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TestFramework.cpp
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#include <Windows.h>
#include <CommCtrl.h>
#include <iostream>
#include <fstream>
#include <sstream>
#include <iomanip>
#include <string>
#include <ctime>
#include "TestFramework.h"
#include "IRSimulator.h"
#include "EditorPipe.h"
#include "VortexLib.h"
#include "Log/Log.h"
#include "Patterns/PatternBuilder.h"
#include "Menus/MenuList/Randomizer.h"
#include "Time/TimeControl.h"
#include "Colors/Colorset.h"
#include "VortexEngine.h"
#include "Menus/Menus.h"
#include "Modes/Mode.h"
#include "Leds/Leds.h"
#include "patterns/Pattern.h"
#include "resource.h"
#pragma comment(lib, "Comctl32.lib")
TestFramework *g_pTestFramework = nullptr;
using namespace std;
#define CLICK_BUTTON_ID 10001
#define TICKRATE_SLIDER_ID 15001
#define LED_CIRCLE_ID 20003
#define LAUNCH_IR_ID 30001
#define GEN_PATS_ID 30002
#define PATTERN_STRIP_ID 35001
#define BACK_COL RGB(40, 40, 40)
TestFramework::TestFramework() :
m_pCallbacks(nullptr),
m_window(),
m_orbitBox(),
m_gloveBox(),
m_handleBox(),
m_fingerBox(),
m_chromadeckBox(),
m_sparkBox(),
m_patternStrip(),
m_tickrateSlider(),
m_button(),
m_IRLaunchButton(),
m_leds(),
m_ledPos(),
m_pauseMutex(nullptr),
m_hInst(nullptr),
m_consoleHandle(nullptr),
m_orbitBMP(nullptr),
m_gloveBMP(nullptr),
m_handleBMP(nullptr),
m_fingerBMP(nullptr),
m_chromadeckBMP(nullptr),
m_hIcon(nullptr),
m_loopThread(nullptr),
m_tickrate(150),
m_brightness(255),
m_ledList(nullptr),
m_numLeds(0),
m_lastLedColor(nullptr),
m_curSelectedLed(LED_FIRST),
m_initialized(false),
m_buttonPressed(false),
m_buttonPressed2(false),
m_keepGoing(true),
m_isPaused(false),
m_curMode(),
m_brushmap(),
m_accelTable()
{
}
TestFramework::~TestFramework()
{
if (m_lastLedColor) {
delete[] m_lastLedColor;
}
}
bool TestFramework::init(HINSTANCE hInstance)
{
if (g_pTestFramework) {
return false;
}
m_hInst = hInstance;
g_pTestFramework = this;
#ifdef _DEBUG
if (!m_consoleHandle) {
AllocConsole();
freopen_s(&m_consoleHandle, "CONOUT$", "w", stdout);
}
DeleteFile("VortexEditor.dat");
#endif
// create the pause mutex
m_pauseMutex = CreateMutex(NULL, false, NULL);
if (!m_pauseMutex) {
//return false;
}
// load the main window
m_window.init(m_hInst, "Vortex Emulator", BACK_COL, width, height, this, "VortexTestFramework");
// load the icon and background image
m_hIcon = LoadIcon(m_hInst, MAKEINTRESOURCE(IDI_ICON1));
// set the icon
SendMessage(m_window.hwnd(), WM_SETICON, ICON_BIG, (LPARAM)m_hIcon);
switch (LED_COUNT) {
case 28: // orbit
m_orbitBMP = (HBITMAP)LoadImage(m_hInst, MAKEINTRESOURCE(IDB_BITMAP1), IMAGE_BITMAP, 0, 0, 0);
m_orbitBox.init(m_hInst, m_window, "Orbit", BACK_COL, 500, 250, 66, 30, 0, 0, nullptr);
m_orbitBox.setDoCapture(false);
m_orbitBox.setDrawHLine(false);
m_orbitBox.setDrawVLine(false);
m_orbitBox.setDrawCircle(false);
m_orbitBox.setBackground(m_orbitBMP);
m_orbitBox.setEnabled(false);
m_orbitBox.setVisible(true);
m_button.init(m_hInst, m_window, "Click", BACK_COL, 48, 24, 270, 308, CLICK_BUTTON_ID, buttonClickCallback);
m_button2.init(m_hInst, m_window, "Click2", BACK_COL, 48, 24, 270, 336, CLICK_BUTTON_ID + 1, buttonClickCallback);
m_button3.init(m_hInst, m_window, "Long", BACK_COL, 52, 24, 328, 308, CLICK_BUTTON_ID + 2, longClickCallback);
m_button4.init(m_hInst, m_window, "Long2", BACK_COL, 52, 24, 328, 336, CLICK_BUTTON_ID + 3, longClickCallback2);
break;
case 20: // chromadeck
m_chromadeckBMP = (HBITMAP)LoadImage(m_hInst, MAKEINTRESOURCE(IDB_BITMAP5), IMAGE_BITMAP, 0, 0, 0);
m_chromadeckBox.init(m_hInst, m_window, "Chromadeck", BACK_COL, 500, 250, 66, 30, 0, 0, nullptr);
m_chromadeckBox.setDoCapture(false);
m_chromadeckBox.setDrawHLine(false);
m_chromadeckBox.setDrawVLine(false);
m_chromadeckBox.setDrawCircle(false);
m_chromadeckBox.setBackground(m_chromadeckBMP);
m_chromadeckBox.setEnabled(false);
m_chromadeckBox.setVisible(false);
m_button.init(m_hInst, m_window, "<", BACK_COL, 36, 24, 164, 175, CLICK_BUTTON_ID, buttonClickCallback);
m_button2.init(m_hInst, m_window, "o", BACK_COL, 44, 24, 204, 175, CLICK_BUTTON_ID + 1, buttonClickCallback);
m_button3.init(m_hInst, m_window, ">", BACK_COL, 36, 24, 254, 175, CLICK_BUTTON_ID + 2, buttonClickCallback);
break;
case 10: // glove
m_gloveBMP = (HBITMAP)LoadImage(m_hInst, MAKEINTRESOURCE(IDB_BITMAP2), IMAGE_BITMAP, 0, 0, 0);
m_gloveBox.init(m_hInst, m_window, "Glove", BACK_COL, 250, 320, 86, 30, 0, 0, nullptr);
m_gloveBox.setDoCapture(false);
m_gloveBox.setDrawHLine(false);
m_gloveBox.setDrawVLine(false);
m_gloveBox.setDrawCircle(false);
m_gloveBox.setBackground(m_gloveBMP);
m_gloveBox.setEnabled(false);
m_gloveBox.setVisible(true);
m_button.init(m_hInst, m_window, "Click", BACK_COL, 48, 24, 198, 312, CLICK_BUTTON_ID, buttonClickCallback);
m_button2.init(m_hInst, m_window, "Long", BACK_COL, 48, 24, 198, 346, CLICK_BUTTON_ID + 2, longClickCallback);
break;
case 6: // spark
m_sparkBMP = (HBITMAP)LoadImage(m_hInst, MAKEINTRESOURCE(IDB_BITMAP6), IMAGE_BITMAP, 0, 0, 0);
m_sparkBox.init(m_hInst, m_window, "Spark", BACK_COL, 200, 200, 30, 30, 0, 0, nullptr);
m_sparkBox.setDoCapture(false);
m_sparkBox.setDrawHLine(false);
m_sparkBox.setDrawVLine(false);
m_sparkBox.setDrawCircle(false);
m_sparkBox.setBackground(m_sparkBMP);
m_sparkBox.setEnabled(false);
m_sparkBox.setVisible(false);
m_button.init(m_hInst, m_window, "Click", BACK_COL, 48, 24, 198, 312, CLICK_BUTTON_ID, buttonClickCallback);
m_button2.init(m_hInst, m_window, "Long", BACK_COL, 48, 24, 198, 346, CLICK_BUTTON_ID + 2, longClickCallback);
break;
case 3: // handle
m_handleBMP = (HBITMAP)LoadImage(m_hInst, MAKEINTRESOURCE(IDB_BITMAP3), IMAGE_BITMAP, 0, 0, 0);
m_handleBox.init(m_hInst, m_window, "Handle", BACK_COL, 285, 187, 87, 90, 0, 0, nullptr);
m_handleBox.setDoCapture(false);
m_handleBox.setDrawHLine(false);
m_handleBox.setDrawVLine(false);
m_handleBox.setDrawCircle(false);
m_handleBox.setBackground(m_handleBMP);
m_handleBox.setEnabled(false);
m_handleBox.setVisible(true);
m_button.init(m_hInst, m_window, "Click", BACK_COL, 48, 24, 198, 312, CLICK_BUTTON_ID, buttonClickCallback);
m_button2.init(m_hInst, m_window, "Long", BACK_COL, 48, 24, 198, 336, CLICK_BUTTON_ID + 1, longClickCallback);
break;
case 2: // duo
m_fingerBMP = (HBITMAP)LoadImage(m_hInst, MAKEINTRESOURCE(IDB_BITMAP4), IMAGE_BITMAP, 0, 0, 0);
m_fingerBox.init(m_hInst, m_window, "Duo", BACK_COL, 250, 320, 86, 30, 0, 0, nullptr);
m_fingerBox.setDoCapture(false);
m_fingerBox.setDrawHLine(false);
m_fingerBox.setDrawVLine(false);
m_fingerBox.setDrawCircle(false);
m_fingerBox.setBackground(m_fingerBMP);
m_fingerBox.setEnabled(false);
m_fingerBox.setVisible(true);
m_button.init(m_hInst, m_window, "Click", BACK_COL, 48, 24, 198, 312, CLICK_BUTTON_ID, buttonClickCallback);
m_button2.init(m_hInst, m_window, "Long", BACK_COL, 48, 24, 198, 346, CLICK_BUTTON_ID + 1, longClickCallback);
break;
}
m_patternStrip.init(m_hInst, m_window, "Pattern Strip", BACK_COL, width, patternStripHeight, -2, 375, 2, PATTERN_STRIP_ID, patternStripSelectCallback);
m_patternStrip.setDrawHLine(false);
m_patternStrip.setDrawVLine(false);
m_patternStrip.setDrawCircle(false);
m_tickrateSlider.init(m_hInst, m_window, "Tickrate", BACK_COL, tickrateSliderWidth, tickrateSliderHeight, 30, 100, 1, TICKRATE_SLIDER_ID, setTickrateCallback);
m_tickrateSlider.setDrawCircle(false);
m_tickrateSlider.setDrawVLine(false);
m_tickrateSlider.setSelection(0, 30);
COLORREF *cols = new COLORREF[tickrateSliderWidth * tickrateSliderHeight];
if (!cols) {
return false;
}
// clear and re-generate the pattern strip
for (int x = 0; x < tickrateSliderWidth; ++x) {
// fill the entire column of the bitmap with this color
for (int y = 0; y < tickrateSliderHeight; ++y) {
cols[(y * tickrateSliderWidth) + x] = RGB(30, 30, 30);
}
}
// create a bitmap out of the array of colors
HBITMAP bitmap = CreateBitmap(tickrateSliderWidth, tickrateSliderHeight, 1, 32, cols);
m_tickrateSlider.setBackground(bitmap);
m_tickrateSlider.setSelection(0, 240);
Vortex::setTickrate(150);
// the generate patterns button
m_generatePats.init(m_hInst, m_window, "Make Art", BACK_COL, 80, 24,
350 + ((LED_COUNT == 28) * 150), 310, GEN_PATS_ID, generatePatsCallback);
// move the IR launch button over to the right on the orbit build
m_IRLaunchButton.init(m_hInst, m_window, "Connect IR", BACK_COL, 80, 24,
350 + ((LED_COUNT == 28) * 150), 340, LAUNCH_IR_ID, launchIRCallback);
// TODO: storage enabled tickbox?
Vortex::enableStorage(true);
//Vortex::setStorageFilename(m_storageFile);
//if (access(m_storageFile.c_str(), F_OK) == 0) {
// // load storage if the file exists
// Vortex::loadStorage();
//}
Vortex::setSleepEnabled(true);
Vortex::setLockEnabled(true);
// hardcoded switch optimizes to a single call based on engine led count
switch (LED_COUNT) {
case 28:
setupLedPositionsOrbit();
break;
case 20:
setupLedPositionsChromadeck();
break;
case 10:
setupLedPositionsGlove();
break;
case 6:
setupLedPositionsSpark();
break;
case 3:
setupLedPositionsHandle();
break;
case 2:
setupLedPositionsFinger();
break;
default:
break;
}
// create an accelerator table for dispatching hotkeys as WM_COMMANDS
// for specific menu IDs
ACCEL accelerators[] = {
// ctrl + shift + P dumps patterns
{ FCONTROL | FSHIFT | FVIRTKEY, 'p', GEN_PATS_ID },
// ctrl + shift + I open the IR connection
{ FCONTROL | FSHIFT | FVIRTKEY, 'i', LAUNCH_IR_ID },
};
m_accelTable = CreateAcceleratorTable(accelerators, sizeof(accelerators) / sizeof(accelerators[0]));
if (!m_accelTable) {
// error!
}
if (!IRSimulator::init()) {
printf("IRSim failed to init\n");
}
if (!EditorPipe::init()) {
if (!IRSimulator::isConnected()) {
printf("Pipe failed to init\n");
}
}
// launch the 'loop' thread
m_loopThread = CreateThread(NULL, 0, TestFramework::main_loop_thread, this, 0, NULL);
if (!m_loopThread) {
// error
return false;
}
m_initialized = true;
return true;
}
void TestFramework::setupLedPositionsOrbit()
{
// initialize the positions of all the leds
uint32_t base_left = 92;
uint32_t base_top = 50;
uint32_t diameter = 21;
uint32_t dx = 24;
uint32_t dy = 30;
// quadrant 1 top
for (uint32_t i = 0; i < 3; ++i) {
m_ledPos[i].left = 150 + (i * 17);
m_ledPos[i].top = 181 + (i * 17);
}
// quadrant 1 edge
m_ledPos[3].left = m_ledPos[2].left + 25;
m_ledPos[3].top = m_ledPos[2].top + 25;
// quadrant 1 bot
for (uint32_t i = 0; i < 3; ++i) {
m_ledPos[6 - i].left = 332 - (i * 17);
m_ledPos[6 - i].top = 181 + (i * 17);
}
// quadrant 2 bot
for (uint32_t i = 0; i < 3; ++i) {
m_ledPos[7 + i].left = 400 + (i * 17);
m_ledPos[7 + i].top = 181 + (i * 17);
}
// quadrant 2 top
for (uint32_t i = 0; i < 3; ++i) {
m_ledPos[13 - i].left = 82 - (i * 17);
m_ledPos[13 - i].top = 181 + (i * 17);
}
// quadrant 2 edge
m_ledPos[10].left = m_ledPos[11].left - 25;
m_ledPos[10].top = m_ledPos[11].top + 25;
// quadrant 3 top
for (uint32_t i = 0; i < 3; ++i) {
m_ledPos[i + 14].left = 82 - (i * 17);
m_ledPos[i + 14].top = 113 - (i * 17);
}
// quadrant 3 edge
m_ledPos[17].left = m_ledPos[16].left - 25;
m_ledPos[17].top = m_ledPos[16].top - 25;
// quadrant 3 bot
for (uint32_t i = 0; i < 3; ++i) {
m_ledPos[20 - i].left = 400 + (i * 17);
m_ledPos[20 - i].top = 113 - (i * 17);
}
// quadrant 4 bot
for (uint32_t i = 0; i < 3; ++i) {
m_ledPos[21 + i].left = 332 - (i * 17);
m_ledPos[21 + i].top = 113 - (i * 17);
}
// quadrant 4 top
for (uint32_t i = 0; i < 3; ++i) {
m_ledPos[27 - i].left = 150 + (i * 17);
m_ledPos[27 - i].top = 113 - (i * 17);
}
// quadrant 4 edge
m_ledPos[24].left = m_ledPos[25].left + 25;
m_ledPos[24].top = m_ledPos[25].top - 25;
for (uint32_t i = 0; i < LED_COUNT; ++i) {
m_ledPos[i].right = m_ledPos[i].left + diameter;
m_ledPos[i].bottom = m_ledPos[i].top + diameter;
}
for (uint32_t i = 0; i < LED_COUNT; ++i) {
// super lazy reposition of + 67 because I don't want to go
// adjust all the values in the above statements
m_leds[i].init(m_hInst, m_window, to_string(0),
BACK_COL, 21, 21, m_ledPos[i].left + 67, m_ledPos[i].top, LED_CIRCLE_ID + i, ledClickCallback);
}
}
void TestFramework::setupLedPositionsGlove()
{
// initialize the positions of all the leds
uint32_t base_left = 92;
uint32_t base_top = 50;
uint32_t radius = 15;
uint32_t dx = 24;
uint32_t dy = 30;
// thumb top/tip
m_ledPos[0].left = 95;
m_ledPos[0].top = 175;
m_ledPos[1].top = m_ledPos[0].top - 20;
m_ledPos[1].left = m_ledPos[0].left - 20;
// index top/tip
m_ledPos[2].left = 135;
m_ledPos[2].top = 60;
m_ledPos[3].top = m_ledPos[2].top - 30;
m_ledPos[3].left = m_ledPos[2].left - 8;
// middle top/tip
m_ledPos[4].left = 195;
m_ledPos[4].top = 40;
m_ledPos[5].top = m_ledPos[4].top - 30;
m_ledPos[5].left = m_ledPos[4].left;
// ring top/tip
m_ledPos[6].left = 254;
m_ledPos[6].top = 60;
m_ledPos[7].top = m_ledPos[6].top - 30;
m_ledPos[7].left = m_ledPos[6].left + 8;
// pinky top/tip
m_ledPos[8].left = 300;
m_ledPos[8].top = 95;
m_ledPos[9].top = m_ledPos[8].top - 22;
m_ledPos[9].left = m_ledPos[8].left + 16;
for (uint32_t i = 0; i < LED_COUNT; ++i) {
m_ledPos[i].right = m_ledPos[i].left + (radius * 2);
m_ledPos[i].bottom = m_ledPos[i].top + (radius * 2);
}
for (uint32_t i = 0; i < LED_COUNT; ++i) {
m_leds[i].init(m_hInst, m_window, to_string(0),
BACK_COL, 30, 30, m_ledPos[i].left, m_ledPos[i].top, LED_CIRCLE_ID + i, ledClickCallback);
}
}
void TestFramework::setupLedPositionsHandle()
{
// initialize the positions of all the leds
uint32_t base_left = 92;
uint32_t base_top = 50;
uint32_t radius = 18;
uint32_t dx = 24;
uint32_t dy = 30;
// thumb top/tip
m_ledPos[0].left = 165;
m_ledPos[0].top = 95;
m_ledPos[1].left = 112;
m_ledPos[1].top = 178;
m_ledPos[2].left = 186;
m_ledPos[2].top = 230;
for (uint32_t i = 0; i < LED_COUNT; ++i) {
m_ledPos[i].right = m_ledPos[i].left + (radius * 2);
m_ledPos[i].bottom = m_ledPos[i].top + (radius * 2);
}
for (uint32_t i = 0; i < LED_COUNT; ++i) {
m_leds[i].init(m_hInst, m_window, to_string(0),
BACK_COL, radius * 2, radius * 2, m_ledPos[i].left, m_ledPos[i].top, LED_CIRCLE_ID + i, ledClickCallback);
}
}
void TestFramework::setupLedPositionsFinger()
{
// initialize the positions of all the leds
uint32_t base_left = 92;
uint32_t base_top = 50;
uint32_t radius = 15;
uint32_t dx = 24;
uint32_t dy = 30;
// thumb top/tip
m_ledPos[1].left = 196;
m_ledPos[1].top = 38;
m_ledPos[0].top = m_ledPos[1].top - 20;
m_ledPos[0].left = m_ledPos[1].left;
for (uint32_t i = 0; i < LED_COUNT; ++i) {
m_ledPos[i].right = m_ledPos[i].left + (radius * 2);
m_ledPos[i].bottom = m_ledPos[i].top + (radius * 2);
}
for (uint32_t i = 0; i < LED_COUNT; ++i) {
m_leds[i].init(m_hInst, m_window, to_string(0),
BACK_COL, 30, 30, m_ledPos[i].left, m_ledPos[i].top, LED_CIRCLE_ID + i, ledClickCallback);
}
}
void TestFramework::setupLedPositionsChromadeck()
{
// initialize the positions of all the leds
uint32_t base_left = 92;
uint32_t base_top = 50;
uint32_t diameter = 21;
uint32_t radius = 140;
uint32_t dx = 24;
uint32_t dy = 30;
uint32_t centerX = 150;
uint32_t centerY = 170;
// all second points
for (uint32_t i = 0; i < LED_COUNT; ++i) {
#define M_PI (3.14159265358979323846)
#define M_2PI (2.0f * M_PI)
#define M_PI_O_2 (M_PI / 2.0f)
#define M_PI_O_4 (M_PI / 4.0f)
#define M_PI_O_8 (M_PI / 8.0f)
float angle = i * (M_2PI / (LED_COUNT / 2));
m_ledPos[i].left = centerX + radius * std::cos(angle - M_PI_O_2);
m_ledPos[i].top = centerY + radius * std::sin(angle - M_PI_O_2);
m_ledPos[i].right = m_ledPos[i].left + diameter;
m_ledPos[i].bottom = m_ledPos[i].top + diameter;
if (i == ((LED_COUNT / 2) - 1)) {
radius -= 30;
}
}
for (uint32_t i = 0; i < LED_COUNT; ++i) {
// super lazy reposition of + 67 because I don't want to go
// adjust all the values in the above statements
m_leds[i].init(m_hInst, m_window, to_string(i),
BACK_COL, 21, 21, m_ledPos[i].left + 67, m_ledPos[i].top, LED_CIRCLE_ID + i, ledClickCallback);
m_leds[i].setTooltip(to_string(i));
}
}
void TestFramework::setupLedPositionsSpark()
{
// initialize the positions of all the leds
uint32_t base_left = 92;
uint32_t base_top = 50;
uint32_t diameter = 21;
uint32_t radius = 120;
uint32_t dx = 24;
uint32_t dy = 30;
uint32_t centerX = 150;
uint32_t centerY = 150;
// all second points
for (uint32_t i = 0; i < LED_COUNT; ++i) {
#define M_PI (3.14159265358979323846)
#define M_2PI (2.0f * M_PI)
#define M_PI_O_2 (M_PI / 2.0f)
#define M_PI_O_4 (M_PI / 4.0f)
#define M_PI_O_8 (M_PI / 8.0f)
float angle = i * (M_2PI / LED_COUNT);
m_ledPos[i].left = centerX + radius * std::cos(-angle - M_PI_O_2);
m_ledPos[i].top = centerY + radius * std::sin(-angle - M_PI_O_2);
m_ledPos[i].right = m_ledPos[i].left + diameter;
m_ledPos[i].bottom = m_ledPos[i].top + diameter;
}
for (uint32_t i = 0; i < LED_COUNT; ++i) {
// super lazy reposition of + 67 because I don't want to go
// adjust all the values in the above statements
m_leds[i].init(m_hInst, m_window, to_string(i),
BACK_COL, 21, 21, m_ledPos[i].left + 67, m_ledPos[i].top, LED_CIRCLE_ID + i, ledClickCallback);
m_leds[i].setTooltip(to_string(i));
}
}
void TestFramework::cleanup()
{
// turn off the loops and unpause
m_keepGoing = false;
m_isPaused = false;
// wait for the loop to finish, 3 seconds I guess
WaitForSingleObject(m_loopThread, 3000);
}
void TestFramework::buttonClick(VButton *button, VButton::ButtonEvent type)
{
uint32_t buttonID = ((uint32_t)(uintptr_t)GetMenu(button->hwnd())) - CLICK_BUTTON_ID;
switch (type) {
case VButton::ButtonEvent::BUTTON_EVENT_CLICK:
break;
case VButton::ButtonEvent::BUTTON_EVENT_PRESS:
Vortex::pressButton(buttonID);
break;
case VButton::ButtonEvent::BUTTON_EVENT_RELEASE:
Vortex::releaseButton(buttonID);
break;
default:
break;
}
}
void TestFramework::longClick(VButton *window, uint32_t buttonIndex)
{
Vortex::longClick(buttonIndex);
}
void TestFramework::launchIR(VButton *window, VButton::ButtonEvent type)
{
if (!m_pCallbacks || type != VButton::ButtonEvent::BUTTON_EVENT_RELEASE) {
return;
}
IRSimulator::startServer();
m_IRLaunchButton.setEnabled(false);
Vortex::openModeSharing();
}
void TestFramework::genPats(VButton *window, VButton::ButtonEvent type)
{
if (type != VButton::ButtonEvent::BUTTON_EVENT_RELEASE) {
return;
}
// Generate a unique filename
string baseFilename = "patterns";
string extension = ".bmp";
string filename = baseFilename + extension;
int counter = 1;
while (ifstream(filename)) {
filename = baseFilename + to_string(counter++) + extension;
}
DWORD dwWaitResult = WaitForSingleObject(m_pauseMutex, INFINITE); // no time-out interval
if (dwWaitResult != WAIT_OBJECT_0) {
// only run the tick if we acquire the pause mutex
return;
}
bool success = generatePatternBMP(filename, 100);
ReleaseMutex(m_pauseMutex);
if (success) {
// launch the file
system(("start " + filename).c_str());
}
}
bool TestFramework::generatePatternBMP(const string &filename, uint32_t numStrips)
{
if (!Menus::checkInMenu()) {
MessageBox(NULL, "Please enter the randomizer to generate art", "Error", 0);
return false;
}
// The width of the bitmap is the same as the width of a single pattern strip
uint32_t bitmapWidth = width * patternStripExtensionMultiplier;
// The height of the bitmap is 100 times the height of a single pattern strip
uint32_t bitmapHeight = patternStripHeight * numStrips; // 100 pattern strips
// the current mode of the randomizer menu
Mode *menuMode = Vortex::getMenuDemoMode();
if (!menuMode) {
return false;
}
COLORREF *cols = new COLORREF[bitmapWidth * bitmapHeight];
if (!cols) {
return false;
}
// Clear and re-generate the pattern strip
for (uint32_t i = 0; i < numStrips; ++i) { // 100 pattern strips
// reset the mode
menuMode->init();
// Begin the time simulation so we can tick forward
Time::startSimulation();
for (uint32_t x = 0; x < bitmapWidth; ++x) {
// Run the current mode like normal
menuMode->play();
// Tick the virtual time forward so that next play()
// the engine will think a tick has passed
Time::tickSimulation();
// Sample the color for the selected LED
COLORREF col = Leds::getLed(m_curSelectedLed).raw();
// Fill the entire column of the bitmap with this color
for (uint32_t y = 0; y < patternStripHeight; ++y) {
cols[((i * patternStripHeight + y) * bitmapWidth) + x] = col;
}
}
// End the time simulation, this snaps the tickcount
// back to where it was before starting the sim
Time::endSimulation();
// force randomizer to randomize lol
((Randomizer *)Menus::curMenu())->reRoll();
}
bool rv = writeBMPtoFile(filename, bitmapWidth, bitmapHeight, cols);
delete[] cols;
return rv;
}
// func to write bitmap to file
bool TestFramework::writeBMPtoFile(const string &filename, uint32_t bitmapWidth, uint32_t bitmapHeight, COLORREF *cols)
{
// Create a bitmap out of the array of colors
HBITMAP bitmap = CreateBitmap(bitmapWidth, bitmapHeight, 1, 32, cols);
if (!bitmap) {
return false;
}
BITMAPFILEHEADER fileHeader;
BITMAPINFOHEADER infoHeader;
// Configure the headers
fileHeader.bfType = 0x4D42; // BM
fileHeader.bfSize = sizeof(BITMAPFILEHEADER) + sizeof(BITMAPINFOHEADER) + bitmapWidth * bitmapHeight * 4;
fileHeader.bfOffBits = sizeof(BITMAPFILEHEADER) + sizeof(BITMAPINFOHEADER);
infoHeader.biSize = sizeof(BITMAPINFOHEADER);
infoHeader.biWidth = bitmapWidth;
infoHeader.biHeight = bitmapHeight;
infoHeader.biPlanes = 1;
infoHeader.biBitCount = 32; // Assuming the bitmap is 32-bit
infoHeader.biCompression = BI_RGB;
infoHeader.biSizeImage = bitmapWidth * bitmapHeight * 4;
infoHeader.biXPelsPerMeter = 0;
infoHeader.biYPelsPerMeter = 0;
infoHeader.biClrUsed = 0;
infoHeader.biClrImportant = 0;
// Open the file
ofstream bmpFile(filename, ios::out | ios::binary);
if (!bmpFile) {
cerr << "Could not open the .bmp file." << endl;
return false;
}
// Write the headers
bmpFile.write(reinterpret_cast<char *>(&fileHeader), sizeof(fileHeader));
bmpFile.write(reinterpret_cast<char *>(&infoHeader), sizeof(infoHeader));
// Get the device context
HDC hdc = GetDC(NULL);
// Prepare the structure for GetDIBits
BITMAPINFO bmi;
ZeroMemory(&bmi, sizeof(BITMAPINFO));
bmi.bmiHeader = infoHeader;
// Use GetDIBits to retrieve the bitmap data
BYTE *pPixels = new BYTE[bitmapWidth * bitmapHeight * 4];
GetDIBits(hdc, bitmap, 0, bitmapHeight, pPixels, &bmi, DIB_RGB_COLORS);
// Write the bitmap data
bmpFile.write(reinterpret_cast<char *>(pPixels), bitmapWidth * bitmapHeight * 4);
// Clean up
delete[] pPixels;
ReleaseDC(NULL, hdc);
bmpFile.close();
return true;
}
void TestFramework::patternStripSelect(uint32_t x, uint32_t y, VSelectBox::SelectEvent sevent)
{
// can't drag it yet
}
void TestFramework::ledClick(VWindow *window)
{
uint32_t led;
if (LED_COUNT == 10) {
// the glove leds are reverse order
led = LED_LAST - ((uint32_t)(uintptr_t)GetMenu(window->hwnd()) - LED_CIRCLE_ID);
} else {
led = ((uint32_t)(uintptr_t)GetMenu(window->hwnd()) - LED_CIRCLE_ID);
}
printf("Clicked led %u\n", led);
m_curSelectedLed = (LedPos)led;
handlePatternChange(true);
}
void TestFramework::setTickrate(uint32_t x, uint32_t y, VSelectBox::SelectEvent sevent)
{
// tickrate is up to 1000 but it needs to be flipped because y+ is down
m_tickrate = 1000 - (uint32_t)((float)y / tickrateSliderHeight * 1000.0);
}
void TestFramework::run()
{
// main message loop
MSG msg;
while (GetMessage(&msg, NULL, 0, 0)) {
if (GetForegroundWindow() == m_window.hwnd()) {
if (TranslateAccelerator(m_window.hwnd(), m_accelTable, &msg)) {
continue;
}
}
// pass message to main window otherwise process it
if (!m_window.process(msg)) {
TranslateMessage(&msg);
DispatchMessage(&msg);
}
}
}
void TestFramework::installLeds(CRGB *leds, uint32_t count)
{
m_ledList = (RGBColor *)leds;
m_numLeds = count;
m_lastLedColor = new RGBColor[count];
if (!m_lastLedColor) {
return;
}
}
void TestFramework::setBrightness(int brightness)
{
m_brightness = brightness;
}
// when the glove framework calls 'FastLED.show'
void TestFramework::show()
{
if (!m_initialized || !m_ledList || Time::isSimulation()) {
return;
}
// update the colors with the colors in the led list
for (LedPos i = LED_FIRST; i < LED_COUNT; ++i) {
uint32_t raw = m_ledList[i].raw();
if (m_leds[i].getColor() != raw) {
m_leds[i].setColor(raw);
}
}
}
bool TestFramework::handlePatternChange(bool force)
{
if (!VortexEngine::curMode()) {
return false;
}
// don't want to create a callback mechanism just for the test framework to be
// notified of pattern changes, I'll just watch the patternID each tick
Mode *targetMode = VortexEngine::curMode();
if (!targetMode) {
return false;
}
// this causes lag in editor when the tickrate is low
// TODO: Find a way to detach this
Mode *menuMode = Vortex::getMenuDemoMode();
if (menuMode) {
targetMode = menuMode;
}
// check to see if the mode changed
if (!force && m_curMode.equals(targetMode)) {
return false;
}
m_patternStrip.setBackgroundOffset(0, 0);
// update current mode
m_curMode = *targetMode;
m_curMode.init();
// backup the led colors
RGBColor backupCols[LED_COUNT];
memcpy(backupCols, m_ledList, sizeof(RGBColor) * LED_COUNT);
// begin the time simulation so we can tick forward
Time::startSimulation();
// the actual strip is twice the width of the window to allow scrolling
uint32_t patternStripWidth = width * patternStripExtensionMultiplier;
COLORREF *cols = new COLORREF[patternStripWidth * patternStripHeight];
if (!cols) {
return false;
}
// clear and re-generate the pattern strip
for (uint32_t x = 0; x < patternStripWidth; ++x) {
// run the current mode like normal
m_curMode.play();
// tick the virtual time forward so that next play()
// the engine will think a tick has passed
Time::tickSimulation();
// sample the color for the selected LED
COLORREF col = Leds::getLed(m_curSelectedLed).raw();
// fill the entire column of the bitmap with this color
for (uint32_t y = 0; y < patternStripHeight; ++y) {
cols[(y * patternStripWidth) + x] = col;
}
}
// create a bitmap out of the array of colors
HBITMAP bitmap = CreateBitmap(patternStripWidth, patternStripHeight, 1, 32, cols);
delete[] cols;
// end the time simulation, this snaps the tickcount
// back to where it was before starting the sim
Time::endSimulation();
// restore original color on the target led
memcpy(m_ledList, backupCols, sizeof(RGBColor) * LED_COUNT);
// redraw this led because it was written to generate pattern strip
m_leds[m_curSelectedLed].redraw();
// update the background of the pattern strip
m_patternStrip.setBackground(bitmap);
m_patternStrip.redraw();
return true;
}
HBRUSH TestFramework::getBrushCol(RGBColor rgbcol)
{
HBRUSH br;
COLORREF col = RGB(rgbcol.red, rgbcol.green, rgbcol.blue);
if (m_brushmap.find(col) == m_brushmap.end()) {
br = CreateSolidBrush(col);
m_brushmap[col] = br;
}
br = m_brushmap[col];
return br;
}
DWORD __stdcall TestFramework::main_loop_thread(void *arg)
{
TestFramework *framework = (TestFramework *)arg;
// init the vortex engine
framework->m_pCallbacks = Vortex::initEx<TestFrameworkCallbacks>();
if (!framework->m_pCallbacks) {
// failed to init, error
return 0;
}
if (IRSimulator::isConnected()) {
framework->m_IRLaunchButton.setEnabled(false);
Vortex::openModeSharing();
}
// init tickrate and time offset to match the sliders
while (framework->m_initialized && framework->m_keepGoing) {
DWORD dwWaitResult = WaitForSingleObject(framework->m_pauseMutex, INFINITE); // no time-out interval
if (dwWaitResult != WAIT_OBJECT_0) {
// only run the tick if we acquire the pause mutex
continue;
}
// run the tick
Vortex::tick();
// backup the colors
if (framework->m_lastLedColor && framework->m_ledList) {
memcpy(framework->m_lastLedColor, framework->m_ledList, sizeof(RGBColor) * LED_COUNT);
}
// handle any tickrate changes
uint32_t newTickrate = framework->m_tickrate > 10 ? framework->m_tickrate : 10;
if (newTickrate != Vortex::getTickrate()) {
Vortex::setTickrate(newTickrate);
}
// scroll the background a little
if (newTickrate > 10 && !Vortex::isSleeping()) {
framework->m_patternStrip.addBackgroundOffset(1, 0, patternStripExtensionMultiplier - 1);
}
// if pattern changes we need to reload the pattern strip
framework->handlePatternChange();
ReleaseMutex(framework->m_pauseMutex);
}
// cleanup
Vortex::cleanup();
return 0;
}
string TestFramework::getWindowTitle()
{
char text[2048] = {0};
GetWindowText(m_window.hwnd(), text, sizeof(text));
return text;
}
void TestFramework::setWindowTitle(string title)
{
SetWindowTextA(m_window.hwnd(), title.c_str());
}
void TestFramework::setWindowPos(uint32_t x, uint32_t y)
{
RECT pos;
GetWindowRect(m_window.hwnd(), &pos);
SetWindowPos(m_window.hwnd(), NULL, x, y, pos.right - pos.left, pos.bottom - pos.top, 0);
}
// ========================================================
// Test Framework Engine Callbacks
// called when engine reads digital pins, use this to feed button presses to the engine
long TestFramework::TestFrameworkCallbacks::checkPinHook(uint32_t pin)
{
if (pin == 5) {
// chromadeck button L
return Vortex::isButtonPressed(0) ? 0 : 1;
}
if (pin == 6) {
// chromadeck button M
return Vortex::isButtonPressed(1) ? 0 : 1;
}
if (pin == 7) {
// chromadeck button R
return Vortex::isButtonPressed(2) ? 0 : 1;
}
if (pin == 20) {
// orbit button 2
return Vortex::isButtonPressed(1) ? 0 : 1;
}
return Vortex::isButtonPressed(0) ? 0 : 1;
#if 0
// old code, this filtered by the LED_COUNT of the engine to avoid
// pin collisions where one engine is using a pin that another engine
// is using for it's main button... But that isn't an issue so better
// to filter on pin number so that the button always work
switch (LED_COUNT) {
case 28: // orbit
if (pin == 19 && Vortex::isButtonPressed(0)) {
return 0;
}
if (pin == 20 && Vortex::isButtonPressed(1)) {
return 0;
}
break;
case 10: // glove
case 3: // handle
if (pin == 1 && Vortex::isButtonPressed()) {