def main(num_trig):
print("Connect to LabRAD manager.")
cxn = labrad.connect(LABRAD_HOST)
rft = cxn.zcu111_rftool_labrad_server
wgen = wavegen.WaveGen(logger=logger)
nu = ndarrayutil.NdarrayUtil
print("Generate waveform data.")
wgen.set_parameter(num_sample=DAC_SAMPLES, dac_freq=DAC_FREQ,
carrier_freq=20., amplitude=30000.0)
sin_wave = nu.bytes_to_real(wgen.sinwave())
amplitude = np.linspace(-1., 1., DAC_SAMPLES, endpoint=False)
w_data = (sin_wave * amplitude).reshape(1, -1)[0].astype("<i2").tobytes()
del sin_wave, amplitude
w_size = len(w_data) # for 16bit signed integer
r_size = ADC_SAMPLES * 4 # for 32bit signed integer
rft.termmode(0)
print("Configure Bitstream.")
config_bitstream(rft, BITSTREAM)
print("Setup ADC.")
for tile in [0, 1, 2, 3]:
for block in [0, 1]:
rft.setmixersettings(0, tile, block, 0.0, 0.0,
2, 2, 0, 3, 0)
rft.resetncophase(0, tile, block)
rft.updateevent(0, tile, block, 1)
rft.setupfifo(0, tile, 0)
for block in [0, 1]:
rft.setdither(tile, block, 1 if ADC_FREQ > 3000. else 0)
rft.setdecimationfactor(tile, block, DUC_DDC_FACTOR)
rft.setfabclkoutdiv(0, tile, 2 + int(np.log2(DUC_DDC_FACTOR)))
for block in [0, 1]:
rft.intrclr(0, tile, block, -1)
rft.setupfifo(0, tile, 1)
print("Setup DAC.")
for tile in [0, 1]:
for block in [0, 1, 2, 3]:
rft.setmixersettings(1, tile, block, 0.0, 0.0,
2, 1, 16, 4, 0)
rft.resetncophase(1, tile, block)
rft.updateevent(1, tile, block, 1)
rft.setupfifo(1, tile, 0)
for block in [0, 1, 2, 3]:
rft.setinterpolationfactor(tile, block, DUC_DDC_FACTOR)
rft.setfabclkoutdiv(1, tile, 2 + int(np.log2(DUC_DDC_FACTOR)))
for block in [0, 1, 2, 3]:
rft.intrclr(1, tile, block, -1)
rft.setupfifo(1, tile, 1)
print("Clear BlockRAM.")
rft.clearbram()
for ch in [6, 7]:
print("Send waveform data to DAC Ch.{} BlockRAM".format(ch))
writedatatomemory_w(rft, 1, ch, w_size, w_data)
print("Setting trigger information.")
rft.settriggerinfo(0, 0xFF, ADC_SAMPLES, 0)
rft.settriggerinfo(1, 0xFF, DAC_SAMPLES, 0)
rft.settriggerlatency(0, 97)
rft.settriggerlatency(1, 0)
rft.settriggercycle(32768, 1) # trigger 32768 times
rft.setaccumulatemode(0) # disable accumulation
print("Start trigger.")
rft.starttrigger() # for ADC calibration
wait_trig_done(rft)
print("Clear BlockRAM.")
rft.clearbram()
for ch in [6, 7]:
print("Send waveform data to DAC Ch.{} BlockRAM".format(ch))
writedatatomemory_w(rft, 1, ch, w_size, w_data)
print("Setting trigger information.")
rft.settriggercycle(num_trig, 1)
rft.setaccumulatemode(1) # enable accumulation
print("Start trigger.")
rft.starttrigger() # for ADC accumualtion
wait_trig_done(rft)
r_data = []
for ch in [0, 1]:
print("Receive waveform data from ADC Ch.{} BlockRAM".format(ch))
r_data.append(readdatafrommemory_w(rft, 0, ch, r_size))
print("Check interrupt flags.")
for ch in range(8): # ADC
check_intr_flags(rft, 0, ch)
for ch in range(8): # DAC
check_intr_flags(rft, 1, ch)
print("Processing sample data.")
print("- DAC sample data")
w_sample = nu.bytes_to_real(w_data)
del w_data
print("- ADC sample data")
r_sample = np.array([nu.bytes_to_real_32(rd) for rd in r_data])
del r_data
print("Generating graph image.")
os.makedirs(PLOT_DIR + str(num_trig) + "/", exist_ok=True)
print("- entire DAC")
plot_graph_entire(
DAC_FREQ,
w_sample,
"C0",
"DAC waveform {} samples, {} Msps".format(DAC_SAMPLES, DAC_FREQ),
PLOT_DIR + str(num_trig) + "/bram_send.png"
)
print("- crop DAC")
plot_graph_crop(
DAC_FREQ,
w_sample,
"C0",
"DAC waveform {} samples{}, {} Msps".format(
DAC_SAMPLES,
" (crop {}-{})".format(CROP_PLOT[0], CROP_PLOT[1]),
DAC_FREQ),
PLOT_DIR + str(num_trig) + "/bram_send_crop.png"
)
print("- FFT DAC")
plot_graph_fft(
DAC_FREQ,
w_sample,
"C0",
"DAC FFT, {} samples, {} Msps".format(DAC_SAMPLES, DAC_FREQ),
PLOT_DIR + str(num_trig) + "/bram_send_fft.png"
)
for ch in [0, 1]:
print("- entire ADC Ch.{}".format(ch))
plot_graph_entire(
ADC_FREQ,
r_sample[ch],
"C{}".format(ch + 1),
"ADC waveform {} samples, {} Msps({} times accum.)".format(ADC_SAMPLES, ADC_FREQ, str(num_trig)),
PLOT_DIR + str(num_trig) + "/bram_recv_{}.png".format(ch)
)
print("- crop ADC Ch.{}".format(ch))
plot_graph_crop(
ADC_FREQ,
r_sample[ch],
"C{}".format(ch + 1),
"ADC waveform {} samples{}, {} Msps({} times accum.)".format(
ADC_SAMPLES,
" (crop {}-{})".format(CROP_PLOT[0], CROP_PLOT[1]),
ADC_FREQ, str(num_trig)),
PLOT_DIR + str(num_trig) + "/bram_recv_{}_crop.png".format(ch)
)
print("- FFT ADC Ch.{}".format(ch))
plot_graph_fft(
ADC_FREQ,
r_sample[ch],
"C{}".format(ch + 1),
"ADC FFT {} samples, {} Msps({} times accum.)".format(ADC_SAMPLES, ADC_FREQ, str(num_trig)),
PLOT_DIR + str(num_trig) + "/bram_recv_{}_fft.png".format(ch)
)
print("Done.")
return
def main():
print("Connect to LabRAD manager.")
cxn = labrad.connect(LABRAD_HOST)
rft = cxn.zcu111_rftool_labrad_server
wgen = wavegen.WaveGen(logger=logger)
nu = ndarrayutil.NdarrayUtil
print("Generate waveform data.")
wgen.set_parameter(num_sample=DAC_SAMPLES,
dac_freq=DAC_FREQ,
carrier_freq=10.67,
amplitude=-30000.)
sin_data = wgen.sinwave()
pulse_data = wgen.pulsewave()
tri_data = wgen.triwave()
saw_data = wgen.sawwave()
awg_data = sin_data
mac_wav_data = sin_data + pulse_data + tri_data + saw_data
adc_cap_len = ADC_SAMPLES * 2 # 16-bit signed integer
dac_words = int(DAC_SAMPLES / 8)
rft.termmode(0)
print("Configure Bitstream.")
config_bitstream(rft, BITSTREAM)
print("Setup ADC.")
for tile in [0, 1, 2, 3]:
for block in [0, 1]:
rft.setmixersettings(0, tile, block, 0.0, 0.0, 2, 2, 0, 3, 0)
rft.resetncophase(0, tile, block)
rft.updateevent(0, tile, block, 1)
rft.setupfifo(0, tile, 0)
for block in [0, 1]:
rft.setdither(tile, block, 0)
rft.setdecimationfactor(tile, block, 1)
rft.setfabclkoutdiv(0, tile, 2)
for block in [0, 1]:
rft.intrclr(0, tile, block, -1)
rft.setupfifo(0, tile, 1)
print("Setup DAC.")
for tile in [0, 1]:
for block in [0, 1, 2, 3]:
rft.setmixersettings(1, tile, block, 0.0, 0.0, 2, 1, 16, 4, 0)
rft.resetncophase(1, tile, block)
rft.updateevent(1, tile, block, 1)
rft.setupfifo(1, tile, 0)
for block in [0, 1, 2, 3]:
rft.setinterpolationfactor(tile, block, 1)
rft.setfabclkoutdiv(1, tile, 1)
for block in [0, 1, 2, 3]:
rft.intrclr(1, tile, block, -1)
rft.setupfifo(1, tile, 1)
print("Clear BlockRAM.")
rft.clearbram()
print("Send DAC AWG waveform data / parameters.")
## Write waveform data / trigger parameters for DAC AWG
writedatatomemory_w(rft, 1, CH_AWG_CAP, len(awg_data), awg_data)
dac_awg_params = np.array([0, dac_words] * 16, dtype="<i4")
dac_awg_params_b = nu.real_to_bytes_32(dac_awg_params)
writedatatomemory_w(rft, 5, CH_AWG_CAP, len(dac_awg_params_b),
dac_awg_params_b)
print("Send waveform data for DAC Waveform selector.")
## Write waveform data / trigger parameters for DAC Waveform selector
# 4 patterns output
writedatatomemory_w(rft, 1, CH_TEST_MAC, len(mac_wav_data), mac_wav_data)
print("Set trigger parameters.")
# Set parameters for ADC/DAC-BRAM Bridge controller
rft.settriggerinfo(0, ((0x1 << CH_TEST_MAC) | (0x1 << CH_AWG_CAP)),
ADC_SAMPLES, 0)
rft.settriggerlatency(0, 48)
rft.settriggercycle(32768 * 32, 1)
rft.setmacconfig(0xFF, 0x00) # all ADC channels is 12-bit format
# do not trigger all DACs when MAC is overrange
print("Start Trigger.")
rft.starttrigger()
wait_trig_done(rft)
# Get RFDC ADC interrupt flags / overvoltage detection
adc_test_ch_flags = rft.getintrstatus(0, (CH_TEST_MAC >> 1) & 0x3,
CH_TEST_MAC & 0x1)[3]
adc_cap_ch_flags = rft.getintrstatus(0, (CH_AWG_CAP >> 1) & 0x3,
CH_AWG_CAP & 0x1)[3]
check_adc_overvoltage(adc_test_ch_flags, CH_TEST_MAC)
check_adc_overvoltage(adc_cap_ch_flags, CH_AWG_CAP)
print("Receive ADC MAC channel capture data.")
# Get ADC capture data of test channel
adc_mac_capdata = readdatafrommemory_w(rft, 0, CH_TEST_MAC * 2,
adc_cap_len)
adc_awg_force_captures = []
for sel_pattern in [0, 1, 2, 3]:
print("Set force DAC Waveform selector output pattern {}".format(
sel_pattern))
dac_sel_params = np.array([sel_pattern * dac_words, dac_words] * 16,
dtype="<i4")
dac_sel_params_b = nu.real_to_bytes_32(dac_sel_params)
writedatatomemory_w(rft, 5, CH_TEST_MAC, len(dac_sel_params_b),
dac_sel_params_b)
print("Start Trigger.")
rft.starttrigger()
wait_trig_done(rft)
# Get RFDC ADC interrupt flags / overvoltage detection
adc_test_ch_flags = rft.getintrstatus(0, (CH_TEST_MAC >> 1) & 0x3,
CH_TEST_MAC & 0x1)[3]
check_adc_overvoltage(adc_test_ch_flags, CH_TEST_MAC)
adc_cap_ch_flags = rft.getintrstatus(0, (CH_AWG_CAP >> 1) & 0x3,
CH_AWG_CAP & 0x1)[3]
check_adc_overvoltage(adc_cap_ch_flags, CH_AWG_CAP)
print("Receive ADC capture data for DAC Waveform selector output.")
adc_awg_capdata_force = readdatafrommemory_w(rft, 0, CH_AWG_CAP * 2,
adc_cap_len)
adc_awg_capsample_force = np.array(
nu.bytes_to_real(adc_awg_capdata_force)) / 16
check_low_input_signal(adc_awg_capsample_force, CH_AWG_CAP)
adc_awg_force_captures.append(adc_awg_capsample_force)
print("Disconnect from server.")
adc_mac_capsample = np.array(
nu.bytes_to_real(adc_mac_capdata)) / 16 # conv. 12-bit integer
check_low_input_signal(adc_mac_capsample, CH_TEST_MAC)
print("Prepare MAC multiplied coefficients for self-test.")
require_mac_val = [-25165824, -8388608, 8388608, 25165824]
mac_cap_sq_sum = np.dot(1. * adc_mac_capsample, adc_mac_capsample)
multiplied_samples = [
np.round((rq / mac_cap_sq_sum) * adc_mac_capsample).astype("<i4")
for rq in require_mac_val
]
# print("mac_cap_sq_sum: {}".format(mac_cap_sq_sum))
# print("require_mac_val / mac_cap_sq_sum = {}".format(np.array(require_mac_val) / mac_cap_sq_sum))
print("MAC multiplied coefficients .max={0}, min={1}".format(
np.max(multiplied_samples), np.min(multiplied_samples)))
multiplied_data = [nu.real_to_bytes_32(smp) for smp in multiplied_samples]
mac_comp_coeff = np.array([-16777216, 0, 16777216], dtype="<i4")
mac_comp_coeff_b = nu.real_to_bytes_32(mac_comp_coeff)
# Clear all ADC interrupt flags
for tile in [0, 1, 2, 3]:
for block in [0, 1]:
rft.intrclr(0, tile, block, -1)
print("Send ADC MAC result comparation coefficient data.")
## Write comparation coefficients for ADC MAC
writedatatomemory_w(rft, 4, CH_TEST_MAC * 2, len(mac_comp_coeff_b),
mac_comp_coeff_b)
print("Set DAC Waveform selector parameters.")
dac_sel_params = np.array(
[
0 * dac_words,
dac_words, # sine
1 * dac_words,
dac_words, # pulse
2 * dac_words,
dac_words, # triangle
3 * dac_words,
dac_words, # sawtooth
] * 4,
dtype="<i4")
dac_sel_params_b = nu.real_to_bytes_32(dac_sel_params)
writedatatomemory_w(rft, 5, CH_TEST_MAC, len(dac_sel_params_b),
dac_sel_params_b)
rft.settriggercycle(3, 1)
adc_awg_result_captures = []
adc_mac_actual_captures = []
for sel_pattern in [0, 1, 2, 3]:
print(
"Send ADC MAC multiplied coefficient data where DAC Waveform selector output to be pattern {}."
.format(sel_pattern))
## Write Multiplied coefficients for ADC MAC
writedatatomemory_w(rft, 3, CH_TEST_MAC * 2,
len(multiplied_data[sel_pattern]),
multiplied_data[sel_pattern])
print("Start trigger BRAM Bridge controller.")
rft.starttrigger()
wait_trig_done(rft)
mac_ovrrange = rft.getaccumulateoverrange()
check_mac_overrange(mac_ovrrange, CH_TEST_MAC)
# Get RFDC ADC interrupt flags / overvoltage detection
adc_test_ch_flags = rft.getintrstatus(0, (CH_TEST_MAC >> 1) & 0x3,
CH_TEST_MAC & 0x1)[3]
check_adc_overvoltage(adc_test_ch_flags, CH_TEST_MAC)
adc_cap_ch_flags = rft.getintrstatus(0, (CH_AWG_CAP >> 1) & 0x3,
CH_AWG_CAP & 0x1)[3]
check_adc_overvoltage(adc_cap_ch_flags, CH_AWG_CAP)
print(
"Receive ADC capture data for DAC Waveform selector output validation."
)
# Get ADC capture data of test channel
adc_awg_result_capdata = readdatafrommemory_w(rft, 0, CH_AWG_CAP * 2,
adc_cap_len)
adc_awg_result_capsample = np.array(
nu.bytes_to_real(adc_awg_result_capdata)) / 16
check_low_input_signal(adc_awg_result_capsample, CH_AWG_CAP)
adc_awg_result_captures.append(adc_awg_result_capsample)
print("Receive ADC MAC channel actual capture data.")
# Get ADC capture data of test channel
adc_mac_actual_capdata = readdatafrommemory_w(rft, 0, CH_TEST_MAC * 2,
adc_cap_len)
adc_mac_actual_capsample = np.array(
nu.bytes_to_real(adc_mac_actual_capdata)) / 16
check_low_input_signal(adc_mac_actual_capsample, CH_TEST_MAC)
adc_mac_actual_captures.append(adc_mac_actual_capsample)
time_dac = np.linspace(0.,
DAC_SAMPLES / DAC_FREQ,
DAC_SAMPLES,
endpoint=False) # us
time_adc = np.linspace(0.,
ADC_SAMPLES / DAC_FREQ,
ADC_SAMPLES,
endpoint=False) # us
validation_res = False
os.makedirs(PLOT_DIR, exist_ok=True)
for sel_pattern in [0, 1, 2, 3]:
print("Validation DAC Waveform selector output pattern {}".format(
sel_pattern))
expected_mac_result = np.dot(adc_mac_capsample,
multiplied_samples[sel_pattern])
print(" Expected MAC Result = {}".format(expected_mac_result))
actual_mac_result = np.dot(adc_mac_actual_captures[sel_pattern],
multiplied_samples[sel_pattern])
print(" Actual last MAC Result = {}".format(actual_mac_result))
adc_awg_error = np.abs(adc_awg_result_captures[sel_pattern] -
adc_awg_force_captures[sel_pattern])
adc_awg_error_sum = np.sum(adc_awg_error)
print(" DAC Waveform selector output error sum. = {}".format(
adc_awg_error_sum))
if adc_awg_error_sum < ERR_THRESHOLD:
print(
"Validate DAC Waveform selector output pattern {} successful.".
format(sel_pattern))
else:
print("Validate DAC Waveform selector output pattern {} failed.".
format(sel_pattern))
validation_res = True
print("Generate graph image.")
fig = plt.figure(figsize=(8, 6), dpi=300)
plt.xlabel("Time [us]")
plt.title(
"ADC capture DAC Sel. output Pattern {2} ({0} samples, {1} Msps)".
format(ADC_SAMPLES, ADC_FREQ, sel_pattern))
plt.plot(time_adc,
adc_awg_force_captures[sel_pattern],
linewidth=0.8,
label="Expected")
plt.plot(time_adc,
adc_awg_result_captures[sel_pattern],
linewidth=0.8,
label="Actual")
plt.legend()
plt.savefig(PLOT_DIR +
"adc_cap_dacsel_pattern_{}.png".format(sel_pattern))
fig = plt.figure(figsize=(8, 6), dpi=300)
plt.xlabel("Time [us]")
plt.title(
"ADC capture DAC AWG output Pattern {2} ({0} samples, {1} Msps)".
format(ADC_SAMPLES, ADC_FREQ, sel_pattern))
plt.plot(time_adc, adc_mac_capsample, linewidth=0.8, label="Expected")
plt.plot(time_adc,
adc_mac_actual_captures[sel_pattern],
linewidth=0.8,
label="Actual")
plt.legend()
plt.savefig(PLOT_DIR +
"adc_cap_awg_pattern_{}.png".format(sel_pattern))
print("Done.")
return validation_res
def main(num_trig):
wgen = wavegen.WaveGen(logger=logger)
nu = ndarrayutil.NdarrayUtil
print("Generate waveform data.")
wgen.set_parameter(num_sample=DAC_SAMPLES,
dac_freq=DAC_FREQ,
carrier_freq=20.,
amplitude=30000.0)
sin_wave = nu.bytes_to_real(wgen.sinwave())
amplitude = np.linspace(-1., 1., DAC_SAMPLES, endpoint=False)
w_data = (sin_wave * amplitude).reshape(1, -1)[0].astype("<i2").tobytes()
del sin_wave, amplitude
w_size = len(w_data) # for 16bit signed integer
r_size = ADC_SAMPLES * 4 # for 32bit signed integer
with client.RftoolClient(logger=logger) as rft:
print("Connect to RFTOOL Server.")
rft.connect(ZCU111_IP_ADDR)
rft.command.TermMode(0)
print("Configure Bitstream.")
config_bitstream(rft.command, BITSTREAM)
print("Setup ADC.")
for tile in [0, 1, 2, 3]:
for block in [0, 1]:
rft.command.SetMixerSettings(0, tile, block, 0.0, 0.0, 2, 2, 0,
3, 0)
rft.command.ResetNCOPhase(0, tile, block)
rft.command.UpdateEvent(0, tile, block, 1)
rft.command.SetupFIFO(0, tile, 0)
for block in [0, 1]:
rft.command.SetDither(tile, block,
1 if ADC_FREQ > 3000. else 0)
rft.command.SetDecimationFactor(tile, block, DUC_DDC_FACTOR)
rft.command.SetFabClkOutDiv(0, tile,
2 + int(np.log2(DUC_DDC_FACTOR)))
for block in [0, 1]:
rft.command.IntrClr(0, tile, block, 0xFFFFFFFF)
rft.command.SetupFIFO(0, tile, 1)
print("Setup DAC.")
for tile in [0, 1]:
for block in [0, 1, 2, 3]:
rft.command.SetMixerSettings(1, tile, block, 0.0, 0.0, 2, 1,
16, 4, 0)
rft.command.ResetNCOPhase(1, tile, block)
rft.command.UpdateEvent(1, tile, block, 1)
rft.command.SetupFIFO(1, tile, 0)
for block in [0, 1, 2, 3]:
rft.command.SetInterpolationFactor(tile, block, DUC_DDC_FACTOR)
rft.command.SetFabClkOutDiv(1, tile,
2 + int(np.log2(DUC_DDC_FACTOR)))
for block in [0, 1, 2, 3]:
rft.command.IntrClr(1, tile, block, 0xFFFFFFFF)
rft.command.SetupFIFO(1, tile, 1)
print("Clear BlockRAM.")
rft.command.ClearBRAM()
for ch in [6, 7]:
print("Send waveform data to DAC Ch.{} BlockRAM".format(ch))
rft.if_data.WriteDataToMemory(1, ch, w_size, w_data)
print("Setting trigger information.")
rft.command.SetTriggerInfo(0, 0xFF, ADC_SAMPLES, 0)
rft.command.SetTriggerInfo(1, 0xFF, DAC_SAMPLES, 0)
rft.command.SetTriggerLatency(0, 97)
rft.command.SetTriggerLatency(1, 0)
rft.command.SetTriggerCycle(32768, 1) # trigger 32768 times
rft.command.SetAccumulateMode(0) # disable accumulation
print("Configure PMOD.")
# 4 つの PMOD 出力データ (0xAA, 0xBB, 0xCC, xDD) を設定
rft.if_data.WriteDataToMemory(2, 0, 4, b"\xAA\xBB\xCC\xDD")
rft.command.SetPMODConfig(
bit_to_enable=0xFF, # 全 PMOD の出力 bit を有効にする
num_samples=4, # 出力されるサンプル数 (1サンプル = 8 bit)
latency=0, # トリガーレイテンシ
divratio=32, # 1 サンプルの出力が保持される長さ (DAC tile 1 のサンプリングレートに依存)
polarity=0x0F) # 下位 4 bit の PMOD 出力を反転する
print("Start trigger.")
rft.command.StartTrigger() # for ADC calibration
wait_trig_done(rft.command)
print("Clear BlockRAM.")
rft.command.ClearBRAM()
for ch in [6, 7]:
print("Send waveform data to DAC Ch.{} BlockRAM".format(ch))
rft.if_data.WriteDataToMemory(1, ch, w_size, w_data)
print("Setting trigger information.")
rft.command.SetTriggerCycle(num_trig, 1)
rft.command.SetAccumulateMode(1) # enable accumulation
print("Start trigger.")
rft.command.StartTrigger() # for ADC accumualtion
wait_trig_done(rft.command)
r_data = []
for ch in [0, 1]:
print("Receive waveform data from ADC Ch.{} BlockRAM".format(ch))
r_data.append(rft.if_data.ReadDataFromMemory(0, ch, r_size))
print("Check interrupt flags.")
for ch in range(8): # ADC
check_intr_flags(rft.command, 0, ch)
for ch in range(8): # DAC
check_intr_flags(rft.command, 1, ch)
print("Processing sample data.")
print("- DAC sample data")
w_sample = nu.bytes_to_real(w_data)
del w_data
print("- ADC sample data")
r_sample = np.array([nu.bytes_to_real_32(rd) for rd in r_data])
del r_data
print("Generating graph image.")
os.makedirs(PLOT_DIR + str(num_trig) + "/", exist_ok=True)
print("- entire DAC")
plot_graph_entire(
DAC_FREQ, w_sample, "C0",
"DAC waveform {} samples, {} Msps".format(DAC_SAMPLES, DAC_FREQ),
PLOT_DIR + str(num_trig) + "/bram_send.png")
print("- crop DAC")
plot_graph_crop(
DAC_FREQ, w_sample, "C0", "DAC waveform {} samples{}, {} Msps".format(
DAC_SAMPLES, " (crop {}-{})".format(CROP_PLOT[0], CROP_PLOT[1]),
DAC_FREQ), PLOT_DIR + str(num_trig) + "/bram_send_crop.png")
print("- FFT DAC")
plot_graph_fft(
DAC_FREQ, w_sample, "C0",
"DAC FFT, {} samples, {} Msps".format(DAC_SAMPLES, DAC_FREQ),
PLOT_DIR + str(num_trig) + "/bram_send_fft.png")
for ch in [0, 1]:
print("- entire ADC Ch.{}".format(ch))
plot_graph_entire(
ADC_FREQ, r_sample[ch], "C{}".format(ch + 1),
"ADC waveform {} samples, {} Msps({} times accum.)".format(
ADC_SAMPLES, ADC_FREQ, str(num_trig)),
PLOT_DIR + str(num_trig) + "/bram_recv_{}.png".format(ch))
print("- crop ADC Ch.{}".format(ch))
plot_graph_crop(
ADC_FREQ, r_sample[ch], "C{}".format(ch + 1),
"ADC waveform {} samples{}, {} Msps({} times accum.)".format(
ADC_SAMPLES, " (crop {}-{})".format(CROP_PLOT[0],
CROP_PLOT[1]), ADC_FREQ,
str(num_trig)),
PLOT_DIR + str(num_trig) + "/bram_recv_{}_crop.png".format(ch))
print("- FFT ADC Ch.{}".format(ch))
plot_graph_fft(
ADC_FREQ, r_sample[ch], "C{}".format(ch + 1),
"ADC FFT {} samples, {} Msps({} times accum.)".format(
ADC_SAMPLES, ADC_FREQ, str(num_trig)),
PLOT_DIR + str(num_trig) + "/bram_recv_{}_fft.png".format(ch))
print("Done.")
return
def main():
wgen = wavegen.WaveGen(logger=logger)
nu = ndarrayutil.NdarrayUtil
# 送信する波の形状をサンプリングレートによらず一定にするため, dac_freq = 4096.0 で固定
print("Generate waveform data.")
wgen.set_parameter(num_sample=DAC_SAMPLES,
dac_freq=4096.0,
carrier_freq=1.0,
amplitude=30000.0)
sin_wave = nu.bytes_to_real(wgen.sinwave())
amplitude = np.linspace(-1., 1., DAC_SAMPLES, endpoint=False)
w_data = (sin_wave * amplitude).reshape(1, -1)[0].astype("<i2").tobytes()
del sin_wave, amplitude
w_size = len(w_data) # for 16bit signed integer
with client.RftoolClient(logger=logger) as rft:
print("Connect to RFTOOL Server.")
rft.connect(ZCU111_IP_ADDR)
rft.command.TermMode(0)
print("Configure Bitstream.")
config_bitstream(rft.command, BITSTREAM)
print("set sampling rate.")
set_dac_sampling_rate(rft.command, DAC_FREQ)
print("Setup DAC.")
for tile in [0, 1]:
for block in [0, 1, 2, 3]:
rft.command.SetMixerSettings(DAC, tile, block, 0.0, 0.0, 2, 1,
16, 4, 0)
rft.command.ResetNCOPhase(DAC, tile, block)
rft.command.UpdateEvent(DAC, tile, block, 1)
rft.command.SetupFIFO(DAC, tile, 0)
for block in [0, 1, 2, 3]:
rft.command.SetInterpolationFactor(tile, block, DUC_DDC_FACTOR)
rft.command.SetFabClkOutDiv(DAC, tile,
2 + int(np.log2(DUC_DDC_FACTOR)))
for block in [0, 1, 2, 3]:
rft.command.IntrClr(DAC, tile, block, 0xFFFFFFFF)
rft.command.SetupFIFO(DAC, tile, 1)
print("Clear BlockRAM.")
rft.command.ClearBRAM()
for ch in range(8):
print("Send waveform data to DAC Ch.{} BlockRAM".format(ch))
rft.if_data.WriteDataToMemory(DAC, ch, w_size, w_data)
print("Setting trigger information.")
rft.command.SetTriggerInfo(DAC, 0xFF, DAC_SAMPLES, USE_REAL)
rft.command.SetTriggerLatency(DAC, 0)
rft.command.SetTriggerCycle(1, 1)
print("Start trigger.")
rft.command.StartTrigger()
wait_trig_done(rft.command)
print("Check interrupt flags.")
for ch in range(8):
check_intr_flags(rft.command, DAC, ch)
print("Processing sample data.")
print("- DAC sample data")
w_sample = nu.bytes_to_real(w_data)
del w_data
print("Generating graph image.")
os.makedirs(PLOT_DIR, exist_ok=True)
print("- entire DAC")
plot_graph_entire(
DAC_FREQ, w_sample, CHUNK_DAC_PLOT, "C0",
"DAC waveform {} samples, {} Msps".format(DAC_SAMPLES,
DAC_FREQ), "bram_send.png")
print("- crop DAC")
plot_graph_crop(
DAC_FREQ, w_sample, "C0", "DAC waveform {} samples{}, {} Msps".format(
DAC_SAMPLES, " (crop {}-{})".format(CROP_PLOT[0], CROP_PLOT[1]),
DAC_FREQ), "bram_send_crop.png")
print("- FFT DAC")
plot_graph_fft(
DAC_FREQ, w_sample, "C0",
"DAC FFT, {} samples, {} Msps".format(DAC_SAMPLES,
DAC_FREQ), "bram_send_fft.png")
print("Done.")
return
def main():
wgen = wavegen.WaveGen(logger=logger)
nu = ndarrayutil.NdarrayUtil
print("Generate waveform data.")
wgen.set_parameter(num_sample=DAC_SAMPLES, dac_freq=DAC_FREQ,
carrier_freq=30.0, amplitude=30000.0)
w_data = wgen.sinwave()
w_size = len(w_data) # for 16bit signed integer
r_size = ADC_SAMPLES * 4 * 2 # for two 32bit signed integer values (I Data and Q Data)
with client.RftoolClient(logger=logger) as rft:
print("Connect to RFTOOL Server.")
rft.connect(ZCU111_IP_ADDR)
rft.command.TermMode(0)
print("Configure Bitstream.")
config_bitstream(rft.command, BITSTREAM)
print("set sampling rate.")
set_adc_sampling_rate(rft.command, ADC_FREQ)
set_dac_sampling_rate(rft.command, DAC_FREQ)
print("Setup ADC.")
for tile in [0, 1, 2, 3]:
for block in [0, 1]:
rft.command.SetMixerSettings(ADC, tile, block, 10, 45.0,
2, 2, 16, 3, 0)
rft.command.ResetNCOPhase(ADC, tile, block)
rft.command.UpdateEvent(ADC, tile, block, 1)
rft.command.SetupFIFO(ADC, tile, 0)
for block in [0, 1]:
rft.command.SetDither(tile, block, 1 if ADC_FREQ > 3000. else 0)
rft.command.SetDecimationFactor(tile, block, DUC_DDC_FACTOR)
rft.command.SetFabClkOutDiv(ADC, tile, 2 + int(np.log2(DUC_DDC_FACTOR)))
for block in [0, 1]:
rft.command.IntrClr(ADC, tile, block, 0xFFFFFFFF)
rft.command.SetupFIFO(ADC, tile, 1)
print("Setup DAC.")
for tile in [0, 1]:
for block in [0, 1, 2, 3]:
rft.command.SetMixerSettings(DAC, tile, block, 0.0, 0.0,
2, 1, 16, 4, 0)
rft.command.ResetNCOPhase(DAC, tile, block)
rft.command.UpdateEvent(DAC, tile, block, 1)
rft.command.SetupFIFO(DAC, tile, 0)
for block in [0, 1, 2, 3]:
rft.command.SetInterpolationFactor(tile, block, DUC_DDC_FACTOR)
rft.command.SetFabClkOutDiv(DAC, tile, 2 + int(np.log2(DUC_DDC_FACTOR)))
for block in [0, 1, 2, 3]:
rft.command.IntrClr(DAC, tile, block, 0xFFFFFFFF)
rft.command.SetupFIFO(DAC, tile, 1)
print("Clear BlockRAM.")
rft.command.ClearBRAM()
for ch in [6, 7]:
print("Send waveform data to DAC Ch.{} BlockRAM".format(ch))
rft.if_data.WriteDataToMemory(DAC, ch, w_size, w_data)
print("Setting trigger information.")
rft.command.SetTriggerInfo(ADC, 0xFF, ADC_SAMPLES, USE_IQ)
rft.command.SetTriggerInfo(DAC, 0xFF, DAC_SAMPLES, USE_REAL)
rft.command.SetTriggerLatency(ADC, 45)
rft.command.SetTriggerLatency(DAC, 0)
rft.command.SetTriggerCycle(1, 1)
rft.command.SetAccumulateMode(0) # disable accumulation
print("Start trigger.")
rft.command.StartTrigger()
wait_trig_done(rft.command)
r_data = []
for ch in [0, 1]:
print("Receive waveform data from ADC Ch.{} BlockRAM".format(ch))
r_data.append(rft.if_data.ReadDataFromMemory(ADC, ch, r_size))
print("Check interrupt flags.")
for ch in range(8):
check_intr_flags(rft.command, ADC, ch)
for ch in range(8):
check_intr_flags(rft.command, DAC, ch)
print("Processing sample data.")
print("- DAC sample data")
w_sample = nu.bytes_to_real(w_data)
del w_data
print("- ADC sample data")
r_sample = np.array([nu.bytes_to_complex_32(rd) for rd in r_data])
del r_data
print("Generating graph image.")
os.makedirs(PLOT_DIR, exist_ok=True)
print("- entire DAC")
plot_graph_entire(
DAC_FREQ,
w_sample,
1,
"C0",
"DAC waveform {} samples, {} Msps".format(DAC_SAMPLES, DAC_FREQ),
"bram_send.png"
)
print("- crop DAC")
plot_graph_crop(
DAC_FREQ,
w_sample,
"C0",
"DAC waveform {} samples{}, {} Msps".format(
DAC_SAMPLES,
" (crop {}-{})".format(CROP_PLOT[0], CROP_PLOT[1]),
DAC_FREQ),
"bram_send_crop.png"
)
print("- FFT DAC")
plot_graph_fft(
DAC_FREQ,
w_sample,
"C0",
"DAC FFT, {} samples, {} Msps".format(DAC_SAMPLES, DAC_FREQ),
"bram_send_fft.png"
)
for ch in range(2):
print("- entire ADC Ch.{}".format(ch))
plot_graph_entire_iq(
ADC_FREQ,
r_sample[ch],
1,
"C{}".format(ch + 1),
"ADC waveform {} samples, {} Msps".format(ADC_SAMPLES, ADC_FREQ),
"bram_recv_{}.png".format(ch)
)
print("- crop ADC Ch.{}".format(ch))
plot_graph_crop_iq(
ADC_FREQ,
r_sample[ch],
"C{}".format(ch + 1),
"ADC waveform {} samples{}, {} Msps".format(
ADC_SAMPLES,
" (crop {}-{})".format(CROP_PLOT[0], CROP_PLOT[1]),
ADC_FREQ),
"bram_recv_{}_crop.png".format(ch)
)
print("- FFT ADC Ch.{}".format(ch))
plot_graph_fft_iq(
ADC_FREQ,
r_sample[ch],
"C{}".format(ch + 1),
"ADC FFT {} samples, {} Msps".format(ADC_SAMPLES, ADC_FREQ),
"bram_recv_{}_fft.png".format(ch)
)
print("Done.")
return
def main(num_trig):
wgen = wavegen.WaveGen(logger=logger)
nu = ndarrayutil.NdarrayUtil
print("Generate waveform data.")
wgen.set_parameter(num_sample=DAC_SAMPLES,
dac_freq=DAC_FREQ,
carrier_freq=64.,
amplitude=-30000.0)
w_data = wgen.sinwave()
w_size = len(w_data) # for 16bit signed integer
r_size = ADC_SAMPLES * 4 # for 32bit signed integer
with client.RftoolClient(logger=logger) as rft:
print("Connect to RFTOOL Server.")
rft.connect(ZCU111_IP_ADDR)
rft.command.TermMode(0)
print("Configure Bitstream.")
config_bitstream(rft.command, BITSTREAM)
print("Setup ADC.")
for tile in [0, 1, 2, 3]:
for block in [0, 1]:
rft.command.SetMixerSettings(0, tile, block, 0.0, 0.0, 2, 2, 0,
3, 0)
rft.command.ResetNCOPhase(0, tile, block)
rft.command.UpdateEvent(0, tile, block, 1)
rft.command.SetupFIFO(0, tile, 0)
for block in [0, 1]:
rft.command.SetDither(tile, block,
1 if ADC_FREQ > 3000. else 0)
rft.command.SetDecimationFactor(tile, block, DUC_DDC_FACTOR)
rft.command.SetFabClkOutDiv(0, tile,
2 + int(np.log2(DUC_DDC_FACTOR)))
for block in [0, 1]:
rft.command.IntrClr(0, tile, block, 0xFFFFFFFF)
rft.command.SetupFIFO(0, tile, 1)
print("Setup DAC.")
for tile in [0, 1]:
for block in [0, 1, 2, 3]:
rft.command.SetMixerSettings(1, tile, block, 0.0, 0.0, 2, 1,
16, 4, 0)
rft.command.ResetNCOPhase(1, tile, block)
rft.command.UpdateEvent(1, tile, block, 1)
rft.command.SetupFIFO(1, tile, 0)
for block in [0, 1, 2, 3]:
rft.command.SetInterpolationFactor(tile, block, DUC_DDC_FACTOR)
rft.command.SetFabClkOutDiv(1, tile,
2 + int(np.log2(DUC_DDC_FACTOR)))
for block in [0, 1, 2, 3]:
rft.command.IntrClr(1, tile, block, 0xFFFFFFFF)
rft.command.SetupFIFO(1, tile, 1)
print("Clear BlockRAM.")
rft.command.ClearBRAM()
for ch in [6, 7]:
print("Send waveform data to DAC Ch.{} BlockRAM".format(ch))
rft.if_data.WriteDataToMemory(1, ch, w_size, w_data)
print("Setting trigger information.")
rft.command.SetTriggerInfo(0, 0xFF, ADC_SAMPLES, 0)
rft.command.SetTriggerInfo(1, 0xFF, DAC_SAMPLES, 0)
rft.command.SetTriggerLatency(0, 97)
rft.command.SetTriggerLatency(1, 0)
rft.command.SetTriggerCycle(32768, 1) # trigger 32768 times
rft.command.SetAccumulateMode(0) # disable accumulation
print("Start trigger.")
rft.command.StartTrigger() # for ADC calibration
wait_trig_done(rft.command)
print("Clear BlockRAM.")
rft.command.ClearBRAM()
for ch in [6, 7]:
print("Send waveform data to DAC Ch.{} BlockRAM".format(ch))
rft.if_data.WriteDataToMemory(1, ch, w_size, w_data)
print("Setting trigger information.")
rft.command.SetTriggerCycle(num_trig, 1)
rft.command.SetAccumulateMode(1) # enable accumulation
print("Start trigger.")
rft.command.StartTrigger() # for ADC accumualtion
wait_trig_done(rft.command)
r_data = []
for ch in [0, 1]:
print("Receive waveform data from ADC Ch.{} BlockRAM".format(ch))
r_data.append(rft.if_data.ReadDataFromMemory(0, ch, r_size))
print("Check interrupt flags.")
for ch in range(8): # ADC
check_intr_flags(rft.command, 0, ch)
for ch in range(8): # DAC
check_intr_flags(rft.command, 1, ch)
print("Processing sample data.")
print("- DAC sample data")
w_sample = nu.bytes_to_real(w_data)
del w_data
print("- ADC sample data")
r_sample = np.array([nu.bytes_to_real_32(rd) for rd in r_data])
del r_data
print("Generating graph image.")
os.makedirs(PLOT_DIR + str(num_trig) + "/", exist_ok=True)
# print("- entire DAC")
# plot_graph_entire(
# DAC_FREQ,
# w_sample,
# "C0",
# "DAC waveform {} samples, {} Msps".format(DAC_SAMPLES, DAC_FREQ),
# PLOT_DIR + str(num_trig) + "/bram_send.png"
# )
#
print("- crop DAC")
plot_graph_crop(
DAC_FREQ, w_sample, "C0", "DAC waveform {} samples{}, {} Msps".format(
DAC_SAMPLES, " (crop {}-{})".format(CROP_PLOT[0], CROP_PLOT[1]),
DAC_FREQ), PLOT_DIR + str(num_trig) + "/bram_send_crop.png")
#
# print("- FFT DAC")
# plot_graph_fft(
# DAC_FREQ,
# w_sample,
# "C0",
# "DAC FFT, {} samples, {} Msps".format(DAC_SAMPLES, DAC_FREQ),
# PLOT_DIR + str(num_trig) + "/bram_send_fft.png"
# )
for ch in [0, 1]:
# print("- entire ADC Ch.{}".format(ch))
# plot_graph_entire(
# ADC_FREQ,
# r_sample[ch],
# "C{}".format(ch + 1),
# "ADC waveform {} samples, {} Msps({} times accum.)".format(ADC_SAMPLES, ADC_FREQ, str(num_trig)),
# PLOT_DIR + str(num_trig) + "/bram_recv_{}.png".format(ch)
# )
print("- crop ADC Ch.{}".format(ch))
plot_graph_crop(
ADC_FREQ, r_sample[ch], "C{}".format(ch + 1),
"ADC waveform {} samples{}, {} Msps({} times accum.)".format(
ADC_SAMPLES, " (crop {}-{})".format(CROP_PLOT[0],
CROP_PLOT[1]), ADC_FREQ,
str(num_trig)),
PLOT_DIR + str(num_trig) + "/bram_recv_{}_crop.png".format(ch))
# print("- FFT ADC Ch.{}".format(ch))
# plot_graph_fft(
# ADC_FREQ,
# r_sample[ch],
# "C{}".format(ch + 1),
# "ADC FFT {} samples, {} Msps({} times accum.)".format(ADC_SAMPLES, ADC_FREQ, str(num_trig)),
# PLOT_DIR + str(num_trig) + "/bram_recv_{}_fft.png".format(ch)
# )
print("Done.")
return
def main():
wgen = wavegen.WaveGen(logger=logger)
nu = ndarrayutil.NdarrayUtil
print("Generate waveform data.")
wgen.set_parameter(num_sample=DAC_SAMPLES,
dac_freq=DAC_FREQ,
carrier_freq=20.0,
amplitude=-30000.0)
w_data = wgen.sinwave()
w_size = len(w_data) # for 16-bit signed integer
r_size = ADC_SAMPLES * 2 # for 16-bit signed integer
mac_comp_coeff = np.array(
[-1, 0, 1], dtype="<i4") # MAC result comparation coefficients
mac_comp_coeff_b = nu.real_to_bytes_32(mac_comp_coeff)
dac_trig_params = np.array(
[0, DAC_SAMPLES / 8] * 16,
dtype="<i4") # start of word:0, num of word:DAC_SAMPLES/8
dac_trig_params_b = nu.real_to_bytes_32(dac_trig_params)
with client.RftoolClient(logger=logger) as rft:
print("Connect to RFTOOL Server.")
rft.connect(ZCU111_IP_ADDR)
rft.command.TermMode(0)
print("Configure Bitstream.")
config_bitstream(rft.command, BITSTREAM)
print("Setup ADC.")
for tile in [0, 1, 2, 3]:
for block in [0, 1]:
rft.command.SetMixerSettings(0, tile, block, 0.0, 0.0, 2, 2, 0,
3, 0)
rft.command.ResetNCOPhase(0, tile, block)
rft.command.UpdateEvent(0, tile, block, 1)
rft.command.SetupFIFO(0, tile, 0)
for block in [0, 1]:
rft.command.SetDither(tile, block,
1 if ADC_FREQ > 3000. else 0)
rft.command.SetDecimationFactor(tile, block, 1)
rft.command.SetFabClkOutDiv(0, tile, 2)
for block in [0, 1]:
rft.command.IntrClr(0, tile, block, 0xFFFFFFFF)
rft.command.SetupFIFO(0, tile, 1)
print("Setup DAC.")
for tile in [0, 1]:
for block in [0, 1, 2, 3]:
rft.command.SetMixerSettings(1, tile, block, 0.0, 0.0, 2, 1,
16, 4, 0)
rft.command.ResetNCOPhase(1, tile, block)
rft.command.UpdateEvent(1, tile, block, 1)
rft.command.SetupFIFO(1, tile, 0)
for block in [0, 1, 2, 3]:
rft.command.SetInterpolationFactor(tile, block, 1)
rft.command.SetFabClkOutDiv(1, tile, 1)
for block in [0, 1, 2, 3]:
rft.command.IntrClr(1, tile, block, 0xFFFFFFFF)
rft.command.SetupFIFO(1, tile, 1)
print("Clear BlockRAM.")
rft.command.ClearBRAM()
# Write waveform data to DAC channel 0, 1 (Tile 1 Block 2, 3) BRAM region
for ch in [0, 1]:
print("Send waveform data to Feedback system Ch.{} DAC BlockRAM".
format(ch))
rft.if_data.WriteDataToMemory(1, ch, w_size, w_data)
# Write MAC result comparation coefficients for ADC channel 0 I part, 0 Q part, 1 I part, 1 Q part
for ch in [0, 1, 2, 3]:
print(
"Send waveform data to Feedback system Ch.{} MAC result comparation coefficients."
.format(ch))
rft.if_data.WriteDataToMemory(4, ch, len(mac_comp_coeff_b),
mac_comp_coeff_b)
print(
"Send waveform data to Feedback system Ch.{} DAC trigger parameters."
.format(0))
rft.if_data.WriteDataToMemory(5, 0, len(dac_trig_params_b),
dac_trig_params_b)
print(
"Send waveform data to Feedback system Ch.{} DAC trigger parameters."
.format(1))
rft.if_data.WriteDataToMemory(5, 1, len(dac_trig_params_b),
dac_trig_params_b)
print("Setting trigger information.")
rft.command.SetTriggerInfo(
0, 0x03, ADC_SAMPLES, 0
) # enable ADC channel 0(Tile 0 Block 0), channel 1(Tile 0 Block 1)
# to trigger DAC channel 0(Tile 1 Block 2), channel 1(Tile 1 Block 3)
rft.command.SetTriggerLatency(
0, 66) # ADC trigger latency (approx. 0.22us = 66/300MHz)
rft.command.SetMACConfig(0x00,
0xFF) # all ADC channels is 16-bit format
# force trigger all DACs regardless of MAC overrange
rft.command.SetTriggerCycle(32768, 1) # trigger 32768 times
print("Start trigger.")
rft.command.StartTrigger()
wait_trig_done(rft.command)
time.sleep(1.)
print("Setting trigger information.")
rft.command.SetTriggerCycle(3, 1) # trigger 3 times
print("Start trigger.")
rft.command.StartTrigger()
wait_trig_done(rft.command)
# Read I(Real) data from ADC Tile 0 Block 0, 1 RAM region
r_data = []
for ch in [0, 2]:
print(
"Receive waveform data from Feedback system Ch.{} ADC capture BlockRAM"
.format(ch))
r_data.append(rft.if_data.ReadDataFromMemory(0, ch, r_size))
print("Check interrupt flags.")
for ch in range(8): # ADC
check_intr_flags(rft.command, 0, ch)
for ch in range(8): # DAC
check_intr_flags(rft.command, 1, ch)
print("Processing sample data.")
print("- DAC sample data")
w_sample = nu.bytes_to_real(w_data)
del w_data
print("- ADC sample data")
r_sample = [nu.bytes_to_real(r_data[ch]) for ch in [0, 1]]
del r_data
print("Generating graph image.")
os.makedirs(PLOT_DIR, exist_ok=True)
print("- DAC waveform")
plot_graph(
DAC_FREQ, w_sample, "C0",
"DAC waveform {} samples, {} Msps".format(DAC_SAMPLES,
DAC_FREQ), "bram_send.png")
for ch in range(2):
print("- ADC waveform Ch.{}".format(ch))
plot_graph(
ADC_FREQ, r_sample[ch], "C{}".format(ch + 1),
"ADC waveform {} samples, {} Msps".format(ADC_SAMPLES, ADC_FREQ),
"bram_recv_{}.png".format(ch))
print("Done.")
return