X-Git-Url: http://mmka.chem.univ.gda.pl/gitweb/?a=blobdiff_plain;f=files%2Fmatplotlib_fit_hist.py;h=f431e3197b6d0f454d689385e73615a2a4062650;hb=e965db4a237f05d8ef5d1aa56b2494d1c54c067b;hp=bd4dbea433d4e11378022467aa9340b076320177;hpb=16c08be7a995f043fe52664416aa4379d9a99d06;p=django_unres.git diff --git a/files/matplotlib_fit_hist.py b/files/matplotlib_fit_hist.py index bd4dbea..f431e31 100755 --- a/files/matplotlib_fit_hist.py +++ b/files/matplotlib_fit_hist.py @@ -11,15 +11,18 @@ import sys def prob_T(x,a): gg=np.float128(g) - aa=np.float128(10**(-gg-2)*a) - Tr=np.float128(300.) - return np.exp( np.log(aa) + (gg-2)/2*np.log(x) - gg*x/(2*Tr) ) +# aa=np.float128(10**(-gg-2)*a) + aa=np.float128(a) + Tr=np.float128(t_bath) + return np.exp( aa + (gg-2)/2*np.log(x) - gg*x/(2*Tr) ) +# return np.exp( np.log(aa) + (gg-2)/2*np.log(x) - gg*x/(2*Tr) ) # return aa * ( x**((gg-2)/2) * np.exp( -gg*x/(2*Tr) ) ) #x,y= np.loadtxt('1L2Y_L_GB000.stat',usecols=(0,10),skiprows=30,unpack=True) #x,y= np.loadtxt('1L2Y_NH_GB000.stat',usecols=(0,11),skiprows=10000,unpack=True) #x,y= np.loadtxt('1L2Y_B_GB000.stat',usecols=(0,10),skiprows=30,unpack=True) g=int(sys.argv[1]) +t_bath=float(sys.argv[2]) with open('md.stat','r') as f: for line in f: pass @@ -27,7 +30,7 @@ with open('md.stat','r') as f: if ncolumns==14: x,y= np.loadtxt('md.stat',usecols=(0,10),skiprows=10,unpack=True) - x1,e,r,gy= np.loadtxt('md.stat',usecols=(0,3,5,12),skiprows=0,unpack=True) + x1,e,r,gy,nc= np.loadtxt('md.stat',usecols=(0,3,5,12,6),skiprows=0,unpack=True) else: x,y= np.loadtxt('md.stat',usecols=(0,6),skiprows=10,unpack=True) x1,e,gy= np.loadtxt('md.stat',usecols=(0,3,8),skiprows=0,unpack=True) @@ -43,7 +46,8 @@ plt.xlabel('temperature') center = (bin[:-1] + bin[1:]) / 2 #print bin #print center -popt, pcov = curve_fit(prob_T, center, h) +start = (g-2)/2*np.log(t_bath) - g*t_bath/(2*t_bath) +popt, pcov = curve_fit(prob_T, center, h, p0=-start) xfine = np.linspace(min(bin), max(bin), 100) #print popt @@ -62,10 +66,22 @@ plt.ylabel('potential energy') plt.plot(x1,e,'.') plt.savefig('md_ene.png') +plt.clf() +plt.xlabel('step') +plt.ylabel('radius of gyration') +plt.plot(x1,gy,'.') +plt.savefig('md_gyr.png') + if ncolumns==14: plt.clf() plt.xlabel('step') plt.ylabel('RMSD') plt.plot(x1,r,'.') plt.savefig('md_rms.png') - \ No newline at end of file + + plt.clf() + plt.xlabel('step') + plt.ylabel('fraction of native side-chain concacts') + plt.plot(x1,nc,'.') + plt.savefig('md_fracn.png') +