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source: soft/giet_vm/applications/convol/main.c @ 598

Last change on this file since 598 was 589, checked in by alain, 9 years ago
Modify all applications to support two new rules: 1) introduce a local Makefile for each application. 2) change "application.elf" name to "application/appli.elf" name in the application.py" file. Introduce the shell application.
File size: 25.5 KB

Rev	Line
[502]	1	///////////////////////////////////////////////////////////////////////////////////////
[334]	2	// File : main.c (for convol application)
	3	// Date : june 2014
	4	// author : Alain Greiner
[502]	5	///////////////////////////////////////////////////////////////////////////////////////
[444]	6	// This multi-threaded application application implements a 2D convolution product.
	7	// The convolution kernel is [201]*[35] pixels, but it can be factored in two
	8	// independant line and column convolution products.
	9	// It can run on a multi-processors, multi-clusters architecture, with one thread
[502]	10	// per processor.
[444]	11	//
	12	// The (1024 * 1024) pixels image is read from a file (2 bytes per pixel).
[334]	13	//
[502]	14	// - number of clusters containing processors must be power of 2 no larger than 256.
	15	// - number of processors per cluster must be power of 2 no larger than 8.
	16	///////////////////////////////////////////////////////////////////////////////////////
[334]	17
	18	#include "stdio.h"
[353]	19	#include "stdlib.h"
[502]	20	#include "user_barrier.h"
[384]	21	#include "malloc.h"
[334]	22
[502]	23	#define USE_SQT_BARRIER 1
[353]	24	#define VERBOSE 0
	25	#define SUPER_VERBOSE 0
[334]	26
[502]	27	#define X_SIZE_MAX 16
	28	#define Y_SIZE_MAX 16
	29	#define PROCS_MAX 8
	30	#define CLUSTERS_MAX (X_SIZE_MAX * Y_SIZE_MAX)
	31
[353]	32	#define INITIAL_DISPLAY_ENABLE 0
[334]	33	#define FINAL_DISPLAY_ENABLE 1
	34
	35	#define PIXEL_SIZE 2
	36	#define NL 1024
	37	#define NP 1024
	38	#define NB_PIXELS (NP * NL)
	39	#define FRAME_SIZE (NB_PIXELS * PIXEL_SIZE)
	40
[589]	41	#define SEEK_SET 0
	42
[334]	43	#define TA(c,l,p) (A[c][((NP) * (l)) + (p)])
	44	#define TB(c,p,l) (B[c][((NL) * (p)) + (l)])
	45	#define TC(c,l,p) (C[c][((NP) * (l)) + (p)])
	46	#define TD(c,l,p) (D[c][((NP) * (l)) + (p)])
	47	#define TZ(c,l,p) (Z[c][((NP) * (l)) + (p)])
	48
	49	#define max(x,y) ((x) > (y) ? (x) : (y))
	50	#define min(x,y) ((x) < (y) ? (x) : (y))
	51
[372]	52	// global instrumentation counters (cluster_id, lpid]
	53
[502]	54	unsigned int START[CLUSTERS_MAX][PROCS_MAX];
	55	unsigned int H_BEG[CLUSTERS_MAX][PROCS_MAX];
	56	unsigned int H_END[CLUSTERS_MAX][PROCS_MAX];
	57	unsigned int V_BEG[CLUSTERS_MAX][PROCS_MAX];
	58	unsigned int V_END[CLUSTERS_MAX][PROCS_MAX];
	59	unsigned int D_BEG[CLUSTERS_MAX][PROCS_MAX];
	60	unsigned int D_END[CLUSTERS_MAX][PROCS_MAX];
[334]	61
[372]	62	// global synchronization barrier
[334]	63
[502]	64	#if USE_SQT_BARRIER
	65	giet_sqt_barrier_t barrier;
[372]	66	#else
	67	giet_barrier_t barrier;
	68	#endif
[334]	69
[372]	70	volatile unsigned int barrier_init_ok = 0;
	71	volatile unsigned int load_image_ok = 0;
	72	volatile unsigned int instrumentation_ok = 0;
[334]	73
[372]	74	// global pointers on distributed buffers in all clusters
[502]	75	unsigned short * GA[CLUSTERS_MAX];
	76	int * GB[CLUSTERS_MAX];
	77	int * GC[CLUSTERS_MAX];
	78	int * GD[CLUSTERS_MAX];
	79	unsigned char * GZ[CLUSTERS_MAX];
[372]	80
[334]	81	///////////////////////////////////////////
	82	__attribute__ ((constructor)) void main()
	83	///////////////////////////////////////////
	84	{
	85	//////////////////////////////////
	86	// convolution kernel parameters
	87	// The content of this section is
	88	// Philips proprietary information.
	89	///////////////////////////////////
	90
	91	int vnorm = 115;
	92	int vf[35] = { 1, 1, 2, 2, 2,
	93	2, 3, 3, 3, 4,
	94	4, 4, 4, 5, 5,
	95	5, 5, 5, 5, 5,
	96	5, 5, 4, 4, 4,
	97	4, 3, 3, 3, 2,
	98	2, 2, 2, 1, 1 };
	99
	100	int hrange = 100;
	101	int hnorm = 201;
	102
	103	unsigned int date = 0;
	104
	105	int c; // cluster index for loops
	106	int l; // line index for loops
	107	int p; // pixel index for loops
	108	int z; // vertical filter index for loops
	109
[502]	110	// plat-form parameters
	111	unsigned int x_size; // number of clusters in a row
	112	unsigned int y_size; // number of clusters in a column
	113	unsigned int nprocs; // number of processors per cluster
	114
	115	giet_procs_number( &x_size , &y_size , &nprocs );
	116
[432]	117	// processor identifiers
[502]	118	unsigned int x; // x coordinate
	119	unsigned int y; // y coordinate
	120	unsigned int lpid; // local proc/task id
[432]	121	giet_proc_xyp( &x, &y, &lpid );
	122
[502]	123	int file = 0; // file descriptor
	124	unsigned int nclusters = x_size * y_size; // number of clusters
	125	unsigned int cluster_id = (x * y_size) + y; // continuous cluster index
	126	unsigned int task_id = (cluster_id * nprocs) + lpid; // continuous task index
	127	unsigned int ntasks = nclusters * nprocs; // number of tasks
	128	unsigned int frame_size = FRAME_SIZE; // total size (bytes)
[334]	129
[502]	130	unsigned int lines_per_task = NL / ntasks; // lines per task
	131	unsigned int lines_per_cluster = NL / nclusters; // lines per cluster
	132	unsigned int pixels_per_task = NP / ntasks; // columns per task
	133	unsigned int pixels_per_cluster = NP / nclusters; // columns per cluster
[334]	134
	135	int first, last;
	136
	137	date = giet_proctime();
	138	START[cluster_id][lpid] = date;
	139
[353]	140	#if VERBOSE
	141	giet_shr_printf( "\n[CONVOL] task[%d,%d,%d] starts at cycle %d\n", x,y,lpid, date );
	142	#endif
	143
[334]	144	// parameters checking
	145
[502]	146	if ((nprocs != 1) && (nprocs != 2) && (nprocs != 4) && (nprocs != 8))
	147	giet_exit( "[CONVOL ERROR] NB_PROCS_MAX must be 1, 2, 4 or 8\n");
[334]	148
[502]	149	if ((x_size!=1) && (x_size!=2) && (x_size!=4) && (x_size!=8) && (x_size!=16))
	150	giet_exit( "[CONVOL ERROR] x_size must be 1, 2, 4, 8, 16\n");
[334]	151
[502]	152	if ((y_size!=1) && (y_size!=2) && (y_size!=4) && (y_size!=8) && (y_size!=16))
	153	giet_exit( "[CONVOL ERROR] y_size must be 1, 2, 4, 8, 16\n");
[334]	154
	155	if ( NL % nclusters != 0 )
[502]	156	giet_exit( "[CONVOL ERROR] CLUSTERS_MAX must be a divider of NL");
[334]	157
	158	if ( NP % nclusters != 0 )
[502]	159	giet_exit( "[CONVOL ERROR] CLUSTERS_MAX must be a divider of NP");
[334]	160
[372]	161
[334]	162	///////////////////////////////////////////////////////////////////
[372]	163	// task[0][0][0] makes barrier initialisation
[334]	164	///////////////////////////////////////////////////////////////////
[372]	165
[432]	166	if ( (x==0) && (y==0) && (lpid==0) )
[372]	167	{
	168	giet_shr_printf("\n[CONVOL] task[0,0,0] starts barrier init at cycle %d\n"
[589]	169	"- CLUSTERS = %d\n"
	170	"- PROCS = %d\n"
	171	"- TASKS = %d\n"
	172	"- LINES/TASK = %d\n",
	173	giet_proctime(), nclusters, nprocs, ntasks, lines_per_task );
[502]	174	#if USE_SQT_BARRIER
	175	sqt_barrier_init( &barrier, x_size , y_size , nprocs );
[372]	176	#else
	177	barrier_init( &barrier, ntasks );
	178	#endif
[334]	179
[372]	180	giet_shr_printf( "\n[CONVOL] task[0,0,0] completes barrier init at cycle %d\n",
	181	giet_proctime() );
	182
	183	barrier_init_ok = 1;
	184	}
[589]	185	else
[372]	186	{
	187	while ( barrier_init_ok == 0 );
	188	}
	189
	190	///////////////////////////////////////////////////////////////////
	191	// All task[x][y][0] allocate the global buffers in cluster(x,y)
	192	// These buffers mut be sector-aligned.
	193	///////////////////////////////////////////////////////////////////
	194	if ( lpid == 0 )
	195	{
	196
	197	#if VERBOSE
[502]	198	giet_shr_printf( "\n[CONVOL] task[%d,%d,%d] enters malloc at cycle %d\n",
	199	x,y,lpid, date );
[372]	200	#endif
	201
[384]	202	GA[cluster_id] = remote_malloc( (FRAME_SIZE/nclusters) , x , y );
	203	GB[cluster_id] = remote_malloc( (FRAME_SIZE/nclusters)*2 , x , y );
	204	GC[cluster_id] = remote_malloc( (FRAME_SIZE/nclusters)*2 , x , y );
	205	GD[cluster_id] = remote_malloc( (FRAME_SIZE/nclusters)*2 , x , y );
	206	GZ[cluster_id] = remote_malloc( (FRAME_SIZE/nclusters)/2 , x , y );
[372]	207
	208	#if VERBOSE
	209	giet_shr_printf( "\n[CONVOL] Shared Buffer Virtual Addresses in cluster(%d,%d)\n"
	210	"### GA = %x\n"
	211	"### GB = %x\n"
	212	"### GC = %x\n"
	213	"### GD = %x\n"
	214	"### GZ = %x\n",
	215	x, y,
	216	GA[cluster_id],
	217	GB[cluster_id],
	218	GC[cluster_id],
	219	GD[cluster_id],
	220	GZ[cluster_id] );
	221	#endif
	222	}
	223
[377]	224	///////////////////////////////
[502]	225	#if USE_SQT_BARRIER
	226	sqt_barrier_wait( &barrier );
[377]	227	#else
	228	barrier_wait( &barrier );
	229	#endif
[372]	230
	231	///////////////////////////////////////////////////////////////////
	232	// All tasks initialise in their private stack a copy of the
	233	// arrays of pointers on the shared, distributed buffers.
	234	///////////////////////////////////////////////////////////////////
	235
[502]	236	unsigned short * A[CLUSTERS_MAX];
	237	int * B[CLUSTERS_MAX];
	238	int * C[CLUSTERS_MAX];
	239	int * D[CLUSTERS_MAX];
	240	unsigned char * Z[CLUSTERS_MAX];
[334]	241
	242	for (c = 0; c < nclusters; c++)
	243	{
[372]	244	A[c] = GA[c];
	245	B[c] = GB[c];
	246	C[c] = GC[c];
	247	D[c] = GD[c];
	248	Z[c] = GZ[c];
[334]	249	}
	250
	251	///////////////////////////////////////////////////////////////////////////
[372]	252	// task[0,0,0] open the file containing image, and load it from disk
[589]	253	// to all A[c] buffers (frame_size / nclusters loaded in each cluster).
[334]	254	// Other tasks are waiting on the init_ok condition.
	255	//////////////////////////////////////////////////////////////////////////
[432]	256	if ( (x==0) && (y==0) && (lpid==0) )
[334]	257	{
	258	// open file
[589]	259	file = giet_fat_open( "misc/philips_image.raw" , 0 );
[334]	260	if ( file < 0 ) giet_exit( "[CONVOL ERROR] task[0,0,0] cannot open"
	261	" file misc/philips_image.raw" );
	262
	263	giet_shr_printf( "\n[CONVOL] task[0,0,0] open file misc/philips_image.raw"
	264	" at cycle %d\n", giet_proctime() );
	265
[502]	266	for ( c = 0 ; c < nclusters ; c++ )
[334]	267	{
[353]	268	giet_shr_printf( "\n[CONVOL] task[0,0,0] starts load "
	269	"for cluster %d at cycle %d\n", c, giet_proctime() );
	270
[589]	271	giet_fat_lseek( file,
	272	(frame_size/nclusters)*c,
	273	SEEK_SET );
	274
[334]	275	giet_fat_read( file,
	276	A[c],
[589]	277	frame_size/nclusters );
[334]	278
[353]	279	giet_shr_printf( "\n[CONVOL] task[0,0,0] completes load "
	280	"for cluster %d at cycle %d\n", c, giet_proctime() );
[334]	281	}
[372]	282	load_image_ok = 1;
[334]	283	}
	284	else
	285	{
[372]	286	while ( load_image_ok == 0 );
[334]	287	}
	288
	289	/////////////////////////////////////////////////////////////////////////////
	290	// Optionnal parallel display of the initial image stored in A[c] buffers.
	291	// Eah task displays (NL/ntasks) lines. (one byte per pixel).
	292	/////////////////////////////////////////////////////////////////////////////
	293
	294	if ( INITIAL_DISPLAY_ENABLE )
	295	{
	296
[353]	297	#if VERBOSE
	298	giet_shr_printf( "\n[CONVOL] task[%d,%d,%d] starts initial display"
	299	" at cycle %d\n",
	300	x, y, lpid, giet_proctime() );
	301	#endif
	302
[334]	303	unsigned int line;
	304	unsigned int offset = lines_per_task * lpid;
	305
	306	for ( l = 0 ; l < lines_per_task ; l++ )
	307	{
	308	line = offset + l;
	309
	310	for ( p = 0 ; p < NP ; p++ )
	311	{
	312	TZ(cluster_id, line, p) = (unsigned char)(TA(cluster_id, line, p) >> 8);
	313	}
	314
[444]	315	giet_fbf_sync_write( NP(l + (task_id lines_per_task) ),
	316	&TZ(cluster_id, line, 0),
	317	NP);
[334]	318	}
	319
[353]	320	#if VERBOSE
	321	giet_shr_printf( "\n[CONVOL] task[%d,%d,%d] completes initial display"
	322	" at cycle %d\n",
	323	x, y, lpid, giet_proctime() );
	324	#endif
[334]	325
[377]	326	////////////////////////////
[502]	327	#if USE_SQT_BARRIER
	328	sqt_barrier_wait( &barrier );
[377]	329	#else
[372]	330	barrier_wait( &barrier );
[377]	331	#endif
[334]	332
	333	}
	334
	335	////////////////////////////////////////////////////////
	336	// parallel horizontal filter :
	337	// B <= transpose(FH(A))
	338	// D <= A - FH(A)
	339	// Each task computes (NL/ntasks) lines
	340	// The image must be extended :
	341	// if (z<0) TA(cluster_id,l,z) == TA(cluster_id,l,0)
	342	// if (z>NP-1) TA(cluster_id,l,z) == TA(cluster_id,l,NP-1)
	343	////////////////////////////////////////////////////////
	344
	345	date = giet_proctime();
	346	H_BEG[cluster_id][lpid] = date;
	347
[353]	348	#if VERBOSE
	349	giet_shr_printf( "\n[CONVOL] task[%d,%d,%d] starts horizontal filter"
	350	" at cycle %d\n",
	351	x, y, lpid, date );
	352	#else
[432]	353	if ( (x==0) && (y==0) && (lpid==0) )
	354	giet_shr_printf( "\n[CONVOL] task[0,0,0] starts horizontal filter"
	355	" at cycle %d\n", date );
[353]	356	#endif
	357
[334]	358	// l = absolute line index / p = absolute pixel index
	359	// first & last define which lines are handled by a given task
	360
	361	first = task_id * lines_per_task;
	362	last = first + lines_per_task;
	363
	364	for (l = first; l < last; l++)
	365	{
	366	// src_c and src_l are the cluster index and the line index for A & D
	367	int src_c = l / lines_per_cluster;
	368	int src_l = l % lines_per_cluster;
	369
	370	// We use the specific values of the horizontal ep-filter for optimisation:
	371	// sum(p) = sum(p-1) + TA[p+hrange] - TA[p-hrange-1]
	372	// To minimize the number of tests, the loop on pixels is split in three domains
	373
	374	int sum_p = (hrange + 2) * TA(src_c, src_l, 0);
	375	for (z = 1; z < hrange; z++)
	376	{
	377	sum_p = sum_p + TA(src_c, src_l, z);
	378	}
	379
	380	// first domain : from 0 to hrange
	381	for (p = 0; p < hrange + 1; p++)
	382	{
	383	// dst_c and dst_p are the cluster index and the pixel index for B
	384	int dst_c = p / pixels_per_cluster;
	385	int dst_p = p % pixels_per_cluster;
	386	sum_p = sum_p + (int) TA(src_c, src_l, p + hrange) - (int) TA(src_c, src_l, 0);
	387	TB(dst_c, dst_p, l) = sum_p / hnorm;
	388	TD(src_c, src_l, p) = (int) TA(src_c, src_l, p) - sum_p / hnorm;
	389	}
	390	// second domain : from (hrange+1) to (NP-hrange-1)
	391	for (p = hrange + 1; p < NP - hrange; p++)
	392	{
	393	// dst_c and dst_p are the cluster index and the pixel index for B
	394	int dst_c = p / pixels_per_cluster;
	395	int dst_p = p % pixels_per_cluster;
	396	sum_p = sum_p + (int) TA(src_c, src_l, p + hrange)
	397	- (int) TA(src_c, src_l, p - hrange - 1);
	398	TB(dst_c, dst_p, l) = sum_p / hnorm;
	399	TD(src_c, src_l, p) = (int) TA(src_c, src_l, p) - sum_p / hnorm;
	400	}
	401	// third domain : from (NP-hrange) to (NP-1)
	402	for (p = NP - hrange; p < NP; p++)
	403	{
	404	// dst_c and dst_p are the cluster index and the pixel index for B
	405	int dst_c = p / pixels_per_cluster;
	406	int dst_p = p % pixels_per_cluster;
	407	sum_p = sum_p + (int) TA(src_c, src_l, NP - 1)
	408	- (int) TA(src_c, src_l, p - hrange - 1);
	409	TB(dst_c, dst_p, l) = sum_p / hnorm;
	410	TD(src_c, src_l, p) = (int) TA(src_c, src_l, p) - sum_p / hnorm;
	411	}
	412
[353]	413	#if SUPER_VERBOSE
	414	giet_shr_printf(" - line %d computed at cycle %d\n", l, giet_proctime() );
	415	#endif
	416
[334]	417	}
	418
	419	date = giet_proctime();
	420	H_END[cluster_id][lpid] = date;
	421
[353]	422	#if VERBOSE
	423	giet_shr_printf( "\n[CONVOL] task[%d,%d,%d] completes horizontal filter"
	424	" at cycle %d\n",
	425	x, y, lpid, date );
	426	#else
[432]	427	if ( (x==0) && (y==0) && (lpid==0) )
	428	giet_shr_printf( "\n[CONVOL] task[0,0,0] completes horizontal filter"
	429	" at cycle %d\n", date );
[353]	430	#endif
	431
[377]	432	/////////////////////////////
[502]	433	#if USE_SQT_BARRIER
	434	sqt_barrier_wait( &barrier );
[377]	435	#else
	436	barrier_wait( &barrier );
	437	#endif
[334]	438
[372]	439
[353]	440	///////////////////////////////////////////////////////////////
[334]	441	// parallel vertical filter :
	442	// C <= transpose(FV(B))
	443	// Each task computes (NP/ntasks) columns
	444	// The image must be extended :
	445	// if (l<0) TB(cluster_id,p,l) == TB(cluster_id,p,0)
	446	// if (l>NL-1) TB(cluster_id,p,l) == TB(cluster_id,p,NL-1)
[353]	447	///////////////////////////////////////////////////////////////
[334]	448
	449	date = giet_proctime();
	450	V_BEG[cluster_id][lpid] = date;
	451
[353]	452	#if VERBOSE
	453	giet_shr_printf( "\n[CONVOL] task[%d,%d,%d] starts vertical filter"
	454	" at cycle %d\n",
	455	x, y, lpid, date );
	456	#else
[432]	457	if ( (x==0) && (y==0) && (lpid==0) )
	458	giet_shr_printf( "\n[CONVOL] task[0,0,0] starts vertical filter"
	459	" at cycle %d\n", date );
[353]	460	#endif
	461
[334]	462	// l = absolute line index / p = absolute pixel index
	463	// first & last define which pixels are handled by a given task
	464
	465	first = task_id * pixels_per_task;
	466	last = first + pixels_per_task;
	467
	468	for (p = first; p < last; p++)
	469	{
	470	// src_c and src_p are the cluster index and the pixel index for B
	471	int src_c = p / pixels_per_cluster;
	472	int src_p = p % pixels_per_cluster;
	473
	474	int sum_l;
	475
	476	// We use the specific values of the vertical ep-filter
	477	// To minimize the number of tests, the NL lines are split in three domains
	478
	479	// first domain : explicit computation for the first 18 values
	480	for (l = 0; l < 18; l++)
	481	{
	482	// dst_c and dst_l are the cluster index and the line index for C
	483	int dst_c = l / lines_per_cluster;
	484	int dst_l = l % lines_per_cluster;
	485
	486	for (z = 0, sum_l = 0; z < 35; z++)
	487	{
	488	sum_l = sum_l + vf[z] * TB(src_c, src_p, max(l - 17 + z,0) );
	489	}
	490	TC(dst_c, dst_l, p) = sum_l / vnorm;
	491	}
	492	// second domain
	493	for (l = 18; l < NL - 17; l++)
	494	{
	495	// dst_c and dst_l are the cluster index and the line index for C
	496	int dst_c = l / lines_per_cluster;
	497	int dst_l = l % lines_per_cluster;
	498
	499	sum_l = sum_l + TB(src_c, src_p, l + 4)
	500	+ TB(src_c, src_p, l + 8)
	501	+ TB(src_c, src_p, l + 11)
	502	+ TB(src_c, src_p, l + 15)
	503	+ TB(src_c, src_p, l + 17)
	504	- TB(src_c, src_p, l - 5)
	505	- TB(src_c, src_p, l - 9)
	506	- TB(src_c, src_p, l - 12)
	507	- TB(src_c, src_p, l - 16)
	508	- TB(src_c, src_p, l - 18);
	509
	510	TC(dst_c, dst_l, p) = sum_l / vnorm;
	511	}
	512	// third domain
	513	for (l = NL - 17; l < NL; l++)
	514	{
	515	// dst_c and dst_l are the cluster index and the line index for C
	516	int dst_c = l / lines_per_cluster;
	517	int dst_l = l % lines_per_cluster;
	518
	519	sum_l = sum_l + TB(src_c, src_p, min(l + 4, NL - 1))
	520	+ TB(src_c, src_p, min(l + 8, NL - 1))
	521	+ TB(src_c, src_p, min(l + 11, NL - 1))
	522	+ TB(src_c, src_p, min(l + 15, NL - 1))
	523	+ TB(src_c, src_p, min(l + 17, NL - 1))
	524	- TB(src_c, src_p, l - 5)
	525	- TB(src_c, src_p, l - 9)
	526	- TB(src_c, src_p, l - 12)
	527	- TB(src_c, src_p, l - 16)
	528	- TB(src_c, src_p, l - 18);
	529
	530	TC(dst_c, dst_l, p) = sum_l / vnorm;
	531	}
	532
[353]	533	#if SUPER_VERBOSE
	534	giet_shr_printf(" - column %d computed at cycle %d\n", p, giet_proctime());
	535	#endif
	536
[334]	537	}
	538
	539	date = giet_proctime();
	540	V_END[cluster_id][lpid] = date;
	541
[353]	542	#if VERBOSE
	543	giet_shr_printf( "\n[CONVOL] task[%d,%d,%d] completes vertical filter"
	544	" at cycle %d\n",
	545	x, y, lpid, date );
	546	#else
[432]	547	if ( (x==0) && (y==0) && (lpid==0) )
	548	giet_shr_printf( "\n[CONVOL] task[0,0,0] completes vertical filter"
	549	" at cycle %d\n", date );
[353]	550	#endif
	551
[377]	552	////////////////////////////
[502]	553	#if USE_SQT_BARRIER
	554	sqt_barrier_wait( &barrier );
[377]	555	#else
	556	barrier_wait( &barrier );
	557	#endif
[334]	558
	559	////////////////////////////////////////////////////////////////
	560	// Optional parallel display of the final image Z <= D + C
	561	// Eah task displays (NL/ntasks) lines. (one byte per pixel).
	562	////////////////////////////////////////////////////////////////
	563
	564	if ( FINAL_DISPLAY_ENABLE )
	565	{
	566	date = giet_proctime();
	567	D_BEG[cluster_id][lpid] = date;
	568
[353]	569	#if VERBOSE
	570	giet_shr_printf( "\n[CONVOL] task[%d,%d,%d] starts final display"
	571	" at cycle %d\n",
	572	x, y, lpid, date);
	573	#else
[432]	574	if ( (x==0) && (y==0) && (lpid==0) )
	575	giet_shr_printf( "\n[CONVOL] task[0,0,0] starts final display"
	576	" at cycle %d\n", date );
[353]	577	#endif
	578
[334]	579	unsigned int line;
	580	unsigned int offset = lines_per_task * lpid;
	581
	582	for ( l = 0 ; l < lines_per_task ; l++ )
	583	{
	584	line = offset + l;
	585
	586	for ( p = 0 ; p < NP ; p++ )
	587	{
	588	TZ(cluster_id, line, p) =
	589	(unsigned char)( (TD(cluster_id, line, p) +
	590	TC(cluster_id, line, p) ) >> 8 );
	591	}
	592
[444]	593	giet_fbf_sync_write( NP(l + (task_id lines_per_task) ),
	594	&TZ(cluster_id, line, 0),
	595	NP);
[334]	596	}
	597
	598	date = giet_proctime();
	599	D_END[cluster_id][lpid] = date;
[353]	600
	601	#if VERBOSE
	602	giet_shr_printf( "\n[CONVOL] task[%d,%d,%d] completes final display"
	603	" at cycle %d\n",
	604	x, y, lpid, date);
	605	#else
[432]	606	if ( (x==0) && (y==0) && (lpid==0) )
	607	giet_shr_printf( "\n[CONVOL] task[0,0,0] completes final display"
	608	" at cycle %d\n", date );
[353]	609	#endif
[334]	610
[377]	611	//////////////////////////////
[502]	612	#if USE_SQT_BARRIER
	613	sqt_barrier_wait( &barrier );
[377]	614	#else
	615	barrier_wait( &barrier );
	616	#endif
[372]	617
[334]	618	}
	619
	620	/////////////////////////////////////////////////////////
	621	// Task[0,0,0] makes the instrumentation
	622	/////////////////////////////////////////////////////////
	623
[432]	624	if ( (x==0) && (y==0) && (lpid==0) )
[334]	625	{
	626	date = giet_proctime();
[353]	627	giet_shr_printf("\n[CONVOL] task[0,0,0] starts instrumentation"
	628	" at cycle %d\n\n", date );
[334]	629
	630	int cc, pp;
	631
	632	unsigned int min_start = 0xFFFFFFFF;
	633	unsigned int max_start = 0;
	634
	635	unsigned int min_h_beg = 0xFFFFFFFF;
	636	unsigned int max_h_beg = 0;
	637
	638	unsigned int min_h_end = 0xFFFFFFFF;
	639	unsigned int max_h_end = 0;
	640
	641	unsigned int min_v_beg = 0xFFFFFFFF;
	642	unsigned int max_v_beg = 0;
	643
	644	unsigned int min_v_end = 0xFFFFFFFF;
	645	unsigned int max_v_end = 0;
	646
	647	unsigned int min_d_beg = 0xFFFFFFFF;
	648	unsigned int max_d_beg = 0;
	649
	650	unsigned int min_d_end = 0xFFFFFFFF;
	651	unsigned int max_d_end = 0;
	652
	653	for (cc = 0; cc < nclusters; cc++)
	654	{
	655	for (pp = 0; pp < nprocs; pp++ )
	656	{
	657	if (START[cc][pp] < min_start) min_start = START[cc][pp];
	658	if (START[cc][pp] > max_start) max_start = START[cc][pp];
	659
	660	if (H_BEG[cc][pp] < min_h_beg) min_h_beg = H_BEG[cc][pp];
	661	if (H_BEG[cc][pp] > max_h_beg) max_h_beg = H_BEG[cc][pp];
	662
	663	if (H_END[cc][pp] < min_h_end) min_h_end = H_END[cc][pp];
	664	if (H_END[cc][pp] > max_h_end) max_h_end = H_END[cc][pp];
	665
	666	if (V_BEG[cc][pp] < min_v_beg) min_v_beg = V_BEG[cc][pp];
	667	if (V_BEG[cc][pp] > max_v_beg) max_v_beg = V_BEG[cc][pp];
	668
	669	if (V_END[cc][pp] < min_v_end) min_v_end = V_END[cc][pp];
	670	if (V_END[cc][pp] > max_v_end) max_v_end = V_END[cc][pp];
	671
	672	if (D_BEG[cc][pp] < min_d_beg) min_d_beg = D_BEG[cc][pp];
	673	if (D_BEG[cc][pp] > max_d_beg) max_d_beg = D_BEG[cc][pp];
	674
	675	if (D_END[cc][pp] < min_d_end) min_d_end = D_END[cc][pp];
	676	if (D_END[cc][pp] > max_d_end) max_d_end = D_END[cc][pp];
	677	}
	678	}
	679
	680	giet_shr_printf(" - START : min = %d / max = %d / med = %d / delta = %d\n",
	681	min_start, max_start, (min_start+max_start)/2, max_start-min_start);
	682
	683	giet_shr_printf(" - H_BEG : min = %d / max = %d / med = %d / delta = %d\n",
	684	min_h_beg, max_h_beg, (min_h_beg+max_h_beg)/2, max_h_beg-min_h_beg);
	685
[353]	686	giet_shr_printf(" - H_END : min = %d / max = %d / med = %d / delta = %d\n",
[334]	687	min_h_end, max_h_end, (min_h_end+max_h_end)/2, max_h_end-min_h_end);
	688
	689	giet_shr_printf(" - V_BEG : min = %d / max = %d / med = %d / delta = %d\n",
	690	min_v_beg, max_v_beg, (min_v_beg+max_v_beg)/2, max_v_beg-min_v_beg);
	691
[353]	692	giet_shr_printf(" - V_END : min = %d / max = %d / med = %d / delta = %d\n",
[334]	693	min_v_end, max_v_end, (min_v_end+max_v_end)/2, max_v_end-min_v_end);
	694
	695	giet_shr_printf(" - D_BEG : min = %d / max = %d / med = %d / delta = %d\n",
	696	min_d_beg, max_d_beg, (min_d_beg+max_d_beg)/2, max_d_beg-min_d_beg);
	697
[353]	698	giet_shr_printf(" - D_END : min = %d / max = %d / med = %d / delta = %d\n",
[334]	699	min_d_end, max_d_end, (min_d_end+max_d_end)/2, max_d_end-min_d_end);
	700
	701	giet_shr_printf( "\n General Scenario (Kcycles for each step)\n" );
[353]	702	giet_shr_printf( " - BOOT OS = %d\n", (min_start )/1000 );
	703	giet_shr_printf( " - LOAD IMAGE = %d\n", (min_h_beg - min_start)/1000 );
	704	giet_shr_printf( " - H_FILTER = %d\n", (max_h_end - min_h_beg)/1000 );
	705	giet_shr_printf( " - BARRIER HORI/VERT = %d\n", (min_v_beg - max_h_end)/1000 );
	706	giet_shr_printf( " - V_FILTER = %d\n", (max_v_end - min_v_beg)/1000 );
	707	giet_shr_printf( " - BARRIER VERT/DISP = %d\n", (min_d_beg - max_v_end)/1000 );
	708	giet_shr_printf( " - DISPLAY = %d\n", (max_d_end - min_d_beg)/1000 );
[334]	709
[372]	710	instrumentation_ok = 1;
[334]	711	}
	712	else
	713	{
[372]	714	while ( instrumentation_ok == 0 );
[334]	715	}
	716
	717	giet_exit( "completed");
	718
	719	} // end main()
	720
	721	// Local Variables:
	722	// tab-width: 3
	723	// c-basic-offset: 3
	724	// c-file-offsets:((innamespace . 0)(inline-open . 0))
	725	// indent-tabs-mode: nil
	726	// End:
	727
	728	// vim: filetype=cpp:expandtab:shiftwidth=3:tabstop=3:softtabstop=3
	729
	730

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