Add basic support for PS VR2 controllers

This commit is contained in:
Alain Carlucci
2025-11-16 17:02:57 +01:00
committed by dualshock-tools
parent a543438462
commit 49e7661832
9 changed files with 756 additions and 31 deletions

View File

@@ -35,6 +35,10 @@ class BaseController {
return this.finetuneMaxValue;
}
getNumberOfSticks() {
return 0;
}
/**
* Set input report handler
* @param {Function} handler Input report handler function

View File

@@ -3,6 +3,7 @@
import DS4Controller from './ds4-controller.js';
import DS5Controller from './ds5-controller.js';
import DS5EdgeController from './ds5-edge-controller.js';
import VR2Controller from './vr2-controller.js';
import { dec2hex } from '../utils.js';
/**
@@ -14,7 +15,9 @@ class ControllerFactory {
const ds4v2 = { vendorId: 0x054c, productId: 0x09cc };
const ds5 = { vendorId: 0x054c, productId: 0x0ce6 };
const ds5edge = { vendorId: 0x054c, productId: 0x0df2 };
return [ds4v1, ds4v2, ds5, ds5edge];
const vr2_left = { vendorId: 0x054c, productId: 0x0e45 };
const vr2_right = { vendorId: 0x054c, productId: 0x0e46 };
return [ds4v1, ds4v2, ds5, ds5edge, vr2_left, vr2_right];
}
@@ -35,6 +38,12 @@ class ControllerFactory {
case 0x0df2: // DS5 Edge
return new DS5EdgeController(device);
case 0x0e45: // VR2 Left
return new VR2Controller(device, true);
case 0x0e46: // VR2 Right
return new VR2Controller(device, false);
default:
throw new Error(`Unsupported device: ${dec2hex(device.vendorId)}:${dec2hex(device.productId)}`);
}
@@ -55,6 +64,10 @@ class ControllerFactory {
return "Sony DualSense";
case 0x0df2:
return "Sony DualSense Edge";
case 0x0e45:
return "VR2 Left Controller";
case 0x0e46:
return "VR2 Right Controller";
default:
return "Unknown Device";
}
@@ -87,6 +100,16 @@ class ControllerFactory {
showQuickCalib: true
};
case 0x0e45: // VR2 Left Controller
case 0x0e46: // VR2 Right Controller
return {
showInfo: true,
showFinetune: false,
showInfoTab: true,
showFourStepCalib: true,
showQuickCalib: false
};
default:
return {
showInfo: false,

View File

@@ -691,6 +691,10 @@ class DS4Controller extends BaseController {
}
}
getNumberOfSticks() {
return 2;
}
/**
* Get the list of supported quick tests for DS4 controller
* DS4 does not support adaptive triggers, speaker, or microphone

View File

@@ -830,6 +830,10 @@ class DS5Controller extends BaseController {
}
}
getNumberOfSticks() {
return 2;
}
/**
* Parse DS5 battery status from input data
*/

View File

@@ -242,6 +242,11 @@ class DS5EdgeController extends DS5Controller {
const pkg = data.reduce((acc, val) => acc.concat([val & 0xff, val >> 8]), [12, 1]);
await this.sendFeatureReport(0x80, pkg)
}
getNumberOfSticks() {
return 2;
}
}
export default DS5EdgeController;

View File

@@ -0,0 +1,638 @@
'use strict';
import BaseController from './base-controller.js';
import {
sleep,
buf2hex,
dec2hex,
dec2hex32,
dec2hex8,
format_mac_from_view,
reverse_str,
la,
} from '../utils.js';
import { l } from '../translations.js';
// DS5 Button mapping configuration
const DS5_BUTTON_MAP = [
{ name: 'up', byte: 0, mask: 0x0 }, // Disabled
{ name: 'right', byte: 0, mask: 0x0 }, // Disabled
{ name: 'down', byte: 0, mask: 0x0 }, // Disabled
{ name: 'left', byte: 0, mask: 0x0 }, // Disabled
{ name: 'square', byte: 9, mask: 0x10, svg: 'Square' },
{ name: 'cross', byte: 9, mask: 0x20, svg: 'Cross' },
{ name: 'circle', byte: 9, mask: 0x40, svg: 'Circle' },
{ name: 'triangle', byte: 9, mask: 0x80, svg: 'Triangle' },
{ name: 'l1', byte: 9, mask: 0x10, svg: 'L1' },
{ name: 'l2', byte: 4, mask: 0xff }, // analog handled separately
{ name: 'r1', byte: 9, mask: 0x20, svg: 'R1' },
{ name: 'r2', byte: 4, mask: 0xff }, // analog handled separately
{ name: 'create', byte: 10, mask: 0x01, svg: 'Create' },
{ name: 'options', byte: 10, mask: 0x02, svg: 'Options' },
{ name: 'l3', byte: 10, mask: 0x04, svg: 'L3' },
{ name: 'r3', byte: 10, mask: 0x08, svg: 'R3' },
{ name: 'ps', byte: 10, mask: 0x10, svg: 'PS' },
{ name: 'touchpad', byte: 0, mask: 0x00, svg: 'Trackpad' },
{ name: 'mute', byte: 0, mask: 0x00, svg: 'Mute' },
];
// DS5 Input processing configuration
const DS5_INPUT_CONFIG = {
buttonMap: DS5_BUTTON_MAP,
dpadByte: 7,
l2AnalogByte: 4,
r2AnalogByte: 4,
touchpadOffset: 32,
};
// DS5 Adaptive Trigger Effect Modes
const DS5_TRIGGER_EFFECT_MODE = {
OFF: 0x00, // No effect
RESISTANCE: 0x01, // Constant resistance
TRIGGER: 0x02, // Single-trigger effect with release
AUTO_TRIGGER: 0x06, // Automatic trigger with vibration
};
// DS5 Output Report Constants
const DS5_OUTPUT_REPORT = {
USB_REPORT_ID: 0x02,
BT_REPORT_ID: 0x31,
}
const DS5_VALID_FLAG0 = {
RIGHT_VIBRATION: 0x01, // Bit 0 for right vibration motor
LEFT_VIBRATION: 0x02, // Bit 1 for left vibration motor
LEFT_TRIGGER: 0x04, // Bit 2 for left adaptive trigger
RIGHT_TRIGGER: 0x08, // Bit 3 for right adaptive trigger
HEADPHONE_VOLUME: 0x10, // Bit 4 for headphone volume control
SPEAKER_VOLUME: 0x20, // Bit 5 for speaker volume control
MIC_VOLUME: 0x40, // Bit 6 for microphone volume control
AUDIO_CONTROL: 0x80, // Bit 7 for audio control
};
const DS5_VALID_FLAG1 = {
MUTE_LED: 0x01, // Bit 0 for mute LED control
POWER_SAVE_MUTE: 0x02, // Bit 1 for power-save mute control
LIGHTBAR_COLOR: 0x04, // Bit 2 for lightbar color control
RESERVED_BIT_3: 0x08, // Bit 3 (reserved)
PLAYER_INDICATOR: 0x10, // Bit 4 for player indicator LED control
LED_BRIGHTNESS: 0x20, // Bit 6 for LED brightness control
LIGHTBAR_SETUP: 0x40, // Bit 6 for lightbar setup control
RESERVED_BIT_7: 0x80, // Bit 7 (reserved)
}
const DS5_VALID_FLAG2 = {
LED_BRIGHTNESS: 0x01, // Bit 0 for LED brightness control
LIGHTBAR_SETUP: 0x02, // Bit 1 for lightbar setup control
};
// Basic DS5 Output Structure for adaptive trigger control
class DS5OutputStruct {
constructor(currentState = null) {
// Create a 47-byte buffer for DS5 output report (USB)
this.buffer = new ArrayBuffer(47);
this.view = new DataView(this.buffer);
// Control flags
this.validFlag0 = currentState.validFlag0 || 0;
this.validFlag1 = currentState.validFlag1 || 0;
this.validFlag2 = currentState.validFlag2 || 0;
// Vibration motors
this.bcVibrationRight = currentState.bcVibrationRight || 0;
this.bcVibrationLeft = currentState.bcVibrationLeft || 0;
// Audio control
this.headphoneVolume = currentState.headphoneVolume || 0;
this.speakerVolume = currentState.speakerVolume || 0;
this.micVolume = currentState.micVolume || 0;
this.audioControl = currentState.audioControl || 0;
this.audioControl2 = currentState.audioControl2 || 0;
// LED and indicator control
this.muteLedControl = currentState.muteLedControl || 0;
this.powerSaveMuteControl = currentState.powerSaveMuteControl || 0;
this.lightbarSetup = currentState.lightbarSetup || 0;
this.ledBrightness = currentState.ledBrightness || 0;
this.playerIndicator = currentState.playerIndicator || 0;
this.ledCRed = currentState.ledCRed || 0;
this.ledCGreen = currentState.ledCGreen || 0;
this.ledCBlue = currentState.ledCBlue || 0;
// Adaptive trigger parameters
this.adaptiveTriggerLeftMode = currentState.adaptiveTriggerLeftMode || 0;
this.adaptiveTriggerLeftParam0 = currentState.adaptiveTriggerLeftParam0 || 0;
this.adaptiveTriggerLeftParam1 = currentState.adaptiveTriggerLeftParam1 || 0;
this.adaptiveTriggerLeftParam2 = currentState.adaptiveTriggerLeftParam2 || 0;
this.adaptiveTriggerRightMode = currentState.adaptiveTriggerRightMode || 0;
this.adaptiveTriggerRightParam0 = currentState.adaptiveTriggerRightParam0 || 0;
this.adaptiveTriggerRightParam1 = currentState.adaptiveTriggerRightParam1 || 0;
this.adaptiveTriggerRightParam2 = currentState.adaptiveTriggerRightParam2 || 0;
// Haptic feedback
this.hapticVolume = currentState.hapticVolume || 0;
}
// Pack the data into the output buffer
pack() {
// Based on DS5 output report structure from HID descriptor
// Byte 0-1: Control flags (16-bit little endian)
this.view.setUint16(0, (this.validFlag1 << 8) | this.validFlag0, true);
// Byte 2-3: Vibration motors
this.view.setUint8(2, this.bcVibrationRight);
this.view.setUint8(3, this.bcVibrationLeft);
// Bytes 4-7: Audio control (reserved for now)
this.view.setUint8(4, this.headphoneVolume);
this.view.setUint8(5, this.speakerVolume);
this.view.setUint8(6, this.micVolume);
this.view.setUint8(7, this.audioControl);
// Byte 8: Mute LED control
this.view.setUint8(8, this.muteLedControl);
// Byte 9: Reserved
this.view.setUint8(9, 0);
// Bytes 10-20: Right adaptive trigger
this.view.setUint8(10, this.adaptiveTriggerRightMode);
this.view.setUint8(11, this.adaptiveTriggerRightParam0);
this.view.setUint8(12, this.adaptiveTriggerRightParam1);
this.view.setUint8(13, this.adaptiveTriggerRightParam2);
// Additional trigger parameters (bytes 14-20 reserved for extended params)
for (let i = 14; i <= 20; i++) {
this.view.setUint8(i, 0);
}
// Bytes 21-31: Left adaptive trigger
this.view.setUint8(21, this.adaptiveTriggerLeftMode);
this.view.setUint8(22, this.adaptiveTriggerLeftParam0);
this.view.setUint8(23, this.adaptiveTriggerLeftParam1);
this.view.setUint8(24, this.adaptiveTriggerLeftParam2);
// Additional trigger parameters (bytes 25-31 reserved for extended params)
for (let i = 25; i <= 31; i++) {
this.view.setUint8(i, 0);
}
// Bytes 32-42: Reserved
for (let i = 32; i <= 42; i++) {
this.view.setUint8(i, 0);
}
// Byte 43: Player LED indicator
this.view.setUint8(43, this.playerIndicator);
// Bytes 44-46: Lightbar RGB
this.view.setUint8(44, this.ledCRed);
this.view.setUint8(45, this.ledCGreen);
this.view.setUint8(46, this.ledCBlue);
return this.buffer;
}
}
/**
* VR2 Controller implementation
*/
class VR2Controller extends BaseController {
constructor(device, isLeft) {
super(device);
this.model = "VR2";
this.finetuneMaxValue = 65535; // 16-bit max value for DS5
// Initialize current output state to track controller settings
this.currentOutputState = {
validFlag0: 0,
validFlag1: 0,
validFlag2: 0,
bcVibrationRight: 0,
bcVibrationLeft: 0,
headphoneVolume: 0,
speakerVolume: 0,
micVolume: 0,
audioControl: 0,
audioControl2: 0,
muteLedControl: 0,
powerSaveMuteControl: 0,
lightbarSetup: 0,
ledBrightness: 0,
playerIndicator: 0,
ledCRed: 0,
ledCGreen: 0,
ledCBlue: 0,
adaptiveTriggerLeftMode: 0,
adaptiveTriggerLeftParam0: 0,
adaptiveTriggerLeftParam1: 0,
adaptiveTriggerLeftParam2: 0,
adaptiveTriggerRightMode: 0,
adaptiveTriggerRightParam0: 0,
adaptiveTriggerRightParam1: 0,
adaptiveTriggerRightParam2: 0,
hapticVolume: 0
};
}
getInputConfig() {
return DS5_INPUT_CONFIG;
}
async getInfo() {
return this._getInfo(false);
}
async _getInfo(is_edge) {
// Device-only: collect info and return a common structure; do not touch the DOM
try {
console.log("Fetching controller info...");
const view = await this.receiveFeatureReport(0x20);
console.log("Got VR2 info report:", buf2hex(view.buffer));
const cmd = view.getUint8(0, true);
if(cmd != 0x20 || view.buffer.byteLength != 64)
return { ok: false, error: new Error("Invalid response for ds5_info") };
const build_date = new TextDecoder().decode(view.buffer.slice(1, 1+11));
const build_time = new TextDecoder().decode(view.buffer.slice(12, 20));
const fwtype = view.getUint16(20, true);
const swseries = view.getUint16(22, true);
const hwinfo = view.getUint32(24, true);
const fwversion = view.getUint32(28, true);
const updversion = view.getUint16(44, true);
const unk = view.getUint8(46, true);
const fwversion1 = view.getUint32(48, true);
const fwversion2 = view.getUint32(52, true);
const fwversion3 = view.getUint32(56, true);
const serial_number = await this.getSystemInfo(1, 19, 17);
const infoItems = [
{ key: l("Serial Number"), value: serial_number, cat: "hw" },
{ key: l("MCU Unique ID"), value: await this.getSystemInfo(1, 9, 9, false), cat: "hw", isExtra: true },
{ key: l("PCBA ID"), value: reverse_str(await this.getSystemInfo(1, 17, 14)), cat: "hw", isExtra: true },
{ key: l("Battery Barcode"), value: await this.getSystemInfo(1, 24, 23), cat: "hw", isExtra: true },
{ key: l("VCM Left Barcode"), value: await this.getSystemInfo(1, 26, 16), cat: "hw", isExtra: true },
{ key: l("VCM Right Barcode"), value: await this.getSystemInfo(1, 28, 16), cat: "hw", isExtra: true },
...(is_edge ? [] : [{ key: l("Board Model"), value: this.hwToBoardModel(hwinfo), cat: "hw", addInfoIcon: 'board' }]),
{ key: l("FW Build Date"), value: build_date + " " + build_time, cat: "fw" },
{ key: l("FW Type"), value: "0x" + dec2hex(fwtype), cat: "fw", isExtra: true },
{ key: l("FW Series"), value: "0x" + dec2hex(swseries), cat: "fw", isExtra: true },
{ key: l("HW Model"), value: "0x" + dec2hex32(hwinfo), cat: "hw", isExtra: true },
{ key: l("FW Version"), value: "0x" + dec2hex32(fwversion), cat: "fw", isExtra: true },
{ key: l("FW Update"), value: "0x" + dec2hex(updversion), cat: "fw", isExtra: true },
{ key: l("FW Update Info"), value: "0x" + dec2hex8(unk), cat: "fw", isExtra: true },
{ key: l("SBL FW Version"), value: "0x" + dec2hex32(fwversion1), cat: "fw", isExtra: true },
{ key: l("Venom FW Version"), value: "0x" + dec2hex32(fwversion2), cat: "fw", isExtra: true },
{ key: l("Spider FW Version"), value: "0x" + dec2hex32(fwversion3), cat: "fw", isExtra: true },
{ key: l("Touchpad ID"), value: await this.getSystemInfo(5, 2, 8, false), cat: "hw", isExtra: true },
{ key: l("Touchpad FW Version"), value: await this.getSystemInfo(5, 4, 8, false), cat: "fw", isExtra: true },
];
const old_controller = build_date.search(/ 2020| 2021/);
let disable_bits = 0;
if(old_controller != -1) {
la("vr2_info_error", {"r": "old"})
disable_bits |= 2; // 2: outdated firmware
}
const nv = await this.queryNvStatus();
const bd_addr = await this.getBdAddr();
infoItems.push({ key: l("Bluetooth Address"), value: bd_addr, cat: "hw", isExtra: true });
const pending_reboot = (nv?.status === 'pending_reboot');
return { ok: true, infoItems, nv, disable_bits, pending_reboot };
} catch(error) {
la("vr2_info_error", {"r": error})
return { ok: false, error, disable_bits: 1 };
}
}
async flash(progressCallback = null) {
la("vr2_flash");
try {
await this.nvsUnlock();
const lockRes = await this.nvsLock();
if(!lockRes.ok) throw (lockRes.error || new Error("NVS lock failed"));
return { success: true, message: l("Changes saved successfully") };
} catch(error) {
throw new Error(l("Error while saving changes"), { cause: error });
}
}
async reset() {
la("vr2_reset");
try {
await this.sendFeatureReport(0x80, [1,1]);
} catch(error) {
}
}
async nvsLock() {
// la("vr2_nvlock");
try {
await this.sendFeatureReport(0x80, [3,1]);
await this.receiveFeatureReport(0x81);
return { ok: true };
} catch(error) {
return { ok: false, error };
}
}
async nvsUnlock() {
// la("vr2_nvunlock");
try {
await this.sendFeatureReport(0x80, [3,2, 101, 50, 64, 12]);
const data = await this.receiveFeatureReport(0x81);
} catch(error) {
await sleep(500);
throw new Error(l("NVS Unlock failed"), { cause: error });
}
}
async getBdAddr() {
await this.sendFeatureReport(0x80, [9,2]);
const data = await this.receiveFeatureReport(0x81);
return format_mac_from_view(data, 4);
}
async getSystemInfo(base, num, length, decode = true) {
await this.sendFeatureReport(128, [base,num])
const pcba_id = await this.receiveFeatureReport(129);
if(pcba_id.getUint8(1) != base || pcba_id.getUint8(2) != num || pcba_id.getUint8(3) != 2) {
return l("error");
}
if(decode)
return new TextDecoder().decode(pcba_id.buffer.slice(4, 4+length));
return buf2hex(pcba_id.buffer.slice(4, 4+length));
}
async calibrateSticksBegin() {
la("vr2_calibrate_sticks_begin");
try {
// Begin
await this.sendFeatureReport(0x82, [1,1,1]);
// Assert
const data = await this.receiveFeatureReport(0x83);
if(data.getUint32(0, false) != 0x83010101) {
const d1 = dec2hex32(data.getUint32(0, false));
la("vr2_calibrate_sticks_begin_failed", {"d1": d1});
throw new Error(`Stick center calibration begin failed: ${d1}`);
}
return { ok: true };
} catch(error) {
la("vr2_calibrate_sticks_begin_failed", {"r": error});
return { ok: false, error };
}
}
async calibrateSticksSample() {
la("vr2_calibrate_sticks_sample");
try {
// Sample
await this.sendFeatureReport(0x82, [3,1,1]);
// Assert
const data = await this.receiveFeatureReport(0x83);
if(data.getUint32(0, false) != 0x83010101) {
const d1 = dec2hex32(data.getUint32(0, false));
la("vr2_calibrate_sticks_sample_failed", {"d1": d1});
throw new Error(`Stick center calibration sample failed: ${d1}`);
}
return { ok: true };
} catch(error) {
la("vr2_calibrate_sticks_sample_failed", {"r": error});
return { ok: false, error };
}
}
async calibrateSticksEnd() {
la("vr2_calibrate_sticks_end");
try {
// Write
await this.sendFeatureReport(0x82, [2,1,1]);
const data = await this.receiveFeatureReport(0x83);
if(data.getUint32(0, false) != 0x83010102) {
const d1 = dec2hex32(data.getUint32(0, false));
la("vr2_calibrate_sticks_failed", {"s": 3, "d1": d1});
throw new Error(`Stick center calibration end failed: ${d1}`);
}
return { ok: true };
} catch(error) {
la("vr2_calibrate_sticks_end_failed", {"r": error});
return { ok: false, error };
}
}
async calibrateRangeBegin() {
la("vr2_calibrate_range_begin");
try {
// Begin
await this.sendFeatureReport(0x82, [1,1,2]);
// Assert
const data = await this.receiveFeatureReport(0x83);
if(data.getUint32(0, false) != 0x83010201) {
const d1 = dec2hex32(data.getUint32(0, false));
la("vr2_calibrate_range_begin_failed", {"d1": d1});
throw new Error(`Stick range calibration begin failed: ${d1}`);
}
return { ok: true };
} catch(error) {
la("vr2_calibrate_range_begin_failed", {"r": error});
return { ok: false, error };
}
}
async calibrateRangeEnd() {
la("vr2_calibrate_range_end");
try {
// Write
await this.sendFeatureReport(0x82, [2,1,2]);
// Assert
const data = await this.receiveFeatureReport(0x83);
if(data.getUint32(0, false) != 0x83010202) {
const d1 = dec2hex32(data.getUint32(0, false));
la("vr2_calibrate_range_end_failed", {"d1": d1});
throw new Error(`Stick range calibration end failed: ${d1}`);
}
return { ok: true };
} catch(error) {
la("vr2_calibrate_range_end_failed", {"r": error});
return { ok: false, error };
}
}
async queryNvStatus() {
try {
await this.sendFeatureReport(0x80, [3,3]);
const data = await this.receiveFeatureReport(0x81);
const ret = data.getUint32(1, false);
if (ret === 0x15010100) {
return { device: 'ds5', status: 'pending_reboot', locked: null, code: 4, raw: ret };
}
if (ret === 0x03030201) {
return { device: 'ds5', status: 'locked', locked: true, mode: 'temporary', code: 1, raw: ret };
}
if (ret === 0x03030200) {
return { device: 'ds5', status: 'unlocked', locked: false, mode: 'permanent', code: 0, raw: ret };
}
if (ret === 1 || ret === 2) {
return { device: 'ds5', status: 'unknown', locked: null, code: 2, raw: ret };
}
return { device: 'ds5', status: 'unknown', locked: null, code: ret, raw: ret };
} catch (error) {
return { device: 'ds5', status: 'error', locked: null, code: 2, error };
}
}
hwToBoardModel(hw_ver) {
return l("Unknown");
}
async getInMemoryModuleData() {
// DualSense
await this.sendFeatureReport(0x80, [12, 2]);
await sleep(100);
const data = await this.receiveFeatureReport(0x81);
const cmd = data.getUint8(0, true);
const [p1, p2, p3] = [1, 2, 3].map(i => data.getUint8(i, true));
if(cmd != 129 || p1 != 12 || (p2 != 2 && p2 != 4) || p3 != 2)
return null;
return Array.from({ length: 12 }, (_, i) => data.getUint16(4 + i * 2, true));
}
async writeFinetuneData(data) {
const pkg = data.reduce((acc, val) => acc.concat([val & 0xff, val >> 8]), [12, 1]);
await this.sendFeatureReport(0x80, pkg);
}
/**
* Send output report to the DS5 controller
* @param {ArrayBuffer} data - The output report data
*/
async sendOutputReport(data, reason = "") {
if (!this.device?.opened) {
throw new Error('Device is not opened');
}
try {
console.log(`Sending output report${ reason ? ` to ${reason}` : '' }:`, DS5_OUTPUT_REPORT.USB_REPORT_ID, buf2hex(data));
await this.device.sendReport(DS5_OUTPUT_REPORT.USB_REPORT_ID, new Uint8Array(data));
} catch (error) {
throw new Error(`Failed to send output report: ${error.message}`);
}
}
/**
* Update the current output state with values from an OutputStruct
* @param {DS5OutputStruct} outputStruct - The output structure to copy state from
*/
updateCurrentOutputState(outputStruct) {
this.currentOutputState = { ...outputStruct };
}
/**
* Get a copy of the current output state
* @returns {Object} A copy of the current output state
*/
getCurrentOutputState() {
return { ...this.currentOutputState };
}
/**
* Initialize the current output state when the controller is first connected.
* Since DS5 controllers don't provide a way to read the current output state,
* this method sets up reasonable defaults and attempts to detect any current settings.
*/
async initializeCurrentOutputState() {
try {
// Reset all output state to known defaults
this.currentOutputState = {
...this.getCurrentOutputState(),
validFlag1: 0b1111_0111,
ledCRed: 0,
ledCGreen: 0,
ledCBlue: 255,
};
// Send a "reset" output report to ensure the controller is in a known state
// This will turn off any existing effects and set the controller to defaults
const resetOutputStruct = new DS5OutputStruct(this.currentOutputState);
await this.sendOutputReport(resetOutputStruct.pack(), 'init default states');
// Update our state to reflect what we just sent
this.updateCurrentOutputState(resetOutputStruct);
} catch (error) {
console.warn("Failed to initialize DS5 output state:", error);
// Even if the reset fails, we still have the default state initialized
}
}
/**
* Parse DS5 battery status from input data
*/
parseBatteryStatus(data) {
const bat = data.getUint8(52); // DS5 battery byte is at position 52
// DS5: bat_charge = low 4 bits, bat_status = high 4 bits
const bat_charge = bat & 0x0f;
const bat_status = bat >> 4;
let bat_capacity = 0;
let cable_connected = false;
let is_charging = false;
let is_error = false;
switch (bat_status) {
case 0:
// On battery power
bat_capacity = Math.min(bat_charge * 10 + 5, 100);
break;
case 1:
// Charging
bat_capacity = Math.min(bat_charge * 10 + 5, 100);
is_charging = true;
cable_connected = true;
break;
case 2:
// Fully charged
bat_capacity = 100;
cable_connected = true;
break;
case 15:
// Battery is flat
bat_capacity = 0;
is_charging = true;
cable_connected = true;
break;
default:
// Error state
is_error = true;
break;
}
return { bat_capacity, cable_connected, is_charging, is_error };
}
getNumberOfSticks() {
return 1;
}
}
export default VR2Controller;

View File

@@ -267,6 +267,17 @@ async function continue_connection({data, device}) {
const model = controllerInstance.getModel();
const numOfSticks = controllerInstance.getNumberOfSticks();
if(numOfSticks == 2) {
$("#stick-item-rx").show();
$("#stick-item-ry").show();
} else if(numOfSticks == 1) {
$("#stick-item-rx").hide();
$("#stick-item-ry").hide();
} else {
throw new Error(`Invalid number of sticks: ${numOfSticks}`);
}
// Initialize SVG controller based on model
await init_svg_controller(model);
@@ -304,6 +315,10 @@ async function continue_connection({data, device}) {
if(model == "DS5_Edge") {
show_edge_modal();
}
if(model == "VR2") {
show_popup(l("<p>Support for PS VR2 controllers is <b>minimal and highly experimental</b>.</p><p>I currently don't own these controllers, so I cannot verify the calibration process myself.</p><p>If you'd like to help improve full support, you can contribute with a donation or even send the controllers for testing.</p><p>Feel free to contact me on Discord (the_al) or by email at ds4@the.al .</p><br><p>Thank you for your support!</p>"), true)
}
} catch(err) {
await disconnect();
throw err;
@@ -406,6 +421,10 @@ async function init_svg_controller(model) {
svgFileName = 'dualshock-controller.svg';
} else if (model === 'DS5' || model === 'DS5_Edge') {
svgFileName = 'dualsense-controller.svg';
} else if (model === 'VR2') {
// Disable SVG controller for VR2
svgContainer.innerHTML = '';
return;
} else {
throw new Error(`Unknown controller model: ${model}`);
}
@@ -481,35 +500,42 @@ function reset_circularity_mode() {
function refresh_stick_pos() {
if(!controller) return;
const hasSingleStick = (controller.currentController?.getNumberOfSticks() == 1);
const c = document.getElementById("stickCanvas");
const ctx = c.getContext("2d");
const sz = 60;
const hb = 20 + sz;
const yb = 15 + sz;
const w = c.width;
const hb = hasSingleStick ? w / 2 : 20 + sz;
ctx.clearRect(0, 0, c.width, c.height);
const { left: { x: plx, y: ply }, right: { x: prx, y: pry } } = controller.button_states.sticks;
const enable_zoom_center = center_zoom_checked();
const enable_circ_test = circ_checked();
// Draw left stick
draw_stick_position(ctx, hb, yb, sz, plx, ply, {
circularity_data: enable_circ_test ? ll_data : null,
enable_zoom_center,
});
// Draw right stick
draw_stick_position(ctx, w-hb, yb, sz, prx, pry, {
circularity_data: enable_circ_test ? rr_data : null,
enable_zoom_center,
});
if(!hasSingleStick) {
// Draw right stick
draw_stick_position(ctx, w-hb, yb, sz, prx, pry, {
circularity_data: enable_circ_test ? rr_data : null,
enable_zoom_center,
});
}
const precision = enable_zoom_center ? 3 : 2;
$("#lx-lbl").text(float_to_str(plx, precision));
$("#ly-lbl").text(float_to_str(ply, precision));
$("#rx-lbl").text(float_to_str(prx, precision));
$("#ry-lbl").text(float_to_str(pry, precision));
if(!hasSingleStick) {
$("#rx-lbl").text(float_to_str(prx, precision));
$("#ry-lbl").text(float_to_str(pry, precision));
}
// Move L3 and R3 SVG elements according to stick position
try {
@@ -1094,4 +1120,4 @@ window.show_quick_test_modal = () => {
};
// Auto-initialize the application when the module loads
gboot();
gboot();

View File

@@ -36,6 +36,8 @@ export class CalibRangeModal {
this.allDonePromiseResolve = undefined;
this.doneCallback = doneCallback;
this.hasSingleStick = (this.controller.currentController.getNumberOfSticks() == 1);
}
async open() {
@@ -107,7 +109,8 @@ export class CalibRangeModal {
// Every second, update countdown
this.countdownInterval = setInterval(() => {
this.countdownSeconds--;
if (this.countdownSeconds <= 0 || this.leftCycleProgress + this.rightCycleProgress >= 100) {
// If there is only one stick, sum two times leftCycleProgress, so that it can reach 100.
if (this.countdownSeconds <= 0 || this.leftCycleProgress + (this.hasSingleStick ? this.leftCycleProgress : this.rightCycleProgress) >= 100) {
this.stopCountdown();
$('#range-calibration-alert').hide();
@@ -160,19 +163,29 @@ export class CalibRangeModal {
this.ll_data.fill(0);
}
const rightNonZeroCount = this.rr_data.filter(v => v > JOYSTICK_EXTREME_THRESHOLD).length;
const rightFillRatio = rightNonZeroCount / CIRCULARITY_DATA_SIZE;
if (rightFillRatio >= CIRCLE_FILL_THRESHOLD) {
this.rightFullCycles++;
this.rr_data.fill(0);
if(this.hasSingleStick) {
// Update progress if counts changed
if (leftNonZeroCount !== this.leftNonZeroCount) {
this.leftNonZeroCount = leftNonZeroCount;
this.updateProgress();
}
} else {
const rightNonZeroCount = this.rr_data.filter(v => v > JOYSTICK_EXTREME_THRESHOLD).length;
const rightFillRatio = rightNonZeroCount / CIRCULARITY_DATA_SIZE;
if (rightFillRatio >= CIRCLE_FILL_THRESHOLD) {
this.rightFullCycles++;
this.rr_data.fill(0);
}
// Update progress if counts changed
if (leftNonZeroCount !== this.leftNonZeroCount || rightNonZeroCount !== this.rightNonZeroCount) {
this.leftNonZeroCount = leftNonZeroCount;
this.rightNonZeroCount = rightNonZeroCount;
this.updateProgress();
}
}
// Update progress if counts changed
if (leftNonZeroCount !== this.leftNonZeroCount || rightNonZeroCount !== this.rightNonZeroCount) {
this.leftNonZeroCount = leftNonZeroCount;
this.rightNonZeroCount = rightNonZeroCount;
this.updateProgress();
}
}
/**
@@ -191,8 +204,11 @@ export class CalibRangeModal {
const rightCurrentProgress = (this.rightNonZeroCount / CIRCULARITY_DATA_SIZE) * (50 / this.requiredFullCycles);
const totalProgress = Math.round(
Math.min(50, leftCycleProgress + leftCurrentProgress) +
Math.min(50, rightCycleProgress + rightCurrentProgress)
this.hasSingleStick ?
Math.min(100, 2*(leftCycleProgress + leftCurrentProgress)) : (
Math.min(50, leftCycleProgress + leftCurrentProgress) +
Math.min(50, rightCycleProgress + rightCurrentProgress)
)
);
const $progressBar = $('#range-progress-bar');
@@ -202,14 +218,19 @@ export class CalibRangeModal {
.css('width', `${totalProgress}%`)
.attr('aria-valuenow', totalProgress);
$progressText.text(`${totalProgress}% (L:${this.leftFullCycles}/${this.requiredFullCycles}, R:${this.rightFullCycles}/${this.requiredFullCycles})`);
if(!this.hasSingleStick) {
$progressText.text(`${totalProgress}% (L:${this.leftFullCycles}/${this.requiredFullCycles}, R:${this.rightFullCycles}/${this.requiredFullCycles})`);
} else {
$progressText.text(`${totalProgress}% (L:${this.leftFullCycles}/${this.requiredFullCycles})`);
}
}
checkAndEnhanceAlert() {
const secondsElapsed = SECONDS_UNTIL_UNLOCK - this.countdownSeconds;
const alertIsVisible = $('#range-calibration-alert').is(":visible")
const progressBelowThreshold = this.leftCycleProgress < 10 || this.rightCycleProgress < 10;
const progressBelowThreshold = this.leftCycleProgress < 10 || (this.hasSingleStick ? false : this.rightCycleProgress < 10);
if (secondsElapsed >= 5 && progressBelowThreshold && !alertIsVisible) {
$('#range-calibration-alert').show();
}
@@ -250,4 +271,4 @@ async function calibrate_range_on_close() {
}
// Expose functions to window for HTML onclick handlers
window.calibrate_range_on_close = calibrate_range_on_close;
window.calibrate_range_on_close = calibrate_range_on_close;