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Updates to RigState.

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This commit is contained in:
Rob French
2021-02-17 11:05:09 -06:00
parent f3887e7950
commit 1bca18c3e1
3 changed files with 208 additions and 148 deletions
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2
Raduino/ubitx_ui.ino
View File

@@ -18,7 +18,7 @@ const PROGMEM uint8_t meters_bitmap[] = {
}; };
*/ */
#include "RigState.h" //#include "RigState.h"
//SWR GRAPH, DrawMeter and drawingMeter Logic function by VK2ETA //SWR GRAPH, DrawMeter and drawingMeter Logic function by VK2ETA

267
TeensyDSP/RigState.cpp
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@@ -5,6 +5,8 @@
#ifndef TEENSYDUINO #ifndef TEENSYDUINO
#include "ubitx_eemap.h"
extern unsigned long frequency; extern unsigned long frequency;
extern unsigned long vfoA; extern unsigned long vfoA;
extern unsigned long vfoB; extern unsigned long vfoB;
@@ -15,123 +17,46 @@ extern char ritOn;
extern char splitOn; extern char splitOn;
void setFrequency(unsigned long); void setFrequency(unsigned long);
#endif /*!
* @brief Write dirty fields from the provided rig state, out to the
/**********************************************************************/ * Raduino variables.
// Raduino functors - used to read/write from Raduino state * @param r
* Reference to a RigState object that will be used to update
#ifndef TEENSYDUINO * the Raduino variables.
*/
struct readNone { void writeDirty(const RigState& r) {
bool operator()(uint32_t* d) { // VFO A frequency
return false; if (r.isDirty(VFOA_WORD)) {
}
}
struct writeNone {
void operator()(uint32_t d) {
}
}
struct readVFOA {
bool operator()(uint32_t* d) {
unsigned freq = (vfoActive == VFO_A) ? frequency : vfoA;
if (*d == freq) {
return false;
} else {
*d = freq;
return true;
}
}
};
struct writeVFOA {
void operator()(uint32_t d) {
if (vfoActive == VFO_A) { if (vfoActive == VFO_A) {
setFrequency(d); setFrequency(r.getFreqA());
} else { } else {
vfoA = frequency; vfoA = r.getFreqA();
} }
} }
};
struct readVFOB { // VFO B frequency
bool operator()(uint32_t* d) { if (r.isDirty(VFOB_WORD)) {
unsigned freq = (vfoActive == VFO_B) ? frequency : vfoB;
if (*d == freq) {
return false
} else {
*d = freq;
return true;
}
}
};
struct writeVFOB {
void operator()(uint32_t d) {
if (vfoActive == VFO_B) { if (vfoActive == VFO_B) {
setFrequency(d); setFrequency(r.getFreqB());
} else { } else {
vfoB = frequency; vfoB = r.getFreqB();
} }
} }
};
struct readRIT { // RIT and XIT frequencies
bool operator()(uint32_t* d) { if (r.isDirty(OFFSETS_WORD)) {
int freq = ritRxFrequency - frequency; // RIT
if (*d == (uint32_t)freq) { ritRxFrequency = r.getRIT() + ritTxFrequency;
return false;
} else {
*d = (uint32_t)freq;
return true;
}
}
};
struct writeRIT {
void operator()(uint32_t d) {
ritRxFrequency = (int)d + ritTxFrequency;
if ((ritOn == 1) && (inTx == 0)) { if ((ritOn == 1) && (inTx == 0)) {
setFrequency(ritRxFrequency); setFrequency(ritRxFrequency);
} }
// XIT - TODO
} }
};
struct readXIT { // VFO A/B selection
bool operator()(uint32_t* d) { if (r.isDirty(FLAGS_WORD)) {
return false;
}
};
struct writeXIT {
void operator()(uint32_t d) {
}
};
struct readFlags {
bool operator()(uint32_t* d) {
uint32_t flags = 0
flags = 0;
flags |= (vfoActive == VFO_B ? UBITX_VFOB_FLAG : 0);
flags |= (cwMode != 0 ? UBITX_CW_FLAG : 0);
flags |= (isUSB != 0 ? UBITX_USB_FLAG : 0);
flags |= (splitOn != 0 ? UBITX_SPLIT_FLAG : 0);
flags |= (ritOn != 0 ? UBITX_RIT_FLAG : 0);
//flags |= (xitOn != 0 ? UBITX_XIT_FLAG : 0);
if (*d == flags) {
return false;
} else {
*d = flags;
return true;
}
}
};
struct writeFlags {
void operator()(uint32_t d) {
char prev = vfoActive; char prev = vfoActive;
vfoActive = (d & UBITX_VFOB_FLAG ? VFO_B : VFO_A); vfoActive = r.isVFOA() ? VFO_A : VFO_B;
if (vfoActive != prev) { if (vfoActive != prev) {
if (vfoActive == VFO_A) { if (vfoActive == VFO_A) {
if (vfoA != frequency) { if (vfoA != frequency) {
@@ -144,28 +69,128 @@ struct writeFlags {
} }
} }
splitOn = d & UBITX_SPLIT_FLAG ? 1 : 0; // Split on/off
splitOn = r.isSplit() ? 1 : 0;
// RIT on/off
prev = ritOn; prev = ritOn;
ritOn = d & UBITX_RIT_FLAG ? 1 : 0; ritOn = r.isRIT() ? 1 : 0;
if (ritOn != prev) { if (ritOn != prev) {
if ((ritOn == 1) && (inTx == 0)) { if ((ritOn == 1) && (inTx == 0)) {
setFrequency(ritRxFrequency); setFrequency(ritRxFrequency);
} }
} }
char prev = (cwMode << 1) | isUSB; // XIT on/off
isUSB = d.flags & UBITX_USB_FLAG ? 1 : 0; // TODO
if (d.flags & UBITX_CW_FLAG) {
cwMode = isUSB ? 2 : 1; // 2 = cwu / 1 = cwl // Mode
prev = (cwMode << 1) | isUSB;
isUSB = r.isUSB() ? 1 : 0;
if (r.isCW()) {
cwMode = 2; // 2 = cwu
} else if (r.isCWR()) {
cwMode = 1; // 1 = cwl
} else { } else {
cwMode = 0; cwMode = 0; // 0 = no cw
} }
if ((cwMode << 1) | isUSB != prev) { if ((cwMode << 1) | isUSB != prev) {
setFrequency(frequency); setFrequency(frequency);
} }
} }
}; }
/*!
* @brief Read current Raduino variables into the provided RigState
* (if they are dirty) and set the appropriate dirty flags.
* @param r
* RigState reference to put the values into.
*/
void readDirty(RigState& r) {
unsigned freq;
short offset;
// VFO A frequency
freq = (vfoActive == VFO_A) ? frequency : vfoA;
if (r.getFreqA() != freq) {
r.setFreqA(freq);
r.setDirty(VFOA_WORD);
}
// VFO B frequency
freq = (vfoActive == VFO_B) ? frequency : vfoB;
if (r.getFreqB() != freq) {
r.setFreqB(freq);
r.setDirty(VFOB_WORD);
}
// RIT frequency
offset = ritRxFrequency - frequency;
if (r.getRIT() != offset) {
r.setRIT(offset);
r.setDirty(OFFSETS_WORD);
}
// XIT frequency
offset = 0; // xitRxFrequency - frequency;
if (r.getXIT() != offset) {
r.setXIT(offset);
r.setDirty(OFFSETS_WORD);
}
bool dirty = false;
// VFO A/B selection
if (r.isVFOA() && vfoActive == VFO_B) {
r.setVFOB();
dirty = true;
} else if (r.isVFOB() && vfoActive == VFO_A) {
r.setVFOA();
dirty = true;
}
// Split selection
if (r.isSplit() && splitOn == 0) {
r.setSplitOff();
dirty = true;
} else if (!r.isSplit() && splitOn != 0) {
r.setSplitOn();
dirty = true;
}
// RIT selection
if (r.isRIT() && ritOn == 0) {
r.setRITOff();
dirty = true;
} else if (!r.isRIT() && ritOn != 0) {
r.setRITOn();
dirty = true;
}
// XIT selection
r.setXITOff();
// TODO
// Mode
char prev = (r.isCW() ? 4 : 0) | (r.isCWR() ? 2 : 0) | (r.isUSB() ? 1 : 0);
char curr = (cwMode << 1) | isUSB;
if (curr != prev) {
if (cwMode == 2) {
r.setCW();
} else if (cwMode == 1) {
r.setCWR();
} else {
if (isUSB) {
r.setUSB();
} else {
r.setLSB();
}
}
dirty = true;
}
if (dirty) r.setDirty(FLAGS_WORD);
}
#endif #endif
@@ -197,29 +222,17 @@ void RigState::begin() {
} }
} }
void RigState::update() { void updateRaduinoState(RigState& r) {
// First we need to determine which fields have changed (and are writeDirty(r);
// thus dirty and need to be sent to the TeensyDSP).
for (byte i = 0; i < numFields; i++) {
if (read(i)) {
makeDirty(i);
}
}
// Next we need to send the current (changed) Raduino information
// to the TeensyDSP.
Wire.beginTransmission(I2CMETER_ADDR); Wire.beginTransmission(I2CMETER_ADDR);
Wire.write(I2CMETER_RIGINF); Wire.write(I2CMETER_RIGINF);
for (byte i = 0; i < numFields; i++) { for (RigStateWord i = 0; i < NUM_WORDS; i++) {
if (isDirty(i)) { // Write each field that is dirty to the bus. Wire.write((byte*)&r.data, sizeof(r.data)); // - write the field data
Wire.write(i); // - write the field number/ID r.setClean(i);
Wire.write(data(i), dataSize(i)); // - write the field data
makeClean(i);
}
} }
Wire.endTransmission(); Wire.endTransmission();
delay(1); // some delay required between ending transmission and requesting? delay(1); // 1ms - some delay required between ending transmission and requesting?
// Retrieve all of the deltas. Mark any received field as dirty. // Retrieve all of the deltas. Mark any received field as dirty.
Wire.requestFrom(I2CMETER_ADDR, numBytes); Wire.requestFrom(I2CMETER_ADDR, numBytes);

73
TeensyDSP/RigState.h
View File

@@ -3,12 +3,6 @@
#include <Arduino.h> #include <Arduino.h>
#define UBITX_VFOA_UPDATE 0x00000001
#define UBITX_VFOB_UPDATE 0x00000002
#define UBITX_RIT_UPDATE 0x00000004
#define UBITX_XIT_UPDATE 0x00000008
#define UBITX_FLAGS_UPDATE 0x00000010
#define UBITX_VFOB_FLAG 0x00000001 #define UBITX_VFOB_FLAG 0x00000001
#define UBITX_SPLIT_FLAG 0x00000002 #define UBITX_SPLIT_FLAG 0x00000002
#define UBITX_RIT_FLAG 0x00000004 #define UBITX_RIT_FLAG 0x00000004
@@ -17,14 +11,68 @@
#define UBITX_USB_FLAG 0x00000020 #define UBITX_USB_FLAG 0x00000020
#define UBITX_TX_FLAG 0x00000040 #define UBITX_TX_FLAG 0x00000040
struct UBitxRigState { enum RigStateWord {
uint32_t header = 0; DIRTY_WORD = 0,
uint32_t vfo[2]; VFOA_WORD,
int32_t rit; VFOB_WORD,
int32_t xit; OFFSETS_WORD,
uint32_t flags = 0; FLAGS_WORD,
NUM_WORDS
}; };
struct UBitxRigState {
uint32_t data[RigStateWord.NUM_WORDS] = {0};
/*!
* @brief Set the dirty bit for for the specified word.
*/
inline void setDirty(RigStateWord w) {
data[i] |= w < NUM_WORDS ? 1 << w : 0;
}
inline void setClean(RigStateWord w) {
data[i] &= ~(w < NUM_WORDS ? 1 << w : 0);
}
inline bool isDirty(RigStateWord w) {
return (1 << w) & data[DIRTY_WORD] > 0 ? true : false;
}
inline void setFreqA(uint32_t freq) { data[VFOA_WORD] = freq; }
inline uint32_t getFreqA() const { return data[VFOA_WORD]; }
inline void getFreqB(uint32_r freq) { data[VFOB_WORD] = freq; }
inline uint32_t getFreqB() const { return data[VFOB_WORD]; }
inline void setRIT(int16_t offset) { data[OFFSETS_WORD] = (offset << 16) | (0x0000FFFF & data[OFFSETS_WORD]); }
inline int16_t getRIT() const { return data[OFFSETS_WORD] >> 16; }
inline void setXIT(int16_t offset) { data[OFFSETS_WORD] = (0xFFFF0000 & data[OFFSETS_WORD]) | offset;
inline int16_t getXIT() const { return 0x0000FFFF & data[OFFSETS_WORD]; }
inline void setVFOA() { data[FLAGS_WORD] &= ~UBITX_VFOB_FLAG; }
inline void setVFOB() { data[FLAGS_WORD] |= UBITX_VFOB_FLAG; }
inline bool isVFOA() const { return data[FLAGS_WORD] & UBITX_VFOB_FLAG ? false : true; }
inline bool isVFOB() const { return data[FLAGS_WORD] & UBITX_VFOB_FLAG ? true : false; }
inline void setSplitOn() { data[FLAGS_WORD] |= UBITX_SPLIT_FLAG; }
inline void setSplitOff() { data[FLAGS_WORD] &= ~UBITX_SPLIT_FLAG; }
inline bool isSplit() const { data[FLAGS_WORD] & UBITX_SPLIT_FLAG ? true : false; }
inline void setRITOn() { data[FLAGS_WORD] |= UBITX_RIT_FLAG; }
inline void setRITOff() { data[FLAGS_WORD] &= ~UBITX_RIT_FLAG; }
inline bool isRIT() const { data[FLAGS_WORD] & UBITX_RIT_FLAG ? true : false; }
inline void setXITOn() { data[FLAGS_WORD] |= UBITX_XIT_FLAG; }
inline void setXITOff() { data[FLAGS_WORD] &= ~UBITX_XIT_FLAG; }
inline bool isXIT() const { data[FLAGS_WORD] & UBITX_XIT_FLAG ? true : false; }
inline void setUSB() { data[FLAGS_WORD] |= UBITX_USB_FLAG; data[FLAGS_WORD] &= ~UBITX_CW_FLAG; }
inline void setLSB() { data[FLAGS_WORD] &= ~UBITX_USB_FLAG; data[FLAGS_WORD] &= ~UBITX_CW_FLAG; }
inline void setCW() { data[FLAGS_WORD] |= UBITX_USB_FLAG; data[FLAGS_WORD] |= UBITX_CW_FLAG; }
inline void setCWR() { data[FLAGS_WORD] &= ~UBITX_USB_FLAG; data[FLAGS_WORD] |= UBITX_CW_FLAG; }
inline bool isUSB() { return (data[FLAGS_WORD] & UBITX_USB_FLAG > 0) && (data[FLAGS_WORD] & UBITX_CW_FLAG == 0); }
inline bool isLSB() { return (data[FLAGS_WORD] & UBITX_USB_FLAG == 0) && (data[FLAGS_WORD] & UBITX_CW_FLAG == 0); }
inline bool isCW() { return (data[FLAGS_WORD] & UBITX_USB_FLAG > 0) && (data[FLAGS_WORD] & UBITX_CW_FLAG > 0); }
inline bool isCWR() { return (data[FLAGS_WORD] & UBITX_USB_FLAG == 0) && (data[FLAGS_WORD] & UBITX_CW_FLAG > 0); }
};
#ifndef TEENSYDUINO
void mergeDirty(const RigState& r);
#endif
/**********************************************************************/ /**********************************************************************/
// NEW IMPLEMENTATION // NEW IMPLEMENTATION
@@ -58,7 +106,6 @@ struct Field : public BaseField {
virtual void write() const { W(data); } virtual void write() const { W(data); }
}; };
#define WIREBUS_NULL 0 // an empty field
#define WIREBUS_VFO_A 1 #define WIREBUS_VFO_A 1
#define WIREBUS_VFO_B 2 #define WIREBUS_VFO_B 2
#define WIREBUS_RIT_OFS 3 #define WIREBUS_RIT_OFS 3