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LumaOps release export
2026-09-03 01:18:36 +02:00
commit 7f1c0e5f71
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Controllers/QMKController/QMKOpenRGBController/QMKOpenRGBRev9Controller/QMKOpenRGBRev9Controller.cpp
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/*---------------------------------------------------------*\
| QMKOpenRGBRev9Controller.cpp |
| |
| Driver for OpenRGB QMK Keyboard Protocol Revision 9 |
| Revision 9 was initially supported by OpenRGB 0.6 |
| |
| Kasper 10 Oct 2020 |
| Jath03 28 May 2021 |
| |
| This file is part of the OpenRGB project |
| SPDX-License-Identifier: GPL-2.0-or-later |
\*---------------------------------------------------------*/
#include "QMKKeycodes.h"
#include "QMKOpenRGBRev9Controller.h"
using namespace std::chrono_literals;
QMKOpenRGBRev9Controller::QMKOpenRGBRev9Controller(hid_device *dev_handle, const char *path) :
QMKOpenRGBBaseController(dev_handle, path, 20)
{
}
QMKOpenRGBRev9Controller::~QMKOpenRGBRev9Controller()
{
}
void QMKOpenRGBRev9Controller::GetLEDInfo(unsigned int led)
{
unsigned char usb_buf[QMK_OPENRGB_PACKET_SIZE];
/*-----------------------------------------------------*\
| Zero out buffer |
\*-----------------------------------------------------*/
memset(usb_buf, 0x00, QMK_OPENRGB_PACKET_SIZE);
/*-----------------------------------------------------*\
| Set up config table request packet |
\*-----------------------------------------------------*/
usb_buf[0x00] = 0x00;
usb_buf[0x01] = QMK_OPENRGB_GET_LED_INFO;
usb_buf[0x02] = led;
int bytes_read = 0;
do
{
hid_write(dev, usb_buf, QMK_OPENRGB_PACKET_SIZE);
bytes_read = hid_read_timeout(dev, usb_buf, QMK_OPENRGB_PACKET_SIZE, QMK_OPENRGB_HID_READ_TIMEOUT);
} while(bytes_read <= 0);
if(usb_buf[62] != QMK_OPENRGB_FAILURE)
{
led_points.push_back(point_t{usb_buf[QMK_OPENRGB_POINT_X_BYTE], usb_buf[QMK_OPENRGB_POINT_Y_BYTE]});
led_flags.push_back(usb_buf[QMK_OPENRGB_FLAG_BYTE]);
led_colors.push_back(ToRGBColor(usb_buf[QMK_OPENRGB_R_COLOR_BYTE], usb_buf[QMK_OPENRGB_G_COLOR_BYTE], usb_buf[QMK_OPENRGB_B_COLOR_BYTE]));
}
if(usb_buf[QMK_OPENRGB_KEYCODE_BYTE] != 0)
{
if(qmk_keynames.count(usb_buf[QMK_OPENRGB_KEYCODE_BYTE]) > 0)
{
led_names.push_back(qmk_keynames[usb_buf[QMK_OPENRGB_KEYCODE_BYTE]]);
}
else
{
LOG_DEBUG("[%s] Key code: %d (%02X) @ offset %d was not found in the QMK keyname map",
device_name.c_str(), usb_buf[QMK_OPENRGB_KEYCODE_BYTE],
usb_buf[QMK_OPENRGB_KEYCODE_BYTE], led);
led_names.push_back(KEY_EN_UNUSED);
}
}
}
bool QMKOpenRGBRev9Controller::GetIsModeEnabled(unsigned int mode)
{
unsigned char usb_buf[QMK_OPENRGB_PACKET_SIZE];
/*-----------------------------------------------------*\
| Zero out buffer |
\*-----------------------------------------------------*/
memset(usb_buf, 0x00, QMK_OPENRGB_PACKET_SIZE);
/*-----------------------------------------------------*\
| Set up config table request packet |
\*-----------------------------------------------------*/
usb_buf[0x00] = 0x00;
usb_buf[0x01] = QMK_OPENRGB_GET_IS_MODE_ENABLED;
usb_buf[0x02] = mode;
int bytes_read = 0;
do
{
hid_write(dev, usb_buf, QMK_OPENRGB_PACKET_SIZE);
bytes_read = hid_read_timeout(dev, usb_buf, QMK_OPENRGB_PACKET_SIZE, QMK_OPENRGB_HID_READ_TIMEOUT);
} while(bytes_read <= 0);
return usb_buf[1] == QMK_OPENRGB_SUCCESS ? true : false;
}
void QMKOpenRGBRev9Controller::DirectModeSetSingleLED(unsigned int led, unsigned char red, unsigned char green, unsigned char blue)
{
unsigned char usb_buf[QMK_OPENRGB_PACKET_SIZE];
/*-----------------------------------------------------*\
| Zero out buffer |
\*-----------------------------------------------------*/
memset(usb_buf, 0x00, QMK_OPENRGB_PACKET_SIZE);
/*-----------------------------------------------------*\
| Set up config table request packet |
\*-----------------------------------------------------*/
usb_buf[0x00] = 0x00;
usb_buf[0x01] = QMK_OPENRGB_DIRECT_MODE_SET_SINGLE_LED;
usb_buf[0x02] = led;
usb_buf[0x03] = red;
usb_buf[0x04] = green;
usb_buf[0x05] = blue;
/*-----------------------------------------------------*\
| Send packet |
\*-----------------------------------------------------*/
hid_write(dev, usb_buf, 65);
hid_read_timeout(dev, usb_buf, 65, QMK_OPENRGB_HID_READ_TIMEOUT);
}
void QMKOpenRGBRev9Controller::DirectModeSetLEDs(std::vector<RGBColor> colors, unsigned int leds_count)
{
unsigned int leds_sent = 0;
unsigned int tmp_leds_per_update = leds_per_update;
while (leds_sent < leds_count)
{
if ((leds_count - leds_sent) < tmp_leds_per_update)
{
tmp_leds_per_update = leds_count - leds_sent;
}
unsigned char usb_buf[QMK_OPENRGB_PACKET_SIZE];
/*-----------------------------------------------------*\
| Zero out buffer |
\*-----------------------------------------------------*/
memset(usb_buf, 0x00, QMK_OPENRGB_PACKET_SIZE);
/*-----------------------------------------------------*\
| Set up config table request packet |
\*-----------------------------------------------------*/
usb_buf[0x00] = 0x00;
usb_buf[0x01] = QMK_OPENRGB_DIRECT_MODE_SET_LEDS;
usb_buf[0x02] = leds_sent;
usb_buf[0x03] = tmp_leds_per_update;
for (unsigned int led_idx = 0; led_idx < tmp_leds_per_update; led_idx++)
{
usb_buf[(led_idx * 3) + 4] = RGBGetRValue(colors[led_idx + leds_sent]);
usb_buf[(led_idx * 3) + 5] = RGBGetGValue(colors[led_idx + leds_sent]);
usb_buf[(led_idx * 3) + 6] = RGBGetBValue(colors[led_idx + leds_sent]);
}
hid_write(dev, usb_buf, 65);
if(delay > 0ms)
{
std::this_thread::sleep_for(delay);
}
leds_sent += tmp_leds_per_update;
}
}
Controllers/QMKController/QMKOpenRGBController/QMKOpenRGBRev9Controller/QMKOpenRGBRev9Controller.h
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/*---------------------------------------------------------*\
| QMKOpenRGBRev9Controller.h |
| |
| Driver for OpenRGB QMK Keyboard Protocol Revision 9 |
| Revision 9 was initially supported by OpenRGB 0.6 |
| |
| Kasper 10 Oct 2020 |
| Jath03 28 May 2021 |
| |
| This file is part of the OpenRGB project |
| SPDX-License-Identifier: GPL-2.0-or-later |
\*---------------------------------------------------------*/
#pragma once
#include "QMKOpenRGBBaseController.h"
class QMKOpenRGBRev9Controller : public QMKOpenRGBBaseController
{
public:
QMKOpenRGBRev9Controller(hid_device *dev_handle, const char *path);
~QMKOpenRGBRev9Controller();
//Virtual function implementations
void GetLEDInfo(unsigned int led);
void DirectModeSetSingleLED(unsigned int led, unsigned char red, unsigned char green, unsigned char blue);
void DirectModeSetLEDs(std::vector<RGBColor> colors, unsigned int num_colors);
//Protocol Specific functions
bool GetIsModeEnabled(unsigned int mode);
private:
};
Controllers/QMKController/QMKOpenRGBController/QMKOpenRGBRev9Controller/RGBController_QMKOpenRGBRev9.cpp
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/*---------------------------------------------------------*\
| RGBController_QMKOpenRGBRev9.cpp |
| |
| RGBController for OpenRGB QMK Keyboard Protocol |
| Revision 9 |
| |
| Kasper 10 Oct 2020 |
| Jath03 28 May 2021 |
| |
| This file is part of the OpenRGB project |
| SPDX-License-Identifier: GPL-2.0-or-later |
\*---------------------------------------------------------*/
#include "hsv.h"
#include "LogManager.h"
#include "RGBController_QMKOpenRGBRev9.h"
/**------------------------------------------------------------------*\
@name Quantum Mechanical Keyboard (QMK)
@category Keyboard
@type USB
@save :x:
@direct :white_check_mark:
@effects :white_check_mark:
@detectors
@comment Please see [the github page](https://github.com/qmk/qmk_firmware#supported-keyboards) for the up to date list of
keyboards supported by the QMK controller.
\*-------------------------------------------------------------------*/
RGBController_QMKOpenRGBRev9::RGBController_QMKOpenRGBRev9(QMKOpenRGBRev9Controller* controller_ptr)
{
controller = controller_ptr;
name = controller->GetDeviceName();
vendor = controller->GetDeviceVendor();
description = "QMK OpenRGB Device (Protocol Version " + std::to_string(controller->GetProtocolVersion()) + ")";
type = DEVICE_TYPE_KEYBOARD;
location = controller->GetLocation();
version = controller->GetQMKVersion();
unsigned int current_mode = 1;
if(controller->GetIsModeEnabled(QMK_OPENRGB_MODE_OPENRGB_DIRECT))
{
InitializeMode("Direct", current_mode, MODE_FLAG_HAS_PER_LED_COLOR, MODE_COLORS_PER_LED);
}
if(controller->GetIsModeEnabled(QMK_OPENRGB_MODE_SOLID_COLOR))
{
InitializeMode("Static", current_mode, MODE_FLAG_HAS_MODE_SPECIFIC_COLOR, MODE_COLORS_MODE_SPECIFIC);
}
if(controller->GetIsModeEnabled(QMK_OPENRGB_MODE_ALPHA_MOD))
{
InitializeMode("Alpha Mod", current_mode, MODE_FLAG_HAS_MODE_SPECIFIC_COLOR | MODE_FLAG_HAS_SPEED, MODE_COLORS_MODE_SPECIFIC);
}
if(controller->GetIsModeEnabled(QMK_OPENRGB_MODE_GRADIENT_UP_DOWN))
{
InitializeMode("Gradient Up Down", current_mode, MODE_FLAG_HAS_MODE_SPECIFIC_COLOR | MODE_FLAG_HAS_SPEED, MODE_COLORS_MODE_SPECIFIC);
}
if(controller->GetIsModeEnabled(QMK_OPENRGB_MODE_GRADIENT_LEFT_RIGHT))
{
InitializeMode("Gradient Left Right", current_mode, MODE_FLAG_HAS_MODE_SPECIFIC_COLOR | MODE_FLAG_HAS_SPEED, MODE_COLORS_MODE_SPECIFIC);
}
if(controller->GetIsModeEnabled(QMK_OPENRGB_MODE_BREATHING))
{
InitializeMode("Breathing", current_mode, MODE_FLAG_HAS_MODE_SPECIFIC_COLOR | MODE_FLAG_HAS_SPEED, MODE_COLORS_MODE_SPECIFIC);
}
if(controller->GetIsModeEnabled(QMK_OPENRGB_MODE_BAND_SAT))
{
InitializeMode("Band Saturation", current_mode, MODE_FLAG_HAS_MODE_SPECIFIC_COLOR | MODE_FLAG_HAS_SPEED, MODE_COLORS_MODE_SPECIFIC);
}
if(controller->GetIsModeEnabled(QMK_OPENRGB_MODE_BAND_VAL))
{
InitializeMode("Band Value", current_mode, MODE_FLAG_HAS_MODE_SPECIFIC_COLOR | MODE_FLAG_HAS_SPEED, MODE_COLORS_MODE_SPECIFIC);
}
if(controller->GetIsModeEnabled(QMK_OPENRGB_MODE_BAND_PINWHEEL_SAT))
{
InitializeMode("Band Pinwheel Saturation", current_mode, MODE_FLAG_HAS_MODE_SPECIFIC_COLOR | MODE_FLAG_HAS_SPEED, MODE_COLORS_MODE_SPECIFIC);
}
if(controller->GetIsModeEnabled(QMK_OPENRGB_MODE_BAND_PINWHEEL_VAL))
{
InitializeMode("Band Pinwheel Value", current_mode, MODE_FLAG_HAS_MODE_SPECIFIC_COLOR | MODE_FLAG_HAS_SPEED, MODE_COLORS_MODE_SPECIFIC);
}
if(controller->GetIsModeEnabled(QMK_OPENRGB_MODE_BAND_SPIRAL_SAT))
{
InitializeMode("Band Spiral Saturation", current_mode, MODE_FLAG_HAS_MODE_SPECIFIC_COLOR | MODE_FLAG_HAS_SPEED, MODE_COLORS_MODE_SPECIFIC);
}
if(controller->GetIsModeEnabled(QMK_OPENRGB_MODE_BAND_SPIRAL_VAL))
{
InitializeMode("Band Spiral Value", current_mode, MODE_FLAG_HAS_MODE_SPECIFIC_COLOR | MODE_FLAG_HAS_SPEED, MODE_COLORS_MODE_SPECIFIC);
}
if(controller->GetIsModeEnabled(QMK_OPENRGB_MODE_CYCLE_ALL))
{
InitializeMode("Cycle All", current_mode, MODE_FLAG_HAS_SPEED, MODE_COLORS_NONE);
}
if(controller->GetIsModeEnabled(QMK_OPENRGB_MODE_CYCLE_LEFT_RIGHT))
{
InitializeMode("Cycle Left Right", current_mode, MODE_FLAG_HAS_SPEED, MODE_COLORS_NONE);
}
if(controller->GetIsModeEnabled(QMK_OPENRGB_MODE_CYCLE_UP_DOWN))
{
InitializeMode("Cycle Up Down", current_mode, MODE_FLAG_HAS_SPEED, MODE_COLORS_NONE);
}
if(controller->GetIsModeEnabled(QMK_OPENRGB_MODE_CYCLE_OUT_IN))
{
InitializeMode("Cycle Out In", current_mode, MODE_FLAG_HAS_SPEED, MODE_COLORS_NONE);
}
if(controller->GetIsModeEnabled(QMK_OPENRGB_MODE_CYCLE_OUT_IN_DUAL))
{
InitializeMode("Cycle Out In Dual", current_mode, MODE_FLAG_HAS_SPEED, MODE_COLORS_NONE);
}
if(controller->GetIsModeEnabled(QMK_OPENRGB_MODE_RAINBOW_MOVING_CHEVRON))
{
InitializeMode("Rainbow Moving Chevron", current_mode, MODE_FLAG_HAS_SPEED, MODE_COLORS_NONE);
}
if(controller->GetIsModeEnabled(QMK_OPENRGB_MODE_CYCLE_PINWHEEL))
{
InitializeMode("Cycle Pinwheel", current_mode, MODE_FLAG_HAS_SPEED, MODE_COLORS_NONE);
}
if(controller->GetIsModeEnabled(QMK_OPENRGB_MODE_CYCLE_SPIRAL))
{
InitializeMode("Cycle Spiral", current_mode, MODE_FLAG_HAS_SPEED, MODE_COLORS_NONE);
}
if(controller->GetIsModeEnabled(QMK_OPENRGB_MODE_DUAL_BEACON))
{
InitializeMode("Dual Beacon", current_mode, MODE_FLAG_HAS_SPEED, MODE_COLORS_NONE);
}
if(controller->GetIsModeEnabled(QMK_OPENRGB_MODE_RAINBOW_BEACON))
{
InitializeMode("Rainbow Beacon", current_mode, MODE_FLAG_HAS_SPEED, MODE_COLORS_NONE);
}
if(controller->GetIsModeEnabled(QMK_OPENRGB_MODE_RAINBOW_PINWHEELS))
{
InitializeMode("Rainbow Pinwheels", current_mode, MODE_FLAG_HAS_SPEED, MODE_COLORS_NONE);
}
if(controller->GetIsModeEnabled(QMK_OPENRGB_MODE_RAINDROPS))
{
InitializeMode("Raindrops", current_mode, 0, MODE_COLORS_NONE);
}
if(controller->GetIsModeEnabled(QMK_OPENRGB_MODE_JELLYBEAN_RAINDROPS))
{
InitializeMode("Jellybean Raindrops", current_mode, 0, MODE_COLORS_NONE);
}
if(controller->GetIsModeEnabled(QMK_OPENRGB_MODE_HUE_BREATHING))
{
InitializeMode("Hue Breathing", current_mode, MODE_FLAG_HAS_MODE_SPECIFIC_COLOR | MODE_FLAG_HAS_SPEED, MODE_COLORS_MODE_SPECIFIC);
}
if(controller->GetIsModeEnabled(QMK_OPENRGB_MODE_HUE_PENDULUM))
{
InitializeMode("Hue Pendulum", current_mode, MODE_FLAG_HAS_MODE_SPECIFIC_COLOR | MODE_FLAG_HAS_SPEED, MODE_COLORS_MODE_SPECIFIC);
}
if(controller->GetIsModeEnabled(QMK_OPENRGB_MODE_HUE_WAVE))
{
InitializeMode("Hue Wave", current_mode, MODE_FLAG_HAS_MODE_SPECIFIC_COLOR | MODE_FLAG_HAS_SPEED, MODE_COLORS_MODE_SPECIFIC);
}
if(controller->GetIsModeEnabled(QMK_OPENRGB_MODE_TYPING_HEATMAP))
{
InitializeMode("Typing Heatmap", current_mode, 0, MODE_COLORS_NONE);
}
if(controller->GetIsModeEnabled(QMK_OPENRGB_MODE_DIGITAL_RAIN))
{
InitializeMode("Digital Rain", current_mode, 0, MODE_COLORS_NONE);
}
if(controller->GetIsModeEnabled(QMK_OPENRGB_MODE_SOLID_REACTIVE_SIMPLE))
{
InitializeMode("Solid Reactive Simple", current_mode, MODE_FLAG_HAS_MODE_SPECIFIC_COLOR | MODE_FLAG_HAS_SPEED, MODE_COLORS_MODE_SPECIFIC);
}
if(controller->GetIsModeEnabled(QMK_OPENRGB_MODE_SOLID_REACTIVE))
{
InitializeMode("Solid Reactive", current_mode, MODE_FLAG_HAS_MODE_SPECIFIC_COLOR | MODE_FLAG_HAS_SPEED, MODE_COLORS_MODE_SPECIFIC);
}
if(controller->GetIsModeEnabled(QMK_OPENRGB_MODE_SOLID_REACTIVE_WIDE))
{
InitializeMode("Solid Reactive Wide", current_mode, MODE_FLAG_HAS_MODE_SPECIFIC_COLOR | MODE_FLAG_HAS_SPEED, MODE_COLORS_MODE_SPECIFIC);
}
if(controller->GetIsModeEnabled(QMK_OPENRGB_MODE_SOLID_REACTIVE_MULTIWIDE))
{
InitializeMode("Solid Reactive Multi Wide", current_mode, MODE_FLAG_HAS_MODE_SPECIFIC_COLOR | MODE_FLAG_HAS_SPEED, MODE_COLORS_MODE_SPECIFIC);
}
if(controller->GetIsModeEnabled(QMK_OPENRGB_MODE_SOLID_REACTIVE_CROSS))
{
InitializeMode("Solid Reactive Cross", current_mode, MODE_FLAG_HAS_MODE_SPECIFIC_COLOR | MODE_FLAG_HAS_SPEED, MODE_COLORS_MODE_SPECIFIC);
}
if(controller->GetIsModeEnabled(QMK_OPENRGB_MODE_SOLID_REACTIVE_MULTICROSS))
{
InitializeMode("Solid Reactive Multi Cross", current_mode, MODE_FLAG_HAS_MODE_SPECIFIC_COLOR | MODE_FLAG_HAS_SPEED, MODE_COLORS_MODE_SPECIFIC);
}
if(controller->GetIsModeEnabled(QMK_OPENRGB_MODE_SOLID_REACTIVE_NEXUS))
{
InitializeMode("Solid Reactive Nexus", current_mode, MODE_FLAG_HAS_MODE_SPECIFIC_COLOR | MODE_FLAG_HAS_SPEED, MODE_COLORS_MODE_SPECIFIC);
}
if(controller->GetIsModeEnabled(QMK_OPENRGB_MODE_SOLID_REACTIVE_MULTINEXUS))
{
InitializeMode("Solid Reactive Multi Nexus", current_mode, MODE_FLAG_HAS_MODE_SPECIFIC_COLOR | MODE_FLAG_HAS_SPEED, MODE_COLORS_MODE_SPECIFIC);
}
if(controller->GetIsModeEnabled(QMK_OPENRGB_MODE_SPLASH))
{
InitializeMode("Rainbow Reactive Splash", current_mode, MODE_FLAG_HAS_SPEED, MODE_COLORS_NONE);
}
if(controller->GetIsModeEnabled(QMK_OPENRGB_MODE_MULTISPLASH))
{
InitializeMode("Rainbow Reactive Multi Splash", current_mode, MODE_FLAG_HAS_SPEED, MODE_COLORS_NONE);
}
if(controller->GetIsModeEnabled(QMK_OPENRGB_MODE_SOLID_SPLASH))
{
InitializeMode("Solid Reactive Splash", current_mode, MODE_FLAG_HAS_MODE_SPECIFIC_COLOR | MODE_FLAG_HAS_SPEED, MODE_COLORS_MODE_SPECIFIC);
}
if(controller->GetIsModeEnabled(QMK_OPENRGB_MODE_SOLID_MULTISPLASH))
{
InitializeMode("Solid Reactive Multi Splash", current_mode, MODE_FLAG_HAS_MODE_SPECIFIC_COLOR | MODE_FLAG_HAS_SPEED, MODE_COLORS_MODE_SPECIFIC);
}
active_mode = controller->GetMode() - 1;
SetupZones();
}
RGBController_QMKOpenRGBRev9::~RGBController_QMKOpenRGBRev9()
{
for(unsigned int zone_index = 0; zone_index < zones.size(); zone_index++)
{
if(zones[zone_index].matrix_map != NULL)
{
delete zones[zone_index].matrix_map;
}
}
}
void RGBController_QMKOpenRGBRev9::SetupZones()
{
/*---------------------------------------------------------*\
| Get the number of LEDs from the device |
\*---------------------------------------------------------*/
const unsigned int total_number_of_leds = controller->GetTotalNumberOfLEDs();
const unsigned int total_number_of_leds_with_empty_space = controller->GetTotalNumberOfLEDsWithEmptySpace();
LOG_INFO("[%s] Keyboard has %u LEDs total", name.c_str(), total_number_of_leds);
/*---------------------------------------------------------*\
| Get information for each LED |
\*---------------------------------------------------------*/
for(unsigned int i = 0; i < std::max(total_number_of_leds, total_number_of_leds_with_empty_space); i++)
{
controller->GetLEDInfo(i);
}
/*---------------------------------------------------------*\
| Get LED vectors from controller |
\*---------------------------------------------------------*/
std::vector<point_t> led_points = controller->GetLEDPoints();
std::vector<unsigned int> led_flags = controller->GetLEDFlags();
std::vector<std::string> led_names = controller->GetLEDNames();
/*---------------------------------------------------------*\
| Count key LEDs and underglow LEDs |
\*---------------------------------------------------------*/
unsigned int number_of_key_leds;
unsigned int number_of_underglow_leds;
CountKeyTypes(led_flags, total_number_of_leds, number_of_key_leds, number_of_underglow_leds);
/*---------------------------------------------------------*\
| Add LED names for underglow zone |
\*---------------------------------------------------------*/
unsigned int number_of_leds = number_of_key_leds + number_of_underglow_leds;
bool has_underglow = number_of_underglow_leds > 0;
LOG_INFO("[%s] Keyboard has %u underglow LEDs", name.c_str(), number_of_underglow_leds);
for(unsigned int i = 0; i < number_of_underglow_leds; i++)
{
led_names.push_back("Underglow: " + std::to_string(number_of_key_leds + i));
}
/*---------------------------------------------------------*\
| Create sets for row and column position values |
\*---------------------------------------------------------*/
std::set<int> rows, columns;
for (unsigned int i = 0; i < number_of_leds; i++)
{
rows.insert(led_points[i].y);
columns.insert(led_points[i].x);
}
/*---------------------------------------------------------*\
| Calculate matrix map from QMK positions |
\*---------------------------------------------------------*/
unsigned int divisor = CalculateDivisor(led_points, rows, columns);
LOG_DEBUG("[%s] Distance between standard keys calculated to be %u", name.c_str(), divisor);
VectorMatrix matrix_map;
VectorMatrix underglow_map;
PlaceLEDsInMaps(rows, columns, divisor, led_points, led_flags, matrix_map, underglow_map);
CleanMatrixMaps(matrix_map, underglow_map, (unsigned int)rows.size(), has_underglow);
/*---------------------------------------------------------*\
| These vectors are class members because if they go out of |
| scope, the underlying array (used by each zones' |
| matrix_map) is unallocated. |
\*---------------------------------------------------------*/
flat_matrix_map = FlattenMatrixMap(matrix_map);
flat_underglow_map = FlattenMatrixMap(underglow_map);
/*---------------------------------------------------------*\
| Create Keyboard zone |
\*---------------------------------------------------------*/
zone keys_zone;
keys_zone.name = "Keyboard";
keys_zone.type = ZONE_TYPE_MATRIX;
keys_zone.leds_min = number_of_key_leds;
keys_zone.leds_max = keys_zone.leds_min;
keys_zone.leds_count = keys_zone.leds_min;
keys_zone.matrix_map = new matrix_map_type;
keys_zone.matrix_map->width = (unsigned int)matrix_map[0].size();
keys_zone.matrix_map->height = (unsigned int)matrix_map.size();
keys_zone.matrix_map->map = flat_matrix_map.data();
zones.push_back(keys_zone);
/*---------------------------------------------------------*\
| Create Underglow zone if it exists |
\*---------------------------------------------------------*/
if(has_underglow)
{
zone underglow_zone;
underglow_zone.name = "Underglow";
underglow_zone.type = ZONE_TYPE_MATRIX;
underglow_zone.leds_min = number_of_underglow_leds;
underglow_zone.leds_max = underglow_zone.leds_min;
underglow_zone.leds_count = underglow_zone.leds_min;
underglow_zone.matrix_map = new matrix_map_type;
underglow_zone.matrix_map->width = (unsigned int)underglow_map[0].size();
underglow_zone.matrix_map->height = (unsigned int)underglow_map.size();
underglow_zone.matrix_map->map = flat_underglow_map.data();
zones.push_back(underglow_zone);
}
/*---------------------------------------------------------*\
| Create LEDs |
\*---------------------------------------------------------*/
for(unsigned int led_idx = 0; led_idx < number_of_leds; led_idx++)
{
led keyboard_led;
if(led_idx < led_names.size())
{
keyboard_led.name = led_names[led_idx];
}
keyboard_led.value = led_idx;
leds.push_back(keyboard_led);
}
/*---------------------------------------------------------*\
| Setup Colors |
\*---------------------------------------------------------*/
SetupColors();
/*---------------------------------------------------------*\
| Initialize colors from device values |
\*---------------------------------------------------------*/
for(unsigned int i = 0; i < leds.size(); i++)
{
colors[i] = controller->GetLEDColors()[i];
}
}
void RGBController_QMKOpenRGBRev9::ResizeZone(int /*zone*/, int /*new_size*/)
{
/*---------------------------------------------------------*\
| This device does not support resizing zones |
\*---------------------------------------------------------*/
}
void RGBController_QMKOpenRGBRev9::DeviceUpdateLEDs()
{
controller->DirectModeSetLEDs(colors, controller->GetTotalNumberOfLEDs());
}
void RGBController_QMKOpenRGBRev9::UpdateZoneLEDs(int /*zone*/)
{
DeviceUpdateLEDs();
}
void RGBController_QMKOpenRGBRev9::UpdateSingleLED(int led)
{
RGBColor color = colors[led];
unsigned char red = RGBGetRValue(color);
unsigned char grn = RGBGetGValue(color);
unsigned char blu = RGBGetBValue(color);
controller->DirectModeSetSingleLED(led, red, grn, blu);
}
void RGBController_QMKOpenRGBRev9::DeviceUpdateMode()
{
if(modes[active_mode].color_mode == MODE_COLORS_PER_LED)
{
controller->SetMode({ 0, 255, 255 }, modes[active_mode].value, 127);
}
else if(modes[active_mode].color_mode == MODE_COLORS_NONE)
{
controller->SetMode({ 0, 255, 255 }, modes[active_mode].value, modes[active_mode].speed);
}
else if(modes[active_mode].color_mode == MODE_COLORS_MODE_SPECIFIC)
{
RGBColor rgb_color = modes[active_mode].colors[0];
hsv_t hsv_color;
rgb2hsv(rgb_color, &hsv_color);
if(modes[active_mode].flags & MODE_FLAG_HAS_SPEED)
{
controller->SetMode(hsv_color, modes[active_mode].value, modes[active_mode].speed);
}
else
{
controller->SetMode(hsv_color, modes[active_mode].value, 127);
}
}
}
void RGBController_QMKOpenRGBRev9::InitializeMode
(
std::string name,
unsigned int &current_mode,
unsigned int flags,
unsigned int color_mode
)
{
mode qmk_mode;
qmk_mode.name = name;
qmk_mode.value = current_mode++;
qmk_mode.flags = flags;
qmk_mode.color_mode = color_mode;
if(flags & MODE_FLAG_HAS_SPEED)
{
qmk_mode.speed_min = QMK_OPENRGB_SPEED_SLOWEST;
qmk_mode.speed_max = QMK_OPENRGB_SPEED_FASTEST;
qmk_mode.speed = QMK_OPENRGB_SPEED_NORMAL;
}
if(flags & MODE_FLAG_HAS_MODE_SPECIFIC_COLOR)
{
qmk_mode.colors_min = 1;
qmk_mode.colors_max = 1;
qmk_mode.colors.resize(1);
qmk_mode.colors[0] = controller->GetModeColor();
}
modes.push_back(qmk_mode);
}
unsigned int RGBController_QMKOpenRGBRev9::CalculateDivisor
(
std::vector<point_t> led_points,
std::set<int> rows,
std::set<int> /*columns*/
)
{
std::vector< std::vector<point_t> > row_points(rows.size());
for(const point_t &pt : led_points)
{
for(const int &i : rows)
{
if(pt.y == i)
{
row_points[std::distance(rows.begin(), rows.find(i))].push_back(pt);
}
}
}
int last_pos;
std::vector<int> distances;
for(const std::vector<point_t> &row : row_points)
{
last_pos = 0;
std::for_each(row.begin(), row.end(), [&distances, &last_pos](const point_t &pt)
{
distances.push_back(std::abs(pt.x - last_pos));
last_pos = pt.x;
});
}
std::map<int, int> counts;
for(const int &i : distances)
{
counts[i]++;
}
/*---------------------------------------------------------*\
| Guard against empty distances (malformed LED data) |
\*---------------------------------------------------------*/
if(distances.empty())
{
LOG_WARNING("[%s] No valid LED distances found, using default divisor of 1", name.c_str());
return 1;
}
unsigned int divisor = distances[0];
for(const std::pair<const int, int> &i : counts)
{
if(counts[divisor] < i.second)
{
divisor = i.first;
}
}
if(divisor == 0)
{
LOG_WARNING("[%s] Calculated divisor is 0, using default of 1. This may indicate malformed LED position data.", name.c_str());
return 1;
}
return divisor;
}
void RGBController_QMKOpenRGBRev9::CountKeyTypes
(
std::vector<unsigned int> led_flags,
unsigned int total_led_count,
unsigned int& key_leds,
unsigned int& underglow_leds
)
{
underglow_leds = 0;
key_leds = 0;
for(unsigned int i = 0; i < total_led_count; i++)
{
if(led_flags[i] & 2)
{
underglow_leds++;
}
else if(led_flags[i] != 0)
{
key_leds++;
}
}
}
void RGBController_QMKOpenRGBRev9::PlaceLEDsInMaps
(
std::set<int> unique_rows,
std::set<int> /*unique_cols*/,
unsigned int divisor,
std::vector<point_t> led_points,
std::vector<unsigned int> led_flags,
VectorMatrix& matrix_map_xl,
VectorMatrix& underglow_map_xl
)
{
matrix_map_xl = MakeEmptyMatrixMap(unique_rows.size(), (std::size_t)(std::round(255 / divisor) + 10));
underglow_map_xl = MakeEmptyMatrixMap(unique_rows.size(), (std::size_t)(std::round(255 / divisor) + 10));
unsigned int x = 0;
unsigned int y = 0;
unsigned int underglow_counter = 0;
for(unsigned int i = 0; i < controller->GetTotalNumberOfLEDs(); i++)
{
if(led_points[i].x != 255 && led_points[i].y != 255)
{
bool underglow = led_flags[i] & 2;
x = (unsigned int)(std::round(led_points[i].x / divisor));
y = (unsigned int)(std::distance(unique_rows.begin(), unique_rows.find(led_points[i].y)));
if(!underglow)
{
while(matrix_map_xl[y][x] != NO_LED)
{
x++;
}
matrix_map_xl[y][x] = i;
LOG_DEBUG("[%s] Key Matrix LED %u, (%u, %u) being placed into (%u, %u)", name.c_str(), i, led_points[i].x, led_points[i].y, x, y);
}
else
{
while(underglow_map_xl[y][x] != NO_LED)
{
x++;
}
underglow_map_xl[y][x] = underglow_counter;
underglow_counter++;
LOG_DEBUG("[%s] Underglow LED %u, (%u, %u) being placed into (%u, %u)", name.c_str(), i, led_points[i].x, led_points[i].y, x, y);
}
}
}
}
VectorMatrix RGBController_QMKOpenRGBRev9::MakeEmptyMatrixMap
(
std::size_t height,
std::size_t width
)
{
std::vector<std::vector<unsigned int> > matrix_map(height);
for(std::size_t i = 0; i < height; i++)
{
for(std::size_t j = 0; j < width; j++)
{
matrix_map[i].push_back(NO_LED);
}
}
return matrix_map;
}
void RGBController_QMKOpenRGBRev9::CleanMatrixMaps
(
VectorMatrix& matrix_map,
VectorMatrix& underglow_map,
unsigned int height,
bool has_underglow
)
{
bool empty_col = true;
bool empty_col_udg = true;
bool empty_row = true;
int width = 0;
int width_udg = 0;
std::vector<int> empty_rows;
bool can_break;
bool can_break_udg;
for(unsigned int i = 0; i < height; i++)
{
empty_row = true;
can_break = false;
can_break_udg = false;
for(int j = (int)matrix_map[i].size() - 1; j --> 0; )
{
if(matrix_map[i][j] != NO_LED && width < (j + 1) && !can_break)
{
width = (j + 1);
can_break = true;
empty_row = false;
}
else if(matrix_map[i][j] != NO_LED)
{
empty_row = false;
}
if(underglow_map[i][j] != NO_LED && width_udg < (j + 1) && !can_break_udg)
{
width_udg = (j + 1);
can_break_udg = true;
}
if (can_break && can_break_udg) break;
}
if(matrix_map[i][0] != NO_LED)
{
empty_col = false;
}
if(underglow_map[i][0] != NO_LED)
{
empty_col_udg = false;
}
if(empty_row)
{
empty_rows.push_back(i);
}
}
unsigned int new_height = height - (unsigned int)empty_rows.size();
width = empty_col ? width - 1 : width;
width_udg = empty_col_udg && empty_col ? width_udg - 1 : width_udg;
LOG_DEBUG("[%s] Key LED Matrix: %ux%u", name.c_str(), width, new_height);
LOG_DEBUG("[%s] Underglow LED Matrix: %ux%u", name.c_str(), width_udg, new_height);
for(unsigned int i = (unsigned int)empty_rows.size(); i --> 0; )
{
matrix_map.erase(matrix_map.begin() + empty_rows[i]);
}
for(unsigned int i = 0; i < new_height; i++)
{
if(empty_col)
{
matrix_map[i].erase(matrix_map[i].begin(), matrix_map[i].begin() + 1);
}
if(empty_col_udg && empty_col)
{
underglow_map[i].erase(underglow_map[i].begin(), underglow_map[i].begin() + 1);
}
matrix_map[i].erase(matrix_map[i].begin()+width, matrix_map[i].end());
if(has_underglow)
{
underglow_map[i].erase(underglow_map[i].begin()+width_udg, underglow_map[i].end());
}
}
if(has_underglow)
{
for(unsigned int i = new_height; i < height; i++)
{
underglow_map[i].erase(underglow_map[i].begin()+width_udg, underglow_map[i].end());
}
}
}
std::vector<unsigned int> RGBController_QMKOpenRGBRev9::FlattenMatrixMap
(
VectorMatrix matrix_map
)
{
std::vector<unsigned int> flat_map;
for(const std::vector<unsigned int> &row : matrix_map)
{
for(const unsigned int &item : row)
{
flat_map.push_back(item);
}
}
return flat_map;
}
Controllers/QMKController/QMKOpenRGBController/QMKOpenRGBRev9Controller/RGBController_QMKOpenRGBRev9.h
+99
View File
@@ -0,0 +1,99 @@
/*---------------------------------------------------------*\
| RGBController_QMKOpenRGBRev9.h |
| |
| RGBController for OpenRGB QMK Keyboard Protocol |
| Revision 9 |
| |
| Kasper 10 Oct 2020 |
| Jath03 28 May 2021 |
| |
| This file is part of the OpenRGB project |
| SPDX-License-Identifier: GPL-2.0-or-later |
\*---------------------------------------------------------*/
#pragma once
#include <algorithm>
#include <cmath>
#include <map>
#include <set>
#include "RGBController.h"
#include "QMKOpenRGBRev9Controller.h"
#define NO_LED 0xFFFFFFFF
typedef std::vector<std::vector<unsigned int>> VectorMatrix;
class RGBController_QMKOpenRGBRev9 : public RGBController
{
public:
RGBController_QMKOpenRGBRev9(QMKOpenRGBRev9Controller* controller_ptr);
~RGBController_QMKOpenRGBRev9();
void SetupZones();
void ResizeZone(int zone, int new_size);
void DeviceUpdateLEDs();
void UpdateZoneLEDs(int zone);
void UpdateSingleLED(int led);
void DeviceUpdateMode();
private:
QMKOpenRGBRev9Controller* controller;
std::vector<unsigned int> flat_matrix_map;
std::vector<unsigned int> flat_underglow_map;
void InitializeMode
(
std::string name,
unsigned int &current_mode,
unsigned int flags,
unsigned int color_mode
);
unsigned int CalculateDivisor
(
std::vector<point_t> led_points,
std::set<int> rows,
std::set<int> columns
);
void CountKeyTypes
(
std::vector<unsigned int> led_flags,
unsigned int total_led_count,
unsigned int& key_leds,
unsigned int& underglow_leds
);
void PlaceLEDsInMaps
(
std::set<int> unique_rows,
std::set<int> unique_cols,
unsigned int divisor,
std::vector<point_t> led_points,
std::vector<unsigned int> led_flags,
VectorMatrix& matrix_map_xl,
VectorMatrix& underglow_map_xl
);
VectorMatrix MakeEmptyMatrixMap
(
std::size_t height,
std::size_t width
);
void CleanMatrixMaps
(
VectorMatrix& matrix_map,
VectorMatrix& underglow_map,
unsigned int height,
bool has_underglow
);
std::vector<unsigned int> FlattenMatrixMap
(
VectorMatrix matrix_map
);
};