mirror/OpenRGB
1
0 Fork 0
mirror of https://github.com/CalcProgrammer1/OpenRGB.git synced 2026-09-13 13:47:02 -04:00
Code Issues Packages Projects Releases Wiki Activity
Files
fd1bc449ae50eb549a0472efaf72cb33ccef28ab
OpenRGB/Controllers/LogitechController/LogitechHIDPP20Controller/RGBController_LogitechHIDPP20.cpp
T

3275 lines
134 KiB
C++
Raw Blame History

/*---------------------------------------------------------*\
| RGBController_LogitechHIDPP20.cpp |
| |
| RGBController for unified Logitech HID++ 2.0 devices |
| |
| This file is part of the OpenRGB project |
| SPDX-License-Identifier: GPL-2.0-or-later |
\*---------------------------------------------------------*/
#include <map>
#include <set>
#include <algorithm>
#include <functional>
#include "RGBController_LogitechHIDPP20.h"
#include "RGBControllerKeyNames.h"
#include "KeyboardLayoutManager.h"
#include "LogitechHIDPP20IdleSettings.h"
#include "LogManager.h"
/*---------------------------------------------------------*\
| Sentinel for "this LED's last write didn't ACK". |
| Stored in sent_colors[i] to force the next frame to |
| re-push the LED regardless of color delta. The high byte |
| 0xFF is unreachable from any ToRGBColor(r,g,b) value |
| (those have high byte 0), so the sentinel never collides |
| with a real color including black (0x00000000) or |
| white (0x00FFFFFF). |
\*---------------------------------------------------------*/
static constexpr RGBColor HIDPP20_UNCOMMITTED = 0xFF000000;
/*---------------------------------------------------------*\
| Effect period range, in milliseconds. Matches the |
| 1000..20000ms range Logitech firmware tests against and |
| the vendor app clamps to in observed wire captures. |
| Out-of-band values can |
| produce flashy / invisible animations on real hardware, |
| so the slider stays clamped here on our side. |
\*---------------------------------------------------------*/
static const uint16_t HIDPP20_PERIOD_MIN_MS = 1000;
static const uint16_t HIDPP20_PERIOD_MAX_MS = 20000;
/*---------------------------------------------------------*\
| Ripple has its own narrower, much faster period range. |
| Values taken from G915's LOGITECH_G915_SPEED_RIPPLE_* |
| constants: 2ms..200ms. A ripple feels right when quick; |
| using the breathing range (1..20s) makes it invisible. |
\*---------------------------------------------------------*/
static const uint16_t HIDPP20_RIPPLE_PERIOD_MIN_MS = 2;
static const uint16_t HIDPP20_RIPPLE_PERIOD_MAX_MS = 200;
/*---------------------------------------------------------*\
| Speed slider range presented to the user. 1..100 matches |
| our brightness convention. Higher = faster animation, |
| inverted on the wire because lower period = faster cycle. |
\*---------------------------------------------------------*/
static const int HIDPP20_SPEED_SLIDER_MIN = 1;
static const int HIDPP20_SPEED_SLIDER_MAX = 100;
static uint16_t SliderToPeriodMs(int slider, uint16_t period_min_ms, uint16_t period_max_ms)
{
if(slider <= HIDPP20_SPEED_SLIDER_MIN) return period_max_ms;
if(slider >= HIDPP20_SPEED_SLIDER_MAX) return period_min_ms;
const int period_range = period_max_ms - period_min_ms;
const int slider_range = HIDPP20_SPEED_SLIDER_MAX - HIDPP20_SPEED_SLIDER_MIN;
return (uint16_t)(period_max_ms
- ((slider - HIDPP20_SPEED_SLIDER_MIN) * period_range) / slider_range);
}
static uint16_t SpeedSliderToPeriodMs(int slider)
{
return SliderToPeriodMs(slider, HIDPP20_PERIOD_MIN_MS, HIDPP20_PERIOD_MAX_MS);
}
static uint16_t RippleSpeedSliderToPeriodMs(int slider)
{
return SliderToPeriodMs(slider, HIDPP20_RIPPLE_PERIOD_MIN_MS, HIDPP20_RIPPLE_PERIOD_MAX_MS);
}
/*---------------------------------------------------------*\
| Color Wave 0x0016 carries a direction byte. Map OpenRGB's |
| 6 direction slots onto the Logitech wire values (Solaar |
| LedDirectionChoices). Logitech defines 8 directions; the |
| G515 uses 6 of them, which line up 1:1 with OpenRGB's set |
| (In / Out are not exposed on this keyboard). |
\*---------------------------------------------------------*/
static uint8_t WaveDirectionToWire(unsigned int dir)
{
switch(dir)
{
case MODE_DIRECTION_LEFT: return 6; /* Left */
case MODE_DIRECTION_RIGHT: return 1; /* Right */
case MODE_DIRECTION_UP: return 7; /* Up */
case MODE_DIRECTION_DOWN: return 2; /* Down */
case MODE_DIRECTION_HORIZONTAL: return 3; /* Center Out */
case MODE_DIRECTION_VERTICAL: return 8; /* Center In */
default: return 1; /* Right */
}
}
/**------------------------------------------------------------------*\
@name Logitech HID++ 2.0
@category Keyboard,Mouse,Headset
@type USB
@save :x:
@direct :white_check_mark:
@effects :white_check_mark:
@detectors DetectLogitechHIDPP20
@comment
Unified HID++ 2.0 controller that dynamically discovers device
capabilities via feature probing. Supports per-key lighting
(0x8081/0x8080) and zone-based effects (0x8071/0x8070).
\*-------------------------------------------------------------------*/
static const char* zone_location_name(uint16_t location)
{
switch(location)
{
case 0x0001: return "Primary";
case 0x0002: return "Logo";
case 0x0003: return "Left Side";
case 0x0004: return "Right Side";
case 0x0005: return "Combined";
case 0x0006: return "Primary 1";
case 0x0007: return "Primary 2";
case 0x0008: return "Primary 3";
case 0x0009: return "Primary 4";
case 0x000A: return "Primary 5";
case 0x000B: return "Primary 6";
default:
{
static char buf[16];
snprintf(buf, sizeof(buf), "Zone 0x%04X", location);
return buf;
}
}
}
/*---------------------------------------------------------*\
| Speakers report the generic location codes but the lamps |
| are front and rear per satellite. |
\*---------------------------------------------------------*/
static const char* speaker_zone_location_name(uint16_t location)
{
switch(location)
{
case 0x0001: return "Left Front";
case 0x0002: return "Right Front";
case 0x0003: return "Left Rear";
case 0x0004: return "Right Rear";
default: return zone_location_name(location);
}
}
/*---------------------------------------------------------*\
| HID++ per-key zone ID to OpenRGB key name mapping |
| Zone IDs follow Solaar's KEYCODES (special_keys.py) |
| Used to look up zone IDs by key name after KLM builds |
| the keymap in its own sorted order. |
\*---------------------------------------------------------*/
static const std::map<std::string, unsigned int> hidpp20_key_name_to_zone =
{
{ KEY_EN_A, 1 },
{ KEY_EN_B, 2 },
{ KEY_EN_C, 3 },
{ KEY_EN_D, 4 },
{ KEY_EN_E, 5 },
{ KEY_EN_F, 6 },
{ KEY_EN_G, 7 },
{ KEY_EN_H, 8 },
{ KEY_EN_I, 9 },
{ KEY_EN_J, 10 },
{ KEY_EN_K, 11 },
{ KEY_EN_L, 12 },
{ KEY_EN_M, 13 },
{ KEY_EN_N, 14 },
{ KEY_EN_O, 15 },
{ KEY_EN_P, 16 },
{ KEY_EN_Q, 17 },
{ KEY_EN_R, 18 },
{ KEY_EN_S, 19 },
{ KEY_EN_T, 20 },
{ KEY_EN_U, 21 },
{ KEY_EN_V, 22 },
{ KEY_EN_W, 23 },
{ KEY_EN_X, 24 },
{ KEY_EN_Y, 25 },
{ KEY_EN_Z, 26 },
{ KEY_EN_1, 27 },
{ KEY_EN_2, 28 },
{ KEY_EN_3, 29 },
{ KEY_EN_4, 30 },
{ KEY_EN_5, 31 },
{ KEY_EN_6, 32 },
{ KEY_EN_7, 33 },
{ KEY_EN_8, 34 },
{ KEY_EN_9, 35 },
{ KEY_EN_0, 36 },
{ KEY_EN_ANSI_ENTER, 37 },
{ KEY_EN_ESCAPE, 38 },
{ KEY_EN_BACKSPACE, 39 },
{ KEY_EN_TAB, 40 },
{ KEY_EN_SPACE, 41 },
{ KEY_EN_MINUS, 42 },
{ KEY_EN_EQUALS, 43 },
{ KEY_EN_LEFT_BRACKET, 44 },
{ KEY_EN_RIGHT_BRACKET, 45 },
{ KEY_EN_ANSI_BACK_SLASH, 46 }, /* ANSI only; ISO/JIS use 47 + 97 */
{ KEY_EN_POUND, 47 }, /* ISO/JIS POUND (#/ row 3 col 12) */
{ KEY_EN_ISO_BACK_SLASH, 97 }, /* ISO/JIS extra key (row 4 col 1) */
{ KEY_EN_SEMICOLON, 48 },
{ KEY_EN_QUOTE, 49 },
{ KEY_EN_BACK_TICK, 50 },
{ KEY_EN_COMMA, 51 },
{ KEY_EN_PERIOD, 52 },
{ KEY_EN_FORWARD_SLASH, 53 },
{ KEY_EN_CAPS_LOCK, 54 },
{ KEY_EN_F1, 55 },
{ KEY_EN_F2, 56 },
{ KEY_EN_F3, 57 },
{ KEY_EN_F4, 58 },
{ KEY_EN_F5, 59 },
{ KEY_EN_F6, 60 },
{ KEY_EN_F7, 61 },
{ KEY_EN_F8, 62 },
{ KEY_EN_F9, 63 },
{ KEY_EN_F10, 64 },
{ KEY_EN_F11, 65 },
{ KEY_EN_F12, 66 },
{ KEY_EN_PRINT_SCREEN, 67 },
{ KEY_EN_SCROLL_LOCK, 68 },
{ KEY_EN_PAUSE_BREAK, 69 },
{ KEY_EN_INSERT, 70 },
{ KEY_EN_HOME, 71 },
{ KEY_EN_PAGE_UP, 72 },
{ KEY_EN_DELETE, 73 },
{ KEY_EN_END, 74 },
{ KEY_EN_PAGE_DOWN, 75 },
{ KEY_EN_RIGHT_ARROW, 76 },
{ KEY_EN_LEFT_ARROW, 77 },
{ KEY_EN_DOWN_ARROW, 78 },
{ KEY_EN_UP_ARROW, 79 },
{ KEY_EN_RIGHT_FUNCTION, 111 },
{ KEY_EN_MENU, 98 },
/*-----------------------------------------------------*\
| Positions 99-103, decoded from the enumeration's |
| correspondence with USB HID usages (zone = usage - 3; |
| the legacy G915 table carries the raw usages, Solaar |
| names 99 POWER). No current board stuffs them, so |
| they classify as known-but-unstuffed, not unknown. |
\*-----------------------------------------------------*/
{ KEY_EN_POWER, 99 },
{ KEY_EN_NUMPAD_EQUAL, 100 },
{ KEY_EN_F13, 101 },
{ KEY_EN_F14, 102 },
{ KEY_EN_F15, 103 },
/*-----------------------------------------------------*\
| Numpad zones (Solaar KEYCODES 80-96). |
| Required for any full-size HID++ keyboard. |
\*-----------------------------------------------------*/
{ KEY_EN_NUMPAD_LOCK, 80 },
{ KEY_EN_NUMPAD_DIVIDE, 81 },
{ KEY_EN_NUMPAD_TIMES, 82 },
{ KEY_EN_NUMPAD_MINUS, 83 },
{ KEY_EN_NUMPAD_PLUS, 84 },
{ KEY_EN_NUMPAD_ENTER, 85 },
{ KEY_EN_NUMPAD_1, 86 },
{ KEY_EN_NUMPAD_2, 87 },
{ KEY_EN_NUMPAD_3, 88 },
{ KEY_EN_NUMPAD_4, 89 },
{ KEY_EN_NUMPAD_5, 90 },
{ KEY_EN_NUMPAD_6, 91 },
{ KEY_EN_NUMPAD_7, 92 },
{ KEY_EN_NUMPAD_8, 93 },
{ KEY_EN_NUMPAD_9, 94 },
{ KEY_EN_NUMPAD_0, 95 },
{ KEY_EN_NUMPAD_PERIOD, 96 },
{ KEY_EN_LEFT_CONTROL, 104 },
{ KEY_EN_LEFT_SHIFT, 105 },
{ KEY_EN_LEFT_ALT, 106 },
{ KEY_EN_LEFT_WINDOWS, 107 },
{ KEY_EN_RIGHT_CONTROL, 108 },
{ KEY_EN_RIGHT_SHIFT, 109 },
{ KEY_EN_RIGHT_ALT, 110 },
{ KEY_EN_RIGHT_WINDOWS, 111 },
/*-----------------------------------------------------*\
| G915 (and similar) out-of-KLM LEDs. |
| Zone IDs from Solaar KEYCODES. Names match the legacy |
| G915 controller so existing users don't see their LED |
| labels change when they move onto the unified driver. |
\*-----------------------------------------------------*/
{ "Key: Brightness", 153 },
{ KEY_EN_MEDIA_PLAY_PAUSE, 155 },
{ KEY_EN_MEDIA_MUTE, 156 },
{ KEY_EN_MEDIA_NEXT, 157 },
{ KEY_EN_MEDIA_PREVIOUS, 158 },
{ "Key: G1", 180 },
{ "Key: G2", 181 },
{ "Key: G3", 182 },
{ "Key: G4", 183 },
{ "Key: G5", 184 },
{ "Logo", 210 },
};
/*---------------------------------------------------------*\
| Named extras: real positions on G-boards that no KLM |
| layout places (media strip, G-keys, logo). Zone-keyed, |
| but the numbering is board-specific, the PRO X RAPID |
| renumbered brightness/play/next to 150/152/154, so the |
| same label may sit at a different id on another board. |
\*---------------------------------------------------------*/
static const std::map<uint16_t, std::string> hidpp20_extras_names =
{
{ 150, "Brightness" }, /* PRO X RAPID renumbering */
{ 152, "Media Play/Pause" }, /* PRO X RAPID renumbering */
{ 153, "Brightness" },
{ 154, "Media Next" }, /* PRO X RAPID renumbering */
{ 155, "Media Play/Pause" },
{ 156, "Media Mute" },
{ 157, "Media Next" },
{ 158, "Media Previous" },
{ 180, "G1" },
{ 181, "G2" },
{ 182, "G3" },
{ 183, "G4" },
{ 184, "G5" },
{ 185, "G6" },
{ 186, "G7" },
{ 187, "G8" },
{ 188, "G9" },
{ 210, "Logo" },
};
/*---------------------------------------------------------*\
| What key does the enumeration define at this position? |
| The firmware reports a superset and the board stuffs a |
| subset; a defined-but-unclaimed position is unstuffed |
| (ISO keys on ANSI, numpad on TKL, F13-F15/Power), not |
| unknown. "" = not defined at all. |
\*---------------------------------------------------------*/
static std::string HIDPP20ZonePositionName(uint16_t zid)
{
for(const std::pair<const std::string, unsigned int>& kv : hidpp20_key_name_to_zone)
{
if(kv.second == zid)
{
return(kv.first);
}
}
return("");
}
/*---------------------------------------------------------*\
| Per-board zone policy for studied boards: |
| excluded zones this board misreports |
| suppress_unclaimed every unclaimed zone is a phantom |
| (the real special keys are all |
| placed by the layout edit) |
| Boards without an entry surface what they report: named |
| extras stay named, true unknowns get an Unmapped zone. |
\*---------------------------------------------------------*/
struct KbZonePolicy
{
uint16_t pid;
std::set<uint16_t> excluded;
bool suppress_unclaimed;
};
static const KbZonePolicy known_kb_zone_policies[] =
{
/*-----------------------------------------------------*\
| PRO X RAPID: the probed top strip is the complete |
| special-key set; the firmware also enumerates the |
| canonical media/G-key ids, which aren't wired. |
\*-----------------------------------------------------*/
{ 0xC35B, {}, true },
};
static const KbZonePolicy* FindKbZonePolicy(uint16_t pid_wired, uint16_t pid_wireless)
{
for(const KbZonePolicy& p : known_kb_zone_policies)
{
if(p.pid == pid_wired || p.pid == pid_wireless)
{
return(&p);
}
}
return(nullptr);
}
/*---------------------------------------------------------*\
| Keyboard layout edits: KLM key_set overlays for boards |
| that differ from stock (e.g. a media row above the |
| F-row). keyboard_led.value carries the HID++ zone id, |
| read back via GetKeyValueAt, so renumbered boards |
| address the right LED with no special case in the |
| commit path. Keyed by PID (wired or wireless). F-row |
| columns: ESC=0, F1..F12=2..13, PrtSc group 14-16. |
\*---------------------------------------------------------*/
struct KbLayoutEdit
{
uint16_t pid;
const keyboard_led* keys;
size_t key_count;
};
/*---------------------------------------------------------*\
| PRO X RAPID top strip: INSERT_ROW adds row 0 above |
| the F-row, the rest INSERT_SHIFT_RIGHT into it. |
| Zone ids hardware-probed on this board. Game Mode |
| (F3) is a non-RGB toggle; this model has no |
| separately addressable logo LED, so none is listed. |
\*---------------------------------------------------------*/
static const keyboard_led proxrapid_top_strip[] =
{
{ 0, 0, 5, 150, "Brightness", KEY_EN_UNUSED, KEYBOARD_OPCODE_INSERT_ROW }, /* above F4 */
{ 0, 0, 10, 155, "Media Previous", KEY_EN_UNUSED, KEYBOARD_OPCODE_INSERT_SHIFT_RIGHT }, /* above F9 */
{ 0, 0, 11, 152, "Media Play/Pause", KEY_EN_UNUSED, KEYBOARD_OPCODE_INSERT_SHIFT_RIGHT }, /* above F10 */
{ 0, 0, 12, 154, "Media Next", KEY_EN_UNUSED, KEYBOARD_OPCODE_INSERT_SHIFT_RIGHT }, /* above F11 */
{ 0, 0, 13, 153, "Media Mute", KEY_EN_UNUSED, KEYBOARD_OPCODE_INSERT_SHIFT_RIGHT }, /* above F12 */
};
/*---------------------------------------------------------*\
| G915 X Wired top strip and G-key column: INSERT_ROW adds |
| row 0 above the F-row, the rest INSERT_SHIFT_RIGHT into |
| it. G1-G5 insert at column 0 of the main rows; the unused |
| key at the F-row's column 0 shifts that row right so it |
| stays aligned with them. Zone ids hardware-probed on this |
| board. Game Mode (above F5) is a non-RGB toggle, so none |
| is listed. |
\*---------------------------------------------------------*/
static const keyboard_led g915x_strip_and_gkeys[] =
{
{ 0, 0, 0, 210, "Logo", KEY_EN_UNUSED, KEYBOARD_OPCODE_INSERT_ROW },
{ 0, 1, 0, 0, KEY_EN_UNUSED, KEY_EN_UNUSED, KEYBOARD_OPCODE_INSERT_SHIFT_RIGHT }, /* shift the F-row */
{ 0, 2, 0, 180, "G1", KEY_EN_UNUSED, KEYBOARD_OPCODE_INSERT_SHIFT_RIGHT },
{ 0, 3, 0, 181, "G2", KEY_EN_UNUSED, KEYBOARD_OPCODE_INSERT_SHIFT_RIGHT },
{ 0, 4, 0, 182, "G3", KEY_EN_UNUSED, KEYBOARD_OPCODE_INSERT_SHIFT_RIGHT },
{ 0, 5, 0, 183, "G4", KEY_EN_UNUSED, KEYBOARD_OPCODE_INSERT_SHIFT_RIGHT },
{ 0, 6, 0, 184, "G5", KEY_EN_UNUSED, KEYBOARD_OPCODE_INSERT_SHIFT_RIGHT },
{ 0, 0, 3, 185, "G6", KEY_EN_UNUSED, KEYBOARD_OPCODE_INSERT_SHIFT_RIGHT }, /* above F1 */
{ 0, 0, 4, 186, "G7", KEY_EN_UNUSED, KEYBOARD_OPCODE_INSERT_SHIFT_RIGHT }, /* above F2 */
{ 0, 0, 5, 187, "G8", KEY_EN_UNUSED, KEYBOARD_OPCODE_INSERT_SHIFT_RIGHT }, /* above F3 */
{ 0, 0, 6, 188, "G9", KEY_EN_UNUSED, KEYBOARD_OPCODE_INSERT_SHIFT_RIGHT }, /* above F4 */
{ 0, 0, 8, 153, "Brightness", KEY_EN_UNUSED, KEYBOARD_OPCODE_INSERT_SHIFT_RIGHT }, /* above F6 */
{ 0, 0, 18, 158, "Media Previous", KEY_EN_UNUSED, KEYBOARD_OPCODE_INSERT_SHIFT_RIGHT }, /* above Num Lock */
{ 0, 0, 19, 155, "Media Play/Pause", KEY_EN_UNUSED, KEYBOARD_OPCODE_INSERT_SHIFT_RIGHT }, /* above Numpad / */
{ 0, 0, 20, 157, "Media Next", KEY_EN_UNUSED, KEYBOARD_OPCODE_INSERT_SHIFT_RIGHT }, /* above Numpad * */
{ 0, 0, 21, 156, "Media Mute", KEY_EN_UNUSED, KEYBOARD_OPCODE_INSERT_SHIFT_RIGHT }, /* above Numpad - */
};
static const KbLayoutEdit known_kb_layout_edits[] =
{
{ 0xC35B, proxrapid_top_strip, 5 }, /* PRO X RAPID */
{ 0xC359, g915x_strip_and_gkeys, 16 }, /* G915 X Wired */
};
static key_set FindKbLayoutEdit(uint16_t pid_wired, uint16_t pid_wireless)
{
for(const KbLayoutEdit& e : known_kb_layout_edits)
{
if(e.pid == pid_wired || e.pid == pid_wireless)
{
return key_set(e.keys, e.keys + e.key_count);
}
}
return key_set();
}
/*---------------------------------------------------------*\
| OpenRGB key name -> USB HID Keyboard/Keypad usage (page |
| 0x07), used by the 0x8080 path whose keyIds ARE these |
| usages. Sibling to hidpp20_key_name_to_zone (the 0x8081 |
| sequential zones). This is the HID spec, not a device |
| table. |
\*---------------------------------------------------------*/
static const std::map<std::string, unsigned int> hidpp20_key_name_to_usage =
{
{ KEY_EN_A, 0x04 },
{ KEY_EN_B, 0x05 },
{ KEY_EN_C, 0x06 },
{ KEY_EN_D, 0x07 },
{ KEY_EN_E, 0x08 },
{ KEY_EN_F, 0x09 },
{ KEY_EN_G, 0x0A },
{ KEY_EN_H, 0x0B },
{ KEY_EN_I, 0x0C },
{ KEY_EN_J, 0x0D },
{ KEY_EN_K, 0x0E },
{ KEY_EN_L, 0x0F },
{ KEY_EN_M, 0x10 },
{ KEY_EN_N, 0x11 },
{ KEY_EN_O, 0x12 },
{ KEY_EN_P, 0x13 },
{ KEY_EN_Q, 0x14 },
{ KEY_EN_R, 0x15 },
{ KEY_EN_S, 0x16 },
{ KEY_EN_T, 0x17 },
{ KEY_EN_U, 0x18 },
{ KEY_EN_V, 0x19 },
{ KEY_EN_W, 0x1A },
{ KEY_EN_X, 0x1B },
{ KEY_EN_Y, 0x1C },
{ KEY_EN_Z, 0x1D },
{ KEY_EN_1, 0x1E },
{ KEY_EN_2, 0x1F },
{ KEY_EN_3, 0x20 },
{ KEY_EN_4, 0x21 },
{ KEY_EN_5, 0x22 },
{ KEY_EN_6, 0x23 },
{ KEY_EN_7, 0x24 },
{ KEY_EN_8, 0x25 },
{ KEY_EN_9, 0x26 },
{ KEY_EN_0, 0x27 },
{ KEY_EN_ANSI_ENTER, 0x28 },
{ KEY_EN_ESCAPE, 0x29 },
{ KEY_EN_BACKSPACE, 0x2A },
{ KEY_EN_TAB, 0x2B },
{ KEY_EN_SPACE, 0x2C },
{ KEY_EN_MINUS, 0x2D },
{ KEY_EN_EQUALS, 0x2E },
{ KEY_EN_LEFT_BRACKET, 0x2F },
{ KEY_EN_RIGHT_BRACKET, 0x30 },
{ KEY_EN_ANSI_BACK_SLASH, 0x31 }, /* ANSI */
{ KEY_EN_POUND, 0x32 }, /* ISO */
{ KEY_EN_SEMICOLON, 0x33 },
{ KEY_EN_QUOTE, 0x34 },
{ KEY_EN_BACK_TICK, 0x35 },
{ KEY_EN_COMMA, 0x36 },
{ KEY_EN_PERIOD, 0x37 },
{ KEY_EN_FORWARD_SLASH, 0x38 },
{ KEY_EN_CAPS_LOCK, 0x39 },
{ KEY_EN_F1, 0x3A },
{ KEY_EN_F2, 0x3B },
{ KEY_EN_F3, 0x3C },
{ KEY_EN_F4, 0x3D },
{ KEY_EN_F5, 0x3E },
{ KEY_EN_F6, 0x3F },
{ KEY_EN_F7, 0x40 },
{ KEY_EN_F8, 0x41 },
{ KEY_EN_F9, 0x42 },
{ KEY_EN_F10, 0x43 },
{ KEY_EN_F11, 0x44 },
{ KEY_EN_F12, 0x45 },
{ KEY_EN_PRINT_SCREEN, 0x46 },
{ KEY_EN_SCROLL_LOCK, 0x47 },
{ KEY_EN_PAUSE_BREAK, 0x48 },
{ KEY_EN_INSERT, 0x49 },
{ KEY_EN_HOME, 0x4A },
{ KEY_EN_PAGE_UP, 0x4B },
{ KEY_EN_DELETE, 0x4C },
{ KEY_EN_END, 0x4D },
{ KEY_EN_PAGE_DOWN, 0x4E },
{ KEY_EN_RIGHT_ARROW, 0x4F },
{ KEY_EN_LEFT_ARROW, 0x50 },
{ KEY_EN_DOWN_ARROW, 0x51 },
{ KEY_EN_UP_ARROW, 0x52 },
{ KEY_EN_NUMPAD_LOCK, 0x53 },
{ KEY_EN_NUMPAD_DIVIDE, 0x54 },
{ KEY_EN_NUMPAD_TIMES, 0x55 },
{ KEY_EN_NUMPAD_MINUS, 0x56 },
{ KEY_EN_NUMPAD_PLUS, 0x57 },
{ KEY_EN_NUMPAD_ENTER, 0x58 },
{ KEY_EN_NUMPAD_1, 0x59 },
{ KEY_EN_NUMPAD_2, 0x5A },
{ KEY_EN_NUMPAD_3, 0x5B },
{ KEY_EN_NUMPAD_4, 0x5C },
{ KEY_EN_NUMPAD_5, 0x5D },
{ KEY_EN_NUMPAD_6, 0x5E },
{ KEY_EN_NUMPAD_7, 0x5F },
{ KEY_EN_NUMPAD_8, 0x60 },
{ KEY_EN_NUMPAD_9, 0x61 },
{ KEY_EN_NUMPAD_0, 0x62 },
{ KEY_EN_NUMPAD_PERIOD, 0x63 },
{ KEY_EN_ISO_BACK_SLASH, 0x64 }, /* ISO */
{ KEY_JP_RO, 0x87 }, /* International1: JIS Ro, ABNT2 slash */
{ "Keypad Comma", 0x85 }, /* ABNT2 / JIS numpad comma */
{ KEY_EN_MENU, 0x65 },
{ KEY_EN_LEFT_CONTROL, 0xE0 },
{ KEY_EN_LEFT_SHIFT, 0xE1 },
{ KEY_EN_LEFT_ALT, 0xE2 },
{ KEY_EN_LEFT_WINDOWS, 0xE3 },
{ KEY_EN_RIGHT_CONTROL, 0xE4 },
{ KEY_EN_RIGHT_SHIFT, 0xE5 },
{ KEY_EN_RIGHT_ALT, 0xE6 },
{ KEY_EN_RIGHT_WINDOWS, 0xE7 },
{ KEY_EN_RIGHT_FUNCTION, 0xE7 }, /* boards that place Fn where Right GUI sits (G Pro) */
};
/*---------------------------------------------------------*\
| Reverse lookup over hidpp20_key_name_to_usage: HID usage |
| code -> key name, or nullptr when the code is not a |
| standard keyboard key (a vendor-local logo / G-key / |
| indicator id). |
\*---------------------------------------------------------*/
static const char* hidpp20_key_name_for_usage(unsigned int usage)
{
for(const std::pair<const std::string, unsigned int>& kv : hidpp20_key_name_to_usage)
{
if(kv.second == usage)
{
return kv.first.c_str();
}
}
return nullptr;
}
/*---------------------------------------------------------*\
| ABNT2 wire overrides for the 0x8080 keyboard build. KLM's |
| ABNT2 overlay inserts the bottom-row ; key, which sits at |
| the ANSI / position (usage 0x38), and leaves / next to |
| right shift, whose lighting id is NOT its input usage: |
| the key types International1 (0x87) but lights on 0x88 |
| (G512 ABNT2, hardware-verified: 0x88 is what fn2 |
| enumerates and what SetKeyColors paints; 0x87 controls |
| nothing). Values carry (keyType << 8) | keyId and land |
| in the GetKeyValueAt branch like the strip keys. |
\*---------------------------------------------------------*/
static const layout_values hidpp20_kb_8080_values =
{
{},
{
{
KEYBOARD_LAYOUT_ABNT2,
{
{ 0, 4, 11, 0x0138, KEY_EN_SEMICOLON, KEY_EN_UNUSED, KEYBOARD_OPCODE_SWAP_ONLY },
{ 0, 4, 12, 0x0188, KEY_EN_FORWARD_SLASH, KEY_EN_UNUSED, KEYBOARD_OPCODE_SWAP_ONLY },
},
},
},
};
/*---------------------------------------------------------*\
| Mouse LED layout table |
| Each entry defines a matrix layout for a known mouse. |
| Looked up by substring match on device name. |
| To add a new mouse: add an entry with name pattern, |
| grid dimensions, LED count, map, and LED names. |
\*---------------------------------------------------------*/
#define ML_NA 0xFFFFFFFF
struct MouseLayout
{
const char* name_match;
unsigned int rows;
unsigned int cols;
unsigned int led_count;
const unsigned int* map;
const char* const* led_names;
};
static const unsigned int g502x_map[3 * 7] =
{
/* C . . . . . B */
2, ML_NA, ML_NA, ML_NA, ML_NA, ML_NA, 1,
/* . D H G F E . */
ML_NA, 3, 7, 6, 5, 4, ML_NA,
/* . . . . . . A */
ML_NA, ML_NA, ML_NA, ML_NA, ML_NA, ML_NA, 0,
};
static const char* g502x_led_names[] =
{
"LED A", "LED B", "LED C", "LED D",
"LED E", "LED F", "LED G", "LED H",
};
static const MouseLayout known_mouse_layouts[] =
{
{ "G502 X", 3, 7, 8, g502x_map, g502x_led_names },
/*-----------------------------------------------------*\
| Add new mice here: |
| { "G PRO X", rows, cols, count, map_ptr, names_ptr }, |
\*-----------------------------------------------------*/
{ nullptr, 0, 0, 0, nullptr, nullptr }
};
static const MouseLayout* FindMouseLayout(const std::string& device_name)
{
for(const MouseLayout* ml = known_mouse_layouts; ml->name_match != nullptr; ml++)
{
if(device_name.find(ml->name_match) != std::string::npos)
{
return ml;
}
}
return nullptr;
}
/*---------------------------------------------------------*\
| 0x0620 headset physical layout: firmware reports zone IDs |
| but no geometry, so this places known devices' IDs onto |
| earcup matrices (mirrors Solaar). Keyed by firmware PID. |
| Centurion device names are unreliable. Unknown headsets |
| fall back to one LED per zone. |
\*---------------------------------------------------------*/
struct HeadsetEarcup
{
const char* name; /* OpenRGB zone name */
unsigned int rows;
unsigned int cols;
unsigned int led_count;
const unsigned int* map; /* zone-relative LED indices (rows*cols) */
const unsigned char* zone_ids; /* firmware zone ID per LED, in LED order*/
};
struct HeadsetLayout
{
uint16_t pid; /* matches pid_wireless or pid_wired */
unsigned int earcup_count;
const HeadsetEarcup* earcups;
};
/*---------------------------------------------------------*\
| G522: 8 LEDs, two 2x2 earcup grids (outer view): |
| Left 8 7 / 4 3 Right 6 5 / 2 1 |
| LEDs are listed in grid reading order (TL, TR, BL, BR) so |
| each earcup's matrix map is the identity {0,1,2,3}. |
\*---------------------------------------------------------*/
static const unsigned int g522_earcup_map[2 * 2] = { 0, 1, 2, 3 };
static const unsigned char g522_left_zone_ids[4] = { 8, 7, 4, 3 };
static const unsigned char g522_right_zone_ids[4] = { 6, 5, 2, 1 };
static const HeadsetEarcup g522_earcups[] =
{
{ "Left Earcup", 2, 2, 4, g522_earcup_map, g522_left_zone_ids },
{ "Right Earcup", 2, 2, 4, g522_earcup_map, g522_right_zone_ids },
};
static const HeadsetLayout known_headset_layouts[] =
{
{ 0x0B18, 2, g522_earcups }, /* G522 LIGHTSPEED */
{ 0x0000, 0, nullptr }
};
static const HeadsetLayout* FindHeadsetLayout(uint16_t pid_wireless, uint16_t pid_wired)
{
for(const HeadsetLayout* hl = known_headset_layouts; hl->earcups != nullptr; hl++)
{
if(hl->pid == pid_wireless || hl->pid == pid_wired)
{
return hl;
}
}
return nullptr;
}
/*---------------------------------------------------------*\
| 0x8080 special-key strips: the model-specific keys a |
| board carries beyond the standard main block, placed |
| over the KLM-generated matrix (which supplies the main |
| block per the 0x4540 layout). keyboard_led.value carries |
| the wire address (keyType << 8) | keyId, read back via |
| GetKeyValueAt. The main block resolves by key name to |
| its HID usage, so regional frames need no per-model data. |
| full_size supplies the frame when fn2 enumeration is |
| unavailable (has_numpad needs it). |
\*---------------------------------------------------------*/
struct Kb8080Strip
{
uint16_t pid;
bool full_size;
const keyboard_led* keys;
size_t key_count;
/*-----------------------------------------------------*\
| Studied board: the firmware enumerates a canonical |
| id superset and everything physically present is |
| claimed by the matrix (KLM adapts per 0x4540) or the |
| strip, so unclaimed ids are phantoms. Suppressed |
| unless the plugin's Show Unmapped override is on. |
\*-----------------------------------------------------*/
bool suppress_unclaimed;
};
/*---------------------------------------------------------*\
| G810/G610 shared strip: logo, indicator row and Mute |
| above the F-row, media block right of Pause. Positions |
| follow the legacy matrix. |
\*---------------------------------------------------------*/
static const keyboard_led g810_top_strip[] =
{
{ 0, 0, 0, 0x1001, "Logo", KEY_EN_UNUSED, KEYBOARD_OPCODE_INSERT_ROW },
{ 0, 0, 12, 0x4005, "Num Lock Indicator", KEY_EN_UNUSED, KEYBOARD_OPCODE_INSERT_SHIFT_RIGHT },
{ 0, 0, 13, 0x4003, "Caps Lock Indicator", KEY_EN_UNUSED, KEYBOARD_OPCODE_INSERT_SHIFT_RIGHT },
{ 0, 0, 14, 0x4004, "Scroll Lock Indicator", KEY_EN_UNUSED, KEYBOARD_OPCODE_INSERT_SHIFT_RIGHT },
{ 0, 0, 16, 0x4002, "Game Mode", KEY_EN_UNUSED, KEYBOARD_OPCODE_INSERT_SHIFT_RIGHT },
{ 0, 0, 18, 0x4001, "Lighting", KEY_EN_UNUSED, KEYBOARD_OPCODE_INSERT_SHIFT_RIGHT },
{ 0, 0, 19, 0x02E2, KEY_EN_MEDIA_MUTE, KEY_EN_UNUSED, KEYBOARD_OPCODE_INSERT_SHIFT_RIGHT },
{ 0, 1, 17, 0x02CD, KEY_EN_MEDIA_PLAY_PAUSE, KEY_EN_UNUSED, KEYBOARD_OPCODE_INSERT_SHIFT_RIGHT },
{ 0, 1, 18, 0x02B7, KEY_EN_MEDIA_STOP, KEY_EN_UNUSED, KEYBOARD_OPCODE_INSERT_SHIFT_RIGHT },
{ 0, 1, 19, 0x02B6, KEY_EN_MEDIA_PREVIOUS, KEY_EN_UNUSED, KEYBOARD_OPCODE_INSERT_SHIFT_RIGHT },
{ 0, 1, 20, 0x02B5, KEY_EN_MEDIA_NEXT, KEY_EN_UNUSED, KEYBOARD_OPCODE_INSERT_SHIFT_RIGHT },
};
/*---------------------------------------------------------*\
| G Pro (wired TKL): logo and indicator row above the |
| F-row, no media keys or Num Lock indicator. |
\*---------------------------------------------------------*/
static const keyboard_led gpro_top_strip[] =
{
{ 0, 0, 0, 0x1001, "Logo", KEY_EN_UNUSED, KEYBOARD_OPCODE_INSERT_ROW },
{ 0, 0, 12, 0x4003, "Caps Lock Indicator", KEY_EN_UNUSED, KEYBOARD_OPCODE_INSERT_SHIFT_RIGHT },
{ 0, 0, 13, 0x4004, "Scroll Lock Indicator", KEY_EN_UNUSED, KEYBOARD_OPCODE_INSERT_SHIFT_RIGHT },
{ 0, 0, 15, 0x4002, "Game Mode", KEY_EN_UNUSED, KEYBOARD_OPCODE_INSERT_SHIFT_RIGHT },
{ 0, 0, 16, 0x4001, "Lighting", KEY_EN_UNUSED, KEYBOARD_OPCODE_INSERT_SHIFT_RIGHT },
};
/*---------------------------------------------------------*\
| G512: two indicator LEDs in the F-row line above the |
| numpad, Caps Lock above Num Lock and Game Mode above |
| numpad /. Ids match the G810 family; positions and ids |
| hardware-reported (G512 ABNT2 tester). No logo, media |
| or lock-state row on this board. |
\*---------------------------------------------------------*/
static const keyboard_led g512_top_strip[] =
{
{ 0, 0, 17, 0x4003, "Caps Lock Indicator", KEY_EN_UNUSED, KEYBOARD_OPCODE_INSERT_SHIFT_RIGHT },
{ 0, 0, 18, 0x4002, "Game Mode Indicator", KEY_EN_UNUSED, KEYBOARD_OPCODE_INSERT_SHIFT_RIGHT },
};
/*---------------------------------------------------------*\
| G910: G6-G9 in a row directly above F1-F4 (photo- |
| verified), Logo left of Esc in the F row, G1-G5 down the |
| left edge, Nameplate on the front edge. Wire ids from |
| the legacy G910 map. Deliberately absent, as in the |
| legacy map: the media cluster above the numpad (on/off |
| backlight, not RGB; the firmware still advertises media |
| keyType 0x02, see the C32B quirk) and the four small |
| mode keys left of G6. Painting the advertised extras |
| controls nothing (hardware-observed), so unclaimed ids |
| are suppressed as phantoms; the plugin's Show Unmapped |
| override surfaces them for auditing. |
\*---------------------------------------------------------*/
static const keyboard_led g910_side_strip[] =
{
{ 0, 0, 3, 0x0406, "Key: G6", KEY_EN_UNUSED, KEYBOARD_OPCODE_INSERT_ROW },
{ 0, 0, 4, 0x0407, "Key: G7", KEY_EN_UNUSED, KEYBOARD_OPCODE_INSERT_SHIFT_RIGHT },
{ 0, 0, 5, 0x0408, "Key: G8", KEY_EN_UNUSED, KEYBOARD_OPCODE_INSERT_SHIFT_RIGHT },
{ 0, 0, 6, 0x0409, "Key: G9", KEY_EN_UNUSED, KEYBOARD_OPCODE_INSERT_SHIFT_RIGHT },
{ 0, 1, 0, 0x1001, "Logo", KEY_EN_UNUSED, KEYBOARD_OPCODE_INSERT_SHIFT_RIGHT },
{ 0, 2, 0, 0x0401, "Key: G1", KEY_EN_UNUSED, KEYBOARD_OPCODE_INSERT_SHIFT_RIGHT },
{ 0, 3, 0, 0x0402, "Key: G2", KEY_EN_UNUSED, KEYBOARD_OPCODE_INSERT_SHIFT_RIGHT },
{ 0, 4, 0, 0x0403, "Key: G3", KEY_EN_UNUSED, KEYBOARD_OPCODE_INSERT_SHIFT_RIGHT },
{ 0, 5, 0, 0x0404, "Key: G4", KEY_EN_UNUSED, KEYBOARD_OPCODE_INSERT_SHIFT_RIGHT },
{ 0, 6, 0, 0x0405, "Key: G5", KEY_EN_UNUSED, KEYBOARD_OPCODE_INSERT_SHIFT_RIGHT },
{ 0, 7, 3, 0x1002, "Nameplate", KEY_EN_UNUSED, KEYBOARD_OPCODE_INSERT_SHIFT_RIGHT },
};
/*---------------------------------------------------------*\
| An entry with no keys still marks a known 0x8080 board: |
| it keeps per-key usable and the main block claimable |
| when fn2 enumeration is unavailable, and supplies the |
| frame size. |
\*---------------------------------------------------------*/
static const Kb8080Strip known_kb_8080_strips[] =
{
{ 0xC331, true, g810_top_strip, 11, true }, /* G810 */
{ 0xC337, true, g810_top_strip, 11, true }, /* G810 */
{ 0xC333, true, g810_top_strip, 11, true }, /* G610 */
{ 0xC338, true, g810_top_strip, 11, true }, /* G610 */
{ 0xC342, true, g512_top_strip, 2, true }, /* G512 */
{ 0xC33C, true, g512_top_strip, 2, true }, /* G512 RGB */
{ 0xC32B, true, g910_side_strip, 11, true }, /* G910 Orion Spark */
{ 0xC335, true, g910_side_strip, 11, true }, /* G910 */
{ 0xC339, false, gpro_top_strip, 5, true }, /* G Pro */
};
static const Kb8080Strip* FindKb8080Strip(uint16_t pid_wired, uint16_t pid_wireless)
{
for(const Kb8080Strip& s : known_kb_8080_strips)
{
if(s.pid == pid_wired || s.pid == pid_wireless)
{
return(&s);
}
}
return(nullptr);
}
RGBController_LogitechHIDPP20::RGBController_LogitechHIDPP20(LogitechHIDPP20Controller* controller_ptr, std::function<void ()> callback)
{
controller = controller_ptr;
shutdown_callback = callback;
const HIDPP20DeviceCapabilities& caps = controller->GetCapabilities();
name = caps.device_name;
vendor = "Logitech";
description = "Logitech HID++ 2.0 Device";
version = caps.firmware_version;
location = controller->GetDeviceLocation();
serial = controller->GetSerialString();
switch(caps.device_type)
{
case LOGITECH_DEVICE_TYPE_KEYBOARD:
type = DEVICE_TYPE_KEYBOARD;
break;
case LOGITECH_DEVICE_TYPE_NUMPAD:
type = DEVICE_TYPE_KEYPAD;
break;
case LOGITECH_DEVICE_TYPE_MOUSE:
case LOGITECH_DEVICE_TYPE_TRACKBALL:
type = DEVICE_TYPE_MOUSE;
break;
case LOGITECH_DEVICE_TYPE_HEADSET:
type = DEVICE_TYPE_HEADSET;
break;
case LOGITECH_DEVICE_TYPE_MOUSEPAD:
type = DEVICE_TYPE_MOUSEMAT;
break;
case LOGITECH_DEVICE_TYPE_JOYSTICK:
case LOGITECH_DEVICE_TYPE_GAMEPAD:
type = DEVICE_TYPE_GAMEPAD;
break;
case LOGITECH_DEVICE_TYPE_SPEAKER:
type = DEVICE_TYPE_SPEAKER;
break;
case LOGITECH_DEVICE_TYPE_MICROPHONE:
type = DEVICE_TYPE_MICROPHONE;
break;
case LOGITECH_DEVICE_TYPE_LIGHT:
type = DEVICE_TYPE_LIGHT;
break;
default:
type = DEVICE_TYPE_UNKNOWN;
break;
}
/*-----------------------------------------------------*\
| Build mode list from discovered capabilities |
\*-----------------------------------------------------*/
/*-----------------------------------------------------*\
| Direct mode: per-key control via 0x8081 |
\*-----------------------------------------------------*/
if(caps.has_perkey)
{
mode Direct;
Direct.name = "Direct";
Direct.value = 0;
Direct.flags = MODE_FLAG_HAS_PER_LED_COLOR;
Direct.color_mode = MODE_COLORS_PER_LED;
modes.push_back(Direct);
}
/*-----------------------------------------------------*\
| Direct mode: per-key control via 0x8080, a |
| separate feature. |
\*-----------------------------------------------------*/
if(PerKey8080Capable())
{
mode Direct;
Direct.name = "Direct";
Direct.value = 0;
Direct.flags = MODE_FLAG_HAS_PER_LED_COLOR;
Direct.color_mode = MODE_COLORS_PER_LED;
modes.push_back(Direct);
}
/*-----------------------------------------------------*\
| Direct mode: zone-only devices (G560, G810 |
| family). One LED per cluster, colors ride |
| per-zone Static writes. |
\*-----------------------------------------------------*/
if(caps.has_zone_effects && !caps.has_perkey && !PerKey8080Capable()
&& !caps.is_headset_rgb_hostmode)
{
mode Direct;
Direct.name = "Direct";
Direct.value = 0;
Direct.flags = MODE_FLAG_HAS_PER_LED_COLOR;
Direct.color_mode = MODE_COLORS_PER_LED;
modes.push_back(Direct);
}
/*-----------------------------------------------------*\
| Off mode: always available |
\*-----------------------------------------------------*/
{
mode Off;
Off.name = "Off";
Off.value = 0xFF;
Off.flags = 0;
Off.color_mode = MODE_COLORS_NONE;
modes.push_back(Off);
}
/*-----------------------------------------------------*\
| 0x0620 Headset RGB Hostmode has no effect cards. |
| Provide a single Direct mode that maps every LED to |
| the frame buffer; SetHeadsetRGBHostmodeColors |
| writes them straight to the earcup zones. |
\*-----------------------------------------------------*/
if(caps.is_headset_rgb_hostmode)
{
mode Direct;
Direct.name = "Direct";
Direct.value = 0;
Direct.flags = MODE_FLAG_HAS_PER_LED_COLOR;
Direct.color_mode = MODE_COLORS_PER_LED;
modes.push_back(Direct);
}
/*-----------------------------------------------------*\
| Effect modes from zone cluster discovery |
| Scan effects from the first cluster (effects |
| are usually the same across clusters) |
\*-----------------------------------------------------*/
if(caps.has_zone_effects && !caps.zone_clusters.empty() && !caps.is_headset_rgb_hostmode)
{
const HIDPP20ZoneCluster& cluster = caps.zone_clusters[0];
/*-------------------------------------------------*\
| Per-LED effect colors: multi-cluster devices |
| whose only paint path is zone effects, one color |
| per cluster. Per-key devices take a single mode |
| color: the UI repaints per-key on any per-LED |
| mode set, which overwrites the zone effect. |
\*-------------------------------------------------*/
const bool per_led_colors = (caps.zone_clusters.size() > 1)
&& !caps.has_perkey
&& !PerKey8080Capable();
/*-------------------------------------------------*\
| 0x8070 keyboard firmware ignores the Cycle, Wave |
| and Breathing intensity byte (G810/G910 |
| hardware); the same slots drive brightness on |
| the mice. No slider for a dead control; the wire |
| still sends 100 in that slot. |
\*-------------------------------------------------*/
const bool effect_brightness = !(caps.rgb_feature_page == HIDPP20_FEAT_COLOR_LED_EFFECTS
&& caps.device_type == LOGITECH_DEVICE_TYPE_KEYBOARD);
for(size_t i = 0; i < cluster.effects.size(); i++)
{
const HIDPP20Effect& fx = cluster.effects[i];
switch(fx.effect_id)
{
case 0x0001: // Static / Fixed Color
{
mode Static;
Static.name = "Static";
Static.value = fx.index;
if(per_led_colors)
{
Static.flags = MODE_FLAG_HAS_PER_LED_COLOR;
Static.color_mode = MODE_COLORS_PER_LED;
}
else
{
Static.flags = MODE_FLAG_HAS_MODE_SPECIFIC_COLOR;
Static.colors_min = 1;
Static.colors_max = 1;
Static.color_mode = MODE_COLORS_MODE_SPECIFIC;
Static.colors.resize(1);
}
modes.push_back(Static);
break;
}
case 0x0003: // Color Cycle / Spectrum
{
mode Cycle;
Cycle.name = "Spectrum Cycle";
Cycle.value = fx.index;
Cycle.flags = MODE_FLAG_HAS_SPEED;
if(effect_brightness)
{
Cycle.flags |= MODE_FLAG_HAS_BRIGHTNESS;
}
Cycle.speed_min = HIDPP20_SPEED_SLIDER_MIN;
Cycle.speed_max = HIDPP20_SPEED_SLIDER_MAX;
Cycle.speed = 80; /* ~4.9s, lively medium */
Cycle.brightness_min = 1;
Cycle.brightness_max = 100;
Cycle.brightness = 100;
Cycle.color_mode = MODE_COLORS_NONE;
modes.push_back(Cycle);
break;
}
case 0x000A: // Breathing
{
mode Breathing;
Breathing.name = "Breathing";
Breathing.value = fx.index;
Breathing.speed_min = HIDPP20_SPEED_SLIDER_MIN;
Breathing.speed_max = HIDPP20_SPEED_SLIDER_MAX;
Breathing.speed = 70; /* ~6.8s, calm medium */
Breathing.brightness_min = 1;
Breathing.brightness_max = 100;
Breathing.brightness = 100;
if(per_led_colors)
{
Breathing.flags = MODE_FLAG_HAS_PER_LED_COLOR
| MODE_FLAG_HAS_SPEED
| MODE_FLAG_HAS_BRIGHTNESS;
Breathing.color_mode = MODE_COLORS_PER_LED;
}
else
{
Breathing.flags = MODE_FLAG_HAS_MODE_SPECIFIC_COLOR
| MODE_FLAG_HAS_SPEED
| MODE_FLAG_HAS_BRIGHTNESS;
Breathing.colors_min = 1;
Breathing.colors_max = 1;
Breathing.color_mode = MODE_COLORS_MODE_SPECIFIC;
Breathing.colors.resize(1);
}
if(!effect_brightness)
{
Breathing.flags &= ~MODE_FLAG_HAS_BRIGHTNESS;
}
modes.push_back(Breathing);
break;
}
case 0x0007: // Audio visualizer (G560 factory default)
{
/*-------------------------------------*\
| Pulses brightness with audio. A |
| painted zone pulses its own |
| color; a black zone self-cycles |
| like the factory default. |
\*-------------------------------------*/
mode Visualizer;
Visualizer.name = "Audio Visualizer";
Visualizer.value = fx.index;
Visualizer.speed_min = HIDPP20_SPEED_SLIDER_MIN;
Visualizer.speed_max = HIDPP20_SPEED_SLIDER_MAX;
Visualizer.speed = 80; /* ~4.9s, near the 5s firmware default */
if(per_led_colors)
{
Visualizer.flags = MODE_FLAG_HAS_PER_LED_COLOR
| MODE_FLAG_HAS_SPEED;
Visualizer.color_mode = MODE_COLORS_PER_LED;
}
else
{
Visualizer.flags = MODE_FLAG_HAS_MODE_SPECIFIC_COLOR
| MODE_FLAG_HAS_SPEED;
Visualizer.colors_min = 1;
Visualizer.colors_max = 1;
Visualizer.color_mode = MODE_COLORS_MODE_SPECIFIC;
Visualizer.colors.resize(1);
}
modes.push_back(Visualizer);
break;
}
case 0x0004: // Color Wave
{
mode Wave;
Wave.name = "Color Wave";
Wave.value = fx.index;
Wave.flags = MODE_FLAG_HAS_SPEED;
if(effect_brightness)
{
Wave.flags |= MODE_FLAG_HAS_BRIGHTNESS;
}
Wave.speed_min = HIDPP20_SPEED_SLIDER_MIN;
Wave.speed_max = HIDPP20_SPEED_SLIDER_MAX;
Wave.speed = 80; /* ~4.9s, lively medium */
Wave.brightness_min = 1;
Wave.brightness_max = 100;
Wave.brightness = 100;
Wave.color_mode = MODE_COLORS_NONE;
modes.push_back(Wave);
break;
}
case 0x000B: // Ripple
{
mode Ripple;
Ripple.name = "Ripple";
Ripple.value = fx.index;
Ripple.flags = MODE_FLAG_HAS_MODE_SPECIFIC_COLOR
| MODE_FLAG_HAS_SPEED
| MODE_FLAG_HAS_BRIGHTNESS;
Ripple.speed_min = HIDPP20_SPEED_SLIDER_MIN;
Ripple.speed_max = HIDPP20_SPEED_SLIDER_MAX;
Ripple.speed = 70; /* ~6.8s, calm medium */
Ripple.brightness_min = 1;
Ripple.brightness_max = 100;
Ripple.brightness = 100;
Ripple.colors_min = 1;
Ripple.colors_max = 1;
Ripple.color_mode = MODE_COLORS_MODE_SPECIFIC;
Ripple.colors.resize(1);
modes.push_back(Ripple);
break;
}
case 0x0015: // Cycle (saturation variant)
{
/*-------------------------------------*\
| Saturation-bearing variant of 0x0003. |
| Same UI (speed = period, brightness = |
| intensity); the saturation byte is |
| hardcoded full on the wire. |
\*-------------------------------------*/
mode Cycle;
Cycle.name = "Spectrum Cycle";
Cycle.value = fx.index;
Cycle.flags = MODE_FLAG_HAS_SPEED
| MODE_FLAG_HAS_BRIGHTNESS;
Cycle.speed_min = HIDPP20_SPEED_SLIDER_MIN;
Cycle.speed_max = HIDPP20_SPEED_SLIDER_MAX;
Cycle.speed = 80; /* ~4.9s, lively medium */
Cycle.brightness_min = 1;
Cycle.brightness_max = 100;
Cycle.brightness = 100;
Cycle.color_mode = MODE_COLORS_NONE;
modes.push_back(Cycle);
break;
}
case 0x0016: // Wave (saturation variant)
{
/*-------------------------------------*\
| Saturation-bearing variant of 0x0004. |
| Period is a BE16 ms value on the |
| standard 1..20s range (Solaar's |
| LEDEffects table has no period range |
| override for Wave); saturation is |
| hardcoded on the wire. |
\*-------------------------------------*/
mode Wave;
Wave.name = "Color Wave";
Wave.value = fx.index;
Wave.flags = MODE_FLAG_HAS_SPEED
| MODE_FLAG_HAS_BRIGHTNESS
| MODE_FLAG_HAS_DIRECTION_LR
| MODE_FLAG_HAS_DIRECTION_UD
| MODE_FLAG_HAS_DIRECTION_HV;
Wave.speed_min = HIDPP20_SPEED_SLIDER_MIN;
Wave.speed_max = HIDPP20_SPEED_SLIDER_MAX;
Wave.speed = 80; /* ~4.9s, lively medium */
Wave.brightness_min = 1;
Wave.brightness_max = 100;
Wave.brightness = 100;
Wave.direction = MODE_DIRECTION_RIGHT;
Wave.color_mode = MODE_COLORS_NONE;
modes.push_back(Wave);
break;
}
case 0x0017: // Ripple (saturation variant)
{
/*-------------------------------------*\
| Saturation-bearing variant of |
| 0x000B. Carries color + period |
| only, no intensity param, so no |
| brightness slider. Saturation |
| is hardcoded full on the wire. |
\*-------------------------------------*/
mode Ripple;
Ripple.name = "Ripple";
Ripple.value = fx.index;
Ripple.flags = MODE_FLAG_HAS_MODE_SPECIFIC_COLOR
| MODE_FLAG_HAS_SPEED;
Ripple.speed_min = HIDPP20_SPEED_SLIDER_MIN;
Ripple.speed_max = HIDPP20_SPEED_SLIDER_MAX;
Ripple.speed = 70; /* mid, fast ripple range */
Ripple.colors_min = 1;
Ripple.colors_max = 1;
Ripple.color_mode = MODE_COLORS_MODE_SPECIFIC;
Ripple.colors.resize(1);
modes.push_back(Ripple);
break;
}
case 0x000E: // Decomposition
case 0x000F: // Signature1
case 0x0010: // Signature2
{
/*-------------------------------------*\
| Animated, no user color (period + |
| intensity only), per Solaar's |
| LEDEffects table. Wire param |
| offsets handled in SetZoneEffect. |
\*-------------------------------------*/
mode Anim;
Anim.name = (fx.effect_id == 0x000E) ? "Decomposition"
: (fx.effect_id == 0x000F) ? "Signature 1"
: "Signature 2";
Anim.value = fx.index;
Anim.flags = MODE_FLAG_HAS_SPEED
| MODE_FLAG_HAS_BRIGHTNESS;
Anim.speed_min = HIDPP20_SPEED_SLIDER_MIN;
Anim.speed_max = HIDPP20_SPEED_SLIDER_MAX;
Anim.speed = 80;
Anim.brightness_min = 1;
Anim.brightness_max = 100;
Anim.brightness = 100;
Anim.color_mode = MODE_COLORS_NONE;
modes.push_back(Anim);
break;
}
default:
break;
}
}
}
/*-----------------------------------------------------*\
| On 0x8070 devices every effect write is ephemeral |
| by default (see DeviceUpdateMode persist branch |
| below). Add a Save button on firmware-effect |
| modes so users can explicitly commit the active |
| mode to NVM. Direct is excluded because per-key |
| framebuffer writes don't map to a savable |
| firmware effect on 0x8070. 0x8071/0x0600 already |
| persist on every write, so no Save button is |
| exposed there pending further research. |
\*-----------------------------------------------------*/
if(caps.rgb_feature_page == HIDPP20_FEAT_COLOR_LED_EFFECTS)
{
for(size_t i = 0; i < modes.size(); i++)
{
if(modes[i].name != "Direct")
{
modes[i].flags |= MODE_FLAG_MANUAL_SAVE;
}
}
}
SetupZones();
/*-----------------------------------------------------*\
| Register repaint callback and start power |
| manager. The callback triggers |
| DeviceUpdateLEDs from the power thread for |
| dim/wake when no animation is driving updates. |
\*-----------------------------------------------------*/
controller->SetRepaintCallback(
std::bind(&RGBController_LogitechHIDPP20::OnRepaintRequest, this));
controller->SetReapplyActiveModeCallback(
std::bind(&RGBController_LogitechHIDPP20::ReapplyActiveMode, this));
/*-----------------------------------------------------*\
| Per-key Direct frames ride the controller's sender |
| thread so the effect engine never blocks on the wire. |
\*-----------------------------------------------------*/
if(controller->GetCapabilities().has_perkey)
{
controller->SetPerKeyFrameSender(
std::bind(&RGBController_LogitechHIDPP20::SendPerKeyFrame, this, std::placeholders::_1));
}
}
/*---------------------------------------------------------*\
| Repaint callback handler (request_repaint_fn). |
| Invoked from the power thread for dim/wake |
| when no animation is driving updates. |
\*---------------------------------------------------------*/
void RGBController_LogitechHIDPP20::OnRepaintRequest()
{
std::lock_guard<std::recursive_mutex> frame_guard(controller->TransactionMutex());
/*-----------------------------------------------------*\
| If Wake() signaled a full repaint, invalidate |
| sent_colors so DeviceUpdateLEDs pushes every zone |
| regardless of delta. Uses HIDPP20_UNCOMMITTED |
| rather than clear() so sent_colors is non-empty; |
| that avoids the first_frame / prep trigger while |
| still forcing a full push. |
\*-----------------------------------------------------*/
if(controller->ConsumeWakeFullRepaint())
{
for(size_t i = 0; i < sent_colors.size(); i++)
{
sent_colors[i] = HIDPP20_UNCOMMITTED;
}
}
DeviceUpdateLEDs();
}
RGBController_LogitechHIDPP20::~RGBController_LogitechHIDPP20()
{
controller->StopPowerManager();
if(shutdown_callback)
{
shutdown_callback();
}
Shutdown();
delete controller;
}
/*---------------------------------------------------------*\
| Derive the KeyboardLayoutManager size + layout from the |
| discovered capabilities. Shared by the 0x8081 and 0x8080 |
| per-key keyboard branches. Layout codes follow the 0x4540 |
| code table used by the official app. Legend-only variants |
| with no distinct physical frame stay on the ANSI default. |
\*---------------------------------------------------------*/
static void hidpp20_derive_keyboard_layout
(
const HIDPP20DeviceCapabilities& caps,
KEYBOARD_SIZE& kb_size,
KEYBOARD_LAYOUT& kb_layout
)
{
kb_size = caps.has_numpad ? KEYBOARD_SIZE_FULL : KEYBOARD_SIZE_TKL;
switch(caps.keyboard_layout_code)
{
case 0x04: // German
case 0x0D: // Swiss
case 0x14: // Czech
case 0x19: // Hungarian
case 0x41: // Czech
kb_layout = KEYBOARD_LAYOUT_ISO_QWERTZ;
break;
case 0x05: // French
case 0x11: // Belgian
kb_layout = KEYBOARD_LAYOUT_ISO_AZERTY;
break;
case 0x02: // International
case 0x03: // UK
case 0x08: // Nordic
case 0x0E: // Turkish
case 0x0F: // Spanish
case 0x16: // Nordic
case 0x1A: // Italian
case 0x1D: // Nordic
case 0x1F: // Portuguese
case 0x21: // Nordic
case 0x24: // Turkish
case 0x37: // International 2
kb_layout = KEYBOARD_LAYOUT_ISO_QWERTY;
break;
case 0x0A: // Japanese
kb_layout = KEYBOARD_LAYOUT_JIS;
break;
case 0x38: // Brazilian Portuguese
kb_layout = KEYBOARD_LAYOUT_ABNT2;
break;
case 0x01: // US
default:
kb_layout = KEYBOARD_LAYOUT_ANSI_QWERTY;
break;
}
}
void RGBController_LogitechHIDPP20::AddLayoutZone
(
const std::string& zone_name,
zone_type type,
unsigned int rows,
unsigned int cols,
const unsigned int* map,
const std::vector<std::pair<std::string, uint16_t>>& zone_leds
)
{
zone new_zone;
new_zone.name = zone_name;
new_zone.type = type;
new_zone.leds_min = (unsigned int)zone_leds.size();
new_zone.leds_max = (unsigned int)zone_leds.size();
new_zone.leds_count = (unsigned int)zone_leds.size();
if(type == ZONE_TYPE_MATRIX && map != nullptr)
{
new_zone.matrix_map.Set(rows, cols, (unsigned int*)map);
}
zones.push_back(new_zone);
for(size_t i = 0; i < zone_leds.size(); i++)
{
led new_led;
new_led.name = zone_leds[i].first;
new_led.value = zone_leds[i].second;
leds.push_back(new_led);
led_to_zone_id.push_back(zone_leds[i].second);
}
}
void RGBController_LogitechHIDPP20::SetupZones()
{
const HIDPP20DeviceCapabilities& caps = controller->GetCapabilities();
led_to_zone_id.clear();
led_to_keytype_keyid_8080.clear();
sent_colors.clear();
if(PerKey8080Capable())
{
SetupZones8080();
}
else if(caps.has_perkey)
{
if(caps.device_type == LOGITECH_DEVICE_TYPE_KEYBOARD)
{
/*---------------------------------------------*\
| Keyboard: use KeyboardLayoutManager for |
| matrix layout. Size from numpad presence, |
| layout from the 0x4540 feature. |
\*---------------------------------------------*/
KEYBOARD_SIZE kb_size;
KEYBOARD_LAYOUT kb_layout;
hidpp20_derive_keyboard_layout(caps, kb_size, kb_layout);
KeyboardLayoutManager klm(kb_layout, kb_size);
/*---------------------------------------------*\
| Apply any per-board layout edit (e.g. |
| a top strip of media/logo keys above |
| the F-row). KLM inserts the keys and |
| re-derives dimensions, so the matrix |
| build below needs no change. |
\*---------------------------------------------*/
key_set kb_layout_edit = FindKbLayoutEdit(caps.pid_wired, caps.pid_wireless);
if(!kb_layout_edit.empty())
{
klm.ChangeKeys(kb_layout_edit);
}
zone perkey_zone;
perkey_zone.name = ZONE_EN_KEYBOARD;
perkey_zone.type = ZONE_TYPE_MATRIX;
perkey_zone.leds_min = klm.GetKeyCount();
perkey_zone.leds_max = klm.GetKeyCount();
perkey_zone.leds_count = klm.GetKeyCount();
perkey_zone.matrix_map = klm.GetKeyMap(KEYBOARD_MAP_FILL_TYPE_COUNT);
zones.push_back(perkey_zone);
for(unsigned int i = 0; i < klm.GetKeyCount(); i++)
{
led new_led;
std::string key_name = klm.GetKeyNameAt(i);
std::string alt_name = klm.GetKeyAltNameAt(i);
/*-----------------------------------------*\
| Display the regional legend (KLM alt |
| name) when the layout defines one; the |
| positional name below still drives the |
| wire lookup. |
\*-----------------------------------------*/
new_led.name = (alt_name != KEY_EN_UNUSED) ? alt_name : key_name;
/*-----------------------------------------*\
| Zone ID: a nonzero KLM value is a |
| board- specific wire address from a |
| layout edit (e.g. renumbered top- |
| strip keys); otherwise look it up by |
| key name from the standard table. |
\*-----------------------------------------*/
unsigned int zone_id = klm.GetKeyValueAt(i);
if(zone_id == 0)
{
std::map<std::string, unsigned int>::const_iterator it = hidpp20_key_name_to_zone.find(key_name);
zone_id = (it != hidpp20_key_name_to_zone.end()) ? it->second : 0;
}
new_led.value = zone_id;
leds.push_back(new_led);
led_to_zone_id.push_back((uint16_t)zone_id);
}
/*---------------------------------------------*\
| Classify every reported zone the matrix did |
| not claim. Zone ids index the firmware's |
| fixed enumeration (superset reported, subset |
| stuffed). An unclaimed zone is one of: |
| - a reserved protocol id (>= 0xFE) |
| - a phantom this board misreports (per-PID) |
| - a named extra no KLM layout places |
| (media, G-keys, logo) |
| - a defined position this board does not |
| stuff (ISO on ANSI, numpad on TKL, F13-F15) |
| - unknown: surfaced in an Unmapped zone and |
| logged, so an unstudied board stays |
| controllable and a tester can report which |
| key lights; a report becomes a name or a |
| layout edit. |
\*---------------------------------------------*/
std::set<uint16_t> klm_claimed_zones;
for(uint16_t zid : led_to_zone_id)
{
if(zid != 0)
{
klm_claimed_zones.insert(zid);
}
}
const KbZonePolicy* zone_policy = FindKbZonePolicy(caps.pid_wired, caps.pid_wireless);
/*---------------------------------------------*\
| Plugin override: surface every |
| suppressed zone, for boards that stuff a |
| position no layout places (F13, Keypad |
| =) and for auditing policy entries. |
| Reserved ids stay hidden: 0xFF is the |
| all-keys broadcast, not an LED. |
\*---------------------------------------------*/
LogitechHIDPP20IdleSettings::instance()->load();
bool show_unmapped = LogitechHIDPP20IdleSettings::instance()->showUnmapped();
std::vector<std::pair<uint16_t, std::string>> extras;
std::vector<std::pair<uint16_t, std::string>> unmapped;
for(uint16_t zid : caps.perkey_zone_ids)
{
if(klm_claimed_zones.count(zid) != 0)
{
continue;
}
if(zid >= 0xFE)
{
LOG_DEBUG("[LogitechHID++2.0 %s] zone %u is a reserved protocol id",
name.c_str(), (unsigned)zid);
continue;
}
if(zone_policy != nullptr &&
(zone_policy->suppress_unclaimed || zone_policy->excluded.count(zid) != 0))
{
if(!show_unmapped)
{
LOG_DEBUG("[LogitechHID++2.0 %s] zone %u is a known phantom on this board",
name.c_str(), (unsigned)zid);
continue;
}
unmapped.emplace_back(zid, "LED " + std::to_string(zid));
continue;
}
std::map<uint16_t, std::string>::const_iterator xn = hidpp20_extras_names.find(zid);
if(xn != hidpp20_extras_names.end())
{
extras.emplace_back(zid, xn->second);
continue;
}
std::string position = HIDPP20ZonePositionName(zid);
if(!position.empty())
{
if(!show_unmapped)
{
LOG_DEBUG("[LogitechHID++2.0 %s] zone %u (%s) is a defined position this board does not stuff",
name.c_str(), (unsigned)zid, position.c_str());
continue;
}
unmapped.emplace_back(zid, position);
continue;
}
unmapped.emplace_back(zid, "LED " + std::to_string(zid));
}
if(!extras.empty())
{
zone extras_zone;
extras_zone.name = "Extras";
extras_zone.type = ZONE_TYPE_LINEAR;
extras_zone.leds_min = (unsigned int)extras.size();
extras_zone.leds_max = (unsigned int)extras.size();
extras_zone.leds_count = (unsigned int)extras.size();
zones.push_back(extras_zone);
for(size_t i = 0; i < extras.size(); i++)
{
led new_led;
new_led.name = extras[i].second;
new_led.value = extras[i].first;
leds.push_back(new_led);
led_to_zone_id.push_back(extras[i].first);
}
}
if(!unmapped.empty())
{
std::string id_list;
for(const std::pair<uint16_t, std::string>& um : unmapped)
{
if(!id_list.empty())
{
id_list += " ";
}
id_list += std::to_string(um.first);
}
LOG_INFO("[LogitechHID++2.0 %s] %zu unmapped per-key zone(s): %s, if coloring one "
"of these lights a key, please report which key it is (with PID %04X)",
name.c_str(), unmapped.size(), id_list.c_str(), caps.pid_wired);
zone unmapped_zone;
unmapped_zone.name = "Unmapped";
unmapped_zone.type = ZONE_TYPE_LINEAR;
unmapped_zone.leds_min = (unsigned int)unmapped.size();
unmapped_zone.leds_max = (unsigned int)unmapped.size();
unmapped_zone.leds_count = (unsigned int)unmapped.size();
zones.push_back(unmapped_zone);
for(const std::pair<uint16_t, std::string>& um : unmapped)
{
led new_led;
new_led.name = um.second;
new_led.value = um.first;
leds.push_back(new_led);
led_to_zone_id.push_back(um.first);
}
}
}
else if(const MouseLayout* ml = FindMouseLayout(caps.device_name))
{
/*---------------------------------------------*\
| Known mouse: use table-defined matrix layout |
\*---------------------------------------------*/
std::vector<std::pair<std::string, uint16_t>> mouse_leds;
for(unsigned int i = 0; i < ml->led_count && i < caps.perkey_zone_ids.size(); i++)
{
mouse_leds.push_back(std::make_pair(std::string(ml->led_names[i]),
(uint16_t)caps.perkey_zone_ids[i]));
}
AddLayoutZone("Mouse LEDs", ZONE_TYPE_MATRIX, ml->rows, ml->cols, ml->map, mouse_leds);
}
else
{
/*---------------------------------------------*\
| Other devices: linear zone, auto-named LEDs |
\*---------------------------------------------*/
std::vector<std::pair<std::string, uint16_t>> other_leds;
for(size_t i = 0; i < caps.perkey_zone_ids.size(); i++)
{
other_leds.push_back(std::make_pair("LED " + std::to_string(caps.perkey_zone_ids[i]),
(uint16_t)caps.perkey_zone_ids[i]));
}
AddLayoutZone("LEDs", ZONE_TYPE_LINEAR, 0, 0, nullptr, other_leds);
}
}
else if(caps.is_headset_rgb_hostmode)
{
const HeadsetLayout* hl = FindHeadsetLayout(caps.pid_wireless, caps.pid_wired);
unsigned int layout_leds = 0;
if(hl != nullptr)
{
for(unsigned int e = 0; e < hl->earcup_count; e++)
{
layout_leds += hl->earcups[e].led_count;
}
}
if(hl != nullptr && caps.headset_rgb_hostmode_zone_ids.size() == layout_leds)
{
/*---------------------------------------------*\
| Known headset: one matrix zone per earcup |
| on the physical 2x2 grid; LED value = the |
| firmware zone ID the write path addresses. |
| A zone-count mismatch (firmware variant) |
| falls through to the generic path. |
\*---------------------------------------------*/
for(unsigned int e = 0; e < hl->earcup_count; e++)
{
const HeadsetEarcup& ec = hl->earcups[e];
std::vector<std::pair<std::string, uint16_t>> earcup_leds;
for(unsigned int i = 0; i < ec.led_count; i++)
{
earcup_leds.push_back(std::make_pair("LED " + std::to_string(ec.zone_ids[i]),
(uint16_t)ec.zone_ids[i]));
}
AddLayoutZone(ec.name, ZONE_TYPE_MATRIX, ec.rows, ec.cols, ec.map, earcup_leds);
}
}
else
{
/*---------------------------------------------*\
| Unknown 0x0620 headset: no geometry |
| table, so a single linear zone with |
| one LED per discovered zone ID. |
\*---------------------------------------------*/
std::vector<std::pair<std::string, uint16_t>> headset_leds;
for(size_t i = 0; i < caps.headset_rgb_hostmode_zone_ids.size(); i++)
{
headset_leds.push_back(std::make_pair("LED " + std::to_string(caps.headset_rgb_hostmode_zone_ids[i]),
(uint16_t)caps.headset_rgb_hostmode_zone_ids[i]));
}
AddLayoutZone("Headset", ZONE_TYPE_LINEAR, 0, 0, nullptr, headset_leds);
}
}
else if(caps.has_zone_effects)
{
/*-------------------------------------------------*\
| No per-key: create one zone per cluster |
\*-------------------------------------------------*/
for(size_t i = 0; i < caps.zone_clusters.size(); i++)
{
const HIDPP20ZoneCluster& cluster = caps.zone_clusters[i];
zone new_zone;
new_zone.name = (caps.device_type == LOGITECH_DEVICE_TYPE_SPEAKER)
? speaker_zone_location_name(cluster.location)
: zone_location_name(cluster.location);
new_zone.type = ZONE_TYPE_SINGLE;
new_zone.leds_min = 1;
new_zone.leds_max = 1;
new_zone.leds_count = 1;
zones.push_back(new_zone);
led new_led;
new_led.name = new_zone.name;
new_led.value = cluster.index;
leds.push_back(new_led);
led_to_zone_id.push_back(cluster.index);
}
}
/*-----------------------------------------------------*\
| Build the zone_id -> LED index reverse map. |
| Indexed 0..255 (zone IDs are bytes); -1 marks |
| "no LED for this zone". Used by the FrameEnd |
| commit step to translate the acked_zones list |
| back into LED indices for sent_colors. |
\*-----------------------------------------------------*/
zone_id_to_led_idx.assign(256, -1);
for(size_t i = 0; i < led_to_zone_id.size(); i++)
{
uint16_t zid = led_to_zone_id[i];
if(zid > 0 && zid < 256)
{
zone_id_to_led_idx[zid] = (int)i;
}
}
SetupColors();
}
/*---------------------------------------------------------*\
| Feature 0x8080 zone setup, fed entirely by |
| DiscoverPerKey8080(); nothing about the key set is |
| hardcoded. Keyboards get the KLM matrix with each key |
| resolved to (keyType, keyId) by its HID usage; the |
| keyboard keyType is the enumerated one whose keyIds best |
| match the HID keyboard page, not a hardcoded value. |
| Enumerated pairs the matrix does not claim go in an |
| Extras zone, named by HID usage where standard. |
\*---------------------------------------------------------*/
bool RGBController_LogitechHIDPP20::PerKey8080Capable() const
{
const HIDPP20DeviceCapabilities& caps = controller->GetCapabilities();
/*-----------------------------------------------------*\
| 0x8080 per-key is usable if fn2 enumeration |
| confirmed keyTypes, OR the device is a known |
| keyboard model (its strip supplies the wire |
| addressing itself, so it works even when fn2 reads |
| are unavailable). |
\*-----------------------------------------------------*/
return caps.has_perkey_8080
|| (caps.device_type == LOGITECH_DEVICE_TYPE_KEYBOARD
&& caps.idx_perkey_8080 != 0
&& FindKb8080Strip(caps.pid_wired, caps.pid_wireless) != nullptr);
}
void RGBController_LogitechHIDPP20::SetupZones8080()
{
const HIDPP20DeviceCapabilities& caps = controller->GetCapabilities();
/*-----------------------------------------------------*\
| Identify the keyboard keyType: the enumerated keyType |
| whose keyIds overlap the standard HID keyboard page |
| the most. Ties / no keyboard device -> none. |
\*-----------------------------------------------------*/
int kb_type_index = -1;
size_t kb_best_overlap = 0;
if(caps.device_type == LOGITECH_DEVICE_TYPE_KEYBOARD)
{
for(size_t t = 0; t < caps.perkey_8080_types.size(); t++)
{
size_t overlap = 0;
for(uint8_t key_id : caps.perkey_8080_types[t].key_ids)
{
if(hidpp20_key_name_for_usage(key_id) != nullptr)
{
overlap++;
}
}
if(overlap > kb_best_overlap)
{
kb_best_overlap = overlap;
kb_type_index = (int)t;
}
}
}
/*-----------------------------------------------------*\
| Track which (keyType, keyId) pairs the matrix claims |
| so the Extras zone can pick up everything else. |
\*-----------------------------------------------------*/
std::set<uint32_t> claimed; /* (keyType << 8) | keyId */
size_t matrix_total = 0; /* KLM keys in the matrix */
size_t matrix_mapped = 0; /* matrix keys with a live keyId */
const Kb8080Strip* strip = FindKb8080Strip(caps.pid_wired, caps.pid_wireless);
/*-----------------------------------------------------*\
| Keyboard matrix: built when enumeration found a |
| keyboard keyType, or on a known-strip model, where |
| the main block claims unconditionally on keyType |
| 0x01 (the legacy controllers wrote every listed key |
| for years, absent keys just stay dark). |
\*-----------------------------------------------------*/
bool have_enum = (kb_type_index >= 0);
if(have_enum || strip != nullptr)
{
uint16_t kb_key_type = 0x0001;
std::set<uint8_t> kb_key_ids;
if(have_enum)
{
const HIDPP20PerKey8080Type& kb_type = caps.perkey_8080_types[kb_type_index];
kb_key_type = kb_type.key_type;
kb_key_ids.insert(kb_type.key_ids.begin(), kb_type.key_ids.end());
}
KEYBOARD_SIZE kb_size;
KEYBOARD_LAYOUT kb_layout;
hidpp20_derive_keyboard_layout(caps, kb_size, kb_layout);
/*-------------------------------------------------*\
| has_numpad comes from enumeration; without it |
| the strip entry supplies the frame size. |
\*-------------------------------------------------*/
if(!have_enum && strip != nullptr)
{
kb_size = strip->full_size ? KEYBOARD_SIZE_FULL : KEYBOARD_SIZE_TKL;
}
KeyboardLayoutManager klm(kb_layout, kb_size, hidpp20_kb_8080_values);
if(strip != nullptr && strip->keys != nullptr)
{
klm.ChangeKeys(key_set(strip->keys, strip->keys + strip->key_count));
}
zone perkey_zone;
perkey_zone.name = ZONE_EN_KEYBOARD;
perkey_zone.type = ZONE_TYPE_MATRIX;
perkey_zone.leds_min = klm.GetKeyCount();
perkey_zone.leds_max = klm.GetKeyCount();
perkey_zone.leds_count = klm.GetKeyCount();
perkey_zone.matrix_map = klm.GetKeyMap(KEYBOARD_MAP_FILL_TYPE_COUNT,
(uint8_t)klm.GetRowCount(),
(uint8_t)klm.GetColumnCount());
zones.push_back(perkey_zone);
matrix_total = klm.GetKeyCount();
for(unsigned int i = 0; i < klm.GetKeyCount(); i++)
{
std::string key_name = klm.GetKeyNameAt(i);
std::string alt_name = klm.GetKeyAltNameAt(i);
led new_led;
/*---------------------------------------------*\
| Display the regional legend (KLM alt name) |
| when the layout defines one; key_name stays |
| the positional name and drives the wire |
| lookup below. |
\*---------------------------------------------*/
new_led.name = (alt_name != KEY_EN_UNUSED) ? alt_name : key_name;
uint16_t key_type = 0;
uint8_t key_id = 0;
/*---------------------------------------------*\
| A nonzero KLM value is a strip key carrying |
| its wire address (keyType << 8) | keyId. |
| Main-block keys resolve by name to their HID |
| usage; with enumeration the keyId must be |
| one the device reported, on a known strip |
| model without enumeration every resolved key |
| is claimed. |
\*---------------------------------------------*/
unsigned int strip_value = klm.GetKeyValueAt(i);
if(strip_value != 0)
{
key_type = (uint16_t)(strip_value >> 8);
key_id = (uint8_t)(strip_value & 0xFF);
claimed.insert(strip_value);
matrix_mapped++;
}
else
{
std::map<std::string, unsigned int>::const_iterator it = hidpp20_key_name_to_usage.find(key_name);
if(it != hidpp20_key_name_to_usage.end()
&& (have_enum ? kb_key_ids.count((uint8_t)it->second) != 0 : true))
{
key_type = kb_key_type;
key_id = (uint8_t)it->second;
claimed.insert(((uint32_t)key_type << 8) | key_id);
matrix_mapped++;
}
}
new_led.value = ((uint32_t)key_type << 8) | key_id;
leds.push_back(new_led);
led_to_keytype_keyid_8080.emplace_back(key_type, key_id);
}
}
/*-----------------------------------------------------*\
| Extras: every enumerated (keyType, keyId) the matrix |
| did not claim. Named by HID usage where the keyId is |
| a standard keyboard code, generically otherwise. |
\*-----------------------------------------------------*/
std::vector<std::pair<uint16_t, uint8_t>> extras;
/*-----------------------------------------------------*\
| Known model without enumeration: keep the off-frame |
| backslash keys addressable (the ported maps listed |
| ANSI backslash, POUND and ISO backslash together and |
| let the absent ones sit dark). With enumeration the |
| loop below picks these up from the device instead. |
\*-----------------------------------------------------*/
if(!have_enum && strip != nullptr)
{
static const uint8_t frame_usages[] = { 0x31, 0x32, 0x64 };
for(uint8_t usage : frame_usages)
{
if(claimed.count(((uint32_t)0x0001 << 8) | usage) == 0)
{
extras.emplace_back(0x0001, usage);
}
}
}
/*-----------------------------------------------------*\
| Studied-board phantom mask (G512: the firmware |
| reports all five international ids 0x87-0x8B and |
| the full G810 indicator set while only the ABNT2 |
| slash and two indicators are wired). Plugin |
| override surfaces them anyway for auditing new |
| variants (a JIS board may need id probing like the |
| ABNT2 slash, which lights on 0x88 not 0x87). |
\*-----------------------------------------------------*/
LogitechHIDPP20IdleSettings::instance()->load();
bool suppress_unclaimed = (strip != nullptr)
&& strip->suppress_unclaimed
&& !LogitechHIDPP20IdleSettings::instance()->showUnmapped();
for(size_t t = 0; t < caps.perkey_8080_types.size(); t++)
{
uint16_t key_type = caps.perkey_8080_types[t].key_type;
for(uint8_t key_id : caps.perkey_8080_types[t].key_ids)
{
uint32_t pair_key = ((uint32_t)key_type << 8) | key_id;
if(claimed.count(pair_key) != 0)
{
continue;
}
if(suppress_unclaimed)
{
LOG_DEBUG("[LogitechHID++2.0 %s] 0x8080 keyType 0x%04X keyId 0x%02X "
"is a known phantom on this board",
name.c_str(), key_type, key_id);
continue;
}
extras.emplace_back(key_type, key_id);
}
}
if(!extras.empty())
{
zone extras_zone;
extras_zone.name = "Extras";
extras_zone.type = ZONE_TYPE_LINEAR;
extras_zone.leds_min = (unsigned int)extras.size();
extras_zone.leds_max = (unsigned int)extras.size();
extras_zone.leds_count = (unsigned int)extras.size();
extras_zone.matrix_map.Reset();
zones.push_back(extras_zone);
for(size_t i = 0; i < extras.size(); i++)
{
uint16_t key_type = extras[i].first;
uint8_t key_id = extras[i].second;
const char* std_name = hidpp20_key_name_for_usage(key_id);
led new_led;
if(std_name != nullptr)
{
new_led.name = std_name;
}
else
{
char label[32];
snprintf(label, sizeof(label), "Zone 0x%04X Key 0x%02X",
key_type, key_id);
new_led.name = label;
}
new_led.value = ((uint32_t)key_type << 8) | key_id;
leds.push_back(new_led);
led_to_keytype_keyid_8080.emplace_back(key_type, key_id);
}
}
/*-----------------------------------------------------*\
| One-shot summary of how the build mapped onto the |
| UI. If the structure dump looked right but nothing |
| lights, this line localises the break: no keyboard |
| keyType, zero matrix keys mapped, or everything in |
| Extras all point at distinct faults. |
\*-----------------------------------------------------*/
if(have_enum || strip != nullptr)
{
LOG_DEBUG("[LogitechHID++2.0 %s] 0x8080 zones: keyboard keyType 0x%04X%s%s, "
"%zu/%zu matrix keys mapped, %zu extra LED(s)",
name.c_str(),
have_enum ? caps.perkey_8080_types[kb_type_index].key_type : 0x0001,
have_enum ? "" : " (no enumeration, known-model claim)",
(strip != nullptr) ? ", strip applied" : "",
matrix_mapped, matrix_total, extras.size());
}
else
{
LOG_DEBUG("[LogitechHID++2.0 %s] 0x8080 zones: no keyboard keyType "
"identified, %zu extra LED(s) only",
name.c_str(), extras.size());
}
}
void RGBController_LogitechHIDPP20::DeviceUpdateLEDs()
{
/*-----------------------------------------------------*\
| Don't paint while the controller is |
| rediscovering its map: has_perkey and the |
| zone/effect data flap false, so a paint here |
| claims into an empty per-key layer. The effect |
| engine repaints next tick once discovery ends. |
\*-----------------------------------------------------*/
if(controller->DiscoveryInProgress())
{
return;
}
/*-----------------------------------------------------*\
| Per-key Direct rides the sender thread: snapshot, |
| hand over, return, the effect engine owns |
| colors[] and is never throttled by the wire. |
| Checked before the transaction guard so a frame |
| in flight cannot block this thread either. |
\*-----------------------------------------------------*/
{
const HIDPP20DeviceCapabilities& caps_pre = controller->GetCapabilities();
if(caps_pre.has_perkey && !caps_pre.is_headset_rgb_hostmode && !PerKey8080Capable() &&
(unsigned int)active_mode < modes.size() &&
modes[active_mode].color_mode == MODE_COLORS_PER_LED &&
controller->HasPerKeyFrameSender())
{
controller->SubmitPerKeyFrame(colors);
return;
}
}
std::lock_guard<std::recursive_mutex> frame_guard(controller->TransactionMutex());
if(!controller->IsOnline())
{
return;
}
/*-----------------------------------------------------*\
| Ensure SW control is claimed on the first real |
| color push, safe here because the buffer holds |
| actual colors. |
\*-----------------------------------------------------*/
controller->ClaimSWControlIfNeeded();
const HIDPP20DeviceCapabilities& caps = controller->GetCapabilities();
/*-----------------------------------------------------*\
| Frame handling during SLEEPING: |
| |
| Default, suppress frames. A suppressed frame |
| cannot wake a device that treats writes as |
| activity, so this is the safe choice when we |
| don't know how a particular firmware handles |
| host traffic during its fade. |
| |
| Quirk-gated, devices flagged FADE_ACCEPTS_WRITES |
| opt out of suppression because their firmware |
| accepts writes without cancelling sleep. Frames |
| flow through SLEEPING until deep sleep starts BUSY- |
| NACKing every FrameEnd; consecutive-failure |
| tracking then sets deep_sleep and the top |
| IsDeepSleep() check takes over. |
| |
| Both paths suppress until Wake() clears the state. |
\*-----------------------------------------------------*/
if(controller->IsDeepSleep())
{
return;
}
if(controller->GetPowerState() == HIDPP20_POWER_SLEEPING
&& !(caps.quirks & HIDPP20_QUIRK_FADE_ACCEPTS_WRITES))
{
return;
}
/*-----------------------------------------------------*\
| 0x0620 headset (G522 / PRO X 2): static color |
| only, two earcup zones; bypasses the per-key, |
| zone-effect and effect-card paths (0x0620 has |
| none). Host mode is already claimed (sticky); |
| just colors + FrameEnd[0x01]. |
\*-----------------------------------------------------*/
if(caps.is_headset_rgb_hostmode)
{
controller->SetHeadsetRGBHostmodeColors(colors);
return;
}
/*-----------------------------------------------------*\
| Feature 0x8080 (Per Key Lighting). Full repaint |
| grouped by keyType, then one FlushLEDS. |
| led_to_keytype_keyid_8080 (built in SetupZones8080) |
| maps each LED to its wire (keyType, keyId). |
\*-----------------------------------------------------*/
if(PerKey8080Capable() && (unsigned int)active_mode < modes.size() &&
modes[active_mode].color_mode == MODE_COLORS_PER_LED)
{
std::vector<RGBColor> snapshot(colors.begin(), colors.end());
int brightness = controller->GetDimBrightness();
/*-------------------------------------------------*\
| Group painted LEDs by keyType, preserving |
| keyType order of first appearance. Skip |
| unaddressable LEDs (keyType 0 + keyId 0, present |
| in the matrix but not enumerated on the device). |
\*-------------------------------------------------*/
std::vector<std::pair<uint16_t, std::vector<std::pair<uint8_t, RGBColor>>>> by_type;
std::map<uint16_t, size_t> type_slot;
for(size_t i = 0; i < snapshot.size() && i < led_to_keytype_keyid_8080.size(); i++)
{
uint16_t key_type = led_to_keytype_keyid_8080[i].first;
uint8_t key_id = led_to_keytype_keyid_8080[i].second;
if(key_type == 0 && key_id == 0)
{
continue;
}
RGBColor color = snapshot[i];
if(brightness < 100)
{
uint8_t r = RGBGetRValue(color) * brightness / 100;
uint8_t g = RGBGetGValue(color) * brightness / 100;
uint8_t b = RGBGetBValue(color) * brightness / 100;
color = ToRGBColor(r, g, b);
}
std::map<uint16_t, size_t>::iterator slot = type_slot.find(key_type);
if(slot == type_slot.end())
{
type_slot[key_type] = by_type.size();
by_type.emplace_back(key_type, std::vector<std::pair<uint8_t, RGBColor>>());
slot = type_slot.find(key_type);
}
by_type[slot->second].second.emplace_back(key_id, color);
}
if(!by_type.empty())
{
controller->SetPerKey8080(by_type);
controller->PerKeyCommit8080();
}
return;
}
if(caps.has_perkey && (unsigned int)active_mode < modes.size() &&
modes[active_mode].color_mode == MODE_COLORS_PER_LED)
{
/*-------------------------------------------------*\
| Sender thread not registered, send inline. |
\*-------------------------------------------------*/
std::vector<RGBColor> snapshot(colors.begin(), colors.end());
SendPerKeyFrame(snapshot);
return;
}
/*-----------------------------------------------------*\
| Zone-effect devices without per-key (G560, |
| G810 family): one LED per cluster. Re-issue |
| the active effect on each changed zone with |
| that LED's color; Direct rides Static. |
\*-----------------------------------------------------*/
if(caps.has_zone_effects && !caps.has_perkey && !PerKey8080Capable() &&
(unsigned int)active_mode < modes.size() &&
modes[active_mode].color_mode == MODE_COLORS_PER_LED)
{
const mode& current = modes[active_mode];
bool full_update = (sent_colors.size() != colors.size());
bool is_direct = (current.name == "Direct");
uint16_t period = SpeedSliderToPeriodMs(current.speed);
unsigned char brightness = (current.flags & MODE_FLAG_HAS_BRIGHTNESS)
? (unsigned char)current.brightness
: 100;
for(size_t i = 0; i < caps.zone_clusters.size() && i < colors.size(); i++)
{
if(!full_update && sent_colors[i] == colors[i])
{
continue;
}
const HIDPP20ZoneCluster& cluster = caps.zone_clusters[i];
uint8_t eff_idx = 0;
uint16_t eff_id = 0;
for(size_t j = 0; j < cluster.effects.size(); j++)
{
bool match = is_direct ? (cluster.effects[j].effect_id == 0x0001)
: (cluster.effects[j].index == (uint8_t)current.value);
if(match)
{
eff_idx = cluster.effects[j].index;
eff_id = cluster.effects[j].effect_id;
break;
}
}
if(eff_id == 0)
{
continue;
}
controller->SetZoneEffect(cluster.index, eff_idx, eff_id,
RGBGetRValue(colors[i]),
RGBGetGValue(colors[i]),
RGBGetBValue(colors[i]),
period, brightness, 0, false);
}
sent_colors.assign(colors.begin(), colors.end());
controller->UpgradeSwControlAfterFirstPaint();
return;
}
}
/*---------------------------------------------------------*\
| One per-key frame: diff the snapshot against sent_colors, |
| put the differences on the wire, settle the ACKs. Runs on |
| the controller's sender thread (or inline as a fallback |
| when no sender is registered), never on the thread that |
| animates the color buffer. |
\*---------------------------------------------------------*/
void RGBController_LogitechHIDPP20::SendPerKeyFrame(std::vector<RGBColor>& snapshot)
{
std::lock_guard<std::recursive_mutex> frame_guard(controller->TransactionMutex());
if(!controller->IsOnline())
{
return;
}
const HIDPP20DeviceCapabilities& caps = controller->GetCapabilities();
if(controller->IsDeepSleep())
{
return;
}
if(controller->GetPowerState() == HIDPP20_POWER_SLEEPING
&& !(caps.quirks & HIDPP20_QUIRK_FADE_ACCEPTS_WRITES))
{
return;
}
controller->ClaimSWControlIfNeeded();
if(!caps.has_perkey || (unsigned int)active_mode >= modes.size() ||
modes[active_mode].color_mode != MODE_COLORS_PER_LED)
{
return;
}
uint8_t perkey_idx = (caps.idx_perkey_v2 != 0) ? caps.idx_perkey_v2 : caps.idx_perkey_v1;
/*-----------------------------------------------------*\
| Detect re-initialization (reconnect, wake from |
| sleep). Device state is unknown, force full resend. |
\*-----------------------------------------------------*/
uint32_t gen = controller->GetInitGeneration();
if(gen != last_init_gen)
{
sent_colors.clear();
resync_cursor = 0;
last_init_gen = gen;
}
/*-----------------------------------------------------*\
| Per-key prep, selected by a capability probe at |
| discovery: (A) Observed prep (DoObservedPerKeyPrep): |
| two SetEffectByIndex calls on 0x8071 cloned from the |
| official app, parameterized from discovery (template |
| bytes, effect count) so it fits any device with |
| effect cards. Gated on caps.has_effect_cards (set iff |
| GetEffectSpecificInfo answers). (B) Static-pass- |
| through (doc-verified on G515), for devices without |
| effect cards or on 0x8070/0x0600: SetEffect |
| cluster=0xFF, Static, RGB 0, persist=1. |
\*-----------------------------------------------------*/
bool needs_prep = controller->NeedsPrepSequence();
bool prep_ran = false;
if(needs_prep && caps.has_zone_effects)
{
prep_ran = true;
/*-------------------------------------------------*\
| Once per claim. The prep wipes the per-key |
| buffer, so running it again on a later |
| frame throws away everything painted since. |
\*-------------------------------------------------*/
controller->MarkPrepApplied();
bool shape_matches_keyboard_family =
caps.idx_disable_keys_by_usage != 0
&& caps.idx_perkey_v2 != 0
&& caps.rgb_feature_page == HIDPP20_FEAT_RGB_EFFECTS;
bool shape_matches_observed_prep =
caps.has_effect_cards
&& caps.rgb_feature_page == HIDPP20_FEAT_RGB_EFFECTS;
if(shape_matches_keyboard_family)
{
/*---------------------------------------------*\
| G815 / G915 / G Pro: per-cluster Off + primer |
| key + FrameEnd. Matches their legacy |
| InitializeDirect wire sequence. |
\*---------------------------------------------*/
controller->DoKeyboardFamilyPerKeyPrep();
}
else if(shape_matches_observed_prep)
{
controller->DoObservedPerKeyPrep();
}
else
{
/*---------------------------------------------*\
| Per-cluster static-black primer. 0x8070 |
| rejects the cluster=0xFF broadcast (seen on |
| the G810), so address each cluster by its |
| own index, matching the Off-mode path. |
\*---------------------------------------------*/
for(size_t i = 0; i < caps.zone_clusters.size(); i++)
{
for(size_t j = 0; j < caps.zone_clusters[i].effects.size(); j++)
{
if(caps.zone_clusters[i].effects[j].effect_id == 0x0001)
{
controller->SetZoneEffect(
caps.zone_clusters[i].index,
caps.zone_clusters[i].effects[j].index,
0x0001, /* static effect */
0, 0, 0, /* black, no fixed-color marker */
0,
100, /* brightness, unused for static */
0, /* direction, unused for static */
true /* persist=true */);
break;
}
}
}
}
}
/*-----------------------------------------------------*\
| Apply dim brightness scaling if not at |
| full brightness. This modifies the OUTPUT |
| only: the internal colors[] buffer stays |
| at full brightness for the animation. |
\*-----------------------------------------------------*/
int brightness = controller->GetDimBrightness();
if(brightness < 100)
{
for(size_t i = 0; i < snapshot.size(); i++)
{
uint8_t r = RGBGetRValue(snapshot[i]) * brightness / 100;
uint8_t g = RGBGetGValue(snapshot[i]) * brightness / 100;
uint8_t b = RGBGetBValue(snapshot[i]) * brightness / 100;
snapshot[i] = ToRGBColor(r, g, b);
}
}
/*-----------------------------------------------------*\
| Delta against last committed state; the first call |
| sends everything. A prep frame sends everything |
| too: the prep wipes the device buffer, so nothing |
| sent_colors calls committed is still there, and an |
| empty delta would return without painting, leaving |
| the device wiped, the 6->5 upgrade never firing, |
| and the prep re-running every frame. |
\*-----------------------------------------------------*/
bool full_update = (sent_colors.size() != snapshot.size()) || prep_ran;
std::map<RGBColor, std::vector<uint8_t>> color_to_zones;
std::vector<bool> zone_in_frame(256, false);
unsigned int delta_zones = 0;
for(size_t i = 0; i < snapshot.size() && i < led_to_zone_id.size(); i++)
{
if(led_to_zone_id[i] == 0 || led_to_zone_id[i] > 255)
{
continue;
}
if(full_update || snapshot[i] != sent_colors[i])
{
color_to_zones[snapshot[i]].push_back((uint8_t)led_to_zone_id[i]);
zone_in_frame[led_to_zone_id[i]] = true;
delta_zones++;
}
}
/*-----------------------------------------------------*\
| Rolling resync (see HIDPP20_RESYNC_KEYS_MIN): repaint |
| the least recently visited keys whether or not they |
| look clean, so a key the device never applied heals. |
| The cursor walks every LED in turn, so coverage is |
| bounded even when one region changes every frame. |
\*-----------------------------------------------------*/
if(!full_update && !led_to_zone_id.empty())
{
unsigned int budget = (delta_zones <= HIDPP20_RESYNC_QUIET_ZONES)
? HIDPP20_RESYNC_KEYS_MAX
: HIDPP20_RESYNC_KEYS_MIN;
unsigned int added = 0;
for(size_t scanned = 0; scanned < led_to_zone_id.size() && added < budget; scanned++)
{
size_t idx = resync_cursor % led_to_zone_id.size();
resync_cursor++;
if(idx >= snapshot.size() || led_to_zone_id[idx] == 0 || led_to_zone_id[idx] > 255)
{
continue;
}
if(zone_in_frame[led_to_zone_id[idx]])
{
continue;
}
color_to_zones[snapshot[idx]].push_back((uint8_t)led_to_zone_id[idx]);
zone_in_frame[led_to_zone_id[idx]] = true;
added++;
}
}
if(color_to_zones.empty())
{
return;
}
/*-----------------------------------------------------*\
| Drain stale ACKs from previous frames before sending. |
| Without this, SendPerKeyData reads a stale ACK, |
| mistakes it for the current write's ACK, returns |
| early, and FrameEnd then races with the actual ACK. |
\*-----------------------------------------------------*/
controller->FlushResponseQueue();
/*-----------------------------------------------------*\
| Batch changed keys for wire encoding: same-color |
| groups (2+): sort zones; runs of 3+ go fn5 |
| SET_RANGE [start,end,R,G,B] x3/packet; scattered |
| go fn6 SET_SINGLE_VALUE [R,G,B,zid...] up to |
| 13/packet single-occurrence colors: fn1 |
| SET_INDIVIDUAL [zid,R,G,B] x4/packet |
\*-----------------------------------------------------*/
std::vector<std::pair<uint16_t, RGBColor>> individual_pairs;
for(std::pair<const RGBColor, std::vector<uint8_t>>& entry : color_to_zones)
{
RGBColor color = entry.first;
std::vector<uint8_t>& zone_ids = entry.second;
if(zone_ids.size() >= 2)
{
uint8_t r = RGBGetRValue(color);
uint8_t g = RGBGetGValue(color);
uint8_t b = RGBGetBValue(color);
/*---------------------------------------------*\
| Sort zone IDs into contiguous runs for fn5 |
\*---------------------------------------------*/
std::sort(zone_ids.begin(), zone_ids.end());
std::vector<std::pair<uint8_t, uint8_t>> ranges;
std::vector<uint8_t> scattered;
size_t run_start = 0;
for(size_t i = 1; i <= zone_ids.size(); i++)
{
if(i < zone_ids.size() && zone_ids[i] == zone_ids[i - 1] + 1)
{
continue;
}
size_t run_len = i - run_start;
if(run_len >= 3)
{
ranges.push_back({zone_ids[run_start], zone_ids[i - 1]});
}
else
{
for(size_t j = run_start; j < i; j++)
{
scattered.push_back(zone_ids[j]);
}
}
run_start = i;
}
/*---------------------------------------------*\
| fn5 (SET_RANGE): 3 range entries per |
| packet. Track every zone in each |
| packet's ranges so the FrameEnd ACK |
| matcher can mark them committed. |
\*---------------------------------------------*/
for(size_t i = 0; i < ranges.size(); i += 3)
{
uint8_t data[16] = {};
std::vector<uint8_t> packet_zones;
size_t batch = ranges.size() - i;
if(batch > 3) batch = 3;
for(size_t j = 0; j < batch; j++)
{
data[j * 5 + 0] = ranges[i + j].first;
data[j * 5 + 1] = ranges[i + j].second;
data[j * 5 + 2] = r;
data[j * 5 + 3] = g;
data[j * 5 + 4] = b;
for(uint8_t z = ranges[i + j].first;
z <= ranges[i + j].second; z++)
{
packet_zones.push_back(z);
}
}
controller->SendPerKeyData(perkey_idx, FN_8081_SET_RANGE,
data, batch * 5, packet_zones);
}
/*---------------------------------------------*\
| fn6 (SET_SINGLE_VALUE) for the scattered |
| remainder. Track listed zone IDs per packet. |
\*---------------------------------------------*/
for(size_t i = 0; i < scattered.size(); i += 13)
{
uint8_t data[16] = {};
std::vector<uint8_t> packet_zones;
data[0] = r;
data[1] = g;
data[2] = b;
size_t batch = scattered.size() - i;
if(batch > 13) batch = 13;
for(size_t j = 0; j < batch; j++)
{
data[3 + j] = scattered[i + j];
packet_zones.push_back(scattered[i + j]);
}
controller->SendPerKeyData(perkey_idx, FN_8081_SET_SINGLE_VALUE,
data, 3 + batch, packet_zones);
}
}
else
{
for(uint8_t zid : zone_ids)
{
individual_pairs.push_back({zid, color});
}
}
}
if(!individual_pairs.empty())
{
controller->SetPerKeyColors(individual_pairs);
}
PerKeyFrameResult commit = controller->PerKeyFrameEnd();
/*-----------------------------------------------------*\
| Size sent_colors to the snapshot before the |
| commit loop writes by index, empty on the |
| first frame (or after a reinit clear) the |
| writes would no-op and the prep would re-fire |
| every frame. Fill with HIDPP20_UNCOMMITTED so |
| untouched LEDs schedule for the next delta. |
\*-----------------------------------------------------*/
if(sent_colors.size() != snapshot.size())
{
sent_colors.assign(snapshot.size(), HIDPP20_UNCOMMITTED);
}
/*-----------------------------------------------------*\
| Build a fast lookup of acked zones for this frame. |
\*-----------------------------------------------------*/
std::set<uint8_t> acked_set(commit.acked_zones.begin(),
commit.acked_zones.end());
if(commit.frame_end_acked)
{
/*-------------------------------------------------*\
| Frame end ACKed: any zone whose write packet also |
| ACKed is now committed, advance sent_colors for |
| that LED. Any zone we attempted but never saw an |
| ACK for goes to HIDPP20_UNCOMMITTED so the next |
| frame's delta picks it up. |
\*-------------------------------------------------*/
for(uint8_t zid : commit.attempted_zones)
{
int led_idx = zone_id_to_led_idx[zid];
if(led_idx < 0 || (size_t)led_idx >= sent_colors.size())
{
continue;
}
if(acked_set.count(zid))
{
sent_colors[led_idx] = snapshot[led_idx];
}
else
{
/*-----------------------------------------*\
| A reply that did not arrive says nothing |
| about the position; leave it uncommitted |
| and let the next delta carry it again. |
\*-----------------------------------------*/
sent_colors[led_idx] = HIDPP20_UNCOMMITTED;
}
}
}
else
{
/*-------------------------------------------------*\
| FrameEnd timed out: unknown what committed, |
| mark every attempted LED uncommitted for |
| re-push. ACKed writes still sit un-swapped |
| in staging, so per-zone ACK info is moot. |
\*-------------------------------------------------*/
for(uint8_t zid : commit.attempted_zones)
{
int led_idx = zone_id_to_led_idx[zid];
if(led_idx >= 0 && (size_t)led_idx < sent_colors.size())
{
sent_colors[led_idx] = HIDPP20_UNCOMMITTED;
}
}
}
/*-----------------------------------------------------*\
| Upgrade SW control 6 -> 5 only once the per-key |
| buffer holds a complete picture: at flags=5 the per- |
| key layer masks the zone layer, and unwritten keys |
| render black. "Every zone this frame attempted ACKed" |
| is not enough, a clean two-key delta right after the |
| prep wipe would upgrade a device holding two keys and |
| 93 blanks. sent_colors knows: when no mapped LED is |
| still HIDPP20_UNCOMMITTED, the device holds the whole |
| picture; reachable across several frames, where one |
| perfect frame on a 95-key board is not. |
\*-----------------------------------------------------*/
bool buffer_complete = commit.frame_end_acked;
for(size_t i = 0; buffer_complete && i < sent_colors.size() && i < led_to_zone_id.size(); i++)
{
if(led_to_zone_id[i] == 0 || led_to_zone_id[i] > 255)
{
continue;
}
if(sent_colors[i] == HIDPP20_UNCOMMITTED)
{
buffer_complete = false;
}
}
if(buffer_complete)
{
/*-------------------------------------------------*\
| Now, and not one frame before. At flags=5 |
| the per-key layer masks the zone layer, so |
| whatever is in that buffer is what the |
| device shows, hand it the screen while it is |
| half painted and the keys we have not |
| written render as the prep left them. |
\*-------------------------------------------------*/
controller->UpgradeSwControlAfterFirstPaint();
controller->CancelRetryPaint();
}
else if(controller->AwaitingSWControlUpgrade())
{
/*-------------------------------------------------*\
| First paint after a claim: nothing guarantees a |
| next frame (a static color never calls again), so |
| retry until the buffer completes. Only in this |
| window, streaming frames partial-commit routinely |
| and their stragglers ride the next tick's delta; |
| retrying those stalls the animation. |
\*-------------------------------------------------*/
if(!controller->ScheduleRetryPaint())
{
/*---------------------------------------------*\
| Ladder spent: hand the screen over anyway. A |
| zone that never confirms must not hold the |
| upgrade forever, and the zone layer beneath |
| is the worse picture of the two. |
\*---------------------------------------------*/
LOG_INFO("[LogitechHID++2.0 %s] buffer never fully confirmed, upgrading anyway",
name.c_str());
controller->UpgradeSwControlAfterFirstPaint();
controller->CancelRetryPaint();
}
}
else
{
controller->CancelRetryPaint();
}
}
void RGBController_LogitechHIDPP20::DeviceUpdateZoneLEDs(int /*zone*/)
{
std::lock_guard<std::recursive_mutex> frame_guard(controller->TransactionMutex());
DeviceUpdateLEDs();
}
void RGBController_LogitechHIDPP20::DeviceUpdateSingleLED(int /*led*/)
{
std::lock_guard<std::recursive_mutex> frame_guard(controller->TransactionMutex());
DeviceUpdateLEDs();
}
void RGBController_LogitechHIDPP20::DeviceUpdateMode()
{
std::lock_guard<std::recursive_mutex> frame_guard(controller->TransactionMutex());
if(!controller->IsOnline())
{
return;
}
/*-----------------------------------------------------*\
| Drop mode changes while the firmware is fading |
| to off. The device owns its own power state; we |
| don't force-wake it from software. active_mode |
| stays tracked framework- side, and the next |
| wake (firmware onUserActivity) or reconnect |
| will re-apply it through the reinit callback. |
\*-----------------------------------------------------*/
if(controller->GetPowerState() == HIDPP20_POWER_SLEEPING)
{
return;
}
/*-----------------------------------------------------*\
| Claim SW control on the first mode set, |
| deferred from init. |
\*-----------------------------------------------------*/
controller->ClaimSWControlIfNeeded();
const HIDPP20DeviceCapabilities& caps = controller->GetCapabilities();
if((unsigned int)active_mode >= modes.size())
{
return;
}
const mode& current = modes[active_mode];
/*-----------------------------------------------------*\
| Direct mode: invalidate delta tracking so the |
| next DeviceUpdateLEDs sends a full frame with |
| actual colors. |
\*-----------------------------------------------------*/
if(current.name == "Direct")
{
sent_colors.clear();
DeviceUpdateLEDs();
/*-------------------------------------------------*\
| Start power manager (reader + power |
| threads) if not already running. |
\*-------------------------------------------------*/
controller->StartPowerManager();
if(caps.idx_wireless_status != 0 && !caps.has_power_mgmt)
{
controller->StartEventWatcher();
}
return;
}
sent_colors.clear();
/*-----------------------------------------------------*\
| Per-key devices: single-color non-animated modes |
| (Off, Static) go through the per-key path so LEDs |
| track the mode color; animated modes (HAS_SPEED) |
| fall through to zone effects, which render fine |
| alongside per-key on the devices we have data for. |
| |
| 0x8080: Direct is handled above and Off |
| blacks every enumerated key via per-key. Any |
| other mode is a 0x8070/0x8071 zone effect |
| and falls through; those modes only exist |
| when a zone-effect feature is advertised. |
\*-----------------------------------------------------*/
if(PerKey8080Capable())
{
if(current.value == 0xFF)
{
std::vector<std::pair<uint16_t, std::vector<std::pair<uint8_t, RGBColor>>>> by_type;
for(size_t t = 0; t < caps.perkey_8080_types.size(); t++)
{
std::vector<std::pair<uint8_t, RGBColor>> keys;
for(uint8_t key_id : caps.perkey_8080_types[t].key_ids)
{
keys.emplace_back(key_id, ToRGBColor(0, 0, 0));
}
by_type.emplace_back(caps.perkey_8080_types[t].key_type, keys);
}
if(!by_type.empty())
{
controller->SetPerKey8080(by_type);
controller->PerKeyCommit8080();
}
return;
}
/*-------------------------------------------------*\
| Any other mode is a zone effect, fall |
| through to the SetZoneEffect path below. |
\*-------------------------------------------------*/
}
if(caps.has_perkey)
{
/*-------------------------------------------------*\
| Off mode via per-key: set all LEDs to black |
\*-------------------------------------------------*/
if(current.value == 0xFF)
{
controller->SetAllPerKeyColor(ToRGBColor(0, 0, 0));
controller->PerKeyFrameEnd();
return;
}
/*-------------------------------------------------*\
| Static mode via per-key: only used as a fallback |
| when the device exposes per-key but no zone |
| effects. When both are available we prefer the |
| zone-effect path because per-key writes alone |
| don't fully claim against the firmware effect |
| engine on some devices (G502), leaving the |
| firmware fade fighting our per-key colors until |
| something else (e.g. Cycle) force-claims. Gated |
| on !HAS_SPEED so animated colored effects like |
| Breathing don't get clipped to a static color. |
\*-------------------------------------------------*/
if(!caps.has_zone_effects
&& current.color_mode == MODE_COLORS_MODE_SPECIFIC
&& current.colors.size() > 0
&& !(current.flags & MODE_FLAG_HAS_SPEED))
{
controller->SetAllPerKeyColor(current.colors[0]);
controller->PerKeyFrameEnd();
return;
}
/*-------------------------------------------------*\
| Animated effects (Breathing, Cycle, |
| Wave, Ripple) on per-key devices fall |
| through to the zone effect path. |
\*-------------------------------------------------*/
}
/*-----------------------------------------------------*\
| Zone effect modes (devices without per-key, or |
| animated effects that can't be done via per-key) |
| |
| persist branching: 0x8070: ephemeral by default; |
| becomes persist=true only when DeviceSaveMode has |
| set save_pending. 0x8071/0x0600: keeps the pre- |
| existing per-branch hardcoded values (Off=false, |
| Effect=true) pending 0x8071 save research. |
\*-----------------------------------------------------*/
const bool is_8070 = (caps.rgb_feature_page == HIDPP20_FEAT_COLOR_LED_EFFECTS);
/*-----------------------------------------------------*\
| Off mode: set static black on all clusters |
\*-----------------------------------------------------*/
if(current.value == 0xFF)
{
const bool off_persist = is_8070 ? save_pending : false;
for(size_t i = 0; i < caps.zone_clusters.size(); i++)
{
for(size_t j = 0; j < caps.zone_clusters[i].effects.size(); j++)
{
if(caps.zone_clusters[i].effects[j].effect_id == 0x0001)
{
controller->SetZoneEffect(
caps.zone_clusters[i].index,
caps.zone_clusters[i].effects[j].index,
0x0001, 0, 0, 0, 0, 100, 0, off_persist);
break;
}
}
}
controller->UpgradeSwControlAfterFirstPaint();
return;
}
/*-----------------------------------------------------*\
| Effect mode: apply to all clusters. |
| |
| Color source per cluster: |
| MODE_COLORS_PER_LED: current.colors[i] maps to |
| caps.zone_clusters[i] |
| (one LED per cluster on the |
| 0x8070 zone path) |
| MODE_COLORS_MODE_SPECIFIC, current.colors[0] for all |
| MODE_COLORS_NONE: zero (effect ignores RGB) |
\*-----------------------------------------------------*/
uint16_t period = SpeedSliderToPeriodMs(current.speed);
/*-----------------------------------------------------*\
| Brightness defaults to 100 for modes that |
| don't expose a brightness slider; those |
| modes ignore the value at the wire level |
| anyway. Modes flagged HAS_BRIGHTNESS take |
| the user-set value from current.brightness. |
\*-----------------------------------------------------*/
unsigned char brightness = (current.flags & MODE_FLAG_HAS_BRIGHTNESS)
? (unsigned char)current.brightness
: 100;
for(size_t i = 0; i < caps.zone_clusters.size(); i++)
{
uint16_t eff_id = 0;
const std::vector<HIDPP20Effect>& cluster_effects = caps.zone_clusters[i].effects;
for(size_t j = 0; j < cluster_effects.size(); j++)
{
if(cluster_effects[j].index == (uint8_t)current.value)
{
eff_id = cluster_effects[j].effect_id;
break;
}
}
unsigned char r = 0, g = 0, b = 0;
/*-------------------------------------------------*\
| Per-LED modes carry their colors in |
| the LED buffer, not the mode color |
| list, the UI paints leds/colors. |
\*-------------------------------------------------*/
if(current.color_mode == MODE_COLORS_PER_LED && i < colors.size())
{
r = RGBGetRValue(colors[i]);
g = RGBGetGValue(colors[i]);
b = RGBGetBValue(colors[i]);
}
else if(current.color_mode == MODE_COLORS_MODE_SPECIFIC && !current.colors.empty())
{
r = RGBGetRValue(current.colors[0]);
g = RGBGetGValue(current.colors[0]);
b = RGBGetBValue(current.colors[0]);
}
/*-------------------------------------------------*\
| Ripple wants a narrower, much faster period |
| range (2..200ms) than the breathing/wave |
| baseline of 1..20s. Both Ripple variants, 0x000B |
| and the saturation 0x0017: use the fast range; |
| this mirrors Solaar's LEDEffects table, where |
| only Ripple carries a period range override. |
| Cycle (0x0003/0x0015) and Wave (0x0004/0x0016) |
| stay on the standard 1..20s range. |
\*-------------------------------------------------*/
uint16_t cluster_period = (eff_id == 0x000B
|| eff_id == 0x0017)
? RippleSpeedSliderToPeriodMs(current.speed)
: period;
/*-------------------------------------------------*\
| 0x8071/0x0600: persist=true matches what the |
| observed vendor-app wire capture does for every |
| mode-set on these devices. With persist=false |
| the firmware appears to accept the command |
| without actually committing the new effect, |
| which is consistent with Static (which gets |
| prepped with persist=true at startup) being the |
| only effect that visibly works. |
| |
| 0x8070: ephemeral (persist=false) on live |
| writes; DeviceSaveMode flips save_pending |
| true to replay the active mode with |
| persist=true and commit to NVM. |
\*-------------------------------------------------*/
const bool effect_persist = is_8070 ? save_pending : true;
controller->SetZoneEffect(
caps.zone_clusters[i].index,
current.value,
eff_id, r, g, b, cluster_period, brightness,
WaveDirectionToWire(current.direction), effect_persist);
}
/*-----------------------------------------------------*\
| The zone effects are now committed, safe to upgrade |
| from flags=6 to flags=5. Without this, devices that |
| only use zone effects (no per-key Direct path) would |
| stay at flags=6 forever and the firmware would never |
| send onUserActivity events for idle/sleep. |
\*-----------------------------------------------------*/
controller->UpgradeSwControlAfterFirstPaint();
}
void RGBController_LogitechHIDPP20::DeviceSaveMode()
{
std::lock_guard<std::recursive_mutex> frame_guard(controller->TransactionMutex());
/*-----------------------------------------------------*\
| 0x8071/0x0600 already write persist=true on every |
| mode change, so the Save button isn't exposed on |
| those pages (MODE_FLAG_MANUAL_SAVE is only set for |
| 0x8070 modes in the constructor). If a save ever |
| lands here from those pages anyway, nothing needs |
| doing, the active mode is already committed to NVM. |
| |
| 0x8070: replay the active mode through |
| DeviceUpdateMode with save_pending true so the |
| zone effect writes go out with persist=true, |
| committing the currently-live effect to flash. |
\*-----------------------------------------------------*/
const HIDPP20DeviceCapabilities& caps = controller->GetCapabilities();
if(caps.rgb_feature_page != HIDPP20_FEAT_COLOR_LED_EFFECTS)
{
return;
}
save_pending = true;
DeviceUpdateMode();
save_pending = false;
}
bool RGBController_LogitechHIDPP20::ReapplyActiveMode()
{
std::lock_guard<std::recursive_mutex> frame_guard(controller->TransactionMutex());
/*-----------------------------------------------------*\
| Re-establish the current active_mode on the device. |
| Used by the wake path (after SetRgbPowerMode(1) |
| cancels the firmware fade) and by the reconnect |
| path (after a wireless or USB reconnect). Handles |
| both per-key Direct and zone effect modes: |
| |
| 1. Claim SW control (host mode + flags + power |
| mode). Retried internally; returns true iff |
| the final claim ACKed. ReconnectDevice's |
| fast-backoff loop uses this as the accept |
| signal. |
| 2. Clear sent_colors so the next frame is a |
| full push. Per the 0x8071 lifecycle the |
| device's LED buffer may not survive mode |
| 3->1 or a full reconnect, so we do not |
| trust it to remember prior state. |
| 3. Route through DeviceUpdateMode so both |
| per-key Direct (full per-key frame via |
| DeviceUpdateLEDs) and zone effects (SetEffect |
| per cluster) re-establish correctly. Covers |
| the case where active_mode changed in the GUI |
| while the device was fading; that change was |
| dropped then and lands here on wake. |
\*-----------------------------------------------------*/
bool claimed = controller->ClaimSWControlIfNeeded();
sent_colors.clear();
DeviceUpdateMode();
return claimed;
}
Reference in new issue View Git Blame Copy Permalink