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| 回路全体 |
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| 画面表示例 |
s-meterは、イメージデータをimage2cppでモノクロデータにして加工した。カラー表示を行うので有れば、同様なツールとしてlcd-image-converterがある。これらのツールを使えば、簡単にデータ化できる。
周波数表示に使ったフォントは、デジタル風ものを選んだが、等幅フォントでない。この為、1文字毎にロケーションを指定している。
VFOの機能は、オートモード、RIT、自動メモリー保存、バンド範囲チェックなど 際立った機能は無いが実用的に仕上がった。
回路図
DIOにTX/RXまで使っており、拡張性が無いように見えるかも知れないが、必要な機能が達成できれば、それで良い。
mini D1設定
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| CPUパラメータ設定 |
esp8266は曲者
開発にArduino IDEを使ったが、esp8266(WeMos mini D1)は個性的な印象だ。DIOすら制限があり、この割付がベストだと思っている。esp8266には、産業用コントローラなどで使っているウォッチドグタイマー装備されおり、トラブル時の対策を悩ませる一員となった。スケッチ
必要なファイルは、JA2GQP's Download siteのesp8266フォルダからダウンロード可能。//////////////////////////////////////////////////////////////////////
// si5351a IPS(240x240) VFO program ver.1.0
// Copyright(C)2020.JA2GQP.All rights reserved.
//
// 2020/6/18
// JA2GQP
//--------------------------------------------------------------------
// Function
// 1.STEP(1k,100,10)
// 2.Automatic memory
// 3.Protection Operation At The Time Of Transmission
// 4.Automatic mode switching
// 5.S-Meter/Power meter
//////////////////////////////////////////////////////////////////////
#include <Adafruit_GFX.h>
#include <Fonts/Org_01.h>
#include <EEPROM.h>
#include "src/Arduino_ST7789.h"
#include "src/Rotary.h"
#include "src/si5351.h"
#include <wire.h>
#include "src/smeter.h"
#include <Ticker.h>
//---------- define value ----------------------------------------------
#define TFT_DC D8 // DC
#define TFT_RST D6 // RES
#define TFT_MOSI D7 // SDA
#define TFT_SCLK D5 // SCL
#define SW_TX D0 // D0
#define SW_RIT RX // RX
#define SW_STEP TX // TX
////////////////////////////////
// EEPROM Memory Address
////////////////////////////////
#define Eep_Init 0x00 // Eep Init(1byte*1)
#define Eep_Band 0x01 // Band(1byte*1)
#define Eep_Freq 0x10 // Frequency(4byte*8)
#define Eep_Step 0x30 // STEP(4byte*8)
////////////////////////////////
// frquency data
////////////////////////////////
const unsigned long FRQ_TBL[4] = {
// DEF LOW(cw) MID(ssb) HI
7050000 ,7000000 ,7045000 ,7200000
};
//---- data offset ------------
#define DEF_F 0
#define LOW_F 1
#define MID_F 2
#define HI_F 3
//---- IF offset --------------
#define IF 10700000
#define LSB 10701500
#define USB 10698500
#define CW 10700700
//---- ETC frequency mode -----
#define FT8_1 7041000
#define FT8_2 7074000
#define AM 7195000
////////////////////////////////
// etc
////////////////////////////////
#define Int_End 73 // Initial end code
#define LW_RIT -5000 // RIT Lower Limit
#define HI_RIT 5000 // Upper Limit
////////////////////////////////
// Set Device
////////////////////////////////
Rotary r = Rotary(D3,D4);
void ICACHE_RAM_ATTR enc_proc();
Arduino_ST7789 tft = Arduino_ST7789(TFT_DC, TFT_RST);
Si5351 si5351(0x60);
Ticker ticker1;
//---------- Variable setting ------------------------------------------
unsigned long Vfo_Dat = 0; // VFO data
unsigned long Bfo_Dat = 0; // BFO data
unsigned int Enc_Step = 1000; // STEP
int Rit_Dat = 0; // RIT Data
long Lng_Wk = 0; // Long Work
unsigned long Time_Passd = 0; // Time Pass(ms)
int Int_Wk = 0; // Integer Work
byte Flg_Tx = 0; // TX Flag
byte Flg_Mode = 0; // Mode Flag
byte Flg_Over = 0; // Over Flag
byte Flg_Rit = 0; // RIT Flag
byte Flg_enc = 0; // EEP Write Flag
byte Disp_Freq = 1;
byte Disp_Rit = 1;
//----------- setup ----------------------------------------------------
void setup(){
pinMode(SW_TX,INPUT);
pinMode(SW_STEP,INPUT);
pinMode(SW_RIT,INPUT);
EEPROM.begin(128);
r.begin(0);
attachInterrupt(digitalPinToInterrupt(D3), enc_proc, CHANGE);
attachInterrupt(digitalPinToInterrupt(D4), enc_proc, CHANGE);
ticker1.attach_ms(2000, save_time);
tft.init(240, 240); // initialize a ST7789 chip, 240x240 pixels
tft.setFont(&Org_01);
tft.fillScreen(BLACK);
delay(500);
si5351.init(SI5351_CRYSTAL_LOAD_8PF, 0, 0);
si5351.drive_strength(SI5351_CLK0,SI5351_DRIVE_4MA);//Drive lebel 4mA set
si5351.drive_strength(SI5351_CLK2,SI5351_DRIVE_4MA);//Drive lebel 4mA set
if(EEPROM.read(Eep_Init) != Int_End){ // Eep initialaz
delay(10);
eep_init();
}
eep_rdata();
si5351_freq(Vfo_Dat);
band_check();
mode_disp();
step_disp();
dot_disp();
}
//----------- main loop ------------------------------------------------
void loop(){
meter_disp(analogRead(A0)); // s-meter,Power meter
///////////////////
// Receive
///////////////////
if(digitalRead(SW_TX) == LOW){ // RX?(TX is HIGH)
if(digitalRead(SW_STEP) == LOW){ // STEP?
step_proc();
}
if(digitalRead(SW_RIT) == LOW){ // RIT?
rit_disp(Rit_Dat);
rit_proc();
}
if(Flg_Mode == 3)
si5351.output_enable(SI5351_CLK2, 0); // VFO disable
else
si5351.output_enable(SI5351_CLK2, 1); // VFO enable
si5351_bfo(Bfo_Dat);
si5351.output_enable(SI5351_CLK0, 1); // VFO enable
freq_disp(Vfo_Dat);
if(Flg_Rit == 1)
si5351_freq(Vfo_Dat+IF+Rit_Dat); // Frequency(RIT) data out
else
si5351_freq(Vfo_Dat+IF);
Flg_Tx = 0;
band_check();
mode_disp();
yield();
}
///////////////////
// Transmit
///////////////////
else{ // TX
if(Flg_Over == 0){
si5351.output_enable(SI5351_CLK0, 1); // VFO enable
}
else{
si5351.output_enable(SI5351_CLK0, 0); // VFO disable
}
si5351_freq(Vfo_Dat+IF); // Frequency data out
Flg_Tx = 1;
yield();
}
///////////////////
// Common
///////////////////
tx_disp();
if(Flg_Rit == 1){
if(Disp_Rit == 1){
rit_disp(Rit_Dat);
Disp_Rit = 0;
}
}
}
//---------- Write EEPROM --------------------------------------------
void save_time(){
noInterrupts();
if(Flg_enc == 1){
eep_wdata();
Flg_enc = 0;
}
interrupts();
}
//---------- Write EEPROM 4byte --------------------------------------
void eep_write4(long value,int address){
address += 3;
for(int i = 0;i < 4;i++){
byte toSave = value & 0xFF;
if(EEPROM.read(address) != toSave){
EEPROM.write(address,toSave);
EEPROM.commit();
}
value = value >> 8;
address--;
}
}
//---------- Read EEPROM 4byte ---------------------------------------
long eep_read4(int address){
long value = 0;
for(int i = 0;i < 4;i++){
value = value | EEPROM.read(address);
if( i < 3){
value = value << 8;
address++;
}
}
return value;
}
//---------- EEPROM Dat Read -----------------------------------------
void eep_rdata(){
Vfo_Dat = eep_read4(Eep_Freq);
Enc_Step = eep_read4(Eep_Step);
}
//---------- EEPROM Dat Write ----------------------------------------
void eep_wdata(){
eep_write4(Vfo_Dat,Eep_Freq);
eep_write4(Enc_Step,Eep_Step);
}
//---------- EEPROM Initialization ------------------------------------
void eep_init(){
int i;
for (i=0;i<128;i++){ // 0 clear(128byte)
EEPROM.write(i, 0);
EEPROM.commit();
}
eep_write4(FRQ_TBL[DEF_F],Eep_Freq);
eep_write4(1000,Eep_Step); // Step(1kHz)
EEPROM.write(Eep_Init,Int_End); // Init end set(73)
EEPROM.commit();
}
//---------- over display ------------------------------------------------
void over_disp() {
static byte Flg_Overb = 0;
if((Flg_Over == 1) && (Flg_Overb == 0)){
tft.fillRect(0,208,240,32,BLACK);
tft.setTextSize(3);
tft.setCursor(0, 232);
tft.setTextColor(MAGENTA);
tft.print("OUT OF RANGE");
Flg_Overb = Flg_Over;
}
if((Flg_Overb == 1) && (Flg_Over == 0)){
tft.fillRect(0,208,240,32,BLACK);
Flg_Overb = Flg_Over;
}
}
//---------- TX display ------------------------------------------------
void tx_disp() {
static byte Flg_Txb = 0;
if((Flg_Tx == 1) && (Flg_Txb == 0)){
tft.fillRect(0,208,240,32,BLACK);
tft.setTextSize(3);
tft.setCursor(0, 232);
if(Flg_Over == 1){
tft.setTextColor(MAGENTA);
tft.print("OUT OF RANGE");
}
else{
tft.setTextColor(YELLOW);
tft.print("SENDING");
}
Flg_Txb = Flg_Tx;
}
if((Flg_Txb == 1) && (Flg_Tx == 0)){
tft.fillRect(0,208,240,32,BLACK);
if(Flg_Rit == 1)
rit_disp(Rit_Dat);
Flg_Txb = Flg_Tx;
}
}
//---------- Frequency display -----------------------------------------
void freq_disp(long freq){
static char buf[10]="";
static char bufb[10]="";
long_asc(buf,freq);
tft.setFont(&Org_01);
tft.setTextSize(6);
for(int i=0;i<8;i++){
if(buf[i]!=bufb[i]){
switch(i){
case 0:
tft.fillRect(132+72,155,35,46,BLACK);
tft.setCursor(135+72, 195);
tft.setTextColor(GREEN);
tft.print(buf[i]);
bufb[i] = buf[i];
break;
case 1:
tft.fillRect(132+36,155,35,46,BLACK);
tft.setCursor(135+36, 195);
tft.setTextColor(GREEN);
tft.print(buf[i]);
bufb[i] = buf[i];
break;
case 2:
tft.fillRect(132,155,35,46,BLACK);
tft.setCursor(135, 195);
tft.setTextColor(GREEN);
tft.print(buf[i]);
bufb[i] = buf[i];
break;
case 3:
tft.fillRect(0+72,155,35,46,BLACK);
tft.setCursor(0+72, 195);
tft.setTextColor(GREEN);
tft.print(buf[i]);
bufb[i] = buf[i];
break;
case 4:
tft.fillRect(0+36,155,35,46,BLACK);
tft.setCursor(0+36, 195);
tft.setTextColor(GREEN);
tft.print(buf[i]);
bufb[i] = buf[i];
break;
case 5:
tft.fillRect(0,155,35,46,BLACK);
tft.setCursor(0, 195);
tft.setTextColor(GREEN);
tft.print(buf[i]);
bufb[i] = buf[i];
break;
case 6:
tft.fillRect(0+36,110,35,46,BLACK);
tft.setCursor(0+36, 150);
tft.setTextColor(GREEN);
tft.print(buf[i]);
bufb[i] = buf[i];
break;
case 7:
tft.fillRect(0,110,35,46,BLACK);
tft.setCursor(0, 150);
tft.setTextColor(GREEN);
tft.print(buf[i]);
bufb[i] = buf[i];
break;
}
}
}
}
//---------- band chek -----------------------------------------------
void band_check(){
if((Vfo_Dat >= FRQ_TBL[LOW_F])
&& (Vfo_Dat <= FRQ_TBL[MID_F])){
Flg_Mode = 0; // CW(0=CW, 1=LSB, 2=USB)
Flg_Over = 0;
Bfo_Dat = CW;
}
else if((Vfo_Dat >= FRQ_TBL[MID_F])
&& (Vfo_Dat <= FRQ_TBL[HI_F])){
if(Vfo_Dat >= 10000000){ // greate than 10MHz
Flg_Mode = 2; // USB(0=CW, 1=LSB, 2=USB)
Bfo_Dat = USB;
}
else{
Flg_Mode = 1; // LSB(0=CW, 1=LSB, 2=USB)
Bfo_Dat = LSB;
}
Flg_Over = 0;
}
else{
Flg_Mode = 3; // AM
Flg_Over = 1;
}
if((Vfo_Dat == FT8_1) || (Vfo_Dat == FT8_2)){
Flg_Mode = 2;
Bfo_Dat = USB;
Flg_Over = 0;
}
if(Vfo_Dat == AM){
Flg_Mode = 3;
Flg_Over = 0;
}
}
//---------- Mode display ----------------------------------------------
void mode_disp() {
static byte Flg_Modeb = 73;
if(Flg_Mode != Flg_Modeb){
tft.setFont(&Org_01);
tft.setTextSize(3);
if (Flg_Mode == 0){ // 0=CW
tft.fillRect(185,138,52,15,BLACK);
tft.setCursor(185, 150);
tft.setTextColor(CYAN);
tft.print("CW ");
}
else if(Flg_Mode == 1){ // 1=LSB
tft.fillRect(185,138,52,15,BLACK);
tft.setCursor(185, 150);
tft.setTextColor(CYAN);
tft.print("LSB");
}
else if(Flg_Mode == 2){ // 2=USB
tft.fillRect(185,138,52,15,BLACK);
tft.setCursor(185, 150);
tft.setTextColor(CYAN);
tft.print("USB");
}
else if(Flg_Mode == 3){ // 3=AM
tft.fillRect(185,138,52,15,BLACK);
tft.setCursor(185, 150);
tft.setTextColor(CYAN);
tft.print("AM ");
}
Flg_Modeb = Flg_Mode;
}
}
//----------- Dot display ----------------------------------------------
void dot_disp(){
tft.setFont(&Org_01);
tft.setTextSize(6);
tft.setCursor(115, 195);
tft.setTextColor(GREEN);
tft.print(".");
}
//---------- long to ascii -------------------------------------------
char *long_asc(char *str,long n){
int i = 0; // Write the number
char *p = str;
unsigned long u = abs(n);
do{
*p++ = "0123456789"[u % 10];
u = u / 10;
i++;
}
while( 0 != u )
;
*p = '\0';
}
//---------- si5351 PLL Output ---------------------------------------
void si5351_freq(unsigned long freq){
si5351.set_freq(freq * SI5351_FREQ_MULT, SI5351_CLK0);
}
//---------- si5351 PLL Output ---------------------------------------
void si5351_bfo(unsigned long bfo){
si5351.set_freq(bfo * SI5351_FREQ_MULT, SI5351_CLK2);
}
//----------- s-meter --------------------------------------------------
void meter_disp(uint16_t signalLevel){
static int a1b,a2b = 0;
const int hMeter = 120; // horizontal center
const int vMeter = 120; // vertical center
const int rMeter = 120; // needle length
// signalLevel = map(signalLevel, 0, 127, 0, 1023);
float smeterValue = (signalLevel) * 330 / 1024; // convert the signal
smeterValue = smeterValue - 34; // shifts needle to zero position
tft.drawBitmap(0, 0, myBitmap, 240,88, WHITE); // draws background
int a1 = (hMeter + (sin(smeterValue / 35.0) * rMeter)); // meter needle horizontal coordinate
int a2 = (vMeter - (cos(smeterValue / 35.0) * rMeter)); // meter needle vertical coordinate
if((a1 != a1b) || (a2 != a2b)){
tft.drawLine(a1b, a2b, hMeter, vMeter, BLACK); // clear needle
a1b = a1;
a2b = a2;
tft.drawLine(a1, a2, hMeter, vMeter, WHITE); // draws needle
delay(1);
}
}
//---------- rit proc ------------------------------------------------
void rit_proc(){
if(Flg_Rit == 0){
Flg_Rit = 1;
// eep_wdata();
}
else{
Flg_Rit = 0;
Rit_Dat = 0;
Disp_Freq = 1;
tft.fillRect(0,208,240,32,BLACK);
}
while(digitalRead(SW_RIT) == LOW)
yield();
}
//---------- RIT Display ---------------------------------------------
void rit_disp(int rit_data) {
unsigned int ri,rit;
tft.fillRect(42,208,154,32,BLACK);
tft.setFont(&Org_01);
tft.setTextSize(3);
tft.setCursor(0, 232);
tft.setTextColor(YELLOW);
tft.print("RIT ");
if (rit_data > 0)
tft.print('+');
tft.print(rit_data);
}
//---------- Rotaly Encorder -----------------------------------------
void enc_proc() { // rotary encoder events
unsigned char result = r.process();
if(Flg_Tx == 0){
if(result) {
Disp_Freq = 1;
Disp_Rit = 1;
if(result == DIR_CW){
Lng_Wk = Vfo_Dat + Enc_Step;
Int_Wk = Rit_Dat + Enc_Step;
}
else{
Lng_Wk = Vfo_Dat - Enc_Step;
Int_Wk = Rit_Dat - Enc_Step;
}
if(Flg_Rit == 1)
Rit_Dat = Int_Wk;
else{
Vfo_Dat = Lng_Wk;
Rit_Dat = 0;
}
Rit_Dat = constrain(Rit_Dat,LW_RIT,HI_RIT); // RIT range check
Flg_enc = 1;
}
}
}
//---------- step proc ------------------------------------------------
void step_proc(){
if(Enc_Step == 1000) // Step = 10Hz ?
Enc_Step = 10; // Yes,1khz set
else
Enc_Step = Enc_Step * 10; // Step down 1 digit
step_disp();
while(digitalRead(SW_STEP) == LOW)
yield();
}
//---------- Function STEP Display -----------------------------------
void step_disp(){
tft.fillRect(185,113,52,15,BLACK);
tft.setFont(&Org_01);
tft.setTextSize(3);
tft.setCursor(190, 125);
tft.setTextColor(CYAN);
switch(Enc_Step){
case 10:
tft.println("10 ");
break;
case 100:
tft.println("100");
break;
case 1000:
tft.println("1k ");
break;
}
}
