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[Boost-sandbox-cvs] boost-sandbox/libs/units/example unit_example_19.cpp, 1.5, 1.6
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From: Matthias S. <mat...@us...> - 2007-04-03 14:51:25
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Update of /cvsroot/boost-sandbox/boost-sandbox/libs/units/example In directory sc8-pr-cvs3.sourceforge.net:/tmp/cvs-serv15810 Added Files: unit_example_19.cpp Log Message: update --- NEW FILE: unit_example_19.cpp --- // mcs::units - A C++ library for zero-overhead dimensional analysis and // unit/quantity manipulation and conversion // // Copyright (C) 2003-2007 Matthias Christian Schabel // Copyright (C) 2007 Steven Watanabe // // Distributed under the Boost Software License, Version 1.0. (See // accompanying file LICENSE_1_0.txt or copy at // http://www.boost.org/LICENSE_1_0.txt) /** \file \brief unit_example_19.cpp \detailed CODATA physical constants. Output: @verbatim //[unit_example_19_output CODATA physical constants: Universal constants: c : 2.9979245800000e+08 (exact) m s^(-1) mu_0 : 1.2566370614359e-06 (exact) m kg s^(-2) A^(-2) epsilon_0 : 8.8541878176204e-12 (exact) m^(-3) kg^(-1) s^4 A^2 Z_0 : 3.7673031346177e+02 (exact) m^2 kg s^(-3) A^(-2) G : 6.6742800000000e-11 (rel. unc. = 1.0e-04) m^3 kg^(-1) s^(-2) h : 6.6260689600000e-34 (rel. unc. = 5.0e-08) m^2 kg s^(-1) hbar : 1.0545716280000e-34 (rel. unc. = 5.0e-08) m^2 kg s^(-1) m_P : 2.1764400000000e-08 (rel. unc. = 5.1e-05) kg T_P : 1.4167850000000e+32 (rel. unc. = 5.0e-05) K l_P : 1.6162520000000e-35 (rel. unc. = 5.0e-05) m t_P : 5.3912400000000e-44 (rel. unc. = 5.0e-05) s Electromagnetic constants: e : 1.6021764870000e-19 (rel. unc. = 2.5e-08) s A e/h : 2.4179894540000e+14 (rel. unc. = 2.5e-08) m^(-2) kg^(-1) s^2 A Phi_0 : 2.0678336670000e-15 (rel. unc. = 2.5e-08) m^2 kg s^(-2) A^(-1) G_0 : 7.7480917004000e-05 (rel. unc. = 6.8e-10) m^(-2) kg^(-1) s^3 A^2 K_J : 4.8359789100000e+14 (rel. unc. = 2.5e-08) m^(-2) kg^(-1) s^2 A R_K : 2.5812807557000e+04 (rel. unc. = 6.9e-10) m^2 kg s^(-3) A^(-2) mu_B : 9.2740091500000e-24 (rel. unc. = 2.5e-08) m^2 A mu_N : 5.0507832400000e-27 (rel. unc. = 2.6e-08) m^2 A Physico-chemical constants: N_A : 6.0221417900000e+23 (rel. unc. = 5.0e-08) mol^(-1) m_u : 1.6605387820000e-27 (rel. unc. = 5.0e-08) kg F : 9.6485339900000e+04 (rel. unc. = 2.5e-08) s A mol^(-1) R : 8.3144720000000e+00 (rel. unc. = 1.8e-06) m^2 kg s^(-2) K^(-1) mol^(-1) k_B : 1.3806504000000e-23 (rel. unc. = 1.7e-06) m^2 kg s^(-2) K^(-1) V_m : 2.2413996000000e-02 (rel. unc. = 1.7e-06) m^3 mol^(-1) sigma_SB : 5.6704000000000e-08 (rel. unc. = 7.1e-06) kg s^(-3) K^(-4) c_1 : 3.7417711800000e-16 (rel. unc. = 5.1e-08) m^4 kg s^(-3) c_2 : 1.4387752000000e-02 (rel. unc. = 1.7e-06) m K b : 2.8977685000000e-03 (rel. unc. = 1.8e-06) m K Atomic and nuclear constants: alpha : 7.2973525376000e-03 (rel. unc. = 6.9e-10) dimensionless R_infinity : 1.0973731568527e+07 (rel. unc. = 6.7e-12) m^(-1) a_0 : 5.2917720859000e-11 (rel. unc. = 6.8e-10) m E_h : 4.3597439400000e-18 (rel. unc. = 5.0e-08) m^2 kg s^(-2) electron: <<<<<<< unit_example_19.cpp m_e : 9.10938e-31 kg m_e/m_mu : 0.00483633 dimensionless m_e/m_tau : 0.000287564 dimensionless m_e/m_p : 0.000544617 dimensionless m_e/m_n : 0.000543867 dimensionless m_e/m_d : 0.000272444 dimensionless m_e/m_alpha : 0.000137093 dimensionless e/m_e : 1.75882e+11 kg^(-1) s A M_e : 5.4858e-07 kg mol^(-1) lambda_C : 2.42631e-12 m r_e : 2.81794e-15 m sigma_e : 6.65246e-29 m^2 mu_e : -9.28476e-24 m^2 A a_e : 0.00115965 dimensionless g_e : -2.00232 dimensionless mu_e/mu_mu : 206.767 dimensionless mu_e/mu_p : -658.211 dimensionless mu_e/mu_p' : -658.228 dimensionless mu_e/mu_n : 960.92 dimensionless mu_e/mu_d : -2143.92 dimensionless mu_e/mu_hp : 864.058 dimensionless gamma_e : 1.76086 kg^(-1) s A ======= m_e : 9.1093821500000e-31 (rel. unc. = 4.9e-08) kg m_e/m_mu : 4.8363317100000e-03 (rel. unc. = 2.5e-08) dimensionless m_e/m_tau : 2.8756400000000e-04 (rel. unc. = 1.6e-04) dimensionless m_e/m_p : 5.4461702177000e-04 (rel. unc. = 4.4e-10) dimensionless m_e/m_n : 5.4386734459000e-04 (rel. unc. = 6.1e-10) dimensionless m_e/m_d : 2.7244371093000e-04 (rel. unc. = 4.4e-10) dimensionless m_e/m_alpha : 1.3709335557000e-04 (rel. unc. = 4.2e-10) dimensionless e/m_e : 1.7588201500000e+11 (rel. unc. = 2.5e-08) kg^(-1) s A M_e : 5.4857990943000e-07 (rel. unc. = 4.2e-10) kg mol^(-1) lambda_C : 2.4263102175000e-12 (rel. unc. = 1.4e-09) m r_e : 2.8179402894000e-15 (rel. unc. = 2.1e-09) m sigma_e : 6.6524585580000e-29 (rel. unc. = 4.1e-09) m^2 mu_e : -9.2847637700000e-24 (rel. unc. = 2.5e-08) m^2 A a_e : 1.1596521811100e-03 (rel. unc. = 6.4e-10) dimensionless g_e : -2.0023193043622e+00 (rel. unc. = 7.5e-13) dimensionless mu_e/mu_mu : 2.0676698770000e+02 (rel. unc. = 2.5e-08) dimensionless mu_e/mu_p : -6.5821068480000e+02 (rel. unc. = 8.2e-09) dimensionless mu_e/mu_pp : -6.5822759710000e+02 (rel. unc. = 1.1e-08) dimensionless mu_e/mu_n : 9.6092050000000e+02 (rel. unc. = 2.4e-07) dimensionless mu_e/mu_d : -2.1439234980000e+03 (rel. unc. = 8.4e-09) dimensionless mu_e/mu_hp : 8.6405825700000e+02 (rel. unc. = 1.2e-08) dimensionless gamma_e : 1.7608597700000e+11 (rel. unc. = 2.5e-08) kg^(-1) s A >>>>>>> 1.4 muon: m_mu : 1.8835313000000e-28 (rel. unc. = 5.8e-08) kg m_mu/m_e : 2.0676828230000e+02 (rel. unc. = 2.5e-08) dimensionless m_mu/m_tau : 5.9459200000000e-02 (rel. unc. = 1.6e-04) dimensionless m_mu/m_p : 1.1260952610000e-01 (rel. unc. = 2.6e-08) dimensionless m_mu/m_n : 1.1245451670000e-01 (rel. unc. = 2.6e-08) dimensionless M_mu : 1.1342892560000e-04 (rel. unc. = 2.6e-08) kg mol^(-1) lambda_C_mu : 1.1734441040000e-14 (rel. unc. = 2.6e-08) m mu_mu : -4.4904478600000e-26 (rel. unc. = 3.6e-08) m^2 A a_mu : 1.1659206900000e-03 (rel. unc. = 5.1e-07) dimensionless g_mu : -2.0023318414000e+00 (rel. unc. = 6.0e-10) dimensionless mu_mu/mu_p : -3.1833451370000e+00 (rel. unc. = 2.7e-08) dimensionless tau: m_tau : 3.1677700000000e-27 (rel. unc. = 1.6e-04) kg m_tau/m_e : 3.4774800000000e+03 (rel. unc. = 1.6e-04) dimensionless m_tau/m_mu : 1.6818300000000e+01 (rel. unc. = 1.6e-04) dimensionless m_tau/m_p : 1.8939000000000e+00 (rel. unc. = 1.6e-04) dimensionless m_tau/m_n : 1.8912900000000e+00 (rel. unc. = 1.6e-04) dimensionless M_tau : 1.9076800000000e-03 (rel. unc. = 1.6e-04) kg mol^(-1) lambda_C_tau: 6.9772000000000e-16 (rel. unc. = 1.6e-04) m proton: <<<<<<< unit_example_19.cpp m_p : 1.67262e-27 kg m_p/m_e : 1836.15 dimensionless m_p/m_mu : 8.88024 dimensionless m_p/m_tau : 0.528012 dimensionless m_p/m_n : 0.998623 dimensionless e/m_p : 9.57883e+07 kg^(-1) s A M_p : 0.00100728 kg mol^(-1) R_p : 8.75e-16 m mu_p : 1.41061e-26 m^2 A g_p : 5.58569 dimensionless mu_p/mu_n : -1.4599 dimensionless mu_p' : 1.41057e-26 m^2 A gamma_p : 2.67522e+08 kg^(-1) s A gamma_p' : 2.67515e+08 kg^(-1) s A ======= m_p : 1.6726216370000e-27 (rel. unc. = 5.0e-08) kg m_p/m_e : 1.8361526724700e+03 (rel. unc. = 4.4e-10) dimensionless m_p/m_mu : 8.8802433900000e+00 (rel. unc. = 2.6e-08) dimensionless m_p/m_tau : 5.2801200000000e-01 (rel. unc. = 1.6e-04) dimensionless m_p/m_n : 9.9862347824000e-01 (rel. unc. = 4.6e-10) dimensionless e/m_p : 9.5788339200000e+07 (rel. unc. = 2.5e-08) kg^(-1) s A M_p : 1.0072764667700e-03 (rel. unc. = 9.9e-11) kg mol^(-1) R_p : 8.7680000000000e-16 (rel. unc. = 7.9e-03) m mu_p : 1.4106066620000e-26 (rel. unc. = 2.6e-08) m^2 A g_p : 5.5856947130000e+00 (rel. unc. = 8.2e-09) dimensionless mu_p/mu_n : -1.4598980600000e+00 (rel. unc. = 2.3e-07) dimensionless mu_pp : 1.4105704190000e-26 (rel. unc. = 2.7e-08) m^2 A gamma_p : 2.6752220990000e+08 (rel. unc. = 2.6e-08) kg^(-1) s A gamma_pp : 2.6751533620000e+08 (rel. unc. = 2.7e-08) kg^(-1) s A >>>>>>> 1.4 neutron: <<<<<<< unit_example_19.cpp m_n : 1.67493e-27 kg m_n/m_e : 1838.68 dimensionless m_n/m_mu : 8.89248 dimensionless m_n/m_tau : 0.52874 dimensionless m_n/m_p : 1.00138 dimensionless lambda_C_n : 1.31959e-15 m M_n : 0.00100866 kg mol^(-1) mu_n : -9.66236e-27 m^2 A g_n : -3.82609 dimensionless mu_n/mu_p : -0.684979 dimensionless mu_n/mu_p' : -0.684997 dimensionless gamma_n : 1.83247e+08 kg^(-1) s A ======= m_n : 1.6749272110000e-27 (rel. unc. = 5.0e-08) kg m_n/m_e : 1.8386836605000e+03 (rel. unc. = 6.0e-10) dimensionless m_n/m_mu : 8.8924840900000e+00 (rel. unc. = 2.6e-08) dimensionless m_n/m_tau : 5.2874000000000e-01 (rel. unc. = 1.6e-04) dimensionless m_n/m_p : 1.0013784191800e+00 (rel. unc. = 4.6e-10) dimensionless lambda_C_n : 1.3195908951000e-15 (rel. unc. = 1.5e-09) m M_n : 1.0086649159700e-03 (rel. unc. = 4.3e-10) kg mol^(-1) mu_n : -9.6623641000000e-27 (rel. unc. = 2.4e-07) m^2 A g_n : -3.8260854500000e+00 (rel. unc. = 2.4e-07) dimensionless mu_n/mu_p : -6.8497934000000e-01 (rel. unc. = 2.3e-07) dimensionless mu_n/mu_pp : -6.8499694000000e-01 (rel. unc. = 2.3e-07) dimensionless gamma_n : 1.8324718500000e+08 (rel. unc. = 2.3e-07) kg^(-1) s A >>>>>>> 1.4 deuteron: m_d : 3.3435832000000e-27 (rel. unc. = 5.1e-08) kg m_d/m_e : 3.6704829654000e+03 (rel. unc. = 4.4e-10) dimensionless m_d/m_p : 1.9990075010800e+00 (rel. unc. = 1.1e-10) dimensionless M_d : 2.0135532127240e-03 (rel. unc. = 3.9e-11) kg mol^(-1) R_d : 2.1402000000000e-15 (rel. unc. = 1.3e-03) m mu_d : 4.3307346500000e-27 (rel. unc. = 2.5e-08) m^2 A mu_d/mu_e : -4.6643455370000e-04 (rel. unc. = 8.4e-09) dimensionless mu_d/mu_p : 3.0701220700000e-01 (rel. unc. = 7.8e-09) dimensionless mu_d/mu_n : -4.4820652000000e-01 (rel. unc. = 2.5e-07) dimensionless helion: m_h : 5.0064119200000e-27 (rel. unc. = 5.0e-08) kg alpha particle: m_alpha : 6.6446562000000e-27 (rel. unc. = 5.0e-08) kg //] @endverbatim **/ #include <iostream> #include <boost/units/io.hpp> #include <boost/units/systems/si.hpp> #include <boost/units/systems/si/constants.hpp> #if BOOST_UNITS_HAS_TYPEOF int main() { using namespace boost::units::SI::constants::CODATA; std::cout << "CODATA physical constants:" << std::endl; std::cout << std::endl << "Universal constants: " << std::endl << std::endl << "c :\t" << c << std::endl << "mu_0 :\t" << mu_0 << std::endl << "epsilon_0 :\t" << epsilon_0 << std::endl << "Z_0 :\t" << Z_0 << std::endl << "G :\t" << G << std::endl << "h :\t" << h << std::endl << "hbar :\t" << hbar << std::endl << "m_P :\t" << m_P << std::endl << "T_P :\t" << T_P << std::endl << "l_P :\t" << l_P << std::endl << "t_P :\t" << t_P << std::endl << std::endl << "Electromagnetic constants: " << std::endl << std::endl << "e :\t" << e << std::endl << "e/h :\t" << e_over_h << std::endl << "Phi_0 :\t" << Phi_0 << std::endl << "G_0 :\t" << G_0 << std::endl << "K_J :\t" << K_J << std::endl << "R_K :\t" << R_K << std::endl << "mu_B :\t" << mu_B << std::endl << "mu_N :\t" << mu_N << std::endl << std::endl << "Physico-chemical constants: " << std::endl << std::endl << "N_A :\t" << N_A << std::endl << "m_u :\t" << m_u << std::endl << "F :\t" << F << std::endl << "R :\t" << R << std::endl << "k_B :\t" << k_B << std::endl << "V_m :\t" << V_m << std::endl << "sigma_SB :\t" << sigma_SB << std::endl << "c_1 :\t" << c_1 << std::endl << "c_2 :\t" << c_2 << std::endl << "b :\t" << b << std::endl << std::endl << "Atomic and nuclear constants: " << std::endl << std::endl << "alpha :\t" << alpha << std::endl << "R_infinity :\t" << R_infinity << std::endl << "a_0 :\t" << a_0 << std::endl << "E_h :\t" << E_h << std::endl << std::endl << " electron: " << std::endl << std::endl << "m_e :\t" << m_e << std::endl << "m_e/m_mu :\t" << m_e_over_m_mu << std::endl << "m_e/m_tau :\t" << m_e_over_m_tau << std::endl << "m_e/m_p :\t" << m_e_over_m_p << std::endl << "m_e/m_n :\t" << m_e_over_m_n << std::endl << "m_e/m_d :\t" << m_e_over_m_d << std::endl << "m_e/m_alpha :\t" << m_e_over_m_alpha << std::endl << "e/m_e :\t" << e_over_m_e << std::endl << "M_e :\t" << M_e << std::endl << "lambda_C :\t" << lambda_C << std::endl << "r_e :\t" << r_e << std::endl << "sigma_e :\t" << sigma_e << std::endl << "mu_e :\t" << mu_e << std::endl << "mu_e/mu_B :\t" << mu_e_over_mu_B << std::endl << "mu_e/mu_N :\t" << mu_e_over_mu_N << std::endl << "a_e :\t" << a_e << std::endl << "g_e :\t" << g_e << std::endl << "mu_e/mu_mu :\t" << mu_e_over_mu_mu << std::endl << "mu_e/mu_p :\t" << mu_e_over_mu_p << std::endl << "mu_e/mu_p' :\t" << mu_e_over_mu_p_prime << std::endl << "mu_e/mu_n :\t" << mu_e_over_mu_n << std::endl << "mu_e/mu_d :\t" << mu_e_over_mu_d << std::endl << "mu_e/mu_hp :\t" << mu_e_over_mu_h_prime << std::endl << "gamma_e :\t" << gamma_e << std::endl << std::endl << " muon: " << std::endl << std::endl << "m_mu :\t" << m_mu << std::endl << "m_mu/m_e :\t" << m_mu_over_m_e << std::endl << "m_mu/m_tau :\t" << m_mu_over_m_tau << std::endl << "m_mu/m_p :\t" << m_mu_over_m_p << std::endl << "m_mu/m_n :\t" << m_mu_over_m_n << std::endl << "M_mu :\t" << M_mu << std::endl << "lambda_C_mu :\t" << lambda_C_mu << std::endl << "mu_mu :\t" << mu_mu << std::endl << "a_mu :\t" << a_mu << std::endl << "g_mu :\t" << g_mu << std::endl << "mu_mu/mu_p :\t" << mu_mu_over_mu_p << std::endl << std::endl << " tau: " << std::endl << std::endl << "m_tau :\t" << m_tau << std::endl << "m_tau/m_e :\t" << m_tau_over_m_e << std::endl << "m_tau/m_mu :\t" << m_tau_over_m_mu << std::endl << "m_tau/m_p :\t" << m_tau_over_m_p << std::endl << "m_tau/m_n :\t" << m_tau_over_m_n << std::endl << "M_tau :\t" << M_tau << std::endl << "lambda_C_tau:\t" << lambda_C_tau << std::endl << std::endl << " proton: " << std::endl << std::endl << "m_p :\t" << m_p << std::endl << "m_p/m_e :\t" << m_p_over_m_e << std::endl << "m_p/m_mu :\t" << m_p_over_m_mu << std::endl << "m_p/m_tau :\t" << m_p_over_m_tau << std::endl << "m_p/m_n :\t" << m_p_over_m_n << std::endl << "e/m_p :\t" << e_over_m_p << std::endl << "M_p :\t" << M_p << std::endl << "R_p :\t" << R_p << std::endl << "mu_p :\t" << mu_p << std::endl << "g_p :\t" << g_p << std::endl << "mu_p/mu_n :\t" << mu_p_over_mu_n << std::endl << "mu_p' :\t" << mu_p_prime << std::endl << "gamma_p :\t" << gamma_p << std::endl << "gamma_p' :\t" << gamma_p_prime << std::endl << std::endl << " neutron: " << std::endl << std::endl << "m_n :\t" << m_n << std::endl << "m_n/m_e :\t" << m_n_over_m_e << std::endl << "m_n/m_mu :\t" << m_n_over_m_mu << std::endl << "m_n/m_tau :\t" << m_n_over_m_tau << std::endl << "m_n/m_p :\t" << m_n_over_m_p << std::endl << "lambda_C_n :\t" << lambda_C_n << std::endl << "M_n :\t" << M_n << std::endl << "mu_n :\t" << mu_n << std::endl << "g_n :\t" << g_n << std::endl << "mu_n/mu_p :\t" << mu_n_over_mu_p << std::endl << "mu_n/mu_p' :\t" << mu_n_over_mu_p_prime << std::endl << "gamma_n :\t" << gamma_n << std::endl << std::endl << " deuteron: " << std::endl << std::endl << "m_d :\t" << m_d << std::endl << "m_d/m_e :\t" << m_d_over_m_e << std::endl << "m_d/m_p :\t" << m_d_over_m_p << std::endl << "M_d :\t" << M_d << std::endl << "R_d :\t" << R_d << std::endl << "mu_d :\t" << mu_d << std::endl << "mu_d/mu_e :\t" << mu_d_over_mu_e << std::endl << "mu_d/mu_p :\t" << mu_d_over_mu_p << std::endl << "mu_d/mu_n :\t" << mu_d_over_mu_n << std::endl << std::endl << " helion: " << std::endl << std::endl << "m_h :\t" << m_h << std::endl << std::endl << " alpha particle: " << std::endl << std::endl << "m_alpha :\t" << m_alpha << std::endl << std::endl; return 0; } #else int main(void) { std::cout << "No typeof enabled" << std::endl; return 0; } #endif // BOOST_UNITS_HAS_TYPEOF |
