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source: tags/ms_r17q3/ARBDB/adseqcompr.cxx

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Last change on this file was 15513, checked in by westram, 8 years ago
reintegrates 'warnings' into 'trunk' activate additional warnings (gcc 5.x++) Cxx11-forward final (classes+methods) fix tag problems caused by using preprocessor adds: log:branches/warnings@15486:15489,15491:15501,15506:15512
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1	// =============================================================== //
2	// //
3	// File : adseqcompr.cxx //
4	// Purpose : //
5	// //
6	// Institute of Microbiology (Technical University Munich) //
7	// http://www.arb-home.de/ //
8	// //
9	// =============================================================== //
10
11	#include <arb_progress.h>
12	#include <arb_file.h>
13	#include <arb_misc.h>
14	#include <arb_diff.h>
15	#include "ad_cb.h"
16	#include "gb_key.h"
17	#include "TreeNode.h"
18
19	#include <climits>
20
21	// --------------------------------------------------------------------------------
22
23	#define MAX_SEQUENCE_PER_MASTER 50 // was 18 till May 2008
24
25	#if defined(DEBUG)
26	// don't do optimize, only create tree and save to DB
27	// #define SAVE_COMPRESSION_TREE_TO_DB
28	#endif // DEBUG
29
30	// --------------------------------------------------------------------------------
31
32	struct CompressionRoot : public TreeRoot {
33	CompressionRoot();
34	TreeNode *makeNode() const OVERRIDE;
35	void destroyNode(TreeNode *node) const OVERRIDE;
36	};
37
38	class CompressionTree FINAL_TYPE : public TreeNode {
39	protected:
40	~CompressionTree() OVERRIDE {}
41	friend class CompressionRoot;
42	public:
43
44	// members initialized by init_indices_and_count_sons
45	int index; // master(inner nodes) or sequence(leaf nodes) index
46	int sons; // sons with sequence or masters (in subtree)
47
48	CompressionTree(CompressionRoot *croot) : TreeNode(croot) {}
49
50	unsigned get_leaf_count() const OVERRIDE {
51	gb_assert(0); // @@@ impl (see also GBT_count_leafs and AP_pos_var::getsize)
52	return 0;
53	}
54	void compute_tree() OVERRIDE {}
55
56	DEFINE_TREE_ACCESSORS(CompressionRoot, CompressionTree);
57	};
58
59	CompressionRoot::CompressionRoot() : TreeRoot(true) {}
60	TreeNode CompressionRoot::makeNode() const { return new CompressionTree(const_cast<CompressionRoot>(this)); }
61	void CompressionRoot::destroyNode(TreeNode node) const { delete DOWNCAST(CompressionTree,node); }
62
63	struct Consensus {
64	int len;
65	char used[256];
66	unsigned char *con[256];
67	};
68
69	struct Sequence {
70	GBENTRY *gb_seq;
71	int master;
72	};
73
74	struct MasterSequence {
75	GBENTRY *gb_mas;
76	int master;
77	};
78
79	// --------------------------------------------------------------------------------
80
81	static Consensus *g_b_new_Consensus(long len) {
82	Consensus *gcon = ARB_calloc<Consensus>(1);
83	unsigned char data = ARB_calloc<unsigned char>(256len);
84
85	gcon->len = len;
86
87	for (int i=0; i<256; i++) {
88	gcon->con[i] = data + len*i;
89	}
90	return gcon;
91	}
92
93
94	static void g_b_delete_Consensus(Consensus *gcon) {
95	free(gcon->con[0]);
96	free(gcon);
97	}
98
99
100	static void g_b_Consensus_add(Consensus gcon, unsigned char seq, long seq_len) {
101	const int max_priority = 255/MAX_SEQUENCE_PER_MASTER; // No overflow possible
102	gb_assert(max_priority >= 1);
103
104	if (seq_len > gcon->len) seq_len = gcon->len;
105
106	// Search for runs
107	unsigned char *s = seq;
108	int last = 0;
109	int i;
110	int li;
111	int c;
112
113	for (li = i = 0; i < seq_len; i++) {
114	c = *(s++);
115	if (c == last) {
116	continue;
117	}
118	else {
119	inc_hits :
120	int eq_count = i-li;
121	gcon->used[c] = 1;
122	unsigned char *p = gcon->con[last];
123	last = c;
124
125	if (eq_count <= GB_RUNLENGTH_SIZE) {
126	c = max_priority;
127	while (li < i) p[li++] += c;
128	}
129	else {
130	c = max_priority * (GB_RUNLENGTH_SIZE) / eq_count;
131	if (c) {
132	while (li < i) p[li++] += c;
133	}
134	else {
135	while (li < i) p[li++] \|= 1;
136	}
137	}
138	}
139	}
140	if (li<seq_len) {
141	c = last;
142	i = seq_len;
143	goto inc_hits;
144	}
145	}
146
147	static char g_b_Consensus_get_sequence(Consensus gcon) {
148	int pos;
149
150	unsigned char *s;
151
152	unsigned char *max = ARB_calloc<unsigned char>(gcon->len);
153	char *seq = ARB_calloc<char>(gcon->len+1);
154
155	memset(seq, '@', gcon->len);
156
157	for (int c = 1; c<256; c++) { // Find maximum frequency of non run
158	if (!gcon->used[c]) continue;
159	s = gcon->con[c];
160	for (pos = 0; pos<gcon->len; pos++) {
161	if (*s > max[pos]) {
162	max[pos] = *s;
163	seq[pos] = c;
164	}
165	s++;
166	}
167	}
168	free(max);
169	return seq;
170	}
171
172
173	static int g_b_count_leafs(CompressionTree *node) {
174	if (node->is_leaf) return 1;
175	node->gb_node = 0;
176	return (g_b_count_leafs(node->get_leftson()) + g_b_count_leafs(node->get_rightson()));
177	}
178
179	static void g_b_put_sequences_in_container(CompressionTree ctree, Sequence seqs, MasterSequence *masters, Consensus gcon) {
180	if (ctree->is_leaf) {
181	if (ctree->index >= 0) {
182	GB_CSTR data = GB_read_char_pntr(seqs[ctree->index].gb_seq);
183	long len = GB_read_string_count(seqs[ctree->index].gb_seq);
184	g_b_Consensus_add(gcon, (unsigned char *)data, len);
185	}
186	}
187	else if (ctree->index<0) {
188	g_b_put_sequences_in_container(ctree->get_leftson(), seqs, masters, gcon);
189	g_b_put_sequences_in_container(ctree->get_rightson(), seqs, masters, gcon);
190	}
191	else {
192	GB_CSTR data = GB_read_char_pntr(masters[ctree->index]->gb_mas);
193	long len = GB_read_string_count(masters[ctree->index]->gb_mas);
194	g_b_Consensus_add(gcon, (unsigned char *)data, len);
195	}
196	}
197
198	static void g_b_create_master(CompressionTree node, Sequence seqs, MasterSequence *masters, int my_master, const char ali_name, long seq_len, arb_progress& progress) {
199	if (node->is_leaf) {
200	if (node->index >= 0) {
201	GBDATA *gb_data = GBT_find_sequence(node->gb_node, ali_name);
202
203	seqs[node->index].gb_seq = gb_data->as_entry();
204	seqs[node->index].master = my_master;
205	}
206	}
207	else {
208	if (progress.aborted()) return;
209
210	if (node->index>=0) {
211	masters[node->index]->master = my_master;
212	my_master = node->index;
213	}
214	g_b_create_master(node->get_leftson(), seqs, masters, my_master, ali_name, seq_len, progress);
215	g_b_create_master(node->get_rightson(), seqs, masters, my_master, ali_name, seq_len, progress);
216	if (node->index>=0 && !progress.aborted()) { // build me
217	char *data;
218	Consensus *gcon = g_b_new_Consensus(seq_len);
219
220	g_b_put_sequences_in_container(node->get_leftson(), seqs, masters, gcon);
221	g_b_put_sequences_in_container(node->get_rightson(), seqs, masters, gcon);
222
223	data = g_b_Consensus_get_sequence(gcon);
224
225	GB_write_string(masters[node->index]->gb_mas, data);
226	GB_write_security_write(masters[node->index]->gb_mas, 7);
227
228	g_b_delete_Consensus(gcon);
229	free(data);
230
231	++progress;
232	}
233	}
234	}
235
236	// -------------------------------------
237	// distribute master sequences
238
239	static void subtract_sons_from_tree(CompressionTree *node, int subtract) {
240	while (node) {
241	node->sons -= subtract;
242	node = node->get_father();
243	}
244	}
245
246	static int set_masters_with_sons(CompressionTree node, int wantedSons, int mcount) {
247	if (!node->is_leaf) {
248	if (node->sons == wantedSons) {
249	// insert new master
250	gb_assert(node->index == -1);
251	node->index = *mcount;
252	(*mcount)++;
253
254	subtract_sons_from_tree(node->get_father(), node->sons-1);
255	node->sons = 1;
256	}
257	else if (node->sons>wantedSons) {
258	int lMax = set_masters_with_sons(node->get_leftson(), wantedSons, mcount);
259	int rMax = set_masters_with_sons(node->get_rightson(), wantedSons, mcount);
260
261	int maxSons = lMax<rMax ? rMax : lMax;
262	if (node->sons <= MAX_SEQUENCE_PER_MASTER && node->sons>maxSons) {
263	maxSons = node->sons;
264	}
265	return maxSons;
266	}
267	}
268	return node->sons <= MAX_SEQUENCE_PER_MASTER ? node->sons : 0;
269	}
270
271	static int maxCompressionSteps(CompressionTree *node) {
272	if (node->is_leaf) {
273	return 0;
274	}
275
276	int left = maxCompressionSteps(node->get_leftson());
277	int right = maxCompressionSteps(node->get_rightson());
278
279	#if defined(SAVE_COMPRESSION_TREE_TO_DB)
280	freenull(node->name);
281	if (node->index2 != -1) {
282	node->name = GBS_global_string_copy("master_%03i", node->index2);
283	}
284	#endif // SAVE_COMPRESSION_TREE_TO_DB
285
286	return (left>right ? left : right) + (node->index == -1 ? 0 : 1);
287	}
288
289	static int init_indices_and_count_sons(CompressionTree node, int scount, const char *ali_name) {
290	if (node->is_leaf) {
291	if (node->gb_node == 0 \|\| !GBT_find_sequence(node->gb_node, (char *)ali_name)) {
292	node->index = -1;
293	node->sons = 0;
294	}
295	else {
296	node->index = *scount;
297	node->sons = 1;
298	(*scount)++;
299	}
300	}
301	else {
302	node->index = -1;
303	node->sons =
304	init_indices_and_count_sons(node->get_leftson(), scount, ali_name) +
305	init_indices_and_count_sons(node->get_rightson(), scount, ali_name);
306	}
307	return node->sons;
308	}
309
310	static void distribute_masters(CompressionTree tree, int mcount, int *max_masters) {
311	int wantedSons = MAX_SEQUENCE_PER_MASTER;
312	while (wantedSons >= 2) {
313	int maxSons = set_masters_with_sons(tree, wantedSons, mcount);
314	wantedSons = maxSons;
315	}
316	gb_assert(tree->sons == 1);
317
318	gb_assert(tree->index != -1);
319	*max_masters = maxCompressionSteps(tree);
320	}
321
322	// --------------------------------------------------------------------------------
323
324	#define MAX_NUMBER 0x7fffffff
325	STATIC_ASSERT(MAX_NUMBER <= INT_MAX); // ensure 32-bit-version compatibility!
326
327	inline int g_b_read_number2(const unsigned char*& s) {
328	int result;
329	unsigned c0 = *s++;
330	if (c0 & 0x80) {
331	unsigned c1 = *s++;
332	if (c0 & 0x40) {
333	unsigned c2 = *s++;
334	if (c0 & 0x20) {
335	unsigned c3 = *s++;
336	if (c0 & 0x10) {
337	unsigned c4 = *s++;
338	result = c4 \| (c3<<8) \| (c2<<16) \| (c1<<24);
339	}
340	else {
341	result = c3 \| (c2<<8) \| (c1<<16) \| ((c0 & 0x0f)<<24);
342	}
343	}
344	else {
345	result = c2 \| (c1<<8) \| ((c0 & 0x1f)<<16);
346	}
347	}
348	else {
349	result = c1 \| ((c0 & 0x3f)<<8);
350	}
351	}
352	else {
353	result = c0;
354	}
355	gb_assert(result >= 0 && result <= MAX_NUMBER);
356	return result;
357	}
358
359	inline void g_b_put_number2(int i, unsigned char*& s) {
360	gb_assert(i >= 0 && i <= MAX_NUMBER);
361
362	if (i< 0x80) {
363	*s++ = i;
364	}
365	else {
366	int j;
367	if (i<0x4000) {
368	j = (i>>8) \| 0x80; *s++ = j;
369	*s++ = i;
370	}
371	else if (i<0x200000) {
372	j = (i>>16) \| 0xC0; *s++ = j;
373	j = (i>>8); *s++ = j;
374	*s++ = i;
375	}
376	else if (i<0x10000000) {
377	j = (i>>24) \| 0xE0; *s++ = j;
378	j = (i>>16); *s++ = j;
379	j = (i>>8); *s++ = j;
380	*s++ = i;
381	}
382	else {
383	*s++ = 0xF0;
384	j = (i>>24); *s++ = j;
385	j = (i>>16); *s++ = j;
386	j = (i>>8); *s++ = j;
387	*s++ = i;
388	}
389	}
390	}
391
392	// --------------------------------------------------------------------------------
393
394	#ifdef UNIT_TESTS
395	#ifndef TEST_UNIT_H
396	#include <test_unit.h>
397	#endif
398
399	static arb_test::match_expectation put_read_num_using_bytes(int num_written, int bytes_expected, unsigned char *buffer_expected = NULL) {
400	const int BUFSIZE = 6;
401	unsigned char buffer[BUFSIZE];
402
403	using namespace arb_test;
404
405	unsigned char INIT = 0xaa;
406	memset(buffer, INIT, BUFSIZE);
407
408	expectation_group expected;
409
410	{
411	unsigned char *bp = buffer;
412	g_b_put_number2(num_written, bp);
413
414	size_t bytes_written = bp-buffer;
415	expected.add(that(bytes_written).is_equal_to(bytes_expected));
416
417	if (buffer_expected) {
418	expected.add(that(arb_test::memory_is_equal(buffer, buffer_expected, bytes_expected)).is_equal_to(true));
419	}
420	}
421	{
422	const unsigned char *bp = buffer;
423
424	int num_read = g_b_read_number2(bp);
425	expected.add(that(num_read).is_equal_to(num_written));
426
427	size_t bytes_read = bp-buffer;
428	expected.add(that(bytes_read).is_equal_to(bytes_expected));
429	}
430
431	expected.add(that(buffer[bytes_expected]).is_equal_to(INIT));
432
433	return all().ofgroup(expected);
434	}
435
436	#define TEST_PUT_READ_NUMBER(num,expect_bytes) TEST_EXPECTATION(put_read_num_using_bytes(num, expect_bytes))
437	#define TEST_PUT_READ_NUMBER__BROKEN(num,expect_bytes) TEST_EXPECTATION__BROKEN(put_read_num_using_bytes(num, expect_bytes))
438
439	#define TEST_PUT_NUMBER_BINARY1(num, byte1) do { \
440	unsigned char buf[1]; \
441	buf[0] = byte1; \
442	TEST_EXPECTATION(put_read_num_using_bytes(num, 1, buf)); \
443	} while(0)
444
445	#define TEST_PUT_NUMBER_BINARY2(num, byte1, byte2) do { \
446	unsigned char buf[2]; \
447	buf[0] = byte1; \
448	buf[1] = byte2; \
449	TEST_EXPECTATION(put_read_num_using_bytes(num, 2, buf)); \
450	} while(0)
451
452	#define TEST_PUT_NUMBER_BINARY3(num, byte1, byte2, byte3) do { \
453	unsigned char buf[3]; \
454	buf[0] = byte1; \
455	buf[1] = byte2; \
456	buf[2] = byte3; \
457	TEST_EXPECTATION(put_read_num_using_bytes(num, 3, buf)); \
458	} while(0)
459
460	#define TEST_PUT_NUMBER_BINARY4(num, byte1, byte2, byte3, byte4) do { \
461	unsigned char buf[4]; \
462	buf[0] = byte1; \
463	buf[1] = byte2; \
464	buf[2] = byte3; \
465	buf[3] = byte4; \
466	TEST_EXPECTATION(put_read_num_using_bytes(num, 4, buf)); \
467	} while(0)
468
469	#define TEST_PUT_NUMBER_BINARY5(num, byte1, byte2, byte3, byte4, byte5) do { \
470	unsigned char buf[5]; \
471	buf[0] = byte1; \
472	buf[1] = byte2; \
473	buf[2] = byte3; \
474	buf[3] = byte4; \
475	buf[4] = byte5; \
476	TEST_EXPECTATION(put_read_num_using_bytes(num, 5, buf)); \
477	} while(0)
478
479	void TEST_put_read_number() {
480	// test that put and read are compatible:
481	TEST_PUT_READ_NUMBER(0x0, 1);
482
483	TEST_PUT_READ_NUMBER(0x7f, 1);
484	TEST_PUT_READ_NUMBER(0x80, 2);
485
486	TEST_PUT_READ_NUMBER(0x3fff, 2);
487	TEST_PUT_READ_NUMBER(0x4000, 3);
488
489	TEST_PUT_READ_NUMBER(0x1fffff, 3);
490	TEST_PUT_READ_NUMBER(0x200000, 4);
491
492	TEST_PUT_READ_NUMBER(0xfffffff, 4);
493
494	TEST_PUT_READ_NUMBER(0x10000000, 5);
495	TEST_PUT_READ_NUMBER(0x7fffffff, 5);
496
497	// test binary compatibility:
498	// (code affects DB content, cannot be changed)
499
500	TEST_PUT_NUMBER_BINARY1(0x0, 0x00);
501	TEST_PUT_NUMBER_BINARY1(0x7f, 0x7f);
502
503	TEST_PUT_NUMBER_BINARY2(0x80, 0x80, 0x80);
504	TEST_PUT_NUMBER_BINARY2(0x81, 0x80, 0x81);
505	TEST_PUT_NUMBER_BINARY2(0x3fff, 0xbf, 0xff);
506
507	TEST_PUT_NUMBER_BINARY3(0x4000, 0xc0, 0x40, 0x00);
508	TEST_PUT_NUMBER_BINARY3(0x1fffff, 0xdf, 0xff, 0xff);
509
510	TEST_PUT_NUMBER_BINARY4(0x200000, 0xe0, 0x20, 0x00, 0x00);
511	TEST_PUT_NUMBER_BINARY4(0xfffffff, 0xef, 0xff, 0xff, 0xff);
512
513	TEST_PUT_NUMBER_BINARY5(0x10000000, 0xf0, 0x10, 0x00, 0x00, 0x00);
514	TEST_PUT_NUMBER_BINARY5(0x7fffffff, 0xf0, 0x7f, 0xff, 0xff, 0xff);
515	}
516
517	#endif // UNIT_TESTS
518
519	// --------------------------------------------------------------------------------
520
521
522	static char gb_compress_seq_by_master(const char master, size_t master_len, int master_index,
523	GBQUARK q, const char *seq, size_t seq_len,
524	size_t *memsize, int old_flag) {
525	unsigned char *buffer;
526	int rest = 0;
527	unsigned char *d;
528	int i, cs, cm;
529	int last;
530	long len = seq_len;
531
532	d = buffer = (unsigned char *)GB_give_other_buffer(seq, seq_len);
533
534	if (seq_len > master_len) {
535	rest = seq_len - master_len;
536	len = master_len;
537	}
538
539	last = -1000; // Convert Sequence relative to Master
540	for (i = len; i>0; i--) {
541	cm = *(master++);
542	cs = *(seq++);
543	if (cm==cs && cs != last) {
544	*(d++) = 0;
545	last = 1000;
546	}
547	else {
548	*(d++) = cs;
549	last = cs;
550	}
551	}
552	for (i = rest; i>0; i--) {
553	(d++) = (seq++);
554	}
555
556	{ // Append run length compression method
557	unsigned char *buffer2;
558	unsigned char *dest2;
559	buffer2 = dest2 = (unsigned char )GB_give_other_buffer((char )buffer, seq_len+100);
560	*(dest2++) = GB_COMPRESSION_SEQUENCE \| old_flag;
561
562	g_b_put_number2(master_index, dest2); // Tags
563	g_b_put_number2(q, dest2);
564
565	gb_compress_equal_bytes_2((char )buffer, seq_len, memsize, (char )dest2); // append runlength compressed sequences to tags
566
567	memsize = memsize + (dest2-buffer2);
568	return (char *)buffer2;
569	}
570	}
571
572	static char gb_compress_sequence_by_master(GBDATA gbd, const char *master, size_t master_len, int master_index,
573	GBQUARK q, const char seq, size_t seq_len, size_t memsize)
574	{
575	size_t size;
576	char *is = gb_compress_seq_by_master(master, master_len, master_index, q, seq, seq_len, &size, GB_COMPRESSION_LAST);
577	char *res = gb_compress_data(gbd, 0, is, size, memsize, ~(GB_COMPRESSION_DICTIONARY\|GB_COMPRESSION_SORTBYTES\|GB_COMPRESSION_RUNLENGTH), true);
578	return res;
579	}
580
581	static GB_ERROR compress_sequence_tree(GBCONTAINER gb_main, CompressionTree tree, const char *ali_name) {
582	GB_ERROR error = 0;
583	long ali_len = GBT_get_alignment_len(gb_main, ali_name);
584	int main_clock = GB_read_clock(gb_main);
585
586	GB_ERROR warning = NULL;
587
588	if (ali_len<0) {
589	warning = GBS_global_string("Skipping alignment '%s' (not a valid alignment; len=%li).", ali_name, ali_len);
590	GB_clear_error();
591	}
592	else {
593	int leafcount = g_b_count_leafs(tree);
594	if (!leafcount) {
595	error = "Tree is empty";
596	}
597	else {
598	arb_progress tree_progress("Compressing sequences", 4);
599
600	// Distribute masters in tree
601	int mastercount = 0;
602	int max_compSteps = 0; // in one branch
603	int seqcount = 0;
604
605	init_indices_and_count_sons(tree, &seqcount, ali_name);
606	if (!seqcount) {
607	warning = GBS_global_string("Tree contains no sequences with data in '%s'\n"
608	"Skipping compression for this alignment",
609	ali_name);
610	}
611	else {
612	distribute_masters(tree, &mastercount, &max_compSteps);
613
614	#if defined(SAVE_COMPRESSION_TREE_TO_DB)
615	{
616	error = GBT_link_tree(tree, gb_main, 0, NULL, NULL);
617	if (!error) error = GBT_write_tree(gb_main, 0, "tree_compression_new", tree);
618	GB_information("Only generated compression tree (do NOT save DB anymore)");
619	return error;
620	}
621	#endif // SAVE_COMPRESSION_TREE_TO_DB
622
623	// detect degenerated trees
624	{
625	int min_masters = ((seqcount-1)/MAX_SEQUENCE_PER_MASTER)+1;
626	int min_compSteps = 1;
627	{
628	int m = min_masters;
629	while (m>1) {
630	m = ((m-1)/MAX_SEQUENCE_PER_MASTER)+1;
631	min_masters += m;
632	min_compSteps++;
633	}
634	}
635
636	int acceptable_masters = (3*min_masters)/2; // accept 50% overhead
637	int acceptable_compSteps = 11*min_compSteps; // accept 1000% overhead
638
639	if (mastercount>acceptable_masters \|\| max_compSteps>acceptable_compSteps) {
640	GB_warningf("Tree is ill-suited for compression (cause of deep branches)\n"
641	" Used tree Optimal tree Overhead\n"
642	"Compression steps %5i %5i %4i%% (speed)\n"
643	"Master sequences %5i %5i %4i%% (size)\n"
644	"If you like to restart with a better tree,\n"
645	"press 'Abort' to stop compression",
646	max_compSteps, min_compSteps, (100*max_compSteps)/min_compSteps-100,
647	mastercount, min_masters, (100*mastercount)/min_masters-100);
648	}
649	}
650
651	gb_assert(mastercount>0);
652	}
653
654	if (!warning) {
655	GBCONTAINER *gb_master_ali = 0;
656	GBDATA *old_gb_master_ali = 0;
657	Sequence *seqs = 0;
658	GB_MAIN_TYPE *Main = GB_MAIN(gb_main);
659	GBQUARK ali_quark = gb_find_or_create_quark(Main, ali_name);
660	unsigned long long sumorg = 0;
661	unsigned long long sumold = 0;
662	unsigned long long sumnew = 0;
663	int si;
664
665	MasterSequence **masters; ARB_calloc(masters, leafcount);
666
667	{
668	char *masterfoldername = GBS_global_string_copy("%s/@master_data/@%s", GB_SYSTEM_FOLDER, ali_name);
669	old_gb_master_ali = GBDATA::as_container(GB_search(gb_main, masterfoldername, GB_FIND));
670	free(masterfoldername);
671	}
672
673	// create masters
674	if (!error) {
675	{
676	char *master_data_name = GBS_global_string_copy("%s/@master_data", GB_SYSTEM_FOLDER);
677	char *master_name = GBS_global_string_copy("@%s", ali_name);
678
679	GBCONTAINER *gb_master_data = gb_search(gb_main, master_data_name, GB_CREATE_CONTAINER, 1)->as_container();
680
681	// create a master container, the old is deleted as soon as all sequences are compressed by the new method
682	gb_master_ali = gb_create_container(gb_master_data, master_name);
683	GB_write_security_delete(gb_master_ali, 7);
684
685	free(master_name);
686	free(master_data_name);
687	}
688	for (si = 0; si<mastercount; si++) {
689	ARB_calloc(masters[si], 1);
690	masters[si]->gb_mas = gb_create(gb_master_ali, "@master", GB_STRING);
691	}
692	ARB_calloc(seqs, leafcount);
693
694	if (!error) {
695	arb_progress progress("Building master sequences", mastercount);
696	g_b_create_master(tree, seqs, masters, -1, ali_name, ali_len, progress);
697
698	error = progress.error_if_aborted();
699	}
700	}
701	tree_progress.inc_and_check_user_abort(error);
702
703	// Compress sequences in tree
704	if (!error) {
705	arb_progress progress("Compressing sequences in tree", seqcount);
706
707	for (si=0; si<seqcount && !error; si++) {
708	int mi = seqs[si].master;
709	MasterSequence *master = masters[mi];
710	GBDATA *gbd = seqs[si].gb_seq;
711
712	if (GB_read_clock(gbd) >= main_clock) {
713	GB_warning("A species seems to be more than once in the tree");
714	}
715	else {
716	char *seq = GB_read_string(gbd);
717	int seq_len = GB_read_string_count(gbd);
718	long sizen = GB_read_memuse(gbd);
719	char *seqm = GB_read_string(master->gb_mas);
720	int master_len = GB_read_string_count(master->gb_mas);
721	size_t sizes;
722	char *ss = gb_compress_sequence_by_master(gbd, seqm, master_len, mi, ali_quark, seq, seq_len, &sizes);
723
724	gb_write_compressed_pntr(gbd->as_entry(), ss, sizes, seq_len);
725	sizes = GB_read_memuse(gbd); // check real usage
726
727	sumnew += sizes;
728	sumold += sizen;
729	sumorg += seq_len;
730
731	free(seqm);
732	free(seq);
733	}
734
735	progress.inc_and_check_user_abort(error);
736	}
737	}
738	tree_progress.inc_and_check_user_abort(error);
739
740	// Compress rest of sequences
741	if (!error) {
742	int pass; // pass 1 : count species to compress, pass 2 : compress species
743	int speciesNotInTree = 0;
744
745	SmartPtr<arb_progress> progress;
746
747	for (pass = 1; pass <= 2; ++pass) {
748	GBDATA *gb_species_data = GBT_get_species_data(gb_main);
749	GBDATA *gb_species;
750	int count = 0;
751
752	for (gb_species = GBT_first_species_rel_species_data(gb_species_data);
753	gb_species;
754	gb_species = GBT_next_species(gb_species))
755	{
756	GBDATA *gbd = GBT_find_sequence(gb_species, ali_name);
757
758	if (!gbd) continue;
759	if (GB_read_clock(gbd) >= main_clock) continue; // Compress only those which are not compressed by masters
760	count++;
761	if (pass == 2) {
762	char *data = GB_read_string(gbd);
763	long seq_len = GB_read_string_count(gbd);
764	long size = GB_read_memuse(gbd);
765
766	GB_write_string(gbd, ""); // force recompression
767	GB_write_string(gbd, data);
768	free(data);
769
770	sumold += size;
771
772	size = GB_read_memuse(gbd);
773	sumnew += size;
774	sumorg += seq_len;
775
776	progress->inc_and_check_user_abort(error);
777	}
778	}
779	if (pass == 1) {
780	speciesNotInTree = count;
781	if (speciesNotInTree>0) {
782	progress = new arb_progress("Compressing sequences NOT in tree", speciesNotInTree);
783	}
784	}
785	}
786	}
787	tree_progress.inc_and_check_user_abort(error);
788
789	if (!error) {
790	arb_progress progress("Compressing master-sequences", mastercount);
791
792	// Compress all masters
793	for (si=0; si<mastercount; si++) {
794	int mi = masters[si]->master;
795
796	if (mi>0) { // master available
797	GBDATA *gbd = masters[si]->gb_mas;
798
799	gb_assert(mi>si); // we don't want a recursion, because we cannot uncompress sequence compressed masters, Main->gb_master_data is wrong
800
801	if (gb_read_nr(gbd) != si) { // Check database
802	GB_internal_error("Sequence Compression: Master Index Conflict");
803	error = GB_export_error("Sequence Compression: Master Index Conflict");
804	break;
805	}
806
807	{
808	MasterSequence *master = masters[mi];
809	char *seqm = GB_read_string(master->gb_mas);
810	int master_len = GB_read_string_count(master->gb_mas);
811	char *seq = GB_read_string(gbd);
812	int seq_len = GB_read_string_count(gbd);
813	size_t sizes;
814	char *ss = gb_compress_sequence_by_master(gbd, seqm, master_len, mi, ali_quark, seq, seq_len, &sizes);
815
816	gb_write_compressed_pntr(gbd->as_entry(), ss, sizes, seq_len);
817	sumnew += sizes;
818
819	free(seq);
820	free(seqm);
821	}
822
823	progress.inc_and_check_user_abort(error);
824	}
825	else { // count size of top master
826	GBDATA *gbd = masters[si]->gb_mas;
827	sumnew += GB_read_memuse(gbd);
828
829	progress.inc_and_check_user_abort(error);
830	}
831	}
832
833	// count size of old master data
834	if (!error) {
835	GBDATA *gb_omaster;
836	for (gb_omaster = GB_entry(old_gb_master_ali, "@master");
837	gb_omaster;
838	gb_omaster = GB_nextEntry(gb_omaster))
839	{
840	long size = GB_read_memuse(gb_omaster);
841	sumold += size;
842	}
843	}
844
845	if (!error) {
846	char *sizeOrg = ARB_strdup(GBS_readable_size(sumorg, "b"));
847	char *sizeOld = ARB_strdup(GBS_readable_size(sumold, "b"));
848	char *sizeNew = ARB_strdup(GBS_readable_size(sumnew, "b"));
849
850	GB_warningf("Alignment '%s':\n"
851	" Uncompressed data: %7s\n"
852	" Old compressed data: %7s = %6.2f%%\n"
853	" New compressed data: %7s = %6.2f%%",
854	ali_name, sizeOrg,
855	sizeOld, (100.0*sumold)/sumorg,
856	sizeNew, (100.0*sumnew)/sumorg);
857
858	free(sizeNew);
859	free(sizeOld);
860	free(sizeOrg);
861	}
862	}
863	tree_progress.inc_and_check_user_abort(error);
864
865	if (!error) {
866	if (old_gb_master_ali) error = GB_delete(old_gb_master_ali);
867	Main->keys[ali_quark].gb_master_ali = gb_master_ali;
868	}
869
870	// free data
871	free(seqs);
872	for (si=0; si<mastercount; si++) free(masters[si]);
873	free(masters);
874	}
875	else {
876	tree_progress.done();
877	}
878	}
879	}
880
881	if (warning) GB_information(warning);
882
883	return error;
884	}
885
886	GB_ERROR GBT_compress_sequence_tree2(GBDATA gbd, const char tree_name, const char *ali_name) { // goes to header: __ATTR__USERESULT // @@@ rename function
887	// Compress sequences, call only outside a transaction
888	GB_ERROR error = NULL;
889	GB_MAIN_TYPE *Main = GB_MAIN(gbd);
890
891	if (Main->get_transaction_level() > 0) {
892	error = "Compress Sequences called while transaction running";
893	GB_internal_error(error);
894	}
895	else {
896	GBCONTAINER *gb_main = Main->root_container;
897	GB_UNDO_TYPE prev_undo_type = GB_get_requested_undo_type(gb_main);
898
899	error = GB_request_undo_type(gb_main, GB_UNDO_KILL);
900	if (!error) {
901	error = GB_begin_transaction(gb_main);
902	if (!error) {
903	GB_push_my_security(gb_main);
904
905	if (!tree_name \|\| !strlen(tree_name)) {
906	tree_name = GBT_name_of_largest_tree(gb_main);
907	}
908
909	{
910	CompressionTree ctree = DOWNCAST(CompressionTree, GBT_read_tree(gb_main, tree_name, new CompressionRoot));
911	if (!ctree) error = GB_await_error();
912	else {
913	error = GBT_link_tree(ctree, gb_main, false, 0, 0);
914	if (!error) error = compress_sequence_tree(gb_main, ctree, ali_name);
915	destroy(ctree);
916	}
917	}
918	if (!error) GB_disable_quicksave(gb_main, "Database optimized");
919
920	GB_pop_my_security(gb_main);
921	error = GB_end_transaction(gb_main, error);
922	}
923	ASSERT_NO_ERROR(GB_request_undo_type(gb_main, prev_undo_type));
924	}
925
926	#if defined(SAVE_COMPRESSION_TREE_TO_DB)
927	error = "fake error";
928	#endif // SAVE_COMPRESSION_TREE_TO_DB
929	}
930	return error;
931	}
932
933	#ifdef DEBUG
934
935	void GBT_compression_test(struct Unfixed_cb_parameter , GBDATA gb_main) {
936	GB_ERROR error = GB_begin_transaction(gb_main);
937	char *ali_name = GBT_get_default_alignment(gb_main);
938	char *tree_name = GBT_read_string(gb_main, "focus/tree_name");
939
940	// GBUSE(dummy);
941	if (!ali_name \|\| !tree_name) error = GB_await_error();
942
943	error = GB_end_transaction(gb_main, error);
944
945	if (!error) {
946	printf("Recompression data in alignment '%s' using tree '%s'\n", ali_name, tree_name);
947	error = GBT_compress_sequence_tree2(gb_main, tree_name, ali_name);
948	}
949
950	if (error) GB_warning(error);
951	free(tree_name);
952	free(ali_name);
953	}
954
955	#endif
956
957	// ****************** Decompress Sequences ******************
958
959	static char g_b_uncompress_single_sequence_by_master(const char s, const char master, size_t size, size_t new_size) {
960	const signed char source = (signed char )s;
961	char *dest;
962	const char *m = master;
963	unsigned int c;
964	int j;
965	int i;
966	char *buffer;
967
968	dest = buffer = GB_give_other_buffer((char *)source, size);
969
970	for (i=size; i;) {
971	j = *(source++);
972	if (j>0) { // uncompressed data block
973	if (j>i) j=i;
974	i -= j;
975	for (; j; j--) {
976	c = *(source++);
977	if (!c) c = *m;
978	*(dest++) = c;
979	m++;
980	}
981	}
982	else { // equal bytes compressed
983	if (!j) break; // end symbol
984	if (j == -122) {
985	j = *(source++) & 0xff;
986	j \|= ((*(source++)) << 8) &0xff00;
987	j = -j;
988	}
989	c = *(source++);
990	i += j;
991	if (i<0) {
992	GB_internal_error("Internal Error: Missing end in data");
993	j += -i;
994	i = 0;
995	}
996	if (c==0) {
997	memcpy(dest, m, -j);
998	dest += -j;
999	m += -j;
1000	}
1001	else {
1002	memset(dest, c, -j);
1003	dest += -j;
1004	m += -j;
1005	}
1006	}
1007	}
1008	*(dest++) = 0; // NULL of NULL terminated string
1009
1010	*new_size = dest-buffer;
1011	gb_assert(size == *new_size); // buffer overflow
1012
1013	return buffer;
1014	}
1015
1016	char gb_uncompress_by_sequence(GBDATA gbd, const char ss, size_t size, GB_ERROR error, size_t *new_size) {
1017	char *dest = 0;
1018
1019	*error = 0;
1020
1021	GB_MAIN_TYPE *Main = gb_get_main_during_cb();
1022	if (!Main && GB_FATHER(gbd)) Main = GB_MAIN(gbd);
1023
1024	if (!Main) {
1025	*error = "Can not uncompress this sequence (neighter has father nor inside callback)";
1026	}
1027	else {
1028	GBDATA *gb_main = Main->gb_main();
1029	char *to_free = GB_check_out_buffer(ss); // Remove 'ss' from memory management, otherwise load_single_key_data() may destroy it
1030	int index;
1031	GBQUARK quark;
1032
1033	{
1034	const unsigned char s = (const unsigned char )ss;
1035
1036	index = g_b_read_number2(s);
1037	quark = g_b_read_number2(s);
1038
1039	ss = (const char *)s;
1040	}
1041
1042	if (!Main->keys[quark].gb_master_ali) {
1043	gb_load_single_key_data(gb_main, quark);
1044	}
1045
1046	if (!Main->keys[quark].gb_master_ali) {
1047	*error = "Cannot uncompress this sequence: Cannot find a master sequence";
1048	}
1049	else {
1050	GBDATA *gb_master = gb_find_by_nr(Main->keys[quark].gb_master_ali, index);
1051	if (gb_master) {
1052	const char *master = GB_read_char_pntr(gb_master); // make sure that this is not a buffer !!!
1053
1054	gb_assert((GB_read_string_count(gb_master)+1) == size); // size mismatch between master and slave
1055	dest = g_b_uncompress_single_sequence_by_master(ss, master, size, new_size);
1056	}
1057	else {
1058	*error = GB_await_error();
1059	}
1060	}
1061	free(to_free);
1062	}
1063
1064	return dest;
1065	}
1066
1067	// --------------------------------------------------------------------------------
1068
1069	#ifdef UNIT_TESTS
1070	#ifndef TEST_UNIT_H
1071	#include <test_unit.h>
1072	#endif
1073
1074	// #define TEST_AUTO_UPDATE // uncomment to auto-update expected result DB
1075
1076	void TEST_SLOW_sequence_compression() {
1077	const char *source = "TEST_nuc.arb";
1078	const char *compressed = "TEST_nuc_seqcompr.arb";
1079	const char *expected = "TEST_nuc_seqcompr_exp.arb";
1080	const char *aliname = "ali_16s";
1081
1082	GB_shell shell;
1083
1084	const int SEQ2COMPARE = 7;
1085	char *seq_exp[SEQ2COMPARE];
1086
1087	{
1088	GBDATA *gb_main;
1089	TEST_EXPECT_RESULT__NOERROREXPORTED(gb_main = GB_open(source, "rw"));
1090
1091	{
1092	GB_transaction ta(gb_main);
1093	int count = 0;
1094
1095	for (GBDATA *gb_species = GBT_first_species(gb_main);
1096	gb_species && count<SEQ2COMPARE;
1097	gb_species = GBT_next_species(gb_species), ++count)
1098	{
1099	GBDATA *gb_seq = GBT_find_sequence(gb_species, aliname);
1100	seq_exp[count] = GB_read_string(gb_seq);
1101	}
1102	}
1103
1104	TEST_EXPECT_NO_ERROR(GBT_compress_sequence_tree2(gb_main, "tree_nuc", aliname));
1105	TEST_EXPECT_NO_ERROR(GB_save_as(gb_main, compressed, "b"));
1106	GB_close(gb_main);
1107	}
1108	#if defined(TEST_AUTO_UPDATE)
1109	TEST_COPY_FILE(compressed, expected);
1110	#endif
1111	TEST_EXPECT_FILES_EQUAL(compressed, expected);
1112
1113	{
1114	GBDATA *gb_main;
1115	TEST_EXPECT_RESULT__NOERROREXPORTED(gb_main = GB_open(compressed, "rw"));
1116	{
1117	GB_transaction ta(gb_main);
1118	int count = 0;
1119
1120	for (GBDATA *gb_species = GBT_first_species(gb_main);
1121	gb_species && count<SEQ2COMPARE;
1122	gb_species = GBT_next_species(gb_species), ++count)
1123	{
1124	GBDATA *gb_seq = GBT_find_sequence(gb_species, aliname);
1125	char *seq = GB_read_string(gb_seq);
1126
1127	TEST_EXPECT_EQUAL(seq, seq_exp[count]);
1128
1129	freenull(seq_exp[count]);
1130	free(seq);
1131	}
1132	}
1133	GB_close(gb_main);
1134	}
1135
1136	TEST_EXPECT_ZERO_OR_SHOW_ERRNO(GB_unlink(compressed));
1137	}
1138	TEST_PUBLISH(TEST_SLOW_sequence_compression);
1139
1140	#endif // UNIT_TESTS
1141
1142	// --------------------------------------------------------------------------------
1143
1144

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