pip install rf-tool

import rftool.pcb as pcb
# Quasi static impedance, Hammerstad and Jensen's method.
Z_static = pcb.microstripImpedanceHJ( h, w, e_r )

# Calcultate the effective width, accounting for the microstrip height, Hammerstad and Jensen's method.
w_eff = pcb.effectiveStripWidthHJ( h, w, t, e_r )

# Quasi static impedance of microstrip in metallic enclosure.
Z_static = pcb.shieldedMicrostripImpedanceHJ( h, w, t, a, b, e_r )

# Frequency dependent impedance calculation (Yamashita dispersion)
Z_100M = pcb.microstripImpedanceYa( h, w, e_r, f)

# Frequency dependent impedance calculation (Kirschning and Jansen dispersion)
Z_100M = pcb.microstripImpedanceKJ( h, w, e_r, f)

import rftool.pcb as radar
# Albersheim's equation for required SNR with incoherent integration
SNRdB = radar.Albersheim( Pfa, Pd, N )

# Shnidman's equation for required SNR with incoherent integration, swerling 0-5
SNRdB = radar.Shnidman( Pfa, Pd, N, SW )

# Hillbert Spectrum Plot
from scipy.signal import chirp
import numpy as np
Fs=np.intc(10e3)
t = np.linspace(0, 1, Fs)
w = chirp(t, f0=1e3, f1=2e3, t1=1, method='quadratic')
radar.hilbert_spectrum(np.real(w), Fs)

import rftool.communications as comm

# Calculate probability of error in AWGN for various modulations
Perror = comm.errorProbabilityBpsk( EbN0 )
Perror = comm.errorProbabilityQpsk( EbN0 )
Perror = comm.errorProbabilityMPsk( EbN0, M )
Perror = comm.errorProbabilityFsk( EbN0 )
Perror = comm.errorProbabilityCoherentFsk( EbN0 )
Perror = comm.errorProbabilityCoherentMFsk( EbN0, M )
Perror = comm.errorProbabilityGMSK( EbN0 )
Perror = comm.errorProbabilityQam( EbN0 , M)

from rftool.utility import *

# Conversion between reflection coef. and VSWR
VSWR = Gamma2VSWR( Gamma )

# Linear to log conversion 
dB = mag2db( mag )
mag = db2mag( dB )

dB = pow2db( power )
mag = db2pow( dB )