Part Number: DLP3010EVM-LC
Other Parts Discussed in Thread: DLPDLC-GUI, DLP3010, DLPC-API
When I use DLPDLC-GUI to switch the splash image to another one, it works well. However, the image will have some problems (image overlap) , if I use DLPC-API-1.7 to switch the splash image.
The right image (GUI) and problem image (API) are shown below
and my program is
void main()
{
InitConnectionAndCommandLayer();
bool Status = CYPRESS_I2C_RequestI2CBusAccess();
if (Status != true)
{
printf("Error Request I2C Bus ACCESS!!!");
return;
}
DLPC34XX_DUAL_WriteRgbLedCurrent(0x78, 0x78, 0x78);
DLPC34XX_DUAL_WriteInputImageSize(DLP3010_WIDTH, DLP3010_HEIGHT);
DLPC34XX_DUAL_WriteDisplaySize(DLP3010_WIDTH, DLP3010_HEIGHT);
DLPC34XX_DUAL_WriteSplashScreenSelect(0x02);
DLPC34XX_DUAL_WriteSplashScreenExecute();
WaitForSeconds(3);
CYPRESS_I2C_RelinquishI2CBusAccess();
}
program file is below
/*------------------------------------------------------------------------------
* Copyright (c) 2019 Texas Instruments Incorporated - http://www.ti.com/
*------------------------------------------------------------------------------
*
* Redistribution and use in source and binary forms, with or without
* modification, are permitted provided that the following conditions
* are met:
*
* Redistributions of source code must retain the above copyright
* Redistributions of source code must retain the above copyright
* notice, this list of conditions and the following disclaimer.
*
* Redistributions in binary form must reproduce the above copyright
* notice, this list of conditions and the following disclaimer in the
* documentation and/or other materials provided with the
* distribution.
*
* Neither the name of Texas Instruments Incorporated nor the names of
* its contributors may be used to endorse or promote products derived
* from this software without specific prior written permission.
*
* THIS SOFTWARE IS PROVIDED BY THE COPYRIGHT HOLDERS AND CONTRIBUTORS
* "AS IS" AND ANY EXPRESS OR IMPLIED WARRANTIES, INCLUDING, BUT NOT
* LIMITED TO, THE IMPLIED WARRANTIES OF MERCHANTABILITY AND FITNESS FOR
* A PARTICULAR PURPOSE ARE DISCLAIMED. IN NO EVENT SHALL THE COPYRIGHT
* OWNER OR CONTRIBUTORS BE LIABLE FOR ANY DIRECT, INDIRECT, INCIDENTAL,
* SPECIAL, EXEMPLARY, OR CONSEQUENTIAL DAMAGES (INCLUDING, BUT NOT
* LIMITED TO, PROCUREMENT OF SUBSTITUTE GOODS OR SERVICES; LOSS OF USE,
* DATA, OR PROFITS; OR BUSINESS INTERRUPTION) HOWEVER CAUSED AND ON ANY
* THEORY OF LIABILITY, WHETHER IN CONTRACT, STRICT LIABILITY, OR TORT
* (INCLUDING NEGLIGENCE OR OTHERWISE) ARISING IN ANY WAY OUT OF THE USE
* OF THIS SOFTWARE, EVEN IF ADVISED OF THE POSSIBILITY OF SUCH DAMAGE.
*/
/**
* \file
* \brief Sample code for generating internal pattern data and communicating
* with the DLPC4710-LC EVMs.
*/
#include "dlpc_common.h"
#include "dlpc34xx_dual.h"
#include "dlpc347x_internal_patterns.h"
#include "cypress_i2c.h"
#include "stdio.h"
#include "math.h"
#include "time.h"
#define MAX_WIDTH DLP3010_WIDTH
#define MAX_HEIGHT DLP3010_HEIGHT
#define NUM_PATTERN_SETS 4
#define NUM_PATTERN_ORDER_TABLE_ENTRIES 4
#define NUM_ONE_BIT_HORIZONTAL_PATTERNS 4
#define NUM_EIGHT_BIT_HORIZONTAL_PATTERNS 4
#define NUM_ONE_BIT_VERTICAL_PATTERNS 4
#define NUM_EIGHT_BIT_VERTICAL_PATTERNS 4
#define TOTAL_HORIZONTAL_PATTERNS (NUM_ONE_BIT_HORIZONTAL_PATTERNS + NUM_EIGHT_BIT_HORIZONTAL_PATTERNS)
#define TOTAL_VERTICAL_PATTERNS (NUM_ONE_BIT_VERTICAL_PATTERNS + NUM_EIGHT_BIT_VERTICAL_PATTERNS)
#define FLASH_WRITE_BLOCK_SIZE 1024
#define FLASH_READ_BLOCK_SIZE 256
#define MAX_WRITE_CMD_PAYLOAD (FLASH_WRITE_BLOCK_SIZE + 8)
#define MAX_READ_CMD_PAYLOAD (FLASH_READ_BLOCK_SIZE + 8)
static uint8_t s_HorizontalPatternData[TOTAL_HORIZONTAL_PATTERNS][MAX_HEIGHT];
static uint8_t s_VerticalPatternData[TOTAL_VERTICAL_PATTERNS][MAX_WIDTH];
static DLPC34XX_INT_PAT_PatternData_s s_Patterns[TOTAL_HORIZONTAL_PATTERNS + TOTAL_VERTICAL_PATTERNS];
static DLPC34XX_INT_PAT_PatternSet_s s_PatternSets[NUM_PATTERN_SETS];
static DLPC34XX_INT_PAT_PatternOrderTableEntry_s s_PatternOrderTable[NUM_PATTERN_ORDER_TABLE_ENTRIES];
static uint8_t s_WriteBuffer[MAX_WRITE_CMD_PAYLOAD];
static uint8_t s_ReadBuffer[MAX_READ_CMD_PAYLOAD];
static bool s_StartProgramming;
static uint8_t s_FlashProgramBuffer[FLASH_WRITE_BLOCK_SIZE];
static uint16_t s_FlashProgramBufferPtr;
static FILE* s_FilePointer;
/**
* Implement the I2C write transaction here. The sample code here sends
* data to the controller via the Cypress USB-Serial adapter.
*/
uint32_t WriteI2C(uint16_t WriteDataLength,
uint8_t* WriteData,
DLPC_COMMON_CommandProtocolData_s* ProtocolData)
{
bool Status = true;
Status = CYPRESS_I2C_WriteI2C(WriteDataLength, WriteData);
if (Status != true)
{
//printf("Write I2C Error!!! \n");
return FAIL;
}
return SUCCESS;
}
/**
* Implement the I2C write/read transaction here. The sample code here
* receives data from the controller via the Cypress USB-Serial adapter.
*/
uint32_t ReadI2C(uint16_t WriteDataLength,
uint8_t* WriteData,
uint16_t ReadDataLength,
uint8_t* ReadData,
DLPC_COMMON_CommandProtocolData_s* ProtocolData)
{
bool Status = 0;
Status = CYPRESS_I2C_WriteI2C(WriteDataLength, WriteData);
if (Status != true)
{
//printf("Write I2C Error!!! \n");
return FAIL;
}
Status = CYPRESS_I2C_ReadI2C(ReadDataLength, ReadData);
if (Status != true)
{
//printf("Read I2C Error!!! \n");
return FAIL;
}
return SUCCESS;
}
/**
* Initialize the command layer by setting up the read/write buffers and
* callbacks.
*/
void InitConnectionAndCommandLayer()
{
DLPC_COMMON_InitCommandLibrary(s_WriteBuffer,
sizeof(s_WriteBuffer),
s_ReadBuffer,
sizeof(s_ReadBuffer),
WriteI2C,
ReadI2C);
CYPRESS_I2C_ConnectToCyI2C();
}
void WaitForSeconds(uint32_t Seconds)
{
uint32_t retTime = (uint32_t)(time(0)) + Seconds; // Get finishing time.
while (time(0) < retTime); // Loop until it arrives.
}
/**
* A sample function that generates a 1-bit (binary) 1-D pattern
* The function fills the byte array Data. Each byte in the in array corresponds
* to a pixel. For a 1-bit pattern the value of each byte should be 1 or 0.
*/
void PopulateOneBitPatternData(uint16_t Length, uint8_t* Data, uint16_t NumBars)
{
uint16_t PixelPos = 0;
uint16_t BarPos = 0;
uint16_t BarWidth = Length / NumBars;
uint8_t PixelData = 0;
for (; PixelPos < Length; PixelPos++)
{
Data[PixelPos] = PixelData;
BarPos++;
if (BarPos >= BarWidth)
{
BarPos = 0;
PixelData = (PixelData == 0 ? 1 : 0);
}
}
}
/**
* A sample function that generates an 8-bit (gray scale) 1-D pattern
* The function fills the byte array Data. Each byte in the in array corresponds
* to a pixel. For an 8-bit pattern the value of each byte can be 0 - 255.
*/
void PopulateEightBitPatternData(uint16_t Length, uint8_t* Data, uint16_t NumBars)
{
uint16_t PixelPos = 0;
uint16_t BarPos = 0;
uint16_t BarWidth = Length / (2 * NumBars);
uint8_t PixelData = 0;
int16_t PixelDataInc = (int16_t)ceil(255.0 / BarWidth);
for (; PixelPos < Length; PixelPos++)
{
Data[PixelPos] = PixelData;
BarPos++;
if (BarPos >= BarWidth)
{
BarPos = 0;
PixelDataInc = -PixelDataInc;
}
PixelData = (uint8_t)(PixelData + PixelDataInc);
}
}
/**
* Populates an array of DLPC34XX_INT_PAT_PatternSet_s
*/
void PopulatePatternSetData(uint16_t DMDWidth, uint16_t DMDHeight)
{
uint8_t HorzPatternIdx = 0;
uint8_t VertPatternIdx = 0;
uint8_t PatternIdx = 0;
uint8_t PatternSetIdx = 0;
uint8_t Index;
uint16_t NumBars;
DLPC34XX_INT_PAT_PatternSet_s* PatternSet;
/* Create a 1-bit (binary) Horizontal Pattern Set */
PatternSet = &s_PatternSets[PatternSetIdx++];
PatternSet->BitDepth = DLPC34XX_INT_PAT_BITDEPTH_ONE;
PatternSet->Direction = DLPC34XX_INT_PAT_DIRECTION_HORIZONTAL;
PatternSet->PatternCount = NUM_ONE_BIT_HORIZONTAL_PATTERNS;
PatternSet->PatternArray = &s_Patterns[PatternIdx];
for (Index = 0; Index < NUM_ONE_BIT_HORIZONTAL_PATTERNS; Index++)
{
NumBars = 2 * (Index + 1);
PopulateOneBitPatternData(DMDHeight, s_HorizontalPatternData[HorzPatternIdx], NumBars);
s_Patterns[PatternIdx].PixelArray = s_HorizontalPatternData[HorzPatternIdx];
s_Patterns[PatternIdx].PixelArrayCount = DMDHeight;
PatternIdx++;
HorzPatternIdx++;
}
/* Create a 1-bit (binary) Vertical Pattern Set */
PatternSet = &s_PatternSets[PatternSetIdx++];
PatternSet->BitDepth = DLPC34XX_INT_PAT_BITDEPTH_ONE;
PatternSet->Direction = DLPC34XX_INT_PAT_DIRECTION_VERTICAL;
PatternSet->PatternCount = NUM_ONE_BIT_VERTICAL_PATTERNS;
PatternSet->PatternArray = &s_Patterns[PatternIdx];
for (Index = 0; Index < NUM_ONE_BIT_VERTICAL_PATTERNS; Index++)
{
NumBars = 2 * (Index + 1);
PopulateOneBitPatternData(DMDWidth, s_VerticalPatternData[VertPatternIdx], NumBars);
s_Patterns[PatternIdx].PixelArray = s_VerticalPatternData[VertPatternIdx];
s_Patterns[PatternIdx].PixelArrayCount = DMDWidth;
PatternIdx++;
VertPatternIdx++;
}
/* Create an 8-bit (grayscale) Horizontal Pattern Set */
PatternSet = &s_PatternSets[PatternSetIdx++];
PatternSet->BitDepth = DLPC34XX_INT_PAT_BITDEPTH_EIGHT;
PatternSet->Direction = DLPC34XX_INT_PAT_DIRECTION_HORIZONTAL;
PatternSet->PatternCount = NUM_EIGHT_BIT_HORIZONTAL_PATTERNS;
PatternSet->PatternArray = &s_Patterns[PatternIdx];
for (Index = 0; Index < NUM_EIGHT_BIT_HORIZONTAL_PATTERNS; Index++)
{
NumBars = 2 * (Index + 1);
PopulateEightBitPatternData(DMDHeight, s_HorizontalPatternData[HorzPatternIdx], NumBars);
s_Patterns[PatternIdx].PixelArray = s_HorizontalPatternData[HorzPatternIdx];
s_Patterns[PatternIdx].PixelArrayCount = DMDHeight;
PatternIdx++;
HorzPatternIdx++;
}
/* Create an 8-bit (grayscale) Vertical Pattern Set */
PatternSet = &s_PatternSets[PatternSetIdx++];
PatternSet->BitDepth = DLPC34XX_INT_PAT_BITDEPTH_EIGHT;
PatternSet->Direction = DLPC34XX_INT_PAT_DIRECTION_VERTICAL;
PatternSet->PatternCount = NUM_EIGHT_BIT_VERTICAL_PATTERNS;
PatternSet->PatternArray = &s_Patterns[PatternIdx];
for (Index = 0; Index < NUM_EIGHT_BIT_VERTICAL_PATTERNS; Index++)
{
NumBars = 2 * (Index + 1);
PopulateEightBitPatternData(DMDWidth, s_VerticalPatternData[VertPatternIdx], NumBars);
s_Patterns[PatternIdx].PixelArray = s_VerticalPatternData[VertPatternIdx];
s_Patterns[PatternIdx].PixelArrayCount = DMDWidth;
PatternIdx++;
VertPatternIdx++;
}
}
/**
* Populates an array of DLPC34XX_INT_PAT_PatternOrderTableEntry_s
*/
void PopulatePatternTableData()
{
DLPC34XX_INT_PAT_PatternOrderTableEntry_s* PatternOrderTableEntry;
uint32_t PatternOrderTableIdx = 0;
uint32_t PatternSetIdx = 0;
/* Pattern Table Entry 0 - uses Pattern Set 0 */
PatternOrderTableEntry = &s_PatternOrderTable[PatternOrderTableIdx++];
PatternOrderTableEntry->PatternSetIndex = PatternSetIdx;
PatternOrderTableEntry->NumDisplayPatterns = s_PatternSets[PatternSetIdx++].PatternCount;
PatternOrderTableEntry->IlluminationSelect = DLPC34XX_INT_PAT_ILLUMINATION_RED;
PatternOrderTableEntry->InvertPatterns = false;
PatternOrderTableEntry->IlluminationTimeInMicroseconds = 5000;
PatternOrderTableEntry->PreIlluminationDarkTimeInMicroseconds = 250;
PatternOrderTableEntry->PostIlluminationDarkTimeInMicroseconds = 1000;
/* Pattern Table Entry 1 - uses Pattern Set 1 */
PatternOrderTableEntry = &s_PatternOrderTable[PatternOrderTableIdx++];
PatternOrderTableEntry->PatternSetIndex = PatternSetIdx;
PatternOrderTableEntry->NumDisplayPatterns = s_PatternSets[PatternSetIdx++].PatternCount;
PatternOrderTableEntry->IlluminationSelect = DLPC34XX_INT_PAT_ILLUMINATION_GREEN;
PatternOrderTableEntry->InvertPatterns = false;
PatternOrderTableEntry->IlluminationTimeInMicroseconds = 5000;
PatternOrderTableEntry->PreIlluminationDarkTimeInMicroseconds = 250;
PatternOrderTableEntry->PostIlluminationDarkTimeInMicroseconds = 1000;
/* Pattern Table Entry 2 - uses Pattern Set 2 */
PatternOrderTableEntry = &s_PatternOrderTable[PatternOrderTableIdx++];
PatternOrderTableEntry->PatternSetIndex = PatternSetIdx;
PatternOrderTableEntry->NumDisplayPatterns = s_PatternSets[PatternSetIdx++].PatternCount;
PatternOrderTableEntry->IlluminationSelect = DLPC34XX_INT_PAT_ILLUMINATION_BLUE;
PatternOrderTableEntry->InvertPatterns = false;
PatternOrderTableEntry->IlluminationTimeInMicroseconds = 5000;
PatternOrderTableEntry->PreIlluminationDarkTimeInMicroseconds = 250;
PatternOrderTableEntry->PostIlluminationDarkTimeInMicroseconds = 1000;
/* Pattern Table Entry 3 - uses Pattern Set 3 */
PatternOrderTableEntry = &s_PatternOrderTable[PatternOrderTableIdx++];
PatternOrderTableEntry->PatternSetIndex = PatternSetIdx;
PatternOrderTableEntry->NumDisplayPatterns = s_PatternSets[PatternSetIdx++].PatternCount;
PatternOrderTableEntry->IlluminationSelect = DLPC34XX_INT_PAT_ILLUMINATION_RGB;
PatternOrderTableEntry->InvertPatterns = false;
PatternOrderTableEntry->IlluminationTimeInMicroseconds = 11000;
PatternOrderTableEntry->PreIlluminationDarkTimeInMicroseconds = 250;
PatternOrderTableEntry->PostIlluminationDarkTimeInMicroseconds = 1000;
}
void CopyDataToFlashProgramBuffer(uint8_t* Length, uint8_t** DataPtr)
{
while ((*Length >= 1) &&
(s_FlashProgramBufferPtr < sizeof(s_FlashProgramBuffer)))
{
s_FlashProgramBuffer[s_FlashProgramBufferPtr] = **DataPtr;
s_FlashProgramBufferPtr++;
(*DataPtr)++;
(*Length)--;
}
}
void ProgramFlashWithDataInBuffer(uint16_t Length)
{
s_FlashProgramBufferPtr = 0;
if (s_StartProgramming)
{
s_StartProgramming = false;
DLPC34XX_DUAL_WriteFlashStart(Length, s_FlashProgramBuffer);
}
else
{
DLPC34XX_DUAL_WriteFlashContinue(Length, s_FlashProgramBuffer);
}
}
void WriteDataToFile(uint8_t Length, uint8_t* Data)
{
fwrite(Data, 1, Length, s_FilePointer);
}
void GenerateAndWritePatternDataToFile(DLPC34XX_INT_PAT_DMD_e DMD, char* FilePath)
{
s_FilePointer = fopen(FilePath, "wb");
/* Generate pattern data and write it to the flash.
* The DLPC34XX_INT_PAT_GeneratePatternDataBlock() function will call the
* WriteDataToFile() function several times while it packs sections of the
* pattern data.
*/
DLPC34XX_INT_PAT_GeneratePatternDataBlock(DMD,
NUM_PATTERN_SETS,
s_PatternSets,
NUM_PATTERN_ORDER_TABLE_ENTRIES,
s_PatternOrderTable,
WriteDataToFile);
fclose(s_FilePointer);
}
void BufferPatternDataAndProgramToFlash(uint8_t Length, uint8_t* Data)
{
/* Copy data that can fit in the flash programming buffer */
CopyDataToFlashProgramBuffer(&Length, &Data);
/* Write data to flash if the buffer is full */
if (s_FlashProgramBufferPtr >= sizeof(s_FlashProgramBuffer))
{
ProgramFlashWithDataInBuffer((uint16_t)sizeof(s_FlashProgramBuffer));
}
/* Copy remaining data (if any) to the flash programming buffer */
CopyDataToFlashProgramBuffer(&Length, &Data);
}
void GenerateAndProgramPatternData(DLPC34XX_INT_PAT_DMD_e DMD)
{
s_StartProgramming = true;
s_FlashProgramBufferPtr = 0;
/* Let the controller know that we're going to program pattern data */
DLPC34XX_DUAL_WriteFlashDataTypeSelect(DLPC34XX_DUAL_FDTS_ENTIRE_SENS_PATTERN_DATA);
/* Erase the flash sectors that store pattern data */
DLPC34XX_DUAL_WriteFlashErase();
/* Read Short Status to make sure Erase is completed */
DLPC34XX_DUAL_ShortStatus_s ShortStatus;
do
{
DLPC34XX_DUAL_ReadShortStatus(&ShortStatus);
} while (ShortStatus.FlashEraseComplete == DLPC34XX_DUAL_FE_NOT_COMPLETE);
/* To program the flash, send blocks of data of up to 1024 bytes
* to the controller at a time. Repeat the process until the entire
* data is programmed to the flash.
* Let the controller know the size of a data block that will be
* transferred at a time.
*/
DLPC34XX_DUAL_WriteFlashDataLength(sizeof(s_FlashProgramBuffer));
/* Generate pattern data and program it to the flash.
*
* The DLPC34XX_INT_PAT_GeneratePatternDataBlock() function calls the
* BufferPatternDataAndProgramToFlash() function several times while it
* generates pattern data.
*
* The BufferPatternDataAndProgramToFlash() function buffers data received,
* programming the buffer content only when it is full. This is done in an
* effort to make flash writes more efficient, overall greatly reducing the
* time it takes to program the pattern data.
*
* After returning from the DLPC34XX_INT_PAT_GeneratePatternBlock() function,
* check if there is any data left in the buffer and program it. This needs
* to be done since the BufferPatternDataAndProgramToFlash() function only
* programs the buffer content if full.
*/
DLPC34XX_INT_PAT_GeneratePatternDataBlock(DMD,
NUM_PATTERN_SETS,
s_PatternSets,
NUM_PATTERN_ORDER_TABLE_ENTRIES,
s_PatternOrderTable,
BufferPatternDataAndProgramToFlash);
if (s_FlashProgramBufferPtr > 0)
{
/* Resend the block size since it could be less than
* the previously specified size
*/
DLPC34XX_DUAL_WriteFlashDataLength(s_FlashProgramBufferPtr);
ProgramFlashWithDataInBuffer(s_FlashProgramBufferPtr);
}
}
void LoadPatternOrderTableEntryfromFlash()
{
DLPC34XX_DUAL_PatternOrderTableEntry_s PatternOrderTableEntry;
/* Reload from Flash */
DLPC34XX_DUAL_WritePatternOrderTableEntry(DLPC34XX_DUAL_WC_RELOAD_FROM_FLASH, &PatternOrderTableEntry);
}
void LoadPatternOrderTableEntry(uint8_t PatternSetIndex)
{
DLPC34XX_DUAL_PatternOrderTableEntry_s PatternOrderTableEntry;
/* Set PatternOrderTableEntry to select specific Pattern Set and configure settings */
PatternOrderTableEntry.PatSetIndex = 1;
PatternOrderTableEntry.NumberOfPatternsToDisplay = PatternSetIndex;
PatternOrderTableEntry.RedIlluminator = DLPC34XX_DUAL_IE_DISABLE;
PatternOrderTableEntry.GreenIlluminator = DLPC34XX_DUAL_IE_DISABLE;
PatternOrderTableEntry.BlueIlluminator = DLPC34XX_DUAL_IE_ENABLE;
PatternOrderTableEntry.PatternInvertLsword = 0;
PatternOrderTableEntry.PatternInvertMsword = 0;
PatternOrderTableEntry.IlluminationTime = 2000;
PatternOrderTableEntry.PreIlluminationDarkTime = 250;
PatternOrderTableEntry.PostIlluminationDarkTime = 60;
DLPC34XX_DUAL_WritePatternOrderTableEntry(DLPC34XX_DUAL_WC_START, &PatternOrderTableEntry);
}
void WriteTestPatternGridLines()
{
/* Write Input Image Size */
DLPC34XX_DUAL_WriteInputImageSize(DLP3010_WIDTH, DLP3010_HEIGHT);
/* Write Display Size */
DLPC34XX_DUAL_WriteDisplaySize(DLP3010_WIDTH, DLP3010_HEIGHT);
/* Write Grid Lines */
DLPC34XX_DUAL_GridLines_s GridLines;
GridLines.Border = DLPC34XX_DUAL_BE_ENABLE;
GridLines.BackgroundColor = DLPC34XX_DUAL_C_WHITE;
GridLines.ForegroundColor = DLPC34XX_DUAL_C_RED;
GridLines.HorizontalForegroundLineWidth = 0xF;
GridLines.HorizontalBackgroundLineWidth = 0xF;
GridLines.VerticalForegroundLineWidth = 0x1;
GridLines.VerticalBackgroundLineWidth = 0x1;
DLPC34XX_DUAL_WriteGridLines(&GridLines);
DLPC34XX_DUAL_WriteOperatingModeSelect(DLPC34XX_DUAL_OM_TEST_PATTERN_GENERATOR);
WaitForSeconds(5);
}
void WriteTestPatternChessboard()
{
/* Write Input Image Size */
DLPC34XX_DUAL_WriteInputImageSize(DLP3010_WIDTH, DLP3010_HEIGHT);
/* Write Display Size */
DLPC34XX_DUAL_WriteDisplaySize(DLP3010_WIDTH, DLP3010_HEIGHT);
/* Write Chessboard */
DLPC34XX_DUAL_Checkerboard_s Chessboard;
Chessboard.Border = DLPC34XX_DUAL_BE_ENABLE;
Chessboard.BackgroundColor = DLPC34XX_DUAL_C_WHITE;
Chessboard.ForegroundColor = DLPC34XX_DUAL_C_RED;
Chessboard.HorizontalCheckerCount = 0xF;
Chessboard.VerticalCheckerCount = 0xF;
DLPC34XX_DUAL_WriteCheckerboard(&Chessboard);
DLPC34XX_DUAL_WriteOperatingModeSelect(DLPC34XX_DUAL_OM_TEST_PATTERN_GENERATOR);
WaitForSeconds(5);
}
void WriteLookSelect(uint8_t LookNumber)
{
/* Read Current Operating Mode Selected */
DLPC34XX_DUAL_OperatingMode_e OperatingMode;
DLPC34XX_DUAL_ReadOperatingModeSelect(&OperatingMode);
/* Write RGB LED Current (based on Flash data) */
DLPC34XX_DUAL_WriteRgbLedCurrent(0x03E8, 0x03E8, 0x03E8);
/* Select Look */
DLPC34XX_DUAL_WriteLookSelect(LookNumber);
/* Submit Write Splash Screen Execute if in Splash Mode */
if ((OperatingMode == DLPC34XX_DUAL_OM_SPLASH_SCREEN ) ||
(OperatingMode == DLPC34XX_DUAL_OM_SENS_SPLASH_PATTERN))
{
DLPC34XX_DUAL_WriteSplashScreenExecute();
WaitForSeconds(5);
}
WaitForSeconds(5);
}
void LoadPreBuildPatternData()
{
/* write up to 1024 bytes of data */
uint8_t PatternDataArray[1024];
/* Pattern File assumes to be in the \build\vs2017\dlpc347x folder */
s_FilePointer = fopen("pattern_data_dual_gui.bin", "rb");
if (!s_FilePointer)
{
//printf("Error opening the binary file!");
return;
}
fseek(s_FilePointer, 0, SEEK_END);
uint32_t PatternDataSize = ftell(s_FilePointer);
fseek(s_FilePointer, 0, SEEK_SET);
/* Select Flash Data Block and Erase the Block */
DLPC34XX_DUAL_WriteFlashDataTypeSelect(DLPC34XX_DUAL_FDTS_ENTIRE_SENS_PATTERN_DATA);
DLPC34XX_DUAL_WriteFlashErase();
/* Read Short Status to make sure Erase is completed */
DLPC34XX_DUAL_ShortStatus_s ShortStatus;
do
{
DLPC34XX_DUAL_ReadShortStatus(&ShortStatus);
} while (ShortStatus.FlashEraseComplete == DLPC34XX_DUAL_FE_NOT_COMPLETE);
DLPC34XX_DUAL_WriteFlashDataLength(1024);
fread(PatternDataArray, sizeof(PatternDataArray), 1, s_FilePointer);
DLPC34XX_DUAL_WriteFlashStart(1024, PatternDataArray);
int32_t BytesLeft = PatternDataSize - 1024;
do
{
fread(PatternDataArray, sizeof(PatternDataArray), 1, s_FilePointer);
DLPC34XX_DUAL_WriteFlashContinue(1024, PatternDataArray);
BytesLeft = BytesLeft - 1024;
} while (BytesLeft > 0);
fclose(s_FilePointer);
}
void main()
{
InitConnectionAndCommandLayer();
bool Status = CYPRESS_I2C_RequestI2CBusAccess();
if (Status != true)
{
printf("Error Request I2C Bus ACCESS!!!");
return;
}
DLPC34XX_DUAL_WriteRgbLedCurrent(0x78, 0x78, 0x78);
DLPC34XX_DUAL_WriteInputImageSize(DLP3010_WIDTH, DLP3010_HEIGHT);
DLPC34XX_DUAL_WriteDisplaySize(DLP3010_WIDTH, DLP3010_HEIGHT);
DLPC34XX_DUAL_WriteSplashScreenSelect(0x02);
DLPC34XX_DUAL_WriteSplashScreenExecute();
WaitForSeconds(3);
CYPRESS_I2C_RelinquishI2CBusAccess();
}
