- Passing break-down threshold as a function argument

- Renaming kernels to correspond with the ones in QMCkl
- In the qmckl-version of the test program, chaning the way integer data is read from the HDF5 file.
This commit is contained in:
Francois Coppens 2021-07-29 12:01:26 +02:00
parent 6ce2055e59
commit 74bb333de1
11 changed files with 458 additions and 240 deletions

View File

@ -2,7 +2,7 @@
ifeq ($(ENV),INTEL) ifeq ($(ENV),INTEL)
CXX = icpx CXX = icpx
FC = ifort FC = ifort
ARCH = -march=native ARCH = -xCORE-AVX2
OPT = -O3 OPT = -O3
DEBUG = -g -debug full DEBUG = -g -debug full
else ifeq ($(ENV),LLVM) else ifeq ($(ENV),LLVM)
@ -14,8 +14,9 @@ else ifeq ($(ENV),LLVM)
else ifeq ($(ENV),GNU) else ifeq ($(ENV),GNU)
CXX = g++ CXX = g++
FC = gfortran FC = gfortran
ARCH = -mavx # ARCH = -mavx
OPT = -O3 ARCH =
OPT = -O1
DEBUG = -g DEBUG = -g
else else
$(error No valid compiler environment set in $$ENV. \ $(error No valid compiler environment set in $$ENV. \

View File

@ -8,6 +8,9 @@
#include <mkl_lapacke.h> #include <mkl_lapacke.h>
#endif #endif
#include <cstdio>
// #define DEBUG // #define DEBUG
#ifndef THRESHOLD #ifndef THRESHOLD
#define THRESHOLD 1e-3 #define THRESHOLD 1e-3
@ -86,7 +89,8 @@ template <typename T> T *transpose(T *A, unsigned int M) {
return B; return B;
} }
template <typename T> void matMul(T *A, T *B, T *C, unsigned int M) { template <typename T>
void matMul(T *A, T *B, T *C, unsigned int M) {
memset(C, 0, M * M * sizeof(T)); memset(C, 0, M * M * sizeof(T));
for (unsigned int i = 0; i < M; i++) { for (unsigned int i = 0; i < M; i++) {
for (unsigned int j = 0; j < M; j++) { for (unsigned int j = 0; j < M; j++) {
@ -263,7 +267,7 @@ template <typename T> T residual_frobenius2(T *A, unsigned int Dim) {
res += delta * delta; res += delta * delta;
} }
} }
return res; return sqrt(res);
} }
template <typename T> T residual2(T *A, unsigned int Dim) { template <typename T> T residual2(T *A, unsigned int Dim) {

View File

@ -1,11 +1,17 @@
// Sherman-Morrison-Woodbury kernel 1 // Sherman-Morrison-Woodbury kernel WB2s
// WB2, WB3, SM2 mixing scheme
void SMWB1(double *Slater_inv, const unsigned int Dim,
const unsigned int N_updates, double *Updates,
unsigned int *Updates_index);
// Sherman-Morrison-Woodbury kernel 2
// WB2, SM2 mixing scheme // WB2, SM2 mixing scheme
void SMWB2(double *Slater_inv, const unsigned int Dim, void WB2s(double *Slater_inv, const unsigned int Dim,
const unsigned int N_updates, double *Updates, const unsigned int N_updates, double *Updates,
unsigned int *Updates_index); unsigned int *Updates_index, const double breakdown);
// Sherman-Morrison-Woodbury kernel WB3s
// WB3, SM2 mixing scheme
void WB3s(double *Slater_inv, const unsigned int Dim,
const unsigned int N_updates, double *Updates,
unsigned int *Updates_index, const double breakdown);
// Sherman-Morrison-Woodbury kernel WB32s
// WB3, WB2, SM2 mixing scheme
void WB32s(double *Slater_inv, const unsigned int Dim,
const unsigned int N_updates, double *Updates,
unsigned int *Updates_index, const double breakdown);

View File

@ -1,22 +1,22 @@
// Naïve Sherman Morrison // Naïve Sherman Morrison
void SM1(double *Slater_inv, unsigned int Dim, unsigned int N_updates, void SM1(double *Slater_inv, unsigned int Dim, unsigned int N_updates,
double *Updates, unsigned int *Updates_index); double *Updates, unsigned int *Updates_index, const double breakdown);
// Sherman Morrison, with J. Slagel splitting // Sherman Morrison, with J. Slagel splitting
// http://hdl.handle.net/10919/52966 // http://hdl.handle.net/10919/52966
void SM2(double *Slater_inv, unsigned int Dim, unsigned int N_updates, void SM2(double *Slater_inv, unsigned int Dim, unsigned int N_updates,
double *Updates, unsigned int *Updates_index); double *Updates, unsigned int *Updates_index, const double breakdown);
void SM2star(double *Slater_inv, unsigned int Dim, unsigned int N_updates, void SM2star(double *Slater_inv, unsigned int Dim, unsigned int N_updates,
double *Updates, unsigned int *Updates_index, double *Updates, unsigned int *Updates_index,
double *later_updates, unsigned int *later_index, double *later_updates, unsigned int *later_index,
unsigned int *later); unsigned int *later, const double breakdown);
// Sherman Morrison, leaving zero denominators for later // Sherman Morrison, leaving zero denominators for later
void SM3(double *Slater_inv, unsigned int Dim, unsigned int N_updates, void SM3(double *Slater_inv, unsigned int Dim, unsigned int N_updates,
double *Updates, unsigned int *Updates_index); double *Updates, unsigned int *Updates_index, const double breakdown);
// Sherman Morrison (SM3+SM2), leaving zero denominators for later (SM3), and // Sherman Morrison (SM3+SM2), leaving zero denominators for later (SM3), and
// when none are left falling back on Splitting (SM2) // when none are left falling back on Splitting (SM2)
void SM4(double *Slater_inv, unsigned int Dim, unsigned int N_updates, void SM4(double *Slater_inv, unsigned int Dim, unsigned int N_updates,
double *Updates, unsigned int *Updates_index); double *Updates, unsigned int *Updates_index, const double breakdown);

View File

@ -1,7 +1,7 @@
// Woodbury 2x2 kernel // Woodbury 2x2 kernel
bool WB2(double *Slater_inv, const unsigned int Dim, double *Updates, bool WB2(double *Slater_inv, const unsigned int Dim, double *Updates,
const unsigned int *Updates_index); const unsigned int *Updates_index, const double breakdown);
// Woodbury 3x3 kernel // Woodbury 3x3 kernel
bool WB3(double *Slater_inv, const unsigned int Dim, double *Updates, bool WB3(double *Slater_inv, const unsigned int Dim, double *Updates,
const unsigned int *Updates_index); const unsigned int *Updates_index, const double breakdown);

2
qmckl

@ -1 +1 @@
Subproject commit 41be86fe594f561247986cd75dc4557e0bc5e6de Subproject commit a5e58c80d70978c12d24ff47b2362c9145af325c

View File

@ -3,88 +3,14 @@
#include "SM_Standard.hpp" #include "SM_Standard.hpp"
#include "Woodbury.hpp" #include "Woodbury.hpp"
// #define DEBUG1 #define DEBUG1
// #define DEBUG2 // #define DEBUG2
// Sherman-Morrison-Woodbury kernel 1 // Sherman-Morrison-Woodbury kernel WB2s
// WB2, WB3, SM2 mixing scheme
void SMWB1(double *Slater_inv, const unsigned int Dim,
const unsigned int N_updates, double *Updates,
unsigned int *Updates_index) {
#ifdef DEBUG2
std::cerr << "Called Sherman-Morrison-Woodbury kernel 1 with " << N_updates
<< " updates" << std::endl;
showMatrix2(Updates_index, 1, N_updates, "Updates_index");
showMatrix2(Updates, N_updates, Dim, "Updates");
#endif
unsigned int n_of_3blocks = N_updates / 3;
unsigned int remainder = N_updates % 3;
unsigned int length_3block = 3 * Dim;
unsigned int length_2block = 2 * Dim;
unsigned int length_1block = 1 * Dim;
// Apply first 3*n_of_3blocks updates in n_of_3blocks blocks of 3 updates with
// Woodbury 3x3 kernel
double later_updates[Dim * N_updates];
unsigned int later_index[N_updates];
unsigned int later = 0;
if (n_of_3blocks > 0) {
for (unsigned int i = 0; i < n_of_3blocks; i++) {
double *Updates_3block = &Updates[i * length_3block];
unsigned int *Updates_index_3block = &Updates_index[i * 3];
bool ok;
ok = WB3(Slater_inv, Dim, Updates_3block, Updates_index_3block);
if (!ok) { // Send the entire block to SM2
#ifdef DEBUG2
std::cerr << "Woodbury 3x3 kernel failed! Sending block to SM2"
<< std::endl;
showMatrix2(Updates_3block, 3, Dim, "Updates_3block");
showMatrix2(Updates_index_3block, 1, 3, "Updates_index_3block");
#endif
unsigned int l = 0;
SM2star(Slater_inv, Dim, 3, Updates_3block, Updates_index_3block,
later_updates + (Dim * later), later_index + later, &l);
later = later + l;
}
}
}
if (remainder ==
2) { // Apply last remaining block of 2 updates with Woodbury 2x2 kernel
double *Updates_2block = &Updates[n_of_3blocks * length_3block];
unsigned int *Updates_index_2block = &Updates_index[3 * n_of_3blocks];
bool ok;
ok = WB2(Slater_inv, Dim, Updates_2block, Updates_index_2block);
if (!ok) { // Send the entire block to SM2
#ifdef DEBUG2
std::cerr << "Woodbury 2x2 kernel failed! Sending block to SM2"
<< std::endl;
#endif
unsigned int l = 0;
SM2star(Slater_inv, Dim, 2, Updates_2block, Updates_index_2block,
later_updates + (Dim * later), later_index + later, &l);
later = later + l;
}
} else if (remainder == 1) { // Apply last remaining update with SM2
double *Updates_1block = &Updates[n_of_3blocks * length_3block];
unsigned int *Updates_index_1block = &Updates_index[3 * n_of_3blocks];
unsigned int l = 0;
SM2star(Slater_inv, Dim, 1, Updates_1block, Updates_index_1block,
later_updates + (Dim * later), later_index + later, &l);
later = later + l;
}
if (later > 0) {
SM2(Slater_inv, Dim, later, later_updates, later_index);
}
}
// Sherman-Morrison-Woodbury kernel 2
// WB2, SM2 mixing scheme // WB2, SM2 mixing scheme
void SMWB2(double *Slater_inv, const unsigned int Dim, void WB2s(double *Slater_inv, const unsigned int Dim,
const unsigned int N_updates, double *Updates, const unsigned int N_updates, double *Updates,
unsigned int *Updates_index) { unsigned int *Updates_index, const double breakdown) {
#ifdef DEBUG2 #ifdef DEBUG2
std::cerr << "Called Sherman-Morrison-Woodbury kernel 1 with " << N_updates std::cerr << "Called Sherman-Morrison-Woodbury kernel 1 with " << N_updates
<< " updates" << std::endl; << " updates" << std::endl;
@ -95,7 +21,6 @@ void SMWB2(double *Slater_inv, const unsigned int Dim,
unsigned int n_of_2blocks = N_updates / 2; unsigned int n_of_2blocks = N_updates / 2;
unsigned int remainder = N_updates % 2; unsigned int remainder = N_updates % 2;
unsigned int length_2block = 2 * Dim; unsigned int length_2block = 2 * Dim;
unsigned int length_1block = 1 * Dim;
// Apply first 2*n_of_2blocks updates in n_of_2blocks blocks of 2 updates with // Apply first 2*n_of_2blocks updates in n_of_2blocks blocks of 2 updates with
// Woodbury 2x2 kernel // Woodbury 2x2 kernel
@ -107,10 +32,10 @@ void SMWB2(double *Slater_inv, const unsigned int Dim,
double *Updates_2block = &Updates[i * length_2block]; double *Updates_2block = &Updates[i * length_2block];
unsigned int *Updates_index_2block = &Updates_index[i * 2]; unsigned int *Updates_index_2block = &Updates_index[i * 2];
bool ok; bool ok;
ok = WB2(Slater_inv, Dim, Updates_2block, Updates_index_2block); ok = WB2(Slater_inv, Dim, Updates_2block, Updates_index_2block, breakdown);
if (!ok) { // Send the entire block to SM2 if (!ok) { // Send the entire block to SM2
#ifdef DEBUG1 #ifdef DEBUG1
std::cerr << "Woodbury 2x2 kernel failed! Sending block to SM2star" std::cerr << "Woodbury 2x2 block failed! Sending to SM w/ US"
<< std::endl; << std::endl;
#endif #endif
#ifdef DEBUG2 #ifdef DEBUG2
@ -119,33 +44,169 @@ void SMWB2(double *Slater_inv, const unsigned int Dim,
#endif #endif
unsigned int l = 0; unsigned int l = 0;
SM2star(Slater_inv, Dim, 2, Updates_2block, Updates_index_2block, SM2star(Slater_inv, Dim, 2, Updates_2block, Updates_index_2block,
later_updates + (Dim * later), later_index + later, &l); later_updates + (Dim * later), later_index + later, &l, breakdown);
later = later + l; later = later + l;
} }
} }
} }
if (remainder == 1) { // Apply last remaining update with SM2 if (remainder != 0) { // Apply last remaining update with SM2
double *Updates_1block = &Updates[n_of_2blocks * length_2block]; double *Updates_1block = &Updates[n_of_2blocks * length_2block];
unsigned int *Updates_index_1block = &Updates_index[2 * n_of_2blocks]; unsigned int *Updates_index_1block = &Updates_index[2 * n_of_2blocks];
unsigned int l = 0; unsigned int l = 0;
SM2star(Slater_inv, Dim, 1, Updates_1block, Updates_index_1block, SM2star(Slater_inv, Dim, remainder, Updates_1block, Updates_index_1block,
later_updates + (Dim * later), later_index + later, &l); later_updates + (Dim * later), later_index + later, &l, breakdown);
later = later + l; later = later + l;
} }
if (later > 0) { if (later > 0) {
SM2(Slater_inv, Dim, later, later_updates, later_index); SM2(Slater_inv, Dim, later, later_updates, later_index, breakdown);
} }
} }
// Sherman-Morrison-Woodbury kernel WB3s
// WB3, SM2 mixing scheme
void WB3s(double *Slater_inv, const unsigned int Dim,
const unsigned int N_updates, double *Updates,
unsigned int *Updates_index, const double breakdown) {
#ifdef DEBUG2
std::cerr << "Called Sherman-Morrison-Woodbury kernel 1 with " << N_updates
<< " updates" << std::endl;
showMatrix2(Updates_index, 1, N_updates, "Updates_index");
showMatrix2(Updates, N_updates, Dim, "Updates");
#endif
unsigned int n_of_3blocks = N_updates / 3;
unsigned int remainder = N_updates % 3;
unsigned int length_3block = 3 * Dim;
// Apply first 3*n_of_3blocks updates in n_of_3blocks blocks of 3 updates with
// Woodbury 3x3 kernel
double later_updates[Dim * N_updates];
unsigned int later_index[N_updates];
unsigned int later = 0;
if (n_of_3blocks > 0) {
for (unsigned int i = 0; i < n_of_3blocks; i++) {
double *Updates_3block = &Updates[i * length_3block];
unsigned int *Updates_index_3block = &Updates_index[i * 3];
bool ok;
ok = WB3(Slater_inv, Dim, Updates_3block, Updates_index_3block, breakdown);
if (!ok) { // Send the entire block to SM2
#ifdef DEBUG1
std::cerr << "Woodbury 3x3 block failed! Sending to SM w/ US"
<< std::endl;
#endif
#ifdef DEBUG2
showMatrix2(Updates_3block, 3, Dim, "Updates_3block");
showMatrix2(Updates_index_3block, 1, 3, "Updates_index_3block");
#endif
unsigned int l = 0;
SM2star(Slater_inv, Dim, 3, Updates_3block, Updates_index_3block,
later_updates + (Dim * later), later_index + later, &l, breakdown);
later = later + l;
}
}
}
if (remainder != 0) { // Apply last remaining block of 2 updates with Woodbury 2x2 kernel
double *Updates_2block = &Updates[n_of_3blocks * length_3block];
unsigned int *Updates_index_2block = &Updates_index[3 * n_of_3blocks];
unsigned int l = 0;
SM2star(Slater_inv, Dim, remainder, Updates_2block, Updates_index_2block,
later_updates + (Dim * later), later_index + later, &l, breakdown);
later = later + l;
}
if (later > 0) {
SM2(Slater_inv, Dim, later, later_updates, later_index, breakdown);
}
}
// Sherman-Morrison-Woodbury kernel WB32s
// WB3, WB2, SM2 mixing scheme
void WB32s(double *Slater_inv, const unsigned int Dim,
const unsigned int N_updates, double *Updates,
unsigned int *Updates_index, const double breakdown) {
#ifdef DEBUG2
std::cerr << "Called Sherman-Morrison-Woodbury kernel 1 with " << N_updates
<< " updates" << std::endl;
showMatrix2(Updates_index, 1, N_updates, "Updates_index");
showMatrix2(Updates, N_updates, Dim, "Updates");
#endif
unsigned int n_of_3blocks = N_updates / 3;
unsigned int remainder = N_updates % 3;
unsigned int length_3block = 3 * Dim;
// Apply first 3*n_of_3blocks updates in n_of_3blocks blocks of 3 updates with
// Woodbury 3x3 kernel
double later_updates[Dim * N_updates];
unsigned int later_index[N_updates];
unsigned int later = 0;
if (n_of_3blocks > 0) {
for (unsigned int i = 0; i < n_of_3blocks; i++) {
double *Updates_3block = &Updates[i * length_3block];
unsigned int *Updates_index_3block = &Updates_index[i * 3];
bool ok;
ok = WB3(Slater_inv, Dim, Updates_3block, Updates_index_3block, breakdown);
if (!ok) { // Send the entire block to SM2
#ifdef DEBUG1
std::cerr << "Woodbury 3x3 block failed! Sending to SM w/ US"
<< std::endl;
#endif
#ifdef DEBUG2
showMatrix2(Updates_3block, 3, Dim, "Updates_3block");
showMatrix2(Updates_index_3block, 1, 3, "Updates_index_3block");
#endif
unsigned int l = 0;
SM2star(Slater_inv, Dim, 3, Updates_3block, Updates_index_3block,
later_updates + (Dim * later), later_index + later, &l, breakdown);
later = later + l;
}
}
}
if (remainder == 2) { // Apply last remaining block of 2 updates with Woodbury 2x2 kernel
double *Updates_2block = &Updates[n_of_3blocks * length_3block];
unsigned int *Updates_index_2block = &Updates_index[3 * n_of_3blocks];
bool ok;
ok = WB2(Slater_inv, Dim, Updates_2block, Updates_index_2block, breakdown);
if (!ok) { // Send the entire block to SM2
#ifdef DEBUG1
std::cerr << "Woodbury 2x2 block failed! Sending to SM w/ US"
<< std::endl;
#endif
unsigned int l = 0;
SM2star(Slater_inv, Dim, 2, Updates_2block, Updates_index_2block,
later_updates + (Dim * later), later_index + later, &l, breakdown);
later = later + l;
}
} else if (remainder == 1) { // Apply last remaining update with SM2
double *Updates_1block = &Updates[n_of_3blocks * length_3block];
unsigned int *Updates_index_1block = &Updates_index[3 * n_of_3blocks];
unsigned int l = 0;
SM2star(Slater_inv, Dim, 1, Updates_1block, Updates_index_1block,
later_updates + (Dim * later), later_index + later, &l, breakdown);
later = later + l;
}
if (later > 0) {
SM2(Slater_inv, Dim, later, later_updates, later_index, breakdown);
}
}
extern "C" { extern "C" {
void SMWB1_f(double **linSlater_inv, unsigned int *Dim, unsigned int *N_updates, void WB2s_f(double **linSlater_inv, unsigned int *Dim, unsigned int *N_updates,
double **linUpdates, unsigned int **Updates_index) { double **linUpdates, unsigned int **Updates_index, const double breakdown) {
SMWB1(*linSlater_inv, *Dim, *N_updates, *linUpdates, *Updates_index); WB2s(*linSlater_inv, *Dim, *N_updates, *linUpdates, *Updates_index, breakdown);
} }
void SMWB2_f(double **linSlater_inv, unsigned int *Dim, unsigned int *N_updates, void WB3s_f(double **linSlater_inv, unsigned int *Dim, unsigned int *N_updates,
double **linUpdates, unsigned int **Updates_index) { double **linUpdates, unsigned int **Updates_index, const double breakdown) {
SMWB2(*linSlater_inv, *Dim, *N_updates, *linUpdates, *Updates_index); WB3s(*linSlater_inv, *Dim, *N_updates, *linUpdates, *Updates_index, breakdown);
}
void WB32s_f(double **linSlater_inv, unsigned int *Dim, unsigned int *N_updates,
double **linUpdates, unsigned int **Updates_index, const double breakdown) {
WB32s(*linSlater_inv, *Dim, *N_updates, *linUpdates, *Updates_index, breakdown);
} }
} }

View File

@ -6,8 +6,12 @@
// #define DEBUG1 // #define DEBUG1
// Naïve Sherman Morrison // Naïve Sherman Morrison
void SM1(double *Slater_inv, unsigned int Dim, unsigned int N_updates, void SM1(double *Slater_inv,
double *Updates, unsigned int *Updates_index) { unsigned int Dim,
unsigned int N_updates,
double *Updates,
unsigned int *Updates_index,
const double breakdown) {
#ifdef DEBUG1 #ifdef DEBUG1
std::cerr << "Called SM1 with " << N_updates << " updates" << std::endl; std::cerr << "Called SM1 with " << N_updates << " updates" << std::endl;
#endif #endif
@ -28,7 +32,7 @@ void SM1(double *Slater_inv, unsigned int Dim, unsigned int N_updates,
// Denominator // Denominator
double den = 1 + C[Updates_index[l] - 1]; double den = 1 + C[Updates_index[l] - 1];
if (std::fabs(den) < threshold()) { if (std::fabs(den) < breakdown) {
#ifdef DEBUG1 #ifdef DEBUG1
std::cerr << "Breakdown condition triggered at " << Updates_index[l] std::cerr << "Breakdown condition triggered at " << Updates_index[l]
<< std::endl; << std::endl;
@ -51,12 +55,13 @@ void SM1(double *Slater_inv, unsigned int Dim, unsigned int N_updates,
l += 1; l += 1;
} }
} }
// Sherman Morrison, with J. Slagel splitting // Sherman Morrison, with J. Slagel splitting
// http://hdl.handle.net/10919/52966 // http://hdl.handle.net/10919/52966
void SM2(double *Slater_inv, unsigned int Dim, unsigned int N_updates, void SM2(double *Slater_inv, unsigned int Dim, unsigned int N_updates,
double *Updates, unsigned int *Updates_index) { double *Updates, unsigned int *Updates_index, const double breakdown) {
#ifdef DEBUG1 #ifdef DEBUG1
std::cerr << "Called SM2 with " << N_updates << " updates" << std::endl; std::cerr << "Called SM2 with " << N_updates << " updates" << std::endl;
#endif #endif
@ -66,10 +71,10 @@ void SM2(double *Slater_inv, unsigned int Dim, unsigned int N_updates,
unsigned int later = 0; unsigned int later = 0;
SM2star(Slater_inv, Dim, N_updates, Updates, Updates_index, later_updates, SM2star(Slater_inv, Dim, N_updates, Updates, Updates_index, later_updates,
later_index, &later); later_index, &later, breakdown);
if (later > 0) { if (later > 0) {
SM2(Slater_inv, Dim, later, later_updates, later_index); SM2(Slater_inv, Dim, later, later_updates, later_index, breakdown);
} }
} }
@ -78,7 +83,7 @@ void SM2(double *Slater_inv, unsigned int Dim, unsigned int N_updates,
void SM2star(double *Slater_inv, unsigned int Dim, unsigned int N_updates, void SM2star(double *Slater_inv, unsigned int Dim, unsigned int N_updates,
double *Updates, unsigned int *Updates_index, double *Updates, unsigned int *Updates_index,
double *later_updates, unsigned int *later_index, double *later_updates, unsigned int *later_index,
unsigned int *later) { unsigned int *later, const double breakdown) {
#ifdef DEBUG1 #ifdef DEBUG1
std::cerr << "Called SM2* with " << N_updates << " updates" << std::endl; std::cerr << "Called SM2* with " << N_updates << " updates" << std::endl;
#endif #endif
@ -99,7 +104,7 @@ void SM2star(double *Slater_inv, unsigned int Dim, unsigned int N_updates,
// Denominator // Denominator
double den = 1 + C[Updates_index[l] - 1]; double den = 1 + C[Updates_index[l] - 1];
if (std::fabs(den) < threshold()) { if (std::fabs(den) < breakdown) {
#ifdef DEBUG1 #ifdef DEBUG1
std::cerr << "Breakdown condition triggered at " << Updates_index[l] std::cerr << "Breakdown condition triggered at " << Updates_index[l]
<< std::endl; << std::endl;
@ -136,7 +141,7 @@ void SM2star(double *Slater_inv, unsigned int Dim, unsigned int N_updates,
// Sherman Morrison, leaving zero denominators for later // Sherman Morrison, leaving zero denominators for later
void SM3(double *Slater_inv, unsigned int Dim, unsigned int N_updates, void SM3(double *Slater_inv, unsigned int Dim, unsigned int N_updates,
double *Updates, unsigned int *Updates_index) { double *Updates, unsigned int *Updates_index, const double breakdown) {
#ifdef DEBUG1 #ifdef DEBUG1
std::cerr << "Called SM3 with " << N_updates << " updates" << std::endl; std::cerr << "Called SM3 with " << N_updates << " updates" << std::endl;
#endif #endif
@ -161,7 +166,7 @@ void SM3(double *Slater_inv, unsigned int Dim, unsigned int N_updates,
// Denominator // Denominator
double den = 1 + C[Updates_index[l] - 1]; double den = 1 + C[Updates_index[l] - 1];
if (std::fabs(den) < threshold()) { if (std::fabs(den) < breakdown) {
#ifdef DEBUG1 #ifdef DEBUG1
std::cerr << "Breakdown condition triggered at " << Updates_index[l] std::cerr << "Breakdown condition triggered at " << Updates_index[l]
<< std::endl; << std::endl;
@ -201,7 +206,7 @@ void SM3(double *Slater_inv, unsigned int Dim, unsigned int N_updates,
} }
// If some have failed, make a recursive call // If some have failed, make a recursive call
else if (later > 0) { else if (later > 0) {
SM3(Slater_inv, Dim, later, later_updates, later_index); SM3(Slater_inv, Dim, later, later_updates, later_index, breakdown);
} }
} }
@ -209,7 +214,7 @@ void SM3(double *Slater_inv, unsigned int Dim, unsigned int N_updates,
// Leave zero denominators for later (SM3), and when none are left then split // Leave zero denominators for later (SM3), and when none are left then split
// (SM2) // (SM2)
void SM4(double *Slater_inv, unsigned int Dim, unsigned int N_updates, void SM4(double *Slater_inv, unsigned int Dim, unsigned int N_updates,
double *Updates, unsigned int *Updates_index) { double *Updates, unsigned int *Updates_index, const double breakdown) {
#ifdef DEBUG1 #ifdef DEBUG1
std::cerr << "Called SM4 with " << N_updates << " updates" << std::endl; std::cerr << "Called SM4 with " << N_updates << " updates" << std::endl;
#endif #endif
@ -234,7 +239,7 @@ void SM4(double *Slater_inv, unsigned int Dim, unsigned int N_updates,
// Denominator // Denominator
double den = 1 + C[Updates_index[l] - 1]; double den = 1 + C[Updates_index[l] - 1];
if (std::fabs(den) < threshold()) { if (std::fabs(den) < breakdown) {
#ifdef DEBUG1 #ifdef DEBUG1
std::cerr << "Breakdown condition triggered at " << Updates_index[l] std::cerr << "Breakdown condition triggered at " << Updates_index[l]
<< std::endl; << std::endl;
@ -266,32 +271,32 @@ void SM4(double *Slater_inv, unsigned int Dim, unsigned int N_updates,
// If all the updates have failed, fall back on splitting (SM2) // If all the updates have failed, fall back on splitting (SM2)
if (later == N_updates) { if (later == N_updates) {
SM2(Slater_inv, Dim, later, later_updates, later_index); SM2(Slater_inv, Dim, later, later_updates, later_index, breakdown);
} }
// If some have failed, make a recursive call // If some have failed, make a recursive call
else if (later > 0) { else if (later > 0) {
SM4(Slater_inv, Dim, later, later_updates, later_index); SM4(Slater_inv, Dim, later, later_updates, later_index, breakdown);
} }
} }
extern "C" { extern "C" {
void SM1_f(double **linSlater_inv, unsigned int *Dim, unsigned int *N_updates, void SM1_f(double **linSlater_inv, unsigned int *Dim, unsigned int *N_updates,
double **linUpdates, unsigned int **Updates_index) { double **linUpdates, unsigned int **Updates_index, const double breakdown) {
SM1(*linSlater_inv, *Dim, *N_updates, *linUpdates, *Updates_index); SM1(*linSlater_inv, *Dim, *N_updates, *linUpdates, *Updates_index, breakdown);
} }
void SM2_f(double **linSlater_inv, unsigned int *Dim, unsigned int *N_updates, void SM2_f(double **linSlater_inv, unsigned int *Dim, unsigned int *N_updates,
double **linUpdates, unsigned int **Updates_index) { double **linUpdates, unsigned int **Updates_index, const double breakdown) {
SM2(*linSlater_inv, *Dim, *N_updates, *linUpdates, *Updates_index); SM2(*linSlater_inv, *Dim, *N_updates, *linUpdates, *Updates_index, breakdown);
} }
void SM3_f(double **linSlater_inv, unsigned int *Dim, unsigned int *N_updates, void SM3_f(double **linSlater_inv, unsigned int *Dim, unsigned int *N_updates,
double **linUpdates, unsigned int **Updates_index) { double **linUpdates, unsigned int **Updates_index, const double breakdown) {
SM3(*linSlater_inv, *Dim, *N_updates, *linUpdates, *Updates_index); SM3(*linSlater_inv, *Dim, *N_updates, *linUpdates, *Updates_index, breakdown);
} }
void SM4_f(double **linSlater_inv, unsigned int *Dim, unsigned int *N_updates, void SM4_f(double **linSlater_inv, unsigned int *Dim, unsigned int *N_updates,
double **linUpdates, unsigned int **Updates_index) { double **linUpdates, unsigned int **Updates_index, const double breakdown) {
SM4(*linSlater_inv, *Dim, *N_updates, *linUpdates, *Updates_index); SM4(*linSlater_inv, *Dim, *N_updates, *linUpdates, *Updates_index, breakdown);
} }
} }

View File

@ -15,7 +15,7 @@
// Woodbury 2x2 kernel // Woodbury 2x2 kernel
bool WB2(double *Slater_inv, const unsigned int Dim, double *Updates, bool WB2(double *Slater_inv, const unsigned int Dim, double *Updates,
const unsigned int *Updates_index) { const unsigned int *Updates_index, const double breakdown) {
/* /*
C := S^{-1} * U, dim x 2 C := S^{-1} * U, dim x 2
B := 1 + V * C, 2 x 2 B := 1 + V * C, 2 x 2
@ -48,7 +48,7 @@ bool WB2(double *Slater_inv, const unsigned int Dim, double *Updates,
// Check if determinant of inverted matrix is not zero // Check if determinant of inverted matrix is not zero
double det = B0 * B3 - B1 * B2; double det = B0 * B3 - B1 * B2;
if (std::fabs(det) < threshold()) { if (std::fabs(det) < breakdown) {
#ifdef DEBUG1 #ifdef DEBUG1
std::cerr << "Determinant too close to zero! No inverse found." std::cerr << "Determinant too close to zero! No inverse found."
<< std::endl; << std::endl;
@ -86,7 +86,7 @@ bool WB2(double *Slater_inv, const unsigned int Dim, double *Updates,
// Woodbury 3x3 kernel // Woodbury 3x3 kernel
bool WB3(double *Slater_inv, const unsigned int Dim, double *Updates, bool WB3(double *Slater_inv, const unsigned int Dim, double *Updates,
const unsigned int *Updates_index) { const unsigned int *Updates_index, const double breakdown) {
/* /*
C := S^{-1} * U, dim x 3 C := S^{-1} * U, dim x 3
B := 1 + V * C, 3 x 3 B := 1 + V * C, 3 x 3
@ -139,7 +139,7 @@ bool WB3(double *Slater_inv, const unsigned int Dim, double *Updates,
#ifdef DEBUG2 #ifdef DEBUG2
std::cerr << "Determinant of B = " << det << std::endl; std::cerr << "Determinant of B = " << det << std::endl;
#endif #endif
if (std::fabs(det) < threshold()) { if (std::fabs(det) < breakdown) {
#ifdef DEBUG1 #ifdef DEBUG1
std::cerr << "Determinant too close to zero! No inverse found." std::cerr << "Determinant too close to zero! No inverse found."
<< std::endl; << std::endl;
@ -197,15 +197,15 @@ bool WB3(double *Slater_inv, const unsigned int Dim, double *Updates,
extern "C" { extern "C" {
bool WB2_f(double **linSlater_inv, unsigned int *Dim, double **linUpdates, bool WB2_f(double **linSlater_inv, unsigned int *Dim, double **linUpdates,
unsigned int **Updates_index) { unsigned int **Updates_index, const double breakdown) {
bool ok; bool ok;
ok = WB2(*linSlater_inv, *Dim, *linUpdates, *Updates_index); ok = WB2(*linSlater_inv, *Dim, *linUpdates, *Updates_index, breakdown);
return ok; return ok;
} }
bool WB3_f(double **linSlater_inv, unsigned int *Dim, double **linUpdates, bool WB3_f(double **linSlater_inv, unsigned int *Dim, double **linUpdates,
unsigned int **Updates_index) { unsigned int **Updates_index, const double breakdown) {
bool ok; bool ok;
ok = WB3(*linSlater_inv, *Dim, *linUpdates, *Updates_index); ok = WB3(*linSlater_inv, *Dim, *linUpdates, *Updates_index, breakdown);
return ok; return ok;
} }
} }

View File

@ -3,7 +3,6 @@
#include "Helpers.hpp" #include "Helpers.hpp"
#include "qmckl.h" #include "qmckl.h"
#include <math.h> #include <math.h>
#include <cstring> #include <cstring>
#include <iostream> #include <iostream>
@ -16,9 +15,9 @@ unsigned int repetition_number;
const H5std_string FILE_NAME("dataset.hdf5"); const H5std_string FILE_NAME("dataset.hdf5");
void read_int(H5::H5File file, std::string key, uint64_t *data) { void read_int(H5::H5File file, std::string key, unsigned int *data) {
H5::DataSet ds = file.openDataSet(key); H5::DataSet ds = file.openDataSet(key);
ds.read(data, H5::PredType::STD_U64LE); ds.read(data, H5::PredType::STD_U32LE);
ds.close(); ds.close();
} }
@ -35,10 +34,12 @@ int test_cycle(H5::H5File file, int cycle, std::string version, double breakdown
std::string group = "cycle_" + std::to_string(cycle); std::string group = "cycle_" + std::to_string(cycle);
unsigned int col, i, j; unsigned int col, i, j;
unsigned int dim_32, nupdates_32;
uint64_t dim, nupdates; uint64_t dim, nupdates;
read_int(file, group + "/slater_matrix_dim", &dim); read_int(file, group + "/slater_matrix_dim", &dim_32);
read_int(file, group + "/nupdates", &nupdates); read_int(file, group + "/nupdates", &nupdates_32);
dim = dim_32; nupdates = nupdates_32;
double *slater_matrix = new double[dim * dim]; double *slater_matrix = new double[dim * dim];
read_double(file, group + "/slater_matrix", slater_matrix); read_double(file, group + "/slater_matrix", slater_matrix);
@ -46,8 +47,12 @@ int test_cycle(H5::H5File file, int cycle, std::string version, double breakdown
double *slater_inverse = new double[dim * dim]; double *slater_inverse = new double[dim * dim];
read_double(file, group + "/slater_inverse", slater_inverse); read_double(file, group + "/slater_inverse", slater_inverse);
unsigned int *temp = new unsigned int[nupdates];
uint64_t *col_update_index = new uint64_t[nupdates]; uint64_t *col_update_index = new uint64_t[nupdates];
read_int(file, group + "/col_update_index", col_update_index); read_int(file, group + "/col_update_index", temp);
for (i = 0; i < nupdates; i++) {
col_update_index[i] = temp[i];
}
double *updates = new double[nupdates * dim]; double *updates = new double[nupdates * dim];
read_double(file, group + "/updates", updates); read_double(file, group + "/updates", updates);
@ -74,7 +79,7 @@ int test_cycle(H5::H5File file, int cycle, std::string version, double breakdown
std::cout << "# of reps. = " << repetition_number << std::endl; std::cout << "# of reps. = " << repetition_number << std::endl;
double *slater_inverse_nonpersistent = new double[dim * dim]; double *slater_inverse_nonpersistent = new double[dim * dim];
if (version == "qmckl_sm1") { if (version == "sm1") {
for (unsigned int i = 0; i < repetition_number; i++) { for (unsigned int i = 0; i < repetition_number; i++) {
memcpy(slater_inverse_nonpersistent, slater_inverse, memcpy(slater_inverse_nonpersistent, slater_inverse,
dim * dim * sizeof(double)); dim * dim * sizeof(double));
@ -82,7 +87,7 @@ int test_cycle(H5::H5File file, int cycle, std::string version, double breakdown
u, col_update_index, breakdown, slater_inverse_nonpersistent); u, col_update_index, breakdown, slater_inverse_nonpersistent);
} }
} }
else if (version == "qmckl_wb2") { else if (version == "wb2") {
for (unsigned int i = 0; i < repetition_number; i++) { for (unsigned int i = 0; i < repetition_number; i++) {
memcpy(slater_inverse_nonpersistent, slater_inverse, memcpy(slater_inverse_nonpersistent, slater_inverse,
dim * dim * sizeof(double)); dim * dim * sizeof(double));
@ -90,7 +95,7 @@ int test_cycle(H5::H5File file, int cycle, std::string version, double breakdown
u, col_update_index, breakdown, slater_inverse_nonpersistent); u, col_update_index, breakdown, slater_inverse_nonpersistent);
} }
} }
else if (version == "qmckl_wb3") { else if (version == "wb3") {
for (unsigned int i = 0; i < repetition_number; i++) { for (unsigned int i = 0; i < repetition_number; i++) {
memcpy(slater_inverse_nonpersistent, slater_inverse, memcpy(slater_inverse_nonpersistent, slater_inverse,
dim * dim * sizeof(double)); dim * dim * sizeof(double));
@ -98,7 +103,7 @@ int test_cycle(H5::H5File file, int cycle, std::string version, double breakdown
u, col_update_index, breakdown, slater_inverse_nonpersistent); u, col_update_index, breakdown, slater_inverse_nonpersistent);
} }
} }
else if (version == "qmckl_sm2") { else if (version == "sm2") {
for (unsigned int i = 0; i < repetition_number; i++) { for (unsigned int i = 0; i < repetition_number; i++) {
memcpy(slater_inverse_nonpersistent, slater_inverse, memcpy(slater_inverse_nonpersistent, slater_inverse,
dim * dim * sizeof(double)); dim * dim * sizeof(double));
@ -106,7 +111,7 @@ int test_cycle(H5::H5File file, int cycle, std::string version, double breakdown
u, col_update_index, breakdown, slater_inverse_nonpersistent); u, col_update_index, breakdown, slater_inverse_nonpersistent);
} }
} }
else if (version == "qmckl_wb2s") { else if (version == "wb2s") {
for (unsigned int i = 0; i < repetition_number; i++) { for (unsigned int i = 0; i < repetition_number; i++) {
memcpy(slater_inverse_nonpersistent, slater_inverse, memcpy(slater_inverse_nonpersistent, slater_inverse,
dim * dim * sizeof(double)); dim * dim * sizeof(double));
@ -114,7 +119,7 @@ int test_cycle(H5::H5File file, int cycle, std::string version, double breakdown
u, col_update_index, breakdown, slater_inverse_nonpersistent); u, col_update_index, breakdown, slater_inverse_nonpersistent);
} }
} }
else if (version == "qmckl_wb3s") { else if (version == "wb3s") {
for (unsigned int i = 0; i < repetition_number; i++) { for (unsigned int i = 0; i < repetition_number; i++) {
memcpy(slater_inverse_nonpersistent, slater_inverse, memcpy(slater_inverse_nonpersistent, slater_inverse,
dim * dim * sizeof(double)); dim * dim * sizeof(double));
@ -122,7 +127,7 @@ int test_cycle(H5::H5File file, int cycle, std::string version, double breakdown
u, col_update_index, breakdown, slater_inverse_nonpersistent); u, col_update_index, breakdown, slater_inverse_nonpersistent);
} }
} }
else if (version == "qmckl_wb32s") { else if (version == "wb32s") {
for (unsigned int i = 0; i < repetition_number; i++) { for (unsigned int i = 0; i < repetition_number; i++) {
memcpy(slater_inverse_nonpersistent, slater_inverse, memcpy(slater_inverse_nonpersistent, slater_inverse,
dim * dim * sizeof(double)); dim * dim * sizeof(double));
@ -138,21 +143,21 @@ int test_cycle(H5::H5File file, int cycle, std::string version, double breakdown
dim * dim * sizeof(double)); dim * dim * sizeof(double));
delete[] slater_inverse_nonpersistent; delete[] slater_inverse_nonpersistent;
#else // No performance measurements repetition #else // No performance measurements repetition
if (version == "qmckl_sm1") { if (version == "sm1") {
qmckl_context context; qmckl_context context;
context = qmckl_context_create(); context = qmckl_context_create();
qmckl_exit_code rc; qmckl_exit_code rc;
rc = qmckl_sherman_morrison_c(context, dim, nupdates, rc = qmckl_sherman_morrison_c(context, dim, nupdates,
u, col_update_index, breakdown, slater_inverse); u, col_update_index, breakdown, slater_inverse);
} }
else if (version == "qmckl_wb2") { else if (version == "wb2") {
qmckl_context context; qmckl_context context;
context = qmckl_context_create(); context = qmckl_context_create();
qmckl_exit_code rc; qmckl_exit_code rc;
rc = qmckl_woodbury_2_c(context, dim, rc = qmckl_woodbury_2_c(context, dim,
u, col_update_index, breakdown, slater_inverse); u, col_update_index, breakdown, slater_inverse);
} }
else if (version == "qmckl_wb3") { else if (version == "wb3") {
qmckl_context context; qmckl_context context;
context = qmckl_context_create(); context = qmckl_context_create();
qmckl_exit_code rc; qmckl_exit_code rc;
@ -166,8 +171,68 @@ int test_cycle(H5::H5File file, int cycle, std::string version, double breakdown
#endif // PERF #endif // PERF
delete[] u, col_update_index; delete[] u, col_update_index;
showMatrix(slater_matrix, dim, "Slater Matrix");
showMatrix(slater_inverse, dim, "Slater Inverse");
double *res = new double[dim * dim]{0}; double *res = new double[dim * dim]{0};
matMul(slater_matrix, slater_inverse, res, dim); {
for (unsigned int i = 0; i < dim; i++) {
for (unsigned int j = 0; j < dim; j++) {
for (unsigned int k = 0; k < dim; k++) {
res[i * dim + j] += slater_matrix[i * dim + k] * slater_inverse[k * dim + j];
}
}
}
}
//matMul2(slater_matrix, slater_inverse, res, dim_32, dim_32, dim_32);
//
//
for (unsigned int i = 0; i < dim; i++) {
printf("[");
for (unsigned int j = 0; j < dim; j++) {
if (slater_matrix[i * dim + j] >= 0) {
printf(" %17.10e,", slater_matrix[i * dim + j]);
} else {
printf(" %17.10e,", slater_matrix[i * dim + j]);
}
}
printf(" ],\n");
}
printf("\n\n");
//
//
//
//
for (unsigned int i = 0; i < dim; i++) {
printf("[");
for (unsigned int j = 0; j < dim; j++) {
if (slater_inverse[i * dim + j] >= 0) {
printf(" %17.10e,", slater_inverse[i * dim + j]);
} else {
printf(" %17.10e,", slater_inverse[i * dim + j]);
}
}
printf(" ],\n");
}
printf("\n\n");
//
//
//
//
for (unsigned int i = 0; i < dim; i++) {
printf("[");
for (unsigned int j = 0; j < dim; j++) {
if (res[i * dim + j] >= 0) {
printf(" %17.10e,", res[i * dim + j]);
} else {
printf(" %17.10e,", res[i * dim + j]);
}
}
printf(" ],\n");
}
printf("\n\n");
//
//
bool ok = is_identity(res, dim, tolerance); bool ok = is_identity(res, dim, tolerance);
double res_max = residual_max(res, dim); double res_max = residual_max(res, dim);
double res2 = residual_frobenius2(res, dim); double res2 = residual_frobenius2(res, dim);

View File

@ -13,31 +13,29 @@
unsigned int repetition_number; unsigned int repetition_number;
#endif #endif
using namespace H5;
// #define DEBUG
const H5std_string FILE_NAME("dataset.hdf5"); const H5std_string FILE_NAME("dataset.hdf5");
void read_int(H5File file, std::string key, unsigned int *data) { void read_int(H5::H5File file, std::string key, unsigned int *data) {
DataSet ds = file.openDataSet(key); H5::DataSet ds = file.openDataSet(key);
ds.read(data, PredType::STD_U32LE); ds.read(data, H5::PredType::STD_U32LE);
ds.close(); ds.close();
} }
void read_double(H5File file, std::string key, double *data) { void read_double(H5::H5File file, std::string key, double *data) {
DataSet ds = file.openDataSet(key); H5::DataSet ds = file.openDataSet(key);
ds.read(data, PredType::IEEE_F64LE); ds.read(data, H5::PredType::IEEE_F64LE);
ds.close(); ds.close();
} }
int test_cycle(H5File file, int cycle, std::string version, double tolerance) { int test_cycle(H5::H5File file, int cycle, std::string version, double breakdown, double tolerance) {
/* Read the data */ /* Read the data */
std::string group = "cycle_" + std::to_string(cycle); std::string group = "cycle_" + std::to_string(cycle);
unsigned int dim, nupdates, col, i, j; unsigned int dim, nupdates, col, i, j;
read_int(file, group + "/slater_matrix_dim", &dim); read_int(file, group + "/slater_matrix_dim", &dim);
read_int(file, group + "/nupdates", &nupdates); read_int(file, group + "/nupdates", &nupdates);
@ -56,9 +54,6 @@ int test_cycle(H5File file, int cycle, std::string version, double tolerance) {
double *u = new double[nupdates * dim]; double *u = new double[nupdates * dim];
/* Test */ /* Test */
#ifdef DEBUG2
showMatrix(slater_inverse, dim, "OLD Inverse");
#endif
// Transform replacement updates in 'updates[]' into additive updates in 'u[]' // Transform replacement updates in 'updates[]' into additive updates in 'u[]'
for (j = 0; j < nupdates; j++) { for (j = 0; j < nupdates; j++) {
@ -69,54 +64,79 @@ int test_cycle(H5File file, int cycle, std::string version, double tolerance) {
slater_matrix[i * dim + (col - 1)] = updates[i + j * dim]; slater_matrix[i * dim + (col - 1)] = updates[i + j * dim];
} }
} }
delete[] updates;
#ifdef DEBUG2
showMatrix(slater_matrix, dim, "OLD Slater");
#endif
#ifdef DEBUG2
showMatrix(u, dim, "Updates");
#endif
#ifdef PERF #ifdef PERF
std::cout << "# of reps. = " << repetition_number << std::endl; std::cout << "# of reps. = " << repetition_number << std::endl;
double *slater_inverse_nonpersistent = new double[dim * dim]; double *slater_inverse_nonpersistent = new double[dim * dim];
for (unsigned int i = 0; i < repetition_number; i++) {
std::memcpy(slater_inverse_nonpersistent, slater_inverse, if (version == "sm1") {
dim * dim * sizeof(double)); for (unsigned int i = 0; i < repetition_number; i++) {
if (version == "maponia3") { memcpy(slater_inverse_nonpersistent, slater_inverse,
MaponiA3(slater_inverse_nonpersistent, dim, nupdates, u, dim * dim * sizeof(double));
col_update_index); SM1(slater_inverse_nonpersistent, dim, nupdates,
} else if (version == "maponia3s") { u, col_update_index, breakdown);
MaponiA3S(slater_inverse_nonpersistent, dim, nupdates, u,
col_update_index);
} else if (version == "sm1") {
SM1(slater_inverse_nonpersistent, dim, nupdates, u, col_update_index);
} else if (version == "sm2") {
SM2(slater_inverse_nonpersistent, dim, nupdates, u, col_update_index);
} else if (version == "sm3") {
SM3(slater_inverse_nonpersistent, dim, nupdates, u, col_update_index);
} else if (version == "sm4") {
SM4(slater_inverse_nonpersistent, dim, nupdates, u, col_update_index);
} else if (version == "wb2") {
WB2(slater_inverse_nonpersistent, dim, u, col_update_index);
} else if (version == "wb3") {
WB3(slater_inverse_nonpersistent, dim, u, col_update_index);
} else if (version == "smwb1") {
SMWB1(slater_inverse_nonpersistent, dim, nupdates, u, col_update_index);
} else if (version == "smwb2") {
SMWB2(slater_inverse_nonpersistent, dim, nupdates, u, col_update_index);
#ifdef MKL
} else if (version == "lapack") {
memcpy(slater_inverse_nonpersistent, slater_matrix,
dim * dim * sizeof(double));
inverse(slater_inverse_nonpersistent, dim);
#endif // MKL
} else {
std::cerr << "Unknown version " << version << std::endl;
exit(1);
} }
} }
else if (version == "wb2") {
for (unsigned int i = 0; i < repetition_number; i++) {
memcpy(slater_inverse_nonpersistent, slater_inverse,
dim * dim * sizeof(double));
WB2(slater_inverse_nonpersistent, dim,
u, col_update_index, breakdown);
}
}
else if (version == "wb3") {
for (unsigned int i = 0; i < repetition_number; i++) {
memcpy(slater_inverse_nonpersistent, slater_inverse,
dim * dim * sizeof(double));
WB3(slater_inverse_nonpersistent, dim,
u, col_update_index, breakdown);
}
}
else if (version == "sm2") {
for (unsigned int i = 0; i < repetition_number; i++) {
memcpy(slater_inverse_nonpersistent, slater_inverse,
dim * dim * sizeof(double));
SM2(slater_inverse_nonpersistent, dim, nupdates,
u, col_update_index, breakdown);
}
}
else if (version == "wb2s") {
for (unsigned int i = 0; i < repetition_number; i++) {
memcpy(slater_inverse_nonpersistent, slater_inverse,
dim * dim * sizeof(double));
WB2s(slater_inverse_nonpersistent, dim, nupdates,
u, col_update_index, breakdown);
}
}
else if (version == "wb3s") {
for (unsigned int i = 0; i < repetition_number; i++) {
memcpy(slater_inverse_nonpersistent, slater_inverse,
dim * dim * sizeof(double));
WB3s(slater_inverse_nonpersistent, dim, nupdates,
u, col_update_index, breakdown);
}
}
else if (version == "wb32s") {
for (unsigned int i = 0; i < repetition_number; i++) {
memcpy(slater_inverse_nonpersistent, slater_inverse,
dim * dim * sizeof(double));
WB32s(slater_inverse_nonpersistent, dim, nupdates,
u, col_update_index, breakdown);
}
}
#ifdef MKL
else if (version == "lapack") {
memcpy(slater_inverse_nonpersistent, slater_matrix,
dim * dim * sizeof(double));
inverse(slater_inverse_nonpersistent, dim);
}
#endif // MKL
else {
std::cerr << "Unknown version " << version << std::endl;
exit(1);
}
std::memcpy(slater_inverse, slater_inverse_nonpersistent, std::memcpy(slater_inverse, slater_inverse_nonpersistent,
dim * dim * sizeof(double)); dim * dim * sizeof(double));
delete[] slater_inverse_nonpersistent; delete[] slater_inverse_nonpersistent;
@ -137,10 +157,12 @@ int test_cycle(H5File file, int cycle, std::string version, double tolerance) {
WB2(slater_inverse, dim, u, col_update_index); WB2(slater_inverse, dim, u, col_update_index);
} else if (version == "wb3") { } else if (version == "wb3") {
WB3(slater_inverse, dim, u, col_update_index); WB3(slater_inverse, dim, u, col_update_index);
} else if (version == "smwb1") { } else if (version == "wb2s") {
SMWB1(slater_inverse, dim, nupdates, u, col_update_index); WB2s(slater_inverse, dim, nupdates, u, col_update_index);
} else if (version == "smwb4") { } else if (version == "wb3s") {
SMWB4(slater_inverse, dim, nupdates, u, col_update_index); WB3s(slater_inverse, dim, nupdates, u, col_update_index);
} else if (version == "wb32s") {
WB32s(slater_inverse, dim, nupdates, u, col_update_index);
#ifdef MKL #ifdef MKL
} else if (version == "lapack") { } else if (version == "lapack") {
memcpy(slater_inverse, slater_matrix, dim * dim * sizeof(double)); memcpy(slater_inverse, slater_matrix, dim * dim * sizeof(double));
@ -151,17 +173,70 @@ int test_cycle(H5File file, int cycle, std::string version, double tolerance) {
exit(1); exit(1);
} }
#endif // PERF #endif // PERF
delete[] u, col_update_index;
#ifdef DEBUG2 showMatrix(slater_matrix, dim, "Slater Matrix");
showMatrix(slater_matrix, dim, "NEW Slater"); showMatrix(slater_inverse, dim, "Slater Inverse");
#endif
#ifdef DEBUG2
showMatrix(slater_inverse, dim, "NEW Inverse");
#endif
double *res = new double[dim * dim]{0}; double *res = new double[dim * dim]{0};
matMul(slater_matrix, slater_inverse, res, dim); {
for (unsigned int i = 0; i < dim; i++) {
for (unsigned int j = 0; j < dim; j++) {
for (unsigned int k = 0; k < dim; k++) {
res[i * dim + j] += slater_matrix[i * dim + k] * slater_inverse[k * dim + j];
}
}
}
}
//matMul2(slater_matrix, slater_inverse, res, dim, dim, dim);
//
//
for (unsigned int i = 0; i < dim; i++) {
printf("[");
for (unsigned int j = 0; j < dim; j++) {
if (slater_matrix[i * dim + j] >= 0) {
printf(" %17.10e,", slater_matrix[i * dim + j]);
} else {
printf(" %17.10e,", slater_matrix[i * dim + j]);
}
}
printf(" ],\n");
}
printf("\n\n");
//
//
//
//
for (unsigned int i = 0; i < dim; i++) {
printf("[");
for (unsigned int j = 0; j < dim; j++) {
if (slater_inverse[i * dim + j] >= 0) {
printf(" %17.10e,", slater_inverse[i * dim + j]);
} else {
printf(" %17.10e,", slater_inverse[i * dim + j]);
}
}
printf(" ],\n");
}
printf("\n\n");
//
//
//
//
for (unsigned int i = 0; i < dim; i++) {
printf("[");
for (unsigned int j = 0; j < dim; j++) {
if (res[i * dim + j] >= 0) {
printf(" %17.10e,", res[i * dim + j]);
} else {
printf(" %17.10e,", res[i * dim + j]);
}
}
printf(" ],\n");
}
printf("\n\n");
//
//
bool ok = is_identity(res, dim, tolerance); bool ok = is_identity(res, dim, tolerance);
double res_max = residual_max(res, dim); double res_max = residual_max(res, dim);
double res2 = residual_frobenius2(res, dim); double res2 = residual_frobenius2(res, dim);
@ -173,25 +248,25 @@ int test_cycle(H5File file, int cycle, std::string version, double tolerance) {
showMatrix(res, dim, "Result"); showMatrix(res, dim, "Result");
#endif #endif
delete[] res, updates, u, col_update_index, slater_matrix, slater_inverse; delete[] res, slater_matrix, slater_inverse;
return ok; return ok;
} }
int main(int argc, char **argv) { int main(int argc, char **argv) {
#ifdef PERF #ifdef PERF
if (argc != 6) { if (argc != 7) {
std::cerr << "Execute from within 'datasets/'" << std::endl; std::cerr << "Execute from within 'datasets/'" << std::endl;
std::cerr std::cerr
<< "usage: test_h5 <version> <start cycle> <stop cycle> <tolerance> <number of reps.>" << "usage: test_h5 <version> <start cycle> <stop cycle> <break-down threshold> <tolerance> <number of reps.>"
<< std::endl; << std::endl;
return 1; return 1;
} }
#else #else
if (argc != 5) { if (argc != 6) {
std::cerr << "Execute from within 'datasets/'" << std::endl; std::cerr << "Execute from within 'datasets/'" << std::endl;
std::cerr std::cerr
<< "usage: test_h5 <version> <start cycle> <stop cycle> <tolerance>" << "usage: test_h5 <version> <start cycle> <stop cycle> <break-down threshold> <tolerance>"
<< std::endl; << std::endl;
return 1; return 1;
} }
@ -200,16 +275,17 @@ int main(int argc, char **argv) {
std::string version(argv[1]); std::string version(argv[1]);
int start_cycle = std::stoi(argv[2]); int start_cycle = std::stoi(argv[2]);
int stop_cycle = std::stoi(argv[3]); int stop_cycle = std::stoi(argv[3]);
double tolerance = std::stod(argv[4]); double breakdown = std::stod(argv[4]);
H5File file(FILE_NAME, H5F_ACC_RDONLY); double tolerance = std::stod(argv[5]);
H5::H5File file(FILE_NAME, H5F_ACC_RDONLY);
#ifdef PERF #ifdef PERF
repetition_number = std::stoi(argv[5]); repetition_number = std::stoi(argv[6]);
#endif #endif
bool ok; bool ok;
for (int cycle = start_cycle; cycle < stop_cycle + 1; cycle++) { for (int cycle = start_cycle; cycle < stop_cycle + 1; cycle++) {
ok = test_cycle(file, cycle, version, tolerance); ok = test_cycle(file, cycle, version, breakdown, tolerance);
if (ok) { if (ok) {
std::cerr << "ok -- cycle " << std::to_string(cycle) << std::endl; std::cerr << "ok -- cycle " << std::to_string(cycle) << std::endl;
} else { } else {