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/* Ergo, version 3.8, a program for linear scaling electronic structure
* calculations.
* Copyright (C) 2019 Elias Rudberg, Emanuel H. Rubensson, Pawel Salek,
* and Anastasia Kruchinina.
*
* 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 3 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, see <http://www.gnu.org/licenses/>.
*
* Primary academic reference:
* Ergo: An open-source program for linear-scaling electronic structure
* calculations,
* Elias Rudberg, Emanuel H. Rubensson, Pawel Salek, and Anastasia
* Kruchinina,
* SoftwareX 7, 107 (2018),
* <http://dx.doi.org/10.1016/j.softx.2018.03.005>
*
* For further information about Ergo, see <http://www.ergoscf.org>.
*/
/** @file integrals_hermite.cc
@brief Code for computation of Coulomb integrals of Hermite
Gaussians, using the the McMurchie-Davidson scheme as described in
the book "Molecular electronic-structure theory" by Trygve
Helgaker, Poul Jorgensen, and Jeppe Olsen.
@author: Elias Rudberg <em>responsible</em>
*/
#include "integrals_hermite.h"
#include "boysfunction.h"
#include "mat_gblas.h"
#include <cmath>
#include <stdio.h>
/* ELIAS NOTE 2014-07-12: The variables R1000 R1001 etc in this file
were renamed to R_val_1000 etc to avoid R3000/R4000 identifiers,
since those identifiers apparently cannot be used on Mips/Mips64
architectures. The variables were renamed using the standalone
utility program standalone/rename_Rxxxx_in_code.cc. */
int
get_related_integrals_hermite(const IntegralInfo & integralInfo,
const JK::ExchWeights & paramsCAM,
int n1max, int noOfMonomials_1,
int n2max, int noOfMonomials_2,
ergo_real dx0,
ergo_real dx1,
ergo_real dx2,
ergo_real alpha0,
ergo_real resultPreFactor,
ergo_real* primitiveIntegralList)
{
int Nmax = n1max + n2max;
ergo_real R_12_squared = dx0*dx0 + dx1*dx1 + dx2*dx2;
ergo_real BoysList[Nmax+1];
/* Get Boys function values and store them in BoysList.
NOTE: If CAM params are used, the values in BoysList are
not simply Boys function values but are modified
according to the CAM params. */
if(paramsCAM.computeRangeSeparatedExchange)
{
ergo_real BoysFunctionList_std[Nmax+1];
ergo_real BoysFunctionList_mod[Nmax+1];
ergo_real mu = paramsCAM.mu;
ergo_real v1_squared = mu * mu / (mu * mu + alpha0);
ergo_real v1 = template_blas_sqrt(v1_squared);
/* Prepare BoysFunctionList_std */
/* Use downward recursion to get Boys function values */
ergo_real arg1 = alpha0 * R_12_squared;
ergo_real expMinusArg1 = template_blas_exp(-arg1);
BoysFunctionList_std[Nmax] = integralInfo.BoysFunction(Nmax, arg1);
for(int i = Nmax-1; i >= 0; i--)
BoysFunctionList_std[i] = (2*arg1*BoysFunctionList_std[i+1] + expMinusArg1) / (2*i+1);
/* Prepare BoysFunctionList_mod */
/* Use downward recursion to get Boys function values */
ergo_real arg2 = alpha0 * R_12_squared * v1_squared;
ergo_real expMinusArg2 = template_blas_exp(-arg2);
BoysFunctionList_mod[Nmax] = integralInfo.BoysFunction(Nmax, arg2);
for(int i = Nmax-1; i >= 0; i--)
BoysFunctionList_mod[i] = (2*arg2*BoysFunctionList_mod[i+1] + expMinusArg2) / (2*i+1);
// rescale
for(int i = 0; i <= Nmax; i++)
BoysFunctionList_mod[i] *= v1 * template_blas_pow(v1_squared, (ergo_real)i); /* TODO: avoid using pow() here! */
// add BoysFunctionList_std and BoysFunctionList_mod using weights given by cam_param_alpha and cam_param_beta
for(int i = 0; i <= Nmax; i++)
BoysList[i] = paramsCAM.alpha * BoysFunctionList_std[i] + paramsCAM.beta * BoysFunctionList_mod[i];
}
else
{
/* Compute all Boys function values needed */
/* Use downward recursion to get Boys function values */
ergo_real arg = alpha0 * R_12_squared;
BoysList[Nmax] = integralInfo.BoysFunction(Nmax, arg);
if(Nmax > 0)
{
ergo_real expMinusArg = template_blas_exp(-arg);
for(int i = Nmax-1; i >= 0; i--)
BoysList[i] = (2*arg*BoysList[i+1] + expMinusArg) / (2*i+1);
}
}
#if 1
if(n1max == 0)
{
if(n2max == 0)
{
primitiveIntegralList[0] = resultPreFactor * BoysList[0];
return 0;
} // END IF (n2max == 0)
if(n2max == 1)
{
ergo_real R_val_0000 = BoysList[0] * resultPreFactor;
ergo_real R_val_1000 = -2*alpha0*BoysList[1] * resultPreFactor;
ergo_real R_val_0100 = dx0 * R_val_1000;
ergo_real R_val_0010 = dx1 * R_val_1000;
ergo_real R_val_0001 = dx2 * R_val_1000;
primitiveIntegralList[0] = R_val_0000;
primitiveIntegralList[1] = R_val_0001;
primitiveIntegralList[2] = R_val_0010;
primitiveIntegralList[3] = R_val_0100;
return 0;
} // END IF (n2max == 1)
if(n2max == 2)
{
ergo_real R_val_0000 = BoysList[0] * resultPreFactor;
ergo_real R_val_1000 = -2*alpha0*BoysList[1] * resultPreFactor;
ergo_real R_val_2000 = 4*alpha0*alpha0*BoysList[2] * resultPreFactor;
ergo_real R_val_1100 = dx0 * R_val_2000;
ergo_real R_val_1010 = dx1 * R_val_2000;
ergo_real R_val_1001 = dx2 * R_val_2000;
ergo_real R_val_0100 = dx0 * R_val_1000;
ergo_real R_val_0010 = dx1 * R_val_1000;
ergo_real R_val_0001 = dx2 * R_val_1000;
ergo_real R_val_0200 = R_val_1000 + dx0 * R_val_1100;
ergo_real R_val_0020 = R_val_1000 + dx1 * R_val_1010;
ergo_real R_val_0002 = R_val_1000 + dx2 * R_val_1001;
ergo_real R_val_0110 = dx0 * R_val_1010;
ergo_real R_val_0101 = dx0 * R_val_1001;
ergo_real R_val_0011 = dx1 * R_val_1001;
primitiveIntegralList[0] = R_val_0000;
primitiveIntegralList[1] = R_val_0001;
primitiveIntegralList[2] = R_val_0010;
primitiveIntegralList[3] = R_val_0100;
primitiveIntegralList[4] = R_val_0002;
primitiveIntegralList[5] = R_val_0011;
primitiveIntegralList[6] = R_val_0020;
primitiveIntegralList[7] = R_val_0101;
primitiveIntegralList[8] = R_val_0110;
primitiveIntegralList[9] = R_val_0200;
return 0;
} // END IF (n2max == 1)
}
if(n1max == 1)
{
if(n2max == 0)
{
ergo_real R_val_0000 = BoysList[0] * resultPreFactor;
ergo_real R_val_1000 = -2*alpha0*BoysList[1] * resultPreFactor;
ergo_real R_val_0100 = dx0 * R_val_1000;
ergo_real R_val_0010 = dx1 * R_val_1000;
ergo_real R_val_0001 = dx2 * R_val_1000;
primitiveIntegralList[0] = R_val_0000;
primitiveIntegralList[1] = -R_val_0001;
primitiveIntegralList[2] = -R_val_0010;
primitiveIntegralList[3] = -R_val_0100;
return 0;
} // END IF (n2max == 0)
if(n2max == 1)
{
ergo_real R_val_0000 = BoysList[0] * resultPreFactor;
ergo_real R_val_1000 = -2*alpha0*BoysList[1] * resultPreFactor;
ergo_real R_val_2000 = 4*alpha0*alpha0*BoysList[2] * resultPreFactor;
ergo_real R_val_1100 = dx0 * R_val_2000;
ergo_real R_val_1010 = dx1 * R_val_2000;
ergo_real R_val_1001 = dx2 * R_val_2000;
ergo_real R_val_0100 = dx0 * R_val_1000;
ergo_real R_val_0010 = dx1 * R_val_1000;
ergo_real R_val_0001 = dx2 * R_val_1000;
ergo_real R_val_0200 = R_val_1000 + dx0 * R_val_1100;
ergo_real R_val_0020 = R_val_1000 + dx1 * R_val_1010;
ergo_real R_val_0002 = R_val_1000 + dx2 * R_val_1001;
ergo_real R_val_0110 = dx0 * R_val_1010;
ergo_real R_val_0101 = dx0 * R_val_1001;
ergo_real R_val_0011 = dx1 * R_val_1001;
// i1 = 0 (000)
primitiveIntegralList[ 0] = R_val_0000; // i2 000
primitiveIntegralList[ 1] = R_val_0001; // i2 001
primitiveIntegralList[ 2] = R_val_0010; // i2 010
primitiveIntegralList[ 3] = R_val_0100; // i2 100
// i1 = 1 (001)
primitiveIntegralList[ 4] = -R_val_0001; // i2 000
primitiveIntegralList[ 5] = -R_val_0002; // i2 001
primitiveIntegralList[ 6] = -R_val_0011; // i2 010
primitiveIntegralList[ 7] = -R_val_0101; // i2 100
// i1 = 2 (010)
primitiveIntegralList[ 8] = -R_val_0010; // i2 000
primitiveIntegralList[ 9] = -R_val_0011; // i2 001
primitiveIntegralList[10] = -R_val_0020; // i2 010
primitiveIntegralList[11] = -R_val_0110; // i2 100
// i1 = 3 (100)
primitiveIntegralList[12] = -R_val_0100; // i2 000
primitiveIntegralList[13] = -R_val_0101; // i2 001
primitiveIntegralList[14] = -R_val_0110; // i2 010
primitiveIntegralList[15] = -R_val_0200; // i2 100
return 0;
} // END IF (n2max == 1)
if(n2max == 2)
{
ergo_real R_val_0000 = BoysList[0] * resultPreFactor;
ergo_real R_val_1000 = -2*alpha0*BoysList[1] * resultPreFactor;
ergo_real R_val_2000 = 4*alpha0*alpha0*BoysList[2] * resultPreFactor;
ergo_real R_val_3000 = -8*alpha0*alpha0*alpha0*BoysList[3] * resultPreFactor;
ergo_real R_val_2100 = dx0 * R_val_3000;
ergo_real R_val_2010 = dx1 * R_val_3000;
ergo_real R_val_2001 = dx2 * R_val_3000;
ergo_real R_val_1100 = dx0 * R_val_2000;
ergo_real R_val_1010 = dx1 * R_val_2000;
ergo_real R_val_1001 = dx2 * R_val_2000;
ergo_real R_val_1200 = R_val_2000 + dx0 * R_val_2100;
ergo_real R_val_1020 = R_val_2000 + dx1 * R_val_2010;
ergo_real R_val_1002 = R_val_2000 + dx2 * R_val_2001;
ergo_real R_val_1110 = dx0 * R_val_2010;
ergo_real R_val_1101 = dx0 * R_val_2001;
ergo_real R_val_1011 = dx1 * R_val_2001;
ergo_real R_val_0100 = dx0 * R_val_1000;
ergo_real R_val_0010 = dx1 * R_val_1000;
ergo_real R_val_0001 = dx2 * R_val_1000;
ergo_real R_val_0200 = R_val_1000 + dx0 * R_val_1100;
ergo_real R_val_0020 = R_val_1000 + dx1 * R_val_1010;
ergo_real R_val_0002 = R_val_1000 + dx2 * R_val_1001;
ergo_real R_val_0110 = dx0 * R_val_1010;
ergo_real R_val_0101 = dx0 * R_val_1001;
ergo_real R_val_0011 = dx1 * R_val_1001;
ergo_real R_val_0111 = dx0 * R_val_1011;
ergo_real R_val_0300 = 2 * R_val_1100 + dx0 * R_val_1200;
ergo_real R_val_0030 = 2 * R_val_1010 + dx1 * R_val_1020;
ergo_real R_val_0003 = 2 * R_val_1001 + dx2 * R_val_1002;
ergo_real R_val_0210 = R_val_1010 + dx0 * R_val_1110;
ergo_real R_val_0201 = R_val_1001 + dx0 * R_val_1101;
ergo_real R_val_0120 = R_val_1100 + dx1 * R_val_1110;
ergo_real R_val_0021 = R_val_1001 + dx1 * R_val_1011;
ergo_real R_val_0102 = R_val_1100 + dx2 * R_val_1101;
ergo_real R_val_0012 = R_val_1010 + dx2 * R_val_1011;
// i1 = 0 (000)
primitiveIntegralList[ 0] = R_val_0000; // i2 000
primitiveIntegralList[ 1] = R_val_0001; // i2 001
primitiveIntegralList[ 2] = R_val_0010; // i2 010
primitiveIntegralList[ 3] = R_val_0100; // i2 100
primitiveIntegralList[ 4] = R_val_0002; // i2 002
primitiveIntegralList[ 5] = R_val_0011; // i2 011
primitiveIntegralList[ 6] = R_val_0020; // i2 020
primitiveIntegralList[ 7] = R_val_0101; // i2 101
primitiveIntegralList[ 8] = R_val_0110; // i2 110
primitiveIntegralList[ 9] = R_val_0200; // i2 200
// i1 = 1 (001)
primitiveIntegralList[10] = -R_val_0001; // i2 000
primitiveIntegralList[11] = -R_val_0002; // i2 001
primitiveIntegralList[12] = -R_val_0011; // i2 010
primitiveIntegralList[13] = -R_val_0101; // i2 100
primitiveIntegralList[14] = -R_val_0003; // i2 002
primitiveIntegralList[15] = -R_val_0012; // i2 011
primitiveIntegralList[16] = -R_val_0021; // i2 020
primitiveIntegralList[17] = -R_val_0102; // i2 101
primitiveIntegralList[18] = -R_val_0111; // i2 110
primitiveIntegralList[19] = -R_val_0201; // i2 200
// i1 = 2 (010)
primitiveIntegralList[20] = -R_val_0010; // i2 000
primitiveIntegralList[21] = -R_val_0011; // i2 001
primitiveIntegralList[22] = -R_val_0020; // i2 010
primitiveIntegralList[23] = -R_val_0110; // i2 100
primitiveIntegralList[24] = -R_val_0012; // i2 002
primitiveIntegralList[25] = -R_val_0021; // i2 011
primitiveIntegralList[26] = -R_val_0030; // i2 020
primitiveIntegralList[27] = -R_val_0111; // i2 101
primitiveIntegralList[28] = -R_val_0120; // i2 110
primitiveIntegralList[29] = -R_val_0210; // i2 200
// i1 = 3 (100)
primitiveIntegralList[30] = -R_val_0100; // i2 000
primitiveIntegralList[31] = -R_val_0101; // i2 001
primitiveIntegralList[32] = -R_val_0110; // i2 010
primitiveIntegralList[33] = -R_val_0200; // i2 100
primitiveIntegralList[34] = -R_val_0102; // i2 002
primitiveIntegralList[35] = -R_val_0111; // i2 011
primitiveIntegralList[36] = -R_val_0120; // i2 020
primitiveIntegralList[37] = -R_val_0201; // i2 101
primitiveIntegralList[38] = -R_val_0210; // i2 110
primitiveIntegralList[39] = -R_val_0300; // i2 200
return 0;
} // END IF (n2max == 2)
}
if(n1max == 2)
{
if(n2max == 0)
{
ergo_real R_val_0000 = BoysList[0] * resultPreFactor;
ergo_real R_val_1000 = -2*alpha0*BoysList[1] * resultPreFactor;
ergo_real R_val_2000 = 4*alpha0*alpha0*BoysList[2] * resultPreFactor;
ergo_real R_val_1100 = dx0 * R_val_2000;
ergo_real R_val_1010 = dx1 * R_val_2000;
ergo_real R_val_1001 = dx2 * R_val_2000;
ergo_real R_val_0100 = dx0 * R_val_1000;
ergo_real R_val_0010 = dx1 * R_val_1000;
ergo_real R_val_0001 = dx2 * R_val_1000;
ergo_real R_val_0200 = R_val_1000 + dx0 * R_val_1100;
ergo_real R_val_0020 = R_val_1000 + dx1 * R_val_1010;
ergo_real R_val_0002 = R_val_1000 + dx2 * R_val_1001;
ergo_real R_val_0110 = dx0 * R_val_1010;
ergo_real R_val_0101 = dx0 * R_val_1001;
ergo_real R_val_0011 = dx1 * R_val_1001;
// i1 = 0 (000)
primitiveIntegralList[0] = R_val_0000;
// i1 = 1 (001)
primitiveIntegralList[1] = -R_val_0001;
// i1 = 2 (010)
primitiveIntegralList[2] = -R_val_0010;
// i1 = 3 (100)
primitiveIntegralList[3] = -R_val_0100;
// i1 = 4 (002)
primitiveIntegralList[4] = R_val_0002;
// i1 = 5 (011)
primitiveIntegralList[5] = R_val_0011;
// i1 = 6 (020)
primitiveIntegralList[6] = R_val_0020;
// i1 = 7 (101)
primitiveIntegralList[7] = R_val_0101;
// i1 = 8 (110)
primitiveIntegralList[8] = R_val_0110;
// i1 = 9 (200)
primitiveIntegralList[9] = R_val_0200;
return 0;
} // END IF (n2max == 0)
if(n2max == 1)
{
ergo_real R_val_0000 = BoysList[0] * resultPreFactor;
ergo_real R_val_1000 = -2*alpha0*BoysList[1] * resultPreFactor;
ergo_real R_val_2000 = 4*alpha0*alpha0*BoysList[2] * resultPreFactor;
ergo_real R_val_3000 = -8*alpha0*alpha0*alpha0*BoysList[3] * resultPreFactor;
ergo_real R_val_2100 = dx0 * R_val_3000;
ergo_real R_val_2010 = dx1 * R_val_3000;
ergo_real R_val_2001 = dx2 * R_val_3000;
ergo_real R_val_1100 = dx0 * R_val_2000;
ergo_real R_val_1010 = dx1 * R_val_2000;
ergo_real R_val_1001 = dx2 * R_val_2000;
ergo_real R_val_1200 = R_val_2000 + dx0 * R_val_2100;
ergo_real R_val_1020 = R_val_2000 + dx1 * R_val_2010;
ergo_real R_val_1002 = R_val_2000 + dx2 * R_val_2001;
ergo_real R_val_1110 = dx0 * R_val_2010;
ergo_real R_val_1101 = dx0 * R_val_2001;
ergo_real R_val_1011 = dx1 * R_val_2001;
ergo_real R_val_0100 = dx0 * R_val_1000;
ergo_real R_val_0010 = dx1 * R_val_1000;
ergo_real R_val_0001 = dx2 * R_val_1000;
ergo_real R_val_0200 = R_val_1000 + dx0 * R_val_1100;
ergo_real R_val_0020 = R_val_1000 + dx1 * R_val_1010;
ergo_real R_val_0002 = R_val_1000 + dx2 * R_val_1001;
ergo_real R_val_0110 = dx0 * R_val_1010;
ergo_real R_val_0101 = dx0 * R_val_1001;
ergo_real R_val_0011 = dx1 * R_val_1001;
ergo_real R_val_0111 = dx0 * R_val_1011;
ergo_real R_val_0300 = 2 * R_val_1100 + dx0 * R_val_1200;
ergo_real R_val_0030 = 2 * R_val_1010 + dx1 * R_val_1020;
ergo_real R_val_0003 = 2 * R_val_1001 + dx2 * R_val_1002;
ergo_real R_val_0210 = R_val_1010 + dx0 * R_val_1110;
ergo_real R_val_0201 = R_val_1001 + dx0 * R_val_1101;
ergo_real R_val_0120 = R_val_1100 + dx1 * R_val_1110;
ergo_real R_val_0021 = R_val_1001 + dx1 * R_val_1011;
ergo_real R_val_0102 = R_val_1100 + dx2 * R_val_1101;
ergo_real R_val_0012 = R_val_1010 + dx2 * R_val_1011;
// i1 = 0 (000)
primitiveIntegralList[ 0] = R_val_0000; // i2 000
primitiveIntegralList[ 1] = R_val_0001; // i2 001
primitiveIntegralList[ 2] = R_val_0010; // i2 010
primitiveIntegralList[ 3] = R_val_0100; // i2 100
// i1 = 1 (001)
primitiveIntegralList[ 4] = -R_val_0001; // i2 000
primitiveIntegralList[ 5] = -R_val_0002; // i2 001
primitiveIntegralList[ 6] = -R_val_0011; // i2 010
primitiveIntegralList[ 7] = -R_val_0101; // i2 100
// i1 = 2 (010)
primitiveIntegralList[ 8] = -R_val_0010; // i2 000
primitiveIntegralList[ 9] = -R_val_0011; // i2 001
primitiveIntegralList[10] = -R_val_0020; // i2 010
primitiveIntegralList[11] = -R_val_0110; // i2 100
// i1 = 3 (100)
primitiveIntegralList[12] = -R_val_0100; // i2 000
primitiveIntegralList[13] = -R_val_0101; // i2 001
primitiveIntegralList[14] = -R_val_0110; // i2 010
primitiveIntegralList[15] = -R_val_0200; // i2 100
// i1 = 4 (002)
primitiveIntegralList[16] = R_val_0002; // i2 000
primitiveIntegralList[17] = R_val_0003; // i2 001
primitiveIntegralList[18] = R_val_0012; // i2 010
primitiveIntegralList[19] = R_val_0102; // i2 100
// i1 = 5 (011)
primitiveIntegralList[20] = R_val_0011; // i2 000
primitiveIntegralList[21] = R_val_0012; // i2 001
primitiveIntegralList[22] = R_val_0021; // i2 010
primitiveIntegralList[23] = R_val_0111; // i2 100
// i1 = 6 (020)
primitiveIntegralList[24] = R_val_0020; // i2 000
primitiveIntegralList[25] = R_val_0021; // i2 001
primitiveIntegralList[26] = R_val_0030; // i2 010
primitiveIntegralList[27] = R_val_0120; // i2 100
// i1 = 7 (101)
primitiveIntegralList[28] = R_val_0101; // i2 000
primitiveIntegralList[29] = R_val_0102; // i2 001
primitiveIntegralList[30] = R_val_0111; // i2 010
primitiveIntegralList[31] = R_val_0201; // i2 100
// i1 = 8 (110)
primitiveIntegralList[32] = R_val_0110; // i2 000
primitiveIntegralList[33] = R_val_0111; // i2 001
primitiveIntegralList[34] = R_val_0120; // i2 010
primitiveIntegralList[35] = R_val_0210; // i2 100
// i1 = 9 (200)
primitiveIntegralList[36] = R_val_0200; // i2 000
primitiveIntegralList[37] = R_val_0201; // i2 001
primitiveIntegralList[38] = R_val_0210; // i2 010
primitiveIntegralList[39] = R_val_0300; // i2 100
return 0;
} // END IF (n2max == 0)
if(n2max == 2)
{
ergo_real R_val_0000 = BoysList[0] * resultPreFactor;
ergo_real R_val_1000 = -2*alpha0*BoysList[1] * resultPreFactor;
ergo_real R_val_2000 = 4*alpha0*alpha0*BoysList[2] * resultPreFactor;
ergo_real R_val_3000 = -8*alpha0*alpha0*alpha0*BoysList[3] * resultPreFactor;
ergo_real R_val_4000 = 16*alpha0*alpha0*alpha0*alpha0*BoysList[4] * resultPreFactor;
ergo_real R_val_3100 = dx0 * R_val_4000;
ergo_real R_val_3010 = dx1 * R_val_4000;
ergo_real R_val_3001 = dx2 * R_val_4000;
ergo_real R_val_2100 = dx0 * R_val_3000;
ergo_real R_val_2010 = dx1 * R_val_3000;
ergo_real R_val_2001 = dx2 * R_val_3000;
ergo_real R_val_2200 = R_val_3000 + dx0 * R_val_3100;
ergo_real R_val_2020 = R_val_3000 + dx1 * R_val_3010;
ergo_real R_val_2002 = R_val_3000 + dx2 * R_val_3001;
ergo_real R_val_2110 = dx0 * R_val_3010;
ergo_real R_val_2101 = dx0 * R_val_3001;
ergo_real R_val_2011 = dx1 * R_val_3001;
ergo_real R_val_1100 = dx0 * R_val_2000;
ergo_real R_val_1010 = dx1 * R_val_2000;
ergo_real R_val_1001 = dx2 * R_val_2000;
ergo_real R_val_1200 = R_val_2000 + dx0 * R_val_2100;
ergo_real R_val_1020 = R_val_2000 + dx1 * R_val_2010;
ergo_real R_val_1002 = R_val_2000 + dx2 * R_val_2001;
ergo_real R_val_1110 = dx0 * R_val_2010;
ergo_real R_val_1101 = dx0 * R_val_2001;
ergo_real R_val_1011 = dx1 * R_val_2001;
ergo_real R_val_1111 = dx0 * R_val_2011;
ergo_real R_val_1300 = 2 * R_val_2100 + dx0 * R_val_2200;
ergo_real R_val_1030 = 2 * R_val_2010 + dx1 * R_val_2020;
ergo_real R_val_1003 = 2 * R_val_2001 + dx2 * R_val_2002;
ergo_real R_val_1210 = R_val_2010 + dx0 * R_val_2110;
ergo_real R_val_1201 = R_val_2001 + dx0 * R_val_2101;
ergo_real R_val_1120 = R_val_2100 + dx1 * R_val_2110;
ergo_real R_val_1021 = R_val_2001 + dx1 * R_val_2011;
ergo_real R_val_1102 = R_val_2100 + dx2 * R_val_2101;
ergo_real R_val_1012 = R_val_2010 + dx2 * R_val_2011;
ergo_real R_val_0100 = dx0 * R_val_1000;
ergo_real R_val_0010 = dx1 * R_val_1000;
ergo_real R_val_0001 = dx2 * R_val_1000;
ergo_real R_val_0200 = R_val_1000 + dx0 * R_val_1100;
ergo_real R_val_0020 = R_val_1000 + dx1 * R_val_1010;
ergo_real R_val_0002 = R_val_1000 + dx2 * R_val_1001;
ergo_real R_val_0110 = dx0 * R_val_1010;
ergo_real R_val_0101 = dx0 * R_val_1001;
ergo_real R_val_0011 = dx1 * R_val_1001;
ergo_real R_val_0111 = dx0 * R_val_1011;
ergo_real R_val_0300 = 2 * R_val_1100 + dx0 * R_val_1200;
ergo_real R_val_0030 = 2 * R_val_1010 + dx1 * R_val_1020;
ergo_real R_val_0003 = 2 * R_val_1001 + dx2 * R_val_1002;
ergo_real R_val_0210 = R_val_1010 + dx0 * R_val_1110;
ergo_real R_val_0201 = R_val_1001 + dx0 * R_val_1101;
ergo_real R_val_0120 = R_val_1100 + dx1 * R_val_1110;
ergo_real R_val_0021 = R_val_1001 + dx1 * R_val_1011;
ergo_real R_val_0102 = R_val_1100 + dx2 * R_val_1101;
ergo_real R_val_0012 = R_val_1010 + dx2 * R_val_1011;
ergo_real R_val_0400 = 3 * R_val_1200 + dx0 * R_val_1300;
ergo_real R_val_0040 = 3 * R_val_1020 + dx1 * R_val_1030;
ergo_real R_val_0004 = 3 * R_val_1002 + dx2 * R_val_1003;
ergo_real R_val_0310 = 2 * R_val_1110 + dx0 * R_val_1210;
ergo_real R_val_0301 = 2 * R_val_1101 + dx0 * R_val_1201;
ergo_real R_val_0130 = 2 * R_val_1110 + dx1 * R_val_1120;
ergo_real R_val_0031 = 2 * R_val_1011 + dx1 * R_val_1021;
ergo_real R_val_0103 = 2 * R_val_1101 + dx2 * R_val_1102;
ergo_real R_val_0013 = 2 * R_val_1011 + dx2 * R_val_1012;
ergo_real R_val_0220 = R_val_1020 + dx0 * R_val_1120;
ergo_real R_val_0202 = R_val_1002 + dx0 * R_val_1102;
ergo_real R_val_0022 = R_val_1002 + dx1 * R_val_1012;
ergo_real R_val_0211 = R_val_1011 + dx0 * R_val_1111;
ergo_real R_val_0121 = R_val_1101 + dx1 * R_val_1111;
ergo_real R_val_0112 = R_val_1110 + dx2 * R_val_1111;
// i1 = 0 (000)
primitiveIntegralList[ 0] = R_val_0000; // i2 000
primitiveIntegralList[ 1] = R_val_0001; // i2 001
primitiveIntegralList[ 2] = R_val_0010; // i2 010
primitiveIntegralList[ 3] = R_val_0100; // i2 100
primitiveIntegralList[ 4] = R_val_0002; // i2 002
primitiveIntegralList[ 5] = R_val_0011; // i2 011
primitiveIntegralList[ 6] = R_val_0020; // i2 020
primitiveIntegralList[ 7] = R_val_0101; // i2 101
primitiveIntegralList[ 8] = R_val_0110; // i2 110
primitiveIntegralList[ 9] = R_val_0200; // i2 200
// i1 = 1 (001)
primitiveIntegralList[10] = -R_val_0001; // i2 000
primitiveIntegralList[11] = -R_val_0002; // i2 001
primitiveIntegralList[12] = -R_val_0011; // i2 010
primitiveIntegralList[13] = -R_val_0101; // i2 100
primitiveIntegralList[14] = -R_val_0003; // i2 002
primitiveIntegralList[15] = -R_val_0012; // i2 011
primitiveIntegralList[16] = -R_val_0021; // i2 020
primitiveIntegralList[17] = -R_val_0102; // i2 101
primitiveIntegralList[18] = -R_val_0111; // i2 110
primitiveIntegralList[19] = -R_val_0201; // i2 200
// i1 = 2 (010)
primitiveIntegralList[20] = -R_val_0010; // i2 000
primitiveIntegralList[21] = -R_val_0011; // i2 001
primitiveIntegralList[22] = -R_val_0020; // i2 010
primitiveIntegralList[23] = -R_val_0110; // i2 100
primitiveIntegralList[24] = -R_val_0012; // i2 002
primitiveIntegralList[25] = -R_val_0021; // i2 011
primitiveIntegralList[26] = -R_val_0030; // i2 020
primitiveIntegralList[27] = -R_val_0111; // i2 101
primitiveIntegralList[28] = -R_val_0120; // i2 110
primitiveIntegralList[29] = -R_val_0210; // i2 200
// i1 = 3 (100)
primitiveIntegralList[30] = -R_val_0100; // i2 000
primitiveIntegralList[31] = -R_val_0101; // i2 001
primitiveIntegralList[32] = -R_val_0110; // i2 010
primitiveIntegralList[33] = -R_val_0200; // i2 100
primitiveIntegralList[34] = -R_val_0102; // i2 002
primitiveIntegralList[35] = -R_val_0111; // i2 011
primitiveIntegralList[36] = -R_val_0120; // i2 020
primitiveIntegralList[37] = -R_val_0201; // i2 101
primitiveIntegralList[38] = -R_val_0210; // i2 110
primitiveIntegralList[39] = -R_val_0300; // i2 200
// i1 = 4 (002)
primitiveIntegralList[40] = R_val_0002; // i2 000
primitiveIntegralList[41] = R_val_0003; // i2 001
primitiveIntegralList[42] = R_val_0012; // i2 010
primitiveIntegralList[43] = R_val_0102; // i2 100
primitiveIntegralList[44] = R_val_0004; // i2 002
primitiveIntegralList[45] = R_val_0013; // i2 011
primitiveIntegralList[46] = R_val_0022; // i2 020
primitiveIntegralList[47] = R_val_0103; // i2 101
primitiveIntegralList[48] = R_val_0112; // i2 110
primitiveIntegralList[49] = R_val_0202; // i2 200
// i1 = 5 (011)
primitiveIntegralList[50] = R_val_0011; // i2 000
primitiveIntegralList[51] = R_val_0012; // i2 001
primitiveIntegralList[52] = R_val_0021; // i2 010
primitiveIntegralList[53] = R_val_0111; // i2 100
primitiveIntegralList[54] = R_val_0013; // i2 002
primitiveIntegralList[55] = R_val_0022; // i2 011
primitiveIntegralList[56] = R_val_0031; // i2 020
primitiveIntegralList[57] = R_val_0112; // i2 101
primitiveIntegralList[58] = R_val_0121; // i2 110
primitiveIntegralList[59] = R_val_0211; // i2 200
// i1 = 6 (020)
primitiveIntegralList[60] = R_val_0020; // i2 000
primitiveIntegralList[61] = R_val_0021; // i2 001
primitiveIntegralList[62] = R_val_0030; // i2 010
primitiveIntegralList[63] = R_val_0120; // i2 100
primitiveIntegralList[64] = R_val_0022; // i2 002
primitiveIntegralList[65] = R_val_0031; // i2 011
primitiveIntegralList[66] = R_val_0040; // i2 020
primitiveIntegralList[67] = R_val_0121; // i2 101
primitiveIntegralList[68] = R_val_0130; // i2 110
primitiveIntegralList[69] = R_val_0220; // i2 200
// i1 = 7 (101)
primitiveIntegralList[70] = R_val_0101; // i2 000
primitiveIntegralList[71] = R_val_0102; // i2 001
primitiveIntegralList[72] = R_val_0111; // i2 010
primitiveIntegralList[73] = R_val_0201; // i2 100
primitiveIntegralList[74] = R_val_0103; // i2 002
primitiveIntegralList[75] = R_val_0112; // i2 011
primitiveIntegralList[76] = R_val_0121; // i2 020
primitiveIntegralList[77] = R_val_0202; // i2 101
primitiveIntegralList[78] = R_val_0211; // i2 110
primitiveIntegralList[79] = R_val_0301; // i2 200
// i1 = 8 (110)
primitiveIntegralList[80] = R_val_0110; // i2 000
primitiveIntegralList[81] = R_val_0111; // i2 001
primitiveIntegralList[82] = R_val_0120; // i2 010
primitiveIntegralList[83] = R_val_0210; // i2 100
primitiveIntegralList[84] = R_val_0112; // i2 002
primitiveIntegralList[85] = R_val_0121; // i2 011
primitiveIntegralList[86] = R_val_0130; // i2 020
primitiveIntegralList[87] = R_val_0211; // i2 101
primitiveIntegralList[88] = R_val_0220; // i2 110
primitiveIntegralList[89] = R_val_0310; // i2 200
// i1 = 9 (200)
primitiveIntegralList[90] = R_val_0200; // i2 000
primitiveIntegralList[91] = R_val_0201; // i2 001
primitiveIntegralList[92] = R_val_0210; // i2 010
primitiveIntegralList[93] = R_val_0300; // i2 100
primitiveIntegralList[94] = R_val_0202; // i2 002
primitiveIntegralList[95] = R_val_0211; // i2 011
primitiveIntegralList[96] = R_val_0220; // i2 020
primitiveIntegralList[97] = R_val_0301; // i2 101
primitiveIntegralList[98] = R_val_0310; // i2 110
primitiveIntegralList[99] = R_val_0400; // i2 200
return 0;
}
}
#endif
ergo_real R[Nmax+1][Nmax+1][Nmax+1][Nmax+1];
int n;
ergo_real factor = 1;
for(n = 0; n <= Nmax; n++)
{
R[n][0][0][0] = factor * BoysList[n];
factor *= -2*alpha0;
}
int minus1topowList[Nmax+1];
int ifactor = 1;
for(n = 0; n <= Nmax; n++)
{
minus1topowList[n] = ifactor;
ifactor *= -1;
}
// Use recurrences to get remaining R values
for(n = Nmax - 1; n >= 0; n--)
{
int nn = Nmax - n;
int noOfMonomials = integralInfo.monomial_info.no_of_monomials_list[nn];
int i;
for(i = 1; i < noOfMonomials; i++)
{
int ix = integralInfo.monomial_info.monomial_list[i].ix;
int iy = integralInfo.monomial_info.monomial_list[i].iy;
int iz = integralInfo.monomial_info.monomial_list[i].iz;
if(ix > 0)
{
ergo_real Rval = dx0 * R[n+1][ix-1][iy][iz];
if(ix > 1)
Rval += (ix - 1) * R[n+1][ix-2][iy][iz];
R[n][ix][iy][iz] = Rval;
}
else if(iy > 0)
{
ergo_real Rval = dx1 * R[n+1][ix][iy-1][iz];
if(iy > 1)
Rval += (iy - 1) * R[n+1][ix][iy-2][iz];
R[n][ix][iy][iz] = Rval;
}
else if(iz > 0)
{
ergo_real Rval = dx2 * R[n+1][ix][iy][iz-1];
if(iz > 1)
Rval += (iz - 1) * R[n+1][ix][iy][iz-2];
R[n][ix][iy][iz] = Rval;
}
} // END FOR i
} // END FOR n
int i1, i2;
for(i1 = 0; i1 < noOfMonomials_1; i1++)
{
int ix1 = integralInfo.monomial_info.monomial_list[i1].ix;
int iy1 = integralInfo.monomial_info.monomial_list[i1].iy;
int iz1 = integralInfo.monomial_info.monomial_list[i1].iz;
int n1 = ix1+iy1+iz1;
ergo_real prefactor = minus1topowList[n1] * resultPreFactor;
for(i2 = 0; i2 < noOfMonomials_2; i2++)
{
int ix2 = integralInfo.monomial_info.monomial_list[i2].ix;
int iy2 = integralInfo.monomial_info.monomial_list[i2].iy;
int iz2 = integralInfo.monomial_info.monomial_list[i2].iz;
primitiveIntegralList[i1*noOfMonomials_2+i2] = prefactor * R[0][ix1+ix2][iy1+iy2][iz1+iz2];
} // END FOR i2
}
return 0;
}
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