/***********************************************************************
* Structors
**********************************************************************/
tvrx::tvrx(ctor_args_t args) : rx_dboard_base(args){
////////////////////////////////////////////////////////////////////
// Register properties
////////////////////////////////////////////////////////////////////
this->get_rx_subtree()->create<std::string>("name")
.set("TVRX");
this->get_rx_subtree()->create<int>("sensors"); //phony property so this dir exists
BOOST_FOREACH(const std::string &name, get_tvrx_gain_ranges().keys()){
this->get_rx_subtree()->create<double>("gains/"+name+"/value")
.coerce(boost::bind(&tvrx::set_gain, this, _1, name));
this->get_rx_subtree()->create<meta_range_t>("gains/"+name+"/range")
.set(get_tvrx_gain_ranges()[name]);
}
this->get_rx_subtree()->create<double>("freq/value")
.coerce(boost::bind(&tvrx::set_freq, this, _1));
this->get_rx_subtree()->create<meta_range_t>("freq/range")
.set(tvrx_freq_range);
this->get_rx_subtree()->create<std::string>("antenna/value")
.set(tvrx_antennas.at(0));
this->get_rx_subtree()->create<std::vector<std::string> >("antenna/options")
.set(tvrx_antennas);
this->get_rx_subtree()->create<std::string>("connection")
.set("I");
this->get_rx_subtree()->create<bool>("enabled")
.set(true); //always enabled
this->get_rx_subtree()->create<bool>("use_lo_offset")
.set(false);
this->get_rx_subtree()->create<double>("bandwidth/value")
.set(6.0e6);
this->get_rx_subtree()->create<meta_range_t>("bandwidth/range")
.set(freq_range_t(6.0e6, 6.0e6));
//enable only the clocks we need
this->get_iface()->set_clock_enabled(dboard_iface::UNIT_RX, true);
//set the gpio directions and atr controls (identically)
this->get_iface()->set_pin_ctrl(dboard_iface::UNIT_RX, 0x0); // All unused in atr
if (this->get_iface()->get_special_props().soft_clock_divider){
this->get_iface()->set_gpio_ddr(dboard_iface::UNIT_RX, 0x1); // GPIO0 is clock
}
else{
this->get_iface()->set_gpio_ddr(dboard_iface::UNIT_RX, 0x0); // All Inputs
}
//send initial register settings if necessary
//set default freq
_lo_freq = tvrx_freq_range.start() + tvrx_if_freq; //init _lo_freq to a sane default
this->get_rx_subtree()->access<double>("freq/value").set(tvrx_freq_range.start());
//set default gains
BOOST_FOREACH(const std::string &name, get_tvrx_gain_ranges().keys()){
this->get_rx_subtree()->access<double>("gains/"+name+"/value")
.set(get_tvrx_gain_ranges()[name].start());
}
}
/***********************************************************************
* WBX Common Implementation
**********************************************************************/
wbx_base::wbx_version4::wbx_version4(wbx_base *_self_wbx_base) {
//register our handle on the primary wbx_base instance
self_base = _self_wbx_base;
////////////////////////////////////////////////////////////////////
// Register RX properties
////////////////////////////////////////////////////////////////////
this->get_rx_subtree()->create<std::string>("name").set("WBXv4 RX");
this->get_rx_subtree()->create<double>("freq/value")
.coerce(boost::bind(&wbx_base::wbx_version4::set_lo_freq, this, dboard_iface::UNIT_RX, _1))
.set((wbx_v4_freq_range.start() + wbx_v4_freq_range.stop())/2.0);
this->get_rx_subtree()->create<meta_range_t>("freq/range").set(wbx_v4_freq_range);
////////////////////////////////////////////////////////////////////
// Register TX properties
////////////////////////////////////////////////////////////////////
this->get_tx_subtree()->create<std::string>("name").set("WBXv4 TX");
BOOST_FOREACH(const std::string &name, wbx_v4_tx_gain_ranges.keys()){
self_base->get_tx_subtree()->create<double>("gains/"+name+"/value")
.coerce(boost::bind(&wbx_base::wbx_version4::set_tx_gain, this, _1, name))
.set(wbx_v4_tx_gain_ranges[name].start());
self_base->get_tx_subtree()->create<meta_range_t>("gains/"+name+"/range")
.set(wbx_v4_tx_gain_ranges[name]);
}
this->get_tx_subtree()->create<double>("freq/value")
.coerce(boost::bind(&wbx_base::wbx_version4::set_lo_freq, this, dboard_iface::UNIT_TX, _1))
.set((wbx_v4_freq_range.start() + wbx_v4_freq_range.stop())/2.0);
this->get_tx_subtree()->create<meta_range_t>("freq/range").set(wbx_v4_freq_range);
this->get_tx_subtree()->create<bool>("enabled")
.subscribe(boost::bind(&wbx_base::wbx_version4::set_tx_enabled, this, _1))
.set(true); //start enabled
//set attenuator control bits
int v4_iobits = TX_ATTN_MASK;
int v4_tx_mod = ADF4351_PDBRF;
//set the gpio directions and atr controls
self_base->get_iface()->set_pin_ctrl(dboard_iface::UNIT_TX, v4_tx_mod|v4_iobits);
self_base->get_iface()->set_pin_ctrl(dboard_iface::UNIT_RX, RXBB_PDB|ADF4351_PDBRF);
self_base->get_iface()->set_gpio_ddr(dboard_iface::UNIT_TX, TX_PUP_5V|TX_PUP_3V|v4_tx_mod|v4_iobits);
self_base->get_iface()->set_gpio_ddr(dboard_iface::UNIT_RX, RX_PUP_5V|RX_PUP_3V|ADF4351_CE|RXBB_PDB|ADF4351_PDBRF|RX_ATTN_MASK);
//setup ATR for the mixer enables (always enabled to prevent phase slip between bursts)
//set TX gain iobits to min gain (max attenuation) when RX_ONLY or IDLE to suppress LO leakage
self_base->get_iface()->set_atr_reg(dboard_iface::UNIT_TX, dboard_iface::ATR_REG_IDLE, v4_tx_mod, TX_ATTN_MASK | TX_MIXER_DIS | v4_tx_mod);
self_base->get_iface()->set_atr_reg(dboard_iface::UNIT_TX, dboard_iface::ATR_REG_RX_ONLY, v4_tx_mod, TX_ATTN_MASK | TX_MIXER_DIS | v4_tx_mod);
self_base->get_iface()->set_atr_reg(dboard_iface::UNIT_TX, dboard_iface::ATR_REG_TX_ONLY, v4_tx_mod, TX_ATTN_MASK | TX_MIXER_DIS | v4_tx_mod);
self_base->get_iface()->set_atr_reg(dboard_iface::UNIT_TX, dboard_iface::ATR_REG_FULL_DUPLEX, v4_tx_mod, TX_ATTN_MASK | TX_MIXER_DIS | v4_tx_mod);
self_base->get_iface()->set_atr_reg(dboard_iface::UNIT_RX, dboard_iface::ATR_REG_IDLE, RX_MIXER_ENB, RX_MIXER_DIS | RX_MIXER_ENB);
self_base->get_iface()->set_atr_reg(dboard_iface::UNIT_RX, dboard_iface::ATR_REG_TX_ONLY, RX_MIXER_ENB, RX_MIXER_DIS | RX_MIXER_ENB);
self_base->get_iface()->set_atr_reg(dboard_iface::UNIT_RX, dboard_iface::ATR_REG_RX_ONLY, RX_MIXER_ENB, RX_MIXER_DIS | RX_MIXER_ENB);
self_base->get_iface()->set_atr_reg(dboard_iface::UNIT_RX, dboard_iface::ATR_REG_FULL_DUPLEX, RX_MIXER_ENB, RX_MIXER_DIS | RX_MIXER_ENB);
}
/***********************************************************************
* Structors
**********************************************************************/
wbx_xcvr::wbx_xcvr(ctor_args_t args) : xcvr_dboard_base(args){
//enable the clocks that we need
this->get_iface()->set_clock_enabled(dboard_iface::UNIT_TX, true);
this->get_iface()->set_clock_enabled(dboard_iface::UNIT_RX, true);
//set the gpio directions and atr controls (identically)
this->get_iface()->set_pin_ctrl(dboard_iface::UNIT_TX, TXIO_MASK);
this->get_iface()->set_pin_ctrl(dboard_iface::UNIT_RX, RXIO_MASK);
this->get_iface()->set_gpio_ddr(dboard_iface::UNIT_TX, TXIO_MASK);
this->get_iface()->set_gpio_ddr(dboard_iface::UNIT_RX, RXIO_MASK);
if (wbx_debug) std::cerr << boost::format(
"WBX GPIO Direction: RX: 0x%08x, TX: 0x%08x"
) % RXIO_MASK % TXIO_MASK << std::endl;
//set some default values
set_rx_lo_freq((wbx_freq_range.start() + wbx_freq_range.stop())/2.0);
set_tx_lo_freq((wbx_freq_range.start() + wbx_freq_range.stop())/2.0);
set_rx_ant("RX2");
BOOST_FOREACH(const std::string &name, wbx_tx_gain_ranges.keys()){
set_tx_gain(wbx_tx_gain_ranges[name].start(), name);
}
BOOST_FOREACH(const std::string &name, wbx_rx_gain_ranges.keys()){
set_rx_gain(wbx_rx_gain_ranges[name].start(), name);
}
}
/***********************************************************************
* Structors
**********************************************************************/
sbx_xcvr::sbx_xcvr(ctor_args_t args) : xcvr_dboard_base(args){
//enable the clocks that we need
this->get_iface()->set_clock_enabled(dboard_iface::UNIT_TX, true);
this->get_iface()->set_clock_enabled(dboard_iface::UNIT_RX, true);
//set the gpio directions and atr controls (identically)
this->get_iface()->set_pin_ctrl(dboard_iface::UNIT_TX, (TXIO_MASK|TX_LED_IO));
this->get_iface()->set_pin_ctrl(dboard_iface::UNIT_RX, (RXIO_MASK|RX_LED_IO));
this->get_iface()->set_gpio_ddr(dboard_iface::UNIT_TX, (TXIO_MASK|TX_LED_IO));
this->get_iface()->set_gpio_ddr(dboard_iface::UNIT_RX, (RXIO_MASK|RX_LED_IO));
//flash LEDs
flash_leds();
UHD_LOGV(often) << boost::format(
"SBX GPIO Direction: RX: 0x%08x, TX: 0x%08x"
) % RXIO_MASK % TXIO_MASK << std::endl;
//set some default values
set_rx_lo_freq((sbx_freq_range.start() + sbx_freq_range.stop())/2.0);
set_tx_lo_freq((sbx_freq_range.start() + sbx_freq_range.stop())/2.0);
set_rx_ant("RX2");
BOOST_FOREACH(const std::string &name, sbx_tx_gain_ranges.keys()){
set_tx_gain(sbx_tx_gain_ranges[name].start(), name);
}
BOOST_FOREACH(const std::string &name, sbx_rx_gain_ranges.keys()){
set_rx_gain(sbx_rx_gain_ranges[name].start(), name);
}
}
/***********************************************************************
* Structors
**********************************************************************/
dbsrx::dbsrx(ctor_args_t args) : rx_dboard_base(args){
//warn user about incorrect DBID on USRP1, requires R193 populated
if (this->get_iface()->get_special_props().soft_clock_divider and this->get_rx_id() == 0x000D)
uhd::warning::post(
str(boost::format(
"DBSRX: incorrect dbid\n"
"Expected dbid 0x0002 and R193\n"
"found dbid == %d\n"
"Please see the daughterboard app notes"
) % this->get_rx_id().to_pp_string())
);
//warn user about incorrect DBID on non-USRP1, requires R194 populated
if (not this->get_iface()->get_special_props().soft_clock_divider and this->get_rx_id() == 0x0002)
uhd::warning::post(
str(boost::format(
"DBSRX: incorrect dbid\n"
"Expected dbid 0x000D and R194\n"
"found dbid == %d\n"
"Please see the daughterboard app notes"
) % this->get_rx_id().to_pp_string())
);
//enable only the clocks we need
this->get_iface()->set_clock_enabled(dboard_iface::UNIT_RX, true);
//set the gpio directions and atr controls (identically)
this->get_iface()->set_pin_ctrl(dboard_iface::UNIT_RX, 0x0); // All unused in atr
if (this->get_iface()->get_special_props().soft_clock_divider){
this->get_iface()->set_gpio_ddr(dboard_iface::UNIT_RX, 0x1); // GPIO0 is clock
}
else{
this->get_iface()->set_gpio_ddr(dboard_iface::UNIT_RX, 0x0); // All Inputs
}
//send initial register settings
this->send_reg(0x0, 0x5);
//set defaults for LO, gains, and filter bandwidth
_bandwidth = 33e6;
set_lo_freq(dbsrx_freq_range.start());
BOOST_FOREACH(const std::string &name, dbsrx_gain_ranges.keys()){
set_gain(dbsrx_gain_ranges[name].start(), name);
}
set_bandwidth(33e6); // default bandwidth from datasheet
}
/***********************************************************************
* Structors
**********************************************************************/
wbx_simple::wbx_simple(ctor_args_t args) : wbx_base(args){
//set the gpio directions and atr controls (antenna switches all under ATR)
this->get_iface()->set_pin_ctrl(dboard_iface::UNIT_TX, ANTSW_IO, ANTSW_IO);
this->get_iface()->set_pin_ctrl(dboard_iface::UNIT_RX, ANTSW_IO, ANTSW_IO);
this->get_iface()->set_gpio_ddr(dboard_iface::UNIT_TX, ANTSW_IO, ANTSW_IO);
this->get_iface()->set_gpio_ddr(dboard_iface::UNIT_RX, ANTSW_IO, ANTSW_IO);
//setup ATR for the antenna switches (constant)
this->get_iface()->set_atr_reg(dboard_iface::UNIT_TX, dboard_iface::ATR_REG_IDLE, ANT_RX, ANTSW_IO);
this->get_iface()->set_atr_reg(dboard_iface::UNIT_TX, dboard_iface::ATR_REG_RX_ONLY, ANT_RX, ANTSW_IO);
this->get_iface()->set_atr_reg(dboard_iface::UNIT_TX, dboard_iface::ATR_REG_TX_ONLY, ANT_TX, ANTSW_IO);
this->get_iface()->set_atr_reg(dboard_iface::UNIT_TX, dboard_iface::ATR_REG_FULL_DUPLEX, ANT_TX, ANTSW_IO);
this->get_iface()->set_atr_reg(dboard_iface::UNIT_RX, dboard_iface::ATR_REG_IDLE, ANT_TXRX, ANTSW_IO);
this->get_iface()->set_atr_reg(dboard_iface::UNIT_RX, dboard_iface::ATR_REG_TX_ONLY, ANT_RX2, ANTSW_IO);
this->get_iface()->set_atr_reg(dboard_iface::UNIT_RX, dboard_iface::ATR_REG_FULL_DUPLEX, ANT_RX2, ANTSW_IO);
//set some default values
set_rx_lo_freq((wbx_freq_range.start() + wbx_freq_range.stop())/2.0);
set_tx_lo_freq((wbx_freq_range.start() + wbx_freq_range.stop())/2.0);
set_rx_ant("RX2");
}
/***********************************************************************
* Tuning
**********************************************************************/
void dbsrx::set_lo_freq(double target_freq){
target_freq = dbsrx_freq_range.clip(target_freq);
double actual_freq=0.0, pfd_freq=0.0, ref_clock=0.0;
int R=0, N=0, r=0, m=0;
bool update_filter_settings = false;
//choose refclock
std::vector<double> clock_rates = this->get_iface()->get_clock_rates(dboard_iface::UNIT_RX);
const double max_clock_rate = std::sorted(clock_rates).back();
BOOST_FOREACH(ref_clock, std::reversed(std::sorted(clock_rates))){
if (ref_clock > 27.0e6) continue;
if (size_t(max_clock_rate/ref_clock)%2 == 1) continue; //reject asymmetric clocks (odd divisors)
//choose m_divider such that filter tuning constraint is met
m = 31;
while ((ref_clock/m < 1e6 or ref_clock/m > 2.5e6) and m > 0){ m--; }
if(dbsrx_debug) std::cerr << boost::format(
"DBSRX: trying ref_clock %f and m_divider %d"
) % (ref_clock) % m << std::endl;
if (m >= 32) continue;
//choose R
for(r = 0; r <= 6; r += 1) {
//compute divider from setting
R = 1 << (r+1);
if (dbsrx_debug) std::cerr << boost::format("DBSRX R:%d\n") % R << std::endl;
//compute PFD compare frequency = ref_clock/R
pfd_freq = ref_clock / R;
//constrain the PFD frequency to specified range
if ((pfd_freq < dbsrx_pfd_freq_range.start()) or (pfd_freq > dbsrx_pfd_freq_range.stop())) continue;
//compute N
N = int(std::floor(target_freq/pfd_freq));
//constrain N to specified range
if ((N < 256) or (N > 32768)) continue;
goto done_loop;
}
}
done_loop:
//Assert because we failed to find a suitable combination of ref_clock, R and N
UHD_ASSERT_THROW(ref_clock <= 27.0e6 and ref_clock >= 0.0);
UHD_ASSERT_THROW(ref_clock/m >= 1e6 and ref_clock/m <= 2.5e6);
UHD_ASSERT_THROW((pfd_freq >= dbsrx_pfd_freq_range.start()) and (pfd_freq <= dbsrx_pfd_freq_range.stop()));
UHD_ASSERT_THROW((N >= 256) and (N <= 32768));
if(dbsrx_debug) std::cerr << boost::format(
"DBSRX: choose ref_clock (current: %f, new: %f) and m_divider %d"
) % (this->get_iface()->get_clock_rate(dboard_iface::UNIT_RX)) % ref_clock % m << std::endl;
//if ref_clock or m divider changed, we need to update the filter settings
if (ref_clock != this->get_iface()->get_clock_rate(dboard_iface::UNIT_RX) or m != _max2118_write_regs.m_divider) update_filter_settings = true;
//compute resulting output frequency
actual_freq = pfd_freq * N;
//apply ref_clock, R, and N settings
this->get_iface()->set_clock_rate(dboard_iface::UNIT_RX, ref_clock);
ref_clock = this->get_iface()->get_clock_rate(dboard_iface::UNIT_RX);
_max2118_write_regs.m_divider = m;
_max2118_write_regs.r_divider = (max2118_write_regs_t::r_divider_t) r;
_max2118_write_regs.set_n_divider(N);
_max2118_write_regs.ade_vco_ade_read = max2118_write_regs_t::ADE_VCO_ADE_READ_ENABLED;
//compute prescaler variables
int scaler = actual_freq > 1125e6 ? 2 : 4;
_max2118_write_regs.div2 = scaler == 4 ? max2118_write_regs_t::DIV2_DIV4 : max2118_write_regs_t::DIV2_DIV2;
if(dbsrx_debug) std::cerr << boost::format(
"DBSRX: scaler %d, actual_freq %f MHz, register bit: %d"
) % scaler % (actual_freq/1e6) % int(_max2118_write_regs.div2) << std::endl;
//compute vco frequency and select vco
double vco_freq = actual_freq * scaler;
if (vco_freq < 2433e6)
_max2118_write_regs.osc_band = 0;
else if (vco_freq < 2711e6)
_max2118_write_regs.osc_band = 1;
else if (vco_freq < 3025e6)
_max2118_write_regs.osc_band = 2;
else if (vco_freq < 3341e6)
_max2118_write_regs.osc_band = 3;
else if (vco_freq < 3727e6)
_max2118_write_regs.osc_band = 4;
else if (vco_freq < 4143e6)
_max2118_write_regs.osc_band = 5;
else if (vco_freq < 4493e6)
_max2118_write_regs.osc_band = 6;
else
_max2118_write_regs.osc_band = 7;
//send settings over i2c
send_reg(0x0, 0x4);
//check vtune for lock condition
read_reg(0x0, 0x0);
if(dbsrx_debug) std::cerr << boost::format(
"DBSRX: initial guess for vco %d, vtune adc %d"
) % int(_max2118_write_regs.osc_band) % int(_max2118_read_regs.adc) << std::endl;
//if we are out of lock for chosen vco, change vco
while ((_max2118_read_regs.adc == 0) or (_max2118_read_regs.adc == 7)){
//vtune is too low, try lower frequency vco
if (_max2118_read_regs.adc == 0){
if (_max2118_write_regs.osc_band == 0){
uhd::warning::post(
str(boost::format(
"DBSRX: Tuning exceeded vco range, _max2118_write_regs.osc_band == %d\n"
) % int(_max2118_write_regs.osc_band))
);
UHD_ASSERT_THROW(_max2118_read_regs.adc != 0); //just to cause a throw
}
if (_max2118_write_regs.osc_band <= 0) break;
_max2118_write_regs.osc_band -= 1;
}
//vtune is too high, try higher frequency vco
if (_max2118_read_regs.adc == 7){
if (_max2118_write_regs.osc_band == 7){
uhd::warning::post(
str(boost::format(
"DBSRX: Tuning exceeded vco range, _max2118_write_regs.osc_band == %d\n"
) % int(_max2118_write_regs.osc_band))
);
UHD_ASSERT_THROW(_max2118_read_regs.adc != 7); //just to cause a throw
}
if (_max2118_write_regs.osc_band >= 7) break;
_max2118_write_regs.osc_band += 1;
}
if(dbsrx_debug) std::cerr << boost::format(
"DBSRX: trying vco %d, vtune adc %d"
) % int(_max2118_write_regs.osc_band) % int(_max2118_read_regs.adc) << std::endl;
//update vco selection and check vtune
send_reg(0x2, 0x2);
read_reg(0x0, 0x0);
//allow for setup time before checking condition again
boost::this_thread::sleep(boost::posix_time::milliseconds(10));
}
if(dbsrx_debug) std::cerr << boost::format(
"DBSRX: final vco %d, vtune adc %d"
) % int(_max2118_write_regs.osc_band) % int(_max2118_read_regs.adc) << std::endl;
//select charge pump bias current
if (_max2118_read_regs.adc <= 2) _max2118_write_regs.cp_current = max2118_write_regs_t::CP_CURRENT_I_CP_100UA;
else if (_max2118_read_regs.adc >= 5) _max2118_write_regs.cp_current = max2118_write_regs_t::CP_CURRENT_I_CP_400UA;
else _max2118_write_regs.cp_current = max2118_write_regs_t::CP_CURRENT_I_CP_200UA;
//update charge pump bias current setting
send_reg(0x2, 0x2);
//compute actual tuned frequency
_lo_freq = this->get_iface()->get_clock_rate(dboard_iface::UNIT_RX) / std::pow(2.0,(1 + _max2118_write_regs.r_divider)) * _max2118_write_regs.get_n_divider();
//debug output of calculated variables
if (dbsrx_debug) std::cerr
<< boost::format("DBSRX tune:\n")
<< boost::format(" VCO=%d, CP=%d, PFD Freq=%fMHz\n") % int(_max2118_write_regs.osc_band) % _max2118_write_regs.cp_current % (pfd_freq/1e6)
<< boost::format(" R=%d, N=%f, scaler=%d, div2=%d\n") % R % N % scaler % int(_max2118_write_regs.div2)
<< boost::format(" Ref Freq=%fMHz\n") % (ref_clock/1e6)
<< boost::format(" Target Freq=%fMHz\n") % (target_freq/1e6)
<< boost::format(" Actual Freq=%fMHz\n") % (_lo_freq/1e6)
<< boost::format(" VCO Freq=%fMHz\n") % (vco_freq/1e6)
<< std::endl;
if (update_filter_settings) set_bandwidth(_bandwidth);
get_locked();
}
/***********************************************************************
* Structors
**********************************************************************/
dbsrx::dbsrx(ctor_args_t args) : rx_dboard_base(args){
//warn user about incorrect DBID on USRP1, requires R193 populated
if (this->get_iface()->get_special_props().soft_clock_divider and this->get_rx_id() == 0x000D)
UHD_MSG(warning) << boost::format(
"DBSRX: incorrect dbid\n"
"Expected dbid 0x0002 and R193\n"
"found dbid == %d\n"
"Please see the daughterboard app notes"
) % this->get_rx_id().to_pp_string();
//warn user about incorrect DBID on non-USRP1, requires R194 populated
if (not this->get_iface()->get_special_props().soft_clock_divider and this->get_rx_id() == 0x0002)
UHD_MSG(warning) << boost::format(
"DBSRX: incorrect dbid\n"
"Expected dbid 0x000D and R194\n"
"found dbid == %d\n"
"Please see the daughterboard app notes"
) % this->get_rx_id().to_pp_string();
//send initial register settings
this->send_reg(0x0, 0x5);
//set defaults for LO, gains, and filter bandwidth
double codec_rate = this->get_iface()->get_codec_rate(dboard_iface::UNIT_RX);
_bandwidth = 0.8*codec_rate/2.0; // default to anti-alias at different codec_rate
////////////////////////////////////////////////////////////////////
// Register properties
////////////////////////////////////////////////////////////////////
this->get_rx_subtree()->create<std::string>("name")
.set("DBSRX");
this->get_rx_subtree()->create<sensor_value_t>("sensors/lo_locked")
.set_publisher(boost::bind(&dbsrx::get_locked, this));
BOOST_FOREACH(const std::string &name, dbsrx_gain_ranges.keys()){
this->get_rx_subtree()->create<double>("gains/"+name+"/value")
.set_coercer(boost::bind(&dbsrx::set_gain, this, _1, name))
.set(dbsrx_gain_ranges[name].start());
this->get_rx_subtree()->create<meta_range_t>("gains/"+name+"/range")
.set(dbsrx_gain_ranges[name]);
}
this->get_rx_subtree()->create<double>("freq/value")
.set_coercer(boost::bind(&dbsrx::set_lo_freq, this, _1));
this->get_rx_subtree()->create<meta_range_t>("freq/range")
.set(dbsrx_freq_range);
this->get_rx_subtree()->create<std::string>("antenna/value")
.set(dbsrx_antennas.at(0));
this->get_rx_subtree()->create<std::vector<std::string> >("antenna/options")
.set(dbsrx_antennas);
this->get_rx_subtree()->create<std::string>("connection")
.set("IQ");
this->get_rx_subtree()->create<bool>("enabled")
.set(true); //always enabled
this->get_rx_subtree()->create<bool>("use_lo_offset")
.set(false);
this->get_rx_subtree()->create<double>("bandwidth/value")
.set_coercer(boost::bind(&dbsrx::set_bandwidth, this, _1));
this->get_rx_subtree()->create<meta_range_t>("bandwidth/range")
.set(dbsrx_bandwidth_range);
//enable only the clocks we need
this->get_iface()->set_clock_enabled(dboard_iface::UNIT_RX, true);
//set the gpio directions and atr controls (identically)
this->get_iface()->set_pin_ctrl(dboard_iface::UNIT_RX, 0x0); // All unused in atr
if (this->get_iface()->get_special_props().soft_clock_divider){
this->get_iface()->set_gpio_ddr(dboard_iface::UNIT_RX, 0x1); // GPIO0 is clock when on USRP1
}
else{
this->get_iface()->set_gpio_ddr(dboard_iface::UNIT_RX, 0x0); // All Inputs
}
//now its safe to set inital freq and bw
this->get_rx_subtree()->access<double>("freq/value")
.set(dbsrx_freq_range.start());
this->get_rx_subtree()->access<double>("bandwidth/value")
.set(2.0*_bandwidth); //_bandwidth in lowpass, convert to complex bandpass
}
