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wine/dlls/winebus.sys/hid.c
Rémi Bernon e2936702a4 winebus.sys: Implement SOCD neutral cleaning for hatswitches. 
Wine-Bug: https://bugs.winehq.org/show_bug.cgi?id=52841
Signed-off-by: Rémi Bernon <rbernon@codeweavers.com>
2022-06-13 19:57:31 +02:00

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/*
* Common HID report descriptor helpers
*
* Copyright 2021 Rémi Bernon for CodeWeavers
*
* This library is free software; you can redistribute it and/or
* modify it under the terms of the GNU Lesser General Public
* License as published by the Free Software Foundation; either
* version 2.1 of the License, or (at your option) any later version.
*
* This library is distributed in the hope that it will be useful,
* but WITHOUT ANY WARRANTY; without even the implied warranty of
* MERCHANTABILITY or FITNESS FOR A PARTICULAR PURPOSE. See the GNU
* Lesser General Public License for more details.
*
* You should have received a copy of the GNU Lesser General Public
* License along with this library; if not, write to the Free Software
* Foundation, Inc., 51 Franklin St, Fifth Floor, Boston, MA 02110-1301, USA
*/
#if 0
#pragma makedep unix
#endif
#include <stdarg.h>
#include <stdlib.h>
#include <assert.h>
#include "ntstatus.h"
#define WIN32_NO_STATUS
#include "winternl.h"
#include "winioctl.h"
#include "hidusage.h"
#include "ddk/wdm.h"
#include "ddk/hidsdi.h"
#include "wine/debug.h"
#include "wine/hid.h"
#include "unix_private.h"
WINE_DEFAULT_DEBUG_CHANNEL(hid);
static BOOL hid_report_descriptor_append(struct hid_report_descriptor *desc, const BYTE *buffer, SIZE_T size)
{
BYTE *tmp = desc->data;
if (desc->size + size > desc->max_size)
{
desc->max_size = max(desc->max_size * 3 / 2, desc->size + size);
desc->data = realloc(tmp, desc->max_size);
}
if (!desc->data)
{
free(tmp);
return FALSE;
}
memcpy(desc->data + desc->size, buffer, size);
desc->size += size;
return TRUE;
}
#include "psh_hid_macros.h"
static BOOL hid_report_descriptor_append_usage(struct hid_report_descriptor *desc, USAGE usage)
{
const BYTE template[] =
{
USAGE(2, usage),
};
return hid_report_descriptor_append(desc, template, sizeof(template));
}
static BOOL hid_device_begin_collection(struct hid_report_descriptor *desc, const USAGE_AND_PAGE *usage, BYTE type)
{
const BYTE template[] =
{
USAGE_PAGE(2, usage->UsagePage),
USAGE(2, usage->Usage),
COLLECTION(1, type),
};
return hid_report_descriptor_append(desc, template, sizeof(template));
}
static BOOL hid_device_end_collection(struct hid_report_descriptor *desc)
{
static const BYTE template[] =
{
END_COLLECTION,
};
return hid_report_descriptor_append(desc, template, sizeof(template));
}
BOOL hid_device_begin_report_descriptor(struct unix_device *iface, const USAGE_AND_PAGE *device_usage)
{
struct hid_report_descriptor *desc = &iface->hid_report_descriptor;
memset(desc, 0, sizeof(*desc));
return hid_device_begin_collection(desc, device_usage, Application);
}
BOOL hid_device_end_report_descriptor(struct unix_device *iface)
{
struct hid_report_descriptor *desc = &iface->hid_report_descriptor;
return hid_device_end_collection(desc);
}
BOOL hid_device_begin_input_report(struct unix_device *iface, const USAGE_AND_PAGE *physical_usage)
{
struct hid_report_descriptor *desc = &iface->hid_report_descriptor;
struct hid_device_state *state = &iface->hid_device_state;
const BYTE report_id = ++desc->next_report_id[HidP_Input];
const BYTE template[] =
{
REPORT_ID(1, report_id),
};
if (state->report_len)
{
ERR("input report already created\n");
return FALSE;
}
state->id = report_id;
state->bit_size += 8;
if (!hid_device_begin_collection(desc, physical_usage, Physical))
return FALSE;
return hid_report_descriptor_append(desc, template, sizeof(template));
}
BOOL hid_device_end_input_report(struct unix_device *iface)
{
struct hid_report_descriptor *desc = &iface->hid_report_descriptor;
struct hid_device_state *state = &iface->hid_device_state;
state->report_len = (state->bit_size + 7) / 8;
if (!(state->report_buf = calloc(1, state->report_len))) return FALSE;
if (!(state->last_report_buf = calloc(1, state->report_len))) return FALSE;
state->report_buf[0] = state->id;
state->last_report_buf[0] = state->id;
return hid_device_end_collection(desc);
}
static BOOL hid_device_add_button_count(struct unix_device *iface, BYTE count)
{
USHORT offset = iface->hid_device_state.bit_size / 8;
if ((iface->hid_device_state.bit_size % 8) && !iface->hid_device_state.button_count)
ERR("buttons should start byte aligned, missing padding!\n");
else if (iface->hid_device_state.bit_size + count > 0x80000)
ERR("report size overflow, too many elements!\n");
else
{
if (!iface->hid_device_state.button_count) iface->hid_device_state.button_start = offset;
iface->hid_device_state.button_count += count;
iface->hid_device_state.bit_size += count;
return TRUE;
}
return FALSE;
}
BOOL hid_device_add_buttons(struct unix_device *iface, USAGE usage_page, USAGE usage_min, USAGE usage_max)
{
struct hid_report_descriptor *desc = &iface->hid_report_descriptor;
const USHORT count = usage_max - usage_min + 1;
const BYTE template[] =
{
USAGE_PAGE(2, usage_page),
USAGE_MINIMUM(2, usage_min),
USAGE_MAXIMUM(2, usage_max),
LOGICAL_MINIMUM(1, 0),
LOGICAL_MAXIMUM(1, 1),
REPORT_COUNT(2, count),
REPORT_SIZE(1, 1),
INPUT(1, Data|Var|Abs),
};
const BYTE template_pad[] =
{
REPORT_COUNT(1, 8 - (count % 8)),
REPORT_SIZE(1, 1),
INPUT(1, Cnst|Var|Abs),
};
if (!hid_device_add_button_count(iface, usage_max - usage_min + 1))
return FALSE;
if (!hid_report_descriptor_append(desc, template, sizeof(template)))
return FALSE;
if ((count % 8) && !hid_report_descriptor_append(desc, template_pad, sizeof(template_pad)))
return FALSE;
return TRUE;
}
static BOOL hid_device_add_hatswitch_count(struct unix_device *iface, BYTE count)
{
USHORT offset = iface->hid_device_state.bit_size / 8;
if (iface->hid_device_state.button_count)
ERR("hatswitches should be added before buttons!\n");
else if ((iface->hid_device_state.bit_size % 8))
ERR("hatswitches should be byte aligned, missing padding!\n");
else if (iface->hid_device_state.bit_size + 8 * count > 0x80000)
ERR("report size overflow, too many elements!\n");
else
{
if (!iface->hid_device_state.hatswitch_count) iface->hid_device_state.hatswitch_start = offset;
iface->hid_device_state.hatswitch_count += count;
iface->hid_device_state.bit_size += 8 * count;
return TRUE;
}
return FALSE;
}
BOOL hid_device_add_hatswitch(struct unix_device *iface, INT count)
{
struct hid_report_descriptor *desc = &iface->hid_report_descriptor;
const BYTE template[] =
{
USAGE_PAGE(1, HID_USAGE_PAGE_GENERIC),
USAGE(1, HID_USAGE_GENERIC_HATSWITCH),
LOGICAL_MINIMUM(1, 1),
LOGICAL_MAXIMUM(1, 8),
REPORT_SIZE(1, 8),
REPORT_COUNT(4, count),
UNIT(1, 0x0e /* none */),
INPUT(1, Data|Var|Abs|Null),
};
if (!hid_device_add_hatswitch_count(iface, count))
return FALSE;
return hid_report_descriptor_append(desc, template, sizeof(template));
}
static BOOL hid_device_add_axis_count(struct unix_device *iface, BOOL rel, BYTE count,
USAGE usage_page, const USAGE *usages)
{
struct hid_device_state *state = &iface->hid_device_state;
USHORT i, offset = state->bit_size / 8;
if (!rel && state->rel_axis_count)
ERR("absolute axes should be added before relative axes!\n");
else if (state->button_count || state->hatswitch_count)
ERR("axes should be added before buttons or hatswitches!\n");
else if ((state->bit_size % 8))
ERR("axes should be byte aligned, missing padding!\n");
else if (state->bit_size + 32 * count > 0x80000)
ERR("report size overflow, too many elements!\n");
else if (rel)
{
if (!state->rel_axis_count) state->rel_axis_start = offset;
state->rel_axis_count += count;
state->bit_size += 32 * count;
return TRUE;
}
else
{
if (state->abs_axis_count + count > ARRAY_SIZE(state->abs_axis_usages))
{
ERR("absolute axis usage overflow, too many elements!\n");
return FALSE;
}
for (i = 0; i < count; ++i)
{
state->abs_axis_usages[state->abs_axis_count + i].UsagePage = usage_page;
state->abs_axis_usages[state->abs_axis_count + i].Usage = usages[i];
}
if (!state->abs_axis_count) state->abs_axis_start = offset;
state->abs_axis_count += count;
state->bit_size += 32 * count;
return TRUE;
}
return FALSE;
}
BOOL hid_device_add_axes(struct unix_device *iface, BYTE count, USAGE usage_page,
const USAGE *usages, BOOL rel, LONG min, LONG max)
{
struct hid_report_descriptor *desc = &iface->hid_report_descriptor;
const BYTE template_begin[] =
{
USAGE_PAGE(1, usage_page),
COLLECTION(1, Physical),
};
const BYTE template_end[] =
{
END_COLLECTION,
};
const BYTE template[] =
{
LOGICAL_MINIMUM(4, min),
LOGICAL_MAXIMUM(4, max),
REPORT_SIZE(1, 32),
REPORT_COUNT(1, count),
INPUT(1, Data|Var|(rel ? Rel : Abs)),
};
int i;
if (!hid_device_add_axis_count(iface, rel, count, usage_page, usages))
return FALSE;
if (!hid_report_descriptor_append(desc, template_begin, sizeof(template_begin)))
return FALSE;
for (i = 0; i < count; i++)
{
if (!hid_report_descriptor_append_usage(desc, usages[i]))
return FALSE;
}
if (!hid_report_descriptor_append(desc, template, sizeof(template)))
return FALSE;
if (!hid_report_descriptor_append(desc, template_end, sizeof(template_end)))
return FALSE;
return TRUE;
}
#include "pshpack1.h"
struct hid_haptics_intensity
{
UINT16 rumble_intensity;
UINT16 buzz_intensity;
UINT16 left_intensity;
UINT16 right_intensity;
};
#include "poppack.h"
BOOL hid_device_add_haptics(struct unix_device *iface)
{
struct hid_report_descriptor *desc = &iface->hid_report_descriptor;
const BYTE haptics_features_report = ++desc->next_report_id[HidP_Feature];
const BYTE haptics_intensity_report = ++desc->next_report_id[HidP_Output];
const BYTE haptics_template[] =
{
USAGE_PAGE(2, HID_USAGE_PAGE_HAPTICS),
USAGE(1, HID_USAGE_HAPTICS_SIMPLE_CONTROLLER),
COLLECTION(1, Logical),
REPORT_ID(1, haptics_features_report),
USAGE(1, HID_USAGE_HAPTICS_WAVEFORM_LIST),
COLLECTION(1, NamedArray),
/* ordinal 1 and 2 are reserved for implicit waveforms */
USAGE(4, (HID_USAGE_PAGE_ORDINAL<<16)|3),
REPORT_SIZE(1, 16),
REPORT_COUNT(1, 1),
FEATURE(1, Data|Var|Abs|Null),
END_COLLECTION,
USAGE(1, HID_USAGE_HAPTICS_DURATION_LIST),
COLLECTION(1, NamedArray),
/* ordinal 1 and 2 are reserved for implicit waveforms */
USAGE(4, (HID_USAGE_PAGE_ORDINAL<<16)|3),
REPORT_SIZE(1, 16),
REPORT_COUNT(1, 1),
FEATURE(1, Data|Var|Abs|Null),
END_COLLECTION,
USAGE(1, HID_USAGE_HAPTICS_WAVEFORM_CUTOFF_TIME),
UNIT(2, 0x1001), /* seconds */
UNIT_EXPONENT(1, -3), /* 10^-3 */
LOGICAL_MINIMUM(4, 0x00000000),
LOGICAL_MAXIMUM(4, 0x7fffffff),
REPORT_SIZE(1, 32),
REPORT_COUNT(1, 1),
FEATURE(1, Data|Var|Abs),
/* reset global items */
UNIT(1, 0), /* None */
UNIT_EXPONENT(1, 0),
REPORT_ID(1, haptics_intensity_report),
USAGE(1, HID_USAGE_HAPTICS_INTENSITY),
LOGICAL_MINIMUM(4, 0x00000000),
LOGICAL_MAXIMUM(4, 0x0000ffff),
REPORT_SIZE(1, 16),
REPORT_COUNT(1, 1),
OUTPUT(1, Data|Var|Abs),
END_COLLECTION,
};
const BYTE trigger_template_begin[] =
{
USAGE_PAGE(1, HID_USAGE_PAGE_GENERIC),
COLLECTION(1, Physical),
};
const BYTE trigger_template_end[] =
{
END_COLLECTION,
};
iface->hid_haptics.features_report = haptics_features_report;
iface->hid_haptics.intensity_report = haptics_intensity_report;
iface->hid_haptics.features.rumble.waveform = HID_USAGE_HAPTICS_WAVEFORM_RUMBLE;
iface->hid_haptics.features.rumble.duration = 0;
iface->hid_haptics.features.rumble.cutoff_time_ms = 1000;
iface->hid_haptics.features.buzz.waveform = HID_USAGE_HAPTICS_WAVEFORM_BUZZ;
iface->hid_haptics.features.buzz.duration = 0;
iface->hid_haptics.features.buzz.cutoff_time_ms = 1000;
iface->hid_haptics.features.left.waveform = HID_USAGE_HAPTICS_WAVEFORM_RUMBLE;
iface->hid_haptics.features.left.duration = 0;
iface->hid_haptics.features.left.cutoff_time_ms = 1000;
iface->hid_haptics.features.right.waveform = HID_USAGE_HAPTICS_WAVEFORM_RUMBLE;
iface->hid_haptics.features.right.duration = 0;
iface->hid_haptics.features.right.cutoff_time_ms = 1000;
if (!hid_report_descriptor_append(desc, haptics_template, sizeof(haptics_template)))
return FALSE;
if (!hid_report_descriptor_append(desc, haptics_template, sizeof(haptics_template)))
return FALSE;
if (!hid_report_descriptor_append_usage(desc, HID_USAGE_GENERIC_Z))
return FALSE;
if (!hid_report_descriptor_append(desc, trigger_template_begin, sizeof(trigger_template_begin)))
return FALSE;
if (!hid_report_descriptor_append(desc, haptics_template, sizeof(haptics_template)))
return FALSE;
if (!hid_report_descriptor_append(desc, trigger_template_end, sizeof(trigger_template_end)))
return FALSE;
if (!hid_report_descriptor_append_usage(desc, HID_USAGE_GENERIC_RZ))
return FALSE;
if (!hid_report_descriptor_append(desc, trigger_template_begin, sizeof(trigger_template_begin)))
return FALSE;
if (!hid_report_descriptor_append(desc, haptics_template, sizeof(haptics_template)))
return FALSE;
if (!hid_report_descriptor_append(desc, trigger_template_end, sizeof(trigger_template_end)))
return FALSE;
return TRUE;
}
#include "pshpack1.h"
struct pid_device_control
{
BYTE control_index;
};
static const USAGE pid_device_control_usages[] =
{
0, /* HID nary collection indexes start at 1 */
PID_USAGE_DC_ENABLE_ACTUATORS,
PID_USAGE_DC_DISABLE_ACTUATORS,
PID_USAGE_DC_STOP_ALL_EFFECTS,
PID_USAGE_DC_DEVICE_RESET,
PID_USAGE_DC_DEVICE_PAUSE,
PID_USAGE_DC_DEVICE_CONTINUE,
};
struct pid_device_gain
{
BYTE value;
};
struct pid_effect_control
{
BYTE index;
BYTE control_index;
BYTE iterations;
};
static const USAGE pid_effect_control_usages[] =
{
0, /* HID nary collection indexes start at 1 */
PID_USAGE_OP_EFFECT_START,
PID_USAGE_OP_EFFECT_START_SOLO,
PID_USAGE_OP_EFFECT_STOP,
};
struct pid_effect_update
{
BYTE index;
BYTE type_index;
UINT16 duration;
UINT16 trigger_repeat_interval;
UINT16 sample_period;
UINT16 start_delay;
BYTE gain_percent;
BYTE trigger_button;
BYTE enable_bits;
UINT16 direction[2];
};
struct pid_set_periodic
{
BYTE index;
UINT16 magnitude;
INT16 offset;
UINT16 phase;
UINT16 period;
};
struct pid_set_envelope
{
BYTE index;
UINT16 attack_level;
UINT16 fade_level;
UINT16 attack_time;
UINT16 fade_time;
};
struct pid_set_condition
{
BYTE index;
BYTE condition_index;
INT16 center_point_offset;
INT16 positive_coefficient;
INT16 negative_coefficient;
UINT16 positive_saturation;
UINT16 negative_saturation;
UINT16 dead_band;
};
struct pid_set_constant_force
{
BYTE index;
INT16 magnitude;
};
struct pid_set_ramp_force
{
BYTE index;
INT16 ramp_start;
INT16 ramp_end;
};
struct pid_effect_state
{
BYTE flags;
BYTE index;
};
#include "poppack.h"
static BOOL hid_descriptor_add_set_periodic(struct unix_device *iface)
{
struct hid_report_descriptor *desc = &iface->hid_report_descriptor;
const BYTE report_id = ++desc->next_report_id[HidP_Output];
const BYTE template[] =
{
/* Periodic Report Definition */
USAGE(1, PID_USAGE_SET_PERIODIC_REPORT),
COLLECTION(1, Logical),
REPORT_ID(1, report_id),
USAGE(1, PID_USAGE_EFFECT_BLOCK_INDEX),
LOGICAL_MINIMUM(1, 0),
LOGICAL_MAXIMUM(1, 0x7f),
REPORT_SIZE(1, 8),
REPORT_COUNT(1, 1),
OUTPUT(1, Data|Var|Abs),
USAGE(1, PID_USAGE_MAGNITUDE),
LOGICAL_MINIMUM(1, 0),
LOGICAL_MAXIMUM(2, 0x7fff),
PHYSICAL_MINIMUM(1, 0),
PHYSICAL_MAXIMUM(2, 10000),
REPORT_SIZE(1, 16),
REPORT_COUNT(1, 1),
OUTPUT(1, Data|Var|Abs),
PHYSICAL_MINIMUM(1, 0),
PHYSICAL_MAXIMUM(1, 0),
USAGE(1, PID_USAGE_OFFSET),
LOGICAL_MINIMUM(2, 0x8000),
LOGICAL_MAXIMUM(2, 0x7fff),
PHYSICAL_MINIMUM(2, -10000),
PHYSICAL_MAXIMUM(2, +10000),
REPORT_SIZE(1, 16),
REPORT_COUNT(1, 1),
OUTPUT(1, Data|Var|Abs),
PHYSICAL_MINIMUM(1, 0),
PHYSICAL_MAXIMUM(1, 0),
USAGE(1, PID_USAGE_PHASE),
UNIT(1, 0x14), /* Eng Rot:Angular Pos */
UNIT_EXPONENT(1, -2),
LOGICAL_MINIMUM(1, 0),
LOGICAL_MAXIMUM(4, 36000),
REPORT_SIZE(1, 16),
REPORT_COUNT(1, 1),
OUTPUT(1, Data|Var|Abs),
USAGE(1, PID_USAGE_PERIOD),
UNIT(2, 0x1003), /* Eng Lin:Time */
UNIT_EXPONENT(1, -3), /* 10^-3 */
LOGICAL_MINIMUM(1, 0),
LOGICAL_MAXIMUM(2, 0x7fff),
REPORT_SIZE(1, 16),
REPORT_COUNT(1, 1),
OUTPUT(1, Data|Var|Abs),
UNIT_EXPONENT(1, 0),
UNIT(1, 0), /* None */
END_COLLECTION,
};
iface->hid_physical.set_periodic_report = report_id;
return hid_report_descriptor_append(desc, template, sizeof(template));
}
static BOOL hid_descriptor_add_set_envelope(struct unix_device *iface)
{
struct hid_report_descriptor *desc = &iface->hid_report_descriptor;
const BYTE report_id = ++desc->next_report_id[HidP_Output];
const BYTE template[] =
{
/* Envelope Report Definition */
USAGE(1, PID_USAGE_SET_ENVELOPE_REPORT),
COLLECTION(1, Logical),
REPORT_ID(1, report_id),
USAGE(1, PID_USAGE_EFFECT_BLOCK_INDEX),
LOGICAL_MINIMUM(1, 0),
LOGICAL_MAXIMUM(1, 0x7f),
REPORT_SIZE(1, 8),
REPORT_COUNT(1, 1),
OUTPUT(1, Data|Var|Abs),
USAGE(1, PID_USAGE_ATTACK_LEVEL),
USAGE(1, PID_USAGE_FADE_LEVEL),
LOGICAL_MINIMUM(1, 0),
LOGICAL_MAXIMUM(2, 0x7fff),
PHYSICAL_MINIMUM(1, 0),
PHYSICAL_MAXIMUM(2, 10000),
REPORT_SIZE(1, 16),
REPORT_COUNT(1, 2),
OUTPUT(1, Data|Var|Abs),
PHYSICAL_MINIMUM(1, 0),
PHYSICAL_MAXIMUM(1, 0),
USAGE(1, PID_USAGE_ATTACK_TIME),
USAGE(1, PID_USAGE_FADE_TIME),
UNIT(2, 0x1003), /* Eng Lin:Time */
UNIT_EXPONENT(1, -3),
LOGICAL_MINIMUM(1, 0),
LOGICAL_MAXIMUM(2, 0x7fff),
REPORT_SIZE(1, 16),
REPORT_COUNT(1, 2),
OUTPUT(1, Data|Var|Abs),
PHYSICAL_MAXIMUM(1, 0),
UNIT_EXPONENT(1, 0),
UNIT(1, 0),
END_COLLECTION,
};
iface->hid_physical.set_envelope_report = report_id;
return hid_report_descriptor_append(desc, template, sizeof(template));
}
static BOOL hid_descriptor_add_set_condition(struct unix_device *iface)
{
struct hid_report_descriptor *desc = &iface->hid_report_descriptor;
const BYTE report_id = ++desc->next_report_id[HidP_Output];
const BYTE template[] =
{
/* Condition Report Definition */
USAGE(1, PID_USAGE_SET_CONDITION_REPORT),
COLLECTION(1, Logical),
REPORT_ID(1, report_id),
USAGE(1, PID_USAGE_EFFECT_BLOCK_INDEX),
LOGICAL_MINIMUM(1, 0),
LOGICAL_MAXIMUM(1, 0x7f),
REPORT_SIZE(1, 8),
REPORT_COUNT(1, 1),
OUTPUT(1, Data|Var|Abs),
USAGE(1, PID_USAGE_PARAMETER_BLOCK_OFFSET),
LOGICAL_MINIMUM(1, 0x00),
LOGICAL_MAXIMUM(1, 0x01),
REPORT_SIZE(1, 8),
REPORT_COUNT(1, 1),
OUTPUT(1, Data|Var|Abs),
USAGE(1, PID_USAGE_CP_OFFSET),
USAGE(1, PID_USAGE_POSITIVE_COEFFICIENT),
USAGE(1, PID_USAGE_NEGATIVE_COEFFICIENT),
LOGICAL_MINIMUM(2, 0x8000),
LOGICAL_MAXIMUM(2, 0x7fff),
PHYSICAL_MINIMUM(2, -10000),
PHYSICAL_MAXIMUM(2, +10000),
REPORT_SIZE(1, 16),
REPORT_COUNT(1, 3),
OUTPUT(1, Data|Var|Abs),
PHYSICAL_MINIMUM(1, 0),
PHYSICAL_MAXIMUM(1, 0),
USAGE(1, PID_USAGE_POSITIVE_SATURATION),
USAGE(1, PID_USAGE_NEGATIVE_SATURATION),
USAGE(1, PID_USAGE_DEAD_BAND),
LOGICAL_MINIMUM(1, 0),
LOGICAL_MAXIMUM(4, 0xffff),
PHYSICAL_MINIMUM(1, 0),
PHYSICAL_MAXIMUM(2, +10000),
REPORT_SIZE(1, 16),
REPORT_COUNT(1, 3),
OUTPUT(1, Data|Var|Abs),
PHYSICAL_MINIMUM(1, 0),
PHYSICAL_MAXIMUM(1, 0),
END_COLLECTION,
};
iface->hid_physical.set_condition_report = report_id;
return hid_report_descriptor_append(desc, template, sizeof(template));
}
static BOOL hid_descriptor_add_set_constant_force(struct unix_device *iface)
{
struct hid_report_descriptor *desc = &iface->hid_report_descriptor;
const BYTE report_id = ++desc->next_report_id[HidP_Output];
const BYTE template[] =
{
/* Constant Force Report Definition */
USAGE(1, PID_USAGE_SET_CONSTANT_FORCE_REPORT),
COLLECTION(1, Logical),
REPORT_ID(1, report_id),
USAGE(1, PID_USAGE_EFFECT_BLOCK_INDEX),
LOGICAL_MINIMUM(1, 0),
LOGICAL_MAXIMUM(1, 0x7f),
REPORT_SIZE(1, 8),
REPORT_COUNT(1, 1),
OUTPUT(1, Data|Var|Abs),
USAGE(1, PID_USAGE_MAGNITUDE),
LOGICAL_MINIMUM(2, 0x8000),
LOGICAL_MAXIMUM(2, 0x7fff),
PHYSICAL_MINIMUM(2, -10000),
PHYSICAL_MAXIMUM(2, +10000),
REPORT_SIZE(1, 16),
REPORT_COUNT(1, 1),
OUTPUT(1, Data|Var|Abs),
PHYSICAL_MINIMUM(1, 0),
PHYSICAL_MAXIMUM(1, 0),
END_COLLECTION,
};
iface->hid_physical.set_constant_force_report = report_id;
return hid_report_descriptor_append(desc, template, sizeof(template));
}
static BOOL hid_descriptor_add_set_ramp_force(struct unix_device *iface)
{
struct hid_report_descriptor *desc = &iface->hid_report_descriptor;
const BYTE report_id = ++desc->next_report_id[HidP_Output];
const BYTE template[] =
{
/* Ramp Force Report Definition */
USAGE(1, PID_USAGE_SET_RAMP_FORCE_REPORT),
COLLECTION(1, Logical),
REPORT_ID(1, report_id),
USAGE(1, PID_USAGE_EFFECT_BLOCK_INDEX),
LOGICAL_MINIMUM(1, 0),
LOGICAL_MAXIMUM(1, 0x7f),
REPORT_SIZE(1, 8),
REPORT_COUNT(1, 1),
OUTPUT(1, Data|Var|Abs),
USAGE(1, PID_USAGE_RAMP_START),
USAGE(1, PID_USAGE_RAMP_END),
LOGICAL_MINIMUM(2, 0x8000),
LOGICAL_MAXIMUM(2, 0x7fff),
PHYSICAL_MINIMUM(2, -10000),
PHYSICAL_MAXIMUM(2, +10000),
REPORT_SIZE(1, 16),
REPORT_COUNT(1, 2),
OUTPUT(1, Data|Var|Abs),
PHYSICAL_MINIMUM(1, 0),
PHYSICAL_MAXIMUM(1, 0),
END_COLLECTION,
};
iface->hid_physical.set_ramp_force_report = report_id;
return hid_report_descriptor_append(desc, template, sizeof(template));
}
BOOL hid_device_add_physical(struct unix_device *iface, USAGE *usages, USHORT count)
{
struct hid_report_descriptor *desc = &iface->hid_report_descriptor;
const BYTE device_control_report = ++desc->next_report_id[HidP_Output];
struct hid_device_state *state = &iface->hid_device_state;
const BYTE device_control_header[] =
{
USAGE_PAGE(1, HID_USAGE_PAGE_PID),
USAGE(1, PID_USAGE_DEVICE_CONTROL_REPORT),
COLLECTION(1, Logical),
REPORT_ID(1, device_control_report),
USAGE(1, PID_USAGE_DEVICE_CONTROL),
COLLECTION(1, Logical),
};
const BYTE device_control_footer[] =
{
LOGICAL_MINIMUM(1, 1),
LOGICAL_MAXIMUM(1, 6),
REPORT_SIZE(1, 8),
REPORT_COUNT(1, 1),
OUTPUT(1, Data|Ary|Abs),
END_COLLECTION,
END_COLLECTION,
};
const BYTE device_gain_report = ++desc->next_report_id[HidP_Output];
const BYTE device_gain[] =
{
USAGE_PAGE(1, HID_USAGE_PAGE_PID),
USAGE(1, PID_USAGE_DEVICE_GAIN_REPORT),
COLLECTION(1, Logical),
REPORT_ID(1, device_gain_report),
USAGE(1, PID_USAGE_DEVICE_GAIN),
LOGICAL_MINIMUM(1, 0),
LOGICAL_MAXIMUM(1, 100),
PHYSICAL_MINIMUM(1, 0),
PHYSICAL_MAXIMUM(2, 10000),
REPORT_SIZE(1, 8),
REPORT_COUNT(1, 1),
OUTPUT(1, Data|Var|Abs),
PHYSICAL_MINIMUM(1, 0),
PHYSICAL_MAXIMUM(1, 0),
END_COLLECTION,
};
const BYTE effect_control_report = ++desc->next_report_id[HidP_Output];
const BYTE effect_control_header[] =
{
/* Control effect state */
USAGE(1, PID_USAGE_EFFECT_OPERATION_REPORT),
COLLECTION(1, Logical),
REPORT_ID(1, effect_control_report),
USAGE(1, PID_USAGE_EFFECT_BLOCK_INDEX),
LOGICAL_MINIMUM(1, 0),
LOGICAL_MAXIMUM(1, 0x7f),
REPORT_SIZE(1, 8),
REPORT_COUNT(1, 1),
OUTPUT(1, Data|Var|Abs),
USAGE(1, PID_USAGE_EFFECT_OPERATION),
COLLECTION(1, Logical),
};
const BYTE effect_control_footer[] =
{
LOGICAL_MINIMUM(1, 1),
LOGICAL_MAXIMUM(1, 3),
REPORT_SIZE(1, 8),
REPORT_COUNT(1, 1),
OUTPUT(1, Data|Ary|Abs),
END_COLLECTION,
USAGE(1, PID_USAGE_LOOP_COUNT),
LOGICAL_MINIMUM(1, 0),
LOGICAL_MAXIMUM(2, 0x00ff),
REPORT_SIZE(1, 8),
REPORT_COUNT(1, 1),
OUTPUT(1, Data|Var|Abs),
END_COLLECTION,
};
const BYTE effect_update_report = ++desc->next_report_id[HidP_Output];
const BYTE effect_update_header[] =
{
/* Set effect properties */
USAGE(1, PID_USAGE_SET_EFFECT_REPORT),
COLLECTION(1, Logical),
REPORT_ID(1, effect_update_report),
USAGE(1, PID_USAGE_EFFECT_BLOCK_INDEX),
LOGICAL_MINIMUM(1, 0),
LOGICAL_MAXIMUM(1, 0x7f),
REPORT_SIZE(1, 8),
REPORT_COUNT(1, 1),
OUTPUT(1, Data|Var|Abs),
USAGE(1, PID_USAGE_EFFECT_TYPE),
COLLECTION(1, Logical),
};
const BYTE effect_update_footer[] =
{
LOGICAL_MINIMUM(1, 1),
LOGICAL_MAXIMUM(1, count),
REPORT_SIZE(1, 8),
OUTPUT(1, Data|Ary|Abs),
END_COLLECTION,
USAGE(1, PID_USAGE_DURATION),
USAGE(1, PID_USAGE_TRIGGER_REPEAT_INTERVAL),
USAGE(1, PID_USAGE_SAMPLE_PERIOD),
USAGE(1, PID_USAGE_START_DELAY),
UNIT(2, 0x1003), /* Eng Lin:Time */
UNIT_EXPONENT(1, -3), /* 10^-3 */
LOGICAL_MINIMUM(1, 0),
LOGICAL_MAXIMUM(2, 0x7fff),
REPORT_SIZE(1, 16),
REPORT_COUNT(1, 4),
OUTPUT(1, Data|Var|Abs),
UNIT_EXPONENT(1, 0),
UNIT(1, 0), /* None */
USAGE(1, PID_USAGE_GAIN),
LOGICAL_MINIMUM(1, 0),
LOGICAL_MAXIMUM(1, 100),
REPORT_SIZE(1, 8),
REPORT_COUNT(1, 1),
OUTPUT(1, Data|Var|Abs|Null),
USAGE(1, PID_USAGE_TRIGGER_BUTTON),
LOGICAL_MINIMUM(1, 0),
LOGICAL_MAXIMUM(2, state->button_count),
REPORT_SIZE(1, 8),
REPORT_COUNT(1, 1),
OUTPUT(1, Data|Var|Abs|Null),
USAGE(1, PID_USAGE_AXES_ENABLE),
COLLECTION(1, Logical),
USAGE(4, (state->abs_axis_usages[0].UsagePage<<16)|state->abs_axis_usages[0].Usage),
USAGE(4, (state->abs_axis_usages[1].UsagePage<<16)|state->abs_axis_usages[1].Usage),
LOGICAL_MINIMUM(1, 0),
LOGICAL_MAXIMUM(1, 1),
REPORT_SIZE(1, 1),
REPORT_COUNT(1, 2),
OUTPUT(1, Data|Var|Abs),
END_COLLECTION,
USAGE(1, PID_USAGE_DIRECTION_ENABLE),
REPORT_COUNT(1, 1),
OUTPUT(1, Data|Var|Abs),
REPORT_COUNT(1, 5),
OUTPUT(1, Cnst|Var|Abs), /* 5-bit pad */
USAGE(1, PID_USAGE_DIRECTION),
COLLECTION(1, Logical),
USAGE(4, (HID_USAGE_PAGE_ORDINAL<<16)|1),
USAGE(4, (HID_USAGE_PAGE_ORDINAL<<16)|2),
UNIT(1, 0x14), /* Eng Rot:Angular Pos */
UNIT_EXPONENT(1, -2),
LOGICAL_MINIMUM(1, 0),
LOGICAL_MAXIMUM(4, 36000),
REPORT_SIZE(1, 16),
REPORT_COUNT(1, 2),
OUTPUT(1, Data|Var|Abs),
END_COLLECTION,
UNIT_EXPONENT(1, 0),
UNIT(1, 0), /* None */
END_COLLECTION,
};
const BYTE effect_state_report = ++desc->next_report_id[HidP_Input];
const BYTE effect_state_template[] =
{
/* Report effect state */
USAGE(1, PID_USAGE_STATE_REPORT),
COLLECTION(1, Logical),
REPORT_ID(1, effect_state_report),
USAGE(1, PID_USAGE_DEVICE_PAUSED),
USAGE(1, PID_USAGE_ACTUATORS_ENABLED),
USAGE(1, PID_USAGE_EFFECT_PLAYING),
LOGICAL_MINIMUM(1, 0),
LOGICAL_MAXIMUM(1, 1),
REPORT_SIZE(1, 1),
REPORT_COUNT(1, 8),
INPUT(1, Data|Var|Abs),
USAGE(1, PID_USAGE_EFFECT_BLOCK_INDEX),
LOGICAL_MINIMUM(1, 0),
LOGICAL_MAXIMUM(1, 0x7f),
REPORT_SIZE(1, 8),
REPORT_COUNT(1, 1),
INPUT(1, Data|Var|Abs),
END_COLLECTION,
};
struct hid_effect_state *effect_state = &iface->hid_physical.effect_state;
BOOL periodic = FALSE;
BOOL envelope = FALSE;
BOOL condition = FALSE;
BOOL constant_force = FALSE;
BOOL ramp_force = FALSE;
ULONG i;
if (!hid_report_descriptor_append(desc, device_control_header, sizeof(device_control_header)))
return FALSE;
for (i = 1; i < ARRAY_SIZE(pid_device_control_usages); ++i)
{
if (!hid_report_descriptor_append_usage(desc, pid_device_control_usages[i]))
return FALSE;
}
if (!hid_report_descriptor_append(desc, device_control_footer, sizeof(device_control_footer)))
return FALSE;
if (!hid_report_descriptor_append(desc, device_gain, sizeof(device_gain)))
return FALSE;
if (!hid_report_descriptor_append(desc, effect_control_header, sizeof(effect_control_header)))
return FALSE;
for (i = 1; i < ARRAY_SIZE(pid_effect_control_usages); ++i)
{
if (!hid_report_descriptor_append_usage(desc, pid_effect_control_usages[i]))
return FALSE;
}
if (!hid_report_descriptor_append(desc, effect_control_footer, sizeof(effect_control_footer)))
return FALSE;
if (!hid_report_descriptor_append(desc, effect_update_header, sizeof(effect_update_header)))
return FALSE;
for (i = 0; i < count; ++i)
{
if (!hid_report_descriptor_append_usage(desc, usages[i]))
return FALSE;
}
if (!hid_report_descriptor_append(desc, effect_update_footer, sizeof(effect_update_footer)))
return FALSE;
for (i = 0; i < count; ++i)
{
if (usages[i] == PID_USAGE_ET_SINE ||
usages[i] == PID_USAGE_ET_SQUARE ||
usages[i] == PID_USAGE_ET_TRIANGLE ||
usages[i] == PID_USAGE_ET_SAWTOOTH_UP ||
usages[i] == PID_USAGE_ET_SAWTOOTH_DOWN)
periodic = envelope = TRUE;
if (usages[i] == PID_USAGE_ET_SPRING ||
usages[i] == PID_USAGE_ET_DAMPER ||
usages[i] == PID_USAGE_ET_INERTIA ||
usages[i] == PID_USAGE_ET_FRICTION)
condition = TRUE;
if (usages[i] == PID_USAGE_ET_CONSTANT_FORCE)
envelope = constant_force = TRUE;
if (usages[i] == PID_USAGE_ET_RAMP)
envelope = ramp_force = TRUE;
}
if (periodic && !hid_descriptor_add_set_periodic(iface))
return FALSE;
if (envelope && !hid_descriptor_add_set_envelope(iface))
return FALSE;
if (condition && !hid_descriptor_add_set_condition(iface))
return FALSE;
if (constant_force && !hid_descriptor_add_set_constant_force(iface))
return FALSE;
if (ramp_force && !hid_descriptor_add_set_ramp_force(iface))
return FALSE;
if (!hid_report_descriptor_append(desc, effect_state_template, sizeof(effect_state_template)))
return FALSE;
/* HID nary collection indexes start at 1 */
memcpy(iface->hid_physical.effect_types + 1, usages, count * sizeof(*usages));
iface->hid_physical.device_control_report = device_control_report;
iface->hid_physical.device_gain_report = device_gain_report;
iface->hid_physical.effect_control_report = effect_control_report;
iface->hid_physical.effect_update_report = effect_update_report;
effect_state->id = effect_state_report;
effect_state->report_len = sizeof(struct pid_effect_state) + 1;
if (!(effect_state->report_buf = calloc(1, effect_state->report_len))) return FALSE;
effect_state->report_buf[0] = effect_state->id;
return TRUE;
}
#include "pop_hid_macros.h"
static void hid_device_destroy(struct unix_device *iface)
{
iface->hid_vtbl->destroy(iface);
free(iface->hid_report_descriptor.data);
free(iface->hid_device_state.report_buf);
free(iface->hid_device_state.last_report_buf);
}
static NTSTATUS hid_device_start(struct unix_device *iface)
{
return iface->hid_vtbl->start(iface);
}
static void hid_device_stop(struct unix_device *iface)
{
iface->hid_vtbl->stop(iface);
}
static NTSTATUS hid_device_get_report_descriptor(struct unix_device *iface, BYTE *buffer, UINT length, UINT *out_length)
{
*out_length = iface->hid_report_descriptor.size;
if (length < iface->hid_report_descriptor.size) return STATUS_BUFFER_TOO_SMALL;
memcpy(buffer, iface->hid_report_descriptor.data, iface->hid_report_descriptor.size);
return STATUS_SUCCESS;
}
static void hid_device_set_output_report(struct unix_device *iface, HID_XFER_PACKET *packet, IO_STATUS_BLOCK *io)
{
struct hid_physical *physical = &iface->hid_physical;
struct hid_haptics *haptics = &iface->hid_haptics;
if (packet->reportId == haptics->intensity_report)
{
struct hid_haptics_intensity *report = (struct hid_haptics_intensity *)(packet->reportBuffer + 1);
ULONG duration_ms;
io->Information = sizeof(*report) + 1;
assert(packet->reportBufferLen == io->Information);
if (!report->rumble_intensity && !report->buzz_intensity && !report->left_intensity && !report->right_intensity)
io->Status = iface->hid_vtbl->haptics_stop(iface);
else
{
duration_ms = min(haptics->features.rumble.cutoff_time_ms, haptics->features.buzz.cutoff_time_ms);
duration_ms = min(duration_ms, haptics->features.left.cutoff_time_ms);
duration_ms = min(duration_ms, haptics->features.right.cutoff_time_ms);
io->Status = iface->hid_vtbl->haptics_start(iface, duration_ms, report->rumble_intensity, report->buzz_intensity,
report->left_intensity, report->right_intensity);
}
}
else if (packet->reportId == physical->device_control_report)
{
struct pid_device_control *report = (struct pid_device_control *)(packet->reportBuffer + 1);
USAGE control;
io->Information = sizeof(*report) + 1;
if (packet->reportBufferLen < io->Information)
io->Status = STATUS_BUFFER_TOO_SMALL;
else if (report->control_index >= ARRAY_SIZE(pid_device_control_usages))
io->Status = STATUS_INVALID_PARAMETER;
else if (!(control = pid_device_control_usages[report->control_index]))
io->Status = STATUS_INVALID_PARAMETER;
else
{
io->Status = iface->hid_vtbl->physical_device_control(iface, control);
if (control == PID_USAGE_DC_DEVICE_RESET && io->Status == STATUS_SUCCESS)
memset(physical->effect_params, 0, sizeof(physical->effect_params));
}
}
else if (packet->reportId == physical->device_gain_report)
{
struct pid_device_gain *report = (struct pid_device_gain *)(packet->reportBuffer + 1);
io->Information = sizeof(*report) + 1;
if (packet->reportBufferLen < io->Information)
io->Status = STATUS_BUFFER_TOO_SMALL;
else
io->Status = iface->hid_vtbl->physical_device_set_gain(iface, report->value);
}
else if (packet->reportId == physical->effect_control_report)
{
struct pid_effect_control *report = (struct pid_effect_control *)(packet->reportBuffer + 1);
USAGE control;
io->Information = sizeof(*report) + 1;
if (packet->reportBufferLen < io->Information)
io->Status = STATUS_BUFFER_TOO_SMALL;
else if (report->control_index >= ARRAY_SIZE(pid_effect_control_usages))
io->Status = STATUS_INVALID_PARAMETER;
else if (!(control = pid_effect_control_usages[report->control_index]))
io->Status = STATUS_INVALID_PARAMETER;
else
io->Status = iface->hid_vtbl->physical_effect_control(iface, report->index, control, report->iterations);
}
else if (packet->reportId == physical->effect_update_report)
{
struct pid_effect_update *report = (struct pid_effect_update *)(packet->reportBuffer + 1);
struct effect_params *params = iface->hid_physical.effect_params + report->index;
USAGE effect_type;
io->Information = sizeof(*report) + 1;
if (packet->reportBufferLen < io->Information)
io->Status = STATUS_BUFFER_TOO_SMALL;
else if (report->type_index >= ARRAY_SIZE(iface->hid_physical.effect_types))
io->Status = STATUS_INVALID_PARAMETER;
else if (!(effect_type = iface->hid_physical.effect_types[report->type_index]))
io->Status = STATUS_INVALID_PARAMETER;
else
{
params->effect_type = effect_type;
params->duration = report->duration;
params->trigger_repeat_interval = report->trigger_repeat_interval;
params->sample_period = report->sample_period;
params->start_delay = report->start_delay;
params->gain_percent = report->gain_percent;
params->trigger_button = report->trigger_button == 0xff ? 0 : report->trigger_button;
params->axis_enabled[0] = (report->enable_bits & 1) != 0;
params->axis_enabled[1] = (report->enable_bits & 2) != 0;
params->direction_enabled = (report->enable_bits & 4) != 0;
params->direction[0] = report->direction[0];
params->direction[1] = report->direction[1];
io->Status = iface->hid_vtbl->physical_effect_update(iface, report->index, params);
}
}
else if (packet->reportId == physical->set_periodic_report)
{
struct pid_set_periodic *report = (struct pid_set_periodic *)(packet->reportBuffer + 1);
struct effect_params *params = iface->hid_physical.effect_params + report->index;
io->Information = sizeof(*report) + 1;
if (packet->reportBufferLen < io->Information)
io->Status = STATUS_BUFFER_TOO_SMALL;
else
{
params->periodic.magnitude = report->magnitude;
params->periodic.offset = report->offset;
params->periodic.phase = report->phase;
params->periodic.period = report->period;
io->Status = iface->hid_vtbl->physical_effect_update(iface, report->index, params);
}
}
else if (packet->reportId == physical->set_envelope_report)
{
struct pid_set_envelope *report = (struct pid_set_envelope *)(packet->reportBuffer + 1);
struct effect_params *params = iface->hid_physical.effect_params + report->index;
io->Information = sizeof(*report) + 1;
if (packet->reportBufferLen < io->Information)
io->Status = STATUS_BUFFER_TOO_SMALL;
else
{
params->envelope.attack_level = report->attack_level;
params->envelope.fade_level = report->fade_level;
params->envelope.attack_time = report->attack_time;
params->envelope.fade_time = report->fade_time;
io->Status = iface->hid_vtbl->physical_effect_update(iface, report->index, params);
}
}
else if (packet->reportId == physical->set_condition_report)
{
struct pid_set_condition *report = (struct pid_set_condition *)(packet->reportBuffer + 1);
struct effect_params *params = iface->hid_physical.effect_params + report->index;
struct effect_condition *condition;
UINT index;
io->Information = sizeof(*report) + 1;
if (packet->reportBufferLen < io->Information)
io->Status = STATUS_BUFFER_TOO_SMALL;
else if ((index = report->condition_index) >= ARRAY_SIZE(params->condition))
io->Status = STATUS_INVALID_PARAMETER;
else
{
if (params->condition_count <= index) params->condition_count = index + 1;
condition = params->condition + index;
condition->center_point_offset = report->center_point_offset;
condition->positive_coefficient = report->positive_coefficient;
condition->negative_coefficient = report->negative_coefficient;
condition->positive_saturation = report->positive_saturation;
condition->negative_saturation = report->negative_saturation;
condition->dead_band = report->dead_band;
io->Status = iface->hid_vtbl->physical_effect_update(iface, report->index, params);
}
}
else if (packet->reportId == physical->set_constant_force_report)
{
struct pid_set_constant_force *report = (struct pid_set_constant_force *)(packet->reportBuffer + 1);
struct effect_params *params = iface->hid_physical.effect_params + report->index;
io->Information = sizeof(*report) + 1;
if (packet->reportBufferLen < io->Information)
io->Status = STATUS_BUFFER_TOO_SMALL;
else
{
params->constant_force.magnitude = report->magnitude;
io->Status = iface->hid_vtbl->physical_effect_update(iface, report->index, params);
}
}
else if (packet->reportId == physical->set_ramp_force_report)
{
struct pid_set_ramp_force *report = (struct pid_set_ramp_force *)(packet->reportBuffer + 1);
struct effect_params *params = iface->hid_physical.effect_params + report->index;
io->Information = sizeof(*report) + 1;
if (packet->reportBufferLen < io->Information)
io->Status = STATUS_BUFFER_TOO_SMALL;
else
{
params->ramp_force.ramp_start = report->ramp_start;
params->ramp_force.ramp_end = report->ramp_end;
io->Status = iface->hid_vtbl->physical_effect_update(iface, report->index, params);
}
}
else
{
io->Information = 0;
io->Status = STATUS_NOT_IMPLEMENTED;
}
}
static void hid_device_get_feature_report(struct unix_device *iface, HID_XFER_PACKET *packet, IO_STATUS_BLOCK *io)
{
struct hid_haptics *haptics = &iface->hid_haptics;
if (packet->reportId == haptics->features_report)
{
struct hid_haptics_features *features = (struct hid_haptics_features *)(packet->reportBuffer + 1);
io->Information = sizeof(*features) + 1;
assert(packet->reportBufferLen == io->Information);
*features = haptics->features;
io->Status = STATUS_SUCCESS;
}
else
{
io->Information = 0;
io->Status = STATUS_NOT_IMPLEMENTED;
}
}
static void hid_device_set_feature_report(struct unix_device *iface, HID_XFER_PACKET *packet, IO_STATUS_BLOCK *io)
{
struct hid_haptics *haptics = &iface->hid_haptics;
if (packet->reportId == haptics->features_report)
{
struct hid_haptics_features *features = (struct hid_haptics_features *)(packet->reportBuffer + 1);
io->Information = sizeof(*features) + 1;
assert(packet->reportBufferLen == io->Information);
haptics->features.rumble.cutoff_time_ms = features->rumble.cutoff_time_ms;
haptics->features.buzz.cutoff_time_ms = features->buzz.cutoff_time_ms;
haptics->features.left.cutoff_time_ms = features->left.cutoff_time_ms;
haptics->features.right.cutoff_time_ms = features->right.cutoff_time_ms;
io->Status = STATUS_SUCCESS;
}
else
{
io->Information = 0;
io->Status = STATUS_NOT_IMPLEMENTED;
}
}
static const struct raw_device_vtbl raw_device_vtbl =
{
hid_device_destroy,
hid_device_start,
hid_device_stop,
hid_device_get_report_descriptor,
hid_device_set_output_report,
hid_device_get_feature_report,
hid_device_set_feature_report,
};
void *hid_device_create(const struct hid_device_vtbl *vtbl, SIZE_T size)
{
struct unix_device *impl;
if (!(impl = raw_device_create(&raw_device_vtbl, size))) return NULL;
impl->hid_vtbl = vtbl;
return impl;
}
#ifdef WORDS_BIGENDIAN
# define LE_ULONG(x) RtlUlongByteSwap((ULONG)(x))
#else
# define LE_ULONG(x) ((ULONG)(x))
#endif
BOOL hid_device_set_abs_axis(struct unix_device *iface, ULONG index, LONG value)
{
struct hid_device_state *state = &iface->hid_device_state;
ULONG offset = state->abs_axis_start + index * 4;
if (index > state->abs_axis_count) return FALSE;
*(ULONG *)(state->report_buf + offset) = LE_ULONG(value);
return TRUE;
}
BOOL hid_device_set_rel_axis(struct unix_device *iface, ULONG index, LONG value)
{
struct hid_device_state *state = &iface->hid_device_state;
ULONG offset = state->rel_axis_start + index * 4;
if (index > state->rel_axis_count) return FALSE;
*(ULONG *)(state->report_buf + offset) = LE_ULONG(value);
return TRUE;
}
BOOL hid_device_set_button(struct unix_device *iface, ULONG index, BOOL is_set)
{
struct hid_device_state *state = &iface->hid_device_state;
ULONG offset = state->button_start + (index / 8);
BYTE mask = (1 << (index % 8));
if (index > state->button_count) return FALSE;
if (is_set) state->report_buf[offset] |= mask;
else state->report_buf[offset] &= ~mask;
return TRUE;
}
/* hatswitch x / y vs value:
* -1 x +1
* +-------->
* -1 | 8 1 2
* y | 7 0 3
* +1 | 6 5 4
* v
*/
static void hatswitch_decompose(BYTE value, LONG *x, LONG *y)
{
*x = *y = 0;
if (value == 8 || value == 1 || value == 2) *y = -1;
if (value == 6 || value == 5 || value == 4) *y = +1;
if (value == 8 || value == 7 || value == 6) *x = -1;
if (value == 2 || value == 3 || value == 4) *x = +1;
}
static void hatswitch_compose(LONG x, LONG y, BYTE *value)
{
if (x == 0 && y == 0) *value = 0;
else if (x == 0 && y < 0) *value = 1;
else if (x > 0 && y < 0) *value = 2;
else if (x > 0 && y == 0) *value = 3;
else if (x > 0 && y > 0) *value = 4;
else if (x == 0 && y > 0) *value = 5;
else if (x < 0 && y > 0) *value = 6;
else if (x < 0 && y == 0) *value = 7;
else if (x < 0 && y < 0) *value = 8;
}
BOOL hid_device_set_hatswitch_x(struct unix_device *iface, ULONG index, LONG new_x)
{
struct hid_device_state *state = &iface->hid_device_state;
ULONG offset = state->hatswitch_start + index;
LONG x, y;
if (index > state->hatswitch_count) return FALSE;
hatswitch_decompose(state->report_buf[offset], &x, &y);
hatswitch_compose(new_x, y, &state->report_buf[offset]);
return TRUE;
}
BOOL hid_device_set_hatswitch_y(struct unix_device *iface, ULONG index, LONG new_y)
{
struct hid_device_state *state = &iface->hid_device_state;
ULONG offset = state->hatswitch_start + index;
LONG x, y;
if (index > state->hatswitch_count) return FALSE;
hatswitch_decompose(state->report_buf[offset], &x, &y);
hatswitch_compose(x, new_y, &state->report_buf[offset]);
return TRUE;
}
BOOL hid_device_move_hatswitch(struct unix_device *iface, ULONG index, LONG x, LONG y)
{
struct hid_device_state *state = &iface->hid_device_state;
ULONG offset = state->hatswitch_start + index;
LONG old_x, old_y;
if (index > state->hatswitch_count) return FALSE;
hatswitch_decompose(state->report_buf[offset], &old_x, &old_y);
hatswitch_compose(old_x + x, old_y + y, &state->report_buf[offset]);
return TRUE;
}
BOOL hid_device_sync_report(struct unix_device *iface)
{
BOOL dropped;
if (!(dropped = iface->hid_device_state.dropped))
memcpy(iface->hid_device_state.last_report_buf, iface->hid_device_state.report_buf,
iface->hid_device_state.report_len);
else
memcpy(iface->hid_device_state.report_buf, iface->hid_device_state.last_report_buf,
iface->hid_device_state.report_len);
iface->hid_device_state.dropped = FALSE;
return !dropped;
}
void hid_device_drop_report(struct unix_device *iface)
{
iface->hid_device_state.dropped = TRUE;
}
void hid_device_set_effect_state(struct unix_device *iface, BYTE index, BYTE flags)
{
struct hid_effect_state *state = &iface->hid_physical.effect_state;
struct pid_effect_state *report = (struct pid_effect_state *)(state->report_buf + 1);
report->index = index;
report->flags = flags;
}
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