def fluid_header(Fluid):
aliases = CP.get_aliases(str(Fluid))
aliases = ', '.join(['``' + a.strip() + '``' for a in aliases])
BTC = BibTeXerClass()
EOSkey = CP.get_BibTeXKey(Fluid, "EOS")
CP0key = CP.get_BibTeXKey(Fluid, "CP0")
SURFACE_TENSIONkey = CP.get_BibTeXKey(Fluid, "SURFACE_TENSION")
VISCOSITYkey = CP.get_BibTeXKey(Fluid, "VISCOSITY")
CONDUCTIVITYkey = CP.get_BibTeXKey(Fluid, "CONDUCTIVITY")
ECS_LENNARD_JONESkey = CP.get_BibTeXKey(Fluid, "ECS_LENNARD_JONES")
ECS_FITSkey = CP.get_BibTeXKey(Fluid, "ECS_FITS")
BibInfo = ''
if EOSkey:
BibInfo += '**Equation of State**: ' + BTC.entry2rst(EOSkey) + '\n\n'
if CP0key:
BibInfo += '**Ideal-Gas Specific Heat**: ' + BTC.entry2rst(
CP0key) + '\n\n'
if SURFACE_TENSIONkey:
BibInfo += '**Surface Tension**: ' + BTC.entry2rst(
SURFACE_TENSIONkey) + '\n\n'
if VISCOSITYkey:
BibInfo += '**Viscosity**: ' + BTC.entry2rst(VISCOSITYkey) + '\n\n'
if CONDUCTIVITYkey:
BibInfo += '**Conductivity**: ' + BTC.entry2rst(
CONDUCTIVITYkey) + '\n\n'
if ECS_LENNARD_JONESkey:
BibInfo += '**Lennard-Jones Parameters for ECS**: ' + BTC.entry2rst(
ECS_LENNARD_JONESkey) + '\n\n'
if ECS_FITSkey:
BibInfo += '**ECS Correction Fit**: ' + BTC.entry2rst(
ECS_FITSkey) + '\n\n'
return textwrap.dedent("""
********************
{Fluid:s}
********************
Aliases
================================================================================
{Aliases:s}
Bibliographic Information
=========================
{Reference:s}
""".format(
Fluid=Fluid,
Aliases=aliases,
Reference=BibInfo,
))
def fluid_header(Fluid):
aliases = CP.get_aliases(str(Fluid))
aliases = ', '.join(['``'+a.strip()+'``' for a in aliases])
BTC = BibTeXerClass()
EOSkey = CP.get_BibTeXKey(Fluid, "EOS")
CP0key = CP.get_BibTeXKey(Fluid, "CP0")
SURFACE_TENSIONkey = CP.get_BibTeXKey(Fluid, "SURFACE_TENSION")
VISCOSITYkey = CP.get_BibTeXKey(Fluid, "VISCOSITY")
CONDUCTIVITYkey = CP.get_BibTeXKey(Fluid, "CONDUCTIVITY")
ECS_LENNARD_JONESkey = CP.get_BibTeXKey(Fluid, "ECS_LENNARD_JONES")
ECS_FITSkey = CP.get_BibTeXKey(Fluid, "ECS_FITS")
BibInfo = ''
if EOSkey:
BibInfo += '**Equation of State**: ' + BTC.entry2rst(EOSkey) + '\n\n'
if CP0key:
BibInfo += '**Ideal-Gas Specific Heat**: ' + BTC.entry2rst(CP0key) + '\n\n'
if SURFACE_TENSIONkey:
BibInfo += '**Surface Tension**: ' + BTC.entry2rst(SURFACE_TENSIONkey) + '\n\n'
if VISCOSITYkey:
BibInfo += '**Viscosity**: ' + BTC.entry2rst(VISCOSITYkey) + '\n\n'
if CONDUCTIVITYkey:
BibInfo += '**Conductivity**: ' + BTC.entry2rst(CONDUCTIVITYkey) + '\n\n'
if ECS_LENNARD_JONESkey:
BibInfo += '**Lennard-Jones Parameters for ECS**: ' + BTC.entry2rst(ECS_LENNARD_JONESkey) + '\n\n'
if ECS_FITSkey:
BibInfo += '**ECS Correction Fit**: ' + BTC.entry2rst(ECS_FITSkey) + '\n\n'
return textwrap.dedent(
"""
********************
{Fluid:s}
********************
Aliases
================================================================================
{Aliases:s}
Bibliographic Information
=========================
{Reference:s}
""".format(Fluid=Fluid,
Aliases = aliases,
Reference = BibInfo,
)
)
import CoolProp
import CoolProp.CoolProp as CP
print 'Fluid | EOS | CP0 | VISCOSITY | CONDUCTIVITY | ECS_LENNARD_JONES | ECS_FITS | SURFACE_TENSION'
for fluid in CoolProp.__fluids__:
print '{f:20s}'.format(f=fluid),'|',
for key in ['EOS','CP0','VISCOSITY','CONDUCTIVITY','ECS_LENNARD_JONES','ECS_FITS','SURFACE_TENSION']:
k = CP.get_BibTeXKey(fluid,key)
if k and not k.startswith('__'):
print 0,'|',
elif k and k.startswith('__'):
print 'X','|',
else:
print ' ','|',
print ''
f = open('fitdata.tex','w')
for fluid in CoolProp.__fluids__:
print>>f, '{f:20s}'.format(f=fluid),' & ',
for i, key in enumerate(['EOS','CP0','VISCOSITY','CONDUCTIVITY','ECS_LENNARD_JONES','ECS_FITS','SURFACE_TENSION']):
k = CP.get_BibTeXKey(fluid,key)
if k and not k.startswith('__'):
print>>f, '\cite{{{k:s}}}'.format(k=k),' & ',
else:
print>>f, ' ',' & ',
print>>f, '\\\\'
