numpy_ipps.constants.physics.float64 module¶
Physics numerical constants as float64.
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numpy_ipps.constants.physics.float64.F_C= <cdata 'double' 96485.33212331001>¶ Faraday constant in SI as float64, use
Fif you need andarray
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numpy_ipps.constants.physics.float64.G0_C= <cdata 'double' 7.74809172986365e-05>¶ Conductance quantum in SI as float64, use
G0if you need andarray
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numpy_ipps.constants.physics.float64.G_C= <cdata 'double' 6.674e-11>¶ Newtonian constant of gravitation in SI as float64, use
Gif you need andarray
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numpy_ipps.constants.physics.float64.KJ_C= <cdata 'double' 483597848416983.6>¶ Josephson constant in SI as float64, use
KJif you need andarray
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numpy_ipps.constants.physics.float64.Laplace_C= <cdata 'double' 0.662743419349181>¶ Laplace limit as float64, use
Laplaceif you need andarray
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numpy_ipps.constants.physics.float64.NA_C= <cdata 'double' 6.02214076e+23>¶ Avogadro constant in SI as float64, use
NAif you need andarray
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numpy_ipps.constants.physics.float64.Phi0Bar_C= <cdata 'double' 3.2910597847545335e-16>¶ Reduced magnetic flux quantum in SI as float64, use
Phi0Barif you need andarray
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numpy_ipps.constants.physics.float64.Phi0_C= <cdata 'double' 2.0678338484619295e-15>¶ Magnetic flux quantum in SI as float64, use
Phi0if you need andarray
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numpy_ipps.constants.physics.float64.Q2e_C= <cdata 'double' 3.204353268e-19>¶ Cooper pair charge in SI as float64, use
Q2eif you need andarray
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numpy_ipps.constants.physics.float64.RK2e_C= <cdata 'double' 6453.201864826127>¶ Superconducting quantum of resistance in SI as float64, use
RK2eif you need andarray
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numpy_ipps.constants.physics.float64.RK_C= <cdata 'double' 25812.80745930451>¶ Von Klitzing constant in SI as float64, use
RKif you need andarray
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numpy_ipps.constants.physics.float64.R_C= <cdata 'double' 8.31446261815324>¶ Molar gas constant in SI as float64, use
Rif you need andarray
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numpy_ipps.constants.physics.float64.Z0_C= <cdata 'double' 376.73031334826817>¶ Characteristic impedance of vacuum in SI as float64, use
Z0if you need andarray
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numpy_ipps.constants.physics.float64.alphaPauw_C= <cdata 'double' 4.532360141827196>¶ Van der Pauw constant in SI as float64, use
alphaPauwif you need andarray
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numpy_ipps.constants.physics.float64.alpha_c= <cdata 'double' 0.007297352563106645>¶ Fine-structure constant as float64, use
alphaif you need andarray
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numpy_ipps.constants.physics.float64.c_C= <cdata 'double' 299792458.0>¶ Speed of light in vacuum in SI as float64, use
cif you need andarray
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numpy_ipps.constants.physics.float64.e_C= <cdata 'double' 1.602176634e-19>¶ Elementary charge in SI as float64, use
hif you need andarray
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numpy_ipps.constants.physics.float64.eps0_C= <cdata 'double' 8.854187820288008e-12>¶ Vacuum electric permitivity in SI as float64, use
eps0if you need andarray
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numpy_ipps.constants.physics.float64.g0_C= <cdata 'double' 9.80665>¶ Newtonian constant of gravitation in SI as float64, use
g0if you need andarray
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numpy_ipps.constants.physics.float64.gd_C= <cdata 'double' 0.85743823>¶ Deuteron g-factor as float64, use
gdif you need andarray
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numpy_ipps.constants.physics.float64.ge_C= <cdata 'double' -2.002319304362>¶ Electron g-factor as float64, use
geif you need andarray
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numpy_ipps.constants.physics.float64.gh_C= <cdata 'double' -4.2552506>¶ Helion g-factor as float64, use
ghif you need andarray
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numpy_ipps.constants.physics.float64.gmu_C= <cdata 'double' -2.00233184>¶ Muon g-factor as float64, use
gmuif you need andarray
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numpy_ipps.constants.physics.float64.gn_C= <cdata 'double' -3.826085>¶ Neutron g-factor as float64, use
gnif you need andarray
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numpy_ipps.constants.physics.float64.gp_C= <cdata 'double' -5.58569468>¶ Proton g-factor as float64, use
gpif you need andarray
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numpy_ipps.constants.physics.float64.gt_C= <cdata 'double' 5.9579249>¶ Triton g-factor as float64, use
gtif you need andarray
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numpy_ipps.constants.physics.float64.hBar_C= <cdata 'double' 1.0545718176461565e-34>¶ Reduced Planck constant in SI as float64, use
hBarif you need andarray
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numpy_ipps.constants.physics.float64.h_C= <cdata 'double' 6.62607015e-34>¶ Planck constant in SI as float64, use
hif you need andarray
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numpy_ipps.constants.physics.float64.kB_C= <cdata 'double' 1.380649e-23>¶ Boltzmann constant in SI as float64, use
kBif you need andarray
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numpy_ipps.constants.physics.float64.kC_C= <cdata 'double' 8987551784.66038>¶ Coulomb constant in SI as float64, use
kCif you need andarray
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numpy_ipps.constants.physics.float64.md_C= <cdata 'double' 3.34358377e-27>¶ Deuteron mass in SI as float64, use
mdif you need andarray
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numpy_ipps.constants.physics.float64.me_C= <cdata 'double' 9.1093837e-31>¶ Electron mass in SI as float64, use
meif you need andarray
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numpy_ipps.constants.physics.float64.mh_C= <cdata 'double' 5.00641277e-27>¶ Helion mass in SI as float64, use
mhif you need andarray
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numpy_ipps.constants.physics.float64.mmu_C= <cdata 'double' 1.8835316e-28>¶ Muon mass in SI as float64, use
mmuif you need andarray
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numpy_ipps.constants.physics.float64.mn_C= <cdata 'double' 1.674927498e-27>¶ Neutron mass in SI as float64, use
mnif you need andarray
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numpy_ipps.constants.physics.float64.mp_C= <cdata 'double' 1.672621923e-27>¶ Proton mass in SI as float64, use
mpif you need andarray
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numpy_ipps.constants.physics.float64.mt_C= <cdata 'double' 5.00735674e-27>¶ Triton mass in SI as float64, use
mtif you need andarray
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numpy_ipps.constants.physics.float64.mu0_C= <cdata 'double' 1.2566370610573137e-06>¶ Vacuum magnetic permeability in SI as float64, use
mu0if you need andarray
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numpy_ipps.constants.physics.float64.thetam_C= <cdata 'double' 0.9553166181245092>¶ Magic angle in radian as float64, use
thetamif you need andarray