Arduino | Wabbit Wavings#include < UTFT. UTFT_CTE. h> #include "SPI. Wire. h> #include "RTClib. Time. h> /*BVS_1. LITERAL1 BVS_1. 5 LITERAL1 BVS_1. LITERAL1 BVS_2. 2 LITERAL1 BVS_2. LITERAL1 BVS_3. 4 LITERAL1 BVS_4. LITERAL1 BVS_5. 2 LITERAL1 BVS_7. LITERAL1 BVS_1. 12 LITERAL1 */extern uint. Small. Font[]; extern uint. Meanwhile, Wesfarmers has produced what it describes as a "record level of earnings" for its FY2016/17. In results released on 17 August 2017, the company reported. Big. Font[]; extern uint. Seven. Seg. Num. Font[]; // Set up UTFT for CTE3. Arduino Mega. UTFT my. GLCD(CTE3. 2,3. 8,3. ![]() ![]() ![]() UTFT_CTE CTE_LCD(& my. GLCD); //RTC_DS3. RTC; #define DS1. I2. C_ADDRESS 0x. Date. Time=true; intlast. Hi Steve, I sent Alex some pic’s of the building process, think I have well over 200, but to give a general idea have only sent a few which if you scroll down, you. Insulate a concrete floor to make your finished basement flooring more comfortable and energy efficient. Learn how to properly insulate your basement concrete floor. Search Results: Boat type Runabouts. 479 boats were found that matched your search. Scroll down and click on the ID or Boat Description to view. Minute; // we use this as the minute timerintlast. Second; // and for the second timerbooleancheck. Day=true; // last day we showed. Stringwd. List="Sun Mon Tue Wed Thu Fri Sat "; Stringm. List ="Jan Feb Mar Apr May Jun Jul Aug Sep Oct Nov Dec "; intmonth. Days[]={ 3. 1,2. UT[1. 6]; uint. 16_t the. Day. Of. The. Year=0; //// ring buffer size has to be large enough to fit// data and sync signal, at least 1. RING_BUFFER_SIZE 1. SYNC_HIGH 6. SYNC_LOW 6. PULSE_LONG 4. PULSE_SHORT 2. BIT1_HIGH PULSE_LONG#define BIT1_LOW PULSE_SHORT#define BIT0_HIGH PULSE_SHORT#define BIT0_LOW PULSE_LONG// On the arduino connect the data pin, the pin that will be // toggling with the incomming data from the RF module, to// digital pin 3. Pin D3 is interrupt 1 and can be configured// for interrupt on change, change to high or low.// The squelch pin in an input to the radio that squelches, or// blanks the incoming data stream. Use the squelch pin to // stop the data stream and prevent interrupts between the // data packets if desired.//#define DATAPIN (3) // D3 is interrupt 1#define SYNCPULSECNT (4) // 4 pulses (8 edges)#define SYNCPULSEEDGES (SYNCPULSECNT*2)#define DATABYTESCNT (7)#define DATABITSCNT (DATABYTESCNT*8)// 7 bytes * 8 bits#define DATABITSEDGES (DATABITSCNT*2)// The pulse durations are the measured time in micro seconds between// pulse edges. Durations[RING_BUFFER_SIZE]; unsignedintsync. Index =0; // index of the last bit time of the sync signalunsignedintdata. Index =0; // index of the first bit time of the data bits (sync. Index+1)bool sync. Found=false; // true if sync pulses foundbool received =false; // true if sync plus enough bits foundunsignedintchange. Count=0; bytesignal. Packets=0; // the TX sends four packets at a time and that represents signal strength on the RXintthe. Temp,the. Humid,the. Battery; booleandata. Ready=false; byteinterrupt. PIN=5; bytetx. ID=0x. C; // Position C, C=1. C, B=9. C, A=DC (but may vary per probe)charnet. Buffer[5. 0]; // used for the receiving stuffintnet. Buffer. Ptr=0; //voidsetup(){ Wire. Start the Wire (I2. C communications) RTC. Start the RTC Chip //Serial. Serial. println("Started."); delay(2. GLCD. Init. LCD(); my. GLCD. set. Back. Color(VGA_BLACK); CTE_LCD. SPI_Flash_init(FLASH_CS_PIN); // Clear the buffer. my. GLCD. clr. Scr(); CTE_LCD. Set_character_spacing(1); //CTE_LCD. Load_image(0,0,2. GLCD. set. Color(0,2. Set font color my. GLCD. set. Back. Color(0,0,0); //Set background color CTE_LCD. Put_Text("Acu. Wrong",7. BVS_4. 3); my. GLCD. Color(2. 55,2. 55,2. Set font color CTE_LCD. Put_Text("F",1. 28,8. BVS_2. 8); CTE_LCD. Put_Text("%",2. 56,8. BVS_2. 8); //char buff[2]; //buff[0]=3. CTE_LCD. Put_Text_array(buff,2. BVS_3. 4); //CTEdraw. Grid(1. 6); // // //Date. Time dt. 0(2. 01. RTC. adjust(Date. Time(dt. 0)); // attach. Interrupt(interrupt. PIN,handler,CHANGE); }//voidloop(){ if(received==true){ signal. Packets++; if(signal. Packets==1){ grab. Acurite. Data(); } if(signal.Packets> =4){ data. Free Download Bbm Blackberry 9220 Software . Ready=true; detach. Interrupt(interrupt. PIN); } received=false; sync. Found=false; } else { if(data. Ready==true){ //Serial. Packets); show. Temp. Humid(); signal. Packets=0; data. Ready=false; attach. Interrupt(interrupt. PIN,handler,CHANGE); } update. Date. Time(); }}//voidshow. Temp. Humid(){ charbuff[6]; // 8. LOW battery, 9. 0 is full intthe. Image; switch(the. Battery){ case. 1: // full battery the. Image=9. 0; break; case. LOW battery the. Image=8. 7; break; default: the.Image=9. 2; // unknown break; } CTE_LCD.Load_image(0,2,the.Image); switch(signal.Packets){ case. 1: CTE_LCD. Windows 7 Activator Newer Activated Partial Thromboplastin there. Load_image(2. 70,2,4. CTE_LCD. Load_image(2. CTE_LCD. Load_image(2. CTE_LCD. Load_image(2. GLCD. set. Color(2. Set font color my. GLCD. set. Back. Color(0,0,0); //Set background color my. GLCD. set. Font(Seven. Seg. Num. Font); // 3. Temp); my. GLCD. Humid); my. GLCD. Acurite. Data(){ // extract temperature value unsignedintstart. Index,stop. Index,ring. Index; //unsigned long temperature = 0; boolfail=false; unsignedchardata. Bytes[DATABYTESCNT]; // clear the data bytes array for(inti=0; i< DATABYTESCNT; i++) { data. Bytes[i]=0; } ring. Index=(sync. Index+1)%RING_BUFFER_SIZE; for(inti=0; i< DATABITSCNT; i++) { intbit=convert. Timing. To. Bit(pulse. Durations[ring. Index%RING_BUFFER_SIZE], pulse. Durations[(ring. Index+1)%RING_BUFFER_SIZE]); if(bit< 0) { fail=true; break; // exit loop } else { data. Bytes[i/8]|=bit< < (7- (i%8)); } ring. Index+=2; } if(fail)return; // extract temperature value if(data. Bytes[0]==tx. ID){ unsignedlongtemp=0; fail=false; // most significant 4 bits start. Index=(data. Index+(4*8+4)*2)%RING_BUFFER_SIZE; stop. Index =(data. Index+(4*8+8)*2)%RING_BUFFER_SIZE; for(inti=start. Index; i!=stop. Index; i=(i+2)%RING_BUFFER_SIZE) { intbit=convert. Timing. To. Bit(pulse. Durations[i],pulse. Durations[(i+1)%RING_BUFFER_SIZE]); temp=(temp< < 1)+bit; if(bit< 0) fail=true; } // least significant 7 bits start. Index=(data. Index+(5*8+1)*2)%RING_BUFFER_SIZE; stop. Index =(data. Index+(5*8+8)*2)%RING_BUFFER_SIZE; for(inti=start. Index; i!=stop. Index; i=(i+2)%RING_BUFFER_SIZE) { intbit=convert. Timing. To. Bit(pulse. Durations[i%RING_BUFFER_SIZE], pulse. Durations[(i+1)%RING_BUFFER_SIZE]); temp=(temp< < 1)+bit; // shift and insert next bit if(bit< 0) fail=true; } intmy. Sum=0; // we need to see if the checksum works out for(inti=0; i< 6; i++){ my. Sum=my. Sum+data. Bytes[i]; } my. Sum=my. Sum& 0x. FF; if(my. Sum==data. Bytes[6]){ the. Battery=data. Bytes[2]> > 6; // values 2=GOOD, 1=LOW the. Humid=data. Bytes[3]& 0x. F; the. Temp=((((temp- 1. F } /* else { for (int i = 0; i < 7; i++) { Serial. Bytes[i], HEX); Serial. Serial. println(); } */ }}///* * Look for the sync pulse train, 4 high- low pulses of * 6. S high and 6. 00 u. S low. * idx is index of last captured bit duration. Search backwards 8 times looking for 4 pulses * approximately 6. S long. */boolis. Sync(unsignedintidx){ // check if we've received 4 pulses of matching timing for(inti=0; i< SYNCPULSEEDGES; i+=2) { unsignedlongt. Durations[(idx+RING_BUFFER_SIZE- i)%RING_BUFFER_SIZE]; unsignedlongt. Durations[(idx+RING_BUFFER_SIZE- i- 1)%RING_BUFFER_SIZE]; // any of the preceeding 8 pulses are out of bounds, short or long, // return false, no sync found if(t. SYNC_HIGH- 1. 00)||t. SYNC_HIGH+1. 00)|| t. SYNC_LOW- 1. 00) ||t. SYNC_LOW+1. 00)) { returnfalse; } } returntrue; }/* Interrupt handler * Set to interrupt on edge (level change) high or low transition. Change the state of the Arduino LED (pin 1. This allows scoping pin 1. Time=0; staticunsignedintring. Index=0; staticunsignedintsync. Count=0; staticunsignedintbit. State =0; //bit. State = digital. Read(DATAPIN); //digital. Write(1. 3, bit. State); // ignore if we haven't finished processing the previous // received signal in the main loop. if(received==true) { return; } // calculating timing since last change longtime=micros(); duration=time- last. Time; last. Time=time; // Known error in bit stream is runt/short pulses. // If we ever get a really short, or really long, // pulse we know there is an error in the bit stream // and should start over. if((duration> (PULSE_LONG+1. PULSE_SHORT- 1. 00))) { received=false; sync. Found=false; change. Count=0; // restart looking for data bits } // store data in ring buffer ring. Index=(ring. Index+1)%RING_BUFFER_SIZE; pulse. Durations[ring. Index]=duration; change. Count++; // found another edge // detect sync signal if(is. Sync(ring. Index)){ sync. Found=true; change.
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