denspp.offline.analog.pyspice_load#

Module Contents#

Classes#

SettingsPySpice

Individual data class to configure the electrical device Attributes: type: Type of electrical device [‘R’: resistor, ‘C’: capacitor, ‘L’: inductor, ‘RDs’: Resistive diode] fs_ana: Sampling frequency of input [Hz] noise_en: Enable noise on output [True / False] dev_value: Value of the selected electrical device temp: Temperature [K]

PySpiceLoad

Data#

RecommendedSettingsDEV

API#

class denspp.offline.analog.pyspice_load.SettingsPySpice[source]#

Individual data class to configure the electrical device Attributes: type: Type of electrical device [‘R’: resistor, ‘C’: capacitor, ‘L’: inductor, ‘RDs’: Resistive diode] fs_ana: Sampling frequency of input [Hz] noise_en: Enable noise on output [True / False] dev_value: Value of the selected electrical device temp: Temperature [K]

type: str#

None

fs_ana: float#

None

noise_en: bool#

None

dev_value: float#

None

temp: float#

None

denspp.offline.analog.pyspice_load.RecommendedSettingsDEV#

‘SettingsPySpice(…)’

class denspp.offline.analog.pyspice_load.PySpiceLoad(settings_pyspice: denspp.offline.analog.pyspice_load.SettingsPySpice)[source]#

Bases: denspp.offline.analog.pyspice_handler.PySpiceHandler

Initialization

Rewritten API for using PySPICE in simulation (Git Tutorial: benedictjones/engineeringthings-pyspice, YouTube: https://www.youtube.com/watch?v=62BOYx1UCfs&list=PL97KTNA1aBe1QXCcVIbZZ76B2f0Sx2Snh) Args: temperature: Given temperature for simulation in [K] [Default: 300.0 K] input_voltage: Defining if input is a voltage (True) or current (False) Returns: None

set_simulation_duration(sim_time: float) → None[source]#

Defining the simulation duration for SPICE simulation

print_types() → None[source]#

Print electrical types in terminal

get_current(u_top: numpy.ndarray | float, u_bot: numpy.ndarray | float) → numpy.ndarray[source]#

Getting the current response from electrical device Args: u_top: Applied voltage on top electrode [V] u_bot: Applied voltage on bottom electrode [V] Returns: Corresponding current response

get_voltage(i_in: numpy.ndarray, u_inn: numpy.ndarray | float) → numpy.ndarray[source]#

Getting the voltage response from electrical device Args: i_in: Applied current input [A] u_inn: Negative input | bottom electrode | reference voltage [V] Returns: Corresponding voltage response

plot_fit_curve(start_value: float = -5.0, stop_value: float = +5.0, step_size: float = 0.1, do_logy: bool = False, path2save: str = '', show_plot: bool = False) → None[source]#

Plotting the output of the polynom fit function Args: start_value: Starting point of DC Sweep stop_value: End point of DC Sweep step_size: Step size of DC Sweep do_logy: Do logarithmic plotting on y-scale path2save: Path for saving the plot show_plot: Showing and blocking the plot Returns: None