Refactor optimize isl

Refactor graphite-optimize-isl.c. Renamed function name, variable names etc.,
and indented the source according to gcc style guidelines.  Modified comments
accordingly. No functional change intended.

Passes regtest and bootstap on x86_64.

gcc/ChangeLog:

2015-09-10  Aditya Kumar  <aditya.k7@samsung.com>

        * graphite-optimize-isl.c (get_tile_map): Refactor.
        (get_schedule_for_band): Same.
        (getScheduleForBand): Same.
        (get_prevector_map): Same.
        (get_schedule_for_band_list): Same.
        (get_schedule_map): Same.
        (get_single_map): Same.
        (apply_schedule_map_to_scop): Same.
        (optimize_isl): Same.

From-SVN: r227695
This commit is contained in:
Aditya Kumar 2015-09-11 19:50:41 +00:00 committed by Sebastian Pop
parent fc00244420
commit ec62c3731d
2 changed files with 221 additions and 205 deletions

View file

@ -1,3 +1,15 @@
2015-09-11 Aditya Kumar <aditya.k7@samsung.com>
* graphite-optimize-isl.c (get_tile_map): Refactor.
(get_schedule_for_band): Same.
(getScheduleForBand): Same.
(get_prevector_map): Same.
(get_schedule_for_band_list): Same.
(get_schedule_map): Same.
(get_single_map): Same.
(apply_schedule_map_to_scop): Same.
(optimize_isl): Same.
2015-09-10 Ramana Radhakrishnan <ramana.radhakrishnan@arm.com>
PR target/63304

View file

@ -50,6 +50,9 @@ along with GCC; see the file COPYING3. If not see
#include "params.h"
#include "dumpfile.h"
/* Set this to true to disable tiling of nested loops. */
static bool disable_tiling = false;
static isl_union_set *
scop_get_domains (scop_p scop ATTRIBUTE_UNUSED)
{
@ -64,152 +67,153 @@ scop_get_domains (scop_p scop ATTRIBUTE_UNUSED)
return res;
}
/* getTileMap - Create a map that describes a n-dimensonal tiling.
getTileMap creates a map from a n-dimensional scattering space into an
/* get_tile_map - Create a map that describes a n-dimensonal tiling.
get_tile_map creates a map from a n-dimensional scattering space into an
2*n-dimensional scattering space. The map describes a rectangular tiling.
Example:
scheduleDimensions = 2, parameterDimensions = 1, tileSize = 32
tileMap := [p0] -> {[s0, s1] -> [t0, t1, s0, s1]:
t0 % 32 = 0 and t0 <= s0 < t0 + 32 and
t1 % 32 = 0 and t1 <= s1 < t1 + 32}
SCHEDULE_DIMENSIONS = 2, PARAMETER_DIMENSIONS = 1, TILE_SIZE = 32
tile_map := [p0] -> {[s0, s1] -> [t0, t1, s0, s1]:
t0 % 32 = 0 and t0 <= s0 < t0 + 32 and
t1 % 32 = 0 and t1 <= s1 < t1 + 32}
Before tiling:
for (i = 0; i < N; i++)
for (j = 0; j < M; j++)
S(i,j)
S(i,j)
After tiling:
for (t_i = 0; t_i < N; i+=32)
for (t_j = 0; t_j < M; j+=32)
for (i = t_i; i < min(t_i + 32, N); i++) | Unknown that N % 32 = 0
for (j = t_j; j < t_j + 32; j++) | Known that M % 32 = 0
S(i,j)
*/
for (i = t_i; i < min(t_i + 32, N); i++) | Unknown that N % 32 = 0
for (j = t_j; j < t_j + 32; j++) | Known that M % 32 = 0
S(i,j)
*/
static isl_basic_map *
getTileMap (isl_ctx *ctx, int scheduleDimensions, int tileSize)
get_tile_map (isl_ctx *ctx, int schedule_dimensions, int tile_size)
{
int x;
/* We construct
tileMap := [p0] -> {[s0, s1] -> [t0, t1, p0, p1, a0, a1]:
s0 = a0 * 32 and s0 = p0 and t0 <= p0 < t0 + 32 and
s1 = a1 * 32 and s1 = p1 and t1 <= p1 < t1 + 32}
tile_map := [p0] -> {[s0, s1] -> [t0, t1, p0, p1, a0, a1]:
s0 = a0 * 32 and s0 = p0 and t0 <= p0 < t0 + 32 and
s1 = a1 * 32 and s1 = p1 and t1 <= p1 < t1 + 32}
and project out the auxilary dimensions a0 and a1. */
isl_space *Space = isl_space_alloc (ctx, 0, scheduleDimensions,
scheduleDimensions * 3);
isl_basic_map *tileMap = isl_basic_map_universe (isl_space_copy (Space));
isl_space *space
= isl_space_alloc (ctx, 0, schedule_dimensions, schedule_dimensions * 3);
isl_basic_map *tile_map = isl_basic_map_universe (isl_space_copy (space));
isl_local_space *LocalSpace = isl_local_space_from_space (Space);
isl_local_space *local_space = isl_local_space_from_space (space);
for (x = 0; x < scheduleDimensions; x++)
for (int x = 0; x < schedule_dimensions; x++)
{
int sX = x;
int tX = x;
int pX = scheduleDimensions + x;
int aX = 2 * scheduleDimensions + x;
int pX = schedule_dimensions + x;
int aX = 2 * schedule_dimensions + x;
isl_constraint *c;
/* sX = aX * tileSize; */
c = isl_equality_alloc (isl_local_space_copy (LocalSpace));
/* sX = aX * tile_size; */
c = isl_equality_alloc (isl_local_space_copy (local_space));
isl_constraint_set_coefficient_si (c, isl_dim_out, sX, 1);
isl_constraint_set_coefficient_si (c, isl_dim_out, aX, -tileSize);
tileMap = isl_basic_map_add_constraint (tileMap, c);
isl_constraint_set_coefficient_si (c, isl_dim_out, aX, -tile_size);
tile_map = isl_basic_map_add_constraint (tile_map, c);
/* pX = sX; */
c = isl_equality_alloc (isl_local_space_copy (LocalSpace));
c = isl_equality_alloc (isl_local_space_copy (local_space));
isl_constraint_set_coefficient_si (c, isl_dim_out, pX, 1);
isl_constraint_set_coefficient_si (c, isl_dim_in, sX, -1);
tileMap = isl_basic_map_add_constraint (tileMap, c);
tile_map = isl_basic_map_add_constraint (tile_map, c);
/* tX <= pX */
c = isl_inequality_alloc (isl_local_space_copy (LocalSpace));
c = isl_inequality_alloc (isl_local_space_copy (local_space));
isl_constraint_set_coefficient_si (c, isl_dim_out, pX, 1);
isl_constraint_set_coefficient_si (c, isl_dim_out, tX, -1);
tileMap = isl_basic_map_add_constraint (tileMap, c);
tile_map = isl_basic_map_add_constraint (tile_map, c);
/* pX <= tX + (tileSize - 1) */
c = isl_inequality_alloc (isl_local_space_copy (LocalSpace));
/* pX <= tX + (tile_size - 1) */
c = isl_inequality_alloc (isl_local_space_copy (local_space));
isl_constraint_set_coefficient_si (c, isl_dim_out, tX, 1);
isl_constraint_set_coefficient_si (c, isl_dim_out, pX, -1);
isl_constraint_set_constant_si (c, tileSize - 1);
tileMap = isl_basic_map_add_constraint (tileMap, c);
isl_constraint_set_constant_si (c, tile_size - 1);
tile_map = isl_basic_map_add_constraint (tile_map, c);
}
/* Project out auxiliary dimensions.
The auxiliary dimensions are transformed into existentially quantified ones.
This reduces the number of visible scattering dimensions and allows Cloog
The auxiliary dimensions are transformed into existentially quantified
ones.
This reduces the number of visible scattering dimensions and allows isl
to produces better code. */
tileMap = isl_basic_map_project_out (tileMap, isl_dim_out,
2 * scheduleDimensions,
scheduleDimensions);
isl_local_space_free (LocalSpace);
return tileMap;
tile_map =
isl_basic_map_project_out (tile_map, isl_dim_out,
2 * schedule_dimensions, schedule_dimensions);
isl_local_space_free (local_space);
return tile_map;
}
/* getScheduleForBand - Get the schedule for this band.
Polly applies transformations like tiling on top of the isl calculated value.
/* get_schedule_for_band - Get the schedule for this BAND.
Polly applies transformations like tiling on top of the isl calculated
value.
This can influence the number of scheduling dimension. The number of
schedule dimensions is returned in the parameter 'Dimension'. */
static bool DisableTiling = false;
schedule dimensions is returned in DIMENSIONS. */
static isl_union_map *
getScheduleForBand (isl_band *Band, int *Dimensions)
get_schedule_for_band (isl_band *band, int *dimensions)
{
isl_union_map *PartialSchedule;
isl_union_map *partial_schedule;
isl_ctx *ctx;
isl_space *Space;
isl_basic_map *TileMap;
isl_union_map *TileUMap;
isl_space *space;
isl_basic_map *tile_map;
isl_union_map *tile_umap;
PartialSchedule = isl_band_get_partial_schedule (Band);
*Dimensions = isl_band_n_member (Band);
partial_schedule = isl_band_get_partial_schedule (band);
*dimensions = isl_band_n_member (band);
if (DisableTiling)
return PartialSchedule;
if (disable_tiling)
return partial_schedule;
/* It does not make any sense to tile a band with just one dimension. */
if (*Dimensions == 1)
if (*dimensions == 1)
{
if (dump_file && dump_flags)
fprintf (dump_file, "not tiled\n");
return PartialSchedule;
return partial_schedule;
}
if (dump_file && dump_flags)
fprintf (dump_file, "tiled by %d\n",
PARAM_VALUE (PARAM_LOOP_BLOCK_TILE_SIZE));
ctx = isl_union_map_get_ctx (PartialSchedule);
Space = isl_union_map_get_space (PartialSchedule);
ctx = isl_union_map_get_ctx (partial_schedule);
space = isl_union_map_get_space (partial_schedule);
TileMap = getTileMap (ctx, *Dimensions,
PARAM_VALUE (PARAM_LOOP_BLOCK_TILE_SIZE));
TileUMap = isl_union_map_from_map (isl_map_from_basic_map (TileMap));
TileUMap = isl_union_map_align_params (TileUMap, Space);
*Dimensions = 2 * *Dimensions;
tile_map = get_tile_map (ctx, *dimensions,
PARAM_VALUE (PARAM_LOOP_BLOCK_TILE_SIZE));
tile_umap = isl_union_map_from_map (isl_map_from_basic_map (tile_map));
tile_umap = isl_union_map_align_params (tile_umap, space);
*dimensions = 2 * *dimensions;
return isl_union_map_apply_range (PartialSchedule, TileUMap);
return isl_union_map_apply_range (partial_schedule, tile_umap);
}
/* Create a map that pre-vectorizes one scheduling dimension.
getPrevectorMap creates a map that maps each input dimension to the same
output dimension, except for the dimension DimToVectorize. DimToVectorize is
strip mined by 'VectorWidth' and the newly created point loop of
DimToVectorize is moved to the innermost level.
Example (DimToVectorize=0, ScheduleDimensions=2, VectorWidth=4):
get_prevector_map creates a map that maps each input dimension to the same
output dimension, except for the dimension DIM_TO_VECTORIZE.
DIM_TO_VECTORIZE is
strip mined by 'VECTOR_WIDTH' and the newly created point loop of
DIM_TO_VECTORIZE is moved to the innermost level.
Example (DIM_TO_VECTORIZE=0, SCHEDULE_DIMENSIONS=2,VECTOR_WIDTH=4):
| Before transformation
|
| A[i,j] -> [i,j]
@ -217,10 +221,10 @@ getScheduleForBand (isl_band *Band, int *Dimensions)
| for (i = 0; i < 128; i++)
| for (j = 0; j < 128; j++)
| A(i,j);
Prevector map:
[i,j] -> [it,j,ip] : it % 4 = 0 and it <= ip <= it + 3 and i = ip
| After transformation:
|
| A[i,j] -> [it,j,ip] : it % 4 = 0 and it <= ip <= it + 3 and i = ip
@ -229,170 +233,171 @@ getScheduleForBand (isl_band *Band, int *Dimensions)
| for (j = 0; j < 128; j++)
| for (ip = max(0,it); ip < min(128, it + 3); ip++)
| A(ip,j);
The goal of this transformation is to create a trivially vectorizable loop.
This means a parallel loop at the innermost level that has a constant number
of iterations corresponding to the target vector width.
This transformation creates a loop at the innermost level. The loop has a
constant number of iterations, if the number of loop iterations at
DimToVectorize can be devided by VectorWidth. The default VectorWidth is
currently constant and not yet target specific. This function does not reason
about parallelism. */
DIM_TO_VECTORIZE can be devided by VECTOR_WIDTH. The default VECTOR_WIDTH is
currently constant and not yet target specific. This function does not
reason about parallelism. */
static isl_map *
getPrevectorMap (isl_ctx *ctx, int DimToVectorize,
int ScheduleDimensions,
int VectorWidth)
get_prevector_map (isl_ctx *ctx, int dim_to_vectorize, int schedule_dimensions,
int vector_width)
{
isl_space *Space;
isl_local_space *LocalSpace, *LocalSpaceRange;
isl_set *Modulo;
isl_map *TilingMap;
isl_space *space;
isl_local_space *local_space, *local_space_range;
isl_set *modulo;
isl_map *tiling_map;
isl_constraint *c;
isl_aff *Aff;
int PointDimension; /* ip */
int TileDimension; /* it */
isl_val *VectorWidthMP;
isl_aff *aff;
int point_dimension; /* ip */
int tile_dimension; /* it */
isl_val *vector_widthMP;
int i;
/* assert (0 <= DimToVectorize && DimToVectorize < ScheduleDimensions);*/
Space = isl_space_alloc (ctx, 0, ScheduleDimensions, ScheduleDimensions + 1);
TilingMap = isl_map_universe (isl_space_copy (Space));
LocalSpace = isl_local_space_from_space (Space);
PointDimension = ScheduleDimensions;
TileDimension = DimToVectorize;
space
= isl_space_alloc (ctx, 0, schedule_dimensions, schedule_dimensions + 1);
tiling_map = isl_map_universe (isl_space_copy (space));
local_space = isl_local_space_from_space (space);
point_dimension = schedule_dimensions;
tile_dimension = dim_to_vectorize;
/* Create an identity map for everything except DimToVectorize and map
DimToVectorize to the point loop at the innermost dimension. */
for (i = 0; i < ScheduleDimensions; i++)
for (i = 0; i < schedule_dimensions; i++)
{
c = isl_equality_alloc (isl_local_space_copy (LocalSpace));
c = isl_equality_alloc (isl_local_space_copy (local_space));
isl_constraint_set_coefficient_si (c, isl_dim_in, i, -1);
if (i == DimToVectorize)
isl_constraint_set_coefficient_si (c, isl_dim_out, PointDimension, 1);
if (i == dim_to_vectorize)
isl_constraint_set_coefficient_si (c, isl_dim_out, point_dimension, 1);
else
isl_constraint_set_coefficient_si (c, isl_dim_out, i, 1);
TilingMap = isl_map_add_constraint (TilingMap, c);
tiling_map = isl_map_add_constraint (tiling_map, c);
}
/* it % 'VectorWidth' = 0 */
LocalSpaceRange = isl_local_space_range (isl_local_space_copy (LocalSpace));
Aff = isl_aff_zero_on_domain (LocalSpaceRange);
Aff = isl_aff_set_constant_si (Aff, VectorWidth);
Aff = isl_aff_set_coefficient_si (Aff, isl_dim_in, TileDimension, 1);
local_space_range
= isl_local_space_range (isl_local_space_copy (local_space));
aff = isl_aff_zero_on_domain (local_space_range);
aff = isl_aff_set_constant_si (aff, vector_width);
aff = isl_aff_set_coefficient_si (aff, isl_dim_in, tile_dimension, 1);
VectorWidthMP = isl_val_int_from_si (ctx, VectorWidth);
Aff = isl_aff_mod_val (Aff, VectorWidthMP);
Modulo = isl_pw_aff_zero_set (isl_pw_aff_from_aff (Aff));
TilingMap = isl_map_intersect_range (TilingMap, Modulo);
vector_widthMP = isl_val_int_from_si (ctx, vector_width);
aff = isl_aff_mod_val (aff, vector_widthMP);
modulo = isl_pw_aff_zero_set (isl_pw_aff_from_aff (aff));
tiling_map = isl_map_intersect_range (tiling_map, modulo);
/* it <= ip */
c = isl_inequality_alloc (isl_local_space_copy (LocalSpace));
isl_constraint_set_coefficient_si (c, isl_dim_out, TileDimension, -1);
isl_constraint_set_coefficient_si (c, isl_dim_out, PointDimension, 1);
TilingMap = isl_map_add_constraint (TilingMap, c);
c = isl_inequality_alloc (isl_local_space_copy (local_space));
isl_constraint_set_coefficient_si (c, isl_dim_out, tile_dimension, -1);
isl_constraint_set_coefficient_si (c, isl_dim_out, point_dimension, 1);
tiling_map = isl_map_add_constraint (tiling_map, c);
/* ip <= it + ('VectorWidth' - 1) */
c = isl_inequality_alloc (LocalSpace);
isl_constraint_set_coefficient_si (c, isl_dim_out, TileDimension, 1);
isl_constraint_set_coefficient_si (c, isl_dim_out, PointDimension, -1);
isl_constraint_set_constant_si (c, VectorWidth - 1);
TilingMap = isl_map_add_constraint (TilingMap, c);
c = isl_inequality_alloc (local_space);
isl_constraint_set_coefficient_si (c, isl_dim_out, tile_dimension, 1);
isl_constraint_set_coefficient_si (c, isl_dim_out, point_dimension, -1);
isl_constraint_set_constant_si (c, vector_width - 1);
tiling_map = isl_map_add_constraint (tiling_map, c);
return TilingMap;
return tiling_map;
}
static bool EnablePollyVector = false;
static bool enable_polly_vector = false;
/* getScheduleForBandList - Get the scheduling map for a list of bands.
/* get_schedule_for_band_list - Get the scheduling map for a list of bands.
We walk recursively the forest of bands to combine the schedules of the
individual bands to the overall schedule. In case tiling is requested,
individual bands to the overall schedule. In case tiling is requested,
the individual bands are tiled. */
static isl_union_map *
getScheduleForBandList (isl_band_list *BandList)
get_schedule_for_band_list (isl_band_list *band_list)
{
int NumBands, i;
isl_union_map *Schedule;
int num_bands, i;
isl_union_map *schedule;
isl_ctx *ctx;
ctx = isl_band_list_get_ctx (BandList);
NumBands = isl_band_list_n_band (BandList);
Schedule = isl_union_map_empty (isl_space_params_alloc (ctx, 0));
ctx = isl_band_list_get_ctx (band_list);
num_bands = isl_band_list_n_band (band_list);
schedule = isl_union_map_empty (isl_space_params_alloc (ctx, 0));
for (i = 0; i < NumBands; i++)
for (i = 0; i < num_bands; i++)
{
isl_band *Band;
isl_union_map *PartialSchedule;
int ScheduleDimensions;
isl_space *Space;
isl_band *band;
isl_union_map *partial_schedule;
int schedule_dimensions;
isl_space *space;
Band = isl_band_list_get_band (BandList, i);
PartialSchedule = getScheduleForBand (Band, &ScheduleDimensions);
Space = isl_union_map_get_space (PartialSchedule);
band = isl_band_list_get_band (band_list, i);
partial_schedule = get_schedule_for_band (band, &schedule_dimensions);
space = isl_union_map_get_space (partial_schedule);
if (isl_band_has_children (Band))
if (isl_band_has_children (band))
{
isl_band_list *Children;
isl_union_map *SuffixSchedule;
Children = isl_band_get_children (Band);
SuffixSchedule = getScheduleForBandList (Children);
PartialSchedule = isl_union_map_flat_range_product (PartialSchedule,
SuffixSchedule);
isl_band_list_free (Children);
isl_band_list *children = isl_band_get_children (band);
isl_union_map *suffixSchedule
= get_schedule_for_band_list (children);
partial_schedule
= isl_union_map_flat_range_product (partial_schedule,
suffixSchedule);
isl_band_list_free (children);
}
else if (EnablePollyVector)
else if (enable_polly_vector)
{
for (i = ScheduleDimensions - 1 ; i >= 0 ; i--)
for (i = schedule_dimensions - 1; i >= 0; i--)
{
#ifdef HAVE_ISL_SCHED_CONSTRAINTS_COMPUTE_SCHEDULE
if (isl_band_member_is_coincident (Band, i))
if (isl_band_member_is_coincident (band, i))
#else
if (isl_band_member_is_zero_distance (Band, i))
if (isl_band_member_is_zero_distance (band, i))
#endif
{
isl_map *TileMap;
isl_union_map *TileUMap;
TileMap = getPrevectorMap (ctx, i, ScheduleDimensions, 4);
TileUMap = isl_union_map_from_map (TileMap);
TileUMap = isl_union_map_align_params
(TileUMap, isl_space_copy (Space));
PartialSchedule = isl_union_map_apply_range
(PartialSchedule, TileUMap);
/* FIXME: The default VECTOR_WIDTH is currently constant and
* not yet target specific. */
isl_map *tile_map
= get_prevector_map (ctx, i, schedule_dimensions, 4);
isl_union_map *tile_umap = isl_union_map_from_map (tile_map);
tile_umap
= isl_union_map_align_params (tile_umap,
isl_space_copy (space));
partial_schedule
= isl_union_map_apply_range (partial_schedule,
tile_umap);
break;
}
}
}
}
Schedule = isl_union_map_union (Schedule, PartialSchedule);
schedule = isl_union_map_union (schedule, partial_schedule);
isl_band_free (Band);
isl_space_free (Space);
isl_band_free (band);
isl_space_free (space);
}
return Schedule;
return schedule;
}
static isl_union_map *
getScheduleMap (isl_schedule *Schedule)
get_schedule_map (isl_schedule *schedule)
{
isl_band_list *BandList = isl_schedule_get_band_forest (Schedule);
isl_union_map *ScheduleMap = getScheduleForBandList (BandList);
isl_band_list_free (BandList);
return ScheduleMap;
isl_band_list *bandList = isl_schedule_get_band_forest (schedule);
isl_union_map *schedule_map = get_schedule_for_band_list (bandList);
isl_band_list_free (bandList);
return schedule_map;
}
static isl_stat
getSingleMap (__isl_take isl_map *map, void *user)
get_single_map (__isl_take isl_map *map, void *user)
{
isl_map **singleMap = (isl_map **) user;
*singleMap = map;
isl_map **single_map = (isl_map **)user;
*single_map = map;
return isl_stat_ok;
}
@ -405,16 +410,15 @@ apply_schedule_map_to_scop (scop_p scop, isl_union_map *schedule_map)
FOR_EACH_VEC_ELT (scop->bbs, i, pbb)
{
isl_set *domain = isl_set_copy (pbb->domain);
isl_union_map *stmtBand;
isl_map *stmtSchedule;
isl_map *stmt_schedule;
stmtBand = isl_union_map_intersect_domain
(isl_union_map_copy (schedule_map),
isl_union_set_from_set (domain));
isl_union_map_foreach_map (stmtBand, getSingleMap, &stmtSchedule);
isl_union_map *stmt_band
= isl_union_map_intersect_domain (isl_union_map_copy (schedule_map),
isl_union_set_from_set (domain));
isl_union_map_foreach_map (stmt_band, get_single_map, &stmt_schedule);
isl_map_free (pbb->transformed);
pbb->transformed = stmtSchedule;
isl_union_map_free (stmtBand);
pbb->transformed = stmt_schedule;
isl_union_map_free (stmt_band);
}
}
@ -424,19 +428,19 @@ bool
optimize_isl (scop_p scop)
{
#ifdef HAVE_ISL_CTX_MAX_OPERATIONS
int old_max_operations = isl_ctx_get_max_operations(scop->ctx);
int old_max_operations = isl_ctx_get_max_operations (scop->ctx);
int max_operations = PARAM_VALUE (PARAM_MAX_ISL_OPERATIONS);
if (max_operations)
isl_ctx_set_max_operations(scop->ctx, max_operations);
isl_ctx_set_max_operations (scop->ctx, max_operations);
#endif
isl_options_set_on_error (scop->ctx, ISL_ON_ERROR_CONTINUE);
isl_union_set *domain = scop_get_domains (scop);
isl_union_map *dependences = scop_get_dependences (scop);
dependences = isl_union_map_gist_domain (dependences,
isl_union_set_copy (domain));
dependences = isl_union_map_gist_range (dependences,
isl_union_set_copy (domain));
dependences
= isl_union_map_gist_domain (dependences, isl_union_set_copy (domain));
dependences
= isl_union_map_gist_range (dependences, isl_union_set_copy (domain));
isl_union_map *validity = dependences;
isl_union_map *proximity = isl_union_map_copy (validity);
@ -444,14 +448,14 @@ optimize_isl (scop_p scop)
isl_schedule_constraints *schedule_constraints;
schedule_constraints = isl_schedule_constraints_on_domain (domain);
schedule_constraints
= isl_schedule_constraints_set_proximity (schedule_constraints,
proximity);
= isl_schedule_constraints_set_proximity (schedule_constraints,
proximity);
schedule_constraints
= isl_schedule_constraints_set_validity (schedule_constraints,
isl_union_map_copy (validity));
= isl_schedule_constraints_set_validity (schedule_constraints,
isl_union_map_copy (validity));
schedule_constraints
= isl_schedule_constraints_set_coincidence (schedule_constraints,
validity);
= isl_schedule_constraints_set_coincidence (schedule_constraints,
validity);
#endif
isl_options_set_schedule_max_constant_term (scop->ctx, CONSTANT_BOUND);
@ -473,8 +477,8 @@ optimize_isl (scop_p scop)
isl_options_set_on_error (scop->ctx, ISL_ON_ERROR_ABORT);
#ifdef HAVE_ISL_CTX_MAX_OPERATIONS
isl_ctx_reset_operations(scop->ctx);
isl_ctx_set_max_operations(scop->ctx, old_max_operations);
isl_ctx_reset_operations (scop->ctx);
isl_ctx_set_max_operations (scop->ctx, old_max_operations);
if (!schedule || isl_ctx_last_error (scop->ctx) == isl_error_quota)
{
if (dump_file && dump_flags)
@ -489,7 +493,7 @@ optimize_isl (scop_p scop)
return false;
#endif
isl_union_map *schedule_map = getScheduleMap (schedule);
isl_union_map *schedule_map = get_schedule_map (schedule);
apply_schedule_map_to_scop (scop, schedule_map);
isl_schedule_free (schedule);
@ -497,4 +501,4 @@ optimize_isl (scop_p scop)
return true;
}
#endif /* HAVE_isl */
#endif /* HAVE_isl */