Cirque reachable calibration aide (#22803 )

Co-authored-by: Stefan Kerkmann <karlk90@pm.me>
Co-authored-by: Johannes <you@example.com>

2024-01-13 00:28:09 -08:00

63 KiB

Raw Blame History

Pointing Device :id=pointing-device

Pointing Device is a generic name for a feature intended to be generic: moving the system pointer around. There are certainly other options for it - like mousekeys - but this aims to be easily modifiable and hardware driven. You can implement custom keys to control functionality, or you can gather information from other peripherals and insert it directly here - let QMK handle the processing for you.

To enable Pointing Device, add the following line in your rules.mk and specify one of the driver options below.

POINTING_DEVICE_ENABLE = yes

Sensor Drivers

There are a number of sensors that are supported by default. Note that only one sensor can be enabled by POINTING_DEVICE_DRIVER at a time. If you need to enable more than one sensor, then you need to implement it manually, using the custom driver.

ADNS 5050 Sensor

To use the ADNS 5050 sensor, add this to your rules.mk

POINTING_DEVICE_DRIVER = adns5050

The ADNS 5050 sensor uses a serial type protocol for communication, and requires an additional light source.

Setting (`config.h`)	Description	Default
`ADNS5050_SCLK_PIN`	(Required) The pin connected to the clock pin of the sensor.	`POINTING_DEVICE_SCLK_PIN`
`ADNS5050_SDIO_PIN`	(Required) The pin connected to the data pin of the sensor.	`POINTING_DEVICE_SDIO_PIN`
`ADNS5050_CS_PIN`	(Required) The pin connected to the Chip Select pin of the sensor.	`POINTING_DEVICE_CS_PIN`

The CPI range is 125-1375, in increments of 125. Defaults to 500 CPI.

ADNS 9800 Sensor

To use the ADNS 9800 sensor, add this to your rules.mk

POINTING_DEVICE_DRIVER = adns9800

The ADNS 9800 is an SPI driven optical sensor, that uses laser output for surface tracking.

Setting (`config.h`)	Description	Default
`ADNS9800_CLOCK_SPEED`	(Optional) Sets the clock speed that the sensor runs at.	`2000000`
`ADNS9800_SPI_LSBFIRST`	(Optional) Sets the Least/Most Significant Byte First setting for SPI.	`false`
`ADNS9800_SPI_MODE`	(Optional) Sets the SPI Mode for the sensor.	`3`
`ADNS9800_SPI_DIVISOR`	(Optional) Sets the SPI Divisor used for SPI communication.	varies
`ADNS9800_CS_PIN`	(Required) Sets the Chip Select pin connected to the sensor.	`POINTING_DEVICE_CS_PIN`

The CPI range is 800-8200, in increments of 200. Defaults to 1800 CPI.

Analog Joystick

To use an analog joystick to control the pointer, add this to your rules.mk

POINTING_DEVICE_DRIVER = analog_joystick

The Analog Joystick is an analog (ADC) driven sensor. There are a variety of joysticks that you can use for this.

Setting (`config.h`)	Description	Default
`ANALOG_JOYSTICK_X_AXIS_PIN`	(Required) The pin used for the vertical/X axis.	not defined
`ANALOG_JOYSTICK_Y_AXIS_PIN`	(Required) The pin used for the horizontal/Y axis.	not defined
`ANALOG_JOYSTICK_AXIS_MIN`	(Optional) Sets the lower range to be considered movement.	`0`
`ANALOG_JOYSTICK_AXIS_MAX`	(Optional) Sets the upper range to be considered movement.	`1023`
`ANALOG_JOYSTICK_AUTO_AXIS`	(Optional) Sets ranges to be considered movement automatically.	not defined
`ANALOG_JOYSTICK_SPEED_REGULATOR`	(Optional) The divisor used to slow down movement. (lower makes it faster)	`20`
`ANALOG_JOYSTICK_READ_INTERVAL`	(Optional) The interval in milliseconds between reads.	`10`
`ANALOG_JOYSTICK_SPEED_MAX`	(Optional) The maximum value used for motion.	`2`
`ANALOG_JOYSTICK_CLICK_PIN`	(Optional) The pin wired up to the press switch of the analog stick.	not defined
`ANALOG_JOYSTICK_WEIGHTS`	(Optional) Use custom weights for lever positions.	not defined
`ANALOG_JOYSTICK_CUTOFF`	(Optional) Cut off movement when joystick returns to start position.	not defined

If ANALOG_JOYSTICK_AUTO_AXIS is used, then ANALOG_JOYSTICK_AXIS_MIN and ANALOG_JOYSTICK_AXIS_MAX are ignored.

By default analog joystick implementation uses x^2 weighting for lever positions. ANALOG_JOYSTICK_WEIGHTS allows to experiment with different configurations that might feel better.

E.g. This is weights for ((x-0.4)^3+0.064)/0.282:

#define ANALOG_JOYSTICK_WEIGHTS {0,2,4,5,7,8,9,10,12,13,14,15,15,16,17,18,18,19,19,20,20,21,21,21,22,22,22,22,23,23,23,23,23,23,23,23,23,23,23,23,23,23,23,23,23,23,23,23,23,23,24,24,24,24,24,24,25,25,25,26,26,26,27,28,28,29,29,30,31,32,33,34,35,36,37,38,40,41,43,44,46,48,49,51,53,56,58,60,62,65,68,70,73,76,79,82,85,89,92,96,100}

You can use following JS code to generate weights for different formulas:

JSON.stringify(Array.from(Array(101).keys()).map(x => Math.ceil((((x/100-0.4)**3+0.064)/0.282*100))))

Azoteq IQS5XX Trackpad

To use a Azoteq IQS5XX trackpad, add this to your rules.mk:

POINTING_DEVICE_DRIVER = azoteq_iqs5xx

This supports the IQS525, IQS550 and IQS572 controllers, with the latter two being used in the TPS43 and TPS65 trackpads.

Device settings

Specific device profiles are provided which set the required values for dimensions and resolution.

Setting	Description
`AZOTEQ_IQS5XX_TPS43`	(Pick One) Sets resolution/mm to TPS43 specifications.
`AZOTEQ_IQS5XX_TPS65`	(Pick One) Sets resolution/mm to TPS65 specifications.

?> If using one of the above defines you can skip to gesture settings.

Setting	Description	Default
`AZOTEQ_IQS5XX_WIDTH_MM`	(Required) Width of the trackpad sensor in millimeters.	not defined
`AZOTEQ_IQS5XX_HEIGHT_MM`	(Required) Height of the trackpad sensor in millimeters.	not defined
`AZOTEQ_IQS5XX_RESOLUTION_X`	(Optional) Specify X resolution for CPI calculation.	not defined
`AZOTEQ_IQS5XX_RESOLUTION_Y`	(Optional) Specify Y resolution for CPI calculation.	not defined

AZOTEQ_IQS5XX_RESOLUTION_X/Y fall back resolutions are provided within the driver based on controller model.

I2C Setting	Description	Default
`AZOTEQ_IQS5XX_ADDRESS`	(Optional) Sets the I2C Address for the Azoteq trackpad	`0xE8`
`AZOTEQ_IQS5XX_TIMEOUT_MS`	(Optional) The timeout for i2c communication with in milliseconds.	`10`

Gesture settings

Setting	Description	Default
`AZOTEQ_IQS5XX_TAP_ENABLE`	(Optional) Enable single finger tap. (Left click)	`true`
`AZOTEQ_IQS5XX_TWO_FINGER_TAP_ENABLE`	(Optional) Enable two finger tap. (Right click)	`true`
`AZOTEQ_IQS5XX_PRESS_AND_HOLD_ENABLE`	(Optional) Emulates holding left click to select text.	`false`
`AZOTEQ_IQS5XX_SWIPE_X_ENABLE`	(Optional) Enable swipe gestures X+ (Mouse Button 5) / X- (Mouse Button 4)	`false`
`AZOTEQ_IQS5XX_SWIPE_Y_ENABLE`	(Optional) Enable swipe gestures Y+ (Mouse Button 3) / Y- (Mouse Button 6)	`false`
`AZOTEQ_IQS5XX_ZOOM_ENABLE`	(Optional) Enable zoom gestures Zoom Out (Mouse Button 7) / Zoom In (Mouse Button 8)	`false`
`AZOTEQ_IQS5XX_SCROLL_ENABLE`	(Optional) Enable scrolling using two fingers.	`true`
`AZOTEQ_IQS5XX_TAP_TIME`	(Optional) Maximum time in ms for tap to be registered.	`150`
`AZOTEQ_IQS5XX_TAP_DISTANCE`	(Optional) Maximum deviation in pixels before single tap is no longer valid.	`25`
`AZOTEQ_IQS5XX_HOLD_TIME`	(Optional) Minimum time in ms for press and hold.	`300`
`AZOTEQ_IQS5XX_SWIPE_INITIAL_TIME`	(Optional) Maximum time to travel initial distance before swipe is registered.	`150`
`AZOTEQ_IQS5XX_SWIPE_INITIAL_DISTANCE`	(Optional) Minimum travel in pixels before swipe is registered.	`300`
`AZOTEQ_IQS5XX_SWIPE_CONSECUTIVE_TIME`	(Optional) Maximum time to travel consecutive distance before swipe is registered.	`0`
`AZOTEQ_IQS5XX_SWIPE_CONSECUTIVE_DISTANCE`	(Optional) Minimum travel in pixels before a consecutive swipe is registered.	`2000`
`AZOTEQ_IQS5XX_SCROLL_INITIAL_DISTANCE`	(Optional) Minimum travel in pixels before scroll is registered.	`50`
`AZOTEQ_IQS5XX_ZOOM_INITIAL_DISTANCE`	(Optional) Minimum travel in pixels before zoom is registered.	`50`
`AZOTEQ_IQS5XX_ZOOM_CONSECUTIVE_DISTANCE`	(Optional) Maximum time to travel zoom distance before zoom is registered.	`25`

Rotation settings

Setting	Description	Default
`AZOTEQ_IQS5XX_ROTATION_90`	(Optional) Configures hardware for 90 degree rotation.	not defined
`AZOTEQ_IQS5XX_ROTATION_180`	(Optional) Configures hardware for 180 degree rotation.	not defined
`AZOTEQ_IQS5XX_ROTATION_270`	(Optional) Configures hardware for 270 degree rotation.	not defined

Cirque Trackpad

To use the Cirque Trackpad sensor, add this to your rules.mk:

POINTING_DEVICE_DRIVER = cirque_pinnacle_i2c

POINTING_DEVICE_DRIVER = cirque_pinnacle_spi

This supports the Cirque Pinnacle 1CA027 Touch Controller, which is used in the TM040040, TM035035 and the TM023023 trackpads. These are I2C or SPI compatible, and both configurations are supported.

Common settings

Setting	Description	Default
`CIRQUE_PINNACLE_DIAMETER_MM`	(Optional) Diameter of the trackpad sensor in millimeters.	`40`
`CIRQUE_PINNACLE_ATTENUATION`	(Optional) Sets the attenuation of the sensor data.	`EXTREG__TRACK_ADCCONFIG__ADC_ATTENUATE_4X`
`CIRQUE_PINNACLE_CURVED_OVERLAY`	(Optional) Applies settings tuned for curved overlay.	not defined
`CIRQUE_PINNACLE_POSITION_MODE`	(Optional) Mode of operation.	not defined
`CIRQUE_PINNACLE_SKIP_SENSOR_CHECK`	(Optional) Skips sensor presence check	not defined

CIRQUE_PINNACLE_ATTENUATION is a measure of how much data is suppressed in regards to sensitivity. The higher the attenuation, the less sensitive the touchpad will be.

Default attenuation is set to 4X, although if you are using a thicker overlay (such as the curved overlay) you will want a lower attenuation such as 2X. The possible values are:

EXTREG__TRACK_ADCCONFIG__ADC_ATTENUATE_4X: Least sensitive
EXTREG__TRACK_ADCCONFIG__ADC_ATTENUATE_3X
EXTREG__TRACK_ADCCONFIG__ADC_ATTENUATE_2X
EXTREG__TRACK_ADCCONFIG__ADC_ATTENUATE_1X: Most sensitive

CIRQUE_PINNACLE_POSITION_MODE can be CIRQUE_PINNACLE_ABSOLUTE_MODE or CIRQUE_PINNACLE_RELATIVE_MODE. Modes differ in supported features/gestures.

CIRQUE_PINNACLE_ABSOLUTE_MODE: Reports absolute x, y, z (touch pressure) coordinates and up to 5 hw buttons connected to the trackpad
CIRQUE_PINNACLE_RELATIVE_MODE: Reports x/y deltas, scroll and up to 3 buttons (2 of them can be from taps, see gestures) connected to trackpad. Supports taps on secondary side of split. Saves about 2k of flash compared to absolute mode with all features.

I2C Setting	Description	Default
`CIRQUE_PINNACLE_ADDR`	(Required) Sets the I2C Address for the Cirque Trackpad	`0x2A`
`CIRQUE_PINNACLE_TIMEOUT`	(Optional) The timeout for i2c communication with the trackpad in milliseconds.	`20`

SPI Setting	Description	Default
`CIRQUE_PINNACLE_CLOCK_SPEED`	(Optional) Sets the clock speed that the sensor runs at.	`1000000`
`CIRQUE_PINNACLE_SPI_LSBFIRST`	(Optional) Sets the Least/Most Significant Byte First setting for SPI.	`false`
`CIRQUE_PINNACLE_SPI_MODE`	(Optional) Sets the SPI Mode for the sensor.	`1`
`CIRQUE_PINNACLE_SPI_DIVISOR`	(Optional) Sets the SPI Divisor used for SPI communication.	varies
`CIRQUE_PINNACLE_SPI_CS_PIN`	(Required) Sets the Chip Select pin connected to the sensor.	`POINTING_DEVICE_CS_PIN`

Default Scaling is 1024. Actual CPI depends on trackpad diameter.

Also see the POINTING_DEVICE_TASK_THROTTLE_MS, which defaults to 10ms when using Cirque Pinnacle, which matches the internal update rate of the position registers (in standard configuration). Advanced configuration for pen/stylus usage might require lower values.

Absolute mode settings

Setting	Description	Default
`CIRQUE_PINNACLE_X_LOWER`	(Optional) The minimum reachable X value on the sensor.	`127`
`CIRQUE_PINNACLE_X_UPPER`	(Optional) The maximum reachable X value on the sensor.	`1919`
`CIRQUE_PINNACLE_Y_LOWER`	(Optional) The minimum reachable Y value on the sensor.	`63`
`CIRQUE_PINNACLE_Y_UPPER`	(Optional) The maximum reachable Y value on the sensor.	`1471`
`CIRQUE_PINNACLE_REACHABLE_CALIBRATION`	(Optional) Enable console messages to aide in calibrating above values.	not defined

Absolute mode gestures

Gesture Setting	Description	Default
`CIRQUE_PINNACLE_TAP_ENABLE`	(Optional) Enable tap to click. This currently only works on the master side.	not defined
`CIRQUE_PINNACLE_TAPPING_TERM`	(Optional) Length of time that a touch can be to be considered a tap.	`TAPPING_TERM`/`200`
`CIRQUE_PINNACLE_TOUCH_DEBOUNCE`	(Optional) Length of time that a touch can be to be considered a tap.	`TAPPING_TERM`/`200`

POINTING_DEVICE_GESTURES_SCROLL_ENABLE in this mode enables circular scroll. Touch originating in outer ring can trigger scroll by moving along the perimeter. Near side triggers vertical scroll and far side triggers horizontal scroll.

Additionally, POINTING_DEVICE_GESTURES_CURSOR_GLIDE_ENABLE is supported in this mode.

Relative mode gestures

Gesture Setting (`config.h`)	Description	Default
`CIRQUE_PINNACLE_TAP_ENABLE`	(Optional) Enable tap to "left click". Works on both sides of a split keyboard.	not defined
`CIRQUE_PINNACLE_SECONDARY_TAP_ENABLE`	(Optional) Tap in upper right corner (half of the finger needs to be outside of the trackpad) of the trackpad will result in "right click". `CIRQUE_PINNACLE_TAP_ENABLE` must be enabled.	not defined

Tapping term and debounce are not configurable in this mode since it's handled by trackpad internally.

POINTING_DEVICE_GESTURES_SCROLL_ENABLE in this mode enables side scroll. Touch originating on the right side can trigger vertical scroll (IntelliSense trackpad style).

PAW 3204 Sensor

To use the paw 3204 sensor, add this to your rules.mk

POINTING_DEVICE_DRIVER = paw3204

The paw 3204 sensor uses a serial type protocol for communication, and requires an additional light source.

Setting (`config.h`)	Description	Default
`PAW3204_SCLK_PIN`	(Required) The pin connected to the clock pin of the sensor.	`POINTING_DEVICE_SCLK_PIN`
`PAW3204_SDIO_PIN`	(Required) The pin connected to the data pin of the sensor.	`POINTING_DEVICE_SDIO_PIN`

The CPI range is 400-1600, with supported values of (400, 500, 600, 800, 1000, 1200 and 1600). Defaults to 1000 CPI.

Pimoroni Trackball

To use the Pimoroni Trackball module, add this to your rules.mk:

POINTING_DEVICE_DRIVER = pimoroni_trackball

The Pimoroni Trackball module is a I2C based breakout board with an RGB enable trackball.

Setting (`config.h`)	Description	Default
`PIMORONI_TRACKBALL_ADDRESS`	(Required) Sets the I2C Address for the Pimoroni Trackball.	`0x0A`
`PIMORONI_TRACKBALL_TIMEOUT`	(Optional) The timeout for i2c communication with the trackball in milliseconds.	`100`
`PIMORONI_TRACKBALL_SCALE`	(Optional) The multiplier used to generate reports from the sensor.	`5`
`PIMORONI_TRACKBALL_DEBOUNCE_CYCLES`	(Optional) The number of scan cycles used for debouncing on the ball press.	`20`
`PIMORONI_TRACKBALL_ERROR_COUNT`	(Optional) Specifies the number of read/write errors until the sensor is disabled.	`10`

PMW3320 Sensor

To use the PMW3320 sensor, add this to your rules.mk

POINTING_DEVICE_DRIVER = pmw3320

The PMW3320 sensor uses a serial type protocol for communication, and requires an additional light source (it could work without one, but expect it to be out of service early).

Setting	Description	Default
`PMW3320_SCLK_PIN`	(Required) The pin connected to the clock pin of the sensor.	`POINTING_DEVICE_SCLK_PIN`
`PMW3320_SDIO_PIN`	(Required) The pin connected to the data pin of the sensor.	`POINTING_DEVICE_SDIO_PIN`
`PMW3320_CS_PIN`	(Required) The pin connected to the cable select pin of the sensor.	`POINTING_DEVICE_CS_PIN`

The CPI range is 500-3500, in increments of 250. Defaults to 1000 CPI.

PMW 3360 and PMW 3389 Sensor

This drivers supports both the PMW 3360 and PMW 3389 sensor as well as multiple sensors of the same type per controller, so 2 can be attached at the same side for split keyboards (or unsplit keyboards).

To use the PMW 3360 sensor, add this to your rules.mk

POINTING_DEVICE_DRIVER = pmw3360

The CPI range is 100-12000, in increments of 100. Defaults to 1600 CPI.

To use the PMW 3389 sensor, add this to your rules.mk

POINTING_DEVICE_DRIVER = pmw3389

The CPI range is 50-16000, in increments of 50. Defaults to 2000 CPI.

Both PMW 3360 and PMW 3389 are SPI driven optical sensors, that use a built in IR LED for surface tracking. If you have different CS wiring on each half you can use PMW33XX_CS_PIN_RIGHT or PMW33XX_CS_PINS_RIGHT in combination with PMW33XX_CS_PIN or PMW33XX_CS_PINS to configure both sides independently. If _RIGHT values aren't provided, they default to be the same as the left ones.

Setting (`config.h`)	Description	Default
`PMW33XX_CS_PIN`	(Required) Sets the Chip Select pin connected to the sensor.	`POINTING_DEVICE_CS_PIN`
`PMW33XX_CS_PINS`	(Alternative) Sets the Chip Select pins connected to multiple sensors.	`{PMW33XX_CS_PIN}`
`PMW33XX_CS_PIN_RIGHT`	(Optional) Sets the Chip Select pin connected to the sensor on the right half.	`PMW33XX_CS_PIN`
`PMW33XX_CS_PINS_RIGHT`	(Optional) Sets the Chip Select pins connected to multiple sensors on the right half.	`{PMW33XX_CS_PIN_RIGHT}`
`PMW33XX_CPI`	(Optional) Sets counts per inch sensitivity of the sensor.	varies
`PMW33XX_CLOCK_SPEED`	(Optional) Sets the clock speed that the sensor runs at.	`2000000`
`PMW33XX_SPI_DIVISOR`	(Optional) Sets the SPI Divisor used for SPI communication.	varies
`PMW33XX_LIFTOFF_DISTANCE`	(Optional) Sets the lift off distance at run time	`0x02`
`ROTATIONAL_TRANSFORM_ANGLE`	(Optional) Allows for the sensor data to be rotated +/- 127 degrees directly in the sensor.	`0`

To use multiple sensors, instead of setting PMW33XX_CS_PIN you need to set PMW33XX_CS_PINS and also handle and merge the read from this sensor in user code. Note that different (per sensor) values of CPI, speed liftoff, rotational angle or flipping of X/Y is not currently supported.

// in config.h:
#define PMW33XX_CS_PINS { B5, B6 }
// in keyboard.c:
#ifdef POINTING_DEVICE_ENABLE
void pointing_device_init_kb(void) {
    pmw33xx_init(1);         // index 1 is the second device.
    pmw33xx_set_cpi(0, 800); // applies to first sensor
    pmw33xx_set_cpi(1, 800); // applies to second sensor
    pointing_device_init_user();
}

// Contains report from sensor #0 already, need to merge in from sensor #1
report_mouse_t pointing_device_task_kb(report_mouse_t mouse_report) {
    pmw33xx_report_t report = pmw33xx_read_burst(1);
    if (!report.motion.b.is_lifted && report.motion.b.is_motion) {
// From quantum/pointing_device_drivers.c
#define constrain_hid(amt) ((amt) < -127 ? -127 : ((amt) > 127 ? 127 : (amt)))
        mouse_report.x = constrain_hid(mouse_report.x + report.delta_x);
        mouse_report.y = constrain_hid(mouse_report.y + report.delta_y);
    }
    return pointing_device_task_user(mouse_report);
}
#endif

Custom Driver

If you have a sensor type that isn't supported above, a custom option is available by adding the following to your rules.mk

POINTING_DEVICE_DRIVER = custom

Using the custom driver will require implementing the following functions:

void           pointing_device_driver_init(void) {}
report_mouse_t pointing_device_driver_get_report(report_mouse_t mouse_report) { return mouse_report; }
uint16_t       pointing_device_driver_get_cpi(void) { return 0; }
void           pointing_device_driver_set_cpi(uint16_t cpi) {}

!> Ideally, new sensor hardware should be added to drivers/sensors/ and quantum/pointing_device_drivers.c, but there may be cases where it's very specific to the hardware. So these functions are provided, just in case.

Common Configuration

Setting	Description	Default
`MOUSE_EXTENDED_REPORT`	(Optional) Enables support for extended mouse reports. (-32767 to 32767, instead of just -127 to 127).	not defined
`POINTING_DEVICE_ROTATION_90`	(Optional) Rotates the X and Y data by 90 degrees.	not defined
`POINTING_DEVICE_ROTATION_180`	(Optional) Rotates the X and Y data by 180 degrees.	not defined
`POINTING_DEVICE_ROTATION_270`	(Optional) Rotates the X and Y data by 270 degrees.	not defined
`POINTING_DEVICE_INVERT_X`	(Optional) Inverts the X axis report.	not defined
`POINTING_DEVICE_INVERT_Y`	(Optional) Inverts the Y axis report.	not defined
`POINTING_DEVICE_MOTION_PIN`	(Optional) If supported, will only read from sensor if pin is active.	not defined
`POINTING_DEVICE_MOTION_PIN_ACTIVE_LOW`	(Optional) If defined then the motion pin is active-low.	varies
`POINTING_DEVICE_TASK_THROTTLE_MS`	(Optional) Limits the frequency that the sensor is polled for motion.	not defined
`POINTING_DEVICE_GESTURES_CURSOR_GLIDE_ENABLE`	(Optional) Enable inertial cursor. Cursor continues moving after a flick gesture and slows down by kinetic friction.	not defined
`POINTING_DEVICE_GESTURES_SCROLL_ENABLE`	(Optional) Enable scroll gesture. The gesture that activates the scroll is device dependent.	not defined
`POINTING_DEVICE_CS_PIN`	(Optional) Provides a default CS pin, useful for supporting multiple sensor configs.	not defined
`POINTING_DEVICE_SDIO_PIN`	(Optional) Provides a default SDIO pin, useful for supporting multiple sensor configs.	not defined
`POINTING_DEVICE_SCLK_PIN`	(Optional) Provides a default SCLK pin, useful for supporting multiple sensor configs.	not defined

!> When using SPLIT_POINTING_ENABLE the POINTING_DEVICE_MOTION_PIN functionality is not supported and POINTING_DEVICE_TASK_THROTTLE_MS will default to 1. Increasing this value will increase transport performance at the cost of possible mouse responsiveness.

The POINTING_DEVICE_CS_PIN, POINTING_DEVICE_SDIO_PIN, and POINTING_DEVICE_SCLK_PIN provide a convenient way to define a single pin that can be used for an interchangeable sensor config. This allows you to have a single config, without defining each device. Each sensor allows for this to be overridden with their own defines.

!> Any pointing device with a lift/contact status can integrate inertial cursor feature into its driver, controlled by POINTING_DEVICE_GESTURES_CURSOR_GLIDE_ENABLE. e.g. PMW3360 can use Lift_Stat from Motion register. Note that POINTING_DEVICE_MOTION_PIN cannot be used with this feature; continuous polling of get_report() is needed to generate glide reports.

Split Keyboard Configuration

The following configuration options are only available when using SPLIT_POINTING_ENABLE see data sync options. The rotation and invert *_RIGHT options are only used with POINTING_DEVICE_COMBINED. If using POINTING_DEVICE_LEFT or POINTING_DEVICE_RIGHT use the common configuration above to configure your pointing device.

Setting	Description	Default
`POINTING_DEVICE_LEFT`	Pointing device on the left side (Required - pick one only)	not defined
`POINTING_DEVICE_RIGHT`	Pointing device on the right side (Required - pick one only)	not defined
`POINTING_DEVICE_COMBINED`	Pointing device on both sides (Required - pick one only)	not defined
`POINTING_DEVICE_ROTATION_90_RIGHT`	(Optional) Rotates the X and Y data by 90 degrees.	not defined
`POINTING_DEVICE_ROTATION_180_RIGHT`	(Optional) Rotates the X and Y data by 180 degrees.	not defined
`POINTING_DEVICE_ROTATION_270_RIGHT`	(Optional) Rotates the X and Y data by 270 degrees.	not defined
`POINTING_DEVICE_INVERT_X_RIGHT`	(Optional) Inverts the X axis report.	not defined
`POINTING_DEVICE_INVERT_Y_RIGHT`	(Optional) Inverts the Y axis report.	not defined

!> If there is a _RIGHT configuration option or callback, the common configuration option will work for the left. For correct left/right detection you should setup a handedness option, EE_HANDS is usually a good option for an existing board that doesn't do handedness by hardware.

Callbacks and Functions

Function	Description
`pointing_device_init_kb(void)`	Callback to allow for keyboard level initialization. Useful for additional hardware sensors.
`pointing_device_init_user(void)`	Callback to allow for user level initialization. Useful for additional hardware sensors.
`pointing_device_task_kb(mouse_report)`	Callback that sends sensor data, so keyboard code can intercept and modify the data. Returns a mouse report.
`pointing_device_task_user(mouse_report)`	Callback that sends sensor data, so user code can intercept and modify the data. Returns a mouse report.
`pointing_device_handle_buttons(buttons, pressed, button)`	Callback to handle hardware button presses. Returns a `uint8_t`.
`pointing_device_get_cpi(void)`	Gets the current CPI/DPI setting from the sensor, if supported.
`pointing_device_set_cpi(uint16_t)`	Sets the CPI/DPI, if supported.
`pointing_device_get_report(void)`	Returns the current mouse report (as a `report_mouse_t` data structure).
`pointing_device_set_report(mouse_report)`	Sets the mouse report to the assigned `report_mouse_t` data structured passed to the function.
`pointing_device_send(void)`	Sends the current mouse report to the host system. Function can be replaced.
`has_mouse_report_changed(new_report, old_report)`	Compares the old and new `report_mouse_t` data and returns true only if it has changed.
`pointing_device_adjust_by_defines(mouse_report)`	Applies rotations and invert configurations to a raw mouse report.

Split Keyboard Callbacks and Functions

The combined functions below are only available when using SPLIT_POINTING_ENABLE and POINTING_DEVICE_COMBINED. The 2 callbacks pointing_device_task_combined_* replace the single sided equivalents above. See the combined pointing devices example

Function	Description
`pointing_device_set_shared_report(mouse_report)`	Sets the shared mouse report to the assigned `report_mouse_t` data structured passed to the function.
`pointing_device_set_cpi_on_side(bool, uint16_t)`	Sets the CPI/DPI of one side, if supported. Passing `true` will set the left and `false` the right
`pointing_device_combine_reports(left_report, right_report)`	Returns a combined mouse_report of left_report and right_report (as a `report_mouse_t` data structure)
`pointing_device_task_combined_kb(left_report, right_report)`	Callback, so keyboard code can intercept and modify the data. Returns a combined mouse report.
`pointing_device_task_combined_user(left_report, right_report)`	Callback, so user code can intercept and modify. Returns a combined mouse report using `pointing_device_combine_reports`
`pointing_device_adjust_by_defines_right(mouse_report)`	Applies right side rotations and invert configurations to a raw mouse report.

Manipulating Mouse Reports

The report_mouse_t (here "mouseReport") has the following properties:

mouseReport.x - this is a signed int from -127 to 127 (not 128, this is defined in USB HID spec) representing movement (+ to the right, - to the left) on the x axis.
mouseReport.y - this is a signed int from -127 to 127 (not 128, this is defined in USB HID spec) representing movement (+ upward, - downward) on the y axis.
mouseReport.v - this is a signed int from -127 to 127 (not 128, this is defined in USB HID spec) representing vertical scrolling (+ upward, - downward).
mouseReport.h - this is a signed int from -127 to 127 (not 128, this is defined in USB HID spec) representing horizontal scrolling (+ right, - left).
mouseReport.buttons - this is a uint8_t in which all 8 bits are used. These bits represent the mouse button state - bit 0 is mouse button 1, and bit 7 is mouse button 8.

To manually manipulate the mouse reports outside of the pointing_device_task_* functions, you can use:

pointing_device_get_report() - Returns the current report_mouse_t that represents the information sent to the host computer
pointing_device_set_report(report_mouse_t mouse_report) - Overrides and saves the report_mouse_t to be sent to the host computer
pointing_device_send() - Sends the mouse report to the host and zeroes out the report.

When the mouse report is sent, the x, y, v, and h values are set to 0 (this is done in pointing_device_send(), which can be overridden to avoid this behavior). This way, button states persist, but movement will only occur once. For further customization, both pointing_device_init and pointing_device_task can be overridden.

Additionally, by default, pointing_device_send() will only send a report when the report has actually changed. This prevents it from continuously sending mouse reports, which will keep the host system awake. This behavior can be changed by creating your own pointing_device_send() function.

Also, you use the has_mouse_report_changed(new_report, old_report) function to check to see if the report has changed.

Examples

Custom Mouse Keycode

In this example, a custom key is used to click the mouse and scroll 127 units vertically and horizontally, then undo all of that when released - because that's a totally useful function.

case MS_SPECIAL:
    report_mouse_t currentReport = pointing_device_get_report();
    if (record->event.pressed) {
        currentReport.v = 127;
        currentReport.h = 127;
        currentReport.buttons |= MOUSE_BTN1;  // this is defined in report.h
    } else {
        currentReport.v = -127;
        currentReport.h = -127;
        currentReport.buttons &= ~MOUSE_BTN1;
    }
    pointing_device_set_report(currentReport);
    pointing_device_send();
    break;

Recall that the mouse report is set to zero (except the buttons) whenever it is sent, so the scrolling would only occur once in each case.

Drag Scroll or Mouse Scroll

A very common implementation is to use the mouse movement to scroll instead of moving the cursor on the system. This uses the pointing_device_task_user callback to intercept and modify the mouse report before it's sent to the host system.

enum custom_keycodes {
    DRAG_SCROLL = SAFE_RANGE,
};

bool set_scrolling = false;

report_mouse_t pointing_device_task_user(report_mouse_t mouse_report) {
    if (set_scrolling) {
        mouse_report.h = mouse_report.x;
        mouse_report.v = mouse_report.y;
        mouse_report.x = 0;
        mouse_report.y = 0;
    }
    return mouse_report;
}

bool process_record_user(uint16_t keycode, keyrecord_t *record) {
    if (keycode == DRAG_SCROLL && record->event.pressed) {
        set_scrolling = !set_scrolling;
    }
    return true;
}

This allows you to toggle between scrolling and cursor movement by pressing the DRAG_SCROLL key.

Advanced Drag Scroll

Sometimes, like with the Cirque trackpad, you will run into issues where the scrolling may be too fast.

Here is a slightly more advanced example of drag scrolling. You will be able to change the scroll speed based on the values in set in SCROLL_DIVISOR_H and SCROLL_DIVISOR_V. This bit of code is also set up so that instead of toggling the scrolling state with set_scrolling = !set_scrolling, the set_scrolling variable is set directly to record->event.pressed. This way, the drag scrolling will only be active while the DRAG_SCROLL button is held down.

enum custom_keycodes {
    DRAG_SCROLL = SAFE_RANGE,
};

bool set_scrolling = false;

// Modify these values to adjust the scrolling speed
#define SCROLL_DIVISOR_H 8.0
#define SCROLL_DIVISOR_V 8.0

// Variables to store accumulated scroll values
float scroll_accumulated_h = 0;
float scroll_accumulated_v = 0;

// Function to handle mouse reports and perform drag scrolling
report_mouse_t pointing_device_task_user(report_mouse_t mouse_report) {
    // Check if drag scrolling is active
    if (set_scrolling) {
        // Calculate and accumulate scroll values based on mouse movement and divisors
        scroll_accumulated_h += (float)mouse_report.x / SCROLL_DIVISOR_H;
        scroll_accumulated_v += (float)mouse_report.y / SCROLL_DIVISOR_V;

        // Assign integer parts of accumulated scroll values to the mouse report
        mouse_report.h = (int8_t)scroll_accumulated_h;
        mouse_report.v = (int8_t)scroll_accumulated_v;

        // Update accumulated scroll values by subtracting the integer parts
        scroll_accumulated_h -= (int8_t)scroll_accumulated_h;
        scroll_accumulated_v -= (int8_t)scroll_accumulated_v;

        // Clear the X and Y values of the mouse report
        mouse_report.x = 0;
        mouse_report.y = 0;
    }
    return mouse_report;
}

// Function to handle key events and enable/disable drag scrolling
bool process_record_user(uint16_t keycode, keyrecord_t *record) {
    switch (keycode) {
        case DRAG_SCROLL:
            // Toggle set_scrolling when DRAG_SCROLL key is pressed or released
            set_scrolling = record->event.pressed;
            break;
        default:
            break;
    }
    return true;
}

// Function to handle layer changes and disable drag scrolling when not in AUTO_MOUSE_DEFAULT_LAYER
layer_state_t layer_state_set_user(layer_state_t state) {
    // Disable set_scrolling if the current layer is not the AUTO_MOUSE_DEFAULT_LAYER
    if (get_highest_layer(state) != AUTO_MOUSE_DEFAULT_LAYER) {
        set_scrolling = false;
    }
    return state;
}

Split Examples

The following examples make use the SPLIT_POINTING_ENABLE functionality and show how to manipulate the mouse report for a scrolling mode.

Single Pointing Device

The following example will work with either POINTING_DEVICE_LEFT or POINTING_DEVICE_RIGHT and enables scrolling mode while on a particular layer.


static bool scrolling_mode = false;

layer_state_t layer_state_set_user(layer_state_t state) {
    switch (get_highest_layer(state)) {
        case _RAISE:  // If we're on the _RAISE layer enable scrolling mode
            scrolling_mode = true;
            pointing_device_set_cpi(2000);
            break;
        default:
            if (scrolling_mode) {  // check if we were scrolling before and set disable if so
                scrolling_mode = false;
                pointing_device_set_cpi(8000);
            }
            break;
    }
    return state;
}

report_mouse_t pointing_device_task_user(report_mouse_t mouse_report) {
    if (scrolling_mode) {
        mouse_report.h = mouse_report.x;
        mouse_report.v = mouse_report.y;
        mouse_report.x = 0;
        mouse_report.y = 0;
    }
    return mouse_report;
}

Combined Pointing Devices

The following example requires POINTING_DEVICE_COMBINED and sets the left side pointing device to scroll only.

void keyboard_post_init_user(void) {
    pointing_device_set_cpi_on_side(true, 1000); //Set cpi on left side to a low value for slower scrolling.
    pointing_device_set_cpi_on_side(false, 8000); //Set cpi on right side to a reasonable value for mousing.
}

report_mouse_t pointing_device_task_combined_user(report_mouse_t left_report, report_mouse_t right_report) {
    left_report.h = left_report.x;
    left_report.v = left_report.y;
    left_report.x = 0;
    left_report.y = 0;
    return pointing_device_combine_reports(left_report, right_report);
}

Troubleshooting

If you are having issues with pointing device drivers debug messages can be enabled that will give you insights in the inner workings. To enable these add to your keyboards config.h file:

#define POINTING_DEVICE_DEBUG

?> The messages will be printed out to the CONSOLE output. For additional information, refer to Debugging/Troubleshooting QMK.

Automatic Mouse Layer :id=pointing-device-auto-mouse

When using a pointing device combined with a keyboard the mouse buttons are often kept on a separate layer from the default keyboard layer, which requires pressing or holding a key to change layers before using the mouse. To make this easier and more efficient an additional pointing device feature may be enabled that will automatically activate a target layer as soon as the pointing device is active (in motion, mouse button pressed etc.) and deactivate the target layer after a set time.

Additionally if any key that is defined as a mouse key is pressed then the layer will be held as long as the key is pressed and the timer will be reset on key release. When a non-mouse key is pressed then the layer is deactivated early (with some exceptions see below). Mod, mod tap, and one shot mod keys are ignored (i.e. don't hold or activate layer but do not deactivate the layer either) when sending a modifier keycode (e.g. hold for mod tap) allowing for mod keys to be used with the mouse without activating the target layer when typing.

All of the standard layer keys (tap toggling, toggle, toggle on, one_shot, layer tap, layer mod) that activate the current target layer are uniquely handled to ensure they behave as expected (see layer key table below). The target layer that can be changed at any point during by calling the set_auto_mouse_layer(<new_target_layer>); function.

Behaviour of Layer keys that activate the target layer

Layer key as in `keymap.c`	Auto Mouse specific behaviour
`MO(<target_layer>)`	Treated as a mouse key holding the layer while pressed
`LT(<target_layer>)`	When tapped will be treated as non mouse key and mouse key when held
`LM(<target_layer>)`	Treated as a mouse key
`TG(<target_layer>)`	Will set flag preventing target layer deactivation or removal until pressed again
`TO(<target_layer>)`	Same as `TG(<target_layer>)`
`TT(<target_layer>)`	Treated as a mouse key when `tap.count < TAPPING_TOGGLE` and as `TG` when `tap.count == TAPPING_TOGGLE`
`DF(<target_layer>)`	Skips auto mouse key processing similar to mod keys
`OSL(<target_layer>)`	Skips, but if current one shot layer is the target layer then it will prevent target layer deactivation or removal

How to enable:

// in config.h:
#define POINTING_DEVICE_AUTO_MOUSE_ENABLE
// only required if not setting mouse layer elsewhere
#define AUTO_MOUSE_DEFAULT_LAYER <index of your mouse layer>

// in keymap.c:
void pointing_device_init_user(void) {
    set_auto_mouse_layer(<mouse_layer>); // only required if AUTO_MOUSE_DEFAULT_LAYER is not set to index of <mouse_layer>
    set_auto_mouse_enable(true);         // always required before the auto mouse feature will work
}

Because the auto mouse feature can be disabled/enabled during runtime and starts as disabled by default it must be enabled by calling set_auto_mouse_enable(true); somewhere in firmware before the feature will work.
Note: for setting the target layer during initialization either setting AUTO_MOUSE_DEFAULT_LAYER in config.h or calling set_auto_mouse_layer(<mouse_layer>) can be used.

How to Customize:

There are a few ways to control the auto mouse feature with both config.h options and functions for controlling it during runtime.

`config.h` Options:

Define	Description	Range	Units	Default
`POINTING_DEVICE_AUTO_MOUSE_ENABLE`	(Required) Enables auto mouse layer feature		None	Not defined
`AUTO_MOUSE_DEFAULT_LAYER`	(Optional) Index of layer to use as default target layer	0 - `LAYER_MAX`	`uint8_t`	`1`
`AUTO_MOUSE_TIME`	(Optional) Time layer remains active after activation	ideally (250-1000)	ms	`650 ms`
`AUTO_MOUSE_DELAY`	(Optional) Lockout time after non-mouse key is pressed	ideally (100-1000)	ms	`TAPPING_TERM` or `200 ms`
`AUTO_MOUSE_DEBOUNCE`	(Optional) Time delay from last activation to next update	ideally (10 - 100)	ms	`25 ms`
`AUTO_MOUSE_THRESHOLD`	(Optional) Amount of mouse movement required to switch layers	0 -	units	`10 units`

Adding mouse keys

While all default mouse keys and layer keys(for current mouse layer) are treated as mouse keys, additional Keyrecords can be added to mouse keys by adding them to the is_mouse_record_* stack.

Callbacks for setting up additional key codes as mouse keys:

Callback	Description
`bool is_mouse_record_kb(uint16_t keycode, keyrecord_t* record)`	keyboard level callback for adding mouse keys
`bool is_mouse_record_user(uint16_t keycode, keyrecord_t* record)`	user/keymap level callback for adding mouse keys

To use the callback function to add mouse keys:

The following code will cause the enter key and all of the arrow keys to be treated as mouse keys (hold target layer while they are pressed and reset active layer timer).


// in <keyboard>.c:
bool is_mouse_record_kb(uint16_t keycode, keyrecord_t* record) {
    switch(keycode) {
        case KC_ENT:
            return true;
        case KC_RIGHT ... KC_UP:
            return true;
        default:
            return false;
    }
    return  is_mouse_record_user(keycode, record);
}

Advanced control

There are several functions that allow for more advanced interaction with the auto mouse feature allowing for greater control.

Functions to control auto mouse enable and target layer:

Function	Description	Aliases	Return type
`set_auto_mouse_enable(bool enable)`	Enable or disable auto mouse (true:enable, false:disable)		`void`(None)
`get_auto_mouse_enable(void)`	Return auto mouse enable state (true:enabled, false:disabled)	`AUTO_MOUSE_ENABLED`	`bool`
`set_auto_mouse_layer(uint8_t LAYER)`	Change/set the target layer for auto mouse		`void`(None)
`get_auto_mouse_layer(void)`	Return auto mouse target layer index	`AUTO_MOUSE_TARGET_LAYER`	`uint8_t`
`remove_auto_mouse_layer(layer_state_t state, bool force)`	Return `state` with target layer removed if appropriate (ignore criteria if `force`)		`layer_state_t`
`auto_mouse_layer_off(void)`	Disable target layer if appropriate will call (makes call to `layer_state_set`)		`void`(None)
`auto_mouse_toggle(void)`	Toggle on/off target toggle state (disables layer deactivation when true)		`void`(None)
`get_auto_mouse_toggle(void)`	Return value of toggling state variable		`bool`
`set_auto_mouse_timeout(uint16_t timeout)`	Change/set the timeout for turing off the layer		`void`(None)
`get_auto_mouse_timeout(void)`	Return the current timeout for turing off the layer		`uint16_t`
`set_auto_mouse_debounce(uint16_t timeout)`	Change/set the debounce for preventing layer activation		`void`(None)
`get_auto_mouse_debounce(void)`	Return the current debounce for preventing layer activation		`uint8_t`

NOTES:
- Due to the nature of how some functions work, the auto_mouse_trigger_reset, and auto_mouse_layer_off functions should never be called in the layer_state_set_* stack as this can cause indefinite loops.
- It is recommended that remove_auto_mouse_layer is used in the layer_state_set_* stack of functions and auto_mouse_layer_off is used everywhere else
- remove_auto_mouse_layer(state, false) or auto_mouse_layer_off() should be called before any instance of set_auto_mouse_enabled(false) or set_auto_mouse_layer(layer) to ensure that the target layer will be removed appropriately before disabling auto mouse or changing target to avoid a stuck layer

Functions for handling custom key events:

Function	Description	Return type
`auto_mouse_keyevent(bool pressed)`	Auto mouse mouse key event (true: key down, false: key up)	`void`(None)
`auto_mouse_trigger_reset(bool pressed)`	Reset auto mouse status on key down and start delay timer (non-mouse key event)	`void`(None)
`auto_mouse_toggle(void)`	Toggle on/off target toggle state (disables layer deactivation when true)	`void`(None)
`get_auto_mouse_toggle(void)`	Return value of toggling state variable	`bool`
NOTE: Generally it would be preferable to use the `is_mouse_record_` functions to add any additional keys that should act as mouse keys rather than adding `auto_mouse_keyevent(record.event->pressed)` to `process_records_`

Advanced control examples

Disable auto mouse on certain layers:

The auto mouse feature can be disabled any time and this can be helpful if you want to disable the auto mouse feature under certain circumstances such as when particular layers are active. One issue however is the handling of the target layer, it needs to be removed appropriately before disabling auto mouse (see notes under control functions above). The following function would disable the auto_mouse feature whenever the layers _LAYER5 through _LAYER7 are active as the top most layer (ignoring target layer).

// in keymap.c:
layer_state_t layer_state_set_user(layer_state_t state) {
    // checks highest layer other than target layer
    switch(get_highest_layer(remove_auto_mouse_layer(state, true))) {
        case _LAYER5 ... _LAYER7:
            // remove_auto_mouse_target must be called to adjust state *before* setting enable
            state = remove_auto_mouse_layer(state, false);
            set_auto_mouse_enable(false);
            break;
        default:
            set_auto_mouse_enable(true);
            break;
    }
    // recommend that any code that makes adjustment based on auto mouse layer state would go here
    return state;
}

Set different target layer when a particular layer is active:

The below code will change the auto mouse layer target to _MOUSE_LAYER_2 when _DEFAULT_LAYER_2 is highest default layer state.

NOTE: that auto_mouse_layer_off is used here instead of remove_auto_mouse_layer as default_layer_state_set_* stack is separate from the layer_state_set_* stack, if something similar was to be done in layer_state_set_user, state = remove_auto_mouse_layer(state, false) should be used instead.

ADDITIONAL NOTE: AUTO_MOUSE_TARGET_LAYER is checked if already set to avoid deactivating the target layer unless needed.

// in keymap.c
layer_state_t default_layer_state_set_user(layer_state_t state) {
    // switch on change in default layer need to check if target layer already set to avoid turning off layer needlessly
    switch(get_highest_layer(state)) {
        case _DEFAULT_LAYER_2:
            if ((AUTO_MOUSE_TARGET_LAYER) == _MOUSE_LAYER_2) break;
            auto_mouse_layer_off();
            set_auto_mouse_layer(_MOUSE_LAYER_2);
            break;
        
        default:
            if((AUTO_MOUSE_TARGET_LAYER) == _MOUSE_LAYER_1) break;
            auto_mouse_layer_off();
            set_auto_mouse_layer(_MOUSE_LAYER_1);
    }
    return state;
}

Use custom keys to control auto mouse:

Custom key records could also be created that control the auto mouse feature.
The code example below would create a custom key that would toggle the auto mouse feature on and off when pressed while also setting a bool that could be used to disable other code that may turn it on such as the layer code above.

// in config.h:
enum user_custom_keycodes {
    AM_Toggle = SAFE_RANGE
};

// in keymap.c:
// set up global bool to adjust other user code
bool auto_mouse_tg_off = !AUTO_MOUSE_ENABLED;

bool process_record_user(uint16_t keycode, keyrecord_t* record) {
    switch (keycode) {
        // toggle auto mouse enable key
        case AM_Toggle:
            if(record->event.pressed) { // key down
                auto_mouse_layer_off(); // disable target layer if needed
                set_auto_mouse_enabled((AUTO_MOUSE_ENABLED) ^ 1);
                auto_mouse_tg_off = !get_auto_mouse_enabled();
            } // do nothing on key up
            return false; // prevent further processing of keycode
    }
}

Customize Target Layer Activation

Layer activation can be customized by overwriting the auto_mouse_activation function. This function is checked every time pointing_device_task is called when inactive and every AUTO_MOUSE_DEBOUNCE ms when active, and will evaluate pointing device level conditions that trigger target layer activation. When it returns true, the target layer will be activated barring the usual exceptions (e.g. delay time has not expired).

By default it will return true if any of the mouse_report axes x,y,h,v are non zero, or if there is any mouse buttons active in mouse_report. Note: The Cirque pinnacle track pad already implements a custom activation function that will activate on touchdown as well as movement all of the default conditions, currently this only works for the master side of split keyboards.

Function	Description	Return type
`auto_mouse_activation(report_mouse_t mouse_report)`	Overwritable function that controls target layer activation (when true)	`bool`

Auto Mouse for Custom Pointing Device Task

When using a custom pointing device (overwriting pointing_device_task) the following code should be somewhere in the pointing_device_task_* stack:

bool pointing_device_task(void) {
    //...Custom pointing device task code
    
    // handle automatic mouse layer (needs report_mouse_t as input)
    pointing_device_task_auto_mouse(local_mouse_report);
    
    //...More custom pointing device task code
    
    return pointing_device_send();
}

In general the following two functions must be implemented in appropriate locations for auto mouse to function:

Function	Description	Suggested location
`pointing_device_task_auto_mouse(report_mouse_t mouse_report)`	handles target layer activation and is_active status updates	`pointing_device_task` stack
`process_auto_mouse(uint16_t keycode, keyrecord_t* record)`	Keycode processing for auto mouse	`process_record` stack

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