*reply).sequence;
auto& focus = (*reply).focus;
auto& time = (*reply).time;
auto& revert_to = (*reply).revert_to;
// response_type
uint8_t response_type;
Read(&response_type, &buf);
// xi_reply_type
Read(&xi_reply_type, &buf);
// sequence
Read(&sequence, &buf);
// length
uint32_t length;
Read(&length, &buf);
// focus
Read(&focus, &buf);
// time
Read(&time, &buf);
// revert_to
uint8_t tmp50;
Read(&tmp50, &buf);
revert_to = static_cast<InputFocus>(tmp50);
// pad0
Pad(&buf, 15);
Align(&buf, 4);
DCHECK_EQ(buf.offset < 32 ? 0 : buf.offset - 32, 4 * length);
return reply;
}
Future<void> Input::SetDeviceFocus(
const Input::SetDeviceFocusRequest& request) {
if (!connection_->Ready() || !present())
return {};
WriteBuffer buf;
auto& focus = request.focus;
auto& time = request.time;
auto& revert_to = request.revert_to;
auto& device_id = request.device_id;
// major_opcode
uint8_t major_opcode = info_.major_opcode;
buf.Write(&major_opcode);
// minor_opcode
uint8_t minor_opcode = 21;
buf.Write(&minor_opcode);
// length
// Caller fills in length for writes.
Pad(&buf, sizeof(uint16_t));
// focus
buf.Write(&focus);
// time
buf.Write(&time);
// revert_to
uint8_t tmp51;
tmp51 = static_cast<uint8_t>(revert_to);
buf.Write(&tmp51);
// device_id
buf.Write(&device_id);
// pad0
Pad(&buf, 2);
Align(&buf, 4);
return connection_->SendRequest<void>(&buf, "Input::SetDeviceFocus", false);
}
Future<void> Input::SetDeviceFocus(const Window& focus,
const Time& time,
const InputFocus& revert_to,
const uint8_t& device_id) {
return Input::SetDeviceFocus(
Input::SetDeviceFocusRequest{focus, time, revert_to, device_id});
}
Future<Input::GetFeedbackControlReply> Input::GetFeedbackControl(
const Input::GetFeedbackControlRequest& request) {
if (!connection_->Ready() || !present())
return {};
WriteBuffer buf;
auto& device_id = request.device_id;
// major_opcode
uint8_t major_opcode = info_.major_opcode;
buf.Write(&major_opcode);
// minor_opcode
uint8_t minor_opcode = 22;
buf.Write(&minor_opcode);
// length
// Caller fills in length for writes.
Pad(&buf, sizeof(uint16_t));
// device_id
buf.Write(&device_id);
// pad0
Pad(&buf, 3);
Align(&buf, 4);
return connection_->SendRequest<Input::GetFeedbackControlReply>(
&buf, "Input::GetFeedbackControl", false);
}
Future<Input::GetFeedbackControlReply> Input::GetFeedbackControl(
const uint8_t& device_id) {
return Input::GetFeedbackControl(Input::GetFeedbackControlRequest{device_id});
}
template <>
COMPONENT_EXPORT(X11)
std::unique_ptr<Input::GetFeedbackControlReply> detail::ReadReply<
Input::GetFeedbackControlReply>(ReadBuffer* buffer) {
auto& buf = *buffer;
auto reply = std::make_unique<Input::GetFeedbackControlReply>();
auto& xi_reply_type = (*reply).xi_reply_type;
auto& sequence = (*reply).sequence;
uint16_t num_feedbacks{};
auto& feedbacks = (*reply).feedbacks;
size_t feedbacks_len = feedbacks.size();
// response_type
uint8_t response_type;
Read(&response_type, &buf);
// xi_reply_type
Read(&xi_reply_type, &buf);
// sequence
Read(&sequence, &buf);
// length
uint32_t length;
Read(&length, &buf);
// num_feedbacks
Read(&num_feedbacks, &buf);
// pad0
Pad(&buf, 22);
// feedbacks
feedbacks.resize(num_feedbacks);
for (auto& feedbacks_elem : feedbacks) {
// feedbacks_elem
{
Input::FeedbackClass class_id{};
auto& feedback_id = feedbacks_elem.feedback_id;
auto& len = feedbacks_elem.len;
auto& data = feedbacks_elem;
// class_id
uint8_t tmp52;
Read(&tmp52, &buf);
class_id = static_cast<Input::FeedbackClass>(tmp52);
// feedback_id
Read(&feedback_id, &buf);
// len
Read(&len, &buf);
// data
auto data_expr = class_id;
if (CaseEq(data_expr, Input::FeedbackClass::Keyboard)) {
data.keyboard.emplace();
auto& pitch = (*data.keyboard).pitch;
auto& duration = (*data.keyboard).duration;
auto& led_mask = (*data.keyboard).led_mask;
auto& led_values = (*data.keyboard).led_values;
auto& global_auto_repeat = (*data.keyboard).global_auto_repeat;
auto& click = (*data.keyboard).click;
auto& percent = (*data.keyboard).percent;
auto& auto_repeats = (*data.keyboard).auto_repeats;
size_t auto_repeats_len = auto_repeats.size();
// pitch
Read(&pitch, &buf);
// duration
Read(&duration, &buf);
// led_mask
Read(&led_mask, &buf);
// led_values
Read(&led_values, &buf);
// global_auto_repeat
Read(&global_auto_repeat, &buf);
// click
Read(&click, &buf);
// percent
Read(&percent, &buf);
// pad0
Pad(&buf, 1);
// auto_repeats
for (auto& auto_repeats_elem : auto_repeats) {
// auto_repeats_elem
Read(&auto_repeats_elem, &buf);
}
}
if (CaseEq(data_expr, Input::FeedbackClass::Pointer)) {
data.pointer.emplace();
auto& accel_num = (*data.pointer).accel_num;
auto& accel_denom = (*data.pointer).accel_denom;
auto& threshold = (*data.pointer).threshold;
// pad1
Pad(&buf, 2);
// accel_num
Read(&accel_num, &buf);
// accel_denom
Read(&accel_denom, &buf);
// threshold
Read(&threshold, &buf);
}
if (CaseEq(data_expr, Input::FeedbackClass::String)) {
data.string.emplace();
auto& max_symbols = (*data.string).max_symbols;
uint16_t num_keysyms{};
auto& keysyms = (*data.string).keysyms;
size_t keysyms_len = keysyms.size();
// max_symbols
Read(&max_symbols, &buf);
// num_keysyms
Read(&num_keysyms, &buf);
// keysyms
keysyms.resize(num_keysyms);
for (auto& keysyms_elem : keysyms) {
// keysyms_elem
Read(&keysyms_elem, &buf);
}
}
if (CaseEq(data_expr, Input::FeedbackClass::Integer)) {
data.integer.emplace();
auto& resolution = (*data.integer).resolution;
auto& min_value = (*data.integer).min_value;
auto& max_value = (*data.integer).max_value;
// resolution
Read(&resolution, &buf);
// min_value
Read(&min_value, &buf);
// max_value
Read(&max_value, &buf);
}
if (CaseEq(data_expr, Input::FeedbackClass::Led)) {
data.led.emplace();
auto& led_mask = (*data.led).led_mask;
auto& led_values = (*data.led).led_values;
// led_mask
Read(&led_mask, &buf);
// led_values
Read(&led_values, &buf);
}
if (CaseEq(data_expr, Input::FeedbackClass::Bell)) {
data.bell.emplace();
auto& percent = (*data.bell).percent;
auto& pitch = (*data.bell).pitch;
auto& duration = (*data.bell).duration;
// percent
Read(&percent, &buf);
// pad2
Pad(&buf, 3);
// pitch
Read(&pitch, &buf);
// duration
Read(&duration, &buf);
}
}
}
Align(&buf, 4);
DCHECK_EQ(buf.offset < 32 ? 0 : buf.offset - 32, 4 * length);
return reply;
}
Future<void> Input::ChangeFeedbackControl(
const Input::ChangeFeedbackControlRequest& request) {
if (!connection_->Ready() || !present())
return {};
WriteBuffer buf;
auto& mask = request.mask;
auto& device_id = request.device_id;
auto& feedback_id = request.feedback_id;
auto& feedback = request.feedback;
// major_opcode
uint8_t major_opcode = info_.major_opcode;
buf.Write(&major_opcode);
// minor_opcode
uint8_t minor_opcode = 23;
buf.Write(&minor_opcode);
// length
// Caller fills in length for writes.
Pad(&buf, sizeof(uint16_t));
// mask
uint32_t tmp53;
tmp53 = static_cast<uint32_t>(mask);
buf.Write(&tmp53);
// device_id
buf.Write(&device_id);
// feedback_id
buf.Write(&feedback_id);
// pad0
Pad(&buf, 2);
// feedback
{
FeedbackClass class_id{};
auto& feedback_id = feedback.feedback_id;
auto& len = feedback.len;
auto& data = feedback;
// class_id
SwitchVar(FeedbackClass::Keyboard, data.keyboard.has_value(), false,
&class_id);
SwitchVar(FeedbackClass::Pointer, data.pointer.has_value(), false,
&class_id);
SwitchVar(FeedbackClass::String, data.string.has_value(), false, &class_id);
SwitchVar(FeedbackClass::Integer, data.integer.has_value(), false,
&class_id);
SwitchVar(FeedbackClass::Led, data.led.has_value(), false, &class_id);
SwitchVar(FeedbackClass::Bell, data.bell.has_value(), false, &class_id);
uint8_t tmp54;
tmp54 = static_cast<uint8_t>(class_id);
buf.Write(&tmp54);
// feedback_id
buf.Write(&feedback_id);
// len
buf.Write(&len);
// data
auto data_expr = class_id;
if (CaseEq(data_expr, FeedbackClass::Keyboard)) {
auto& key = (*data.keyboard).key;
auto& auto_repeat_mode = (*data.keyboard).auto_repeat_mode;
auto& key_click_percent = (*data.keyboard).key_click_percent;
auto& bell_percent = (*data.keyboard).bell_percent;
auto& bell_pitch = (*data.keyboard).bell_pitch;
auto& bell_duration = (*data.keyboard).bell_duration;
auto& led_mask = (*data.keyboard).led_mask;
auto& led_values = (*data.keyboard).led_values;
// key
buf.Write(&key);
// auto_repeat_mode
buf.Write(&auto_repeat_mode);
// key_click_percent
buf.Write(&key_click_percent);
// bell_percent
buf.Write(&bell_percent);
// bell_pitch
buf.Write(&bell_pitch);
// bell_duration
buf.Write(&bell_duration);
// led_mask
buf.Write(&led_mask);
// led_values
buf.Write(&led_values);
}
if (CaseEq(data_expr, FeedbackClass::Pointer)) {
auto& num = (*data.pointer).num;
auto& denom = (*data.pointer).denom;
auto& threshold = (*data.pointer).threshold;
// pad0
Pad(&buf, 2);
// num
buf.Write(&num);
// denom
buf.Write(&denom);
// threshold
buf.Write(&threshold);
}
if (CaseEq(data_expr, FeedbackClass::String)) {
uint16_t num_keysyms{};
auto& keysyms = (*data.string).keysyms;
size_t keysyms_len = keysyms.size();
// pad1
Pad(&buf, 2);
// num_keysyms
num_keysyms = keysyms.size();
buf.Write(&num_keysyms);
// keysyms
DCHECK_EQ(static_cast<size_t>(num_keysyms), keysyms.size());
for (auto& keysyms_elem : keysyms) {
// keysyms_elem
buf.Write(&keysyms_elem);
}
}
if (CaseEq(data_expr, FeedbackClass::Integer)) {
auto& int_to_display = (*data.integer).int_to_display;
// int_to_display
buf.Write(&int_to_display);
}
if (CaseEq(data_expr, FeedbackClass::Led)) {
auto& led_mask = (*data.led).led_mask;
auto& led_values = (*data.led).led_values;
// led_mask
buf.Write(&led_mask);
// led_values
buf.Write(&led_values);
}
if (CaseEq(data_expr, FeedbackClass::Bell)) {
auto& percent = (*data.bell).percent;
auto& pitch = (*data.bell).pitch;
auto& duration = (*data.bell).duration;
// percent
buf.Write(&percent);
// pad2
Pad(&buf, 3);
// pitch
buf.Write(&pitch);
// duration
buf.Write(&duration);
}
}
Align(&buf, 4);
return connection_->SendRequest<void>(&buf, "Input::ChangeFeedbackControl",
false);
}
Future<void> Input::ChangeFeedbackControl(const ChangeFeedbackControlMask& mask,
const uint8_t& device_id,
const uint8_t& feedback_id,
const FeedbackCtl& feedback) {
return Input::ChangeFeedbackControl(Input::ChangeFeedbackControlRequest{
mask, device_id, feedback_id, feedback});
}
Future<Input::GetDeviceKeyMappingReply> Input::GetDeviceKeyMapping(
const Input::GetDeviceKeyMappingRequest& request) {
if (!connection_->Ready() || !present())
return {};
WriteBuffer buf;
auto& device_id = request.device_id;
auto& first_keycode = request.first_keycode;
auto& count = request.count;
// major_opcode
uint8_t major_opcode = info_.major_opcode;
buf.Write(&major_opcode);
// minor_opcode
uint8_t minor_opcode = 24;
buf.Write(&minor_opcode);
// length
// Caller fills in length for writes.
Pad(&buf, sizeof(uint16_t));
// device_id
buf.Write(&device_id);
// first_keycode
buf.Write(&first_keycode);
// count
buf.Write(&count);
// pad0
Pad(&buf, 1);
Align(&buf, 4);
return connection_->SendRequest<Input::GetDeviceKeyMappingReply>(
&buf, "Input::GetDeviceKeyMapping", false);
}
Future<Input::GetDeviceKeyMappingReply> Input::GetDeviceKeyMapping(
const uint8_t& device_id,
const KeyCode& first_keycode,
const uint8_t& count) {
return Input::GetDeviceKeyMapping(
Input::GetDeviceKeyMappingRequest{device_id, first_keycode, count});
}
template <>
COMPONENT_EXPORT(X11)
std::unique_ptr<Input::GetDeviceKeyMappingReply> detail::ReadReply<
Input::GetDeviceKeyMappingReply>(ReadBuffer* buffer) {
auto& buf = *buffer;
auto reply = std::make_unique<Input::GetDeviceKeyMappingReply>();
auto& xi_reply_type = (*reply).xi_reply_type;
auto& sequence = (*reply).sequence;
auto& keysyms_per_keycode = (*reply).keysyms_per_keycode;
auto& keysyms = (*reply).keysyms;
size_t keysyms_len = keysyms.size();
// response_type
uint8_t response_type;
Read(&response_type, &buf);
// xi_reply_type
Read(&xi_reply_type, &buf);
// sequence
Read(&sequence, &buf);
// length
uint32_t length;
Read(&length, &buf);
// keysyms_per_keycode
Read(&keysyms_per_keycode, &buf);
// pad0
Pad(&buf, 23);
// keysyms
keysyms.resize(length);
for (auto& keysyms_elem : keysyms) {
// keysyms_elem
Read(&keysyms_elem, &buf);
}
Align(&buf, 4);
DCHECK_EQ(buf.offset < 32 ? 0 : buf.offset - 32, 4 * length);
return reply;
}
Future<void> Input::ChangeDeviceKeyMapping(
const Input::ChangeDeviceKeyMappingRequest& request) {
if (!connection_->Ready() || !present())
return {};
WriteBuffer buf;
auto& device_id = request.device_id;
auto& first_keycode = request.first_keycode;
auto& keysyms_per_keycode = request.keysyms_per_keycode;
auto& keycode_count = request.keycode_count;
auto& keysyms = request.keysyms;
size_t keysyms_len = keysyms.size();
// major_opcode
uint8_t major_opcode = info_.major_opcode;
buf.Write(&major_opcode);
// minor_opcode
uint8_t minor_opcode = 25;
buf.Write(&minor_opcode);
// length
// Caller fills in length for writes.
Pad(&buf, sizeof(uint16_t));
// device_id
buf.Write(&device_id);
// first_keycode
buf.Write(&first_keycode);
// keysyms_per_keycode
buf.Write(&keysyms_per_keycode);
// keycode_count
buf.Write(&keycode_count);
// keysyms
DCHECK_EQ(static_cast<size_t>((keycode_count) * (keysyms_per_keycode)),
keysyms.size());
for (auto& keysyms_elem : keysyms) {
// keysyms_elem
buf.Write(&keysyms_elem);
}
Align(&buf, 4);
return connection_->SendRequest<void>(&buf, "Input::ChangeDeviceKeyMapping",
false);
}
Future<void> Input::ChangeDeviceKeyMapping(const uint8_t& device_id,
const KeyCode& first_keycode,
const uint8_t& keysyms_per_keycode,
const uint8_t& keycode_count,
const std::vector<KeySym>& keysyms) {
return Input::ChangeDeviceKeyMapping(Input::ChangeDeviceKeyMappingRequest{
device_id, first_keycode, keysyms_per_keycode, keycode_count, keysyms});
}
Future<Input::GetDeviceModifierMappingReply> Input::GetDeviceModifierMapping(
const Input::GetDeviceModifierMappingRequest& request) {
if (!connection_->Ready() || !present())
return {};
WriteBuffer buf;
auto& device_id = request.device_id;
// major_opcode
uint8_t major_opcode = info_.major_opcode;
buf.Write(&major_opcode);
// minor_opcode
uint8_t minor_opcode = 26;
buf.Write(&minor_opcode);
// length
// Caller fills in length for writes.
Pad(&buf, sizeof(uint16_t));
// device_id
buf.Write(&device_id);
// pad0
Pad(&buf, 3);
Align(&buf, 4);
return connection_->SendRequest<Input::GetDeviceModifierMappingReply>(
&buf, "Input::GetDeviceModifierMapping", false);
}
Future<Input::GetDeviceModifierMappingReply> Input::GetDeviceModifierMapping(
const uint8_t& device_id) {
return Input::GetDeviceModifierMapping(
Input::GetDeviceModifierMappingRequest{device_id});
}
template <>
COMPONENT_EXPORT(X11)
std::unique_ptr<Input::GetDeviceModifierMappingReply> detail::ReadReply<
Input::GetDeviceModifierMappingReply>(ReadBuffer* buffer) {
auto& buf = *buffer;
auto reply = std::make_unique<Input::GetDeviceModifierMappingReply>();
auto& xi_reply_type = (*reply).xi_reply_type;
auto& sequence = (*reply).sequence;
auto& keycodes_per_modifier = (*reply).keycodes_per_modifier;
auto& keymaps = (*reply).keymaps;
size_t keymaps_len = keymaps.size();
// response_type
uint8_t response_type;
Read(&response_type, &buf);
// xi_reply_type
Read(&xi_reply_type, &buf);
// sequence
Read(&sequence, &buf);
// length
uint32_t length;
Read(&length, &buf);
// keycodes_per_modifier
Read(&keycodes_per_modifier, &buf);
// pad0
Pad(&buf, 23);
// keymaps
keymaps.resize((keycodes_per_modifier) * (8));
for (auto& keymaps_elem : keymaps) {
// keymaps_elem
Read(&keymaps_elem, &buf);
}
Align(&buf, 4);
DCHECK_EQ(buf.offset < 32 ? 0 : buf.offset - 32, 4 * length);
return reply;
}
Future<Input::SetDeviceModifierMappingReply> Input::SetDeviceModifierMapping(
const Input::SetDeviceModifierMappingRequest& request) {
if (!connection_->Ready() || !present())
return {};
WriteBuffer buf;
auto& device_id = request.device_id;
auto& keycodes_per_modifier = request.keycodes_per_modifier;
auto& keymaps = request.keymaps;
size_t keymaps_len = keymaps.size();
// major_opcode
uint8_t major_opcode = info_.major_opcode;
buf.Write(&major_opcode);
// minor_opcode
uint8_t minor_opcode = 27;
buf.Write(&minor_opcode);
// length
// Caller fills in length for writes.
Pad(&buf, sizeof(uint16_t));
// device_id
buf.Write(&device_id);
// keycodes_per_modifier
buf.Write(&keycodes_per_modifier);
// pad0
Pad(&buf, 2);
// keymaps
DCHECK_EQ(static_cast<size_t>((keycodes_per_modifier) * (8)), keymaps.size());
for (auto& keymaps_elem : keymaps) {
// keymaps_elem
buf.Write(&keymaps_elem);
}
Align(&buf, 4);
return connection_->SendRequest<Input::SetDeviceModifierMappingReply>(
&buf, "Input::SetDeviceModifierMapping", false);
}
Future<Input::SetDeviceModifierMappingReply> Input::SetDeviceModifierMapping(
const uint8_t& device_id,
const uint8_t& keycodes_per_modifier,
const std::vector<uint8_t>& keymaps) {
return Input::SetDeviceModifierMapping(Input::SetDeviceModifierMappingRequest{
device_id, keycodes_per_modifier, keymaps});
}
template <>
COMPONENT_EXPORT(X11)
std::unique_ptr<Input::SetDeviceModifierMappingReply> detail::ReadReply<
Input::SetDeviceModifierMappingReply>(ReadBuffer* buffer) {
auto& buf = *buffer;
auto reply = std::make_unique<Input::SetDeviceModifierMappingReply>();
auto& xi_reply_type = (*reply).xi_reply_type;
auto& sequence = (*reply).sequence;
auto& status = (*reply).status;
// response_type
uint8_t response_type;
Read(&response_type, &buf);
// xi_reply_type
Read(&xi_reply_type, &buf);
// sequence
Read(&sequence, &buf);
// length
uint32_t length;
Read(&length, &buf);
// status
uint8_t tmp55;
Read(&tmp55, &buf);
status = static_cast<MappingStatus>(tmp55);
// pad0
Pad(&buf, 23);
Align(&buf, 4);
DCHECK_EQ(buf.offset < 32 ? 0 : buf.offset - 32, 4 * length);
return reply;
}
Future<Input::GetDeviceButtonMappingReply> Input::GetDeviceButtonMapping(
const Input::GetDeviceButtonMappingRequest& request) {
if (!connection_->Ready() || !present())
return {};
WriteBuffer buf;
auto& device_id = request.device_id;
// major_opcode
uint8_t major_opcode = info_.major_opcode;
buf.Write(&major_opcode);
// minor_opcode
uint8_t minor_opcode = 28;
buf.Write(&minor_opcode);
// length
// Caller fills in length for writes.
Pad(&buf, sizeof(uint16_t));
// device_id
buf.Write(&device_id);
// pad0
Pad(&buf, 3);
Align(&buf, 4);
return connection_->SendRequest<Input::GetDeviceButtonMappingReply>(
&buf, "Input::GetDeviceButtonMapping", false);
}
Future<Input::GetDeviceButtonMappingReply> Input::GetDeviceButtonMapping(
const uint8_t& device_id) {
return Input::GetDeviceButtonMapping(
Input::GetDeviceButtonMappingRequest{device_id});
}
template <>
COMPONENT_EXPORT(X11)
std::unique_ptr<Input::GetDeviceButtonMappingReply> detail::ReadReply<
Input::GetDeviceButtonMappingReply>(ReadBuffer* buffer) {
auto& buf = *buffer;
auto reply = std::make_unique<Input::GetDeviceButtonMappingReply>();
auto& xi_reply_type = (*reply).xi_reply_type;
auto& sequence = (*reply).sequence;
uint8_t map_size{};
auto& map = (*reply).map;
size_t map_len = map.size();
// response_type
uint8_t response_type;
Read(&response_type, &buf);
// xi_reply_type
Read(&xi_reply_type, &buf);
// sequence
Read(&sequence, &buf);
// length
uint32_t length;
Read(&length, &buf);
// map_size
Read(&map_size, &buf);
// pad0
Pad(&buf, 23);
// map
map.resize(map_size);
for (auto& map_elem : map) {
// map_elem
Read(&map_elem, &buf);
}
// pad1
Align(&buf, 4);
Align(&buf, 4);
DCHECK_EQ(buf.offset < 32 ? 0 : buf.offset - 32, 4 * length);
return reply;
}
Future<Input::SetDeviceButtonMappingReply> Input::SetDeviceButtonMapping(
const Input::SetDeviceButtonMappingRequest& request) {
if (!connection_->Ready() || !present())
return {};
WriteBuffer buf;
auto& device_id = request.device_id;
uint8_t map_size{};
auto& map = request.map;
size_t map_len = map.size();
// major_opcode
uint8_t major_opcode = info_.major_opcode;
buf.Write(&major_opcode);
// minor_opcode
uint8_t minor_opcode = 29;
buf.Write(&minor_opcode);
// length
// Caller fills in length for writes.
Pad(&buf, sizeof(uint16_t));
// device_id
buf.Write(&device_id);
// map_size
map_size = map.size();
buf.Write(&map_size);
// pad0
Pad(&buf, 2);
// map
DCHECK_EQ(static_cast<size_t>(map_size), map.size());
for (auto& map_elem : map) {
// map_elem
buf.Write(&map_elem);
}
Align(&buf, 4);
return connection_->SendRequest<Input::SetDeviceButtonMappingReply>(
&buf, "Input::SetDeviceButtonMapping", false);
}
Future<Input::SetDeviceButtonMappingReply> Input::SetDeviceButtonMapping(
const uint8_t& device_id,
const std::vector<uint8_t>& map) {
return Input::SetDeviceButtonMapping(
Input::SetDeviceButtonMappingRequest{device_id, map});
}
template <>
COMPONENT_EXPORT(X11)
std::unique_ptr<Input::SetDeviceButtonMappingReply> detail::ReadReply<
Input::SetDeviceButtonMappingReply>(ReadBuffer* buffer) {
auto& buf = *buffer;
auto reply = std::make_unique<Input::SetDeviceButtonMappingReply>();
auto& xi_reply_type = (*reply).xi_reply_type;
auto& sequence = (*reply).sequence;
auto& status = (*reply).status;
// response_type
uint8_t response_type;
Read(&response_type, &buf);
// xi_reply_type
Read(&xi_reply_type, &buf);
// sequence
Read(&sequence, &buf);
// length
uint32_t length;
Read(&length, &buf);
// status
uint8_t tmp56;
Read(&tmp56, &buf);
status = static_cast<MappingStatus>(tmp56);
// pad0
Pad(&buf, 23);
Align(&buf, 4);
DCHECK_EQ(buf.offset < 32 ? 0 : buf.offset - 32, 4 * length);
return reply;
}
Future<Input::QueryDeviceStateReply> Input::QueryDeviceState(
const Input::QueryDeviceStateRequest& request) {
if (!connection_->Ready() || !present())
return {};
WriteBuffer buf;
auto& device_id = request.device_id;
// major_opcode
uint8_t major_opcode = info_.major_opcode;
buf.Write(&major_opcode);
// minor_opcode
uint8_t minor_opcode = 30;
buf.Write(&minor_opcode);
// length
// Caller fills in length for writes.
Pad(&buf, sizeof(uint16_t));
// device_id
buf.Write(&device_id);
// pad0
Pad(&buf, 3);
Align(&buf, 4);
return connection_->SendRequest<Input::QueryDeviceStateReply>(
&buf, "Input::QueryDeviceState", false);
}
Future<Input::QueryDeviceStateReply> Input::QueryDeviceState(
const uint8_t& device_id) {
return Input::QueryDeviceState(Input::QueryDeviceStateRequest{device_id});
}
template <>
COMPONENT_EXPORT(X11)
std::unique_ptr<Input::QueryDeviceStateReply> detail::ReadReply<
Input::QueryDeviceStateReply>(ReadBuffer* buffer) {
auto& buf = *buffer;
auto reply = std::make_unique<Input::QueryDeviceStateReply>();
auto& xi_reply_type = (*reply).xi_reply_type;
auto& sequence = (*reply).sequence;
uint8_t num_classes{};
auto& classes = (*reply).classes;
size_t classes_len = classes.size();
// response_type
uint8_t response_type;
Read(&response_type, &buf);
// xi_reply_type
Read(&xi_reply_type, &buf);
// sequence
Read(&sequence, &buf);
// length
uint32_t length;
Read(&length, &buf);
// num_classes
Read(&num_classes, &buf);
// pad0
Pad(&buf, 23);
// classes
classes.resize(num_classes);
for (auto& classes_elem : classes) {
// classes_elem
{
Input::InputClass class_id{};
auto& len = classes_elem.len;
auto& data = classes_elem;
// class_id
uint8_t tmp57;
Read(&tmp57, &buf);
class_id = static_cast<Input::InputClass>(tmp57);
// len
Read(&len, &buf);
// data
auto data_expr = class_id;
if (CaseEq(data_expr, Input::InputClass::Key)) {
data.key.emplace();
auto& num_keys = (*data.key).num_keys;
auto& keys = (*data.key).keys;
size_t keys_len = keys.size();
// num_keys
Read(&num_keys, &buf);
// pad0
Pad(&buf, 1);
// keys
for (auto& keys_elem : keys) {
// keys_elem
Read(&keys_elem, &buf);
}
}
if (CaseEq(data_expr, Input::InputClass::Button)) {
data.button.emplace();
auto& num_buttons = (*data.button).num_buttons;
auto& buttons = (*data.button).buttons;
size_t buttons_len = buttons.size();
// num_buttons
Read(&num_buttons, &buf);
// pad1
Pad(&buf, 1);
// buttons
for (auto& buttons_elem : buttons) {
// buttons_elem
Read(&buttons_elem, &buf);
}
}
if (CaseEq(data_expr, Input::InputClass::Valuator)) {
data.valuator.emplace();
uint8_t num_valuators{};
auto& mode = (*data.valuator).mode;
auto& valuators = (*data.valuator).valuators;
size_t valuators_len = valuators.size();
// num_valuators
Read(&num_valuators, &buf);
// mode
uint8_t tmp58;
Read(&tmp58, &buf);
mode = static_cast<Input::ValuatorStateModeMask>(tmp58);
// valuators
valuators.resize(num_valuators);
for (auto& valuators_elem : valuators) {
// valuators_elem
Read(&valuators_elem, &buf);
}
}
}
}
Align(&buf, 4);
DCHECK_EQ(buf.offset < 32 ? 0 : buf.offset - 32, 4 * length);
return reply;
}
Future<void> Input::DeviceBell(const Input::DeviceBellRequest& request) {
if (!connection_->Ready() || !present())
return {};
WriteBuffer buf;
auto& device_id = request.device_id;
auto& feedback_id = request.feedback_id;
auto& feedback_class = request.feedback_class;
auto& percent = request.percent;
// major_opcode
uint8_t major_opcode = info_.major_opcode;
buf.Write(&major_opcode);
// minor_opcode
uint8_t minor_opcode = 32;
buf.Write(&minor_opcode);
// length
// Caller fills in length for writes.
Pad(&buf, sizeof(uint16_t));
// device_id
buf.Write(&device_id);
// feedback_id
buf.Write(&feedback_id);
// feedback_class
buf.Write(&feedback_class);
// percent
buf.Write(&percent);
Align(&buf, 4);
return connection_->SendRequest<void>(&buf, "Input::DeviceBell", false);
}
Future<void> Input::DeviceBell(const uint8_t& device_id,
const uint8_t& feedback_id,
const uint8_t& feedback_class,
const int8_t& percent) {
return Input::DeviceBell(Input::DeviceBellRequest{device_id, feedback_id,
feedback_class, percent});
}
Future<Input::SetDeviceValuatorsReply> Input::SetDeviceValuators(
const Input::SetDeviceValuatorsRequest& request) {
if (!connection_->Ready() || !present())
return {};
WriteBuffer buf;
auto& device_id = request.device_id;
auto& first_valuator = request.first_valuator;
uint8_t num_valuators{};
auto& valuators = request.valuators;
size_t valuators_len = valuators.size();
// major_opcode
uint8_t major_opcode = info_.major_opcode;
buf.Write(&major_opcode);
// minor_opcode
uint8_t minor_opcode = 33;
buf.Write(&minor_opcode);
// length
// Caller fills in length for writes.
Pad(&buf, sizeof(uint16_t));
// device_id
buf.Write(&device_id);
// first_valuator
buf.Write(&first_valuator);
// num_valuators
num_valuators = valuators.size();
buf.Write(&num_valuators);
// pad0
Pad(&buf, 1);
// valuators
DCHECK_EQ(static_cast<size_t>(num_valuators), valuators.size());
for (auto& valuators_elem : valuators) {
// valuators_elem
buf.Write(&valuators_elem);
}
Align(&buf, 4);
return connection_->SendRequest<Input::SetDeviceValuatorsReply>(
&buf, "Input::SetDeviceValuators", false);
}
Future<Input::SetDeviceValuatorsReply> Input::SetDeviceValuators(
const uint8_t& device_id,
const uint8_t& first_valuator,
const std::vector<int32_t>& valuators) {
return Input::SetDeviceValuators(
Input::SetDeviceValuatorsRequest{device_id, first_valuator, valuators});
}
template <>
COMPONENT_EXPORT(X11)
std::unique_ptr<Input::SetDeviceValuatorsReply> detail::ReadReply<
Input::SetDeviceValuatorsReply>(ReadBuffer* buffer) {
auto& buf = *buffer;
auto reply = std::make_unique<Input::SetDeviceValuatorsReply>();
auto& xi_reply_type = (*reply).xi_reply_type;
auto& sequence = (*reply).sequence;
auto& status = (*reply).status;
// response_type
uint8_t response_type;
Read(&response_type, &buf);
// xi_reply_type
Read(&xi_reply_type, &buf);
// sequence
Read(&sequence, &buf);
// length
uint32_t length;
Read(&length, &buf);
// status
uint8_t tmp59;
Read(&tmp59, &buf);
status = static_cast<GrabStatus>(tmp59);
// pad0
Pad(&buf, 23);
Align(&buf, 4);
DCHECK_EQ(buf.offset < 32 ? 0 : buf.offset - 32, 4 * length);
return reply;
}
Future<Input::GetDeviceControlReply> Input::GetDeviceControl(
const Input::GetDeviceControlRequest& request) {
if (!connection_->Ready() || !present())
return {};
WriteBuffer buf;
auto& control_id = request.control_id;
auto& device_id = request.device_id;
// major_opcode
uint8_t major_opcode = info_.major_opcode;
buf.Write(&major_opcode);
// minor_opcode
uint8_t minor_opcode = 34;
buf.Write(&minor_opcode);
// length
// Caller fills in length for writes.
Pad(&buf, sizeof(uint16_t));
// control_id
uint16_t tmp60;
tmp60 = static_cast<uint16_t>(control_id);
buf.Write(&tmp60);
// device_id
buf.Write(&device_id);
// pad0
Pad(&buf, 1);
Align(&buf, 4);
return connection_->SendRequest<Input::GetDeviceControlReply>(
&buf, "Input::GetDeviceControl", false);
}
Future<Input::GetDeviceControlReply> Input::GetDeviceControl(
const DeviceControl& control_id,
const uint8_t& device_id) {
return Input::GetDeviceControl(
Input::GetDeviceControlRequest{control_id, device_id});
}
template <>
COMPONENT_EXPORT(X11)
std::unique_ptr<Input::GetDeviceControlReply> detail::ReadReply<
Input::GetDeviceControlReply>(ReadBuffer* buffer) {
auto& buf = *buffer;
auto reply = std::make_unique<Input::GetDeviceControlReply>();
auto& xi_reply_type = (*reply).xi_reply_type;
auto& sequence = (*reply).sequence;
auto& status = (*reply).status;
auto& control = (*reply).control;
// response_type
uint8_t response_type;
Read(&response_type, &buf);
// xi_reply_type
Read(&xi_reply_type, &buf);
// sequence
Read(&sequence, &buf);
// length
uint32_t length;
Read(&length, &buf);
// status
Read(&status, &buf);
// pad0
Pad(&buf, 23);
// control
{
Input::DeviceControl control_id{};
auto& len = control.len;
auto& data = control;
// control_id
uint16_t tmp61;
Read(&tmp61, &buf);
control_id = static_cast<Input::DeviceControl>(tmp61);
// len
Read(&len, &buf);
// data
auto data_expr = control_id;
if (CaseEq(data_expr, Input::DeviceControl::resolution)) {
data.resolution.emplace();
uint32_t num_valuators{};
auto& resolution_values = (*data.resolution).resolution_values;
size_t resolution_values_len = resolution_values.size();
auto& resolution_min = (*data.resolution).resolution_min;
size_t resolution_min_len = resolution_min.size();
auto& resolution_max = (*data.resolution).resolution_max;
size_t resolution_max_len = resolution_max.size();
// num_valuators
Read(&num_valuators, &buf);
// resolution_values
resolution_values.resize(num_valuators);
for (auto& resolution_values_elem : resolution_values) {
// resolution_values_elem
Read(&resolution_values_elem, &buf);
}
// resolution_min
resolution_min.resize(num_valuators);
for (auto& resolution_min_elem : resolution_min) {
// resolution_min_elem
Read(&resolution_min_elem, &buf);
}
// resolution_max
resolution_max.resize(num_valuators);
for (auto& resolution_max_elem : resolution_max) {
// resolution_max_elem
Read(&resolution_max_elem, &buf);
}
}
if (CaseEq(data_expr, Input::DeviceControl::abs_calib)) {
data.abs_calib.emplace();
auto& min_x = (*data.abs_calib).min_x;
auto& max_x = (*data.abs_calib).max_x;
auto& min_y = (*data.abs_calib).min_y;
auto& max_y = (*data.abs_calib).max_y;
auto& flip_x = (*data.abs_calib).flip_x;
auto& flip_y = (*data.abs_calib).flip_y;
auto& rotation = (*data.abs_calib).rotation;
auto& button_threshold = (*data.abs_calib).button_threshold;
// min_x
Read(&min_x, &buf);
// max_x
Read(&max_x, &buf);
// min_y
Read(&min_y, &buf);
// max_y
Read(&max_y, &buf);
// flip_x
Read(&flip_x, &buf);
// flip_y
Read(&flip_y, &buf);
// rotation
Read(&rotation, &buf);
// button_threshold
Read(&button_threshold, &buf);
}
if (CaseEq(data_expr, Input::DeviceControl::core)) {
data.core.emplace();
auto& status = (*data.core).status;
auto& iscore = (*data.core).iscore;
// status
Read(&status, &buf);
// iscore
Read(&iscore, &buf);
// pad0
Pad(&buf, 2);
}
if (CaseEq(data_expr, Input::DeviceControl::enable)) {
data.enable.emplace();
auto& enable = (*data.enable).enable;
// enable
Read(&enable, &buf);
// pad1
Pad(&buf, 3);
}
if (CaseEq(data_expr, Input::DeviceControl::abs_area)) {
data.abs_area.emplace();
auto& offset_x = (*data.abs_area).offset_x;
auto& offset_y = (*data.abs_area).offset_y;
auto& width = (*data.abs_area).width;
auto& height = (*data.abs_area).height;
auto& screen = (*data.abs_area).screen;
auto& following = (*data.abs_area).following;
// offset_x
Read(&offset_x, &buf);
// offset_y
Read(&offset_y, &buf);
// width
Read(&width, &buf);
// height
Read(&height, &buf);
// screen
Read(&screen, &buf);
// following
Read(&following, &buf);
}
}
Align(&buf, 4);
DCHECK_EQ(buf.offset < 32 ? 0 : buf.offset - 32, 4 * length);
return reply;
}
Future<Input::ChangeDeviceControlReply> Input::ChangeDeviceControl(
const Input::ChangeDeviceControlRequest& request) {
if (!connection_->Ready() || !present())
return {};
WriteBuffer buf;
auto& control_id = request.control_id;
auto& device_id = request.device_id;
auto& control = request.control;
// major_opcode
uint8_t major_opcode = info_.major_opcode;
buf.Write(&major_opcode);
// minor_opcode
uint8_t minor_opcode = 35;
buf.Write(&minor_opcode);
// length
// Caller fills in length for writes.
Pad(&buf, sizeof(uint16_t));
// control_id
uint16_t tmp62;
tmp62 = static_cast<uint16_t>(control_id);
buf.Write(&tmp62);
// device_id
buf.Write(&device_id);
// pad0
Pad(&buf, 1);
// control
{
DeviceControl control_id{};
auto& len = control.len;
auto& data = control;
// control_id
SwitchVar(DeviceControl::resolution, data.resolution.has_value(), false,
&control_id);
SwitchVar(DeviceControl::abs_calib, data.abs_calib.has_value(), false,
&control_id);
SwitchVar(DeviceControl::core, data.core.has_value(), false, &control_id);
SwitchVar(DeviceControl::enable, data.enable.has_value(), false,
&control_id);
SwitchVar(DeviceControl::abs_area, data.abs_area.has_value(), false,
&control_id);
uint16_t tmp63;
tmp63 = static_cast<uint16_t>(control_id);
buf.Write(&tmp63);
// len
buf.Write(&len);
// data
auto data_expr = control_id;
if (CaseEq(data_expr, DeviceControl::resolution)) {
auto& first_valuator = (*data.resolution).first_valuator;
uint8_t num_valuators{};
auto& resolution_values = (*data.resolution).resolution_values;
size_t resolution_values_len = resolution_values.size();
// first_valuator
buf.Write(&first_valuator);
// num_valuators
num_valuators = resolution_values.size();
buf.Write(&num_valuators);
// pad0
Pad(&buf, 2);
// resolution_values
DCHECK_EQ(static_cast<size_t>(num_valuators), resolution_values.size());
for (auto& resolution_values_elem : resolution_values) {
// resolution_values_elem
buf.Write(&resolution_values_elem);
}
}
if (CaseEq(data_expr, DeviceControl::abs_calib)) {
auto& min_x = (*data.abs_calib).min_x;
auto& max_x = (*data.abs_calib).max_x;
auto& min_y = (*data.abs_calib).min_y;
auto& max_y = (*data.abs_calib).max_y;
auto& flip_x = (*data.abs_calib).flip_x;
auto& flip_y = (*data.abs_calib).flip_y;
auto& rotation = (*data.abs_calib).rotation;
auto& button_threshold = (*data.abs_calib).button_threshold;
// min_x
buf.Write(&min_x);
// max_x
buf.Write(&max_x);
// min_y
buf.Write(&min_y);
// max_y
buf.Write(&max_y);
// flip_x
buf.Write(&flip_x);
// flip_y
buf.Write(&flip_y);
// rotation
buf.Write(&rotation);
// button_threshold
buf.Write(&button_threshold);
}
if (CaseEq(data_expr, DeviceControl::core)) {
auto& status = (*data.core).status;
// status
buf.Write(&status);
// pad1
Pad(&buf, 3);
}
if (CaseEq(data_expr, DeviceControl::enable)) {
auto& enable = (*data.enable).enable;
// enable
buf.Write(&enable);
// pad2
Pad(&buf, 3);
}
if (CaseEq(data_expr, DeviceControl::abs_area)) {
auto& offset_x = (*data.abs_area).offset_x;
auto& offset_y = (*data.abs_area).offset_y;
auto& width = (*data.abs_area).width;
auto& height = (*data.abs_area).height;
auto& screen = (*data.abs_area).screen;
auto& following = (*data.abs_area).following;
// offset_x
buf.Write(&offset_x);
// offset_y
buf.Write(&offset_y);
// width
buf.Write(&width);
// height
buf.Write(&height);
// screen
buf.Write(&screen);
// following
buf.Write(&following);
}
}
Align(&buf, 4);
return connection_->SendRequest<Input::ChangeDeviceControlReply>(
&buf, "Input::ChangeDeviceControl", false);
}
Future<Input::ChangeDeviceControlReply> Input::ChangeDeviceControl(
const DeviceControl& control_id,
const uint8_t& device_id,
const DeviceCtl& control) {
return Input::ChangeDeviceControl(
Input::ChangeDeviceControlRequest{control_id, device_id, control});
}
template <>
COMPONENT_EXPORT(X11)
std::unique_ptr<Input::ChangeDeviceControlReply> detail::ReadReply<
Input::ChangeDeviceControlReply>(ReadBuffer* buffer) {
auto& buf = *buffer;
auto reply = std::make_unique<Input::ChangeDeviceControlReply>();
auto& xi_reply_type = (*reply).xi_reply_type;
auto& sequence = (*reply).sequence;
auto& status = (*reply).status;
// response_type
uint8_t response_type;
Read(&response_type, &buf);
// xi_reply_type
Read(&xi_reply_type, &buf);
// sequence
Read(&sequence, &buf);
// length
uint32_t length;
Read(&length, &buf);
// status
Read(&status, &buf);
// pad0
Pad(&buf, 23);
Align(&buf, 4);
DCHECK_EQ(buf.offset < 32 ? 0 : buf.offset - 32, 4 * length);
return reply;
}
Future<Input::ListDevicePropertiesReply> Input::ListDeviceProperties(
const Input::ListDevicePropertiesRequest& request) {
if (!connection_->Ready() || !present())
return {};
WriteBuffer buf;
auto& device_id = request.device_id;
// major_opcode
uint8_t major_opcode = info_.major_opcode;
buf.Write(&major_opcode);
// minor_opcode
uint8_t minor_opcode = 36;
buf.Write(&minor_opcode);
// length
// Caller fills in length for writes.
Pad(&buf, sizeof(uint16_t));
// device_id
buf.Write(&device_id);
// pad0
Pad(&buf, 3);
Align(&buf, 4);
return connection_->SendRequest<Input::ListDevicePropertiesReply>(
&buf, "Input::ListDeviceProperties", false);
}
Future<Input::ListDevicePropertiesReply> Input::ListDeviceProperties(
const uint8_t& device_id) {
return Input::ListDeviceProperties(
Input::ListDevicePropertiesRequest{device_id});
}
template <>
COMPONENT_EXPORT(X11)
std::unique_ptr<Input::ListDevicePropertiesReply> detail::ReadReply<
Input::ListDevicePropertiesReply>(ReadBuffer* buffer) {
auto& buf = *buffer;
auto reply = std::make_unique<Input::ListDevicePropertiesReply>();
auto& xi_reply_type = (*reply).xi_reply_type;
auto& sequence = (*reply).sequence;
uint16_t num_atoms{};
auto& atoms = (*reply).atoms;
size_t atoms_len = atoms.size();
// response_type
uint8_t response_type;
Read(&response_type, &buf);
// xi_reply_type
Read(&xi_reply_type, &buf);
// sequence
Read(&sequence, &buf);
// length
uint32_t length;
Read(&length, &buf);
// num_atoms
Read(&num_atoms, &buf);
// pad0
Pad(&buf, 22);
// atoms
atoms.resize(num_atoms);
for (auto& atoms_elem : atoms) {
// atoms_elem
Read(&atoms_elem, &buf);
}
Align(&buf, 4);
DCHECK_EQ(buf.offset < 32 ? 0 : buf.offset - 32, 4 * length);
return reply;
}
Future<void> Input::ChangeDeviceProperty(
const Input::ChangeDevicePropertyRequest& request) {
if (!connection_->Ready() || !present())
return {};
WriteBuffer buf;
auto& property = request.property;
auto& type = request.type;
auto& device_id = request.device_id;
PropertyFormat format{};
auto& mode = request.mode;
auto& num_items = request.num_items;
auto& items = request;
// major_opcode
uint8_t major_opcode = info_.major_opcode;
buf.Write(&major_opcode);
// minor_opcode
uint8_t minor_opcode = 37;
buf.Write(&minor_opcode);
// length
// Caller fills in length for writes.
Pad(&buf, sizeof(uint16_t));
// property
buf.Write(&property);
// type
buf.Write(&type);
// device_id
buf.Write(&device_id);
// format
SwitchVar(PropertyFormat::c_8Bits, items.data8.has_value(), false, &format);
SwitchVar(PropertyFormat::c_16Bits, items.data16.has_value(), false, &format);
SwitchVar(PropertyFormat::c_32Bits, items.data32.has_value(), false, &format);
uint8_t tmp64;
tmp64 = static_cast<uint8_t>(format);
buf.Write(&tmp64);
// mode
uint8_t tmp65;
tmp65 = static_cast<uint8_t>(mode);
buf.Write(&tmp65);
// pad0
Pad(&buf, 1);
// num_items
buf.Write(&num_items);
// items
auto items_expr = format;
if (CaseEq(items_expr, PropertyFormat::c_8Bits)) {
auto& data8 = *items.data8;
size_t data8_len = data8.size();
// data8
DCHECK_EQ(static_cast<size_t>(num_items), data8.size());
for (auto& data8_elem : data8) {
// data8_elem
buf.Write(&data8_elem);
}
// pad1
Align(&buf, 4);
}
if (CaseEq(items_expr, PropertyFormat::c_16Bits)) {
auto& data16 = *items.data16;
size_t data16_len = data16.size();
// data16
DCHECK_EQ(static_cast<size_t>(num_items), data16.size());
for (auto& data16_elem : data16) {
// data16_elem
buf.Write(&data16_elem);
}
// pad2
Align(&buf, 4);
}
if (CaseEq(items_expr, PropertyFormat::c_32Bits)) {
auto& data32 = *items.data32;
size_t data32_len = data32.size();
// data32
DCHECK_EQ(static_cast<size_t>(num_items), data32.size());
for (auto& data32_elem : data32) {
// data32_elem
buf.Write(&data32_elem);
}
}
Align(&buf, 4);
return connection_->SendRequest<void>(&buf, "Input::ChangeDeviceProperty",
false);
}
Future<void> Input::ChangeDeviceProperty(
const Atom& property,
const Atom& type,
const uint8_t& device_id,
const PropMode& mode,
const uint32_t& num_items,
const absl::optional<std::vector<uint8_t>>& data8,
const absl::optional<std::vector<uint16_t>>& data16,
const absl::optional<std::vector<uint32_t>>& data32) {
return Input::ChangeDeviceProperty(Input::ChangeDevicePropertyRequest{
property, type, device_id, mode, num_items, data8, data16, data32});
}
Future<void> Input::DeleteDeviceProperty(
const Input::DeleteDevicePropertyRequest& request) {
if (!connection_->Ready() || !present())
return {};
WriteBuffer buf;
auto& property = request.property;
auto& device_id = request.device_id;
// major_opcode
uint8_t major_opcode = info_.major_opcode;
buf.Write(&major_opcode);
// minor_opcode
uint8_t minor_opcode = 38;
buf.Write(&minor_opcode);
// length
// Caller fills in length for writes.
Pad(&buf, sizeof(uint16_t));
// property
buf.Write(&property);
// device_id
buf.Write(&device_id);
// pad0
Pad(&buf, 3);
Align(&buf, 4);
return connection_->SendRequest<void>(&buf, "Input::DeleteDeviceProperty",
false);
}
Future<void> Input::DeleteDeviceProperty(const Atom& property,
const uint8_t& device_id) {
return Input::DeleteDeviceProperty(
Input::DeleteDevicePropertyRequest{property, device_id});
}
Future<Input::GetDevicePropertyReply> Input::GetDeviceProperty(
const Input::GetDevicePropertyRequest& request) {
if (!connection_->Ready() || !present())
return {};
WriteBuffer buf;
auto& property = request.property;
auto& type = request.type;
auto& offset = request.offset;
auto& len = request.len;
auto& device_id = request.device_id;
auto& c_delete = request.c_delete;
// major_opcode
uint8_t major_opcode = info_.major_opcode;
buf.Write(&major_opcode);
// minor_opcode
uint8_t minor_opcode = 39;
buf.Write(&minor_opcode);
// length
// Caller fills in length for writes.
Pad(&buf, sizeof(uint16_t));
// property
buf.Write(&property);
// type
buf.Write(&type);
// offset
buf.Write(&offset);
// len
buf.Write(&len);
// device_id
buf.Write(&device_id);
// c_delete
buf.Write(&c_delete);
// pad0
Pad(&buf, 2);
Align(&buf, 4);
return connection_->SendRequest<Input::GetDevicePropertyReply>(
&buf, "Input::GetDeviceProperty", false);
}
Future<Input::GetDevicePropertyReply> Input::GetDeviceProperty(
const Atom& property,
const Atom& type,
const uint32_t& offset,
const uint32_t& len,
const uint8_t& device_id,
const uint8_t& c_delete) {
return Input::GetDeviceProperty(Input::GetDevicePropertyRequest{
property, type, offset, len, device_id, c_delete});
}
template <>
COMPONENT_EXPORT(X11)
std::unique_ptr<Input::GetDevicePropertyReply> detail::ReadReply<
Input::GetDevicePropertyReply>(ReadBuffer* buffer) {
auto& buf = *buffer;
auto reply = std::make_unique<Input::GetDevicePropertyReply>();
auto& xi_reply_type = (*reply).xi_reply_type;
auto& sequence = (*reply).sequence;
auto& type = (*reply).type;
auto& bytes_after = (*reply).bytes_after;
auto& num_items = (*reply).num_items;
Input::PropertyFormat format{};
auto& device_id = (*reply).device_id;
auto& items = (*reply);
// response_type
uint8_t response_type;
Read(&response_type, &buf);
// xi_reply_type
Read(&xi_reply_type, &buf);
// sequence
Read(&sequence, &buf);
// length
uint32_t length;
Read(&length, &buf);
// type
Read(&type, &buf);
// bytes_after
Read(&bytes_after, &buf);
// num_items
Read(&num_items, &buf);
// format
uint8_t tmp66;
Read(&tmp66, &buf);
format = static_cast<Input::PropertyFormat>(tmp66);
// device_id
Read(&device_id, &buf);
// pad0
Pad(&buf, 10);
// items
auto items_expr = format;
if (CaseEq(items_expr, Input::PropertyFormat::c_8Bits)) {
items.data8.emplace();
auto& data8 = *items.data8;
size_t data8_len = data8.size();
// data8
data8.resize(num_items);
for (auto& data8_elem : data8) {
// data8_elem
Read(&data8_elem, &buf);
}
// pad1
Align(&buf, 4);
}
if (CaseEq(items_expr, Input::PropertyFormat::c_16Bits)) {
items.data16.emplace();
auto& data16 = *items.data16;
size_t data16_len = data16.size();
// data16
data16.resize(num_items);
for (auto& data16_elem : data16) {
// data16_elem
Read(&data16_elem, &buf);
}
// pad2
Align(&buf, 4);
}
if (CaseEq(items_expr, Input::PropertyFormat::c_32Bits)) {
items.data32.emplace();
auto& data32 = *items.data32;
size_t data32_len = data32.size();
// data32
data32.resize(num_items);
for (auto& data32_elem : data32) {
// data32_elem
Read(&data32_elem, &buf);
}
}
Align(&buf, 4);
DCHECK_EQ(buf.offset < 32 ? 0 : buf.offset - 32, 4 * length);
return reply;
}
Future<Input::XIQueryPointerReply> Input::XIQueryPointer(
const Input::XIQueryPointerRequest& request) {
if (!connection_->Ready() || !present())
return {};
WriteBuffer buf;
auto& window = request.window;
auto& deviceid = request.deviceid;
// major_opcode
uint8_t major_opcode = info_.major_opcode;
buf.Write(&major_opcode);
// minor_opcode
uint8_t minor_opcode = 40;
buf.Write(&minor_opcode);
// length
// Caller fills in length for writes.
Pad(&buf, sizeof(uint16_t));
// window
buf.Write(&window);
// deviceid
buf.Write(&deviceid);
// pad0
Pad(&buf, 2);
Align(&buf, 4);
return connection_->SendRequest<Input::XIQueryPointerReply>(
&buf, "Input::XIQueryPointer", false);
}
Future<Input::XIQueryPointerReply> Input::XIQueryPointer(
const Window& window,
const DeviceId& deviceid) {
return Input::XIQueryPointer(Input::XIQueryPointerRequest{window, deviceid});
}
template <>
COMPONENT_EXPORT(X11)
std::unique_ptr<Input::XIQueryPointerReply> detail::ReadReply<
Input::XIQueryPointerReply>(ReadBuffer* buffer) {
auto& buf = *buffer;
auto reply = std::make_unique<Input::XIQueryPointerReply>();
auto& sequence = (*reply).sequence;
auto& root = (*reply).root;
auto& child = (*reply).child;
auto& root_x = (*reply).root_x;
auto& root_y = (*reply).root_y;
auto& win_x = (*reply).win_x;
auto& win_y = (*reply).win_y;
auto& same_screen = (*reply).same_screen;
uint16_t buttons_len{};
auto& mods = (*reply).mods;
auto& group = (*reply).group;
auto& buttons = (*reply).buttons;
// response_type
uint8_t response_type;
Read(&response_type, &buf);
// pad0
Pad(&buf, 1);
// sequence
Read(&sequence, &buf);
// length
uint32_t length;
Read(&length, &buf);
// root
Read(&root, &buf);
// child
Read(&child, &buf);
// root_x
Read(&root_x, &buf);
// root_y
Read(&root_y, &buf);
// win_x
Read(&win_x, &buf);
// win_y
Read(&win_y, &buf);
// same_screen
Read(&same_screen, &buf);
// pad1
Pad(&buf, 1);
// buttons_len
Read(&buttons_len, &buf);
// mods
{
auto& base = mods.base;
auto& latched = mods.latched;
auto& locked = mods.locked;
auto& effective = mods.effective;
// base
Read(&base, &buf);
// latched
Read(&latched, &buf);
// locked
Read(&locked, &buf);
// effective
Read(&effective, &buf);
}
// group
{
auto& base = group.base;
auto& latched = group.latched;
auto& locked = group.locked;
auto& effective = group.effective;
// base
Read(&base, &buf);
// latched
Read(&latched, &buf);
// locked
Read(&locked, &buf);
// effective
Read(&effective, &buf);
}
// buttons
buttons.resize(buttons_len);
for (auto& buttons_elem : buttons) {
// buttons_elem
Read(&buttons_elem, &buf);
}
Align(&buf, 4);
DCHECK_EQ(buf.offset < 32 ? 0 : buf.offset - 32, 4 * length);
return reply;
}
Future<void> Input::XIWarpPointer(const Input::XIWarpPointerRequest& request) {
if (!connection_->Ready() || !present())
return {};
WriteBuffer buf;
auto& src_win = request.src_win;
auto& dst_win = request.dst_win;
auto& src_x = request.src_x;
auto& src_y = request.src_y;
auto& src_width = request.src_width;
auto& src_height = request.src_height;
auto& dst_x = request.dst_x;
auto& dst_y = request.dst_y;
auto& deviceid = request.deviceid;
// major_opcode
uint8_t major_opcode = info_.major_opcode;
buf.Write(&major_opcode);
// minor_opcode
uint8_t minor_opcode = 41;
buf.Write(&minor_opcode);
// length
// Caller fills in length for writes.
Pad(&buf, sizeof(uint16_t));
// src_win
buf.Write(&src_win);
// dst_win
buf.Write(&dst_win);
// src_x
buf.Write(&src_x);
// src_y
buf.Write(&src_y);
// src_width
buf.Write(&src_width);
// src_height
buf.Write(&src_height);
// dst_x
buf.Write(&dst_x);
// dst_y
buf.Write(&dst_y);
// deviceid
buf.Write(&deviceid);
// pad0
Pad(&buf, 2);
Align(&buf, 4);
return connection_->SendRequest<void>(&buf, "Input::XIWarpPointer", false);
}
Future<void> Input::XIWarpPointer(const Window& src_win,
const Window& dst_win,
const Fp1616& src_x,
const Fp1616& src_y,
const uint16_t& src_width,
const uint16_t& src_height,
const Fp1616& dst_x,
const Fp1616& dst_y,
const DeviceId& deviceid) {
return Input::XIWarpPointer(
Input::XIWarpPointerRequest{src_win, dst_win, src_x, src_y, src_width,
src_height, dst_x, dst_y, deviceid});
}
Future<void> Input::XIChangeCursor(
const Input::XIChangeCursorRequest& request) {
if (!connection_->Ready() || !present())
return {};
WriteBuffer buf;
auto& window = request.window;
auto& cursor = request.cursor;
auto& deviceid = request.deviceid;
// major_opcode
uint8_t major_opcode = info_.major_opcode;
buf.Write(&major_opcode);
// minor_opcode
uint8_t minor_opcode = 42;
buf.Write(&minor_opcode);
// length
// Caller fills in length for writes.
Pad(&buf, sizeof(uint16_t));
// window
buf.Write(&window);
// cursor
buf.Write(&cursor);
// deviceid
buf.Write(&deviceid);
// pad0
Pad(&buf, 2);
Align(&buf, 4);
return connection_->SendRequest<void>(&buf, "Input::XIChangeCursor", false);
}
Future<void> Input::XIChangeCursor(const Window& window,
const Cursor& cursor,
const DeviceId& deviceid) {
return Input::XIChangeCursor(
Input::XIChangeCursorRequest{window, cursor, deviceid});
}
Future<void> Input::XIChangeHierarchy(
const Input::XIChangeHierarchyRequest& request) {
if (!connection_->Ready() || !present())
return {};
WriteBuffer buf;
uint8_t num_changes{};
auto& changes = request.changes;
size_t changes_len = changes.size();
// major_opcode
uint8_t major_opcode = info_.major_opcode;
buf.Write(&major_opcode);
// minor_opcode
uint8_t minor_opcode = 43;
buf.Write(&minor_opcode);
// length
// Caller fills in length for writes.
Pad(&buf, sizeof(uint16_t));
// num_changes
num_changes = changes.size();
buf.Write(&num_changes);
// pad0
Pad(&buf, 3);
// changes
DCHECK_EQ(static_cast<size_t>(num_changes), changes.size());
for (auto& changes_elem : changes) {
// changes_elem
{
HierarchyChangeType type{};
auto& len = changes_elem.len;
auto& data = changes_elem;
// type
SwitchVar(HierarchyChangeType::AddMaster, data.add_master.has_value(),
false, &type);
SwitchVar(HierarchyChangeType::RemoveMaster,
data.remove_master.has_value(), false, &type);
SwitchVar(HierarchyChangeType::AttachSlave, data.attach_slave.has_value(),
false, &type);
SwitchVar(HierarchyChangeType::DetachSlave, data.detach_slave.has_value(),
false, &type);
uint16_t tmp67;
tmp67 = static_cast<uint16_t>(type);
buf.Write(&tmp67);
// len
buf.Write(&len);
// data
auto data_expr = type;
if (CaseEq(data_expr, HierarchyChangeType::AddMaster)) {
uint16_t name_len{};
auto& send_core = (*data.add_master).send_core;
auto& enable = (*data.add_master).enable;
auto& name = (*data.add_master).name;
// name_len
name_len = name.size();
buf.Write(&name_len);
// send_core
buf.Write(&send_core);
// enable
buf.Write(&enable);
// name
DCHECK_EQ(static_cast<size_t>(name_len), name.size());
for (auto& name_elem : name) {
// name_elem
buf.Write(&name_elem);
}
// pad0
Align(&buf, 4);
}
if (CaseEq(data_expr, HierarchyChangeType::RemoveMaster)) {
auto& deviceid = (*data.remove_master).deviceid;
auto& return_mode = (*data.remove_master).return_mode;
auto& return_pointer = (*data.remove_master).return_pointer;
auto& return_keyboard = (*data.remove_master).return_keyboard;
// deviceid
buf.Write(&deviceid);
// return_mode
uint8_t tmp68;
tmp68 = static_cast<uint8_t>(return_mode);
buf.Write(&tmp68);
// pad1
Pad(&buf, 1);
// return_pointer
buf.Write(&return_pointer);
// return_keyboard
buf.Write(&return_keyboard);
}
if (CaseEq(data_expr, HierarchyChangeType::AttachSlave)) {
auto& deviceid = (*data.attach_slave).deviceid;
auto& master = (*data.attach_slave).master;
// deviceid
buf.Write(&deviceid);
// master
buf.Write(&master);
}
if (CaseEq(data_expr, HierarchyChangeType::DetachSlave)) {
auto& deviceid = (*data.detach_slave).deviceid;
// deviceid
buf.Write(&deviceid);
// pad2
Pad(&buf, 2);
}
}
}
Align(&buf, 4);
return connection_->SendRequest<void>(&buf, "Input::XIChangeHierarchy",
false);
}
Future<void> Input::XIChangeHierarchy(
const std::vector<HierarchyChange>& changes) {
return Input::XIChangeHierarchy(Input::XIChangeHierarchyRequest{changes});
}
Future<void> Input::XISetClientPointer(
const Input::XISetClientPointerRequest& request) {
if (!connection_->Ready() || !present())
return {};
WriteBuffer buf;
auto& window = request.window;
auto& deviceid = request.deviceid;
// major_opcode
uint8_t major_opcode = info_.major_opcode;
buf.Write(&major_opcode);
// minor_opcode
uint8_t minor_opcode = 44;
buf.Write(&minor_opcode);
// length
// Caller fills in length for writes.
Pad(&buf, sizeof(uint16_t));
// window
buf.Write(&window);
// deviceid
buf.Write(&deviceid);
// pad0
Pad(&buf, 2);
Align(&buf, 4);
return connection_->SendRequest<void>(&buf, "Input::XISetClientPointer",
false);
}
Future<void> Input::XISetClientPointer(const Window& window,
const DeviceId& deviceid) {
return Input::XISetClientPointer(
Input::XISetClientPointerRequest{window, deviceid});
}
Future<Input::XIGetClientPointerReply> Input::XIGetClientPointer(
const Input::XIGetClientPointerRequest& request) {
if (!connection_->Ready() || !present())
return {};
WriteBuffer buf;
auto& window = request.window;
// major_opcode
uint8_t major_opcode = info_.major_opcode;
buf.Write(&major_opcode);
// minor_opcode
uint8_t minor_opcode = 45;
buf.Write(&minor_opcode);
// length
// Caller fills in length for writes.
Pad(&buf, sizeof(uint16_t));
// window
buf.Write(&window);
Align(&buf, 4);
return connection_->SendRequest<Input::XIGetClientPointerReply>(
&buf, "Input::XIGetClientPointer", false);
}
Future<Input::XIGetClientPointerReply> Input::XIGetClientPointer(
const Window& window) {
return Input::XIGetClientPointer(Input::XIGetClientPointerRequest{window});
}
template <>
COMPONENT_EXPORT(X11)
std::unique_ptr<Input::XIGetClientPointerReply> detail::ReadReply<
Input::XIGetClientPointerReply>(ReadBuffer* buffer) {
auto& buf = *buffer;
auto reply = std::make_unique<Input::XIGetClientPointerReply>();
auto& sequence = (*reply).sequence;
auto& set = (*reply).set;
auto& deviceid = (*reply).deviceid;
// response_type
uint8_t response_type;
Read(&response_type, &buf);
// pad0
Pad(&buf, 1);
// sequence
Read(&sequence, &buf);
// length
uint32_t length;
Read(&length, &buf);
// set
Read(&set, &buf);
// pad1
Pad(&buf, 1);
// deviceid
Read(&deviceid, &buf);
// pad2
Pad(&buf, 20);
Align(&buf, 4);
DCHECK_EQ(buf.offset < 32 ? 0 : buf.offset - 32, 4 * length);
return reply;
}
Future<void> Input::XISelectEvents(
const Input::XISelectEventsRequest& request) {
if (!connection_->Ready() || !present())
return {};
WriteBuffer buf;
auto& window = request.window;
uint16_t num_mask{};
auto& masks = request.masks;
size_t masks_len = masks.size();
// major_opcode
uint8_t major_opcode = info_.major_opcode;
buf.Write(&major_opcode);
// minor_opcode
uint8_t minor_opcode = 46;
buf.Write(&minor_opcode);
// length
// Caller fills in length for writes.
Pad(&buf, sizeof(uint16_t));
// window
buf.Write(&window);
// num_mask
num_mask = masks.size();
buf.Write(&num_mask);
// pad0
Pad(&buf, 2);
// masks
DCHECK_EQ(static_cast<size_t>(num_mask), masks.size());
for (auto& masks_elem : masks) {
// masks_elem
{
auto& deviceid = masks_elem.deviceid;
uint16_t mask_len{};
auto& mask = masks_elem.mask;
// deviceid
buf.Write(&deviceid);
// mask_len
mask_len = mask.size();
buf.Write(&mask_len);
// mask
DCHECK_EQ(static_cast<size_t>(mask_len), mask.size());
for (auto& mask_elem : mask) {
// mask_elem
uint32_t tmp69;
tmp69 = static_cast<uint32_t>(mask_elem);
buf.Write(&tmp69);
}
}
}
Align(&buf, 4);
return connection_->SendRequest<void>(&buf, "Input::XISelectEvents", false);
}
Future<void> Input::XISelectEvents(const Window& window,
const std::vector<EventMask>& masks) {
return Input::XISelectEvents(Input::XISelectEventsRequest{window, masks});
}
Future<Input::XIQueryVersionReply> Input::XIQueryVersion(
const Input::XIQueryVersionRequest& request) {
if (!connection_->Ready() || !present())
return {};
WriteBuffer buf;
auto& major_version = request.major_version;
auto& minor_version = request.minor_version;
// major_opcode
uint8_t major_opcode = info_.major_opcode;
buf.Write(&major_opcode);
// minor_opcode
uint8_t minor_opcode = 47;
buf.Write(&minor_opcode);
// length
// Caller fills in length for writes.
Pad(&buf, sizeof(uint16_t));
// major_version
buf.Write(&major_version);
// minor_version
buf.Write(&minor_version);
Align(&buf, 4);
return connection_->SendRequest<Input::XIQueryVersionReply>(
&buf, "Input::XIQueryVersion", false);
}
Future<Input::XIQueryVersionReply> Input::XIQueryVersion(
const uint16_t& major_version,
const uint16_t& minor_version) {
return Input::XIQueryVersion(
Input::XIQueryVersionRequest{major_version, minor_version});
}
template <>
COMPONENT_EXPORT(X11)
std::unique_ptr<Input::XIQueryVersionReply> detail::ReadReply<
Input::XIQueryVersionReply>(ReadBuffer* buffer) {
auto& buf = *buffer;
auto reply = std::make_unique<Input::XIQueryVersionReply>();
auto& sequence = (*reply).sequence;
auto& major_version = (*reply).major_version;
auto& minor_version = (*reply).minor_version;
// response_type
uint8_t response_type;
Read(&response_type, &buf);
// pad0
Pad(&buf, 1);
// sequence
Read(&sequence, &buf);
// length
uint32_t length;
Read(&length, &buf);
// major_version
Read(&major_version, &buf);
// minor_version
Read(&minor_version, &buf);
// pad1
Pad(&buf, 20);
Align(&buf, 4);
DCHECK_EQ(buf.offset < 32 ? 0 : buf.offset - 32, 4 * length);
return reply;
}
Future<Input::XIQueryDeviceReply> Input::XIQueryDevice(
const Input::XIQueryDeviceRequest& request) {
if (!connection_->Ready() || !present())
return {};
WriteBuffer buf;
auto& deviceid = request.deviceid;
// major_opcode
uint8_t major_opcode = info_.major_opcode;
buf.Write(&major_opcode);
// minor_opcode
uint8_t minor_opcode = 48;
buf.Write(&minor_opcode);
// length
// Caller fills in length for writes.
Pad(&buf, sizeof(uint16_t));
// deviceid
buf.Write(&deviceid);
// pad0
Pad(&buf, 2);
Align(&buf, 4);
return connection_->SendRequest<Input::XIQueryDeviceReply>(
&buf, "Input::XIQueryDevice", false);
}
Future<Input::XIQueryDeviceReply> Input::XIQueryDevice(
const DeviceId& deviceid) {
return Input::XIQueryDevice(Input::XIQueryDeviceRequest{deviceid});
}
template <>
COMPONENT_EXPORT(X11)
std::unique_ptr<Input::XIQueryDeviceReply> detail::ReadReply<
Input::XIQueryDeviceReply>(ReadBuffer* buffer) {
auto& buf = *buffer;
auto reply = std::make_unique<Input::XIQueryDeviceReply>();
auto& sequence = (*reply).sequence;
uint16_t num_infos{};
auto& infos = (*reply).infos;
size_t infos_len = infos.size();
// response_type
uint8_t response_type;
Read(&response_type, &buf);
// pad0
Pad(&buf, 1);
// sequence
Read(&sequence, &buf);
// length
uint32_t length;
Read(&length, &buf);
// num_infos
Read(&num_infos, &buf);
// pad1
Pad(&buf, 22);
// infos
infos.resize(num_infos);
for (auto& infos_elem : infos) {
// infos_elem
{
auto& deviceid = infos_elem.deviceid;
auto& type = infos_elem.type;
auto& attachment = infos_elem.attachment;
uint16_t num_classes{};
uint16_t name_len{};
auto& enabled = infos_elem.enabled;
auto& name = infos_elem.name;
auto& classes = infos_elem.classes;
size_t classes_len = classes.size();
// deviceid
Read(&deviceid, &buf);
// type
uint16_t tmp70;
Read(&tmp70, &buf);
type = static_cast<Input::DeviceType>(tmp70);
// attachment
Read(&attachment, &buf);
// num_classes
Read(&num_classes, &buf);
// name_len
Read(&name_len, &buf);
// enabled
Read(&enabled, &buf);
// pad0
Pad(&buf, 1);
// name
name.resize(name_len);
for (auto& name_elem : name) {
// name_elem
Read(&name_elem, &buf);
}
// pad1
Align(&buf, 4);
// classes
classes.resize(num_classes);
for (auto& classes_elem : classes) {
// classes_elem
{
Input::DeviceClassType type{};
auto& len = classes_elem.len;
auto& sourceid = classes_elem.sourceid;
auto& data = classes_elem;
// type
uint16_t tmp71;
Read(&tmp71, &buf);
type = static_cast<Input::DeviceClassType>(tmp71);
// len
Read(&len, &buf);
// sourceid
Read(&sourceid, &buf);
// data
auto data_expr = type;
if (CaseEq(data_expr, Input::DeviceClassType::Key)) {
data.key.emplace();
uint16_t num_keys{};
auto& keys = (*data.key).keys;
size_t keys_len = keys.size();
// num_keys
Read(&num_keys, &buf);
// keys
keys.resize(num_keys);
for (auto& keys_elem : keys) {
// keys_elem
Read(&keys_elem, &buf);
}
}
if (CaseEq(data_expr, Input::DeviceClassType::Button)) {
data.button.emplace();
uint16_t num_buttons{};
auto& state = (*data.button).state;
size_t state_len = state.size();
auto& labels = (*data.button).labels;
size_t labels_len = labels.size();
// num_buttons
Read(&num_buttons, &buf);
// state
state.resize(((num_buttons) + (31)) / (32));
for (auto& state_elem : state) {
// state_elem
Read(&state_elem, &buf);
}
// labels
labels.resize(num_buttons);
for (auto& labels_elem : labels) {
// labels_elem
Read(&labels_elem, &buf);
}
}
if (CaseEq(data_expr, Input::DeviceClassType::Valuator)) {
data.valuator.emplace();
auto& number = (*data.valuator).number;
auto& label = (*data.valuator).label;
auto& min = (*data.valuator).min;
auto& max = (*data.valuator).max;
auto& value = (*data.valuator).value;
auto& resolution = (*data.valuator).resolution;
auto& mode = (*data.valuator).mode;
// number
Read(&number, &buf);
// label
Read(&label, &buf);
// min
{
auto& integral = min.integral;
auto& frac = min.frac;
// integral
Read(&integral, &buf);
// frac
Read(&frac, &buf);
}
// max
{
auto& integral = max.integral;
auto& frac = max.frac;
// integral
Read(&integral, &buf);
// frac
Read(&frac, &buf);
}
// value
{
auto& integral = value.integral;
auto& frac = value.frac;
// integral
Read(&integral, &buf);
// frac
Read(&frac, &buf);
}
// resolution
Read(&resolution, &buf);
// mode
uint8_t tmp72;
Read(&tmp72, &buf);
mode = static_cast<Input::ValuatorMode>(tmp72);
// pad0
Pad(&buf, 3);
}
if (CaseEq(data_expr, Input::DeviceClassType::Scroll)) {
data.scroll.emplace();
auto& number = (*data.scroll).number;
auto& scroll_type = (*data.scroll).scroll_type;
auto& flags = (*data.scroll).flags;
auto& increment = (*data.scroll).increment;
// number
Read(&number, &buf);
// scroll_type
uint16_t tmp73;
Read(&tmp73, &buf);
scroll_type = static_cast<Input::ScrollType>(tmp73);
// pad1
Pad(&buf, 2);
// flags
uint32_t tmp74;
Read(&tmp74, &buf);
flags = static_cast<Input::ScrollFlags>(tmp74);
// increment
{
auto& integral = increment.integral;
auto& frac = increment.frac;
// integral
Read(&integral, &buf);
// frac
Read(&frac, &buf);
}
}
if (CaseEq(data_expr, Input::DeviceClassType::Touch)) {
data.touch.emplace();
auto& mode = (*data.touch).mode;
auto& num_touches = (*data.touch).num_touches;
// mode
uint8_t tmp75;
Read(&tmp75, &buf);
mode = static_cast<Input::TouchMode>(tmp75);
// num_touches
Read(&num_touches, &buf);
}
}
}
}
}
Align(&buf, 4);
DCHECK_EQ(buf.offset < 32 ? 0 : buf.offset - 32, 4 * length);
return reply;
}
Future<void> Input::XISetFocus(const Input::XISetFocusRequest& request) {
if (!connection_->Ready() || !present())
return {};
WriteBuffer buf;
auto& window = request.window;
auto& time = request.time;
auto& deviceid = request.deviceid;
// major_opcode
uint8_t major_opcode = info_.major_opcode;
buf.Write(&major_opcode);
// minor_opcode
uint8_t minor_opcode = 49;
buf.Write(&minor_opcode);
// length
// Caller fills in length for writes.
Pad(&buf, sizeof(uint16_t));
// window
buf.Write(&window);
// time
buf.Write(&time);
// deviceid
buf.Write(&deviceid);
// pad0
Pad(&buf, 2);
Align(&buf, 4);
return connection_->SendRequest<void>(&buf, "Input::XISetFocus", false);
}
Future<void> Input::XISetFocus(const Window& window,
const Time& time,
const DeviceId& deviceid) {
return Input::XISetFocus(Input::XISetFocusRequest{window, time, deviceid});
}
Future<Input::XIGetFocusReply> Input::XIGetFocus(
const Input::XIGetFocusRequest& request) {
if (!connection_->Ready() || !present())
return {};
WriteBuffer buf;
auto& deviceid = request.deviceid;
// major_opcode
uint8_t major_opcode = info_.major_opcode;
buf.Write(&major_opcode);
// minor_opcode
uint8_t minor_opcode = 50;
buf.Write(&minor_opcode);
// length
// Caller fills in length for writes.
Pad(&buf, sizeof(uint16_t));
// deviceid
buf.Write(&deviceid);
// pad0
Pad(&buf, 2);
Align(&buf, 4);
return connection_->SendRequest<Input::XIGetFocusReply>(
&buf, "Input::XIGetFocus", false);
}
Future<Input::XIGetFocusReply> Input::XIGetFocus(const DeviceId& deviceid) {
return Input::XIGetFocus(Input::XIGetFocusRequest{deviceid});
}
template <>
COMPONENT_EXPORT(X11)
std::unique_ptr<Input::XIGetFocusReply> detail::ReadReply<
Input::XIGetFocusReply>(ReadBuffer* buffer) {
auto& buf = *buffer;
auto reply = std::make_unique<Input::XIGetFocusReply>();
auto& sequence = (*reply).sequence;
auto& focus = (*reply).focus;
// response_type
uint8_t response_type;
Read(&response_type, &buf);
// pad0
Pad(&buf, 1);
// sequence
Read(&sequence, &buf);
// length
uint32_t length;
Read(&length, &buf);
// focus
Read(&focus, &buf);
// pad1
Pad(&buf, 20);
Align(&buf, 4);
DCHECK_EQ(buf.offset < 32 ? 0 : buf.offset - 32, 4 * length);
return reply;
}
Future<Input::XIGrabDeviceReply> Input::XIGrabDevice(
const Input::XIGrabDeviceRequest& request) {
if (!connection_->Ready() || !present())
return {};
WriteBuffer buf;
auto& window = request.window;
auto& time = request.time;
auto& cursor = request.cursor;
auto& deviceid = request.deviceid;
auto& mode = request.mode;
auto& paired_device_mode = request.paired_device_mode;
auto& owner_events = request.owner_events;
uint16_t mask_len{};
auto& mask = request.mask;
// major_opcode
uint8_t major_opcode = info_.major_opcode;
buf.Write(&major_opcode);
// minor_opcode
uint8_t minor_opcode = 51;
buf.Write(&minor_opcode);
// length
// Caller fills in length for writes.
Pad(&buf, sizeof(uint16_t));
// window
buf.Write(&window);
// time
buf.Write(&time);
// cursor
buf.Write(&cursor);
// deviceid
buf.Write(&deviceid);
// mode
uint8_t tmp76;
tmp76 = static_cast<uint8_t>(mode);
buf.Write(&tmp76);
// paired_device_mode
uint8_t tmp77;
tmp77 = static_cast<uint8_t>(paired_device_mode);
buf.Write(&tmp77);
// owner_events
uint8_t tmp78;
tmp78 = static_cast<uint8_t>(owner_events);
buf.Write(&tmp78);
// pad0
Pad(&buf, 1);
// mask_len
mask_len = mask.size();
buf.Write(&mask_len);
// mask
DCHECK_EQ(static_cast<size_t>(mask_len), mask.size());
for (auto& mask_elem : mask) {
// mask_elem
buf.Write(&mask_elem);
}
Align(&buf, 4);
return connection_->SendRequest<Input::XIGrabDeviceReply>(
&buf, "Input::XIGrabDevice", false);
}
Future<Input::XIGrabDeviceReply> Input::XIGrabDevice(
const Window& window,
const Time& time,
const Cursor& cursor,
const DeviceId& deviceid,
const GrabMode& mode,
const GrabMode& paired_device_mode,
const GrabOwner& owner_events,
const std::vector<uint32_t>& mask) {
return Input::XIGrabDevice(
Input::XIGrabDeviceRequest{window, time, cursor, deviceid, mode,
paired_device_mode, owner_events, mask});
}
template <>
COMPONENT_EXPORT(X11)
std::unique_ptr<Input::XIGrabDeviceReply> detail::ReadReply<
Input::XIGrabDeviceReply>(ReadBuffer* buffer) {
auto& buf = *buffer;
auto reply = std::make_unique<Input::XIGrabDeviceReply>();
auto& sequence = (*reply).sequence;
auto& status = (*reply).status;
// response_type
uint8_t response_type;
Read(&response_type, &buf);
// pad0
Pad(&buf, 1);
// sequence
Read(&sequence, &buf);
// length
uint32_t length;
Read(&length, &buf);
// status
uint8_t tmp79;
Read(&tmp79, &buf);
status = static_cast<GrabStatus>(tmp79);
// pad1
Pad(&buf, 23);
Align(&buf, 4);
DCHECK_EQ(buf.offset < 32 ? 0 : buf.offset - 32, 4 * length);
return reply;
}
Future<void> Input::XIUngrabDevice(
const Input::XIUngrabDeviceRequest& request) {
if (!connection_->Ready() || !present())
return {};
WriteBuffer buf;
auto& time = request.time;
auto& deviceid = request.deviceid;
// major_opcode
uint8_t major_opcode = info_.major_opcode;
buf.Write(&major_opcode);
// minor_opcode
uint8_t minor_opcode = 52;
buf.Write(&minor_opcode);
// length
// Caller fills in length for writes.
Pad(&buf, sizeof(uint16_t));
// time
buf.Write(&time);
// deviceid
buf.Write(&deviceid);
// pad0
Pad(&buf, 2);
Align(&buf, 4);
return connection_->SendRequest<void>(&buf, "Input::XIUngrabDevice", false);
}
Future<void> Input::XIUngrabDevice(const Time& time, const DeviceId& deviceid) {
return Input::XIUngrabDevice(Input::XIUngrabDeviceRequest{time, deviceid});
}
Future<void> Input::XIAllowEvents(const Input::XIAllowEventsRequest& request) {
if (!connection_->Ready() || !present())
return {};
WriteBuffer buf;
auto& time = request.time;
auto& deviceid = request.deviceid;
auto& event_mode = request.event_mode;
auto& touchid = request.touchid;
auto& grab_window = request.grab_window;
// major_opcode
uint8_t major_opcode = info_.major_opcode;
buf.Write(&major_opcode);
// minor_opcode
uint8_t minor_opcode = 53;
buf.Write(&minor_opcode);
// length
// Caller fills in length for writes.
Pad(&buf, sizeof(uint16_t));
// time
buf.Write(&time);
// deviceid
buf.Write(&deviceid);
// event_mode
uint8_t tmp80;
tmp80 = static_cast<uint8_t>(event_mode);
buf.Write(&tmp80);
// pad0
Pad(&buf, 1);
// touchid
buf.Write(&touchid);
// grab_window
buf.Write(&grab_window);
Align(&buf, 4);
return connection_->SendRequest<void>(&buf, "Input::XIAllowEvents", false);
}
Future<void> Input::XIAllowEvents(const Time& time,
const DeviceId& deviceid,
const EventMode& event_mode,
const uint32_t& touchid,
const Window& grab_window) {
return Input::XIAllowEvents(Input::XIAllowEventsRequest{
time, deviceid, event_mode, touchid, grab_window});
}
Future<Input::XIPassiveGrabDeviceReply> Input::XIPassiveGrabDevice(
const Input::XIPassiveGrabDeviceRequest& request) {
if (!connection_->Ready() || !present())
return {};
WriteBuffer buf;
auto& time = request.time;
auto& grab_window = request.grab_window;
auto& cursor = request.cursor;
auto& detail = request.detail;
auto& deviceid = request.deviceid;
uint16_t num_modifiers{};
uint16_t mask_len{};
auto& grab_type = request.grab_type;
auto& grab_mode = request.grab_mode;
auto& paired_device_mode = request.paired_device_mode;
auto& owner_events = request.owner_events;
auto& mask = request.mask;
auto& modifiers = request.modifiers;
size_t modifiers_len = modifiers.size();
// major_opcode
uint8_t major_opcode = info_.major_opcode;
buf.Write(&major_opcode);
// minor_opcode
uint8_t minor_opcode = 54;
buf.Write(&minor_opcode);
// length
// Caller fills in length for writes.
Pad(&buf, sizeof(uint16_t));
// time
buf.Write(&time);
// grab_window
buf.Write(&grab_window);
// cursor
buf.Write(&cursor);
// detail
buf.Write(&detail);
// deviceid
buf.Write(&deviceid);
// num_modifiers
num_modifiers = modifiers.size();
buf.Write(&num_modifiers);
// mask_len
mask_len = mask.size();
buf.Write(&mask_len);
// grab_type
uint8_t tmp81;
tmp81 = static_cast<uint8_t>(grab_type);
buf.Write(&tmp81);
// grab_mode
uint8_t tmp82;
tmp82 = static_cast<uint8_t>(grab_mode);
buf.Write(&tmp82);
// paired_device_mode
uint8_t tmp83;
tmp83 = static_cast<uint8_t>(paired_device_mode);
buf.Write(&tmp83);
// owner_events
uint8_t tmp84;
tmp84 = static_cast<uint8_t>(owner_events);
buf.Write(&tmp84);
// pad0
Pad(&buf, 2);
// mask
DCHECK_EQ(static_cast<size_t>(mask_len), mask.size());
for (auto& mask_elem : mask) {
// mask_elem
buf.Write(&mask_elem);
}
// modifiers
DCHECK_EQ(static_cast<size_t>(num_modifiers), modifiers.size());
for (auto& modifiers_elem : modifiers) {
// modifiers_elem
buf.Write(&modifiers_elem);
}
Align(&buf, 4);
return connection_->SendRequest<Input::XIPassiveGrabDeviceReply>(
&buf, "Input::XIPassiveGrabDevice", false);
}
Future<Input::XIPassiveGrabDeviceReply> Input::XIPassiveGrabDevice(
const Time& time,
const Window& grab_window,
const Cursor& cursor,
const uint32_t& detail,
const DeviceId& deviceid,
const GrabType& grab_type,
const GrabMode22& grab_mode,
const GrabMode& paired_device_mode,
const GrabOwner& owner_events,
const std::vector<uint32_t>& mask,
const std::vector<uint32_t>& modifiers) {
return Input::XIPassiveGrabDevice(Input::XIPassiveGrabDeviceRequest{
time, grab_window, cursor, detail, deviceid, grab_type, grab_mode,
paired_device_mode, owner_events, mask, modifiers});
}
template <>
COMPONENT_EXPORT(X11)
std::unique_ptr<Input::XIPassiveGrabDeviceReply> detail::ReadReply<
Input::XIPassiveGrabDeviceReply>(ReadBuffer* buffer) {
auto& buf = *buffer;
auto reply = std::make_unique<Input::XIPassiveGrabDeviceReply>();
auto& sequence = (*reply).sequence;
uint16_t num_modifiers{};
auto& modifiers = (*reply).modifiers;
size_t modifiers_len = modifiers.size();
// response_type
uint8_t response_type;
Read(&response_type, &buf);
// pad0
Pad(&buf, 1);
// sequence
Read(&sequence, &buf);
// length
uint32_t length;
Read(&length, &buf);
// num_modifiers
Read(&num_modifiers, &buf);
// pad1
Pad(&buf, 22);
// modifiers
modifiers.resize(num_modifiers);
for (auto& modifiers_elem : modifiers) {
// modifiers_elem
{
auto& modifiers = modifiers_elem.modifiers;
auto& status = modifiers_elem.status;
// modifiers
Read(&modifiers, &buf);
// status
uint8_t tmp85;
Read(&tmp85, &buf);
status = static_cast<GrabStatus>(tmp85);
// pad0
Pad(&buf, 3);
}
}
Align(&buf, 4);
DCHECK_EQ(buf.offset < 32 ? 0 : buf.offset - 32, 4 * length);
return reply;
}
Future<void> Input::XIPassiveUngrabDevice(
const Input::XIPassiveUngrabDeviceRequest& request) {
if (!connection_->Ready() || !present())
return {};
WriteBuffer buf;
auto& grab_window = request.grab_window;
auto& detail = request.detail;
auto& deviceid = request.deviceid;
uint16_t num_modifiers{};
auto& grab_type = request.grab_type;
auto& modifiers = request.modifiers;
size_t modifiers_len = modifiers.size();
// major_opcode
uint8_t major_opcode = info_.major_opcode;
buf.Write(&major_opcode);
// minor_opcode
uint8_t minor_opcode = 55;
buf.Write(&minor_opcode);
// length
// Caller fills in length for writes.
Pad(&buf, sizeof(uint16_t));
// grab_window
buf.Write(&grab_window);
// detail
buf.Write(&detail);
// deviceid
buf.Write(&deviceid);
// num_modifiers
num_modifiers = modifiers.size();
buf.Write(&num_modifiers);
// grab_type
uint8_t tmp86;
tmp86 = static_cast<uint8_t>(grab_type);
buf.Write(&tmp86);
// pad0
Pad(&buf, 3);
// modifiers
DCHECK_EQ(static_cast<size_t>(num_modifiers), modifiers.size());
for (auto& modifiers_elem : modifiers) {
// modifiers_elem
buf.Write(&modifiers_elem);
}
Align(&buf, 4);
return connection_->SendRequest<void>(&buf, "Input::XIPassiveUngrabDevice",
false);
}
Future<void> Input::XIPassiveUngrabDevice(
const Window& grab_window,
const uint32_t& detail,
const DeviceId& deviceid,
const GrabType& grab_type,
const std::vector<uint32_t>& modifiers) {
return Input::XIPassiveUngrabDevice(Input::XIPassiveUngrabDeviceRequest{
grab_window, detail, deviceid, grab_type, modifiers});
}
Future<Input::XIListPropertiesReply> Input::XIListProperties(
const Input::XIListPropertiesRequest& request) {
if (!connection_->Ready() || !present())
return {};
WriteBuffer buf;
auto& deviceid = request.deviceid;
// major_opcode
uint8_t major_opcode = info_.major_opcode;
buf.Write(&major_opcode);
// minor_opcode
uint8_t minor_opcode = 56;
buf.Write(&minor_opcode);
// length
// Caller fills in length for writes.
Pad(&buf, sizeof(uint16_t));
// deviceid
buf.Write(&deviceid);
// pad0
Pad(&buf, 2);
Align(&buf, 4);
return connection_->SendRequest<Input::XIListPropertiesReply>(
&buf, "Input::XIListProperties", false);
}
Future<Input::XIListPropertiesReply> Input::XIListProperties(
const DeviceId& deviceid) {
return Input::XIListProperties(Input::XIListPropertiesRequest{deviceid});
}
template <>
COMPONENT_EXPORT(X11)
std::unique_ptr<Input::XIListPropertiesReply> detail::ReadReply<
Input::XIListPropertiesReply>(ReadBuffer* buffer) {
auto& buf = *buffer;
auto reply = std::make_unique<Input::XIListPropertiesReply>();
auto& sequence = (*reply).sequence;
uint16_t num_properties{};
auto& properties = (*reply).properties;
size_t properties_len = properties.size();
// response_type
uint8_t response_type;
Read(&response_type, &buf);
// pad0
Pad(&buf, 1);
// sequence
Read(&sequence, &buf);
// length
uint32_t length;
Read(&length, &buf);
// num_properties
Read(&num_properties, &buf);
// pad1
Pad(&buf, 22);
// properties
properties.resize(num_properties);
for (auto& properties_elem : properties) {
// properties_elem
Read(&properties_elem, &buf);
}
Align(&buf, 4);
DCHECK_EQ(buf.offset < 32 ? 0 : buf.offset - 32, 4 * length);
return reply;
}
Future<void> Input::XIChangeProperty(
const Input::XIChangePropertyRequest& request) {
if (!connection_->Ready() || !present())
return {};
WriteBuffer buf;
auto& deviceid = request.deviceid;
auto& mode = request.mode;
PropertyFormat format{};
auto& property = request.property;
auto& type = request.type;
auto& num_items = request.num_items;
auto& items = request;
// major_opcode
uint8_t major_opcode = info_.major_opcode;
buf.Write(&major_opcode);
// minor_opcode
uint8_t minor_opcode = 57;
buf.Write(&minor_opcode);
// length
// Caller fills in length for writes.
Pad(&buf, sizeof(uint16_t));
// deviceid
buf.Write(&deviceid);
// mode
uint8_t tmp87;
tmp87 = static_cast<uint8_t>(mode);
buf.Write(&tmp87);
// format
SwitchVar(PropertyFormat::c_8Bits, items.data8.has_value(), false, &format);
SwitchVar(PropertyFormat::c_16Bits, items.data16.has_value(), false, &format);
SwitchVar(PropertyFormat::c_32Bits, items.data32.has_value(), false, &format);
uint8_t tmp88;
tmp88 = static_cast<uint8_t>(format);
buf.Write(&tmp88);
// property
buf.Write(&property);
// type
buf.Write(&type);
// num_items
buf.Write(&num_items);
// items
auto items_expr = format;
if (CaseEq(items_expr, PropertyFormat::c_8Bits)) {
auto& data8 = *items.data8;
size_t data8_len = data8.size();
// data8
DCHECK_EQ(static_cast<size_t>(num_items), data8.size());
for (auto& data8_elem : data8) {
// data8_elem
buf.Write(&data8_elem);
}
// pad0
Align(&buf, 4);
}
if (CaseEq(items_expr, PropertyFormat::c_16Bits)) {
auto& data16 = *items.data16;
size_t data16_len = data16.size();
// data16
DCHECK_EQ(static_cast<size_t>(num_items), data16.size());
for (auto& data16_elem : data16) {
// data16_elem
buf.Write(&data16_elem);
}
// pad1
Align(&buf, 4);
}
if (CaseEq(items_expr, PropertyFormat::c_32Bits)) {
auto& data32 = *items.data32;
size_t data32_len = data32.size();
// data32
DCHECK_EQ(static_cast<size_t>(num_items), data32.size());
for (auto& data32_elem : data32) {
// data32_elem
buf.Write(&data32_elem);
}
}
Align(&buf, 4);
return connection_->SendRequest<void>(&buf, "Input::XIChangeProperty", false);
}
Future<void> Input::XIChangeProperty(
const DeviceId& deviceid,
const PropMode& mode,
const Atom& property,
const Atom& type,
const uint32_t& num_items,
const absl::optional<std::vector<uint8_t>>& data8,
const absl::optional<std::vector<uint16_t>>& data16,
const absl::optional<std::vector<uint32_t>>& data32) {
return Input::XIChangeProperty(Input::XIChangePropertyRequest{
deviceid, mode, property, type, num_items, data8, data16, data32});
}
Future<void> Input::XIDeleteProperty(
const Input::XIDeletePropertyRequest& request) {
if (!connection_->Ready() || !present())
return {};
WriteBuffer buf;
auto& deviceid = request.deviceid;
auto& property = request.property;
// major_opcode
uint8_t major_opcode = info_.major_opcode;
buf.Write(&major_opcode);
// minor_opcode
uint8_t minor_opcode = 58;
buf.Write(&minor_opcode);
// length
// Caller fills in length for writes.
Pad(&buf, sizeof(uint16_t));
// deviceid
buf.Write(&deviceid);
// pad0
Pad(&buf, 2);
// property
buf.Write(&property);
Align(&buf, 4);
return connection_->SendRequest<void>(&buf, "Input::XIDeleteProperty", false);
}
Future<void> Input::XIDeleteProperty(const DeviceId& deviceid,
const Atom& property) {
return Input::XIDeleteProperty(
Input::XIDeletePropertyRequest{deviceid, property});
}
Future<Input::XIGetPropertyReply> Input::XIGetProperty(
const Input::XIGetPropertyRequest& request) {
if (!connection_->Ready() || !present())
return {};
WriteBuffer buf;
auto& deviceid = request.deviceid;
auto& c_delete = request.c_delete;
auto& property = request.property;
auto& type = request.type;
auto& offset = request.offset;
auto& len = request.len;
// major_opcode
uint8_t major_opcode = info_.major_opcode;
buf.Write(&major_opcode);
// minor_opcode
uint8_t minor_opcode = 59;
buf.Write(&minor_opcode);
// length
// Caller fills in length for writes.
Pad(&buf, sizeof(uint16_t));
// deviceid
buf.Write(&deviceid);
// c_delete
buf.Write(&c_delete);
// pad0
Pad(&buf, 1);
// property
buf.Write(&property);
// type
buf.Write(&type);
// offset
buf.Write(&offset);
// len
buf.Write(&len);
Align(&buf, 4);
return connection_->SendRequest<Input::XIGetPropertyReply>(
&buf, "Input::XIGetProperty", false);
}
Future<Input::XIGetPropertyReply> Input::XIGetProperty(const DeviceId& deviceid,
const uint8_t& c_delete,
const Atom& property,
const Atom& type,
const uint32_t& offset,
const uint32_t& len) {
return Input::XIGetProperty(Input::XIGetPropertyRequest{
deviceid, c_delete, property, type, offset, len});
}
template <>
COMPONENT_EXPORT(X11)
std::unique_ptr<Input::XIGetPropertyReply> detail::ReadReply<
Input::XIGetPropertyReply>(ReadBuffer* buffer) {
auto& buf = *buffer;
auto reply = std::make_unique<Input::XIGetPropertyReply>();
auto& sequence = (*reply).sequence;
auto& type = (*reply).type;
auto& bytes_after = (*reply).bytes_after;
auto& num_items = (*reply).num_items;
Input::PropertyFormat format{};
auto& items = (*reply);
// response_type
uint8_t response_type;
Read(&response_type, &buf);
// pad0
Pad(&buf, 1);
// sequence
Read(&sequence, &buf);
// length
uint32_t length;
Read(&length, &buf);
// type
Read(&type, &buf);
// bytes_after
Read(&bytes_after, &buf);
// num_items
Read(&num_items, &buf);
// format
uint8_t tmp89;
Read(&tmp89, &buf);
format = static_cast<Input::PropertyFormat>(tmp89);
// pad1
Pad(&buf, 11);
// items
auto items_expr = format;
if (CaseEq(items_expr, Input::PropertyFormat::c_8Bits)) {
items.data8.emplace();
auto& data8 = *items.data8;
size_t data8_len = data8.size();
// data8
data8.resize(num_items);
for (auto& data8_elem : data8) {
// data8_elem
Read(&data8_elem, &buf);
}
// pad2
Align(&buf, 4);
}
if (CaseEq(items_expr, Input::PropertyFormat::c_16Bits)) {
items.data16.emplace();
auto& data16 = *items.data16;
size_t data16_len = data16.size();
// data16
data16.resize(num_items);
for (auto& data16_elem : data16) {
// data16_elem
Read(&data16_elem, &buf);
}
// pad3
Align(&buf, 4);
}
if (CaseEq(items_expr, Input::PropertyFormat::c_32Bits)) {
items.data32.emplace();
auto& data32 = *items.data32;
size_t data32_len = data32.size();
// data32
data32.resize(num_items);
for (auto& data32_elem : data32) {
// data32_elem
Read(&data32_elem, &buf);
}
}
Align(&buf, 4);
DCHECK_EQ(buf.offset < 32 ? 0 : buf.offset - 32, 4 * length);
return reply;
}
Future<Input::XIGetSelectedEventsReply> Input::XIGetSelectedEvents(
const Input::XIGetSelectedEventsRequest& request) {
if (!connection_->Ready() || !present())
return {};
WriteBuffer buf;
auto& window = request.window;
// major_opcode
uint8_t major_opcode = info_.major_opcode;
buf.Write(&major_opcode);
// minor_opcode
uint8_t minor_opcode = 60;
buf.Write(&minor_opcode);
// length
// Caller fills in length for writes.
Pad(&buf, sizeof(uint16_t));
// window
buf.Write(&window);
Align(&buf, 4);
return connection_->SendRequest<Input::XIGetSelectedEventsReply>(
&buf, "Input::XIGetSelectedEvents", false);
}
Future<Input::XIGetSelectedEventsReply> Input::XIGetSelectedEvents(
const Window& window) {
return Input::XIGetSelectedEvents(Input::XIGetSelectedEventsRequest{window});
}
template <>
COMPONENT_EXPORT(X11)
std::unique_ptr<Input::XIGetSelectedEventsReply> detail::ReadReply<
Input::XIGetSelectedEventsReply>(ReadBuffer* buffer) {
auto& buf = *buffer;
auto reply = std::make_unique<Input::XIGetSelectedEventsReply>();
auto& sequence = (*reply).sequence;
uint16_t num_masks{};
auto& masks = (*reply).masks;
size_t masks_len = masks.size();
// response_type
uint8_t response_type;
Read(&response_type, &buf);
// pad0
Pad(&buf, 1);
// sequence
Read(&sequence, &buf);
// length
uint32_t length;
Read(&length, &buf);
// num_masks
Read(&num_masks, &buf);
// pad1
Pad(&buf, 22);
// masks
masks.resize(num_masks);
for (auto& masks_elem : masks) {
// masks_elem
{
auto& deviceid = masks_elem.deviceid;
uint16_t mask_len{};
auto& mask = masks_elem.mask;
// deviceid
Read(&deviceid, &buf);
// mask_len
Read(&mask_len, &buf);
// mask
mask.resize(mask_len);
for (auto& mask_elem : mask) {
// mask_elem
uint32_t tmp90;
Read(&tmp90, &buf);
mask_elem = static_cast<Input::XIEventMask>(tmp90);
}
}
}
Align(&buf, 4);
DCHECK_EQ(buf.offset < 32 ? 0 : buf.offset - 32, 4 * length);
return reply;
}
Future<void> Input::XIBarrierReleasePointer(
const Input::XIBarrierReleasePointerRequest& request) {
if (!connection_->Ready() || !present())
return {};
WriteBuffer buf;
uint32_t num_barriers{};
auto& barriers = request.barriers;
size_t barriers_len = barriers.size();
// major_opcode
uint8_t major_opcode = info_.major_opcode;
buf.Write(&major_opcode);
// minor_opcode
uint8_t minor_opcode = 61;
buf.Write(&minor_opcode);
// length
// Caller fills in length for writes.
Pad(&buf, sizeof(uint16_t));
// num_barriers
num_barriers = barriers.size();
buf.Write(&num_barriers);
// barriers
DCHECK_EQ(static_cast<size_t>(num_barriers), barriers.size());
for (auto& barriers_elem : barriers) {
// barriers_elem
{
auto& deviceid = barriers_elem.deviceid;
auto& barrier = barriers_elem.barrier;
auto& eventid = barriers_elem.eventid;
// deviceid
buf.Write(&deviceid);
// pad0
Pad(&buf, 2);
// barrier
buf.Write(&barrier);
// eventid
buf.Write(&eventid);
}
}
Align(&buf, 4);
return connection_->SendRequest<void>(&buf, "Input::XIBarrierReleasePointer",
false);
}
Future<void> Input::XIBarrierReleasePointer(
const std::vector<BarrierReleasePointerInfo>& barriers) {
return Input::XIBarrierReleasePointer(
Input::XIBarrierReleasePointerRequest{barriers});
}
Future<void> Input::SendExtensionEvent(
const Input::SendExtensionEventRequest& request) {
if (!connection_->Ready() || !present())
return {};
WriteBuffer buf;
auto& destination = request.destination;
auto& device_id = request.device_id;
auto& propagate = request.propagate;
uint16_t num_classes{};
uint8_t num_events{};
auto& events = request.events;
size_t events_len = events.size();
auto& classes = request.classes;
size_t classes_len = classes.size();
// major_opcode
uint8_t major_opcode = info_.major_opcode;
buf.Write(&major_opcode);
// minor_opcode
uint8_t minor_opcode = 31;
buf.Write(&minor_opcode);
// length
// Caller fills in length for writes.
Pad(&buf, sizeof(uint16_t));
// destination
buf.Write(&destination);
// device_id
buf.Write(&device_id);
// propagate
buf.Write(&propagate);
// num_classes
num_classes = classes.size();
buf.Write(&num_classes);
// num_events
num_events = events.size();
buf.Write(&num_events);
// pad0
Pad(&buf, 3);
// events
DCHECK_EQ(static_cast<size_t>(num_events), events.size());
for (auto& events_elem : events) {
// events_elem
buf.Write(&events_elem);
}
// classes
DCHECK_EQ(static_cast<size_t>(num_classes), classes.size());
for (auto& classes_elem : classes) {
// classes_elem
buf.Write(&classes_elem);
}
Align(&buf, 4);
return connection_->SendRequest<void>(&buf, "Input::SendExtensionEvent",
false);
}
Future<void> Input::SendExtensionEvent(const Window& destination,
const uint8_t& device_id,
const uint8_t& propagate,
const std::vector<EventForSend>& events,
const std::vector<EventClass>& classes) {
return Input::SendExtensionEvent(Input::SendExtensionEventRequest{
destination, device_id, propagate, events, classes});
}
} // namespace x11