def single_E_calc(gamma, scan, scan_dir, fwd_ic, bwd_ic):
loadsuf = ["K_{33}", "k_{24}", "\\Lambda", "\\omega", "\\gamma_s"]
savesuf = ["K_{33}", "k_{24}", "\\Lambda", "\\omega"]
scan['\\gamma_s'] = str(gamma)
ic_dict = {}
if scan_dir == "scanforward":
ic_dict = fwd_ic
elif scan_dir == "scanbackward":
ic_dict = bwd_ic
scan['Rguess'] = str(ic_dict['Rguess0'])
scan['Rupper'] = str(ic_dict['Rupper0'])
scan['Rlower'] = str(ic_dict['Rlower0'])
scan['etaguess'] = str(ic_dict['etaguess0'])
scan['etaupper'] = str(ic_dict['etaupper0'])
scan['etalower'] = str(ic_dict['etalower0'])
scan['deltaguess'] = str(ic_dict['deltaguess0'])
scan['deltaupper'] = str(ic_dict['deltaupper0'])
scan['deltalower'] = str(ic_dict['deltalower0'])
# read in file name info
rp = ReadParams(scan=scan, loadsuf=loadsuf, savesuf=savesuf)
# create a class to do calculations with current parameters in scan.
run = SingleRun(rp, scan_dir=scan_dir)
# run C executable.
run.run_exe()
# move file written by C executable from temporary data path to true data path
run.mv_file('observables')
# load the final values of E, R, eta, delta, and surface twist.
Ei, Ri, etai, deltai, surftwisti = run.get_all_observables('observables',
str2float=True)
run.concatenate_observables(["\\gamma_s"])
return Ei, Ri, etai, deltai
user_input = input("input string of a gamma,k24,Lambda,omega values, "
"using comma as delimiter: ")
gamma, k24, Lambda, omega = user_input.split(',')
else:
gamma, k24, Lambda, omega = sys.argv[1], sys.argv[2], sys.argv[
3], sys.argv[4]
scan = {}
scan['k_{24}'] = k24
scan['\\gamma_s'] = gamma
scan['\\Lambda'] = Lambda
scan['\\omega'] = omega
loadsuf = ["K_{33}", "k_{24}", "\\Lambda", "\\omega", "\\gamma_s"]
# read in file name info
rp = ReadParams(scan=scan, loadsuf=loadsuf, savesuf=loadsuf)
# create a class to do calculations with current parameters in scan.
run = SingleRun(rp,
executable="../../../bin/full4var_psivsr",
valgrind=True)
# run C executable.
run.run_exe()
# move file written by C executable from temporary data path to true data path
run.mv_file('observables')
run.mv_file('psivsr')
Lambda = Lambdas[i]
scan['\\Lambda'] = str(Lambda)
# read in file name info
rp = ReadParams(scan=scan, loadsuf=loadsuf, savesuf=savesuf)
# create a class to do calculations with current parameters in scan.
run = SingleRun(rp, scan_dir=scan_dir)
# run C executable.
run.run_exe()
# move file written by C executable from temporary data path to true data path
run.mv_file('observables')
# load the final values of E, R, eta, delta, and surface twist.
Ei, Ri, etai, deltai, surftwisti = run.get_all_observables(
'observables', str2float=True)
if (Ei > 0.1 * FAILED_E):
# if the energy calculation fails, this will be true.
print('hi')
# remove current file with observables for the current Lambda value that are higher than
# the delta = 0 energy.
print(Ei)
run.remove_file("observables")
for j, Lambda in enumerate(Lambdas[i:]):
strain = str(u)
# read in file name info
rp = ReadParams(scan=scan, loadsuf=loadsuf, savesuf=savesuf)
# create a class to do calculations with current parameters in scan.
run = SingleRun(rp,
scan_dir=scan_dir,
executable=executable,
strain=strain)
# run C executable.
run.run_exe()
# move file written by C executable from temporary data path to true data path
run.mv_file(f'observables')
run.mv_file('psivsr', strain=strain)
psistuff = PsiData(scan=scan,
loadsuf=loadsuf,
savesuf=savesuf,
name=f"psivsr",
strain=strain)
rs = psistuff.r()
psis = psistuff.psi()
psiav = simps(integrand(rs, psis), rs)
run.remove_file(fname="psivsr", strain=strain)
def single_E_calc(gamma, scan, loadsuf, savesuf, scan_dir):
scan['\\gamma_s'] = str(gamma)
if scan_dir == "scanforward":
Rguess0 = 0.044
Rlower0 = 0.04
Rupper0 = 0.05
etaguess0 = 6.29
etalower0 = 6.3
etaupper0 = 6.287
deltaguess0 = 0.74
deltalower0 = 0.72
deltaupper0 = 0.8
else:
Rguess0 = 1.5
Rlower0 = 1.0
Rupper0 = 2.0
etaguess0 = 6.4
etalower0 = 6.38
etaupper0 = 6.42
deltaguess0 = 0.815
deltalower0 = 0.813
deltaupper0 = 0.816
scan['Rguess'] = str(Rguess0)
scan['Rupper'] = str(Rupper0)
scan['Rlower'] = str(Rlower0)
scan['etaguess'] = str(etaguess0)
scan['etaupper'] = str(etaupper0)
scan['etalower'] = str(etalower0)
scan['deltaguess'] = str(deltaguess0)
scan['deltaupper'] = str(deltaupper0)
scan['deltalower'] = str(deltalower0)
# read in file name info
rp = ReadParams(scan=scan, loadsuf=loadsuf, savesuf=savesuf)
# create a class to do calculations with current parameters in scan.
run = SingleRun(rp, scan_dir=scan_dir)
# run C executable.
run.run_exe()
# move file written by C executable from temporary data path to true data path
run.mv_file('observables')
# load the final values of E, R, eta, delta, and surface twist.
Ei, Ri, etai, deltai, surftwisti = run.get_all_observables('observables',
str2float=True)
run.concatenate_observables(["\\gamma_s"])
return Ei, Ri
executable = "../../../bin/delta1var_psivsr"
scan['etaguess'] = str(eta_eq / (1 + u))
scan['Rguess'] = str(R_eq / np.sqrt(1 + u))
strain = str(u)
# read in file name info
rp = ReadParams(scan=scan, loadsuf=loadsuf, savesuf=savesuf)
# create a class to do calculations with current parameters in scan.
run = SingleRun(rp, executable=executable, strain=strain)
# run C executable.
run.run_exe()
# move file written by C executable from temporary data path to true data path
run.mv_file(f'observables', newname=newobsname)
run.mv_file('psivsr', newname=newpsiname, strain=strain)
psistuff = PsiData(scan=scan,
loadsuf=loadsuf,
savesuf=savesuf,
name=newpsiname,
strain=strain)
rs = psistuff.r()
psis = psistuff.psi()
psiav = simps(integrand(rs, psis), rs)
# load the final values of E, R, eta, delta, and surface twist.
import numpy as np
import subprocess
import sys
sys.path.append('../../modules_gammak24/')
from singlerun import SingleRun
from readparams import ReadParams
if __name__ == "__main__":
gamma, k24 = sys.argv[1], sys.argv[2]
loadsuf = ["K_{33}", "k_{24}", "\\Lambda", "d_0", "\\omega", "\\gamma_s"]
savesuf = ["K_{33}", "k_{24}", "d_0", "\\omega", "\\gamma_s"]
scan = {}
scan['k_{24}'] = k24
scan['\\gamma_s'] = gamma
scan['\\omega'] = '0'
scan['\\Lambda'] = '0'
# find minimum for delta = 0 case, so you know the upper bound for
# the energy minimum.
rp = ReadParams(scan=scan, loadsuf=loadsuf, savesuf=savesuf)
run = SingleRun(rp)
run.run_exe()
run.mv_file('observables', newname='observables_Emin')
scan['k_{24}'] = k24
scan['\\gamma_s'] = gamma
scan['\\Lambda']=Lambda
scan['\\omega']= omega
loadsuf=["K_{33}","k_{24}","\\Lambda","\\omega","\\gamma_s"]
# read in file name info
rp = ReadParams(scan=scan,loadsuf=loadsuf,savesuf=loadsuf)
# create a class to do calculations with current parameters in scan.
run = SingleRun(rp,executable="../../../bin/samplecalc_testEvspsip_s")
# run C executable.
run.run_exe()
dataname = run.mv_file('Evspsip_s')
data = np.loadtxt(dataname)
psip_ss = data[:,0]
Es = data[:,1]
dEdpsip_ss = data[:,2]
# determine where the min of Es occurs
i_min = np.argmin(Es)
# determine where the zero of dEdpsip_ss occur (should be at the same spot
# as where the min above occurs according to calculus).
j_zero1 = np.argmin(np.abs(dEdpsip_ss))
scan['\\Lambda']=Lambda
scan['\\omega']= omega
loadsuf=["K_{33}","k_{24}","\\Lambda","\\omega","\\gamma_s"]
# read in file name info
rp = ReadParams(scan=scan,loadsuf=loadsuf,savesuf=loadsuf)
# create a class to do calculations with current parameters in scan.
run = SingleRun(rp,executable="../../../bin/samplecalc_testenergy")
# run C executable.
run.run_exe()
# move file written by C executable from temporary data path to true data path
run.mv_file('psivsr_discrete')
c_data = np.loadtxt("data/_psivsr_3.0000e+01_1.0000e-01_1.0000e+03_5.0000e+00_4.0000e-02.txt")
d_data = np.loadtxt("data/_psivsr_discrete_3.0000e+01_1.0000e-01_1.0000e+03_5.0000e+00_4.0000e-02.txt")
c_rs = c_data[:,0]
c_psis = c_data[:,1]
c_rfs = c_data[:,3]
c_dx = c_rs[1]-c_rs[0]
d_rs = d_data[:,0]
scan['\\Lambda']=Lambda
scan['\\omega']= omega
scan['mpt'] = str(2**power2)
loadsuf=["K_{33}","k_{24}","\\Lambda","\\omega","\\gamma_s"]
# read in file name info
rp = ReadParams(scan=scan,loadsuf=loadsuf,savesuf=loadsuf)
# create a class to do calculations with current parameters in scan.
run = SingleRun(rp,executable="../../../bin/EvsR_c-different-grid-sizes",valgrind=False)
# run C executable.
start = time.time()
run.run_exe()
totaltime = time.time()-start
with open("data/timings.txt","a") as myfile:
myfile.write(f"{scan['mpt']}\t{totaltime:e}\n")
# move file written by C executable from temporary data path to true data path
run.mv_file(f"EvsR_c-{scan['mpt']}")
scan['k_{24}'] = k24
scan['\\gamma_s'] = gamma
scan['\\Lambda']=Lambda
scan['\\omega']= omega
loadsuf=["K_{33}","k_{24}","\\Lambda","\\omega","\\gamma_s"]
# read in file name info
rp = ReadParams(scan=scan,loadsuf=loadsuf,savesuf=loadsuf)
# create a class to do calculations with current parameters in scan.
run = SingleRun(rp,executable="../../../bin/f2_func")
# run C executable.
run.run_exe()
dataname = run.mv_file('f2_func')
data = np.loadtxt(dataname)
zetas = data[:,0]
f2s = data[:,1]
df2dxis = data[:,2]
df2dzetas = data[:,3]
# plot Es vs psip_Rs and dEdpsip_Rs vs psip_Rs
fig,axarr = plt.subplots(3,sharex=True)
fig.set_size_inches(6,14)
import numpy as np
import subprocess
import sys
sys.path.append('../../modules_gammak24/')
from singlerun import SingleRun
if __name__ == "__main__":
datfile = "data/input.dat"
executable = "../../../bin/gamma_k24_space"
scan = {'\Lambda': sys.argv[1], '\omega': sys.argv[2]}
run = SingleRun(datfile,
executable=executable,
scan=scan,
suffixlist=["K_{33}", "\\Lambda", "d_0", "\\omega"])
run.run_exe()
run.mv_file('energy')
run.mv_file('surfacetwist')
run.mv_file('radius')
run.mv_file('eta')
run.mv_file('delta')
def single_E_calc(gamma,scan,loadsuf,savesuf,scan_dir):
scan['\\gamma_s'] = str(gamma)
k240 = 0.33
k24 = float(scan['k_{24}'])
t = (k24-k240)/k240
if scan_dir == "scanforward":
#Rguess0 = 0.045
#Rupper0 = 0.6
#Rlower0 = 0.4
Rguess0 = lower_Rguess(t)
Rupper0 = Rguess0*1.1
Rlower0 = Rguess0*0.9
etaguess0 = 6.295
etalower0 = 6.29
etaupper0 = 6.3
deltaguess0 = 0.8
deltalower0 = 0.799
deltaupper0 = 0.805
else:
#Rguess0 = 0.7
#Rupper0 = 0.9
#Rlower0 = 0.6
Rguess0 = upper_Rguess(t)
Rupper0 = Rguess0*1.1
Rlower0 = Rguess0*0.9
etaguess0 = 6.34
etalower0 = 6.32
etaupper0 = 6.36
deltaguess0 = 0.813
deltalower0 = 0.808
deltaupper0 = 0.816
scan['Rguess'] = str(Rguess0)
scan['Rupper'] = str(Rupper0)
scan['Rlower'] = str(Rlower0)
scan['etaguess'] = str(etaguess0)
scan['etaupper'] = str(etaupper0)
scan['etalower'] = str(etalower0)
scan['deltaguess'] = str(deltaguess0)
scan['deltaupper'] = str(deltaupper0)
scan['deltalower'] = str(deltalower0)
# read in file name info
rp = ReadParams(scan=scan,loadsuf=loadsuf,savesuf=savesuf)
# create a class to do calculations with current parameters in scan.
run = SingleRun(rp,scan_dir=scan_dir)
# run C executable.
run.run_exe()
# move file written by C executable from temporary data path to true data path
run.mv_file('observables')
# load the final values of E, R, eta, delta, and surface twist.
Ei,Ri,etai,deltai,surftwisti = run.get_all_observables('observables',str2float=True)
run.concatenate_observables(["\\gamma_s"])
return Ei,Ri
scan['k_{24}'] = k24
scan['\\gamma_s'] = gamma
scan['\\Lambda']=Lambda
scan['\\omega']= omega
loadsuf=["K_{33}","k_{24}","\\Lambda","\\omega","\\gamma_s"]
# read in file name info
rp = ReadParams(scan=scan,loadsuf=loadsuf,savesuf=loadsuf)
# create a class to do calculations with current parameters in scan.
run = SingleRun(rp,executable="../../../bin/g1_func")
# run C executable.
run.run_exe()
dataname = run.mv_file('g1_func')
data = np.loadtxt(dataname)
zetas = data[:,0]
g1s = data[:,1]
dg1dxis = data[:,2]
dg1dzetas = data[:,3]
# plot Es vs psip_Rs and dEdpsip_Rs vs psip_Rs
fig,axarr = plt.subplots(3,sharex=True)
fig.set_size_inches(6,14)
scan = {}
scan['k_{24}'] = k24
scan['\\gamma_s'] = gamma
scan['\\Lambda'] = Lambda
scan['\\omega'] = omega
loadsuf = ["K_{33}", "k_{24}", "\\Lambda", "\\omega", "\\gamma_s"]
# read in file name info
rp = ReadParams(scan=scan, loadsuf=loadsuf, savesuf=loadsuf)
# create a class to do calculations with current parameters in scan.
run = SingleRun(rp, executable="../../../bin/EvsR_s")
# run C executable.
run.run_exe()
dataname = run.mv_file('EvsR_s')
data = np.loadtxt(dataname)
R_ss = data[:, 0]
Es = data[:, 1]
dEdR_ss = data[:, 2]
# determine where the min of Es occurs
i_min = np.argmin(Es)
# determine where the zero of dEdR_ss occur (should be at the same spot
# as where the min above occurs according to calculus).
j_zero1 = np.argmin(np.abs(dEdR_ss))
dEs = np.gradient(Es, R_ss)
from readparams import ReadParams
if __name__ == "__main__":
gamma = str(0.04)
k24 = str(0.5)
Lambda = str(600.0)
omega = str(20.0)
scan = {}
scan['k_{24}'] = k24
scan['\\gamma_s'] = gamma
scan['\\Lambda'] = Lambda
scan['\\omega'] = omega
loadsuf = ["K_{33}", "k_{24}", "\\Lambda", "\\omega", "\\gamma_s"]
# read in file name info
rp = ReadParams(scan=scan, loadsuf=loadsuf, savesuf=loadsuf)
# create a class to do calculations with current parameters in scan.
run = SingleRun(rp,
executable="../../../bin/psi-with-hermite-fit",
valgrind=False)
# run C executable.
run.run_exe()
# move file written by C executable from temporary data path to true data path
run.mv_file('psivsr')
run.mv_file('hermite-psivsr')