//
// Copyright 2010 Ettus Research LLC
//
// This program 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 of the License, or
// (at your option) any later version.
//
// This program 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 this program. If not, see .
//
#include "usrp_e_iface.hpp"
#include "usrp_e_regs.hpp"
#include "clock_ctrl.hpp"
#include "codec_ctrl.hpp"
#include
#include
#include
#include
#include //i2c and spi constants
using namespace uhd;
using namespace uhd::usrp;
using namespace boost::assign;
class usrp_e_dboard_iface : public dboard_iface{
public:
usrp_e_dboard_iface(
usrp_e_iface::sptr iface,
usrp_e_clock_ctrl::sptr clock,
usrp_e_codec_ctrl::sptr codec
){
_iface = iface;
_clock = clock;
_codec = codec;
//init the clock rate shadows
this->set_clock_rate(UNIT_RX, _clock->get_fpga_clock_rate());
this->set_clock_rate(UNIT_TX, _clock->get_fpga_clock_rate());
}
~usrp_e_dboard_iface(void){
/* NOP */
}
void write_aux_dac(unit_t, aux_dac_t, float);
float read_aux_adc(unit_t, aux_adc_t);
void set_pin_ctrl(unit_t, boost::uint16_t);
void set_atr_reg(unit_t, atr_reg_t, boost::uint16_t);
void set_gpio_ddr(unit_t, boost::uint16_t);
void write_gpio(unit_t, boost::uint16_t);
boost::uint16_t read_gpio(unit_t);
void write_i2c(boost::uint8_t, const byte_vector_t &);
byte_vector_t read_i2c(boost::uint8_t, size_t);
void write_spi(
unit_t unit,
const spi_config_t &config,
boost::uint32_t data,
size_t num_bits
);
boost::uint32_t read_write_spi(
unit_t unit,
const spi_config_t &config,
boost::uint32_t data,
size_t num_bits
);
void set_clock_rate(unit_t, double);
std::vector get_clock_rates(unit_t);
double get_clock_rate(unit_t);
void set_clock_enabled(unit_t, bool);
private:
usrp_e_iface::sptr _iface;
usrp_e_clock_ctrl::sptr _clock;
usrp_e_codec_ctrl::sptr _codec;
uhd::dict _clock_rates;
};
/***********************************************************************
* Make Function
**********************************************************************/
dboard_iface::sptr make_usrp_e_dboard_iface(
usrp_e_iface::sptr iface,
usrp_e_clock_ctrl::sptr clock,
usrp_e_codec_ctrl::sptr codec
){
return dboard_iface::sptr(new usrp_e_dboard_iface(iface, clock, codec));
}
/***********************************************************************
* Clock Rates
**********************************************************************/
void usrp_e_dboard_iface::set_clock_rate(unit_t unit, double rate){
_clock_rates[unit] = rate;
switch(unit){
case UNIT_RX: return _clock->set_rx_dboard_clock_rate(rate);
case UNIT_TX: return _clock->set_tx_dboard_clock_rate(rate);
}
}
std::vector usrp_e_dboard_iface::get_clock_rates(unit_t unit){
switch(unit){
case UNIT_RX: return _clock->get_rx_dboard_clock_rates();
case UNIT_TX: return _clock->get_tx_dboard_clock_rates();
default: UHD_THROW_INVALID_CODE_PATH();
}
}
double usrp_e_dboard_iface::get_clock_rate(unit_t unit){
return _clock_rates[unit];
}
void usrp_e_dboard_iface::set_clock_enabled(unit_t unit, bool enb){
switch(unit){
case UNIT_RX: return _clock->enable_rx_dboard_clock(enb);
case UNIT_TX: return _clock->enable_tx_dboard_clock(enb);
}
}
/***********************************************************************
* GPIO
**********************************************************************/
void usrp_e_dboard_iface::set_pin_ctrl(unit_t unit, boost::uint16_t value){
UHD_ASSERT_THROW(GPIO_SEL_ATR == 1); //make this assumption
switch(unit){
case UNIT_RX: _iface->poke16(UE_REG_GPIO_RX_SEL, value); return;
case UNIT_TX: _iface->poke16(UE_REG_GPIO_TX_SEL, value); return;
}
}
void usrp_e_dboard_iface::set_gpio_ddr(unit_t unit, boost::uint16_t value){
switch(unit){
case UNIT_RX: _iface->poke16(UE_REG_GPIO_RX_DDR, value); return;
case UNIT_TX: _iface->poke16(UE_REG_GPIO_TX_DDR, value); return;
}
}
void usrp_e_dboard_iface::write_gpio(unit_t unit, boost::uint16_t value){
switch(unit){
case UNIT_RX: _iface->poke16(UE_REG_GPIO_RX_IO, value); return;
case UNIT_TX: _iface->poke16(UE_REG_GPIO_TX_IO, value); return;
}
}
boost::uint16_t usrp_e_dboard_iface::read_gpio(unit_t unit){
switch(unit){
case UNIT_RX: return _iface->peek16(UE_REG_GPIO_RX_IO);
case UNIT_TX: return _iface->peek16(UE_REG_GPIO_TX_IO);
}
UHD_ASSERT_THROW(false);
}
void usrp_e_dboard_iface::set_atr_reg(unit_t unit, atr_reg_t atr, boost::uint16_t value){
//define mapping of unit to atr regs to register address
static const uhd::dict<
unit_t, uhd::dict
> unit_to_atr_to_addr = map_list_of
(UNIT_RX, map_list_of
(ATR_REG_IDLE, UE_REG_ATR_IDLE_RXSIDE)
(ATR_REG_TX_ONLY, UE_REG_ATR_INTX_RXSIDE)
(ATR_REG_RX_ONLY, UE_REG_ATR_INRX_RXSIDE)
(ATR_REG_FULL_DUPLEX, UE_REG_ATR_FULL_RXSIDE)
)
(UNIT_TX, map_list_of
(ATR_REG_IDLE, UE_REG_ATR_IDLE_TXSIDE)
(ATR_REG_TX_ONLY, UE_REG_ATR_INTX_TXSIDE)
(ATR_REG_RX_ONLY, UE_REG_ATR_INRX_TXSIDE)
(ATR_REG_FULL_DUPLEX, UE_REG_ATR_FULL_TXSIDE)
)
;
_iface->poke16(unit_to_atr_to_addr[unit][atr], value);
}
/***********************************************************************
* SPI
**********************************************************************/
/*!
* Static function to convert a unit type to a spi slave device number.
* \param unit the dboard interface unit type enum
* \return the slave device number
*/
static boost::uint32_t unit_to_otw_spi_dev(dboard_iface::unit_t unit){
switch(unit){
case dboard_iface::UNIT_TX: return UE_SPI_SS_TX_DB;
case dboard_iface::UNIT_RX: return UE_SPI_SS_RX_DB;
}
throw std::invalid_argument("unknown unit type");
}
void usrp_e_dboard_iface::write_spi(
unit_t unit,
const spi_config_t &config,
boost::uint32_t data,
size_t num_bits
){
_iface->transact_spi(unit_to_otw_spi_dev(unit), config, data, num_bits, false /*no rb*/);
}
boost::uint32_t usrp_e_dboard_iface::read_write_spi(
unit_t unit,
const spi_config_t &config,
boost::uint32_t data,
size_t num_bits
){
return _iface->transact_spi(unit_to_otw_spi_dev(unit), config, data, num_bits, true /*rb*/);
}
/***********************************************************************
* I2C
**********************************************************************/
void usrp_e_dboard_iface::write_i2c(boost::uint8_t addr, const byte_vector_t &bytes){
return _iface->write_i2c(addr, bytes);
}
byte_vector_t usrp_e_dboard_iface::read_i2c(boost::uint8_t addr, size_t num_bytes){
return _iface->read_i2c(addr, num_bytes);
}
/***********************************************************************
* Aux DAX/ADC
**********************************************************************/
void usrp_e_dboard_iface::write_aux_dac(dboard_iface::unit_t, aux_dac_t which, float value){
//same aux dacs for each unit
static const uhd::dict which_to_aux_dac = map_list_of
(AUX_DAC_A, usrp_e_codec_ctrl::AUX_DAC_A)
(AUX_DAC_B, usrp_e_codec_ctrl::AUX_DAC_B)
(AUX_DAC_C, usrp_e_codec_ctrl::AUX_DAC_C)
(AUX_DAC_D, usrp_e_codec_ctrl::AUX_DAC_D)
;
_codec->write_aux_dac(which_to_aux_dac[which], value);
}
float usrp_e_dboard_iface::read_aux_adc(dboard_iface::unit_t unit, aux_adc_t which){
static const uhd::dict<
unit_t, uhd::dict
> unit_to_which_to_aux_adc = map_list_of
(UNIT_RX, map_list_of
(AUX_ADC_A, usrp_e_codec_ctrl::AUX_ADC_A1)
(AUX_ADC_B, usrp_e_codec_ctrl::AUX_ADC_B1)
)
(UNIT_TX, map_list_of
(AUX_ADC_A, usrp_e_codec_ctrl::AUX_ADC_A2)
(AUX_ADC_B, usrp_e_codec_ctrl::AUX_ADC_B2)
)
;
return _codec->read_aux_adc(unit_to_which_to_aux_adc[unit][which]);
}