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EIS_plotter.py
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178 lines (162 loc) · 7.81 KB
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import numpy as np
import matplotlib.pyplot as plt
import copy
import time
import collections
import math
import random
import warnings
from collections import deque
from uuid import uuid4
#TODO->paralell in series+ gerischer
class EIS_plots:
def __init__(self, data,**kwargs,):
if "negative_flag" not in kwargs:
kwargs["negative_flags"]=True
if "desired_plots" not in kwargs:
kwargs["desired_plots"]=["nyquist", "bode"]
elif isinstance(kwargs["desired_plots"], list) is not True:
kwargs["desired_plots"]=[kwargs["desired_plots"]]
if "orthonormal" not in kwargs:
kwargs["orthonormal"]=False
if "scatter" not in kwargs:
kwargs["scatter"]=1
elif kwargs["scatter"]==True:
kwargs["scatter"]=1
elif kwargs["scatter"]==False:
kwargs["scatter"]=0
if "order" not in kwargs or isinstance(kwargs["order"], dict) is not True:
return ValueError("Need to define the order of real, imaginary and frequencies in this format {\"Real\":x,\"Imaginary\":y,\"Frequency\":z }")
if "labels" not in kwargs:
kwargs["labels"]=[None for x in range(0, len(data))]
fig, ax=plt.subplots(1, len(kwargs["desired_plots"]))
if len(kwargs["desired_plots"])==1:
label_loc=kwargs["desired_plots"][0]
ax=[ax]
else:
label_loc="nyquist"
for i in range(0, len(kwargs["desired_plots"])):
axis=ax[i]
if kwargs["desired_plots"][i]=="bode":
twinxis=ax[i].twinx()
for j in range(0, len(data)):
plot_dict={key:data[j][:,kwargs["order"][key]] for key in ["Real", "Imaginary", "Frequency"]}
if kwargs["negative_flags"]==True:
plot_dict["Imaginary"]=np.multiply(plot_dict["Imaginary"], -1)
spectra=np.column_stack((plot_dict["Real"], plot_dict["Imaginary"]))
freqs=plot_dict["Frequency"]
if kwargs["desired_plots"][i]=="bode":
if label_loc=="bode":
label=kwargs["labels"][i]
else:
label=None
self.bode(spectra, freqs, scatter=kwargs["scatter"], ax=axis, twinx=twinxis, label=label, compact_labels=True)
elif kwargs["desired_plots"][i]=="nyquist":
if label_loc=="nyquist":
label=kwargs["labels"][j]
else:
label=None
self.nyquist(spectra, ax=axis, scatter=kwargs["scatter"], orthonormal=kwargs["orthonormal"], label=label)
else:
raise ValueError("Needs to be bode or nyqusit, not {0}".format(kwargs["desired_plots"][i]))
def convert_to_bode(self,spectra):
spectra=[complex(x, y) for x,y in zip(spectra[:,0], spectra[:,1])]
phase=np.angle(spectra, deg=True)#np.arctan(np.divide(-spectra[:,1], spectra[:,0]))*(180/math.pi)
#print(np.divide(spectra[:,1], spectra[:,0]))
magnitude=np.log10(np.abs(spectra))
return np.column_stack((phase,magnitude))
def nyquist(self, spectra, **kwargs):
if "ax" not in kwargs:
_,kwargs["ax"]=plt.subplots(1,1)
if "scatter" not in kwargs:
kwargs["scatter"]=0
if "label" not in kwargs:
kwargs["label"]=None
if "linestyle" not in kwargs:
kwargs["linestyle"]="-"
if "marker" not in kwargs:
kwargs["marker"]="o"
if "colour" not in kwargs:
kwargs["colour"]=None
if "orthonormal" not in kwargs:
kwargs["orthonormal"]=True
ax=kwargs["ax"]
imag_spectra_mean=np.mean(spectra[:,1])
if imag_spectra_mean<0:
ax.plot(spectra[:,0], -spectra[:,1], label=kwargs["label"], linestyle=kwargs["linestyle"], color=kwargs["colour"])
else:
ax.plot(spectra[:,0], spectra[:,1], label=kwargs["label"], linestyle=kwargs["linestyle"], color=kwargs["colour"])
ax.set_xlabel("$Z_{Re}$ ($\\Omega$)")
ax.set_ylabel("$-Z_{Im}$ ($\\Omega$)")
total_max=max(np.max(spectra[:,0]), np.max(-spectra[:,1]))
if kwargs["orthonormal"]==True:
ax.set_xlim([0, total_max+0.1*total_max])
ax.set_ylim([0, total_max+0.1*total_max])
if kwargs["scatter"]!=0:
if imag_spectra_mean<0:
ax.scatter(spectra[:,0][0::kwargs["scatter"]], -spectra[:,1][0::kwargs["scatter"]], marker=kwargs["marker"], color=kwargs["colour"])
else:
ax.scatter(spectra[:,0][0::kwargs["scatter"]], spectra[:,1][0::kwargs["scatter"]], marker=kwargs["marker"], color=kwargs["colour"])
if kwargs["label"] is not None:
ax.legend()
def bode(self, spectra,frequency, **kwargs):
if "ax" not in kwargs:
_,kwargs["ax"]=plt.subplots(1,1)
if "label" not in kwargs:
kwargs["label"]=None
if "type" not in kwargs:
kwargs["type"]="both"
if "twinx" not in kwargs:
kwargs["twinx"]=kwargs["ax"].twinx()
if "data_type" not in kwargs:
kwargs["data_type"]="complex"
if "compact_labels" not in kwargs:
kwargs["compact_labels"]=False
if "lw" not in kwargs:
kwargs["lw"]=1.5
if "alpha" not in kwargs:
kwargs["alpha"]=1
if "scatter" not in kwargs:
kwargs["scatter"]=False
if kwargs["data_type"]=="complex":
spectra=[complex(x, y) for x,y in zip(spectra[:,0], spectra[:,1])]
phase=np.angle(spectra, deg=True)#np.arctan(np.divide(-spectra[:,1], spectra[:,0]))*(180/math.pi)
#print(np.divide(spectra[:,1], spectra[:,0]))
magnitude=np.log10(np.abs(spectra))#np.add(np.square(spectra[:,0]), np.square(spectra[:,1]))
elif kwargs["data_type"]=="phase_mag":
phase=spectra[:,0]
magnitude=spectra[:,1]
if "data_is_log" not in kwargs:
kwargs["data_is_log"]=True
if kwargs["data_is_log"]==False:
magnitude=np.log10(magnitude)
ax=kwargs["ax"]
ax.set_xlabel("$\\log_{10}$(Frequency)")
x_freqs=np.log10(frequency)
if kwargs["type"]=="both":
twinx=kwargs["twinx"]
ax.plot(x_freqs, phase, label=kwargs["label"], lw=kwargs["lw"], alpha=kwargs["alpha"])
if kwargs["compact_labels"]==False:
ax.set_ylabel("-Phase")
twinx.set_ylabel("Magnitude")
else:
ax.text(x=-0.05, y=1.05, s="$-\\psi$", fontsize=12, transform=ax.transAxes)
ax.text(x=0.96, y=1.05, s="$\\log_{10}(|Z|) $", fontsize=12, transform=ax.transAxes)
twinx.plot(x_freqs, magnitude, linestyle="--", lw=kwargs["lw"], alpha=kwargs["alpha"])
if kwargs["scatter"] is not False:
ax.scatter(x_freqs, phase)
twinx.scatter(x_freqs, magnitude, marker="v")
elif kwargs["type"]=="phase":
if kwargs["compact_labels"]==False:
ax.set_ylabel("Phase")
else:
ax.text(x=-0.05, y=1.05, s="$\\psi$", fontsize=12, transform=ax.transAxes)
ax.plot(x_freqs, -phase, label=kwargs["label"], lw=kwargs["lw"], alpha=kwargs["alpha"])
elif kwargs["type"]=="magnitude":
ax.plot(x_freqs, magnitude, label=kwargs["label"], lw=kwargs["lw"], alpha=kwargs["alpha"])
if kwargs["compact_labels"]==False:
ax.set_ylabel("Magnitude")
else:
ax.text(x=-0.05, y=1.05, s="$|Z|$", fontsize=12, transform=ax.transAxes)
if kwargs["label"]!=None:
kwargs["ax"].legend()