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tinySA/si4468.c

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/*
* This is free software; you can redistribute it and/or modify
* it under the terms of the GNU General Public License as published by
* the Free Software Foundation; either version 3, or (at your option)
* any later version.
*
* The software is distributed in the hope that it will be useful,
* but WITHOUT ANY WARRANTY; without even the implied warranty of
* MERCHANTABILITY or FITNESS FOR A PARTICULAR PURPOSE. See the
* GNU General Public License for more details.
*
* You should have received a copy of the GNU General Public License
* along with GNU Radio; see the file COPYING. If not, write to
* the Free Software Foundation, Inc., 51 Franklin Street,
* Boston, MA 02110-1301, USA.
*/
#include "ch.h"
#include "hal.h"
#include "nanovna.h"
#include <math.h>
#include "si4432.h"
#include "spi.h"
#pragma GCC push_options
#pragma GCC optimize ("O2")
//#define __USE_FFR_FOR_RSSI__
// Define for use hardware SPI mode
#define USE_HARDWARE_SPI_MODE
// 10MHz clock
#define SI4432_10MHZ 10000000U
// !!!! FROM ili9341.c for disable it !!!!
//#define LCD_CS_HIGH palSetPad(GPIOB, GPIOB_LCD_CS)
// Not use delays for CS
#if 1
#define SI_CS_DELAY
#define PE_CS_DELAY
#define ADF_CS_DELAY
#else
#define SI_CS_DELAY {__asm("NOP");__asm("NOP");__asm("NOP");__asm("NOP");}
#define PE_CS_DELAY {__asm("NOP");__asm("NOP");__asm("NOP");__asm("NOP");}
#define ADF_CS_DELAY {__asm("NOP");__asm("NOP");__asm("NOP");__asm("NOP");}
#endif
#define SI_CS_LOW {palClearLine(LINE_RX_SEL);SI_CS_DELAY;}
#define SI_CS_HIGH {SI_CS_DELAY;palSetLine(LINE_RX_SEL);}
#define SI_SDN_LOW palClearLine(LINE_RX_SDN);
#define SI_SDN_HIGH palSetLine(LINE_RX_SDN);
// Hardware or software SPI use
#ifdef USE_HARDWARE_SPI_MODE
#define SI4432_SPI SPI1
// Check device SPI clock speed
#if STM32_PCLK2 > 48000000 // 48 or 72M MCU
// On 72M MCU STM32_PCLK2 = 72M, SPI = 72M/4 = 18M
//#define SI4432_SPI_SPEED SPI_BR_DIV4
#define SI4432_SPI_SPEED SPI_BR_DIV8
#else
// On 48M MCU STM32_PCLK2 = 48M, SPI = 48M/2 = 24M
//#define SI4432_SPI_SPEED SPI_BR_DIV2
#define SI4432_SPI_SPEED SPI_BR_DIV4
#endif
//#define ADF_SPI_SPEED SPI_BR_DIV64
//#define ADF_SPI_SPEED SPI_BR_DIV32
#define ADF_SPI_SPEED SPI_BR_DIV2
#define PE4302_HW_SHIFT true
#define PE_SPI_SPEED SPI_BR_DIV8
#define PE_SW_DELAY 2
static uint32_t old_spi_settings;
#else
static uint32_t new_port_moder;
#endif
static uint32_t old_port_moder;
#define SPI1_CLK_HIGH palSetPad(GPIOB, GPIOB_SPI_SCLK)
#define SPI1_CLK_LOW palClearPad(GPIOB, GPIOB_SPI_SCLK)
#define SPI1_SDI_HIGH palSetPad(GPIOB, GPIOB_SPI_MOSI)
#define SPI1_SDI_LOW palClearPad(GPIOB, GPIOB_SPI_MOSI)
#define SPI1_RESET palClearPort(GPIOB, (1<<GPIOB_SPI_SCLK)|(1<<GPIOB_SPI_MOSI))
#define SPI1_SDO ((palReadPort(GPIOB)>>GPIOB_SPI_MISO)&1)
#define SPI1_portSDO (palReadPort(GPIOB)&(1<<GPIOB_SPI_MISO))
#ifdef __PE4302__
#define CS_PE_HIGH {PE_CS_DELAY;palSetLine(LINE_PE_SEL);}
#define CS_PE_LOW {PE_CS_DELAY;palClearLine(LINE_PE_SEL);}
#endif
//#define MAXLOG 1024
//unsigned char SI4432_logging[MAXLOG];
//volatile int log_index = 0;
//#define SI4432_log(X) { if (log_index < MAXLOG) SI4432_logging[log_index++] = X; }
#define SI4432_log(X)
void start_SI4432_SPI_mode(void){
#ifdef USE_HARDWARE_SPI_MODE
old_spi_settings = SI4432_SPI->CR1;
SPI_BR_SET(SI4432_SPI, SI4432_SPI_SPEED);
#else
// Init legs mode for software bitbang
old_port_moder = GPIOB->MODER;
new_port_moder = old_port_moder & ~(PIN_MODE_ANALOG(GPIOB_SPI_SCLK)|PIN_MODE_ANALOG(GPIOB_SPI_MISO)|PIN_MODE_ANALOG(GPIOB_SPI_MOSI));
new_port_moder|= PIN_MODE_OUTPUT(GPIOB_SPI_SCLK)|PIN_MODE_INPUT(GPIOB_SPI_MISO)|PIN_MODE_OUTPUT(GPIOB_SPI_MOSI);
GPIOB->MODER = new_port_moder;
// Pull down SPI
SPI1_SDI_LOW;
SPI1_CLK_LOW;
#endif
}
void stop_SI4432_SPI_mode(void){
#ifdef USE_HARDWARE_SPI_MODE
SI4432_SPI->CR1 = old_spi_settings;
#else
// Restore hardware SPI
GPIOB->MODER = old_port_moder;
#endif
}
void start_PE4312_SPI_mode(void){
// Init legs mode for software bitbang
old_spi_settings = SI4432_SPI->CR1;
old_port_moder = GPIOB->MODER;
uint32_t new_port_moder = old_port_moder & ~(PIN_MODE_ANALOG(GPIOB_SPI_SCLK)|PIN_MODE_ANALOG(GPIOB_SPI_MISO)|PIN_MODE_ANALOG(GPIOB_SPI_MOSI));
new_port_moder|= PIN_MODE_OUTPUT(GPIOB_SPI_SCLK)|PIN_MODE_INPUT(GPIOB_SPI_MISO)|PIN_MODE_OUTPUT(GPIOB_SPI_MOSI);
GPIOB->MODER = new_port_moder;
// Pull down SPI
SPI1_SDI_LOW;
SPI1_CLK_LOW;
}
void stop_PE4312_SPI_mode(void){
// Restore hardware SPI
GPIOB->MODER = old_port_moder;
SI4432_SPI->CR1 = old_spi_settings;
}
#if 0
static void software_shiftOut(uint8_t val)
{
SI4432_log(SI4432_Sel);
SI4432_log(val);
uint8_t i = 0;
do {
if (val & 0x80)
SPI1_SDI_HIGH;
my_microsecond_delay(PE_SW_DELAY);
SPI1_CLK_HIGH;
my_microsecond_delay(PE_SW_DELAY);
SPI1_RESET;
val<<=1;
}while((++i) & 0x07);
}
#endif
static void shiftOut(uint8_t val)
{
#ifdef USE_HARDWARE_SPI_MODE
while (SPI_TX_IS_NOT_EMPTY(SI4432_SPI));
SPI_WRITE_8BIT(SI4432_SPI, val);
while (SPI_IS_BUSY(SI4432_SPI)) // drop rx and wait tx
(void)SPI_READ_8BIT(SI4432_SPI);
#else
SI4432_log(SI4432_Sel);
SI4432_log(val);
uint8_t i = 0;
do {
SPI1_SDI_HIGH;
SPI1_CLK_HIGH;
SPI1_RESET;
val<<=1;
}while((++i) & 0x07);
#endif
}
static uint8_t shiftIn(void)
{
#ifdef USE_HARDWARE_SPI_MODE
// while (SPI_TX_IS_NOT_EMPTY(SI4432_SPI));
SPI_WRITE_8BIT(SI4432_SPI, 0xFF);
while (SPI_RX_IS_EMPTY(SI4432_SPI)) ; // drop rx and wait tx
return SPI_READ_8BIT(SI4432_SPI);
#else
uint32_t value = 0;
uint8_t i = 0;
do {
value<<=1;
SPI1_CLK_HIGH;
value|=SPI1_portSDO;
SPI1_CLK_LOW;
}while((++i) & 0x07);
return value>>GPIOB_SPI_MISO;
#endif
}
uint32_t SI4432_step_delay = 1500;
uint32_t SI4432_offset_delay = 1500;
#define MINIMUM_WAIT_FOR_RSSI 280
//------------PE4302 -----------------------------------------------
#ifdef __PE4302__
void PE4302_init(void) {
CS_PE_LOW;
}
static unsigned char old_attenuation = 255;
bool PE4302_Write_Byte(unsigned char DATA )
{
// if (old_attenuation == DATA) /// Must always have same execution time
// return false;
old_attenuation = DATA;
#ifdef __ARW621__
DATA = DATA << 1;
#endif
#if PE4302_HW_SHIFT
set_SPI_mode(SPI_MODE_SI);
if (SI4432_SPI_SPEED != PE_SPI_SPEED)
SPI_BR_SET(SI4432_SPI, PE_SPI_SPEED);
SPI_WRITE_8BIT(SI4432_SPI, DATA);
while (SPI_IS_BUSY(SI4432_SPI));
#else // Run PE4312 in SW mode to avoid disturbances
set_SPI_mode(SPI_MODE_PE);
software_shiftOut(DATA);
#endif
CS_PE_HIGH;
my_microsecond_delay(PE_SW_DELAY);
CS_PE_LOW;
my_microsecond_delay(PE_SW_DELAY);
#if PE4302_HW_SHIFT
if (SI4432_SPI_SPEED != PE_SPI_SPEED)
SPI_BR_SET(SI4432_SPI, SI4432_SPI_SPEED);
#endif
return true;
}
#endif
//------------------------------- ADF4351 -------------------------------------
#define bitRead(value, bit) (((value) >> (bit)) & 0x01)
#define bitSet(value, bit) ((value) |= (1UL << (bit)))
#define bitClear(value, bit) ((value) &= ~(1UL << (bit)))
#define bitWrite(value, bit, bitvalue) ((bitvalue) ? bitSet(value, bit) : bitClear(value, bit))
#define maskedWrite(reg, bit, mask, value) (reg) &= ~(((uint32_t)mask) << (bit)); (reg) |= ((((uint32_t) (value)) & ((uint32_t)mask)) << (bit));
freq_t local_setting_frequency_30mhz_x100 = 3000000000;
#define CS_ADF0_HIGH {palSetLine(LINE_LO_SEL);ADF_CS_DELAY;}
#define CS_ADF1_HIGH {ADF_CS_DELAY;palSetLine(LINE_LO_SEL);}
#define CS_ADF0_LOW {palClearLine(LINE_LO_SEL);ADF_CS_DELAY;}
#define CS_ADF1_LOW {ADF_CS_DELAY;palClearLine(LINE_LO_SEL);}
#define CS_ADF_LOW(ch) {palClearLine(ch);ADF_CS_DELAY;}
#define CS_ADF_HIGH(ch) {ADF_CS_DELAY;palSetLine(ch);}
uint32_t registers[6] = {0xC88000, 0x8008011, 0x1800C642, 0x48963,0xA5003C , 0x580005} ; //10 MHz ref
uint32_t old_registers[6];
int debug = 0;
ioline_t ADF4351_LE[2] = { LINE_LO_SEL, LINE_LO_SEL};
//int ADF4351_Mux = 7;
bool ADF4351_frequency_changed = false;
//#define DEBUG(X) // Serial.print( X )
//#define DEBUGLN(X) Serial.println( X )
//#define DEBUGFLN(X,Y) Serial.println( X,Y )
//#define DEBUGF(X,Y) Serial.print( X,Y )
#define DEBUG(X)
#define DEBUGLN(X)
#define XTAL 300000000
uint64_t PFDRFout[6] = {XTAL,XTAL,XTAL,10000000,10000000,10000000}; //Reference freq in MHz
int64_t
ADF4350_modulo = 0, // Linked to spur table!!!!!
target_freq;
int old_R = 0;
#ifdef __SI5351__
#include "si5351.h"
#else
int si5351_available = false;
#endif
void ADF4351_Setup(void)
{
// palSetPadMode(GPIOA, 1, PAL_MODE_OUTPUT_PUSHPULL );
// palSetPadMode(GPIOA, 2, PAL_MODE_OUTPUT_PUSHPULL );
local_setting_frequency_30mhz_x100 = config.setting_frequency_30mhz;
#ifdef __SI5351__
si5351_available = si5351_init();
if (si5351_available)
si5351_set_frequency(0, 30000000, 0);
si5351_available = false; // Don't use shifting
#endif
// SPI3_CLK_HIGH;
// SPI3_SDI_HIGH;
CS_ADF0_HIGH;
// CS_ADF1_HIGH;
// bitSet (registers[2], 17); // R set to 8
// bitClear (registers[2], 14); // R set to 8
// while(1) {
//
ADF4351_R_counter(1);
ADF4351_CP(0);
ADF4351_fastlock(1); // Fastlock enabled
ADF4351_csr(1); //Cycle slip enabled
ADF4351_set_frequency(0,200000000);
ADF4351_mux(2); // No led
// ADF4351_mux(6); // Show lock on led
}
void ADF4351_WriteRegister32(int channel, const uint32_t value)
{
// Select chip
CS_ADF_LOW(ADF4351_LE[channel]);
// Send 32 bit register
#if 1
SPI_WRITE_8BIT(SI4432_SPI, (value >> 24));
SPI_WRITE_8BIT(SI4432_SPI, (value >> 16));
SPI_WRITE_8BIT(SI4432_SPI, (value >> 8));
SPI_WRITE_8BIT(SI4432_SPI, (value >> 0));
while (SPI_IS_BUSY(SI4432_SPI)); // drop rx and wait tx
#else
shiftOut((value >> 24) & 0xFF);
shiftOut((value >> 16) & 0xFF);
shiftOut((value >> 8) & 0xFF);
shiftOut((value >> 0) & 0xFF);
#endif
// unselect
CS_ADF_HIGH(ADF4351_LE[channel]);
}
void ADF4351_Set(int channel)
{
#if 0
for (int i = 5; i >= 0; i--) {
if (registers[i] != old_registers[i])
goto update;
}
return;
update:
#endif
set_SPI_mode(SPI_MODE_SI);
if (SI4432_SPI_SPEED != ADF_SPI_SPEED)
SPI_BR_SET(SI4432_SPI, ADF_SPI_SPEED);
for (int i = 5; i >= 0; i--) {
#if 0
if (i == 0 || registers[i] != old_registers[i])
#endif
ADF4351_WriteRegister32(channel, registers[i]);
old_registers[i] = registers[i];
}
if (SI4432_SPI_SPEED != ADF_SPI_SPEED)
SPI_BR_SET(SI4432_SPI, SI4432_SPI_SPEED);
}
static freq_t prev_actual_freq = 0;
void ADF4351_force_refresh(void) {
prev_actual_freq = 0;
for (int i = 5; i >= 0; i--)
old_registers[i] = 0;
}
void ADF4351_modulo(int m)
{
ADF4350_modulo = m;
// ADF4351_set_frequency(0, (uint64_t)prev_actual_freq);
}
uint64_t ADF4351_set_frequency(int channel, uint64_t freq) // freq / 10Hz
{
uint64_t actual_freq = ADF4351_prepare_frequency(channel,freq);
if (actual_freq != prev_actual_freq) {
ADF4351_frequency_changed = true;
ADF4351_Set(channel);
prev_actual_freq = actual_freq;
}
return actual_freq;
}
void ADF4351_spur_mode(int S)
{
bitWrite(registers[2], 29, S & 1);
bitWrite(registers[2], 30, S & 2);
ADF4351_Set(0);
}
void ADF4351_R_counter(int R)
{
if (R == old_R)
return;
old_R = R;
int dbl = false;
if (R < 0) {
dbl = true;
R = -R;
}
if (R<1)
return;
bitWrite(registers[2], 25, dbl); // Reference doubler
for (int channel=0; channel < 6; channel++) {
PFDRFout[channel] = (local_setting_frequency_30mhz_x100 * (dbl?2:1)) / R;
}
maskedWrite(registers[2],14, 0x3FF, R);
// ADF4351_Set(0); // Let next frequency set do the writing
// ADF4351_force_refresh();
clear_frequency_cache(); // When R changes the possible frequencies will change
}
void ADF4351_recalculate_PFDRFout(void){
int local_r = old_R;
old_R = -1;
local_setting_frequency_30mhz_x100 = config.setting_frequency_30mhz;
ADF4351_R_counter(local_r);
}
#ifdef __SI5351__
static int shifted = -2;
#define SHIFT_MUL 31
#define SHIFT_DIV 29
#define SHIFT_FACTOR 100000
void ADF4350_shift_ref(int f) {
if (f == shifted)
return;
shifted = false;
local_setting_frequency_30mhz_x100 = config.setting_frequency_30mhz;
if (shifted) {
local_setting_frequency_30mhz_x100 = (local_setting_frequency_30mhz_x100 * SHIFT_MUL) / SHIFT_DIV;
}
if (si5351_available && shifted)
si5351_set_int_mul_div(0, SHIFT_MUL, SHIFT_DIV, 0);
else
si5351_set_int_mul_div(0, 30, 30, 0);
ADF4351_recalculate_PFDRFout();
shifted = f;
}
#endif
void ADF4351_mux(int R)
{
maskedWrite(registers[2],26, 0x7, R);
// registers[2] &= ~(((uint32_t) 0x7) << 26);
// registers[2] |= (((uint32_t)R & 0x07) << 26);
ADF4351_Set(0);
}
void ADF4351_csr(int c)
{
maskedWrite(registers[3],18, 0x1, c);
// registers[3] &= ~(((uint32_t) 0x1) << 18);
// registers[3] |= (((uint32_t)c & 0x01) << 18);
ADF4351_Set(0);
}
void ADF4351_fastlock(int c)
{
maskedWrite(registers[3],15, 0x3, c);
// registers[3] &= ~(((uint32_t) 0x3) << 15);
// registers[3] |= (((uint32_t)c & 0x03) << 15);
ADF4351_Set(0);
}
void ADF4351_CP(int p)
{
maskedWrite(registers[2],9, 0xF, p);
// registers[2] &= ~(((uint32_t)0xF) << 9);
// registers[2] |= (((uint32_t) p) << 9);
ADF4351_Set(0);
}
void ADF4351_drive(int p)
{
if (((registers[4] >> 3) & 0x03 ) == (p & 0x03))
return;
maskedWrite(registers[4],3, 0x3, p);
// p &= 0x03;
// registers[4] &= ~(((uint32_t)0x3) << 3);
// registers[4] |= (((uint32_t) p) << 3);
ADF4351_Set(0);
my_microsecond_delay(1000);
}
void ADF4351_aux_drive(int p)
{
if (((registers[4] >> 6) & 0x03 ) == (p & 0x03))
return;
maskedWrite(registers[4],6, 0x3, p);
// p &= 0x03;
// registers[4] &= ~(((uint32_t)0x3) << 6);
// registers[4] |= (((uint32_t) p) << 6);
ADF4351_Set(0);
}
#if 0
static uint32_t gcd(uint32_t x, uint32_t y)
{
uint32_t z;
while (y != 0) {
z = x % y;
x = y;
y = z;
}
return x;
}
#endif
uint64_t ADF4351_prepare_frequency(int channel, uint64_t freq) // freq / 10Hz
{
uint32_t output_divider;
target_freq = freq;
if (freq >= 2200000000) {
output_divider = 1 * FREQ_MULTIPLIER;
bitWrite (registers[4], 22, 0);
bitWrite (registers[4], 21, 0);
bitWrite (registers[4], 20, 0);
} else if (freq >= 1100000000) {
output_divider = 2 * FREQ_MULTIPLIER;
bitWrite (registers[4], 22, 0);
bitWrite (registers[4], 21, 0);
bitWrite (registers[4], 20, 1);
} else if (freq >= 550000000) {
output_divider = 4 * FREQ_MULTIPLIER;
bitWrite (registers[4], 22, 0);
bitWrite (registers[4], 21, 1);
bitWrite (registers[4], 20, 0);
} else if (freq >= 275000000) {
output_divider = 8 * FREQ_MULTIPLIER;
bitWrite (registers[4], 22, 0);
bitWrite (registers[4], 21, 1);
bitWrite (registers[4], 20, 1);
} else { // > 137500000
output_divider = 16 * FREQ_MULTIPLIER;
bitWrite (registers[4], 22, 1);
bitWrite (registers[4], 21, 0);
bitWrite (registers[4], 20, 0);
}
uint32_t PFDR = (uint32_t)PFDRFout[channel];
uint32_t MOD = ADF4350_modulo;
if (MOD == 0)
MOD = 60;
uint32_t MOD_X2 = MOD<<1;
uint32_t INTA_F = ((freq * (uint64_t)output_divider) * (uint64_t)MOD_X2/ PFDR) + 1;
uint32_t INTA = INTA_F / MOD_X2;
uint32_t FRAC = (INTA_F - INTA * MOD_X2)>>1;
if (FRAC >= MOD) {
FRAC -= MOD;
INTA++;
}
#if 0 // No visible performance improvement
uint32_t reduce = gcd(MOD, FRAC);
if (reduce>1) {
FRAC /= reduce;
MOD /= reduce;
if (MOD == 1)
MOD=2;
}
#endif
uint64_t actual_freq = ((uint64_t)PFDR *(INTA * MOD +FRAC))/output_divider / MOD;
#if 0 // Only for debugging
int max_delta = PFDRFout[channel]/output_divider/MOD/100;
if (actual_freq < freq - max_delta || actual_freq > freq + max_delta ){
while(1)
my_microsecond_delay(10);
}
max_delta = freq - actual_freq;
if (max_delta > 200000 || max_delta < -200000 || freq == 0) {
while(1)
my_microsecond_delay(10);
}
if (FRAC >= MOD ){
while(1)
my_microsecond_delay(10);
}
#endif
bitWrite (registers[4], 10, 1); // Mute till lock detect
registers[0] = 0;
registers[0] = INTA << 15; // OK
registers[0] = registers[0] + (FRAC << 3);
if (MOD == 1) MOD = 2;
registers[1] = 0;
registers[1] = MOD << 3;
registers[1] |= 1 ; // restore register address "001"
registers[1] |= 1 << 15; // Set PHASE to 1
bitSet (registers[1], 27); // Prescaler at 8/9
return actual_freq;
}
void ADF4351_enable(int s)
{
if (bitRead(registers[4],11) != (s & 0x01))
return;
if (s)
bitClear(registers[4], 11); // Inverse logic!!!!!
else
bitSet(registers[4], 11);
ADF4351_Set(0);
osalThreadSleepMilliseconds(10);
}
void ADF4351_enable_aux_out(int s)
{
if (bitRead(registers[4],8) == (s & 0x01))
return;
if (s) {
bitSet(registers[4], 8);
maskedWrite(registers[4],6, 0x3, 3); // Max drive aux out
} else
bitClear(registers[4], 8);
ADF4351_Set(0);
osalThreadSleepMilliseconds(10);
}
void ADF4351_enable_out(int s)
{
if (bitRead(registers[4],5) == (s & 0x01))
return;
if (s) {
bitClear(registers[4], 11); // Disable VCO power down
bitClear(registers[2], 5); // Disable power down
bitSet(registers[4], 5); // Enable output
} else {
bitClear(registers[4], 5); // Disable output
bitSet(registers[2], 5); // Enable power down
bitSet(registers[4], 11); // Enable VCO power down
}
ADF4351_Set(0);
osalThreadSleepMilliseconds(1);
}
// ------------------------------ SI4468 -------------------------------------
bool SI4463_frequency_changed = false;
bool SI4463_offset_changed = false;
int SI4463_offset_value = 0;
uint8_t SI4463_rbw_selected = 0;
static int SI4463_band = -1;
//static freq_t SI4463_prev_freq = 0;
//static float SI4463_step_size = 100; // Will be recalculated once used
static uint8_t SI4463_channel = 0;
static uint8_t SI4463_in_tx_mode = false;
//int SI4463_R = 5;
static int SI4463_output_level = 0x20;
static si446x_state_t SI4463_get_state(void);
static int SI4463_set_state(si446x_state_t);
#define SI4463_READ_CTS (palReadLine(LINE_RX_CTS))
#define SI4463_CTS_TIMEOUT 10000000
#ifdef __WAIT_CTS_WHILE_SLEEPING__
extern volatile int sleep;
#if 0
#define SI4463_WAIT_CTS while (!SI4463_READ_CTS) {\
if (sleep) {\
CS_PE_HIGH;\
__WFI();\
CS_PE_LOW;\
} \
};
#else
inline int SI4463_wait_CTS(void) {
int t=0;
while (!SI4463_READ_CTS) {
t++;
if (t >=SI4463_CTS_TIMEOUT)
return -1;
}
return 0;
}
#define SI4463_WAIT_CTS SI4463_wait_CTS()
//#define SI4463_WAIT_CTS {int t=0; while (!SI4463_READ_CTS) { t++; if (t >=SI4463_CTS_TIMEOUT) ili9341_drawstring("SI4486 deadlock", 0,20);} }
#endif
#else
#define SI4463_WAIT_CTS while (!SI4463_READ_CTS) ;
#endif
#if 0 // not used
static void SI4463_write_byte(uint8_t ADR, uint8_t DATA)
{
set_SPI_mode(SPI_MODE_SI);
SI_CS_LOW;
ADR |= 0x80 ; // RW = 1
shiftOut( ADR );
shiftOut( DATA );
SI_CS_HIGH;
}
static void SI4463_write_buffer(uint8_t ADR, uint8_t *DATA, int len)
{
set_SPI_mode(SPI_MODE_SI);
SI_CS_LOW;
ADR |= 0x80 ; // RW = 1
shiftOut( ADR );
while (len-- > 0)
shiftOut( *(DATA++) );
SI_CS_HIGH;
}
#endif
static uint8_t SI4463_read_byte( uint8_t ADR )
{
uint8_t DATA ;
set_SPI_mode(SPI_MODE_SI);
SI_CS_LOW;
shiftOut( ADR );
DATA = shiftIn();
SI_CS_HIGH;
return DATA ;
}
#ifdef NOTUSED
static uint8_t SI4463_get_response(void* buff, uint8_t len)
{
uint8_t cts = 0;
// set_SPI_mode(SPI_MODE_SI);
cts = SI4463_READ_CTS;
if (!cts) {
return false;
}
// __disable_irq();
SI_CS_LOW;
shiftOut( SI446X_CMD_READ_CMD_BUFF );
cts = (shiftIn() == 0xFF);
if (cts)
{
// Get response data
for(uint8_t i=0;i<len;i++) {
((uint8_t*)buff)[i] = shiftIn();
}
}
SI_CS_HIGH;
// __enable_irq();
return cts;
}
#endif
void SI4463_do_first_api(void* data, uint8_t len, void* out, uint8_t outLen)
{
uint8_t *ptr = (uint8_t *)data;
set_SPI_mode(SPI_MODE_SI);
// SI4463_WAIT_CTS; // Wait for CTS
SI_CS_LOW;
#if 1 // Inline transfer
while (len--){
while (SPI_TX_IS_NOT_EMPTY(SI4432_SPI));
SPI_WRITE_8BIT(SI4432_SPI, *ptr++);
}
while (SPI_IS_BUSY(SI4432_SPI));
#else
while (len--)
shiftOut(*ptr++); // (pgm_read_byte(&((uint8_t*)data)[i]));
#endif
SI_CS_HIGH;
if(out == NULL) return; // If we have an output buffer then read command response into it
while (SPI_RX_IS_NOT_EMPTY(SI4432_SPI))
(void)SPI_READ_8BIT(SI4432_SPI); // Remove lingering bytes from SPI RX buffer
SI4463_WAIT_CTS; // Wait for CTS
SI_CS_LOW;
#if 1
SPI_WRITE_8BIT(SI4432_SPI, SI446X_CMD_READ_CMD_BUFF);
SPI_WRITE_8BIT(SI4432_SPI, 0xFF);
while (SPI_IS_BUSY(SI4432_SPI));
SPI_READ_16BIT(SI4432_SPI); // drop SI446X_CMD_READ_CMD_BUFF and CTS 0xFF
#else
shiftOut( SI446X_CMD_READ_CMD_BUFF );
shiftIn(); // Should always be 0xFF
#endif
// Get response data
ptr = (uint8_t *)out;
while (outLen--){
#if 1 // Inline transfer
SPI_WRITE_8BIT(SI4432_SPI, 0xFF);
while (SPI_RX_IS_EMPTY(SI4432_SPI)); //wait rx data in buffer
*ptr++ = SPI_READ_8BIT(SI4432_SPI);
#else
*ptr++ = shiftIn();
#endif
}
SI_CS_HIGH;
}
int SI4463_do_api(void* data, uint8_t len, void* out, uint8_t outLen)
{
uint8_t *ptr = (uint8_t *)data;
set_SPI_mode(SPI_MODE_SI);
if (SI4463_WAIT_CTS) return -1; // Wait for CTS
SI_CS_LOW;
#if 1 // Inline transfer
while (len--){
while (SPI_TX_IS_NOT_EMPTY(SI4432_SPI));
SPI_WRITE_8BIT(SI4432_SPI, *ptr++);
}
while (SPI_IS_BUSY(SI4432_SPI));
#else
while (len--)
shiftOut(*ptr++); // (pgm_read_byte(&((uint8_t*)data)[i]));
#endif
SI_CS_HIGH;
if(out == NULL) return 0; // If we have an output buffer then read command response into it
while (SPI_RX_IS_NOT_EMPTY(SI4432_SPI))
(void)SPI_READ_8BIT(SI4432_SPI); // Remove lingering bytes from SPI RX buffer
if (SI4463_WAIT_CTS) return -1; // Wait for CTS
SI_CS_LOW;
#if 1
SPI_WRITE_8BIT(SI4432_SPI, SI446X_CMD_READ_CMD_BUFF);
SPI_WRITE_8BIT(SI4432_SPI, 0xFF);
while (SPI_IS_BUSY(SI4432_SPI));
SPI_READ_16BIT(SI4432_SPI); // drop SI446X_CMD_READ_CMD_BUFF and CTS 0xFF
#else
shiftOut( SI446X_CMD_READ_CMD_BUFF );
shiftIn(); // Should always be 0xFF
#endif
// Get response data
ptr = (uint8_t *)out;
while (outLen--){
#if 1 // Inline transfer
SPI_WRITE_8BIT(SI4432_SPI, 0xFF);
while (SPI_RX_IS_EMPTY(SI4432_SPI)); //wait rx data in buffer
*ptr++ = SPI_READ_8BIT(SI4432_SPI);
#else
*ptr++ = shiftIn();
#endif
}
SI_CS_HIGH;
return 0;
}
#ifdef notused
static void SI4463_set_properties(uint16_t prop, void* values, uint8_t len)
{
// len must not be greater than 12
uint8_t data[16] = {
SI446X_CMD_SET_PROPERTY,
(uint8_t)(prop>>8),
len,
(uint8_t)prop
};
// Copy values into data, starting at index 4
memcpy(data + 4, values, len);
SI4463_do_api(data, len + 4, NULL, 0);
}
#endif
#include "si446x_cmd.h"
#include "radio_config_Si4468_undef.h"
#undef RADIO_CONFIGURATION_DATA_ARRAY
#include "radio_config_Si4468_default.h"
// Used in RBW setting
#define GLOBAL_GPIO_PIN_CFG 0x13, 0x07, 0x08, 0x00, 0x00, 0x00, 0x00, 0x00
#define GLOBAL_CLK_CFG 0x11, 0x00, 0x01, 0x01, 0x00
// ---------------------------------------------------------------------------------------------------- v ------------ RSSI control byte
#define GLOBAL_RF_MODEM_RAW_CONTROL 0x11, 0x20, 0x0A, 0x45, 0x03, 0x00, 0x00, 0x01, 0x00, 0x00, 0x00, 0x07, 0x10, 0x40
//0x11 SI446X_CMD_SET_PROPERTY
//0x20 SI446X_PROP_GROUP_MODEM
//0x0A 10 Count
//0x45 Start register
//0x03 [0x45] MODEM_RAW_CONTROL
//0x00 [0x46] RAWEYE[10:8]
//0x00 [0x47] RAWEYE[7:0]
//0x01 [0x48] MODEM_ANT_DIV_MODE
//0x00 [0x49] MODEM_ANT_DIV_CONTROL
//0xFF [0x4A] MODEM_RSSI_THRESH
//0x06 [0x4B] MODEM_RSSI_JUMP_THRESH
//0x18 [0x4C] MODEM_RSSI_CONTROL
//0x10 [0x4D] MODEM_RSSI_CONTROL2
//0x40 [0x4E] MODEM_RSSI_COMP
// -----------------------------------------------------------------------------------------------------^ --------------
#define GLOBAL_RF_MODEM_AGC_CONTROL 0x11, 0x20, 0x01, 0x35, 0xF1 // Override AGC gain increase
#undef RF_MODEM_AGC_CONTROL_1
#define RF_MODEM_AGC_CONTROL_1 GLOBAL_RF_MODEM_AGC_CONTROL
#undef RF_MODEM_AGC_WINDOW_SIZE_12_1
//#define RF_MODEM_AGC_WINDOW_SIZE_12_1 0x11, 0x20, 0x0C, 0x38, 0x11, 0x07, 0x07, 0x80, 0x02, 0x4C, 0xCD, 0x00, 0x27, 0x0C, 0x84, 0x23
#define RF_MODEM_AGC_WINDOW_SIZE_12_1 0x11, 0x20, 0x0C, 0x38, 0x11, 0x07, 0x07, 0x80, 0x1C, 0x4C, 0xCD, 0x00, 0x27, 0x0C, 0x84, 0x23
#undef RF_GPIO_PIN_CFG
#define RF_GPIO_PIN_CFG GLOBAL_GPIO_PIN_CFG
#undef RF_GLOBAL_CLK_CFG_1
#define RF_GLOBAL_CLK_CFG_1 GLOBAL_CLK_CFG
// Remember to change RF_MODEM_AFC_LIMITER_1_3_1 !!!!!!!!!
static const uint8_t SI4468_config[] = RADIO_CONFIGURATION_DATA_ARRAY;
// Set new state
static int SI4463_set_state(si446x_state_t newState)
{
uint8_t data[] = {
SI446X_CMD_CHANGE_STATE,
newState
};
return SI4463_do_api(data, sizeof(data), NULL, 0);
}
static uint8_t gpio_state[5] = {
SI446X_GPIO_MODE_DIV_CLK,
SI446X_GPIO_MODE_CTS,
SI446X_GPIO_MODE_DONOTHING,
SI446X_GPIO_MODE_DONOTHING,
SI446X_GPIO_MODE_DRIVE1
};
int SI4463_refresh_gpio(void)
{
uint8_t data2[] = {
SI446X_CMD_GPIO_PIN_CFG,
gpio_state[0], // GPIO[0]
gpio_state[1], // GPIO[1]
gpio_state[2], // GPIO[2] // High
gpio_state[3], // GPIO[3] // TX/RX
gpio_state[4], // NIRQ // Direct
0, // SDO
0 // GEN_CONFIG
};
return SI4463_do_api(data2, sizeof(data2), NULL, 0);
}
void SI4463_set_gpio(int i, int s)
{
if (gpio_state[i] == s)
return;
gpio_state[i] = s;
#if 0 // debug gpio
gpio_state[2] = 3;
gpio_state[3] = 2;
#endif
SI4463_refresh_gpio();
}
#if 0
static void SI4463_clear_FIFO(void)
{
// 'static const' saves 20 bytes of flash here, but uses 2 bytes of RAM
static const uint8_t clearFifo[] = {
SI446X_CMD_FIFO_INFO,
SI446X_FIFO_CLEAR_RX | SI446X_FIFO_CLEAR_TX
};
SI4463_do_api((uint8_t*)clearFifo, sizeof(clearFifo), NULL, 0);
}
#endif
void SI4463_set_output_level(int t)
{
SI4463_output_level = t;
if (SI4463_in_tx_mode) {
#if 1
{
uint8_t data[] = {
SI446X_CMD_SET_PROPERTY, 0x22, 0x04, 0x00, // PA_MODE
0x08, // Coarse PA mode and class E PA Fine PA mode = 0x04
(uint8_t)SI4463_output_level, // Level
0x00, // Duty
0x00 // Ramp
};
SI4463_do_api(data, sizeof(data), NULL, 0);
}
#else
SI4463_start_tx(0); // Refresh output level
#endif
}
}
void SI4463_start_tx(uint8_t CHANNEL)
{
// si446x_state_t s;
#if 0
s = SI4463_get_state();
if (s == SI446X_STATE_RX){
SI4463_set_state(SI446X_STATE_READY);
my_microsecond_delay(200);
s = SI4463_get_state();
if (s != SI446X_STATE_READY){
my_microsecond_delay(1000);
}
}
#endif
#if 1
{
uint8_t data[] = {
SI446X_CMD_SET_PROPERTY, 0x20, 0x01, 0x00,
0x00, // CW mode
};
SI4463_do_api(data, sizeof(data), NULL, 0);
}
#endif
#if 1
{
uint8_t data[] = {
SI446X_CMD_SET_PROPERTY, 0x22, 0x04, 0x00, // PA_MODE
0x08, // Coarse PA mode and class E PA Fine PA mode = 0x04
(uint8_t)SI4463_output_level, // Level
0x00, // Duty
0x00 // Ramp
};
SI4463_do_api(data, sizeof(data), NULL, 0);
}
#endif
// retry:
{
uint8_t data[] =
{
SI446X_CMD_ID_START_TX,
CHANNEL,
0, // Stay in TX state
0, // TX len
0, // TX len
0,// TX delay
0// Num repeat
};
SI4463_do_api(data, sizeof(data), NULL, 0);
}
SI4463_in_tx_mode = true;
my_microsecond_delay(1000);
#if 0 // Check state for debugging
s = SI4463_get_state();
if (s != SI446X_STATE_TX){
my_microsecond_delay(1000);
goto retry;
}
#endif
}
int SI4463_start_rx(uint8_t CHANNEL)
{
si446x_state_t s = SI4463_get_state();
if (s == SI446X_STATE_TX){
if (SI4463_set_state(SI446X_STATE_READY))
return -1;
}
if (SI4463_refresh_gpio()) return -1;
#if 0
{
uint8_t data[] =
{
0x11, 0x10, 0x01, 0x03, 0xf0
};
SI4463_do_api(data, sizeof(data), NULL, 0); // Send PREAMBLE_CONFIG_STD_2 for long timeout
}
{
uint8_t data[] =
{
0x11, 0x20, 0x01, 0x00, 0x09, // Restore OOK mode
};
SI4463_do_api(data, sizeof(data), NULL, 0);
}
#endif
uint8_t data[] = {
SI446X_CMD_ID_START_RX,
CHANNEL,
0,
0,
0,
#ifdef __USE_FFR_FOR_RSSI__
SI446X_CMD_START_RX_ARG_NEXT_STATE1_RXTIMEOUT_STATE_ENUM_RX,
#else
SI446X_CMD_START_RX_ARG_NEXT_STATE1_RXTIMEOUT_STATE_ENUM_NOCHANGE,
#endif
SI446X_CMD_START_RX_ARG_NEXT_STATE2_RXVALID_STATE_ENUM_RX,
SI446X_CMD_START_RX_ARG_NEXT_STATE3_RXINVALID_STATE_ENUM_RX
};
//retry:
if (SI4463_do_api(data, sizeof(data), NULL, 0))
return -1;
#if 0 // Get state for debugging
si446x_state_t s = SI4463_get_state();
if (s != SI446X_STATE_RX) {
my_microsecond_delay(1000);
goto retry;
}
#endif
#if 0
{
uint8_t data2[] = { 0x11, 0x20, 0x01, 0x58, 0x10 }; // set FAST_DELAY to 0x10,
SI4463_do_api(data2, sizeof(data2), NULL, 0);
}
#endif
SI4463_in_tx_mode = false;
return 0;
}
void SI4463_short_start_rx(void)
{
uint8_t data[] = {
SI446X_CMD_ID_START_RX,
};
SI4463_do_api(data, sizeof(data), NULL, 0);
SI4463_in_tx_mode = false;
}
void SI4463_clear_int_status(void)
{
uint8_t data[9] = {
SI446X_CMD_ID_GET_INT_STATUS
};
SI4463_do_api(data, 1, data, SI446X_CMD_REPLY_COUNT_GET_INT_STATUS);
}
void set_calibration_freq(int ref)
{
if (ref >= 0) {
SI4463_set_gpio(0, SI446X_GPIO_MODE_DIV_CLK); // GPIO 0 is clock out
uint8_t data2[5] = { // GLOBAL_CLK_CFG Clock config
SI446X_CMD_SET_PROPERTY, SI446X_PROP_GROUP_GLOBAL, 0x01, 0x01,
0x40|(ref<<3)// DIVIDED_CLK_EN = 1, DIVIDED_CLK_SEL = ref, CLK_32K_SEL = 0
};
SI4463_do_api(data2, 5, NULL, 0);
} else {
SI4463_set_gpio(0, SI446X_GPIO_MODE_TRISTATE); // stop clock out
}
}
si446x_info_t SI4463_info;
void Si446x_getInfo(si446x_info_t* info)
{
uint8_t data[8] = {SI446X_CMD_PART_INFO};
SI4463_do_api(data, 1, data, 8);
info->chipRev = data[0];
info->part = (data[1]<<8) | data[2];
info->partBuild = data[3];
info->id = (data[4]<<8) | data[5];
info->customer = data[6];
info->romId = data[7];
data[0] = SI446X_CMD_FUNC_INFO;
SI4463_do_api(data, 1, data, 6);
info->revExternal = data[0];
info->revBranch = data[1];
info->revInternal = data[2];
info->patch = (data[3]<<8) | data[4];
info->func = data[5];
}
float old_temp = -100;
#define TEMP_HISTERESE 0.5
float Si446x_get_temp(void)
{
uint8_t data[8] = { SI446X_CMD_GET_ADC_READING, 0x10, 0 };
SI4463_do_api(data, 3, data, 8);
float t = (data[4] << 8) + data[5];
t = (899.0 * t /4096.0) - 293.0;
if (t > old_temp - TEMP_HISTERESE && t < old_temp + TEMP_HISTERESE) {
return(old_temp);
}
old_temp = t;
return t;
}
#ifdef notused
static uint8_t SI4463_get_device_status(void)
{
uint8_t data[2] =
{
SI446X_CMD_ID_REQUEST_DEVICE_STATE, 0
};
SI4463_do_api(data, 1, data, SI446X_CMD_REPLY_COUNT_REQUEST_DEVICE_STATE);
return(data[0]);
}
#endif
// Read a fast response register
uint8_t getFRR(uint8_t reg)
{
set_SPI_mode(SPI_MODE_SI);
// SPI_BR_SET(SI4432_SPI, SI4432_SPI_SPEED);
return SI4463_read_byte(reg);
}
// Get current radio state
static si446x_state_t SI4463_get_state(void)
{
#if 0
#if 0
uint8_t data[2] = {
SI446X_CMD_REQUEST_DEVICE_STATE
};
SI4463_do_api(data, 1, data, 2);
uint8_t state = data[0] & 0x0F;
#endif
uint8_t state = SI4463_get_device_status();
#else
//again:
// SI4463_wait_for_cts();
uint8_t state = getFRR(SI446X_CMD_READ_FRR_B);
#endif
#if 0 // Only for debugging
if (state == 255) {
my_microsecond_delay(100);
goto again;
}
#endif
if(state == SI446X_STATE_TX_TUNE)
state = SI446X_STATE_TX;
else if(state == SI446X_STATE_RX_TUNE)
state = SI446X_STATE_RX;
else if(state == SI446X_STATE_READY2)
state = SI446X_STATE_READY;
else
state = state;
return (si446x_state_t)state;
}
void set_RSSI_comp(void)
{
// Set properties: RF_MODEM_RSSI_COMP_1
// Number of properties: 1
// Group ID: 0x20
// Start ID: 0x4E
// Default values: 0x40,
// Descriptions:
// MODEM_RSSI_COMP - RSSI compensation value.
//
// #define RF_MODEM_RSSI_COMP_1 0x11, 0x20, 0x01, 0x4E, 0x40
uint8_t data[5] = {
SI446X_CMD_SET_PROPERTY,
SI446X_PROP_GROUP_MODEM,
0x01,
0x4E, // MODEM_RSSI_COMP set as
0x40 // RSSI_COMP
};
SI4463_do_api(data, sizeof(data), NULL, 0);
}
static bool SI4463_offset_active = false;
static void SI4463_set_offset(int16_t offset){
// Set properties: MODEM_FREQ_OFFSET
// Number of properties: 2
// Group ID: 0x20
// Start ID: 0x0d
// Default values: 0x00, 0x00
// Descriptions:
// MODEM_FREQ_OFFSET1 - High byte of the offset
// MODEM_FREQ_OFFSET2 - Low byte of the offset
//
uint8_t data[] = {
SI446X_CMD_SET_PROPERTY,
SI446X_PROP_GROUP_MODEM,
0x02,
0x0d, // MODEM_FREQ_OFFSET
(uint8_t) ((offset>>8) & 0xff),
(uint8_t) ((offset) & 0xff)
};
SI4463_do_api(data, sizeof(data), NULL, 0);
SI4463_offset_changed = true;
SI4463_offset_active = (offset != 0);
}
// Set offset for frequency
void si_set_offset(int16_t offset) {
SI4463_offset_value = offset;
SI4463_set_offset(offset);
}
// Set additional offset for fm modulation output
void si_fm_offset(int16_t offset) {
SI4463_set_offset(offset + SI4463_offset_value);
}
#ifdef __FAST_SWEEP__
extern deviceRSSI_t age[POINTS_COUNT];
static int buf_index = 0;
static bool buf_read = false;
static char Si446x_readRSSI(void){
char rssi;
#ifdef __USE_FFR_FOR_RSSI__
#if 0 // Restart RX, not needed as modem stays in RX mode
SI4463_WAIT_CTS; // Wait for CTS
SPI_WRITE_8BIT(SI4432_SPI, SI446X_CMD_ID_START_RX);
while (SPI_IS_BUSY(SI4432_SPI)) ; // wait tx
SPI_READ_8BIT(SI4432_SPI); // Skip command byte response
#endif
while (SPI_RX_IS_NOT_EMPTY(SI4432_SPI))
(void)SPI_READ_8BIT(SI4432_SPI); // Remove lingering bytes
do {
SI_CS_LOW;
SPI_WRITE_8BIT(SI4432_SPI, SI446X_CMD_READ_FRR_A);
SPI_WRITE_8BIT(SI4432_SPI, 0xFF); // read FRR_A
while (SPI_IS_BUSY(SI4432_SPI)); // wait
SPI_READ_8BIT(SI4432_SPI);
rssi = SPI_READ_8BIT(SI4432_SPI); // get last byte as FRR_A (rssi)
SI_CS_HIGH;
} while (rssi == 0); // Wait for latch to happen
#elif 0
SI_CS_LOW;
SI4463_WAIT_CTS; // Wait for CTS
SPI_WRITE_8BIT(SI4432_SPI, SI446X_CMD_GET_MODEM_STATUS);
while (SPI_IS_BUSY(SI4432_SPI)) ; // wait tx
SI_CS_HIGH;
while (SPI_RX_IS_NOT_EMPTY(SI4432_SPI))
(void)SPI_READ_8BIT(SI4432_SPI); // Remove lingering bytes
SI4463_WAIT_CTS; // Wait for CTS
SI_CS_LOW;
SPI_WRITE_8BIT(SI4432_SPI, SI446X_CMD_READ_CMD_BUFF); // read answer
while (SPI_IS_BUSY(SI4432_SPI)) ; // wait tx
SPI_READ_8BIT(SI4432_SPI); // Drop SI446X_CMD_READ_CMD_BUFF read
SPI_WRITE_16BIT(SI4432_SPI, 0xFFFF); // begin read 2 bytes
SPI_WRITE_16BIT(SI4432_SPI, 0xFFFF); // next read 2 bytes
while (SPI_IS_BUSY(SI4432_SPI)); // wait tx
SPI_READ_8BIT(SI4432_SPI); // read CMD_ COMPLETE
SPI_READ_8BIT(SI4432_SPI); // MODEM_PEND
SPI_READ_8BIT(SI4432_SPI); // MODEM_STATUS
rssi = SPI_READ_8BIT(SI4432_SPI); // CURR_RSSI
// SPI_WRITE_8BIT(SI4432_SPI, 0xFF);
// while (SPI_IS_BUSY(SI4432_SPI)) ; // wait tx
// rssi = SPI_READ_8BIT(SI4432_SPI); // LATCH_RSSI
SI_CS_HIGH;
#else
uint8_t data[4];
data[0] = SI446X_CMD_GET_MODEM_STATUS;
SI4463_do_api(data, 1, data, 3);
rssi = data[2];
#endif
return rssi;
}
void SI446x_Fill(int s, int start)
{
(void)s;
set_SPI_mode(SPI_MODE_SI);
#if 0 // Only for testing
uint8_t data2[] = {
0x11, 0x20, 0x01, 0x4C, 0x03 // set RSSI control
};
SI4463_do_api(data2, sizeof(data2), NULL, 0);
uint8_t data[] = {
0x12, 0x20, 0x01, 0x4C // get RSSI control
};
SI4463_do_api(data, sizeof(data), data, 1);
#endif
// SPI_BR_SET(SI4432_SPI, SI4432_SPI_FASTSPEED);
uint32_t t = setting.additional_step_delay_us;
static uint32_t old_t = 0;
if (t < old_t +100 && t + 100 > old_t) { // avoid oscillation
t = (t + old_t) >> 1;
}
old_t = t;
systime_t measure = chVTGetSystemTimeX();
int i = start;
// For SI446X_CMD_READ_FRR_A need drop Rx buffer
#ifdef __USE_FFR_FOR_RSSI__
SI4463_WAIT_CTS; // Wait for CTS
while(SPI_RX_IS_NOT_EMPTY(SI4432_SPI)) (void)SPI_READ_8BIT(SI4432_SPI); // Remove lingering bytes
// Get first point data
pureRSSI_t last;
do{
SI_CS_LOW;
SPI_WRITE_8BIT(SI4432_SPI, SI446X_CMD_READ_FRR_A);
SPI_WRITE_8BIT(SI4432_SPI, 0xFF); // begin read 1 bytes
while (SPI_IS_BUSY(SI4432_SPI)) ; // wait tx
SPI_READ_8BIT(SI4432_SPI); // Skip command byte response
last = SPI_READ_8BIT(SI4432_SPI); // Get FRR A
SI_CS_HIGH;
} while (last == 0);
#endif
__disable_irq();
do {
#ifndef __USE_FFR_FOR_RSSI__
if (t)
my_microsecond_delay(t);
age[i] = Si446x_readRSSI();
if (++i >= sweep_points) break;
#else
// DEBUG!! restart
SI_CS_LOW;
SPI_WRITE_8BIT(SI4432_SPI, SI446X_CMD_READ_FRR_A);
SPI_WRITE_8BIT(SI4432_SPI, 0xFF); // begin read 1 bytes
while (SPI_IS_BUSY(SI4432_SPI)) ; // wait tx
SPI_READ_8BIT(SI4432_SPI); // Skip command byte response
age[i] = SPI_READ_8BIT(SI4432_SPI); // Get FRR A
SI_CS_HIGH;
// latched RSSI reset for next measure - use last known data, for stable measure time
if (age[i] == 0) age[i] = last;
last = age[i];
if (t)
my_microsecond_delay(t);
if (++i >= sweep_points) break;
#endif
} while(1);
__enable_irq();
setting.measure_sweep_time_us = sa_ST2US(chVTGetSystemTimeX() - measure);
buf_index = (start<=0 ? 0 : start); // Is used to skip 1st entry during level triggering
buf_read = true;
}
#endif
#ifdef __LISTEN__
const uint8_t dBm_to_volt [] =
{
255,
225,
198,
175,
154,
136,
120,
106,
93,
82,
72,
64,
56,
50,
44,
39,
34,
30,
26,
23,
21,
18,
16,
14,
12,
11,
10,
8,
7,
7,
6,
5,
5,
};
static int32_t RSSI_RAW = 0;
void SI4432_Listen(int s)
{
(void) s;
uint8_t max = 0;
uint16_t count = 0;
operation_requested = OP_NONE;
// SI4463_WAIT_CTS; // Wait for CTS
do {
uint8_t v = Si446x_readRSSI();
if (max < v) // Peak
max = v;
if (count > 1000) { // Decay
max -= 1;
count = 0;
} else
count++;
v = max - v;
DAC->DHR12R1 = dBm_to_volt[v] << 4; // Use DAC: CH1 and put 12 bit right aligned value
} while(operation_requested == OP_NONE);
count = 0;
// dacPutChannelX(&DACD2, 0, 0);
}
#endif
int16_t Si446x_RSSI(void)
{
#ifdef __FAST_SWEEP__
if (buf_read) {
if (buf_index == sweep_points-1)
buf_read = false;
return DEVICE_TO_PURE_RSSI(age[buf_index++]);
}
#endif
int i = setting.repeat;
if (setting.exp_aver == 1)
RSSI_RAW = 0;
// SI4463_WAIT_CTS; // Wait for CTS
do{
// if (MODE_INPUT(setting.mode) && RSSI_R
#define SAMPLE_COUNT 1
int j = SAMPLE_COUNT; //setting.repeat;
int RSSI_RAW_ARRAY[3];
do{
// if (setting.step_delay)
// my_microsecond_delay(setting.step_delay); // moved to sweep
RSSI_RAW_ARRAY[--j] = Si446x_readRSSI();
if (j == 0) break;
// my_microsecond_delay(20);
}while(1);
#if SAMPLE_COUNT == 3
int t;
if (RSSI_RAW_ARRAY[0] > RSSI_RAW_ARRAY[1]) {
t = RSSI_RAW_ARRAY[1];
RSSI_RAW_ARRAY[1] = RSSI_RAW_ARRAY[0];
RSSI_RAW_ARRAY[0] = t;
}
if (RSSI_RAW_ARRAY[1] > RSSI_RAW_ARRAY[2]) {
t = RSSI_RAW_ARRAY[2];
RSSI_RAW_ARRAY[2] = RSSI_RAW_ARRAY[1];
RSSI_RAW_ARRAY[1] = t;
}
if (RSSI_RAW_ARRAY[0] > RSSI_RAW_ARRAY[1]) {
t = RSSI_RAW_ARRAY[1];
RSSI_RAW_ARRAY[1] = RSSI_RAW_ARRAY[0];
RSSI_RAW_ARRAY[0] = t;
}
RSSI_RAW += DEVICE_TO_PURE_RSSI(RSSI_RAW_ARRAY[1]);
#else
#ifdef TINYSA4
if (setting.exp_aver == 1)
RSSI_RAW += DEVICE_TO_PURE_RSSI(RSSI_RAW_ARRAY[0]);
else
RSSI_RAW = ((setting.exp_aver-1) * RSSI_RAW + DEVICE_TO_PURE_RSSI(RSSI_RAW_ARRAY[0]))/setting.exp_aver;
#else
RSSI_RAW += DEVICE_TO_PURE_RSSI(RSSI_RAW_ARRAY[0]);
#endif
#endif
if (--i <= 0) break;
if (setting.repeat > 1)
my_microsecond_delay(SI4432_step_delay);
}while(1);
if (setting.repeat > 1 && setting.exp_aver == 1)
RSSI_RAW = RSSI_RAW / setting.repeat;
return RSSI_RAW;
}
void SI446x_set_AGC_LNA(uint8_t v)
{
uint8_t data[2] = {
0xd0, // AGC_OVERRIDE
v
};
SI4463_do_api(data, sizeof(data), NULL, 0);
#if 0
if (v == 0) {
data[0] = 0xd1; // Read AGC?????? NO
SI4463_do_api(data, 1, data, 1);
}
#endif
}
#ifdef notused
// Do an ADC conversion
static uint16_t getADC(uint8_t adc_en, uint8_t adc_cfg, uint8_t part)
{
uint8_t data[6] = {
SI446X_CMD_GET_ADC_READING,
adc_en,
adc_cfg
};
SI4463_do_api(data, 3, data, 6);
return (data[part]<<8 | data[part + 1]);
}
#endif
// -------------- 0.2 kHz ----------------------------
#include "radio_config_Si4468_undef.h"
#include "radio_config_Si4468_200Hz.h"
#include "radio_config_Si4468_short.h"
static const uint8_t SI4463_RBW_02kHz[] =
RADIO_CONFIGURATION_DATA_ARRAY;
// -------------- 1kHz ----------------------------
#include "radio_config_Si4468_undef.h"
#include "radio_config_Si4468_1kHz.h"
#include "radio_config_Si4468_short.h"
static const uint8_t SI4463_RBW_1kHz[] =
RADIO_CONFIGURATION_DATA_ARRAY;
// -------------- 3 kHz ----------------------------
#include "radio_config_Si4468_undef.h"
#include "radio_config_Si4468_3kHz.h"
#include "radio_config_Si4468_short.h"
static const uint8_t SI4463_RBW_3kHz[] =
RADIO_CONFIGURATION_DATA_ARRAY;
// -------------- 10 kHz ----------------------------
#include "radio_config_Si4468_undef.h"
#include "radio_config_Si4468_10kHz.h"
#include "radio_config_Si4468_short.h"
static const uint8_t SI4463_RBW_10kHz[] =
RADIO_CONFIGURATION_DATA_ARRAY;
// -------------- 30 kHz ----------------------------
#include "radio_config_Si4468_undef.h"
#include "radio_config_Si4468_30kHz.h"
#include "radio_config_Si4468_short.h"
static const uint8_t SI4463_RBW_30kHz[] =
RADIO_CONFIGURATION_DATA_ARRAY;
// -------------- 100kHz ----------------------------
#include "radio_config_Si4468_undef.h"
#include "radio_config_Si4468_100kHz.h"
#include "radio_config_Si4468_short.h"
static const uint8_t SI4463_RBW_100kHz[] =
RADIO_CONFIGURATION_DATA_ARRAY;
// -------------- 300kHz ----------------------------
#include "radio_config_Si4468_undef.h"
#include "radio_config_Si4468_300kHz.h"
#include "radio_config_Si4468_short.h"
static const uint8_t SI4463_RBW_300kHz[] =
RADIO_CONFIGURATION_DATA_ARRAY;
// -------------- 600kHz ----------------------------
#include "radio_config_Si4468_undef.h"
#include "radio_config_Si4468_600kHz.h"
#include "radio_config_Si4468_short.h"
static const uint8_t SI4463_RBW_600kHz[] =
RADIO_CONFIGURATION_DATA_ARRAY;
// -------------- 850kHz ----------------------------
#include "radio_config_Si4468_undef.h"
#include "radio_config_Si4468_850kHz.h"
#include "radio_config_Si4468_short.h"
static const uint8_t SI4463_RBW_850kHz[] =
RADIO_CONFIGURATION_DATA_ARRAY;
// User asks for an RBW of WISH, go through table finding the last triple
// for which WISH is greater than the first entry, use those values,
// Return the first entry of the following triple for the RBW actually achieved
#define IF_BW(dwn3, ndec, filset) (((dwn3)<<7)|((ndec)<<4)|(filset))
typedef struct {
const uint8_t *reg; // IF_BW(dwn3, ndec, filset)
int16_t RSSI_correction_x_10; // Correction * 10
int16_t RBWx10; // RBW in kHz
int16_t noise_correction_x10; // Noise marker correction * 10
}RBW_t; // sizeof(RBW_t) = 8 bytes
static const RBW_t RBW_choices[] =
{
#if 0
// BW register corr freq
{SI4463_RBW_02kHz, 20,3, 26},
{SI4463_RBW_1kHz, 23,10, 8},
{SI4463_RBW_3kHz, 17,30, 9},
{SI4463_RBW_10kHz, 12,100, 7},
{SI4463_RBW_30kHz, 12,300, 10},
{SI4463_RBW_100kHz, 2,1000, 17},
{SI4463_RBW_300kHz, 4,3000, 10},
{SI4463_RBW_600kHz, -10,6000, 8},
{SI4463_RBW_850kHz, -9,8500, 8},
#else
#define NOISE_BASE_CORRECTION 7 // 7
{SI4463_RBW_02kHz, 10,2, NOISE_BASE_CORRECTION + 0}, //
{SI4463_RBW_1kHz, 15,10, NOISE_BASE_CORRECTION + -5},//
{SI4463_RBW_3kHz, 10,30, NOISE_BASE_CORRECTION + -5},//
{SI4463_RBW_10kHz, 14,100,NOISE_BASE_CORRECTION + -2}, //
{SI4463_RBW_30kHz, 0,300, NOISE_BASE_CORRECTION + -2},//
{SI4463_RBW_100kHz, 0,1000,NOISE_BASE_CORRECTION + -1},//
{SI4463_RBW_300kHz, 0,3000,NOISE_BASE_CORRECTION}, // 300k must have RSSI correction = 0
{SI4463_RBW_600kHz, 5,6000,NOISE_BASE_CORRECTION + -2},//
{SI4463_RBW_850kHz, 8,8500,NOISE_BASE_CORRECTION + 2},//
#endif
};
const uint8_t SI4432_RBW_count = ((int)(sizeof(RBW_choices)/sizeof(RBW_t)));
static pureRSSI_t SI4463_RSSI_correction = float_TO_PURE_RSSI(-120);
bool SI4463_RSSI_correction_enabled = true;
int16_t SI4463_noise_correction_x10;
static int prev_band = -1;
pureRSSI_t getSI4463_RSSI_correction(void){
return SI4463_RSSI_correction;
};
void switch_SI4463_RSSI_correction(bool enabled){
SI4463_RSSI_correction_enabled = enabled;
};
void SI4463_set_IF(int band) {
// Set properties: MODEM_IF_FREQ
// Number of properties: 3
// Group ID: 0x20
// Start ID: 0x1b
// Descriptions:
// MODEM_IF_FREQ - Set the IF frequency as a function of frequency band.
// #define RF_MODEM_CLKGEN_BAND_1 0x11, 0x20, 0x01, 0x51, 0x0A
//#define RF_MODEM_TX_RAMP_DELAY_12 0x11, 0x20, 0x03, 0x18, 0x03, 0xC0, 0x00
static const uint8_t if_freq_high[6] = { 0x03, 0x03, 0x03, 0x03, 0, 0x02};
static const uint8_t if_freq_low[6] = { 0xc0, 0x60, 0x80, 0x40, 0, 0x80};
uint8_t data3[] = { 0x11, 0x20, 0x03, 0x1b, if_freq_high[band], if_freq_low[band] };
SI4463_do_api(data3, sizeof(data3), NULL, 0);
}
void SI4463_set_modem_DSM(void) {
// Set properties: MODEM_DSM_CTRL
// Number of properties: 1
// Group ID: 0x20
// Start ID: 0x02
// Descriptions:
// MODEM_DSM_CTRL - Miscellaneous control bits for the Delta-Sigma Modulator (DSM) in the PLL Synthesizer.
//#define MODEM_DSM_CTRL 0x11, 0x20, 0x01, 0x02, 0x07
static const uint8_t data3[] = { 0x11, 0x20, 0x01, 0x02, 0x03};
SI4463_do_api((uint8_t *)data3, sizeof(data3), NULL, 0);
}
uint16_t force_rbw(int f)
{
if (/*SI4463_in_tx_mode || */ f >= (int)(sizeof(RBW_choices)/sizeof(RBW_t)))
return(0); // RBW can be selected before switch to input mode is made
SI4463_set_state(SI446X_STATE_READY);
const uint8_t *config = RBW_choices[f].reg;
uint16_t i=0;
while(config[i] != 0)
{
SI4463_do_api((void *)&config[i+1], config[i], NULL, 0);
i += config[i]+1;
}
if (prev_band != 0) SI4463_set_IF(prev_band); // restore IF frequency if not in band zero
if (setting.frequency_step < 100) SI4463_set_modem_DSM(); // Set small frequency steps if needed
SI4463_clear_int_status();
SI4463_short_start_rx(); // This can cause recalibration
// SI4463_wait_for_cts();
set_RSSI_comp();
// prev_band = -1;
SI4463_RSSI_correction = ( SI4463_RSSI_correction_enabled ? float_TO_PURE_RSSI(RBW_choices[f].RSSI_correction_x_10 - 1200)/10 : float_TO_PURE_RSSI(-120) ) ; // Set RSSI correction
SI4463_noise_correction_x10 = RBW_choices[f].noise_correction_x10;
SI4463_rbw_selected = f;
return RBW_choices[f].RBWx10; // RBW achieved by SI4463 in kHz * 10
}
uint16_t set_rbw(uint16_t WISH) {
int i;
for (i=0; i < (int)(sizeof(RBW_choices)/sizeof(RBW_t)) - 1; i++)
if (WISH <= RBW_choices[i].RBWx10)
break;
return force_rbw(i);
}
#define Npresc 1 // 0=low / 1=High performance mode
freq_t SI4463_set_freq(freq_t freq)
{
uint32_t output_divider;
// SI4463_set_gpio(3,SI446X_GPIO_MODE_DRIVE1); // For measuring duration of set_freq
int S = 4 ; // Approx 100 Hz channels
SI4463_channel = 0;
if (freq >= 822000000 && freq <= 1150000000) { // 822 to 1130MHz
SI4463_band = 0;
output_divider = 4 * FREQ_MULTIPLIER;
} else if (freq >= 411000000 && freq <= 566000000) { // 411 to 568MHz
SI4463_band = 2;
output_divider = 8 * FREQ_MULTIPLIER ;
} else if (freq >= 329000000 && freq <= 454000000) { // 329 to 454MHz
SI4463_band = 1;
output_divider = 10 * FREQ_MULTIPLIER;
} else if (freq >= 274000000 && freq <= 378000000) { // 274 to 378
SI4463_band = 3;
output_divider = 12 * FREQ_MULTIPLIER;
} else if (freq >= 137000000 && freq <= 189000000){ // 137 to 189
SI4463_band = 5;
output_divider = 24 * FREQ_MULTIPLIER;
#if 0 // Band 4, 6 and 7 do not function
} else if (freq >= 137000000 && freq <= 189000000){ // 220 to 266
SI4463_band = 4;
output_divider = 12;
#endif
} else
return 0;
if (SI4463_offset_active) {
si_set_offset(0);
SI4463_offset_active = false;
}
uint32_t R = (freq * output_divider) / (Npresc ? 2*config.setting_frequency_30mhz : 4*config.setting_frequency_30mhz) - 1; // R between 0x00 and 0x7f (127)
uint64_t MOD = 524288; // = 2^19
uint32_t F = ((freq * output_divider*MOD) / (Npresc ? 2*config.setting_frequency_30mhz : 4*config.setting_frequency_30mhz)) - R*MOD;
freq_t actual_freq = (R*MOD + F) * (Npresc ? 2*config.setting_frequency_30mhz : 4*config.setting_frequency_30mhz)/ output_divider/MOD;
#if 0 // Only for debugging
int delta = freq - actual_freq;
if (delta < -100 || delta > 100 ){
while(1)
my_microsecond_delay(10);
}
if (F < MOD || F >= MOD*2){
while(1)
my_microsecond_delay(10);
}
#endif
#if 0 // Hopping is fast but frequency setting is not yet reliable !!!!!
if (SI4463_band == prev_band) {
int vco = 2091 + ((((freq / 4 ) * output_divider - 850000000)/1000) * 492) / 200000;
if (SI4463_in_tx_mode) {
uint8_t data[] = {
SI446X_CMD_ID_TX_HOP,
(uint8_t) R, // R data[4]
(uint8_t) ((F>>16) & 255), // F2,F1,F0 data[5] .. data[7]
(uint8_t) ((F>> 8) & 255), // F2,F1,F0 data[5] .. data[7]
(uint8_t) ((F ) & 255), // F2,F1,F0 data[5] .. data[7]
(vco>>8) & 0xff,
vco & 0xff,
0x00,
0x32
};
SI4463_do_api(data, sizeof(data), NULL, 0);
} else {
uint8_t data[] = {
SI446X_CMD_ID_RX_HOP,
(uint8_t) R, // R data[4]
(uint8_t) ((F>>16) & 255), // F2,F1,F0 data[5] .. data[7]
(uint8_t) ((F>> 8) & 255), // F2,F1,F0 data[5] .. data[7]
(uint8_t) ((F ) & 255), // F2,F1,F0 data[5] .. data[7]
(vco>>8) & 0xff,
vco & 0xff
};
SI4463_do_api(data, sizeof(data), NULL, 0);
}
SI4463_frequency_changed = true;
// SI4463_set_gpio(3,SI446X_GPIO_MODE_DRIVE0); // For measuring duration of set_freq
return actual_freq;
}
#endif
SI4463_set_state(SI446X_STATE_READY);
/*
// Set properties: RF_FREQ_CONTROL_INTE_8
// Number of properties: 8
// Group ID: 0x40
// Start ID: 0x00
// Default values: 0x3C, 0x08, 0x00, 0x00, 0x00, 0x00, 0x20, 0xFF,
// Descriptions:
// FREQ_CONTROL_INTE - Frac-N PLL Synthesizer integer divide number.
// FREQ_CONTROL_FRAC_2 - Frac-N PLL fraction number.
// FREQ_CONTROL_FRAC_1 - Frac-N PLL fraction number.
// FREQ_CONTROL_FRAC_0 - Frac-N PLL fraction number.
// FREQ_CONTROL_CHANNEL_STEP_SIZE_1 - EZ Frequency Programming channel step size.
// FREQ_CONTROL_CHANNEL_STEP_SIZE_0 - EZ Frequency Programming channel step size.
// FREQ_CONTROL_W_SIZE - Set window gating period (in number of crystal reference clock cycles) for counting VCO frequency during calibration.
// FREQ_CONTROL_VCOCNT_RX_ADJ - Adjust target count for VCO calibration in RX mode.
*/
// #define RF_FREQ_CONTROL_INTE_8_1 0x11, 0x40, 0x08, 0x00, 0x41, 0x0D, 0xA9, 0x5A, 0x4E, 0xC5, 0x20, 0xFE
uint8_t data[] = {
0x11, 0x40, 0x06, 0x00,
(uint8_t) R, // R data[4]
(uint8_t) ((F>>16) & 255), // F2,F1,F0 data[5] .. data[7]
(uint8_t) ((F>> 8) & 255), // F2,F1,F0 data[5] .. data[7]
(uint8_t) ((F ) & 255), // F2,F1,F0 data[5] .. data[7]
(uint8_t) ((S>> 8) & 255), // Step size data[8] .. data[9]
(uint8_t) ((S ) & 255), // Step size data[8] .. data[9]
#if 1
0x20, // Window gate
0xFF, // Adj count
#endif
};
SI4463_do_api(data, sizeof(data), NULL, 0);
if (SI4463_band != prev_band) {
/*
// Set properties: RF_MODEM_CLKGEN_BAND_1
// Number of properties: 1
// Group ID: 0x20
// Start ID: 0x51
// Default values: 0x08,
// Descriptions:
// MODEM_CLKGEN_BAND - Select PLL Synthesizer output divider ratio as a function of frequency band.
*/
// #define RF_MODEM_CLKGEN_BAND_1 0x11, 0x20, 0x01, 0x51, 0x0A
uint8_t data2[] = {
0x11, 0x20, 0x01, 0x51,
/* 0x10 + */ (uint8_t)(SI4463_band + (Npresc ? 0x08 : 0)) // 0x08 for high performance mode, 0x10 to skip recal
};
SI4463_do_api(data2, sizeof(data2), NULL, 0);
SI4463_set_IF(SI4463_band);
prev_band = SI4463_band;
}
if (SI4463_in_tx_mode)
SI4463_start_tx(0);
else {
SI4463_start_rx(0);
}
// SI4463_set_gpio(3,SI446X_GPIO_MODE_DRIVE0); // For measuring duration of set_freq
SI4463_frequency_changed = true;
return actual_freq;
}
void SI4463_init_rx(void)
{
reset:
SI_SDN_LOW;
my_microsecond_delay(10000);
SI_SDN_HIGH;
my_microsecond_delay(10000);
SI_SDN_LOW;
my_microsecond_delay(100000);
if (SI4463_WAIT_CTS) {
ili9341_drawstring("SI4468 Reset fail", 0,10);
goto reset;
}
for(uint16_t i=0;i<sizeof(SI4468_config);i++)
{
if (SI4463_do_api((void *)&SI4468_config[i+1], SI4468_config[i], NULL, 0)){
ili9341_drawstring("SI4468 Configure fail", 0,10);
goto reset;
}
i += SI4468_config[i];
}
clear_frequency_cache();
if (SI4463_start_rx(SI4463_channel)) {
ili9341_drawstring("SI4468 Start fail", 0,10);
goto reset;
}
// Si446x_getInfo(&SI4463_info);
prev_band = -1; // 433MHz
}
void SI4463_init_tx(void)
{
SI4463_start_tx(0);
prev_band = -1; // 433MHz
}
int SI4463_is_in_tx_mode(void)
{
return SI4463_in_tx_mode;
}
void enable_extra_lna(int s)
{
static int old_extra_lna = -1;
if (s != old_extra_lna) {
if (s)
palSetLine(LINE_LNA);
else
palClearLine(LINE_LNA);
old_extra_lna = s;
osalThreadSleepMilliseconds(500);
}
}
#ifdef __ULTRA__
void enable_ultra(int s)
{
static int old_ultra = 2;
if (s != old_ultra) {
#ifdef TINYSA4
if (s)
palClearLine(LINE_ULTRA);
else
palSetLine(LINE_ULTRA);
#endif
old_ultra = s;
}
}
#endif
void enable_rx_output(int s)
{
static int old_rx_mode = 2;
if (s == old_rx_mode)
return;
old_rx_mode = s;
if (s)
SI4463_set_gpio(3,SI446X_GPIO_MODE_DRIVE1);
else
SI4463_set_gpio(3,SI446X_GPIO_MODE_DRIVE0);
}
void enable_high(int s)
{
static int old_high = 2;
if (old_high == s)
return;
old_high = s;
#ifdef __NEW_SWITCHES__
if (s)
SI4463_set_gpio(2,SI446X_GPIO_MODE_DRIVE0);
else
SI4463_set_gpio(2,SI446X_GPIO_MODE_DRIVE1);
#else
if (s)
SI4463_set_gpio(2,SI446X_GPIO_MODE_DRIVE1);
else
SI4463_set_gpio(2,SI446X_GPIO_MODE_DRIVE0);
#endif
}
void enable_ADF_output(int f, int t)
{
ADF4351_enable(true);
ADF4351_enable_out(f);
ADF4351_enable_aux_out(t);
}
#ifdef __NEW_SWITCHES__
void enable_direct(int s)
{
static int old_direct = 2;
if (s == old_direct)
return;
old_direct = s;
if (s)
SI4463_set_gpio(4,SI446X_GPIO_MODE_DRIVE0);
else
SI4463_set_gpio(4,SI446X_GPIO_MODE_DRIVE1);
}
#endif
#pragma GCC pop_options
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