Neko 1.99.9
A portable framework for high-order spectral element flow simulations
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Macros | Functions
ax_helm.hip File Reference
#include <string.h>
#include <stdlib.h>
#include <stdio.h>
#include <hip/hip_runtime.h>
#include <device/device_config.h>
#include <device/hip/check.h>
#include "ax_helm_kernel.h"
#include "elem_block_tune.h"
#include <common/neko_log.h>

Go to the source code of this file.

Macros

#define CASE_1D(LX, C)
 
#define CASE_1D_SEL(LX, SEL)
 
#define CASE_KSTEP(LX, C)
 
#define CASE_KSTEP_PADDED(LX, C)
 
#define CASE_MFMA(LX, C)
 
#define CASE_MFMA_SEL(LX, SEL)
 
#define CASE_KSTEP_SEL(LX, SEL)
 
#define CASE_KSTEP_PADDED_SEL(LX, SEL)
 
#define CASE(LX)
 
#define CASE_PADDED(LX)
 
#define CASE_LARGE(LX)
 
#define CASE_LARGE_PADDED(LX)
 
#define CASE_VECTOR_KSTEP(LX, C)
 
#define CASE_VECTOR_KSTEP_PADDED(LX, C)
 
#define CASE_VECTOR_MFMA(LX, C)
 
#define CASE_VECTOR_KSTEP_SEL(LX, SEL)
 
#define CASE_VECTOR_KSTEP_PADDED_SEL(LX, SEL)
 
#define CASE_VECTOR_MFMA_SEL(LX, SEL)
 
#define CASE_VECTOR(LX)
 
#define CASE_VECTOR_PADDED(LX)
 

Functions

template<const int >
int tune (void *w, void *u, void *dx, void *dy, void *dz, void *dxt, void *dyt, void *dzt, void *h1, void *g11, void *g22, void *g33, void *g12, void *g13, void *g23, int *nelv, int *lx, int *eb_sel, int *ch_sel, int *nwf_sel)
 
template<const int >
int tune_padded (void *w, void *u, void *dx, void *dy, void *dz, void *dxt, void *dyt, void *dzt, void *h1, void *g11, void *g22, void *g33, void *g12, void *g13, void *g23, int *nelv, int *lx, int *eb_sel, int *ch_sel, int *nwf_sel)
 
template<const int >
int tune_vector (void *au, void *av, void *aw, void *u, void *v, void *w, void *dx, void *dy, void *dz, void *h1, void *g11, void *g22, void *g33, void *g12, void *g13, void *g23, int *nelv, int *lx, int *eb_sel, int *nwf_sel)
 
template<const int >
int tune_vector_padded (void *au, void *av, void *aw, void *u, void *v, void *w, void *dx, void *dy, void *dz, void *h1, void *g11, void *g22, void *g33, void *g12, void *g13, void *g23, int *nelv, int *lx, int *eb_sel, int *nwf_sel)
 
void hip_ax_helm (void *w, void *u, void *dx, void *dy, void *dz, void *dxt, void *dyt, void *dzt, void *h1, void *g11, void *g22, void *g33, void *g12, void *g13, void *g23, int *nelv, int *lx)
 
void hip_ax_helm_vector (void *au, void *av, void *aw, void *u, void *v, void *w, void *dx, void *dy, void *dz, void *dxt, void *dyt, void *dzt, void *h1, void *g11, void *g22, void *g33, void *g12, void *g13, void *g23, int *nelv, int *lx)
 
void hip_ax_helm_vector_part2 (void *au, void *av, void *aw, void *u, void *v, void *w, void *h2, void *B, int *n)
 

Macro Definition Documentation

◆ CASE

#define CASE (   LX)
Value:
case LX: \
if(autotune[LX] == 0 ) { \
autotune[LX]=tune<LX>( w, u, \
dx, dy, dz, \
dxt, dyt, dzt,h1, \
g11, g22, g33, \
g12, g13, g23, nelv, lx, \
&autotune_eb[LX], &autotune_ch[LX], \
&autotune_nwf[LX]); \
} else if (autotune[LX] == 1 ) { \
CASE_1D_SEL(LX, autotune_ch[LX]); \
} else if (autotune[LX] == 2 ) { \
CASE_KSTEP_SEL(LX, autotune_eb[LX]); \
} else if (autotune[LX] == 3 ) { \
CASE_MFMA_SEL(LX, autotune_nwf[LX]); \
} \
break
ale_add_kinematics_kernel
__global__ void ale_add_kinematics_kernel(const int n, T *__restrict__ wx, T *__restrict__ wy, T *__restrict__ wz, const T *__restrict__ x_ref, const T *__restrict__ y_ref, const T *__restrict__ z_ref, const T *__restrict__ phi, const T *__restrict__ x, const T *__restrict__ y, const T *__restrict__ z, const kinematics_params_t kin_params)
Definition ale_kinematics_kernel.h:52
w
__global__ void T *__restrict__ T *__restrict__ const T *__restrict__ const T *__restrict__ const T *__restrict__ w
Definition ax_helm_full_kernel.h:48
dz
__global__ void T *__restrict__ T *__restrict__ const T *__restrict__ const T *__restrict__ const T *__restrict__ const T *__restrict__ const T *__restrict__ const T *__restrict__ dz
Definition ax_helm_full_kernel.h:51
dx
__global__ void T *__restrict__ T *__restrict__ const T *__restrict__ const T *__restrict__ const T *__restrict__ const T *__restrict__ dx
Definition ax_helm_full_kernel.h:49
u
__global__ void T *__restrict__ T *__restrict__ const T *__restrict__ u
Definition ax_helm_full_kernel.h:46
dy
__global__ void T *__restrict__ T *__restrict__ const T *__restrict__ const T *__restrict__ const T *__restrict__ const T *__restrict__ const T *__restrict__ dy
Definition ax_helm_full_kernel.h:50
h1
__global__ void T *__restrict__ T *__restrict__ const T *__restrict__ const T *__restrict__ const T *__restrict__ const T *__restrict__ const T *__restrict__ const T *__restrict__ const T *__restrict__ h1
Definition ax_helm_full_kernel.h:52
g23
__global__ void const T *__restrict__ const T *__restrict__ const T *__restrict__ const T *__restrict__ const T *__restrict__ const T *__restrict__ const T *__restrict__ const T *__restrict__ const T *__restrict__ const T *__restrict__ const T *__restrict__ g23
Definition ax_helm_kernel.h:184
g22
__global__ void const T *__restrict__ const T *__restrict__ const T *__restrict__ const T *__restrict__ const T *__restrict__ const T *__restrict__ const T *__restrict__ g22
Definition ax_helm_kernel.h:180
g13
__global__ void const T *__restrict__ const T *__restrict__ const T *__restrict__ const T *__restrict__ const T *__restrict__ const T *__restrict__ const T *__restrict__ const T *__restrict__ const T *__restrict__ const T *__restrict__ g13
Definition ax_helm_kernel.h:183
nelv
__global__ void const T *__restrict__ const T *__restrict__ const T *__restrict__ const T *__restrict__ const T *__restrict__ const T *__restrict__ const T *__restrict__ const T *__restrict__ const T *__restrict__ const T *__restrict__ const T *__restrict__ const int nelv
Definition ax_helm_kernel.h:185
g12
__global__ void const T *__restrict__ const T *__restrict__ const T *__restrict__ const T *__restrict__ const T *__restrict__ const T *__restrict__ const T *__restrict__ const T *__restrict__ const T *__restrict__ g12
Definition ax_helm_kernel.h:182
g33
__global__ void const T *__restrict__ const T *__restrict__ const T *__restrict__ const T *__restrict__ const T *__restrict__ const T *__restrict__ const T *__restrict__ const T *__restrict__ g33
Definition ax_helm_kernel.h:181
g11
__global__ void const T *__restrict__ const T *__restrict__ const T *__restrict__ const T *__restrict__ const T *__restrict__ const T *__restrict__ g11
Definition ax_helm_kernel.h:179
dyt
__global__ void const T *__restrict__ const T *__restrict__ const T *__restrict__ const T *__restrict__ const T *__restrict__ const T *__restrict__ dyt
Definition cdtp_kernel.h:115
dzt
__global__ void const T *__restrict__ const T *__restrict__ const T *__restrict__ const T *__restrict__ const T *__restrict__ const T *__restrict__ const T *__restrict__ dzt
Definition cdtp_kernel.h:116
dxt
__global__ void const T *__restrict__ const T *__restrict__ const T *__restrict__ const T *__restrict__ const T *__restrict__ dxt
Definition cdtp_kernel.h:114

◆ CASE_1D

#define CASE_1D (   LX,
  C 
)
Value:
hipLaunchKernelGGL(HIP_KERNEL_NAME( \
ax_helm_kernel_1d<real, LX, NEKO_CHUNKS(LX, C)> ), \
nblcks_1d, NEKO_CHUNKS_NTHRDS(LX, C), 0, \
(hipStream_t) glb_cmd_queue, \
(real *) w, (real *) u, \
(real *) dx, (real *) dy, (real *) dz, \
(real *) dxt, (real *) dyt, (real *) dzt, (real *) h1, \
(real *) g11, (real *) g22, (real *) g33, \
(real *) g12, (real *) g13, (real *) g23); \
HIP_CHECK(hipGetLastError());
ax_helm_kernel_1d
__global__ void ax_helm_kernel_1d(T *__restrict__ w, const T *__restrict__ u, const T *__restrict__ dx, const T *__restrict__ dy, const T *__restrict__ dz, const T *__restrict__ dxt, const T *__restrict__ dyt, const T *__restrict__ dzt, const T *__restrict__ h1, const T *__restrict__ g11, const T *__restrict__ g22, const T *__restrict__ g33, const T *__restrict__ g12, const T *__restrict__ g13, const T *__restrict__ g23)
Definition ax_helm_kernel.h:65
NEKO_CHUNKS
#define NEKO_CHUNKS(LX, C)
Definition elem_block.h:145
NEKO_CHUNKS_NTHRDS
#define NEKO_CHUNKS_NTHRDS(LX, C)
Definition elem_block.h:146
real
double real
Definition device_config.h:12

◆ CASE_1D_SEL

#define CASE_1D_SEL (   LX,
  SEL 
)
Value:
switch (SEL) { \
case 0: CASE_1D(LX, 0); break; \
case 1: CASE_1D(LX, 1); break; \
case 2: CASE_1D(LX, 2); break; \
default: CASE_1D(LX, 3); break; \
}
CASE_1D
#define CASE_1D(LX, C)

◆ CASE_KSTEP

#define CASE_KSTEP (   LX,
  C 
)
Value:
hipLaunchKernelGGL( HIP_KERNEL_NAME( \
ax_helm_kernel_kstep<real, LX, NEKO_EB(LX, C)> ), \
NEKO_EB_NBLCKS(*nelv, LX, C), NEKO_EB_NTHRDS(LX, C), 0, \
(hipStream_t) glb_cmd_queue, \
(real *) w, (real *) u, \
(real *) dx, (real *) dy, (real *) dz, (real *) h1, \
(real *) g11, (real *) g22, (real *) g33, \
(real *) g12, (real *) g13, (real *) g23, *nelv); \
HIP_CHECK(hipGetLastError());
NEKO_EB
#define NEKO_EB(LX, C)
Definition elem_block.h:104
NEKO_EB_NBLCKS
#define NEKO_EB_NBLCKS(NELV, LX, C)
Definition elem_block.h:106
NEKO_EB_NTHRDS
#define NEKO_EB_NTHRDS(LX, C)
Definition elem_block.h:105

◆ CASE_KSTEP_PADDED

#define CASE_KSTEP_PADDED (   LX,
  C 
)
Value:
hipLaunchKernelGGL( HIP_KERNEL_NAME( \
ax_helm_kernel_kstep_padded<real, LX, NEKO_EB(LX, C)> ),\
NEKO_EB_NBLCKS(*nelv, LX, C), NEKO_EB_NTHRDS(LX, C), 0, \
(hipStream_t) glb_cmd_queue, \
(real *) w, (real *) u, \
(real *) dx, (real *) dy, (real *) dz, (real *) h1, \
(real *) g11, (real *) g22, (real *) g33, \
(real *) g12, (real *) g13, (real *) g23, *nelv); \
HIP_CHECK(hipGetLastError());

◆ CASE_KSTEP_PADDED_SEL

#define CASE_KSTEP_PADDED_SEL (   LX,
  SEL 
)
Value:
switch (SEL) { \
case 0: CASE_KSTEP_PADDED(LX, 0); break; \
case 1: CASE_KSTEP_PADDED(LX, 1); break; \
default: CASE_KSTEP_PADDED(LX, 2); break; \
}
CASE_KSTEP_PADDED
#define CASE_KSTEP_PADDED(LX, C)

◆ CASE_KSTEP_SEL

#define CASE_KSTEP_SEL (   LX,
  SEL 
)
Value:
switch (SEL) { \
case 0: CASE_KSTEP(LX, 0); break; \
case 1: CASE_KSTEP(LX, 1); break; \
default: CASE_KSTEP(LX, 2); break; \
}
CASE_KSTEP
#define CASE_KSTEP(LX, C)

◆ CASE_LARGE

#define CASE_LARGE (   LX)
Value:
case LX: \
CASE_KSTEP(LX, 0); \
break

◆ CASE_LARGE_PADDED

#define CASE_LARGE_PADDED (   LX)
Value:
case LX: \
CASE_KSTEP_PADDED(LX, 0); \
break

◆ CASE_MFMA

#define CASE_MFMA (   LX,
  C 
)
Value:
hipLaunchKernelGGL( HIP_KERNEL_NAME( \
ax_helm_kernel_mfma<real, LX, NEKO_MFMA_NWF(C), \
NEKO_MFMA_TILE(C)> ), \
NEKO_MFMA_NBLCKS(*nelv, LX, C), NEKO_MFMA_NTHRDS(C), 0, \
(hipStream_t) glb_cmd_queue, \
(real *) w, (real *) u, \
(real *) dx, (real *) dy, (real *) dz, (real *) h1, \
(real *) g11, (real *) g22, (real *) g33, \
(real *) g12, (real *) g13, (real *) g23, *nelv); \
HIP_CHECK(hipGetLastError());
NEKO_MFMA_NWF
#define NEKO_MFMA_NWF(C)
Definition mfma_kernel.h:263
NEKO_MFMA_NTHRDS
#define NEKO_MFMA_NTHRDS(C)
Definition mfma_kernel.h:265
NEKO_MFMA_TILE
#define NEKO_MFMA_TILE(C)
Definition mfma_kernel.h:264
NEKO_MFMA_NBLCKS
#define NEKO_MFMA_NBLCKS(NELV, LX, C)
Definition mfma_kernel.h:495

◆ CASE_MFMA_SEL

#define CASE_MFMA_SEL (   LX,
  SEL 
)
Value:
switch (SEL) { \
case 0: CASE_MFMA(LX, 0); break; \
case 1: CASE_MFMA(LX, 1); break; \
case 2: CASE_MFMA(LX, 2); break; \
case 3: CASE_MFMA(LX, 3); break; \
case 4: CASE_MFMA(LX, 4); break; \
case 5: CASE_MFMA(LX, 5); break; \
case 6: CASE_MFMA(LX, 6); break; \
case 7: CASE_MFMA(LX, 7); break; \
case 8: CASE_MFMA(LX, 8); break; \
default: CASE_MFMA(LX, 9); break; \
}
CASE_MFMA
#define CASE_MFMA(LX, C)

◆ CASE_PADDED

#define CASE_PADDED (   LX)
Value:
case LX: \
if(autotune[LX] == 0 ) { \
autotune[LX]=tune_padded<LX>(w, u, \
dx, dy, dz, \
dxt, dyt, dzt,h1, \
g11, g22, g33, \
g12, g13, g23,nelv,lx, \
&autotune_eb[LX], &autotune_ch[LX], \
&autotune_nwf[LX]); \
} else if (autotune[LX] == 1 ) { \
CASE_1D_SEL(LX, autotune_ch[LX]); \
} else if (autotune[LX] == 2 ) { \
CASE_KSTEP_PADDED_SEL(LX, autotune_eb[LX]); \
} else if (autotune[LX] == 3 ) { \
CASE_MFMA_SEL(LX, autotune_nwf[LX]); \
} \
break

◆ CASE_VECTOR

#define CASE_VECTOR (   LX)
Value:
case LX: \
if (autotune_v[LX] == 0) { \
autotune_v[LX] = tune_vector<LX>(au, av, aw, u, v, w, \
dx, dy, dz, h1, \
g11, g22, g33, \
g12, g13, g23, nelv, lx, \
&autotune_v_eb[LX], \
&autotune_v_nwf[LX]); \
} else if (autotune_v[LX] == 2) { \
CASE_VECTOR_KSTEP_SEL(LX, autotune_v_eb[LX]); \
} else if (autotune_v[LX] == 3) { \
CASE_VECTOR_MFMA_SEL(LX, autotune_v_nwf[LX]); \
} \
break
aw
__global__ void T *__restrict__ T *__restrict__ aw
Definition ax_helm_full_kernel.h:45
av
__global__ void T *__restrict__ av
Definition ax_helm_full_kernel.h:44
v
__global__ void T *__restrict__ T *__restrict__ const T *__restrict__ const T *__restrict__ v
Definition ax_helm_full_kernel.h:47

◆ CASE_VECTOR_KSTEP

#define CASE_VECTOR_KSTEP (   LX,
  C 
)
Value:
hipLaunchKernelGGL( HIP_KERNEL_NAME( \
ax_helm_kernel_vector_kstep<real, LX, \
NEKO_EB(LX, C)> ), \
NEKO_EB_NBLCKS(*nelv, LX, C), NEKO_EB_NTHRDS(LX, C), 0, \
(hipStream_t) glb_cmd_queue, \
(real *) au, (real *) av, (real *) aw, \
(real *) u, (real *) v, (real *) w, \
(real *) dx, (real *) dy, (real *) dz, (real *) h1, \
(real *) g11, (real *) g22, (real *) g33, \
(real *) g12, (real *) g13, (real *) g23, *nelv); \
HIP_CHECK(hipGetLastError());

◆ CASE_VECTOR_KSTEP_PADDED

#define CASE_VECTOR_KSTEP_PADDED (   LX,
  C 
)
Value:
hipLaunchKernelGGL( HIP_KERNEL_NAME( \
ax_helm_kernel_vector_kstep_padded<real, LX, \
NEKO_EB(LX, C)> ), \
NEKO_EB_NBLCKS(*nelv, LX, C), NEKO_EB_NTHRDS(LX, C), 0, \
(hipStream_t) glb_cmd_queue, \
(real *) au, (real *) av, (real *) aw, \
(real *) u, (real *) v, (real *) w, \
(real *) dx, (real *) dy, (real *) dz, (real *) h1, \
(real *) g11, (real *) g22, (real *) g33, \
(real *) g12, (real *) g13, (real *) g23, *nelv); \
HIP_CHECK(hipGetLastError());

◆ CASE_VECTOR_KSTEP_PADDED_SEL

#define CASE_VECTOR_KSTEP_PADDED_SEL (   LX,
  SEL 
)
Value:
switch (SEL) { \
case 0: CASE_VECTOR_KSTEP_PADDED(LX, 0); break; \
case 1: CASE_VECTOR_KSTEP_PADDED(LX, 1); break; \
default: CASE_VECTOR_KSTEP_PADDED(LX, 2); break; \
}
CASE_VECTOR_KSTEP_PADDED
#define CASE_VECTOR_KSTEP_PADDED(LX, C)

◆ CASE_VECTOR_KSTEP_SEL

#define CASE_VECTOR_KSTEP_SEL (   LX,
  SEL 
)
Value:
switch (SEL) { \
case 0: CASE_VECTOR_KSTEP(LX, 0); break; \
case 1: CASE_VECTOR_KSTEP(LX, 1); break; \
default: CASE_VECTOR_KSTEP(LX, 2); break; \
}
CASE_VECTOR_KSTEP
#define CASE_VECTOR_KSTEP(LX, C)

◆ CASE_VECTOR_MFMA

#define CASE_VECTOR_MFMA (   LX,
  C 
)
Value:
hipLaunchKernelGGL( HIP_KERNEL_NAME( \
ax_helm_kernel_mfma_vector<real, LX, \
NEKO_MFMA_NWF(C), \
NEKO_MFMA_TILE(C)> ), \
NEKO_MFMA_NBLCKS(*nelv, LX, C), NEKO_MFMA_NTHRDS(C), 0, \
(hipStream_t) glb_cmd_queue, \
(real *) au, (real *) av, (real *) aw, \
(real *) u, (real *) v, (real *) w, \
(real *) dx, (real *) dy, (real *) dz, (real *) h1, \
(real *) g11, (real *) g22, (real *) g33, \
(real *) g12, (real *) g13, (real *) g23, *nelv); \
HIP_CHECK(hipGetLastError());

◆ CASE_VECTOR_MFMA_SEL

#define CASE_VECTOR_MFMA_SEL (   LX,
  SEL 
)
Value:
switch (SEL) { \
case 0: CASE_VECTOR_MFMA(LX, 0); break; \
case 1: CASE_VECTOR_MFMA(LX, 1); break; \
case 2: CASE_VECTOR_MFMA(LX, 2); break; \
case 3: CASE_VECTOR_MFMA(LX, 3); break; \
case 4: CASE_VECTOR_MFMA(LX, 4); break; \
case 5: CASE_VECTOR_MFMA(LX, 5); break; \
case 6: CASE_VECTOR_MFMA(LX, 6); break; \
case 7: CASE_VECTOR_MFMA(LX, 7); break; \
case 8: CASE_VECTOR_MFMA(LX, 8); break; \
default: CASE_VECTOR_MFMA(LX, 9); break; \
}
CASE_VECTOR_MFMA
#define CASE_VECTOR_MFMA(LX, C)

◆ CASE_VECTOR_PADDED

#define CASE_VECTOR_PADDED (   LX)
Value:
case LX: \
if (autotune_v[LX] == 0) { \
autotune_v[LX] = tune_vector_padded<LX>(au, av, aw, u, v, w, \
dx, dy, dz, h1, \
g11, g22, g33, \
g12, g13, g23, nelv, lx, \
&autotune_v_eb[LX], \
&autotune_v_nwf[LX]); \
} else if (autotune_v[LX] == 2) { \
CASE_VECTOR_KSTEP_PADDED_SEL(LX, autotune_v_eb[LX]); \
} else if (autotune_v[LX] == 3) { \
CASE_VECTOR_MFMA_SEL(LX, autotune_v_nwf[LX]); \
} \
break

Function Documentation

◆ hip_ax_helm()

void hip_ax_helm ( void *  w,
void *  u,
void *  dx,
void *  dy,
void *  dz,
void *  dxt,
void *  dyt,
void *  dzt,
void *  h1,
void *  g11,
void *  g22,
void *  g33,
void *  g12,
void *  g13,
void *  g23,
int *  nelv,
int *  lx 
)

Fortran wrapper for device HIP Ax

Definition at line 82 of file ax_helm.hip.

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◆ hip_ax_helm_vector()

void hip_ax_helm_vector ( void *  au,
void *  av,
void *  aw,
void *  u,
void *  v,
void *  w,
void *  dx,
void *  dy,
void *  dz,
void *  dxt,
void *  dyt,
void *  dzt,
void *  h1,
void *  g11,
void *  g22,
void *  g33,
void *  g12,
void *  g13,
void *  g23,
int *  nelv,
int *  lx 
)

Fortran wrapper for device HIP Ax vector version

Definition at line 284 of file ax_helm.hip.

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◆ hip_ax_helm_vector_part2()

void hip_ax_helm_vector_part2 ( void *  au,
void *  av,
void *  aw,
void *  u,
void *  v,
void *  w,
void *  h2,
void *  B,
int *  n 
)

Fortran wrapper for device HIP Ax vector version part2

Definition at line 440 of file ax_helm.hip.

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◆ tune()

template<const int >
int tune ( void *  w,
void *  u,
void *  dx,
void *  dy,
void *  dz,
void *  dxt,
void *  dyt,
void *  dzt,
void *  h1,
void *  g11,
void *  g22,
void *  g33,
void *  g12,
void *  g13,
void *  g23,
int *  nelv,
int *  lx,
int *  eb_sel,
int *  ch_sel,
int *  nwf_sel 
)

Definition at line 458 of file ax_helm.hip.

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◆ tune_padded()

template<const int >
int tune_padded ( void *  w,
void *  u,
void *  dx,
void *  dy,
void *  dz,
void *  dxt,
void *  dyt,
void *  dzt,
void *  h1,
void *  g11,
void *  g22,
void *  g33,
void *  g12,
void *  g13,
void *  g23,
int *  nelv,
int *  lx,
int *  eb_sel,
int *  ch_sel,
int *  nwf_sel 
)

Definition at line 667 of file ax_helm.hip.

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◆ tune_vector()

template<const int >
int tune_vector ( void *  au,
void *  av,
void *  aw,
void *  u,
void *  v,
void *  w,
void *  dx,
void *  dy,
void *  dz,
void *  h1,
void *  g11,
void *  g22,
void *  g33,
void *  g12,
void *  g13,
void *  g23,
int *  nelv,
int *  lx,
int *  eb_sel,
int *  nwf_sel 
)

Definition at line 878 of file ax_helm.hip.

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◆ tune_vector_padded()

template<const int >
int tune_vector_padded ( void *  au,
void *  av,
void *  aw,
void *  u,
void *  v,
void *  w,
void *  dx,
void *  dy,
void *  dz,
void *  h1,
void *  g11,
void *  g22,
void *  g33,
void *  g12,
void *  g13,
void *  g23,
int *  nelv,
int *  lx,
int *  eb_sel,
int *  nwf_sel 
)

Definition at line 1045 of file ax_helm.hip.

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