void main(void)
{
WDTCTL = WDTPW + WDTHOLD; // Stop the watchdog
__enable_interrupt(); // Enable general interrupts
Board_init(); // Configure's the F5529 EXP board's I/Os
// Initialize power/clocks for use with USB
SetVCore(3); // The USB module requires that VCore be set to highest setting, independent of MCLK freq
ClockUSB();
disk_initialize(0); // SD-cards must go through a setup sequence after powerup. This FatFs call does this.
USB_init(); // Initializes the USB API, and prepares the USB module to detect USB insertion/removal events
USB_setEnabledEvents(kUSB_allUsbEvents); // Enable all USB events
// The data interchange buffer (used when handling SCSI READ/WRITE) is declared by the application, and
// registered with the API using this function. This allows it to be assigned dynamically, giving
// the application more control over memory management.
USBMSC_registerBufInfo(&RW_dataBuf[0], NULL, sizeof(RW_dataBuf));
// The API maintains an instance of the USBMSC_RWbuf_Info structure. If double-buffering were used, it would
// maintain one for both the X and Y side. (This version of the API only supports single-buffering,
// so only one structure is maintained.) This is a shared resource between the API and application; the
// application must request the pointers.
RWbuf_info = USBMSC_fetchInfoStruct();
// USBMSC_updateMediaInfo() must be called prior to USB connection. We check if the card is present, and if so, pull its size
// and bytes per block.
// LUN0
mediaInfo.mediaPresent = 0x01; // The medium is present, because internal flash is non-removable.
mediaInfo.mediaChanged = 0x00; // It can't change, because it's in internal memory, which is always present.
mediaInfo.writeProtected = 0x00; // It's not write-protected
mediaInfo.lastBlockLba = 774; // 774 blocks in the volume. (This number is also found twice in the volume itself; see mscFseData.c. They should match.)
mediaInfo.bytesPerBlock = BYTES_PER_BLOCK; // 512 bytes per block. (This number is also found in the volume itself; see mscFseData.c. They should match.)
USBMSC_updateMediaInfo(0, &mediaInfo);
// LUN1
if(detectCard())
mediaInfo.mediaPresent = kUSBMSC_MEDIA_PRESENT;
else mediaInfo.mediaPresent = kUSBMSC_MEDIA_NOT_PRESENT;
mediaInfo.mediaChanged = 0x00;
mediaInfo.writeProtected = 0x00;
disk_ioctl(0,GET_SECTOR_COUNT,&mediaInfo.lastBlockLba); // Returns the number of blocks (sectors) in the media.
mediaInfo.bytesPerBlock = BYTES_PER_BLOCK; // Block size will always be 512
USBMSC_updateMediaInfo(1, &mediaInfo);
// At compile-time for this demo, there will be one file on the volume. The root directory and data cluster
// for this file need to be initialized.
//flashWrite_LBA(Root_Dir, (BYTE*)Root_Dir_init);
//flashWrite_LBA(Data559, (BYTE*)Data559_init);
// Configure Timer_A0 to prompt detection of the SD card every second
TA0CCTL0 = CCIE; // Enable interrupt
TA0CCR0 = 32768; // Clock will be 32kHz, so we set the int to occur when it counts to 32768
TA0CTL = TASSEL_1 + MC_1 + TACLR; // ACLK = 32kHz, up mode, clear TAR... go!
// If USB is already connected when the program starts up, then there won't be a USB_handleVbusOnEvent().
// So we need to check for it, and manually connect if the host is already present.
if (USB_connectionInfo() & kUSB_vbusPresent)
{
if (USB_enable() == kUSB_succeed)
{
USB_reset();
USB_connect();
}
}
while(1)
{
BYTE ReceiveError=0, SendError=0;
WORD count;
switch(USB_connectionState())
{
case ST_USB_DISCONNECTED:
__bis_SR_register(LPM3_bits + GIE); // Enter LPM3 until VBUS-on event
// Check if the reason we woke was a button press; and if so, log a new piece of data.
if(fS1ButtonEvent)
{
// Build string
char str[14] = "Data entry #0\n";
str[12] = logCnt++; // Number the entries 0 through....?
memcpy(RW_dataBuf, Data559, BYTES_PER_BLOCK); // Copy data block 559 from flash to RAM buffer
memcpy(&RW_dataBuf[DataCnt], str, sizeof(str)); // Write the new entry to the RAM buffer
flashWrite_LBA((PBYTE)Data559, RW_dataBuf); // Copy it back to flash
DataCnt += sizeof(str); // Increment the index past the new entry
if((DataCnt + sizeof(str)>= BYTES_PER_BLOCK)) // Roll index back to 0, if no more room in the block
DataCnt = 0;
fS1ButtonEvent = 0;
}
break;
case ST_USB_CONNECTED_NO_ENUM:
break;
case ST_ENUM_ACTIVE:
// Call USBMSC_poll() to initiate handling of any received SCSI commands. Disable interrupts
// during this function, to avoid conflicts arising from SCSI commands being received from the host
// AFTER decision to enter LPM is made, but BEFORE it's actually entered (in other words, avoid
// sleeping accidentally).
__disable_interrupt();
if((USBMSC_poll() == kUSBMSC_okToSleep) && (!bDetectCard))
{
__bis_SR_register(LPM0_bits + GIE); // Enable interrupts atomically with LPM0 entry
}
__enable_interrupt();
// If the API needs the application to process a buffer, it will keep the CPU awake by returning kUSBMSC_processBuffer
// from USBMSC_poll(). The application should then check the 'operation' field of all defined USBMSC_RWbuf_Info
// structure instances. If any of them is non-null, then an operation needs to be processed. A value of
// kUSBMSC_READ indicates the API is waiting for the application to fetch data from the storage volume, in response
// to a SCSI READ command from the USB host. After the application does this, it must indicate whether the
// operation succeeded, and then close the buffer operation by calling USBMSC_bufferProcessed().
while(RWbuf_info->operation == kUSBMSC_READ)
{
switch(RWbuf_info->lun)
{
case 0:
RWbuf_info->returnCode = Read_LBA(RWbuf_info->lba, RWbuf_info->bufferAddr, RWbuf_info->lbCount); // Fetch a block from the medium, using file system emulation
USBMSC_bufferProcessed(); // Close the buffer operation
break;
case 1:
read_LUN1();
break;
}
}
// Everything in this section is analogous to READs. Reference the comments above.
while(RWbuf_info->operation == kUSBMSC_WRITE)
{
switch(RWbuf_info->lun)
{
case 0:
RWbuf_info->returnCode = Write_LBA(RWbuf_info->lba, RWbuf_info->bufferAddr, RWbuf_info->lbCount); // Write the block to the medium, using file system emulation
USBMSC_bufferProcessed(); // Close the buffer operation
break;
case 1:
write_LUN1();
break;
}
}
// Every second, the Timer_A ISR sets this flag. The checking can't be done from within the timer ISR, because the
// checking enables interrupts, and this is not a recommended practice due to the risk of nested interrupts.
if(bDetectCard)
{
checkInsertionRemoval();
bDetectCard = 0x00; // Clear the flag, until the next timer ISR
}
if(bHID_DataReceived_event) //Message is received from HID application
{
bHID_DataReceived_event = FALSE; // Clear flag early -- just in case execution breaks below because of an error
count = hidReceiveDataInBuffer((BYTE*)dataBuffer,BUFFER_SIZE,HID0_INTFNUM);
strncat(wholeString," \r\nRx->",7);
strncat(wholeString,(char*)dataBuffer,count);
strncat(wholeString," \r\n ",4);
if(cdcSendDataInBackground((BYTE*)wholeString,strlen(wholeString),CDC0_INTFNUM,1)) // Send message to other CDC App
{
SendError = 0x01;
break;
}
memset(wholeString,0,MAX_STR_LENGTH); // Clear wholeString
}
if(bCDC_DataReceived_event) //Message is received from CDC application
{
bCDC_DataReceived_event = FALSE; // Clear flag early -- just in case execution breaks below because of an error
cdcReceiveDataInBuffer((BYTE*)wholeString,MAX_STR_LENGTH,CDC0_INTFNUM);
ASCII(wholeString);
if(hidSendDataInBackground((BYTE*)wholeString,strlen(wholeString),HID0_INTFNUM,1)) // Send message to HID App
{
SendError = 0x01; // Something went wrong -- exit
break;
}
memset(wholeString,0,MAX_STR_LENGTH); // Clear wholeString
}
break;
case ST_ENUM_SUSPENDED:
__bis_SR_register(LPM3_bits + GIE); // Enter LPM3, until a resume or VBUS-off event
break;
case ST_ENUM_IN_PROGRESS:
break;
case ST_ERROR:
break;
default:;
}
if(ReceiveError || SendError)
{
//TO DO: User can place code here to handle error
}
}
}
void BP(int transmit_mode){
USE_LCD();
_DINT();
buttonsPressed=0;
Init_UART2();
UCA0IE |= UCRXIE;
int ad_f ;
ad_f = 0;
SPILCD_Clear(WHITE);
drawbpletter(); //draw 'BLOOD PRESURE'
// PMM_setVCore(PMM_BASE, PMM_CORE_LEVEL_3);
initClocks(20000000); // Config clocks. MCLK=SMCLK=FLL=8MHz; ACLK=REFO=32kHz
int_adc12();
//bcUartInit(); // Init the back-channel UART
// USB_setup(TRUE,TRUE); // Init USB; if a USB host (PC) is present, connect
n=0;xaxis=0;flag=0;xx=0;mm=0;t1=0;pkn=0;section=0;x=0;
// int_adc12();//采样设置
ADC12CTL0 |= ADC12SC;//启动采样
ADC12CTL0 |= ADC12ENC+ADC12ON;
ad_f = 0;
_EINT();//允许中断
int_aerate(); //启动气阀自动充放气
//section=1;
//int_adc12();
while(n<500);
// TA2CCR2 = 600;
while(n<1000);
// TA2CCR2 = 350;
while(n<1400){ //等待采1500个样点
// _EINT();
//__bis_SR_register(LPM0_bits + GIE); //低功耗，使能全局中断
_NOP();
}
// TA2CCR2 = 200;
while(n<1500);
_DINT();
ADC12IE &= ~0x02;
ADC12CTL0 &=~ ADC12ENC; //停止转换
TA2CCR2 =0;
smooth(); //滤波
int_findpk();//找到脉搏波峰峰值
findBP(); //计算并显示血压
_EINT();
// long a;
// char b[5];
// char c[3];
// char cc[3];
/* ltoa(temp_final1,b);
if(temp_final1>=0&&temp_final1<=9)
{
c[0]='0';
c[1]='0';
c[2]=b[0];
}
if(temp_final1>=10&&temp_final1<=99)
{
c[0]='0';
c[1]=b[0];
c[2]=b[1];
}
if(temp_final1>=100&&temp_final1<=999)
{
c[0]=b[0];
c[1]=b[1];
c[2]=b[2];
}
ltoa(temp_final2,b);
if(temp_final2>=0&&temp_final2<=9)
{
cc[0]='0';
cc[1]='0';
cc[2]=b[0];
}
if(temp_final2>=10&&temp_final2<=99)
{
cc[0]='0';
cc[1]=b[0];
cc[2]=b[1];
}
if(temp_final2>=100&&temp_final2<=999)
{
cc[0]=b[0];
cc[1]=b[1];
cc[2]=b[2];
}
*/
//char end[3]={'E','N','D'};
int i;
/*
*/
// CRCresult=0;
for(i=1508;i>=9;i--){
results1[i]=results1[i-9]>>5;
}
// for(i=9;i<1509;i++)
// {
// CRCtmp = CRCresult%256;
// CRCindex = CRCtmp^results1[i];
// CRCtmp = CRCresult/256; //除以256
// CRCresult = CRCtmp;
// CRCresult = CRCresult^CRC_TA[CRCindex];
// }
// a=CRCresult;
// ltoa(a,b);
results1[0]='S';
results1[1]='T';
results1[2]='A';
results1[3]='R';
results1[4]='T';
results1[5]='B';
results1[6]='P';
if(sh>=127){
results1[7]=0x7F;
results1[8]=(char)(sh-127);}
else{
results1[7]=(char)(sh);
results1[8]=0;
}
if(re>=127){
results1[9]=0x7F;
results1[10]=(char)(re-127);}
else{
results1[9]=(char)(re);
results1[10]=0;
}
results1[1511]='A';
results1[1512]='A';
results1[1513]='A';
results1[1514]='A';
results1[1515]='A';
results1[1516]='E';
results1[1517]='N';
results1[1518]='D';
if(transmit_mode==1){
bcUartInit();
bcUartSend_char(results1,1519);//buf_bcuartToUsb
}
if(transmit_mode==2){
hidSendDataInBackground(results1,3038, HID0_INTFNUM,10000);
}
if(transmit_mode==3){
Init_UART2();
int i;
for(i=0;i<1519;i++)
{
UCA0TXBUF = results1[i];
while(!(UCTXIFG==(UCTXIFG & UCA0IFG))&&((UCA0STAT & UCBUSY)==UCBUSY));
int a,k;
for(a=0;a<10;a++)
{
for(k=0;k<80;k++);
}
}
}
__no_operation(); // For debugger
_EINT();
Init_UART2();
UCA0IE |= UCRXIE;
buttonsPressed=0;
BUTTON_S4=0;
while(!(buttonsPressed & BUTTON_S4));
/***************UART**************************/
// rxByteCount = 1500;//bcUartReceiveBytesInBuffer(buf_bcuartToUsb);
// bcUartSend(results1,rxByteCount);//buf_bcuartToUsb
//bcUartSend(results,rxByteCount);
/***************USB**************************/
/* for(i=0;i<1500;i++){
convertTwoDigBinToASCII(results1, str1);
__delay_cycles(110000);
hidSendDataInBackground(str1,5, HID0_INTFNUM,0);
}
for(i=0;i<1500;i++){
convertTwoDigBinToASCII(results, str1);
__delay_cycles(110000);
hidSendDataInBackground(str1,5, HID0_INTFNUM,0);
}*/
/***************BlueTooth**************************//*
long a;
char b[20];
char c[2];
int bb;
Init_UART1();
for(i=0;i<1500;i++){
a=(long)results1[i]/40;
if(a>=0&&a<=9){
ltoa(a,b);
c[0]='0';
c[1]=b[0];
}
if(a>=10&&a<=99){
ltoa(a,b);
c[0]=b[0];
c[1]=b[1];
}
for(bb=0;bb<2;bb++){
degc=c[bb];
UCA0IE |= UCTXIE;
for(i=0;i<500;i++){
for(j=0;j<100;j++);
}
}
}
*/
}
/*----------------------------------------------------------------------------+
| Main Routine |
+----------------------------------------------------------------------------*/
VOID main(VOID)
{
WDTCTL = WDTPW + WDTHOLD; // Stop watchdog timer
Init_StartUp();
USB_init();
USB_setEnabledEvents(kUSB_VbusOnEvent + kUSB_VbusOffEvent + kUSB_UsbSuspendEvent + kUSB_UsbResumeEvent + kUSB_receiveCompletedEvent + kUSB_UsbResetEvent);
// Check if we're already physically attached to USB, and if so, connect to it
// This is the same function that gets called automatically when VBUS gets attached.
if (USB_connectionInfo() & kUSB_vbusPresent)
USB_handleVbusOnEvent();
while(1)
{
switch(USB_connectionState())
{
case ST_USB_DISCONNECTED:
__bis_SR_register(LPM3_bits + GIE); // Enter LPM3 w/interrupt
break;
case ST_USB_CONNECTED_NO_ENUM:
break;
case ST_ENUM_ACTIVE:
if(!bCommandBeingProcessed) // If no command is being processed, then make sure there's a rcv operation
{ // open to receive the start of the "packet"
if(!(USBHID_intfStatus(0,&x,&y) & kUSBHID_waitingForReceive)) // Only open it if we haven't already done so
if(USBHID_receiveData(buffer,1,0) == kUSBHID_busNotAvailable) // Start a receive operation for a single byte -- the "size" byte of the "packet"
{
USBHID_abortReceive(&x,0); // Abort receive
break; // If bus is no longer available, escape out of the loop
}
}
__bis_SR_register(LPM0_bits + GIE); // Wait in LPM0 until a receive operation has completed
if(bDataReceiveCompleted_event)
{
bDataReceiveCompleted_event = FALSE;
if(!bCommandBeingProcessed) // This means that the incoming byte is the start of the "packet" -- the "size" byte
{
if ((buffer[0]>=0x31) && (buffer[0]<= 0x39))
{
size = buffer[0]-0x30; // It's in ASCII, so convert it to a number
if(USBHID_receiveData(buffer,size,0) == kUSBHID_busNotAvailable) // And then open a rcv operation for that size
{
USBHID_abortReceive(&x,0); // Abort receive
break; // If bus is no longer available, escape out of the loop
}
bCommandBeingProcessed = TRUE; // Now we're waiting for the "data" part of the "packet"
}
else
{
strcpy(outString,"\r\nEnter a valid number between 1 and 9\r\n\r\n"); // Prepare the outgoing string
if(hidSendDataInBackground((BYTE*)outString,strlen(outString),0,0)) // Send the response over USB
{
USBHID_abortSend(&x,0); // Operation may still be open; cancel it
break; // If the send fails, escape the main loop
}
bCommandBeingProcessed = FALSE; // Now we're back to waiting for the "size" byte
}
}
else // This means that the incoming data is the "data" part of the "packet"
{
strcpy(outString,"\r\nI received your packet with size of "); // Prepare the outgoing string
c[0] = (char)(size+0x30); // Convert the size back to ASCII
c[1] = 0; // Convert the size back to ASCII
outString[64] = 0;
strcat(outString,c);
strcat(outString," bytes.\r\n\r\n");
if(hidSendDataInBackground((BYTE*)outString,strlen(outString),0,0)) // Send the response over USB
{
USBHID_abortSend(&x,0); // Operation may still be open; cancel it
break; // If the send fails, escape the main loop
}
bCommandBeingProcessed = FALSE; // Now we're back to waiting for the "size" byte
}
}
break;
case ST_ENUM_SUSPENDED:
__bis_SR_register(LPM3_bits + GIE); // Enter LPM3 w/interrupt
break;
case ST_ENUM_IN_PROGRESS:
break;
case ST_NOENUM_SUSPENDED:
__bis_SR_register(LPM3_bits + GIE);
break;
case ST_ERROR:
_NOP();
break;
default:;
}
} // while(1)
} //main()
void SPO2H(int transmit_mode)
{
USE_LCD();
SpO2_lcd();
int_adc();
Init_UART2();
UCA0IE |= UCRXIE;
//PMM_setVCore(PMM_BASE, PMM_CORE_LEVEL_2);
initClocks(20000000); // Config clocks. MCLK=SMCLK=FLL=8MHz; ACLK=REFO=32kHz
delay_2();
delay_2();
// USB_setup(TRUE,TRUE);
BUTTON_S4=0;
while(!(buttonsPressed & BUTTON_S4))
{
Init_UART2();
UCA0IE |= UCRXIE;
_EINT();
// delay_2();
// delay_2();
ad();
if(BUTTON_S4==0){
on_ired();
wave(1); //显示红光
/* for(i=0;i<480;i++){
results[i+480]=results[i];
}*/
NONUSE_LCD();
save(); // 前0-480为红外 1000-1480为
// delay_2();
// delay_2();
ad();
if(BUTTON_S4==0){
on_red();
wave(0); //显示红外
unsigned int count=0; //ired
unsigned int count1=0; //red
unsigned int count_spa=0;
unsigned int count1_spa=0;
//调试时 使用
int red_hr=0;
int hr = 0; //心率
unsigned int j = 0, j1 = 0;
for(i = 9; i < max-10 ;i++) //ired
{
if(results[i]>=results[i+1]&&results[i]>=results[i+2]&&results[i]>=results[i+3]&&results[i]>=results[i-1]&&results[i]>=results[i-2]&&results[i]>=results[i-3]&&j<4&&
results[i]>=results[i+4]&&results[i]>=results[i+5]&&results[i]>=results[i+6]&&results[i]>=results[i-4]&&results[i]>=results[i-5]&&results[i]>=results[i-6]&&
results[i]>=results[i+7]&&results[i]>=results[i+8]&&results[i]>=results[i+9]&&results[i]>=results[i-7]&&results[i]>=results[i-8]&&results[i]>=results[i-9])
{
r_locate[count] = i;
count++;
if(count>=10)break;
i = i+40;
}
}
for(i = 9+480; i < max-10+480 ;i++) //red
{
if(results[i]>=results[i+1]&&results[i]>=results[i+2]&&results[i]>=results[i+3]&&results[i]>=results[i-1]&&results[i]>=results[i-2]&&results[i]>=results[i-3]&&j1<4&&
results[i]>=results[i+4]&&results[i]>=results[i+5]&&results[i]>=results[i+6]&&results[i]>=results[i-4]&&results[i]>=results[i-5]&&results[i]>=results[i-6]&&
results[i]>=results[i+7]&&results[i]>=results[i+8]&&results[i]>=results[i+9]&&results[i]>=results[i-7]&&results[i]>=results[i-8]&&results[i]>=results[i-9])
{
r1_locate[count1] = i;
count1++;
if(count1>=10)break;
i=i+40;
}
}
/*计算心率 其实最后一个峰值坐标减去第一个 再除以个数就可以了哦*/
count_spa = count - 1;
count1_spa = count1 - 1;
hr = (r_locate[count_spa]-r_locate[0])/count_spa;
hr=(1.0/(float)(hr*0.01))*60;
red_hr = (r1_locate[count1_spa]-r1_locate[0])/count1_spa;
red_hr=(1.0/(float)(red_hr*0.01))*60; //
/*直流算平均值*/
red_dc = 0.0;
ired_dc = 0.0;
length_idc = (float)(r_locate[count_spa]-r_locate[count_spa -2]); //ired
length_dc = (float)(r1_locate[count1_spa] - r1_locate[count1_spa -2]);
for(i = r1_locate[count1_spa -2] ; i <r1_locate[count1_spa];i++) //最后的位置是采样到最后一个峰峰值的坐标
{
red_dc += (float)results1[i]/length_dc;
}
for(i = r_locate[count_spa -2] ; i <r_locate[count_spa];i++) //最后的位置是采样到最后一个峰峰值的坐标
{
ired_dc += (float)results1[i]/length_idc;
}
/*最小值及交流峰峰值 最后2个周期才稳定 可以用最后2个周期算峰峰值*/
/*同时 红光用前一个峰值减去谷值 红外用后一个峰值减去谷值 去基线漂移*/
red_min = results[1+480];//(float)red[0];
ired_min = results[1];//(float)results[0]; 避免第一个数采得不准
ired_ac = 0;
red_ac = 0;
for(i =( count_spa -2); i <count_spa ;i++) //ired
{
for(j=r_locate[i]; j < r_locate[i+1] ;j++)
{
if(results[j]<ired_min){ired_min=results[j];}
}
ired_ac += results[r_locate[i+1]] - ired_min;
nr_locate[i]=ired_min;
ired_min = results[1]; //更新初值
}
ired_ac = ired_ac/2;
for(i = (count1_spa -2); i <count1_spa ;i++) //red
{
for(j=r1_locate[i]; j < r1_locate[i+1] ;j++)
{
if(results[j]<red_min){red_min=results[j];}
}
red_ac += results[r1_locate[i]] - red_min;
nr1_locate[i] = red_min;
red_min = results[481];
}
red_ac = red_ac/2;
/*计算血氧含量*/
Q1 = (float)(red_ac/red_dc);
Q2 = (float)ired_ac/(float)ired_dc ;
Q = Q1/Q2 ;
sao2 = (-4.1768)*Q + 100.9352 + 0.5;
if(abs(hr-red_hr)>=10) //两次采样的心率值相差不大的情况下才更新Q
{
Q = pre_Q;
}
/*显示*/
USE_LCD();
SPILCD_Clear_Lim(212,260,18,52,WHITE); //371 355
SPILCD_Clear_Lim(348,396,18,52,WHITE);
unsigned int temp1,temp10,temp100;
long temp_final1;
long temp_final2;
temp1=hr%10; //计算心率个位
temp10=(hr%100-temp1)/10; //计算心率十位
temp100=(hr-temp10*10-temp1)/100; //计算心率百位
temp_final1=(long)(temp1+temp10*10+temp100*100);
if(temp100>0) DRAW_NUM(244,20,temp100,BLUE); //显示心率百位
DRAW_NUM(228,18,temp10,BLUE); //显示心率十位
DRAW_NUM(212,18,temp1,BLUE); //显示心率个位
sao2=99;
temp1=sao2%10; //计算个位
temp10=(sao2%100-temp1)/10; //计算十位
temp100=(sao2-temp10*10-temp1)/100; //计算百位
temp_final2=(long)(temp1+temp10*10+temp100*100);
if(temp100>0) DRAW_NUM(380,18,temp100,BLUE); //显示心率百位
DRAW_NUM(364,18,temp10,BLUE); //显示十位
DRAW_NUM(348,18,temp1,BLUE); //显示个位
NONUSE_LCD();
i = 0;
pre_Q = Q; //记录这次显示的Q
/* char start[7]={'S','T','A','R','T','S','O'};
long a;
char b[5];
char c[3];
char d[3];
ltoa(temp_final1,b);
if(temp_final1>=0&&temp_final1<=9)
{
c[0]='0';
c[1]='0';
c[2]=b[0];
}
if(temp_final1>=10&&temp_final1<=99)
{
c[0]='0';
c[1]=b[0];
c[2]=b[1];
}
if(temp_final1>=100&&temp_final1<=999)
{
c[0]=b[0];
c[1]=b[1];
c[2]=b[2];
}
ltoa(temp_final2,b);
if(temp_final2>=0&&temp_final2<=9)
{
d[0]='0';
d[1]='0';
d[2]=b[0];
}
if(temp_final2>=10&&temp_final2<=99)
{
d[0]='0';
d[1]=b[0];
d[2]=b[1];
}
if(temp_final2>=100&&temp_final2<=999)
{
d[0]=b[0];
d[1]=b[1];
d[2]=b[2];
}
char end[3]={'E','N','D'};
j=0;
for(j=0;j<960;j++) //采样数据除以40转化成两位，便于传送
{
results[j]=results[j]/40;
}*/
int i;
for(i=959;i>=0;i--)
{
results[i+10]=results[i]>>5;
}
results[0]='S';
results[1]='T';
results[2]='A';
results[3]='R';
results[4]='T';
results[5]='S';
results[6]='O';
if(hr>=127){
results[7]=0x7F;
results[8]=(char)(hr-127);}
else{
results[7]=(char)(hr);
results[8]=0;
}
results[9]=sao2;
results[970]='A';
results[971]='A';
results[972]='A';
results[973]='A';
results[974]='A';
// results[974]=0x7F;
results[975]='E';
results[976]='N';
results[977]='D';
// CRCresult=0;
// for(i=9;i<969;i++)
// {
// results[i]=results[i]>>5;
// CRCtmp = CRCresult%256;
// CRCindex = CRCtmp^results[i];
// CRCtmp = CRCresult/256; //除以256
// CRCresult = CRCtmp;
// CRCresult = CRCresult^CRC_TA[CRCindex];
// }
// long a;
// char b[5];
// a=CRCresult;
// ltoa(a,b);
// results[969]=b[0];
// results[970]=b[1];
// results[971]=b[2];
// results[972]=b[3];
// results[973]=b[4];
// results[974]='E';
// results[975]='N';
// results[976]='D';
if(transmit_mode==1){
bcUartInit();
bcUartSend_char(results,978);//buf_bcuartToUsb
}
if(transmit_mode==2){
hidSendDataInBackground(results,1956, HID0_INTFNUM,10000);
}
if(transmit_mode==3){
int i;
for(i=0;i<978;i++)
{
UCA0TXBUF = results[i];
while(!(UCTXIFG==(UCTXIFG & UCA0IFG))&&((UCA0STAT & UCBUSY)==UCBUSY));
int a,k;
for(a=0;a<10;a++)
{
for(k=0;k<80;k++);
}
}
}
BUTTON_S4=0;
buttonsPressed=0;
NONUSE_LCD();
}
}
