36 const Libint_t* inteval, LIBINT2_REALTYPE* target,
37 const LIBINT2_REALTYPE* src0,
const LIBINT2_REALTYPE* src1,
43 const LIBINT2_REALTYPE (
44 &two_alpha)[LIBINT2_MAX_VECLEN]
47 const unsigned int veclen = vectorize ? inteval->veclen : 1;
48 const unsigned int lveclen = lowdim * veclen;
50 const unsigned int N = INT_NCART(L);
51 const unsigned int Np1 = INT_NCART(L + 1);
52 const unsigned int Nm1 =
53 L > 0 ? INT_NCART(L - 1) : 0;
55 for (
unsigned int h = 0, target_idx = 0; h < highdim; ++h) {
56 const unsigned int hNp1 = h * Np1;
57 const unsigned int hNm1 = h * Nm1;
60 FOR_CART(ax, ay, az, L)
69 const unsigned int iap1 = INT_CARTINDEX(L + 1, a[0], a[1]);
70 const unsigned int ap1_offset = (hNp1 + iap1) * lveclen;
71 const LIBINT2_REALTYPE* src0_ptr = src0 + ap1_offset;
74 const bool have_am1 = (a[dir] > 0);
77 unsigned int am1_offset;
78 const LIBINT2_REALTYPE* src1_ptr;
81 iam1 = INT_CARTINDEX(L - 1, a[0], a[1]);
82 am1_offset = (hNm1 + iam1) * lveclen;
83 src1_ptr = src1 + am1_offset;
86 LIBINT2_REALTYPE adir_real = LIBINT2_REALTYPE(a[dir]);
89 for (
unsigned int l = 0, lv = 0; l < lowdim; ++l) {
90 for (
unsigned int v = 0; v < veclen; ++v, ++lv, ++target_idx) {
92 two_alpha[v] * src0_ptr[lv] - adir_real * src1_ptr[lv];
96 for (
unsigned int l = 0, lv = 0; l < lowdim; ++l) {
97 for (
unsigned int v = 0; v < veclen; ++v, ++lv, ++target_idx) {
98 target[target_idx] = two_alpha[v] * src0_ptr[lv];
102#if LIBINT2_FLOP_COUNT
103 inteval->nflops[0] += (have_am1 ? 3 : 1) * lveclen;
static void compute(const Libint_t *inteval, LIBINT2_REALTYPE *target, const LIBINT2_REALTYPE *src0, const LIBINT2_REALTYPE *src1, unsigned int highdim, unsigned int lowdim, unsigned int dir, const LIBINT2_REALTYPE(&two_alpha)[LIBINT2_MAX_VECLEN])
builds ( ... d a / d r_dir ... ) src0 = ( ... a+1 ... ) src1 = ( ... a-1 ... )
Definition GenericGaussDeriv.impl.h:35