static stList *getRandomPairwiseAlignments() {
stList *pairwiseAlignments = stList_construct3(0, (void(*)(void *)) destructPairwiseAlignment);
int64_t randomAlignmentNumber = st_randomInt(0, 10);
for (int64_t i = 0; i < randomAlignmentNumber; i++) {
char *contig1 = stString_print("%" PRIi64 "", i);
char *contig2 = stString_print("%" PRIi64 "", i * 10);
int64_t start1 = st_randomInt(100000, 1000000);
int64_t start2 = st_randomInt(100000, 1000000);
int64_t strand1 = st_random() > 0.5;
int64_t strand2 = st_random() > 0.5;
int64_t end1 = start1;
int64_t end2 = start2;
struct List *operationList = constructEmptyList(0, NULL);
while (st_random() > 0.1) {
int64_t length = st_randomInt(0, 10);
int64_t type = st_randomInt(0, 3);
assert(type < 3);
listAppend(operationList, constructAlignmentOperation(type, length, 0));
if (type != PAIRWISE_INDEL_Y) {
end1 += strand1 ? length : -length;
}
if (type != PAIRWISE_INDEL_X) {
end2 += strand2 ? length : -length;
}
}
stList_append(pairwiseAlignments,
constructPairwiseAlignment(contig1, start1, end1, strand1, contig2, start2, end2, strand2, 0.0, operationList));
free(contig1);
free(contig2);
}
return pairwiseAlignments;
}
static char *tree_getNewickTreeStringP(stTree *tree) {
char *cA, *cA2;
if(stTree_getChildNumber(tree) > 0) {
int32_t i;
cA = stString_copy("(");
for(i=0; i<stTree_getChildNumber(tree); i++) {
cA2 = tree_getNewickTreeStringP(stTree_getChild(tree, i));
char *cA3 = stString_print((i+1 < stTree_getChildNumber(tree) ? "%s%s," : "%s%s"), cA, cA2);
free(cA);
free(cA2);
cA = cA3;
}
cA2 = stString_print("%s)", cA);
free(cA);
cA = cA2;
}
else {
cA = stString_copy("");
}
if(stTree_getLabel(tree) != NULL) {
cA2 = stString_print("%s%s", cA, stTree_getLabel(tree));
free(cA);
cA = cA2;
}
if(stTree_getBranchLength(tree) != INFINITY) {
char *cA2 = stString_print("%s:%g", cA, stTree_getBranchLength(tree));
free(cA);
cA = cA2;
}
return cA;
}
static char *segmentWriteFn(Segment *segment) {
stTree *phylogeneticTree = stHash_search(segmentWriteFn_flowerToPhylogeneticTreeHash, block_getFlower(segment_getBlock(segment)));
assert(phylogeneticTree != NULL);
char *segmentString = getMaximumLikelihoodString(phylogeneticTree, segment_getBlock(segment));
//We append a zero to a segment string if it is part of block containing only a reference segment, else we append a 1.
//We use these boolean values to determine if a sequence contains only these trivial strings, and is therefore trivial.
char *appendedSegmentString = stString_print("%s%c ", segmentString, block_getInstanceNumber(segment_getBlock(segment)) == 1 ? '0' : '1');
free(segmentString);
return appendedSegmentString;
}
static stTree *eventTree_getStTree_R(Event *event) {
stTree *ret = stTree_construct();
stTree_setLabel(ret, stString_print("%" PRIi64, event_getName(event)));
stTree_setBranchLength(ret, event_getBranchLength(event));
for(int64_t i = 0; i < event_getChildNumber(event); i++) {
Event *child = event_getChild(event, i);
stTree *childStTree = eventTree_getStTree_R(child);
stTree_setParent(childStTree, ret);
}
return ret;
}
static stList *chooseAdjacencyPairing_externalProgram(stList *edges, int64_t nodeNumber, const char *programName) {
/*
* We create temp files to hold stuff.
*/
if(nodeNumber <= 1) {
assert(stList_length(edges) == 0);
return stList_construct();
}
char *tempInputFile = getTempFile(), *tempOutputFile = getTempFile();
/*
* We write the graph to a temp file.
*/
FILE *fileHandle = fopen(tempInputFile, "w");
if(strcmp(programName, "blossom5") == 0) { //Must be all connected as
//generates perfect matchings.
writeCliqueGraph(fileHandle, edges, nodeNumber, 1);
}
else {
writeGraph(fileHandle, edges, nodeNumber);
}
fclose(fileHandle);
/*
* We run the external program.
*/
char *command = stString_print("%s -e %s -w %s >& /dev/null", programName, tempInputFile, tempOutputFile);
int64_t i = st_system(command);
if(i != 0) {
st_errAbort("Something went wrong with the command: %s", command);
//For some reason this causes a seg fault
//stThrowNew(MATCHING_EXCEPTION, "Something went wrong with the command: %s", command);
}
free(command);
/*
* We get back the matching.
*/
fileHandle = fopen(tempOutputFile, "r");
stList *matching = readMatching(fileHandle, edges);
fclose(fileHandle);
st_logDebug("The adjacency matching for %" PRIi64 " nodes with %" PRIi64 " initial edges contains %" PRIi64 " edges\n", nodeNumber, stList_length(edges), stList_length(matching));
/*
* Get rid of the temp files..
*/
st_system("rm -rf %s %s", tempInputFile, tempOutputFile);
free(tempInputFile);
free(tempOutputFile);
return matching;
}
char *block_makeNewickStringP(Segment *segment, bool includeInternalNames, bool includeUnaryEvents) {
if(!includeUnaryEvents && segment_getChildNumber(segment) == 1) {
return block_makeNewickStringP(segment_getChild(segment, 0), includeInternalNames, includeUnaryEvents);
}
if(segment_getChildNumber(segment) > 0) {
char *left = stString_print("(");
int64_t i;
bool comma = 0;
for(i=0; i<segment_getChildNumber(segment); i++) {
Segment *childSegment = segment_getChild(segment, i);
char *cA = block_makeNewickStringP(childSegment, includeInternalNames, includeUnaryEvents);
char *cA2 = stString_print(comma ? "%s,%s" : "%s%s", left, cA);
free(cA);
left = cA2;
comma = 1;
}
char *final = includeInternalNames ?
stString_print("%s)%s", left, cactusMisc_nameToStringStatic(segment_getName(segment))) :
stString_print("%s)", left);
free(left);
return final;
}
static MetaSequence *addMetaSequence(Flower *flower, Cap *cap, int64_t index, char *string, bool trivialString) {
/*
* Adds a meta sequence representing a top level thread to the cactus disk.
* The sequence is all 'N's at this stage.
*/
Event *referenceEvent = cap_getEvent(cap);
assert(referenceEvent != NULL);
char *sequenceName = stString_print("%srefChr%" PRIi64 "", event_getHeader(referenceEvent), index);
//char *sequenceName = stString_print("refChr%" PRIi64 "", index);
MetaSequence *metaSequence = metaSequence_construct3(1, strlen(string), string, sequenceName,
event_getName(referenceEvent), trivialString, flower_getCactusDisk(flower));
free(sequenceName);
return metaSequence;
}
static void testGibbsSamplingWithSimulatedAnnealing(CuTest *testCase,
double(*temperatureFn)(double), bool pureGreedy, int64_t maxNumberOfChainsBeforeSwitchingToFast) {
for (int64_t i = 0; i < 100; i++) {
setup();
double totalScore;
time_t startTime = time(NULL);
bool fast = maxNumberOfChainsBeforeSwitchingToFast > nodeNumber;
stList *reference = makeReferenceGreedily(stubs, chains, zMatrix,
nodeNumber, &totalScore, fast);
checkIsValidReference(testCase, reference, totalScore);
time_t totalTime = time(NULL) - startTime;
char *cA = stString_print("Pre-annealing greedy (fast:%" PRIi64 "), %" PRIi64 " nodes, it took %" PRIi64 " seconds, score: %f\n", fast, nodeNumber, totalTime, totalScore);
st_logInfo(cA);
logReference(reference, nodeNumber, zMatrix, totalScore, cA);
free(cA);
startTime = time(NULL);
int64_t permutations = st_randomInt(0, 100);
if(pureGreedy) {
greedyImprovement(reference, chains, zMatrix, permutations);
}
else {
gibbsSamplingWithSimulatedAnnealing(reference, chains, zMatrix,
permutations, temperatureFn);
}
double totalScoreAfterAnnealing = calculateZScoreOfReference(reference, nodeNumber, zMatrix);
checkIsValidReference(testCase, reference, totalScoreAfterAnnealing);
totalTime = time(NULL) - startTime;
cA = stString_print("Post-annealing permutations:%" PRIi64 ", %" PRIi64 " nodes, it took %" PRIi64 " seconds, score: %f\n", permutations, nodeNumber, totalTime, totalScore);
st_logInfo(cA);
logReference(reference, nodeNumber, zMatrix, totalScoreAfterAnnealing,
cA);
if(pureGreedy) {
CuAssertTrue(testCase, totalScoreAfterAnnealing + 0.001 >= totalScore);
}
teardown();
}
}
static void testMakeReferenceGreedily(CuTest *testCase) {
for (int64_t i = 0; i < 100; i++) {
setup();
double totalScore;
time_t startTime = time(NULL);
bool fast = 1; //st_random() > 0.5;
stList *reference = makeReferenceGreedily(stubs, chains, zMatrix,
nodeNumber, &totalScore, fast);
checkIsValidReference(testCase, reference, totalScore);
time_t totalTime = time(NULL) - startTime;
char *cA = stString_print("Greedy (fast:%" PRIi64 "), %" PRIi64 " nodes, it took %" PRIi64 " seconds, score: %f\n", fast, nodeNumber, totalTime, totalScore);
st_logInfo(cA);
logReference(reference, nodeNumber, zMatrix, totalScore, cA);
free(cA);
teardown();
}
}
static void cactusDisk_loadFromBinaryRepresentation(void **binaryString, CactusDisk *cactusDisk, stKVDatabaseConf *conf) {
cactusDisk->sequencesReadFileHandle = NULL;
cactusDisk->sequencesWriteFileHandle = NULL; //I think these lines are not needed.
cactusDisk->sequencesFileName = NULL;
cactusDisk->absSequencesFileName = NULL;
assert(binaryRepresentation_peekNextElementType(*binaryString) == CODE_CACTUS_DISK);
binaryRepresentation_popNextElementType(binaryString);
cactusDisk->storeSequencesInAFile = binaryRepresentation_getBool(binaryString);
if (cactusDisk->storeSequencesInAFile) {
cactusDisk->sequencesFileName = binaryRepresentation_getString(binaryString);
if (stKVDatabaseConf_getDir(conf) == NULL) {
stThrowNew(CACTUS_DISK_EXCEPTION_ID,
"The database conf does not contain a directory in which the sequence file is to be found!\n");
}
cactusDisk->absSequencesFileName = stString_print("%s/%s", stKVDatabaseConf_getDir(conf),
cactusDisk->sequencesFileName);
}
assert(binaryRepresentation_peekNextElementType(*binaryString) == CODE_CACTUS_DISK);
binaryRepresentation_popNextElementType(binaryString);
}
static CactusDisk *cactusDisk_constructPrivate(stKVDatabaseConf *conf, bool create, const char *sequencesFileName) {
//sequencesFileName = NULL; //Disable the ability to store the sequences on disk.
CactusDisk *cactusDisk = st_calloc(1, sizeof(CactusDisk));
//construct lists of in memory objects
cactusDisk->metaSequences = stSortedSet_construct3(cactusDisk_constructMetaSequencesP, NULL);
cactusDisk->flowers = stSortedSet_construct3(cactusDisk_constructFlowersP, NULL);
cactusDisk->flowerNamesMarkedForDeletion = stSortedSet_construct3((int (*)(const void *, const void *)) strcmp,
free);
cactusDisk->updateRequests = stList_construct3(0, (void (*)(void *)) stKVDatabaseBulkRequest_destruct);
//Now open the database
cactusDisk->database = stKVDatabase_construct(conf, create);
cactusDisk->cache = stCache_construct();
cactusDisk->stringCache = stCache_construct();
//initialise the unique ids.
int64_t seed = (clock() << 24) | (time(NULL) << 16) | (getpid() & 65535); //Likely to be unique
st_logDebug("The cactus disk is seeding the random number generator with the value %" PRIi64 "\n", seed);
st_randomSeed(seed);
cactusDisk->uniqueNumber = 0;
cactusDisk->maxUniqueNumber = 0;
//Now load any stuff..
if (containsRecord(cactusDisk, CACTUS_DISK_PARAMETER_KEY)) {
if (create) {
stThrowNew(CACTUS_DISK_EXCEPTION_ID, "Tried to create a cactus disk, but the cactus disk already exists");
}
if (sequencesFileName != NULL) {
stThrowNew(CACTUS_DISK_EXCEPTION_ID,
"A sequences file name is specified, but the cactus disk is not being created");
}
void *record = getRecord(cactusDisk, CACTUS_DISK_PARAMETER_KEY, "cactus_disk parameters");
void *record2 = record;
cactusDisk_loadFromBinaryRepresentation(&record, cactusDisk, conf);
free(record2);
} else {
assert(create);
if (sequencesFileName == NULL) {
cactusDisk->storeSequencesInAFile = 0;
cactusDisk->sequencesFileName = NULL;
cactusDisk->sequencesReadFileHandle = NULL;
cactusDisk->sequencesWriteFileHandle = NULL;
cactusDisk->absSequencesFileName = NULL;
} else {
if (stKVDatabaseConf_getDir(conf) == NULL) {
stThrowNew(CACTUS_DISK_EXCEPTION_ID,
"The database conf does not contain a directory in which the sequence file is to be found!\n");
}
cactusDisk->storeSequencesInAFile = 1;
cactusDisk->sequencesFileName = stString_copy(sequencesFileName);
cactusDisk->absSequencesFileName = stString_print("%s/%s", stKVDatabaseConf_getDir(conf),
cactusDisk->sequencesFileName);
//Make sure the file exists
cactusDisk->sequencesReadFileHandle = fopen(cactusDisk->absSequencesFileName, "w");
assert(cactusDisk->sequencesReadFileHandle != NULL);
fclose(cactusDisk->sequencesReadFileHandle); //Flush it first time.
cactusDisk->sequencesReadFileHandle = NULL;
cactusDisk->sequencesWriteFileHandle = NULL;
}
}
return cactusDisk;
}
char *stTree_getNewickTreeString(stTree *tree) {
char *cA = tree_getNewickTreeStringP(tree), *cA2;
cA2 = stString_print("%s;", cA);
free(cA);
return cA2;
}
int main(int argc, char *argv[]) {
/*
* Script for adding alignments to cactus tree.
*/
int64_t startTime;
stKVDatabaseConf *kvDatabaseConf;
CactusDisk *cactusDisk;
int key, k;
bool (*filterFn)(stPinchSegment *, stPinchSegment *) = NULL;
stSet *outgroupThreads = NULL;
/*
* Arguments/options
*/
char * logLevelString = NULL;
char * alignmentsFile = NULL;
char * constraintsFile = NULL;
char * cactusDiskDatabaseString = NULL;
char * lastzArguments = "";
int64_t minimumSequenceLengthForBlast = 1;
//Parameters for annealing/melting rounds
int64_t *annealingRounds = NULL;
int64_t annealingRoundsLength = 0;
int64_t *meltingRounds = NULL;
int64_t meltingRoundsLength = 0;
//Parameters for melting
float maximumAdjacencyComponentSizeRatio = 10;
int64_t blockTrim = 0;
int64_t alignmentTrimLength = 0;
int64_t *alignmentTrims = NULL;
int64_t chainLengthForBigFlower = 1000000;
int64_t longChain = 2;
int64_t minLengthForChromosome = 1000000;
float proportionOfUnalignedBasesForNewChromosome = 0.8;
bool breakChainsAtReverseTandems = 1;
int64_t maximumMedianSequenceLengthBetweenLinkedEnds = INT64_MAX;
bool realign = 0;
char *realignArguments = "";
bool removeRecoverableChains = false;
bool (*recoverableChainsFilter)(stCactusEdgeEnd *, Flower *) = NULL;
int64_t maxRecoverableChainsIterations = 1;
int64_t maxRecoverableChainLength = INT64_MAX;
//Parameters for removing ancient homologies
bool doPhylogeny = false;
int64_t phylogenyNumTrees = 1;
enum stCaf_RootingMethod phylogenyRootingMethod = BEST_RECON;
enum stCaf_ScoringMethod phylogenyScoringMethod = COMBINED_LIKELIHOOD;
double breakpointScalingFactor = 1.0;
bool phylogenySkipSingleCopyBlocks = 0;
int64_t phylogenyMaxBaseDistance = 1000;
int64_t phylogenyMaxBlockDistance = 100;
bool phylogenyKeepSingleDegreeBlocks = 0;
stList *phylogenyTreeBuildingMethods = stList_construct();
enum stCaf_TreeBuildingMethod defaultMethod = GUIDED_NEIGHBOR_JOINING;
stList_append(phylogenyTreeBuildingMethods, &defaultMethod);
double phylogenyCostPerDupPerBase = 0.2;
double phylogenyCostPerLossPerBase = 0.2;
const char *debugFileName = NULL;
const char *referenceEventHeader = NULL;
double phylogenyDoSplitsWithSupportHigherThanThisAllAtOnce = 1.0;
int64_t numTreeBuildingThreads = 2;
int64_t minimumBlockDegreeToCheckSupport = 10;
double minimumBlockHomologySupport = 0.7;
double nucleotideScalingFactor = 1.0;
HomologyUnitType phylogenyHomologyUnitType = BLOCK;
enum stCaf_DistanceCorrectionMethod phylogenyDistanceCorrectionMethod = JUKES_CANTOR;
bool sortAlignments = false;
///////////////////////////////////////////////////////////////////////////
// (0) Parse the inputs handed by genomeCactus.py / setup stuff.
///////////////////////////////////////////////////////////////////////////
while (1) {
static struct option long_options[] = { { "logLevel", required_argument, 0, 'a' }, { "alignments", required_argument, 0, 'b' }, {
"cactusDisk", required_argument, 0, 'c' }, { "lastzArguments", required_argument, 0, 'd' },
{ "help", no_argument, 0, 'h' }, { "annealingRounds", required_argument, 0, 'i' }, { "trim", required_argument, 0, 'k' }, {
"trimChange", required_argument, 0, 'l', }, { "minimumTreeCoverage", required_argument, 0, 'm' }, { "blockTrim",
required_argument, 0, 'n' }, { "deannealingRounds", required_argument, 0, 'o' }, { "minimumDegree",
required_argument, 0, 'p' }, { "minimumIngroupDegree", required_argument, 0, 'q' }, {
"minimumOutgroupDegree", required_argument, 0, 'r' }, { "alignmentFilter", required_argument, 0, 't' }, {
"minimumSequenceLengthForBlast", required_argument, 0, 'v' }, { "maxAdjacencyComponentSizeRatio",
required_argument, 0, 'w' }, { "constraints", required_argument, 0, 'x' }, { "minLengthForChromosome",
required_argument, 0, 'y' }, { "proportionOfUnalignedBasesForNewChromosome", required_argument, 0, 'z' },
{ "maximumMedianSequenceLengthBetweenLinkedEnds", required_argument, 0, 'A' },
{ "realign", no_argument, 0, 'B' }, { "realignArguments", required_argument, 0, 'C' },
{ "phylogenyNumTrees", required_argument, 0, 'D' },
{ "phylogenyRootingMethod", required_argument, 0, 'E' },
{ "phylogenyScoringMethod", required_argument, 0, 'F' },
{ "phylogenyBreakpointScalingFactor", required_argument, 0, 'G' },
{ "phylogenySkipSingleCopyBlocks", no_argument, 0, 'H' },
{ "phylogenyMaxBaseDistance", required_argument, 0, 'I' },
{ "phylogenyMaxBlockDistance", required_argument, 0, 'J' },
{ "phylogenyDebugFile", required_argument, 0, 'K' },
{ "phylogenyKeepSingleDegreeBlocks", no_argument, 0, 'L' },
{ "phylogenyTreeBuildingMethod", required_argument, 0, 'M' },
{ "phylogenyCostPerDupPerBase", required_argument, 0, 'N' },
{ "phylogenyCostPerLossPerBase", required_argument, 0, 'O' },
{ "referenceEventHeader", required_argument, 0, 'P' },
{ "phylogenyDoSplitsWithSupportHigherThanThisAllAtOnce", required_argument, 0, 'Q' },
{ "numTreeBuildingThreads", required_argument, 0, 'R' },
{ "phylogeny", no_argument, 0, 'S' },
{ "minimumBlockHomologySupport", required_argument, 0, 'T' },
{ "phylogenyNucleotideScalingFactor", required_argument, 0, 'U' },
{ "minimumBlockDegreeToCheckSupport", required_argument, 0, 'V' },
{ "removeRecoverableChains", required_argument, 0, 'W' },
{ "minimumNumberOfSpecies", required_argument, 0, 'X' },
{ "phylogenyHomologyUnitType", required_argument, 0, 'Y' },
{ "phylogenyDistanceCorrectionMethod", required_argument, 0, 'Z' },
{ "maxRecoverableChainsIterations", required_argument, 0, '1' },
{ "maxRecoverableChainLength", required_argument, 0, '2' },
{ 0, 0, 0, 0 } };
int option_index = 0;
key = getopt_long(argc, argv, "a:b:c:hi:k:m:n:o:p:q:r:stv:w:x:y:z:A:BC:D:E:", long_options, &option_index);
if (key == -1) {
break;
}
switch (key) {
case 'a':
logLevelString = stString_copy(optarg);
st_setLogLevelFromString(logLevelString);
break;
case 'b':
alignmentsFile = stString_copy(optarg);
break;
case 'c':
cactusDiskDatabaseString = stString_copy(optarg);
break;
case 'd':
lastzArguments = stString_copy(optarg);
break;
case 'h':
usage();
return 0;
case 'i':
annealingRounds = getInts(optarg, &annealingRoundsLength);
break;
case 'o':
meltingRounds = getInts(optarg, &meltingRoundsLength);
break;
case 'k':
alignmentTrims = getInts(optarg, &alignmentTrimLength);
break;
case 'm':
k = sscanf(optarg, "%f", &minimumTreeCoverage);
assert(k == 1);
break;
case 'n':
k = sscanf(optarg, "%" PRIi64 "", &blockTrim);
assert(k == 1);
break;
case 'p':
k = sscanf(optarg, "%" PRIi64 "", &minimumDegree);
assert(k == 1);
break;
case 'q':
k = sscanf(optarg, "%" PRIi64 "", &minimumIngroupDegree);
assert(k == 1);
break;
case 'r':
k = sscanf(optarg, "%" PRIi64 "", &minimumOutgroupDegree);
assert(k == 1);
break;
case 't':
if (strcmp(optarg, "singleCopyOutgroup") == 0) {
sortAlignments = true;
filterFn = stCaf_filterByOutgroup;
} else if (strcmp(optarg, "relaxedSingleCopyOutgroup") == 0) {
sortAlignments = true;
filterFn = stCaf_relaxedFilterByOutgroup;
} else if (strcmp(optarg, "singleCopy") == 0) {
sortAlignments = true;
filterFn = stCaf_filterByRepeatSpecies;
} else if (strcmp(optarg, "relaxedSingleCopy") == 0) {
sortAlignments = true;
filterFn = stCaf_relaxedFilterByRepeatSpecies;
} else if (strcmp(optarg, "singleCopyChr") == 0) {
sortAlignments = true;
filterFn = stCaf_singleCopyChr;
} else if (strcmp(optarg, "singleCopyIngroup") == 0) {
sortAlignments = true;
filterFn = stCaf_singleCopyIngroup;
} else if (strcmp(optarg, "relaxedSingleCopyIngroup") == 0) {
sortAlignments = true;
filterFn = stCaf_relaxedSingleCopyIngroup;
} else if (strcmp(optarg, "none") == 0) {
sortAlignments = false;
filterFn = NULL;
} else {
st_errAbort("Could not recognize alignmentFilter option %s", optarg);
}
break;
case 'v':
k = sscanf(optarg, "%" PRIi64 "", &minimumSequenceLengthForBlast);
assert(k == 1);
break;
case 'w':
k = sscanf(optarg, "%f", &maximumAdjacencyComponentSizeRatio);
assert(k == 1);
break;
case 'x':
constraintsFile = stString_copy(optarg);
break;
case 'y':
k = sscanf(optarg, "%" PRIi64 "", &minLengthForChromosome);
assert(k == 1);
break;
case 'z':
k = sscanf(optarg, "%f", &proportionOfUnalignedBasesForNewChromosome);
assert(k == 1);
break;
case 'A':
k = sscanf(optarg, "%" PRIi64 "", &maximumMedianSequenceLengthBetweenLinkedEnds);
assert(k == 1);
break;
case 'B':
realign = 1;
break;
case 'C':
realignArguments = stString_copy(optarg);
break;
case 'D':
k = sscanf(optarg, "%" PRIi64, &phylogenyNumTrees);
assert(k == 1);
break;
case 'E':
if (!strcmp(optarg, "outgroupBranch")) {
phylogenyRootingMethod = OUTGROUP_BRANCH;
} else if (!strcmp(optarg, "longestBranch")) {
phylogenyRootingMethod = LONGEST_BRANCH;
} else if (!strcmp(optarg, "bestRecon")) {
phylogenyRootingMethod = BEST_RECON;
} else {
st_errAbort("Invalid tree rooting method: %s", optarg);
}
break;
case 'F':
if (!strcmp(optarg, "reconCost")) {
phylogenyScoringMethod = RECON_COST;
} else if (!strcmp(optarg, "nucLikelihood")) {
phylogenyScoringMethod = NUCLEOTIDE_LIKELIHOOD;
} else if (!strcmp(optarg, "reconLikelihood")) {
phylogenyScoringMethod = RECON_LIKELIHOOD;
} else if (!strcmp(optarg, "combinedLikelihood")) {
phylogenyScoringMethod = COMBINED_LIKELIHOOD;
} else {
st_errAbort("Invalid tree scoring method: %s", optarg);
}
break;
case 'G':
k = sscanf(optarg, "%lf", &breakpointScalingFactor);
assert(k == 1);
break;
case 'H':
phylogenySkipSingleCopyBlocks = true;
break;
case 'I':
k = sscanf(optarg, "%" PRIi64, &phylogenyMaxBaseDistance);
assert(k == 1);
break;
case 'J':
k = sscanf(optarg, "%" PRIi64, &phylogenyMaxBlockDistance);
assert(k == 1);
break;
case 'K':
debugFileName = stString_copy(optarg);
break;
case 'L':
phylogenyKeepSingleDegreeBlocks = true;
break;
case 'M':
// clear the default setting of the list
stList_destruct(phylogenyTreeBuildingMethods);
phylogenyTreeBuildingMethods = stList_construct();
stList *methodStrings = stString_splitByString(optarg, ",");
for (int64_t i = 0; i < stList_length(methodStrings); i++) {
char *methodString = stList_get(methodStrings, i);
enum stCaf_TreeBuildingMethod *method = st_malloc(sizeof(enum stCaf_TreeBuildingMethod));
if (strcmp(methodString, "neighborJoining") == 0) {
*method = NEIGHBOR_JOINING;
} else if (strcmp(methodString, "guidedNeighborJoining") == 0) {
*method = GUIDED_NEIGHBOR_JOINING;
} else if (strcmp(methodString, "splitDecomposition") == 0) {
*method = SPLIT_DECOMPOSITION;
} else if (strcmp(methodString, "strictSplitDecomposition") == 0) {
*method = STRICT_SPLIT_DECOMPOSITION;
} else if (strcmp(methodString, "removeBadChains") == 0) {
*method = REMOVE_BAD_CHAINS;
} else {
st_errAbort("Unknown tree building method: %s", methodString);
}
stList_append(phylogenyTreeBuildingMethods, method);
}
stList_destruct(methodStrings);
break;
case 'N':
k = sscanf(optarg, "%lf", &phylogenyCostPerDupPerBase);
assert(k == 1);
break;
case 'O':
k = sscanf(optarg, "%lf", &phylogenyCostPerLossPerBase);
assert(k == 1);
break;
case 'P':
referenceEventHeader = stString_copy(optarg);
break;
case 'Q':
k = sscanf(optarg, "%lf", &phylogenyDoSplitsWithSupportHigherThanThisAllAtOnce);
assert(k == 1);
break;
case 'R':
k = sscanf(optarg, "%" PRIi64, &numTreeBuildingThreads);
assert(k == 1);
break;
case 'S':
doPhylogeny = true;
break;
case 'T':
k = sscanf(optarg, "%lf", &minimumBlockHomologySupport);
assert(k == 1);
assert(minimumBlockHomologySupport <= 1.0);
assert(minimumBlockHomologySupport >= 0.0);
break;
case 'U':
k = sscanf(optarg, "%lf", &nucleotideScalingFactor);
assert(k == 1);
break;
case 'V':
k = sscanf(optarg, "%" PRIi64, &minimumBlockDegreeToCheckSupport);
assert(k == 1);
break;
case 'W':
if (strcmp(optarg, "1") == 0) {
removeRecoverableChains = true;
recoverableChainsFilter = NULL;
} else if (strcmp(optarg, "unequalNumberOfIngroupCopies") == 0) {
removeRecoverableChains = true;
recoverableChainsFilter = stCaf_chainHasUnequalNumberOfIngroupCopies;
} else if (strcmp(optarg, "unequalNumberOfIngroupCopiesOrNoOutgroup") == 0) {
removeRecoverableChains = true;
recoverableChainsFilter = stCaf_chainHasUnequalNumberOfIngroupCopiesOrNoOutgroup;
} else if (strcmp(optarg, "0") == 0) {
removeRecoverableChains = false;
} else {
st_errAbort("Could not parse removeRecoverableChains argument");
}
break;
case 'X':
k = sscanf(optarg, "%" PRIi64, &minimumNumberOfSpecies);
if (k != 1) {
st_errAbort("Error parsing the minimumNumberOfSpecies argument");
}
break;
case 'Y':
if (strcmp(optarg, "chain") == 0) {
phylogenyHomologyUnitType = CHAIN;
} else if (strcmp(optarg, "block") == 0) {
phylogenyHomologyUnitType = BLOCK;
} else {
st_errAbort("Could not parse the phylogenyHomologyUnitType argument");
}
break;
case 'Z':
if (strcmp(optarg, "jukesCantor") == 0) {
phylogenyDistanceCorrectionMethod = JUKES_CANTOR;
} else if (strcmp(optarg, "none") == 0 ) {
phylogenyDistanceCorrectionMethod = NONE;
} else {
st_errAbort("Could not parse the phylogenyDistanceCorrectionMethod argument");
}
break;
case '1':
k = sscanf(optarg, "%" PRIi64, &maxRecoverableChainsIterations);
if (k != 1) {
st_errAbort("Error parsing the maxRecoverableChainsIterations argument");
}
break;
case '2':
k = sscanf(optarg, "%" PRIi64, &maxRecoverableChainLength);
if (k != 1) {
st_errAbort("Error parsing the maxRecoverableChainLength argument");
}
break;
default:
usage();
return 1;
}
}
///////////////////////////////////////////////////////////////////////////
// (0) Check the inputs.
///////////////////////////////////////////////////////////////////////////
assert(cactusDiskDatabaseString != NULL);
assert(minimumTreeCoverage >= 0.0);
assert(minimumTreeCoverage <= 1.0);
assert(blockTrim >= 0);
assert(annealingRoundsLength >= 0);
for (int64_t i = 0; i < annealingRoundsLength; i++) {
assert(annealingRounds[i] >= 0);
}
assert(meltingRoundsLength >= 0);
for (int64_t i = 1; i < meltingRoundsLength; i++) {
assert(meltingRounds[i - 1] < meltingRounds[i]);
assert(meltingRounds[i - 1] >= 1);
}
assert(alignmentTrimLength >= 0);
for (int64_t i = 0; i < alignmentTrimLength; i++) {
assert(alignmentTrims[i] >= 0);
}
assert(minimumOutgroupDegree >= 0);
assert(minimumIngroupDegree >= 0);
//////////////////////////////////////////////
//Set up logging
//////////////////////////////////////////////
st_setLogLevelFromString(logLevelString);
//////////////////////////////////////////////
//Log (some of) the inputs
//////////////////////////////////////////////
st_logInfo("Flower disk name : %s\n", cactusDiskDatabaseString);
//////////////////////////////////////////////
//Load the database
//////////////////////////////////////////////
kvDatabaseConf = stKVDatabaseConf_constructFromString(cactusDiskDatabaseString);
cactusDisk = cactusDisk_construct(kvDatabaseConf, 0);
st_logInfo("Set up the flower disk\n");
///////////////////////////////////////////////////////////////////////////
// Sort the constraints
///////////////////////////////////////////////////////////////////////////
stPinchIterator *pinchIteratorForConstraints = NULL;
if (constraintsFile != NULL) {
pinchIteratorForConstraints = stPinchIterator_constructFromFile(constraintsFile);
st_logInfo("Created an iterator for the alignment constaints from file: %s\n", constraintsFile);
}
///////////////////////////////////////////////////////////////////////////
// Do the alignment
///////////////////////////////////////////////////////////////////////////
startTime = time(NULL);
stList *flowers = flowerWriter_parseFlowersFromStdin(cactusDisk);
if (alignmentsFile == NULL) {
cactusDisk_preCacheStrings(cactusDisk, flowers);
}
char *tempFile1 = NULL;
for (int64_t i = 0; i < stList_length(flowers); i++) {
flower = stList_get(flowers, i);
if (!flower_builtBlocks(flower)) { // Do nothing if the flower already has defined blocks
st_logDebug("Processing flower: %lli\n", flower_getName(flower));
stCaf_setFlowerForAlignmentFiltering(flower);
//Set up the graph and add the initial alignments
stPinchThreadSet *threadSet = stCaf_setup(flower);
//Build the set of outgroup threads
outgroupThreads = stCaf_getOutgroupThreads(flower, threadSet);
//Setup the alignments
stPinchIterator *pinchIterator;
stList *alignmentsList = NULL;
if (alignmentsFile != NULL) {
assert(i == 0);
assert(stList_length(flowers) == 1);
if (sortAlignments) {
tempFile1 = getTempFile();
stCaf_sortCigarsFileByScoreInDescendingOrder(alignmentsFile, tempFile1);
pinchIterator = stPinchIterator_constructFromFile(tempFile1);
} else {
pinchIterator = stPinchIterator_constructFromFile(alignmentsFile);
}
} else {
if (tempFile1 == NULL) {
tempFile1 = getTempFile();
}
alignmentsList = stCaf_selfAlignFlower(flower, minimumSequenceLengthForBlast, lastzArguments, realign, realignArguments, tempFile1);
if (sortAlignments) {
stCaf_sortCigarsByScoreInDescendingOrder(alignmentsList);
}
st_logDebug("Ran lastz and have %" PRIi64 " alignments\n", stList_length(alignmentsList));
pinchIterator = stPinchIterator_constructFromList(alignmentsList);
}
for (int64_t annealingRound = 0; annealingRound < annealingRoundsLength; annealingRound++) {
int64_t minimumChainLength = annealingRounds[annealingRound];
int64_t alignmentTrim = annealingRound < alignmentTrimLength ? alignmentTrims[annealingRound] : 0;
st_logDebug("Starting annealing round with a minimum chain length of %" PRIi64 " and an alignment trim of %" PRIi64 "\n", minimumChainLength, alignmentTrim);
stPinchIterator_setTrim(pinchIterator, alignmentTrim);
//Add back in the constraints
if (pinchIteratorForConstraints != NULL) {
stCaf_anneal(threadSet, pinchIteratorForConstraints, filterFn);
}
//Do the annealing
if (annealingRound == 0) {
stCaf_anneal(threadSet, pinchIterator, filterFn);
} else {
stCaf_annealBetweenAdjacencyComponents(threadSet, pinchIterator, filterFn);
}
// Dump the block degree and length distribution to a file
if (debugFileName != NULL) {
dumpBlockInfo(threadSet, stString_print("%s-blockStats-preMelting", debugFileName));
}
printf("Sequence graph statistics after annealing:\n");
printThreadSetStatistics(threadSet, flower, stdout);
// Check for poorly-supported blocks--those that have
// been transitively aligned together but with very
// few homologies supporting the transitive
// alignment. These "megablocks" can snarl up the
// graph so that a lot of extra gets thrown away in
// the first melting step.
stPinchThreadSetBlockIt blockIt = stPinchThreadSet_getBlockIt(threadSet);
stPinchBlock *block;
while ((block = stPinchThreadSetBlockIt_getNext(&blockIt)) != NULL) {
if (stPinchBlock_getDegree(block) > minimumBlockDegreeToCheckSupport) {
uint64_t supportingHomologies = stPinchBlock_getNumSupportingHomologies(block);
uint64_t possibleSupportingHomologies = numPossibleSupportingHomologies(block, flower);
double support = ((double) supportingHomologies) / possibleSupportingHomologies;
if (support < minimumBlockHomologySupport) {
fprintf(stdout, "Destroyed a megablock with degree %" PRIi64
" and %" PRIi64 " supporting homologies out of a maximum "
"of %" PRIi64 " (%lf%%).\n", stPinchBlock_getDegree(block),
supportingHomologies, possibleSupportingHomologies, support);
stPinchBlock_destruct(block);
}
}
}
//Do the melting rounds
for (int64_t meltingRound = 0; meltingRound < meltingRoundsLength; meltingRound++) {
int64_t minimumChainLengthForMeltingRound = meltingRounds[meltingRound];
st_logDebug("Starting melting round with a minimum chain length of %" PRIi64 " \n", minimumChainLengthForMeltingRound);
if (minimumChainLengthForMeltingRound >= minimumChainLength) {
break;
}
stCaf_melt(flower, threadSet, NULL, 0, minimumChainLengthForMeltingRound, 0, INT64_MAX);
} st_logDebug("Last melting round of cycle with a minimum chain length of %" PRIi64 " \n", minimumChainLength);
stCaf_melt(flower, threadSet, NULL, 0, minimumChainLength, breakChainsAtReverseTandems, maximumMedianSequenceLengthBetweenLinkedEnds);
//This does the filtering of blocks that do not have the required species/tree-coverage/degree.
stCaf_melt(flower, threadSet, blockFilterFn, blockTrim, 0, 0, INT64_MAX);
}
if (removeRecoverableChains) {
stCaf_meltRecoverableChains(flower, threadSet, breakChainsAtReverseTandems, maximumMedianSequenceLengthBetweenLinkedEnds, recoverableChainsFilter, maxRecoverableChainsIterations, maxRecoverableChainLength);
}
if (debugFileName != NULL) {
dumpBlockInfo(threadSet, stString_print("%s-blockStats-postMelting", debugFileName));
}
printf("Sequence graph statistics after melting:\n");
printThreadSetStatistics(threadSet, flower, stdout);
// Build a tree for each block, then use each tree to
// partition the homologies between the ingroups sequences
// into those that occur before the speciation with the
// outgroup and those which occur late.
if (stSet_size(outgroupThreads) > 0 && doPhylogeny) {
st_logDebug("Starting to build trees and partition ingroup homologies\n");
stHash *threadStrings = stCaf_getThreadStrings(flower, threadSet);
st_logDebug("Got sets of thread strings and set of threads that are outgroups\n");
stCaf_PhylogenyParameters params;
params.distanceCorrectionMethod = phylogenyDistanceCorrectionMethod;
params.treeBuildingMethods = phylogenyTreeBuildingMethods;
params.rootingMethod = phylogenyRootingMethod;
params.scoringMethod = phylogenyScoringMethod;
params.breakpointScalingFactor = breakpointScalingFactor;
params.nucleotideScalingFactor = nucleotideScalingFactor;
params.skipSingleCopyBlocks = phylogenySkipSingleCopyBlocks;
params.keepSingleDegreeBlocks = phylogenyKeepSingleDegreeBlocks;
params.costPerDupPerBase = phylogenyCostPerDupPerBase;
params.costPerLossPerBase = phylogenyCostPerLossPerBase;
params.maxBaseDistance = phylogenyMaxBaseDistance;
params.maxBlockDistance = phylogenyMaxBlockDistance;
params.numTrees = phylogenyNumTrees;
params.ignoreUnalignedBases = 1;
params.onlyIncludeCompleteFeatureBlocks = 0;
params.doSplitsWithSupportHigherThanThisAllAtOnce = phylogenyDoSplitsWithSupportHigherThanThisAllAtOnce;
params.numTreeBuildingThreads = numTreeBuildingThreads;
assert(params.numTreeBuildingThreads >= 1);
stCaf_buildTreesToRemoveAncientHomologies(
threadSet, phylogenyHomologyUnitType, threadStrings, outgroupThreads, flower, ¶ms,
debugFileName == NULL ? NULL : stString_print("%s-phylogeny", debugFileName), referenceEventHeader);
stHash_destruct(threadStrings);
st_logDebug("Finished building trees\n");
if (removeRecoverableChains) {
// We melt recoverable chains after splitting, as
// well as before, to alleviate coverage loss
// caused by bad splits.
stCaf_meltRecoverableChains(flower, threadSet, breakChainsAtReverseTandems, maximumMedianSequenceLengthBetweenLinkedEnds, recoverableChainsFilter, maxRecoverableChainsIterations, maxRecoverableChainLength);
}
// Enforce the block constraints on minimum degree,
// etc. after splitting.
stCaf_melt(flower, threadSet, blockFilterFn, 0, 0, 0, INT64_MAX);
}
//Sort out case when we allow blocks of degree 1
if (minimumDegree < 2) {
st_logDebug("Creating degree 1 blocks\n");
stCaf_makeDegreeOneBlocks(threadSet);
stCaf_melt(flower, threadSet, blockFilterFn, blockTrim, 0, 0, INT64_MAX);
} else if (maximumAdjacencyComponentSizeRatio < INT64_MAX) { //Deal with giant components
st_logDebug("Breaking up components greedily\n");
stCaf_breakupComponentsGreedily(threadSet, maximumAdjacencyComponentSizeRatio);
}
//Finish up
stCaf_finish(flower, threadSet, chainLengthForBigFlower, longChain, minLengthForChromosome,
proportionOfUnalignedBasesForNewChromosome); //Flower is then destroyed at this point.
st_logInfo("Ran the cactus core script\n");
//Cleanup
stPinchThreadSet_destruct(threadSet);
stPinchIterator_destruct(pinchIterator);
stSet_destruct(outgroupThreads);
if (alignmentsList != NULL) {
stList_destruct(alignmentsList);
}
st_logInfo("Cleaned up from main loop\n");
} else {
st_logInfo("We've already built blocks / alignments for this flower\n");
}
}
stList_destruct(flowers);
if (tempFile1 != NULL) {
st_system("rm %s", tempFile1);
}
if (constraintsFile != NULL) {
stPinchIterator_destruct(pinchIteratorForConstraints);
}
///////////////////////////////////////////////////////////////////////////
// Write the flower to disk.
///////////////////////////////////////////////////////////////////////////
st_logDebug("Writing the flowers to disk\n");
cactusDisk_write(cactusDisk);
st_logInfo("Updated the flower on disk and %" PRIi64 " seconds have elapsed\n", time(NULL) - startTime);
///////////////////////////////////////////////////////////////////////////
// Clean up.
///////////////////////////////////////////////////////////////////////////
cactusDisk_destruct(cactusDisk);
}
int main(int argc, char *argv[]) {
int64_t j = 0;
char *npReadFile = NULL;
char *templateModelFile = stString_print("../models/testModelR9_template.model");
char *complementModelFile = stString_print("../models/testModelR9_complement_pop2.model");
double threshold = 0.8;
int key;
while (1) {
static struct option long_options[] = {
{"help", no_argument, 0, 'h'},
{"templateModel", required_argument, 0, 'T'},
{"complementModel", required_argument, 0, 'C'},
{"npRead", required_argument, 0, 'q'},
{"threshold", required_argument, 0, 'D'},
{0, 0, 0, 0} };
int option_index = 0;
key = getopt_long(argc, argv, "h:T:C:q:f:b:D:m:",
long_options, &option_index);
if (key == -1) {
//usage();
break;
}
switch (key) {
case 'h':
usage();
return 1;
case 'T':
templateModelFile = stString_copy(optarg);
break;
case 'C':
complementModelFile = stString_copy(optarg);
break;
case 'q':
npReadFile = stString_copy(optarg);
break;
case 'D':
j = sscanf(optarg, "%lf", &threshold);
assert (j == 1);
assert (threshold >= 0);
break;
default:
usage();
return 1;
}
}
if (!stFile_exists(npReadFile)) {
st_errAbort("Could not find npRead here: %s\n", npReadFile);
}
// read in the .npRead file
NanoporeRead *npRead = nanopore_loadNanoporeReadFromFile(npReadFile);
// build state machines (to use the look up table)
StateMachine *sMt = getStateMachine3(templateModelFile);
//StateMachine *sMc = getStateMachine3(complementModelFile);
// make 1D map of events (mean, noise) to kmers
stList *templateMap = signalUtils_templateOneDAssignmentsFromRead(npRead, sMt, ASSIGNMENT_THRESHOLD);
//stList *complementMap = signalUtils_complementOneDAssignmentsFromRead(npRead, sMc, ASSIGNMENT_THRESHOLD);
// convert template to log normal
// NB only need this if you're estimating the NOISE parameteres
//nanopore_convert_to_lognormal_params(sMt->alphabetSize, sMt->kmerLength, sMt->EMISSION_MATCH_MATRIX, templateMap);
// convert complement to log normal
//nanopore_convert_to_lognormal_params(sMc->alphabetSize, sMc->kmerLength, sMc->EMISSION_MATCH_MATRIX, complementMap);
// error log report
st_uglyf("SENTINEL - Before: shift: %f scale: %f var: %f [template]\n",
npRead->templateParams.shift, npRead->templateParams.scale, npRead->templateParams.var);
// compute template params
//nanopore_compute_noise_scale_params(sMt->EMISSION_MATCH_MATRIX, templateMap, &npRead->templateParams);
// compute complement params
//nanopore_compute_noise_scale_params(sMc->EMISSION_MATCH_MATRIX, complementMap, &npRead->complementParams);
// error log report
signalUtils_estimateNanoporeParams(sMt, npRead, &npRead->templateParams, ASSIGNMENT_THRESHOLD,
signalUtils_templateOneDAssignmentsFromRead, nanopore_dontAdjustEvents);
//signalUtils_estimateNanoporeParams(sMc, npRead, &npRead->complementParams, ASSIGNMENT_THRESHOLD,
// signalUtils_complementOneDAssignmentsFromRead, nanopore_dontAdjustEvents);
st_uglyf("SENTINEL - After: shift: %f scale: %f var: %f [template]\n",
npRead->templateParams.shift, npRead->templateParams.scale, npRead->templateParams.var);
//st_uglyf("SENTINEL - After: shift_sd: %f scale_sd: %f var_sd: %f [template]\n",
// npRead->complementParams.shift_sd, npRead->complementParams.scale_sd, npRead->complementParams.var_sd);
stList *templateKmers = lineTokensFromFile(npReadFile, 10);
//stList *complementKmers = lineTokensFromFile(npReadFile, 12);
//printEventNoisesAndParams(npRead, templateKmers, complementKmers);
printEventMeansAndParams(npRead, templateKmers, NULL);
stList_destruct(templateKmers);
//stList_destruct(complementKmers);
stList_destruct(templateMap);
//stList_destruct(complementMap);
nanopore_nanoporeReadDestruct(npRead);
stateMachine_destruct(sMt);
//stateMachine_destruct(sMc);
(void) j; // silence unused variable warning.
return 0;
}