📄 chemkin.xmds
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<?xml version="1.0"?><simulation> <!-- $Id: chemkin.xmds,v 1.1 2004/06/22 10:17:20 paultcochrane Exp $ --><!-- Copyright (C) 2000-2004 --><!-- --><!-- Code contributed by Greg Collecutt, Joseph Hope and Paul Cochrane --><!-- --><!-- This file is part of xmds. --><!-- --><!-- This program is free software; you can redistribute it and/or --><!-- modify it under the terms of the GNU General Public License --><!-- as published by the Free Software Foundation; either version 2 --><!-- of the License, or (at your option) any later version. --><!-- --><!-- This program is distributed in the hope that it will be useful, --><!-- but WITHOUT ANY WARRANTY; without even the implied warranty of --><!-- MERCHANTABILITY or FITNESS FOR A PARTICULAR PURPOSE. See the --><!-- GNU General Public License for more details. --><!-- --><!-- You should have received a copy of the GNU General Public License --><!-- along with this program; if not, write to the Free Software --><!-- Foundation, Inc., 59 Temple Place - Suite 330, Boston, --><!-- MA 02111-1307, USA. --> <name> chemkin </name> <!-- the name of the simulation --> <author> Paul Cochrane </author> <!-- the author of the simulation --> <description> <!-- a description of what the simulation is supposed to do --> Example simulation of the chemical kinetics of a reversible biomolecular reaction: (the exclamation mark is so that the file parses as xml) A + B <!----> R + S Adapted for xmds from "Mathematica computer programs for physical chemistry", William H. Cropper, Springer Verlag (1998) Equations are: d[A]_dt = -k1[A][B] + k2[R][S] d[B]_dt = -k1[A][B] + k2[R][S] d[R]_dt = k1[A][B] - k2[R][S] d[S]_dt = k1[A][B] - k2[R][S] </description> <!-- Global system parameters and functionality --> <prop_dim> t </prop_dim> <!-- name of main propagation dim --> <error_check> yes </error_check> <!-- defaults to yes --> <use_wisdom> yes </use_wisdom> <!-- defaults to no --> <benchmark> yes </benchmark> <!-- defaults to no --> <use_prefs> yes </use_prefs> <!-- defaults to yes --> <!-- Global variables for the simulation --> <globals> <![CDATA[ // rate constants (in L/mol/s) const double k1 = 0.1; const double k2 = 0.5; // initial concentrations (in mol/L) const double Ao = 0.1; const double Bo = 0.2; const double Ro = 0.3; const double So = 0.4; ]]> </globals> <!-- Field to be integrated over --> <field> <name> main </name> <samples> 1 </samples> <!-- sample 1st point of dim? --> <vector> <name> main </name> <type> double </type> <!-- data type of vector --> <components> A B R S </components> <!-- names of components --> <![CDATA[ A = Ao; B = Bo; R = Ro; S = So; ]]> </vector> </field> <!-- The sequence of integrations to perform --> <sequence> <integrate> <algorithm> RK4IP </algorithm> <!-- RK4EX, RK4IP, SIEX, SIIP --> <interval> 25 </interval> <!-- how far in main dim? --> <lattice> 10000 </lattice> <!-- no. points in main dim --> <samples> 1000 </samples> <!-- no. pts in output moment group --> <![CDATA[ dA_dt = -k1*A*B + k2*R*S; dB_dt = -k1*A*B + k2*R*S; dR_dt = k1*A*B - k2*R*S; dS_dt = k1*A*B - k2*R*S; ]]> </integrate> </sequence> <!-- The output to generate --> <output format="ascii"> <group> <sampling> <moments> Aout Bout Rout Sout </moments> <!-- names of moments --> <![CDATA[ Aout = A; Bout = B; Rout = R; Sout = S; ]]> </sampling> </group> </output> </simulation>
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