<-[[.:start]] ====== 60m Transceiver ====== The 60m transceiver has the following features, which vary according to the loaded firmware * Channelized operation * LCD display * Frequency * Mode (SSB / CW) * Modulation Source (Mic/Key/Data) * RX / TX status * 9MHz IF with Xtal filter * SSB & CW set via mode switch * Approx 3W PEP * Digital mode input/output and PTT via 9-pin D * SSB Mic input via 8-pin round "Icom" connector * Modulation Source (Mic or Data) can chosen via select switch * Scan start switch - scan a preset group of channels - cycles continuously, no "squelch" * Use of Jenal SC2 CCIR493 Selcal microphone can be supported - including scanning ===== Arduino Versions ===== There are several different firmware versions....this is just a sample... ==== RX Only, with SSB, CW & scan ==== {{ :public:radio:topics:arduino:gm4slv_60m_channels_cwscan_noptt_new_calibration_130523.ino |}} ++++ Firmware (Click to view) | #include #include char version[] = "v0.1"; const long channel_array[] = { 5258500,5260000,5261000,5262000,5263000, 5276000, 5278500,5279000,5287200,5290000,5298000, 5301000,5304000,5317000,5320000,5333000, 5334000,5335000,5354000,5355000,5362000, 5363000,5364700,5366500,5371500,5378000, 5379000,5395000,5398500,5403500, 5345000,5245000,5450000,5505000,5680000, 5195000,5616000,5649000 } ; const long scan_array[] = { 5260000,5261000, 5262000,5263000, 5366500,5354000, 5355000, } ; const int mems = sizeof(channel_array)/sizeof(long); const int scan_mems = sizeof(scan_array)/sizeof(long); // the last "no_scan" number channels of // channel_array are not to be scanned. // Put the channels not to be scanned last // in the array and update no_scan to reflect. const int no_scan = 0; const long bandStart = 5000000; const long bandEnd = 6000000; const long txcio = 9001200; const long cwoffset = 600; const long filteroffset = 500; volatile int channel = 01; volatile long freq = channel_array[channel]; // volatile long oldfreq = 0; volatile long currentfreq = 0; volatile int updatedisplay = 0; // Rotary encoder pins and other inputs static const int rotAPin = 2; static const int rotBPin = 3; static const int pushSwPin = 4; static const int mictxrxPin = 5; static const int txRLA1Pin = 7; static const int txRLA2Pin = 6; static const int datatxrxPin = 8; static const int modRLAPin = 9; static const int modeSWPin = 11; static const int scanSWPin = 10; volatile int scanning = 0; volatile int old_scanning = 0; volatile int tx = 0; volatile int oldtxrx = 0; volatile int mod = 0; volatile int oldmod = 0; volatile int channel_freq = 0; // push-button to toggle tune method volatile int old_channel_freq = 0; volatile long scan_freq = scan_array[channel]; volatile long old_scan_freq = 0; volatile int mode = 1; // 1 = USB/LSB, 0 = CW volatile int oldmode = 0; // Rotary encoder variables, used by interrupt routines volatile int rotState = 0; volatile int rotAval = 1; volatile int rotBval = 1; int digit1 = 0; int digit2 = 0; int digit3 = 0; int digit4 = 0; int digit5 = 0; int digit6 = 0; int digit7 = 0; // Instantiate the Objects rgb_lcd lcd; Si5351 si5351; byte customChar[8] = { 0b11111, 0b11011, 0b11001, 0b00000, 0b11001, 0b11011, 0b11111, 0b11111 }; void setup() { // Set up frequency and radix switches pinMode(rotAPin, INPUT_PULLUP); pinMode(rotBPin, INPUT_PULLUP); pinMode(pushSwPin, INPUT_PULLUP); pinMode(mictxrxPin, INPUT_PULLUP); pinMode(datatxrxPin, INPUT_PULLUP); pinMode(modeSWPin, INPUT_PULLUP); pinMode(scanSWPin, INPUT_PULLUP); pinMode(txRLA1Pin, OUTPUT); pinMode(txRLA2Pin, OUTPUT); pinMode(modRLAPin, OUTPUT); digitalWrite(txRLA1Pin, LOW); digitalWrite(txRLA2Pin, LOW); digitalWrite(modRLAPin, LOW); // Set up interrupt pins attachInterrupt(digitalPinToInterrupt(rotAPin), ISRrotAChange, CHANGE); attachInterrupt(digitalPinToInterrupt(rotBPin), ISRrotBChange, CHANGE); // Initialize the display lcd.begin(16, 2); lcd.createChar(0, customChar); // create a new custom character lcd.cursor(); // Initialize the Si5351 //si5351.init(SI5351_CRYSTAL_LOAD_8PF, 0, -31200); // //si5351.drive_strength(SI5351_CLK0, SI5351_DRIVE_8MA); // 2 mA for HB mixers //si5351.drive_strength(SI5351_CLK2, SI5351_DRIVE_8MA); // 2 mA for HB mixers si5351.init(SI5351_CRYSTAL_LOAD_8PF, 0, 0); si5351.set_correction(-34976, SI5351_PLL_INPUT_XO); si5351.set_pll(SI5351_PLL_FIXED, SI5351_PLLA); si5351.drive_strength(SI5351_CLK0, SI5351_DRIVE_8MA); si5351.drive_strength(SI5351_CLK2, SI5351_DRIVE_8MA); // Update display and send start frequency UpdateDisplay(); SendFrequency(); } void loop() { CheckScanSwitch(); //CheckTXSwitch(); //CheckModSwitch(); CheckModeSwitch(); // Check to see if the freq has changed currentfreq = getfreq(); // Interrupt safe method to get the current frequency if (currentfreq != oldfreq) { oldfreq = currentfreq; UpdateDisplay(); SendFrequency(); } // Check the rotary encoder (radix) swith if (digitalRead(pushSwPin) == LOW) // Read the rotary encoder switch { delay(500); if (digitalRead(pushSwPin) == LOW) { if (channel_freq == 1) { channel_freq = 0; } else if (channel_freq == 0) { channel_freq = 1; } //delay(50); UpdateDisplay(); } } } // end of main loop long getfreq() { long temp_freq; cli(); temp_freq = freq; sei(); return temp_freq; } void CheckScanSwitch() { if (digitalRead(scanSWPin) == 0) { scanning = 1; scan_freq = 0; channel = channel + 1; if (channel > scan_mems - (no_scan + 1)) { channel = 0; } freq = scan_array[channel]; UpdateDisplay(); SendFrequency(); delay(500); } else { if (scanning != old_scanning) { scanning = 0; UpdateDisplay(); } old_scanning = scanning; } } //void CheckModSwitch() //{ // if (digitalRead(modSWPin) == 0) // mod = 0; // 0 = Phone // else if (digitalRead(modSWPin) == 1) // mod = 1; // 1=Data // if (mod != oldmod) // { // if ( mod == 0) // { // digitalWrite(modRLAPin,LOW); // } // else // { // digitalWrite(modRLAPin,HIGH); // } // UpdateDisplay(); // SendFrequency(); // oldmod = mod; // } //} void CheckModeSwitch() { if (digitalRead(modeSWPin) == 0) mode = 0; // 0 = CW else if (digitalRead(modeSWPin) == 1) mode = 1; // 1=SSB if (mode != oldmode) { if ( mode == 0) { } else { } UpdateDisplay(); SendFrequency(); oldmode = mode; } } void CheckTXSwitch() { if (scanning == 0) { if (digitalRead(mictxrxPin) == 0) { tx = 1; // 1=TX mod = 0; } else if (digitalRead(datatxrxPin) == 0) { tx = 1; mod = 1; } else if (digitalRead(mictxrxPin) == 1) { tx = 0; // 0=Phone } else if (digitalRead(datatxrxPin) == 1) { tx = 0; } if (tx != oldtxrx) { if ( tx == 1) { if ( mod == 0 ) { digitalWrite(modRLAPin,LOW); } else if ( mod == 1 ) { digitalWrite(modRLAPin,HIGH); } digitalWrite(txRLA1Pin,HIGH); digitalWrite(txRLA2Pin,HIGH); } else { digitalWrite(txRLA1Pin,LOW); digitalWrite(txRLA2Pin,LOW); } UpdateDisplay(); SendFrequency(); oldtxrx = tx; } } } // Interrupt routines void ISRrotAChange() { if (digitalRead(rotAPin)) { rotAval = 1; UpdateRot(); } else { rotAval = 0; UpdateRot(); } } void ISRrotBChange() { if (digitalRead(rotBPin)) { rotBval = 1; UpdateRot(); } else { rotBval = 0; UpdateRot(); } } // Determine which way the rotary encoder is rotating and action as required void UpdateRot() { switch (rotState) { case 0: // Idle state, look for direction if (!rotBval) rotState = 1; // CW 1 if (!rotAval) rotState = 11; // CCW 1 break; case 1: // CW, wait for A low while B is low if (!rotBval) { if (!rotAval) { // either increment the radix or freq if (channel_freq == 1) { updatedisplay = 1; if (mode == 1) { freq = freq + 500; } else { freq = freq + 100; } if (freq > bandEnd) { freq = bandEnd; } } else { channel = channel + 1; if (channel > mems -1) { channel = 0; } freq = channel_array[channel]; } rotState = 2; // CW 2 } } else if (rotAval) rotState = 0; // It was just a glitch on B, go back to start break; case 2: // CW, wait for B high if (rotBval) rotState = 3; // CW 3 break; case 3: // CW, wait for A high if (rotAval) rotState = 0; // back to idle (detent) state break; case 11: // CCW, wait for B low while A is low if (!rotAval) { if (!rotBval) { if ( channel_freq == 1 ) { updatedisplay = 1; if (mode == 1) { freq = freq - 500; } else { freq = freq - 100; } if (freq < bandStart) { freq = bandStart; } } else { channel = channel - 1; if (channel < 0) { channel = mems - 1; } freq = channel_array[channel]; } rotState = 12; // CCW 2 } } else if (rotBval) rotState = 0; // It was just a glitch on A, go back to start break; case 12: // CCW, wait for A high if (rotAval) rotState = 13; // CCW 3 break; case 13: // CCW, wait for B high if (rotBval) rotState = 0; // back to idle (detent) state break; } } void UpdateDisplay() { digit1 = (freq%10); digit2 = ((freq/10)%10); digit3 = ((freq/100)%10); digit4 = ((freq/1000)%10); digit5 = ((freq/10000)%10); digit6 = ((freq/100000)%10); digit7 = ((freq/1000000)%10); lcd.setCursor(0,0); lcd.print(digit7); lcd.setCursor(1,0); lcd.print(","); lcd.setCursor(2,0); lcd.print(digit6); lcd.setCursor(3,0); lcd.print(digit5); lcd.setCursor(4,0); lcd.print(digit4); lcd.setCursor(5,0); lcd.print("."); lcd.setCursor(6,0); lcd.print(digit3); lcd.setCursor(7,0); lcd.print(digit2); lcd.setCursor(8,0); lcd.print("kHz"); lcd.setCursor(0,1); lcd.print(" "); lcd.setCursor(channel,1); if (scanning == 1) { // lcd.print("|"); lcd.write((byte)0); // print the custom char at (2, 0) } /* //if (channel < 10) //{ //lcd.print("0"); //} //lcd.print(channel); lcd.setCursor(0,1); if (freq == 5287200 ) { //lcd.setCursor(3,1); //lcd.print(" "); //lcd.setCursor(3,1); lcd.print("WSPR1"); } if (freq == 5290000 ) { //lcd.setCursor(3,1); //lcd.print(" "); //lcd.setCursor(3,1); lcd.print("ORK"); } if (freq == 5364700 ) { //lcd.setCursor(3,1); //lcd.print(" "); //lcd.setCursor(3,1); lcd.print("WSPR2"); } if (freq == 5450000 ) { //lcd.setCursor(3,1); //lcd.print(" "); //lcd.setCursor(3,1); lcd.print("RAF"); } if (freq == 5505000 ) { //lcd.setCursor(3,1); //lcd.print(" "); //lcd.setCursor(3,1); lcd.print("EIP"); } if (freq == 5317000 ) { //lcd.setCursor(3,1); //lcd.print(" "); //lcd.setCursor(3,1); lcd.print("VMARS"); } if (freq == 5366500 ) { //lcd.setCursor(3,1); //lcd.print(" "); //lcd.setCursor(3,1); lcd.print("FK"); } if (freq == 5258500 ) { //lcd.setCursor(3,1); //lcd.print(" "); //lcd.setCursor(3,1); lcd.print("FA"); } if (freq == 5278500 ) { //lcd.setCursor(3,1); //lcd.print(" "); //lcd.setCursor(3,1); lcd.print("FB"); } if (freq == 5288500 ) { //lcd.setCursor(3,1); //lcd.print(" "); //lcd.setCursor(3,1); lcd.print("FC"); } if (freq == 5371500 ) { //lcd.setCursor(3,1); //lcd.print(" "); //lcd.setCursor(3,1); lcd.print("FL"); } if (freq == 5398500 ) { //lcd.setCursor(3,1); //lcd.print(" "); //lcd.setCursor(3,1); lcd.print("FE"); } if (freq == 5403500 ) { //lcd.setCursor(3,1); //lcd.print(" "); //lcd.setCursor(3,1); lcd.print("FM"); } if (freq == 5195000 ) { //lcd.setCursor(3,1); //lcd.print(" "); //lcd.setCursor(3,1); lcd.print("DRA5"); } if (freq == 5262000 ) { //lcd.setCursor(3,1); //lcd.print(" "); //lcd.setCursor(3,1); lcd.print("QRP CW"); } if ((freq >= 5259000) && (freq < 5262000) ) { //lcd.setCursor(3,1); //lcd.print(" "); //lcd.setCursor(3,1); lcd.print("CW"); } */ lcd.setCursor(14,0); if (tx == 0) { lcd.print("RX"); } else if (tx == 1) { lcd.print("TX"); } lcd.setCursor(8,1); if (mode == 1) { lcd.print("SSB"); } if (mode == 0) { lcd.print(" CW"); } lcd.setCursor(12,1); if ( mode == 0 ) { lcd.print(" Key"); //lcd.print(version); } else { if (mod == 0) { lcd.print(" Mic"); //lcd.print(version); } else { lcd.print("Data"); //lcd.print(version); } } if (channel_freq == 1) { if (mode == 1) { lcd.setCursor(6,0); } else if ( mode == 0 ) { lcd.setCursor(7,0); } lcd.blink(); } else { lcd.noBlink(); } } // end of updatedisplay() void SendFrequency() { if (mode == 1 ) // SSB { si5351.set_freq(((txcio + freq) * 100ULL), SI5351_CLK0); // VFO si5351.set_freq((txcio * 100ULL), SI5351_CLK2); // BFO } else if (mode == 0) // CW if ( tx == 0 ) { si5351.set_freq(((txcio + freq - cwoffset - filteroffset) * 100ULL), SI5351_CLK0); // VFO si5351.set_freq(((txcio - filteroffset) * 100ULL), SI5351_CLK2); // BFO } else if (tx == 1 ) { si5351.set_freq(((txcio + freq - cwoffset - filteroffset) * 100ULL), SI5351_CLK0); // VFO si5351.set_freq(((txcio - cwoffset - filteroffset) * 100ULL), SI5351_CLK2); // BFO } } // end of sendfrequency() ++++ ==== Full TX/RX - with SSB, CW & Scan ==== {{ :public:radio:topics:arduino:gm4slv_60m_channels_cwscan_ptt_new_calibration_230823.ino |}} ++++ Firmware (Click to view) | #include #include char version[] = "v0.1"; const long channel_array[] = { 5258500,5260000,5261000,5262000,5263000, 5276000, 5278500,5279000,5287200,5290000,5298000, 5301000,5304000,5317000,5320000,5333000, 5334000,5335000,5354000,5355000,5362000, 5363000,5364700,5366500,5371500,5378000, 5379000,5395000,5398500,5403500, 5345000,5245000,5450000,5505000,5680000, 5195000,5616000,5649000 } ; const long scan_array[] = { 5260000,5261000, 5262000,5263000, 5366500,5354000, 5355000, } ; const int mems = sizeof(channel_array)/sizeof(long); const int scan_mems = sizeof(scan_array)/sizeof(long); // the last "no_scan" number channels of // channel_array are not to be scanned. // Put the channels not to be scanned last // in the array and update no_scan to reflect. const int no_scan = 0; const long bandStart = 5000000; const long bandEnd = 6000000; const long txcio = 9001200; const long cwoffset = 600; const long filteroffset = 500; volatile int channel = 01; volatile long freq = channel_array[channel]; // volatile long oldfreq = 0; volatile long currentfreq = 0; volatile int updatedisplay = 0; // Rotary encoder pins and other inputs static const int rotAPin = 2; static const int rotBPin = 3; static const int pushSwPin = 4; static const int mictxrxPin = 5; static const int txRLA1Pin = 7; static const int txRLA2Pin = 6; static const int datatxrxPin = 8; static const int modRLAPin = 9; static const int modeSWPin = 11; static const int scanSWPin = 10; volatile int scanning = 0; volatile int old_scanning = 0; volatile int tx = 0; volatile int oldtxrx = 0; volatile int mod = 0; volatile int oldmod = 0; volatile int channel_freq = 0; // push-button to toggle tune method volatile int old_channel_freq = 0; volatile long scan_freq = scan_array[channel]; volatile long old_scan_freq = 0; volatile int mode = 1; // 1 = USB/LSB, 0 = CW volatile int oldmode = 0; // Rotary encoder variables, used by interrupt routines volatile int rotState = 0; volatile int rotAval = 1; volatile int rotBval = 1; int digit1 = 0; int digit2 = 0; int digit3 = 0; int digit4 = 0; int digit5 = 0; int digit6 = 0; int digit7 = 0; // Instantiate the Objects rgb_lcd lcd; Si5351 si5351; byte customChar[8] = { 0b11111, 0b11011, 0b11001, 0b00000, 0b11001, 0b11011, 0b11111, 0b11111 }; void setup() { // Set up frequency and radix switches pinMode(rotAPin, INPUT_PULLUP); pinMode(rotBPin, INPUT_PULLUP); pinMode(pushSwPin, INPUT_PULLUP); pinMode(mictxrxPin, INPUT_PULLUP); pinMode(datatxrxPin, INPUT_PULLUP); pinMode(modeSWPin, INPUT_PULLUP); pinMode(scanSWPin, INPUT_PULLUP); pinMode(txRLA1Pin, OUTPUT); pinMode(txRLA2Pin, OUTPUT); pinMode(modRLAPin, OUTPUT); digitalWrite(txRLA1Pin, LOW); digitalWrite(txRLA2Pin, LOW); digitalWrite(modRLAPin, LOW); // Set up interrupt pins attachInterrupt(digitalPinToInterrupt(rotAPin), ISRrotAChange, CHANGE); attachInterrupt(digitalPinToInterrupt(rotBPin), ISRrotBChange, CHANGE); // Initialize the display lcd.begin(16, 2); lcd.createChar(0, customChar); // create a new custom character lcd.cursor(); // Initialize the Si5351 //si5351.init(SI5351_CRYSTAL_LOAD_8PF, 0, -31200); // //si5351.drive_strength(SI5351_CLK0, SI5351_DRIVE_8MA); // 2 mA for HB mixers //si5351.drive_strength(SI5351_CLK2, SI5351_DRIVE_8MA); // 2 mA for HB mixers si5351.init(SI5351_CRYSTAL_LOAD_8PF, 0, 0); si5351.set_correction(-34976, SI5351_PLL_INPUT_XO); si5351.set_pll(SI5351_PLL_FIXED, SI5351_PLLA); si5351.drive_strength(SI5351_CLK0, SI5351_DRIVE_8MA); si5351.drive_strength(SI5351_CLK2, SI5351_DRIVE_8MA); // Update display and send start frequency UpdateDisplay(); SendFrequency(); } void loop() { CheckScanSwitch(); CheckTXSwitch(); //CheckModSwitch(); CheckModeSwitch(); // Check to see if the freq has changed currentfreq = getfreq(); // Interrupt safe method to get the current frequency if (currentfreq != oldfreq) { oldfreq = currentfreq; UpdateDisplay(); SendFrequency(); } // Check the rotary encoder (radix) swith if (digitalRead(pushSwPin) == LOW) // Read the rotary encoder switch { delay(500); if (digitalRead(pushSwPin) == LOW) { if (channel_freq == 1) { channel_freq = 0; } else if (channel_freq == 0) { channel_freq = 1; } //delay(50); UpdateDisplay(); } } } // end of main loop long getfreq() { long temp_freq; cli(); temp_freq = freq; sei(); return temp_freq; } void CheckScanSwitch() { if (digitalRead(scanSWPin) == 0) { scanning = 1; scan_freq = 0; channel = channel + 1; if (channel > scan_mems - (no_scan + 1)) { channel = 0; } freq = scan_array[channel]; UpdateDisplay(); SendFrequency(); delay(500); } else { if (scanning != old_scanning) { scanning = 0; UpdateDisplay(); } old_scanning = scanning; } } //void CheckModSwitch() //{ // if (digitalRead(modSWPin) == 0) // mod = 0; // 0 = Phone // else if (digitalRead(modSWPin) == 1) // mod = 1; // 1=Data // if (mod != oldmod) // { // if ( mod == 0) // { // digitalWrite(modRLAPin,LOW); // } // else // { // digitalWrite(modRLAPin,HIGH); // } // UpdateDisplay(); // SendFrequency(); // oldmod = mod; // } //} void CheckModeSwitch() { if (digitalRead(modeSWPin) == 0) mode = 0; // 0 = CW else if (digitalRead(modeSWPin) == 1) mode = 1; // 1=SSB if (mode != oldmode) { if ( mode == 0) { } else { } UpdateDisplay(); SendFrequency(); oldmode = mode; } } void CheckTXSwitch() { if (scanning == 0) { if (digitalRead(mictxrxPin) == 0) { tx = 1; // 1=TX mod = 0; } else if (digitalRead(datatxrxPin) == 0) { tx = 1; mod = 1; } else if (digitalRead(mictxrxPin) == 1) { tx = 0; // 0=Phone } else if (digitalRead(datatxrxPin) == 1) { tx = 0; } if (tx != oldtxrx) { if ( tx == 1) { if ( mod == 0 ) { digitalWrite(modRLAPin,LOW); } else if ( mod == 1 ) { digitalWrite(modRLAPin,HIGH); } digitalWrite(txRLA1Pin,HIGH); digitalWrite(txRLA2Pin,HIGH); } else { digitalWrite(txRLA1Pin,LOW); digitalWrite(txRLA2Pin,LOW); } UpdateDisplay(); SendFrequency(); oldtxrx = tx; } } } // Interrupt routines void ISRrotAChange() { if (digitalRead(rotAPin)) { rotAval = 1; UpdateRot(); } else { rotAval = 0; UpdateRot(); } } void ISRrotBChange() { if (digitalRead(rotBPin)) { rotBval = 1; UpdateRot(); } else { rotBval = 0; UpdateRot(); } } // Determine which way the rotary encoder is rotating and action as required void UpdateRot() { switch (rotState) { case 0: // Idle state, look for direction if (!rotBval) rotState = 1; // CW 1 if (!rotAval) rotState = 11; // CCW 1 break; case 1: // CW, wait for A low while B is low if (!rotBval) { if (!rotAval) { // either increment the radix or freq if (channel_freq == 1) { updatedisplay = 1; if (mode == 1) { freq = freq + 500; } else { freq = freq + 100; } if (freq > bandEnd) { freq = bandEnd; } } else { channel = channel + 1; if (channel > mems -1) { channel = 0; } freq = channel_array[channel]; } rotState = 2; // CW 2 } } else if (rotAval) rotState = 0; // It was just a glitch on B, go back to start break; case 2: // CW, wait for B high if (rotBval) rotState = 3; // CW 3 break; case 3: // CW, wait for A high if (rotAval) rotState = 0; // back to idle (detent) state break; case 11: // CCW, wait for B low while A is low if (!rotAval) { if (!rotBval) { if ( channel_freq == 1 ) { updatedisplay = 1; if (mode == 1) { freq = freq - 500; } else { freq = freq - 100; } if (freq < bandStart) { freq = bandStart; } } else { channel = channel - 1; if (channel < 0) { channel = mems - 1; } freq = channel_array[channel]; } rotState = 12; // CCW 2 } } else if (rotBval) rotState = 0; // It was just a glitch on A, go back to start break; case 12: // CCW, wait for A high if (rotAval) rotState = 13; // CCW 3 break; case 13: // CCW, wait for B high if (rotBval) rotState = 0; // back to idle (detent) state break; } } void UpdateDisplay() { digit1 = (freq%10); digit2 = ((freq/10)%10); digit3 = ((freq/100)%10); digit4 = ((freq/1000)%10); digit5 = ((freq/10000)%10); digit6 = ((freq/100000)%10); digit7 = ((freq/1000000)%10); lcd.setCursor(0,0); lcd.print(digit7); lcd.setCursor(1,0); lcd.print(","); lcd.setCursor(2,0); lcd.print(digit6); lcd.setCursor(3,0); lcd.print(digit5); lcd.setCursor(4,0); lcd.print(digit4); lcd.setCursor(5,0); lcd.print("."); lcd.setCursor(6,0); lcd.print(digit3); lcd.setCursor(7,0); lcd.print(digit2); lcd.setCursor(8,0); lcd.print("kHz"); lcd.setCursor(0,1); lcd.print(" "); lcd.setCursor(channel,1); if (scanning == 1) { // lcd.print("|"); lcd.write((byte)0); // print the custom char at (2, 0) } /* //if (channel < 10) //{ //lcd.print("0"); //} //lcd.print(channel); lcd.setCursor(0,1); if (freq == 5287200 ) { //lcd.setCursor(3,1); //lcd.print(" "); //lcd.setCursor(3,1); lcd.print("WSPR1"); } if (freq == 5290000 ) { //lcd.setCursor(3,1); //lcd.print(" "); //lcd.setCursor(3,1); lcd.print("ORK"); } if (freq == 5364700 ) { //lcd.setCursor(3,1); //lcd.print(" "); //lcd.setCursor(3,1); lcd.print("WSPR2"); } if (freq == 5450000 ) { //lcd.setCursor(3,1); //lcd.print(" "); //lcd.setCursor(3,1); lcd.print("RAF"); } if (freq == 5505000 ) { //lcd.setCursor(3,1); //lcd.print(" "); //lcd.setCursor(3,1); lcd.print("EIP"); } if (freq == 5317000 ) { //lcd.setCursor(3,1); //lcd.print(" "); //lcd.setCursor(3,1); lcd.print("VMARS"); } if (freq == 5366500 ) { //lcd.setCursor(3,1); //lcd.print(" "); //lcd.setCursor(3,1); lcd.print("FK"); } if (freq == 5258500 ) { //lcd.setCursor(3,1); //lcd.print(" "); //lcd.setCursor(3,1); lcd.print("FA"); } if (freq == 5278500 ) { //lcd.setCursor(3,1); //lcd.print(" "); //lcd.setCursor(3,1); lcd.print("FB"); } if (freq == 5288500 ) { //lcd.setCursor(3,1); //lcd.print(" "); //lcd.setCursor(3,1); lcd.print("FC"); } if (freq == 5371500 ) { //lcd.setCursor(3,1); //lcd.print(" "); //lcd.setCursor(3,1); lcd.print("FL"); } if (freq == 5398500 ) { //lcd.setCursor(3,1); //lcd.print(" "); //lcd.setCursor(3,1); lcd.print("FE"); } if (freq == 5403500 ) { //lcd.setCursor(3,1); //lcd.print(" "); //lcd.setCursor(3,1); lcd.print("FM"); } if (freq == 5195000 ) { //lcd.setCursor(3,1); //lcd.print(" "); //lcd.setCursor(3,1); lcd.print("DRA5"); } if (freq == 5262000 ) { //lcd.setCursor(3,1); //lcd.print(" "); //lcd.setCursor(3,1); lcd.print("QRP CW"); } if ((freq >= 5259000) && (freq < 5262000) ) { //lcd.setCursor(3,1); //lcd.print(" "); //lcd.setCursor(3,1); lcd.print("CW"); } */ lcd.setCursor(14,0); if (tx == 0) { lcd.print("RX"); } else if (tx == 1) { lcd.print("TX"); } lcd.setCursor(8,1); if (mode == 1) { lcd.print("SSB"); } if (mode == 0) { lcd.print(" CW"); } lcd.setCursor(12,1); if ( mode == 0 ) { lcd.print(" Key"); //lcd.print(version); } else { if (mod == 0) { lcd.print(" Mic"); //lcd.print(version); } else { lcd.print("Data"); //lcd.print(version); } } if (channel_freq == 1) { if (mode == 1) { lcd.setCursor(6,0); } else if ( mode == 0 ) { lcd.setCursor(7,0); } lcd.blink(); } else { lcd.noBlink(); } } // end of updatedisplay() void SendFrequency() { if (mode == 1 ) // SSB { si5351.set_freq(((txcio + freq) * 100ULL), SI5351_CLK0); // VFO si5351.set_freq((txcio * 100ULL), SI5351_CLK2); // BFO } else if (mode == 0) // CW if ( tx == 0 ) { si5351.set_freq(((txcio + freq - cwoffset - filteroffset) * 100ULL), SI5351_CLK0); // VFO si5351.set_freq(((txcio - filteroffset) * 100ULL), SI5351_CLK2); // BFO } else if (tx == 1 ) { si5351.set_freq(((txcio + freq - cwoffset - filteroffset) * 100ULL), SI5351_CLK0); // VFO si5351.set_freq(((txcio - cwoffset - filteroffset) * 100ULL), SI5351_CLK2); // BFO } } // end of sendfrequency() ++++ ===== Further Information ===== Page created : 11/07/26 10:09 BST Page updated : ~~LASTMOD~~ {{tag>radio arduino }}