Finished toml figuration files for all pyphot components

README.md

@@ -16,7 +16,7 @@ python3 example.py
 
 ## TOML 配置文件
 
-目前已给出发射端的 TOML 配置文件，以供计算引擎调用，都位于该 [目录](toml/dev) 下。发射端的调用顺序为：
+目前已给出发射端的 TOML 配置文件，以供计算引擎调用，都位于 [toml](toml/) 目录下。发射端的调用顺序为：
 
 ```
 gen_bits() -> qam_modulate() -> PulseShaper() -> PulseShaper.tx_shape() -> dac_noise() -> phase_noise() -> gaussian_noise()

phot/components/frame_syncer.py

@@ -27,6 +27,7 @@ def sync_frame(signal_x, signal_y, prev_signal_x, prev_signal_y, up_sampling_fac
     start_index_x_1 = fine_synchronize(
         signal_x[0 : 10000 * up_sampling_factor : up_sampling_factor].T, prev_signal_x[0:4000].T
     )
+
     start_index_y_1 = fine_synchronize(
         signal_y[0 : 10000 * up_sampling_factor : up_sampling_factor].T, prev_signal_y[0:4000].T
     )

toml/adaptive_equalize.toml

@@ -0,0 +1,72 @@
+[adaptive_equalize]
+
+is_class = false
+frontend_name = "Adaptive equalize"
+description = "自适应均衡"
+is_analyzer = false
+
+[adaptive_equalize.parameters]
+
+[adaptive_equalize.parameters.num_tap]
+frontend_name = "Number of tap"
+data_type = "int"
+value = "25"
+unit = ""
+unit_type = ""
+
+[adaptive_equalize.parameters.cma_convergence]
+frontend_name = "CMA convergence"
+data_type = "int"
+value = "30000"
+unit = ""
+unit_type = ""
+
+[adaptive_equalize.parameters.ref_power_cma]
+frontend_name = "reference power of CMA"
+data_type = "int"
+value = "2"
+unit = ""
+unit_type = ""
+
+[adaptive_equalize.parameters.step_size_cma]
+frontend_name = "step size of CMA"
+data_type = "float"
+value = "0.000000001"
+unit = ""
+unit_type = ""
+
+[adaptive_equalize.parameters.step_size_rde]
+frontend_name = "step size of RDE"
+data_type = "float"
+value = "0.000000001"
+unit = ""
+unit_type = ""
+
+[adaptive_equalize.parameters.up_sampling_factor]
+frontend_name = "up sampling factor"
+data_type = "int"
+value = "2"
+unit = ""
+unit_type = ""
+
+[adaptive_equalize.parameters.bits_per_symbol]
+frontend_name = "bits per symbol"
+data_type = "int"
+value = "6"
+unit = ""
+unit_type = ""
+
+[adaptive_equalize.parameters.total_baud]
+frontend_name = "total baud rate"
+data_type = "int"
+value = "20000000000"
+unit = ""
+unit_type = ""
+
+[adaptive_equalize.input]
+signal_x = "Input signal x"
+signal_y = "Input signal y"
+
+[adaptive_equalize.output]
+signal_x = "Output signal x"
+signal_y = "Output signal y"

toml/add_dac_noise.toml

@@ -0,0 +1,37 @@
+[add_adc_noise]
+
+is_class = false
+frontend_name = "Add ADC noise"
+description = "Add ADC noise to signal"
+is_analyzer = false
+
+[add_adc_noise.parameters]
+
+[add_adc_noise.parameters.sampling_rate]
+frontend_name = "Sampling rate"
+data_type = "int"
+value = "1024000000000"
+unit = "hz"
+unit_type = "frequency"
+
+[add_adc_noise.parameters.adc_sample_rate]
+frontend_name = "Frequency offset"
+data_type = "int"
+value = "160000000000"
+unit = "hz"
+unit_type = "frequency"
+
+[add_adc_noise.parameters.adc_resolution_bits]
+frontend_name = "Frequency offset"
+data_type = "int"
+value = "8"
+unit = ""
+unit_type = ""
+
+[add_adc_noise.input]
+signal_x = "Input signal x"
+signal_y = "Input signal y"
+
+[add_adc_noise.output]
+signal_x = "Output signal x"
+signal_y = "Output signal y"

toml/add_freq_offset.toml

@@ -0,0 +1,30 @@
+[add_freq_offset]
+
+is_class = false
+frontend_name = "Add frequency offset"
+description = "Add frequency offset to signal"
+is_analyzer = false
+
+[add_freq_offset.parameters]
+
+[add_freq_offset.parameters.frequency_offset]
+frontend_name = "Frequency offset"
+data_type = "float"
+value = "2000000000"
+unit = ""
+unit_type = ""
+
+[add_freq_offset.parameters.sampling_rate]
+frontend_name = "Sampling rate"
+data_type = "float"
+value = "1024000000000"
+unit = "hz"
+unit_type = "frequency"
+
+[add_freq_offset.input]
+signal_x = "Input signal x"
+signal_y = "Input signal y"
+
+[add_freq_offset.output]
+signal_x = "Output signal x"
+signal_y = "Output signal y"

toml/add_iq_imbalance.toml

@@ -0,0 +1,15 @@
+[add_iq_imbalance]
+
+is_class = false
+frontend_name = "Add frequency IQ imbalance"
+description = "Add frequency IQ imbalance to signal"
+is_analyzer = false
+
+
+[add_iq_imbalance.input]
+signal_x = "Input signal x"
+signal_y = "Input signal y"
+
+[add_iq_imbalance.output]
+signal_x = "Output signal x"
+signal_y = "Output signal y"

toml/bits_error_count.toml

@@ -0,0 +1,29 @@
+[bits_error_count]
+
+is_class = false
+frontend_name = "Bits error counter"
+description = "Count bits error for signal"
+is_analyzer = true
+
+[bits_error_count.parameters]
+
+[bits_error_count.parameters.bits_per_symbol]
+frontend_name = "bits per symbol"
+data_type = "int"
+value = "6"
+unit = ""
+unit_type = ""
+
+[bits_error_count.input]
+signal_x = "Input signal x"
+signal_y = "Input signal y"
+
+prev_symbols_x = "Previous input symbols x"
+prev_symbols_y = "Previous input symbols y"
+
+[bits_error_count.output]
+signal_x = "Output signal x"
+signal_y = "Output signal y"
+
+prev_symbols_x = "Previous output symbols x"
+prev_symbols_y = "Previous output symbols y"

toml/bps_restore.toml

@@ -0,0 +1,37 @@
+[bps_restore]
+
+is_class = false
+frontend_name = "BPS restore"
+description = "BPS restore"
+is_analyzer = false
+
+[bps_restore.parameters]
+
+[bps_restore.parameters.num_test_angle]
+frontend_name = "number of test angles"
+data_type = "int"
+value = "64"
+unit = ""
+unit_type = ""
+
+[bps_restore.parameters.block_size]
+frontend_name = "block size"
+data_type = "int"
+value = "100"
+unit = ""
+unit_type = ""
+
+[bps_restore.parameters.bits_per_symbol]
+frontend_name = "bits per symbol"
+data_type = "int"
+value = "6"
+unit = ""
+unit_type = ""
+
+[bps_restore.input]
+signal_x = "Input signal x"
+signal_y = "Input signal y"
+
+[bps_restore.output]
+signal_x = "Output signal x"
+signal_y = "Output signal y"

toml/iq_freq_offset_and_compensation.toml

@@ -0,0 +1,47 @@
+[iq_freq_offset_and_compensation]
+
+is_class = false
+frontend_name = "IQ frequency offset and compensation"
+description = "IQ frequency offset and compensation for signal"
+is_analyzer = false
+
+[iq_freq_offset_and_compensation.parameters]
+
+[iq_freq_offset_and_compensation.parameters.sampling_rate]
+frontend_name = "Sampling rate"
+data_type = "float"
+value = "1024000000000"
+unit = "hz"
+unit_type = "frequency"
+
+[iq_freq_offset_and_compensation.parameters.beta2]
+frontend_name = "beta2"
+data_type = "float"
+value = "0.0000000000000000000000216676"
+unit = ""
+unit_type = ""
+
+[iq_freq_offset_and_compensation.parameters.span]
+frontend_name = "Simulation span"
+data_type = "int"
+value = "5"
+unit = ""
+unit_type = ""
+
+[iq_freq_offset_and_compensation.parameters.L]
+frontend_name = "Length"
+data_type = "int"
+value = "75"
+unit = "km"
+unit_type = "length"
+
+[iq_freq_offset_and_compensation.input]
+signal_x = "Input signal x"
+signal_y = "Input signal y"
+
+power_x = "Input power x"
+power_y = "Input power y"
+
+[iq_freq_offset_and_compensation.output]
+signal_x = "Output signal x"
+signal_y = "Output signal y"

toml/optical_fiber_channel.toml

@@ -0,0 +1,74 @@
+[optical_fiber_channel]
+
+is_class = false
+frontend_name = "Optical fiber"
+description = "Single core single mode dual polarization fiber"
+is_analyzer = false
+
+[optical_fiber_channel.parameters]
+
+[optical_fiber_channel.parameters.sampling_rate]
+frontend_name = "Sampling rate"
+data_type = "float"
+value = "1024000000000"
+unit = "hz"
+unit_type = "frequency"
+
+[optical_fiber_channel.parameters.span]
+frontend_name = "Simulation span"
+data_type = "int"
+value = "5"
+unit = ""
+unit_type = ""
+
+[optical_fiber_channel.parameters.num_steps]
+frontend_name = "Number of step per length"
+data_type = "int"
+value = "75"
+unit = ""
+unit_type = ""
+
+[optical_fiber_channel.parameters.beta2]
+frontend_name = "beta2"
+data_type = "float"
+value = "0.0000000000000000000000216676"
+unit = ""
+unit_type = ""
+
+[optical_fiber_channel.parameters.delta_z]
+frontend_name = "Length per step"
+data_type = "float"
+value = "1"
+unit = ""
+unit_type = ""
+
+[optical_fiber_channel.parameters.gamma]
+frontend_name = "gamma"
+data_type = "float"
+value = "1.3"
+unit = ""
+unit_type = ""
+
+[optical_fiber_channel.parameters.alpha]
+frontend_name = "alpha"
+data_type = "float"
+value = "0.2"
+unit = ""
+unit_type = ""
+
+[optical_fiber_channel.parameters.L]
+frontend_name = "Length"
+data_type = "int"
+value = "75"
+unit = "km"
+unit_type = "length"
+
+[optical_fiber_channel.input]
+tx_signal_x = "Transmitting terminal(TX modules) signal x"
+tx_signal_y = "Transmitting terminal(TX modules) signal y"
+
+[optical_fiber_channel.output]
+signal_x = "Output signal x"
+signal_y = "Output signal y"
+power_x = "Output power x"
+power_y = "Output power y"