改用了三数据块处理方式,解决了之前的问题,代码还没整理完全,有注释和调试信息

This commit is contained in:
zzh 2025-02-24 17:27:52 +08:00
parent 670d777824
commit fb8c7755f5
8 changed files with 1499 additions and 39 deletions

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@ -18,7 +18,8 @@ Date : 2023/10/23
#include "fastdup_version.h" #include "fastdup_version.h"
#include "md_args.h" #include "md_args.h"
#include "md_funcs.h" #include "md_funcs.h"
#include "pipeline_md.h" // #include "pipeline_md.h"
#include "new_pipe.h"
#include "read_name_parser.h" #include "read_name_parser.h"
#include "util/profiling.h" #include "util/profiling.h"
@ -33,9 +34,9 @@ sam_hdr_t *gInBamHeader; // 输入的bam文件头信息
samFile *gOutBamFp; // 输出文件, sam或者bam格式 samFile *gOutBamFp; // 输出文件, sam或者bam格式
sam_hdr_t *gOutBamHeader; // 输出文件的header sam_hdr_t *gOutBamHeader; // 输出文件的header
DuplicationMetrics gMetrics; // 统计信息 DuplicationMetrics gMetrics; // 统计信息
PipelineArg gPipe; DupResult gDupRes;
PipelineArg gPipe(&gDupRes);
}; }; // namespace nsgv
// 字节缓冲区 // 字节缓冲区
struct ByteBuf { struct ByteBuf {
@ -98,7 +99,8 @@ int MarkDuplicates() {
/* 冗余检查和标记 */ /* 冗余检查和标记 */
PROF_START(markdup_all); PROF_START(markdup_all);
pipelineMarkDups(); //pipelineMarkDups();
NewPipeMarkDups();
PROF_END(gprof[GP_markdup_all], markdup_all); PROF_END(gprof[GP_markdup_all], markdup_all);
/* 标记冗余, 将处理后的结果写入文件 */ /* 标记冗余, 将处理后的结果写入文件 */
@ -157,10 +159,15 @@ int MarkDuplicates() {
DupIdxQueue<DupInfo> dupIdxQue, repIdxQue; DupIdxQueue<DupInfo> dupIdxQue, repIdxQue;
DupIdxQueue<int64_t> opticalIdxQue; DupIdxQueue<int64_t> opticalIdxQue;
dupIdxQue.Init(&nsgv::gPipe.intersectData.dupIdxArr); dupIdxQue.Init(&nsgv::gDupRes.dupIdxArr);
repIdxQue.Init(&nsgv::gPipe.intersectData.repIdxArr); repIdxQue.Init(&nsgv::gDupRes.repIdxArr);
opticalIdxQue.Init(&nsgv::gPipe.intersectData.opticalDupIdxArr); opticalIdxQue.Init(&nsgv::gDupRes.opticalDupIdxArr);
spdlog::info("{} duplicate reads found", dupIdxQue.Size()); spdlog::info("{} duplicate reads found", dupIdxQue.Size());
spdlog::info("{} optical reads found", opticalIdxQue.Size());
spdlog::info("{} represent reads found", repIdxQue.Size());
spdlog::info("real dup size: {}", dupIdxQue.RealSize());
return 0;
uint64_t bamIdx = 0; uint64_t bamIdx = 0;
DupInfo dupIdx = dupIdxQue.Pop(); DupInfo dupIdx = dupIdxQue.Pop();
@ -177,7 +184,12 @@ int MarkDuplicates() {
int64_t realDupSize = 0; int64_t realDupSize = 0;
return 0; ofstream ofs("newdup.txt");
// return 0;
// for debug
int64_t maxDiff = 0;
int64_t minDiff = 0;
PROF_START(write); PROF_START(write);
while (inBuf.ReadStat() >= 0) { while (inBuf.ReadStat() >= 0) {
@ -214,15 +226,25 @@ int MarkDuplicates() {
} }
/* 判断是否冗余 */ /* 判断是否冗余 */
// cout << dupIdx << endl;
if (bamIdx == dupIdx) { if (bamIdx == dupIdx) {
// ofs << bamIdx << endl;
++realDupSize; // for test ++realDupSize; // for test
isDup = true; isDup = true;
if (nsgv::gMdArg.TAG_DUPLICATE_SET_MEMBERS && dupIdx.dupSet != 0) { if (nsgv::gMdArg.TAG_DUPLICATE_SET_MEMBERS && dupIdx.dupSet != 0) {
isInDuplicateSet = true; isInDuplicateSet = true;
representativeReadIndexInFile = dupIdx.repIdx; representativeReadIndexInFile = dupIdx.GetRepIdx();
duplicateSetSize = dupIdx.dupSet; duplicateSetSize = dupIdx.dupSet;
} }
#if 1
// spdlog::info("diff: {}", dupIdx.idx - dupIdx.repIdx);
//maxDiff = std::max(maxDiff, dupIdx.idx - dupIdx.repIdx);
//minDiff = std::min(minDiff, dupIdx.idx - dupIdx.repIdx);
//spdlog::info("min: {}, max: {}", minDiff, maxDiff);
#endif
// 为了防止小内存运行的时候有重复的dupidx这时候dup的repIdx和dupSetSize可能会有不同 // 为了防止小内存运行的时候有重复的dupidx这时候dup的repIdx和dupSetSize可能会有不同
while ((dupIdx = dupIdxQue.Pop()) == bamIdx); while ((dupIdx = dupIdxQue.Pop()) == bamIdx);
if (opticalIdx == bamIdx) if (opticalIdx == bamIdx)
@ -262,7 +284,7 @@ int MarkDuplicates() {
} }
if (nsgv::gMdArg.TAG_DUPLICATE_SET_MEMBERS && bamIdx == repIdx) { // repressent if (nsgv::gMdArg.TAG_DUPLICATE_SET_MEMBERS && bamIdx == repIdx) { // repressent
isInDuplicateSet = true; isInDuplicateSet = true;
representativeReadIndexInFile = repIdx.repIdx; representativeReadIndexInFile = repIdx.GetRepIdx();
duplicateSetSize = repIdx.dupSet; duplicateSetSize = repIdx.dupSet;
while (repIdx == bamIdx || repIdx.dupSet == 0) { while (repIdx == bamIdx || repIdx.dupSet == 0) {
if (repIdxQue.Size() > 0) if (repIdxQue.Size() > 0)
@ -277,6 +299,7 @@ int MarkDuplicates() {
if (nsgv::gMdArg.TAG_DUPLICATE_SET_MEMBERS && isInDuplicateSet) { if (nsgv::gMdArg.TAG_DUPLICATE_SET_MEMBERS && isInDuplicateSet) {
if (!bw->IsSecondaryOrSupplementary() && !bw->GetReadUnmappedFlag()) { if (!bw->IsSecondaryOrSupplementary() && !bw->GetReadUnmappedFlag()) {
// cerr << bamIdx << " " << representativeReadIndexInFile << " " << duplicateSetSize << endl; // cerr << bamIdx << " " << representativeReadIndexInFile << " " << duplicateSetSize << endl;
// ofs << bamIdx << " " << representativeReadIndexInFile << " " << duplicateSetSize << endl;
uint8_t *oldTagVal = bam_aux_get(bw->b, nsgv::gMdArg.DUPLICATE_SET_INDEX_TAG.c_str()); uint8_t *oldTagVal = bam_aux_get(bw->b, nsgv::gMdArg.DUPLICATE_SET_INDEX_TAG.c_str());
if (oldTagVal != NULL) if (oldTagVal != NULL)
bam_aux_del(bw->b, oldTagVal); bam_aux_del(bw->b, oldTagVal);
@ -304,7 +327,7 @@ int MarkDuplicates() {
bam_aux_append(bw->b, "PG", 'Z', nsgv::gMdArg.PROGRAM_RECORD_ID.size() + 1, bam_aux_append(bw->b, "PG", 'Z', nsgv::gMdArg.PROGRAM_RECORD_ID.size() + 1,
(const uint8_t *)nsgv::gMdArg.PROGRAM_RECORD_ID.c_str()); (const uint8_t *)nsgv::gMdArg.PROGRAM_RECORD_ID.c_str());
} }
#if 1 #if 0
if (sam_write1(nsgv::gOutBamFp, nsgv::gOutBamHeader, bw->b) < 0) { if (sam_write1(nsgv::gOutBamFp, nsgv::gOutBamHeader, bw->b) < 0) {
spdlog::error("failed writing sam record to \"{}\"", nsgv::gMdArg.OUTPUT_FILE.c_str()); spdlog::error("failed writing sam record to \"{}\"", nsgv::gMdArg.OUTPUT_FILE.c_str());
sam_close(nsgv::gOutBamFp); sam_close(nsgv::gOutBamFp);
@ -322,8 +345,7 @@ int MarkDuplicates() {
// 计算统计信息 // 计算统计信息
nsgv::gMetrics.READ_PAIRS_EXAMINED /= 2; nsgv::gMetrics.READ_PAIRS_EXAMINED /= 2;
nsgv::gMetrics.READ_PAIR_DUPLICATES /= 2; nsgv::gMetrics.READ_PAIR_DUPLICATES /= 2;
for (auto &arr : nsgv::gPipe.intersectData.opticalDupIdxArr) for (auto &arr : nsgv::gDupRes.opticalDupIdxArr) nsgv::gMetrics.READ_PAIR_OPTICAL_DUPLICATES += arr.size();
nsgv::gMetrics.READ_PAIR_OPTICAL_DUPLICATES += arr.size();
nsgv::gMetrics.READ_PAIR_OPTICAL_DUPLICATES = nsgv::gMetrics.READ_PAIR_OPTICAL_DUPLICATES / 2; nsgv::gMetrics.READ_PAIR_OPTICAL_DUPLICATES = nsgv::gMetrics.READ_PAIR_OPTICAL_DUPLICATES / 2;
nsgv::gMetrics.ESTIMATED_LIBRARY_SIZE = nsgv::gMetrics.ESTIMATED_LIBRARY_SIZE =
estimateLibrarySize(nsgv::gMetrics.READ_PAIRS_EXAMINED - nsgv::gMetrics.READ_PAIR_OPTICAL_DUPLICATES, estimateLibrarySize(nsgv::gMetrics.READ_PAIRS_EXAMINED - nsgv::gMetrics.READ_PAIR_OPTICAL_DUPLICATES,
@ -376,5 +398,7 @@ int MarkDuplicates() {
sam_close(nsgv::gOutBamFp); sam_close(nsgv::gOutBamFp);
sam_close(nsgv::gInBamFp); sam_close(nsgv::gInBamFp);
ofs.close();
return 0; return 0;
} }

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@ -64,7 +64,7 @@ struct MarkDupsArg {
int NUM_THREADS = 1; int NUM_THREADS = 1;
size_t MAX_MEM = ((size_t)1) << 31; // 最小2G size_t MAX_MEM = ((size_t)1) << 30; // << 31 // 最小2G
bool DUPLEX_IO = true; // 同时读写 bool DUPLEX_IO = true; // 同时读写

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@ -49,13 +49,22 @@ struct CalcKeyHash {
/* 用来记录冗余索引相关的信息 */ /* 用来记录冗余索引相关的信息 */
struct DupInfo { struct DupInfo {
int64_t idx;
int64_t repIdx = 0; // 这一批冗余中的非冗余read 代表的索引
int16_t dupSet = 0; // dup set size int16_t dupSet = 0; // dup set size
uint16_t repIdxHigh = 0; // 这一批冗余中的非冗余read 代表的索引
uint32_t repIdxLow = 0;
int64_t idx;
DupInfo() : DupInfo(-1, 0, 0) {} DupInfo() : DupInfo(-1, 0, 0) {}
DupInfo(int64_t idx_) : DupInfo(idx_, 0, 0) {} DupInfo(int64_t idx_) : DupInfo(idx_, 0, 0) {}
DupInfo(int64_t idx_, int64_t repIdx_, int dupSet_) : idx(idx_), repIdx(repIdx_), dupSet(dupSet_) {} DupInfo(int64_t idx_, int64_t repIdx_, int dupSet_) : idx(idx_), dupSet(dupSet_) {
repIdxHigh = repIdx_ >> 32;
repIdxLow = (uint32_t)repIdx_;
}
int64_t GetRepIdx() {
int64_t repIdx = repIdxHigh;
repIdx = (repIdx << 32) | repIdxLow;
return repIdx;
}
bool operator<(const DupInfo &o) const { return idx < o.idx; } bool operator<(const DupInfo &o) const { return idx < o.idx; }
bool operator>(const DupInfo &o) const { return idx > o.idx; } bool operator>(const DupInfo &o) const { return idx > o.idx; }
operator int64_t() const { return idx; } operator int64_t() const { return idx; }
@ -110,8 +119,8 @@ struct UnpairedPosInfo {
// typedef unordered_map<int64_t, UnpairedPosInfo> UnpairedPositionMap; // typedef unordered_map<int64_t, UnpairedPosInfo> UnpairedPositionMap;
typedef tsl::robin_map<string, UnpairedREInfo> UnpairedNameMap; // 以read name为索引保存未匹配的pair read typedef tsl::robin_map<string, UnpairedREInfo> UnpairedNameMap; // 以read name为索引保存未匹配的pair read
typedef tsl::robin_map<int64_t, UnpairedPosInfo> typedef tsl::robin_map<int64_t, UnpairedPosInfo> UnpairedPositionMap; // 以位点为索引保存该位点包含的对应的所有read和该位点包含的剩余未匹配的read的数量
UnpairedPositionMap; // 以位点为索引保存该位点包含的对应的所有read和该位点包含的剩余未匹配的read的数量 typedef map<CalcKey, vector<ReadEnds>> CkeyReadEndsMap; // 以calckey为关键字保存在相邻数据块之前找到的匹配readEnds
/* 单线程处理冗余参数结构体 */ /* 单线程处理冗余参数结构体 */
struct MarkDupDataArg { struct MarkDupDataArg {
@ -191,4 +200,36 @@ struct DupIdxQueue {
} }
return len - popNum; return len - popNum;
} }
uint64_t RealSize() {
uint64_t len = 0;
auto preTop = minHeap.top();
DupInfo dupIdx = this->Pop();
DupInfo nextDup = dupIdx;
auto topIdx = minHeap.top();
ofstream ofs("dupn-noxyz.txt");
while (dupIdx != -1) {
++len;
while (true) {
topIdx = minHeap.top();
nextDup = this->Pop();
if (nextDup != dupIdx) {
dupIdx = nextDup;
break;
} else {
cout << "the same dup: " << dupIdx << '\t' << preTop.arrId << '\t' << preTop.arrIdx << '\t'
<< preTop.dupIdx << '\t' << topIdx.arrId << '\t' << topIdx.arrIdx << '\t' << topIdx.dupIdx
<< endl;
}
}
//ofs << topIdx.arrId << '\t' << topIdx.arrIdx << '\t' << topIdx.dupIdx << endl;
ofs << topIdx.dupIdx << endl;
dupIdx = nextDup;
preTop = topIdx;
}
ofs.close();
return len;
}
}; };

File diff suppressed because it is too large Load Diff

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@ -0,0 +1,264 @@
#pragma once
#include <inttypes.h>
#include <spdlog/spdlog.h>
#include <util/yarn.h>
#include "md_types.h"
struct ReadData {
vector<BamWrap *> bams; // read step output
int64_t bamStartIdx = 0; // 每轮读入的bam数组起始位置在全局bam中的索引
int64_t taskSeq = 0; // 任务序号
};
struct GenREData {
vector<vector<ReadEnds>> pairsArr; // 成对的reads
vector<vector<ReadEnds>> fragsArr; // 暂未找到配对的reads
vector<UnpairedNameMap> unpairedDicArr; // 用来寻找pair end
void Init(int nThread) {
for (int i = 0; i <= nThread; ++i) { // 比线程多一个主要是pairs多一个其他没用
pairsArr.push_back(vector<ReadEnds>());
fragsArr.push_back(vector<ReadEnds>());
unpairedDicArr.push_back(UnpairedNameMap());
}
}
UnpairedNameMap unpairedDic; // 代替sort step中一部分计算
size_t byteSize() {
size_t bytes = 0;
for (auto &v : pairsArr)
for (auto &r : v) bytes += sizeof(r);
for (auto &v : fragsArr)
for (auto &r : v) bytes += sizeof(r);
for (auto &m : unpairedDicArr) bytes += m.size() * 100;
bytes += unpairedDic.size() * 100;
return bytes;
}
};
struct SortMarkData {
vector<ReadEnds> pairs; // 成对的reads
vector<ReadEnds> frags; // 暂未找到配对的reads
UnpairedNameMap unpairedDic; // 用来寻找pair end
size_t byteSize() {
size_t bytes = 0;
for (auto &r : pairs) bytes += sizeof(r);
for (auto &r : frags) bytes += sizeof(r);
bytes += unpairedDic.size() * 100;
return bytes;
}
};
struct SortData {
volatile void *dataPtr; // SortMarkData pointer
};
struct MarkDupData {
int64_t taskSeq = 0; // 任务序号
DPSet<DupInfo> pairDupIdx; // pair的冗余read的索引
MDSet<int64_t> pairOpticalDupIdx; // optical冗余read的索引
DPSet<DupInfo> fragDupIdx; // frag的冗余read的索引
DPSet<DupInfo> pairRepIdx; // pair的dupset代表read的索引
CkeyReadEndsMap ckeyReadEndsMap;
volatile void *dataPtr; // SortMarkData pointer
void clear() {
fragDupIdx.clear();
pairDupIdx.clear();
pairOpticalDupIdx.clear();
pairRepIdx.clear();
ckeyReadEndsMap.clear();
}
size_t byteSize() {
size_t bytes = 0;
bytes += pairDupIdx.size() * 100;
bytes += pairOpticalDupIdx.size() * 100;
bytes += fragDupIdx.size() * 100;
bytes += pairRepIdx.size() * 100;
return bytes;
}
};
struct DupResult {
vector<vector<DupInfo>> dupIdxArr;
vector<vector<int64_t>> opticalDupIdxArr;
vector<vector<DupInfo>> repIdxArr;
size_t byteSize() {
size_t bytes = 0;
size_t tmp = 0;
for (auto &v : dupIdxArr)
for (auto &r : v) tmp += sizeof(r);
spdlog::info("dupIdxArr size : {} GB", tmp / 1024.0 / 1024 / 1024);
bytes += tmp;
tmp = 0;
for (auto &v : opticalDupIdxArr)
for (auto &r : v) tmp += sizeof(r);
spdlog::info("opticalDupIdxArr size : {} GB", tmp / 1024.0 / 1024 / 1024);
bytes += tmp;
tmp = 0;
for (auto &v : repIdxArr)
for (auto &r : v) tmp += sizeof(r);
spdlog::info("repIdxArr size : {} GB", tmp / 1024.0 / 1024 / 1024);
bytes += tmp;
spdlog::info("result size : {} GB", bytes / 1024.0 / 1024 / 1024);
return bytes;
}
};
struct IntersectData {
UnpairedNameMap unpairedDic; // 用来寻找pair end
CkeyReadEndsMap ckeyReadEndsMap;
// 每个task对应一个vector
vector<vector<DupInfo>> &dupIdxArr;
vector<vector<int64_t>> &opticalDupIdxArr;
vector<vector<DupInfo>> &repIdxArr;
IntersectData(DupResult *resPtr)
: dupIdxArr(resPtr->dupIdxArr), opticalDupIdxArr(resPtr->opticalDupIdxArr), repIdxArr(resPtr->repIdxArr) {}
size_t byteSize() {
size_t bytes = 0;
bytes += unpairedDic.size() * 100;
for (auto &v : dupIdxArr)
for (auto &r : v) bytes += sizeof(r);
for (auto &v : opticalDupIdxArr)
for (auto &r : v) bytes += sizeof(r);
for (auto &v : repIdxArr)
for (auto &r : v) bytes += sizeof(r);
spdlog::info("result size : {}", bytes);
return bytes;
}
};
// 记录流水线状态task的序号以及某阶段是否结束
struct PipelineArg {
static const int GENBUFNUM = 2;
static const int SORTBUFNUM = 2;
static const int MARKBUFNUM = 4;
uint64_t readOrder = 0;
uint64_t genREOrder = 0;
uint64_t sortOrder = 0;
uint64_t markDupOrder = 0;
uint64_t intersectOrder = 0;
int numThread = 0;
volatile int readFinish = 0;
volatile int genREFinish = 0;
volatile int sortFinish = 0;
volatile int markDupFinish = 0;
yarn::lock_t *readSig;
yarn::lock_t *genRESig;
yarn::lock_t *sortSig;
yarn::lock_t *markDupSig;
PipelineArg(DupResult *resPtr) : intersectData(resPtr) {
readSig = yarn::NEW_LOCK(0); // 最大值1, 双buffer在bambuf中实现了对调用透明
genRESig = yarn::NEW_LOCK(0); // 最大值2, 双buffer
sortSig = yarn::NEW_LOCK(0);
markDupSig = yarn::NEW_LOCK(0);
for (int i = 0; i < SORTBUFNUM; ++i) {
sortData[i].dataPtr = &sortMarkData[i];
}
for (int i = 0; i < MARKBUFNUM; ++i) {
markDupData[i].dataPtr = &sortMarkData[i + SORTBUFNUM];
}
}
SortMarkData sortMarkData[SORTBUFNUM + MARKBUFNUM];
// for step-1 read
ReadData readData;
// for step-2 generate readends
GenREData genREData[GENBUFNUM];
// for step-3 sort each thread frags and pairs
SortData sortData[SORTBUFNUM];
// for step-4 mark duplicate
MarkDupData markDupData[MARKBUFNUM];
// for step-5 deal with intersect data
IntersectData intersectData;
size_t byteSize() {
size_t bytes = 0;
size_t tmp = 0;
for (int i = 0; i < SORTBUFNUM + MARKBUFNUM; ++i) tmp += sortMarkData[i].byteSize();
bytes += tmp;
spdlog::info("sortMarkData size : {}", tmp);
for (int i = 0; i < GENBUFNUM; ++i) tmp += genREData[i].byteSize();
bytes += tmp;
spdlog::info("genREData size : {}", tmp);
for (int i = 0; i < MARKBUFNUM; ++i) tmp += markDupData[i].byteSize();
bytes += tmp;
spdlog::info("markDupData size : {}", tmp);
tmp += intersectData.byteSize();
bytes += tmp;
spdlog::info("intersectData size : {}", tmp);
return bytes;
}
};
struct REArrIdIdx {
int arrId = 0; // 数组索引
uint64_t arrIdx = 0; // 数组内部当前索引
const ReadEnds *pE = nullptr;
};
struct REGreaterThan {
bool operator()(const REArrIdIdx &a, const REArrIdIdx &b) { return *b.pE < *a.pE; }
};
struct ReadEndsHeap {
// 将冗余索引和他对应的task vector对应起来
vector<vector<ReadEnds>> *arr2d;
priority_queue<REArrIdIdx, vector<REArrIdIdx>, REGreaterThan> minHeap;
uint64_t popNum = 0;
int Init(vector<vector<ReadEnds>> *_arr2d) {
arr2d = _arr2d;
if (arr2d == nullptr) {
return -1;
}
for (int i = 0; i < arr2d->size(); ++i) {
auto &v = (*arr2d)[i];
if (!v.empty()) {
minHeap.push({i, 1, &v[0]});
}
}
return 0;
}
const ReadEnds *Pop() {
const ReadEnds *ret = nullptr;
if (!minHeap.empty()) {
auto minVal = minHeap.top();
minHeap.pop();
++popNum;
ret = minVal.pE;
auto &v = (*arr2d)[minVal.arrId];
if (v.size() > minVal.arrIdx) {
minHeap.push({minVal.arrId, minVal.arrIdx + 1, &v[minVal.arrIdx]});
}
}
return ret;
}
uint64_t Size() {
uint64_t len = 0;
if (arr2d != nullptr) {
for (auto &v : *arr2d) {
len += v.size();
}
}
return len - popNum;
}
};
// 并行运行mark duplicate
void NewPipeMarkDups();

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@ -26,8 +26,8 @@ extern samFile *gInBamFp; // 输入的bam文件
extern sam_hdr_t *gInBamHeader; // 输入的bam文件头信息 extern sam_hdr_t *gInBamHeader; // 输入的bam文件头信息
extern DuplicationMetrics gMetrics; // 统计信息 extern DuplicationMetrics gMetrics; // 统计信息
extern vector<ReadNameParser> gNameParsers; extern vector<ReadNameParser> gNameParsers;
extern DupResult gDupRes;
extern PipelineArg gPipe; extern PipelineArg gPipe;
}; // namespace nsgv }; // namespace nsgv
/* 排序 */ /* 排序 */
@ -304,9 +304,13 @@ static void refeshTaskDupInfo(DPSet<DupInfo> &dupIdx, MDSet<int64_t> &opticalDup
/* 最后合并数据并排序 */ /* 最后合并数据并排序 */
template <typename DupContainer, typename T> template <typename DupContainer, typename T>
static void refeshFinalTaskDupInfo(DupContainer &dupIdx, MDSet<int64_t> &notDupIdx, vector<T> &dupArr, static void refeshFinalTaskDupInfo(DupContainer &dupIdx, MDSet<int64_t> &notDupIdx, vector<T> &dupArr,
vector<T> &cacheDupIdx, vector<T> &midArr) { vector<T> &cacheDupIdx1, vector<T> &midArr1) {
midArr.resize(0); //midArr.resize(0);
cacheDupIdx.resize(0); //cacheDupIdx.resize(0);
vector<T> cacheDupIdx;
vector<T> midArr;
cacheDupIdx.insert(cacheDupIdx.end(), dupIdx.begin(), dupIdx.end()); cacheDupIdx.insert(cacheDupIdx.end(), dupIdx.begin(), dupIdx.end());
std::sort(cacheDupIdx.begin(), cacheDupIdx.end()); std::sort(cacheDupIdx.begin(), cacheDupIdx.end());
@ -341,7 +345,11 @@ static void refeshFinalTaskDupInfo(DupContainer &dupIdx, MDSet<int64_t> &notDupI
midArr.push_back(val); midArr.push_back(val);
} }
} }
dupArr = midArr; // spdlog::info("midArr & dupArr size: {}-{}", midArr.size(), dupArr.size());
//dupArr = midArr;
dupArr.clear();
dupArr.assign(midArr.begin(), midArr.end());
spdlog::info("midArr & dupArr size: {}-{}", midArr.size(), dupArr.size());
} }
// for step 2 generate read ends // for step 2 generate read ends
@ -1003,7 +1011,7 @@ static void mergeAllTask(PipelineArg &pipeArg) {
g.unpairedPosArr.clear(); g.unpairedPosArr.clear();
PROF_END(gprof[GP_merge_markdup], merge_markdup); PROF_END(gprof[GP_merge_markdup], merge_markdup);
// 将dupidx放进全局数据 // // 将dupidx放进全局数据
PROF_START(merge_update); PROF_START(merge_update);
vector<DupInfo> cacheDupIdx; vector<DupInfo> cacheDupIdx;
vector<DupInfo> midArr; vector<DupInfo> midArr;
@ -1039,7 +1047,8 @@ static void mergeAllTask(PipelineArg &pipeArg) {
} }
static void parallelPipeline() { static void parallelPipeline() {
PipelineArg &pipeArg = nsgv::gPipe; PipelineArg pipeArg(&nsgv::gDupRes);
//PipelineArg &pipeArg = nsgv::gPipe;
pipeArg.numThread = nsgv::gMdArg.NUM_THREADS; pipeArg.numThread = nsgv::gMdArg.NUM_THREADS;
pthread_t tidArr[5]; pthread_t tidArr[5];
@ -1052,6 +1061,14 @@ static void parallelPipeline() {
PROF_START(merge_result); PROF_START(merge_result);
mergeAllTask(pipeArg); mergeAllTask(pipeArg);
PROF_END(gprof[GP_merge_result], merge_result); PROF_END(gprof[GP_merge_result], merge_result);
spdlog::info("pipeArg size : {}", pipeArg.byteSize());
size_t repNum = 0;
for (auto &v : pipeArg.intersectData.repIdxArr) repNum += v.size();
spdlog::info("rep num : {}", repNum);
spdlog::info("result size : {}", nsgv::gDupRes.byteSize());
} }
/* 并行流水线方式处理数据,标记冗余 */ /* 并行流水线方式处理数据,标记冗余 */
@ -1059,7 +1076,7 @@ void pipelineMarkDups() {
if (nsgv::gMdArg.NUM_THREADS > 1) if (nsgv::gMdArg.NUM_THREADS > 1)
return parallelPipeline(); return parallelPipeline();
PipelineArg &pipeArg = nsgv::gPipe; PipelineArg pipeArg(&nsgv::gDupRes);
pipeArg.numThread = nsgv::gMdArg.NUM_THREADS; pipeArg.numThread = nsgv::gMdArg.NUM_THREADS;
BamBufType inBamBuf(nsgv::gMdArg.DUPLEX_IO); BamBufType inBamBuf(nsgv::gMdArg.DUPLEX_IO);
inBamBuf.Init(nsgv::gInBamFp, nsgv::gInBamHeader, nsgv::gMdArg.MAX_MEM); inBamBuf.Init(nsgv::gInBamFp, nsgv::gInBamHeader, nsgv::gMdArg.MAX_MEM);

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@ -1,6 +1,7 @@
#pragma once #pragma once
#include <inttypes.h> #include <inttypes.h>
#include <spdlog/spdlog.h>
#include <util/yarn.h> #include <util/yarn.h>
#include "md_types.h" #include "md_types.h"
@ -24,6 +25,15 @@ struct GenREData {
} }
UnpairedNameMap unpairedDic; // 代替sort step中一部分计算 UnpairedNameMap unpairedDic; // 代替sort step中一部分计算
UnpairedPositionMap unpairedPosArr; // UnpairedPositionMap unpairedPosArr; //
size_t byteSize() {
size_t bytes = 0;
for (auto &v : pairsArr) for (auto &r : v) bytes += sizeof(r);
for (auto &v : fragsArr) for (auto &r : v) bytes += sizeof(r);
for (auto &m : unpairedDicArr) bytes += m.size() * 100;
bytes += unpairedDic.size() * 100;
bytes += unpairedPosArr.size() * 1000;
return bytes;
}
}; };
struct SortMarkData { struct SortMarkData {
@ -31,6 +41,14 @@ struct SortMarkData {
vector<ReadEnds> frags; // 暂未找到配对的reads vector<ReadEnds> frags; // 暂未找到配对的reads
UnpairedNameMap unpairedDic; // 用来寻找pair end UnpairedNameMap unpairedDic; // 用来寻找pair end
UnpairedPositionMap unpairedPosArr; // 存放未匹配的ReadEnd对应位点的所有ReadEnd为了避免重复存储 UnpairedPositionMap unpairedPosArr; // 存放未匹配的ReadEnd对应位点的所有ReadEnd为了避免重复存储
size_t byteSize() {
size_t bytes = 0;
for (auto &r : pairs) bytes += sizeof(r);
for (auto &r : frags) bytes += sizeof(r);
bytes += unpairedDic.size() * 100;
bytes += unpairedPosArr.size() * 1000;
return bytes;
}
}; };
struct SortData { struct SortData {
@ -45,6 +63,40 @@ struct MarkDupData {
DPSet<DupInfo> pairRepIdx; // pair的dupset代表read的索引 DPSet<DupInfo> pairRepIdx; // pair的dupset代表read的索引
volatile void *dataPtr; // SortMarkData pointer volatile void *dataPtr; // SortMarkData pointer
size_t byteSize() {
size_t bytes = 0;
bytes += pairDupIdx.size() * 100;
bytes += pairOpticalDupIdx.size() * 100;
bytes += fragDupIdx.size() * 100;
bytes += pairRepIdx.size() * 100;
return bytes;
}
};
struct DupResult {
vector<vector<DupInfo>> dupIdxArr;
vector<vector<int64_t>> opticalDupIdxArr;
vector<vector<DupInfo>> repIdxArr;
size_t byteSize() {
size_t bytes = 0;
size_t tmp = 0;
for (auto &v : dupIdxArr) for (auto &r : v) tmp += sizeof(r);
spdlog::info("dupIdxArr size : {} GB", tmp / 1024.0 / 1024 / 1024);
bytes += tmp;
tmp = 0;
for (auto &v : opticalDupIdxArr)
for (auto &r : v) tmp += sizeof(r);
spdlog::info("opticalDupIdxArr size : {} GB", tmp / 1024.0 / 1024 / 1024);
bytes += tmp;
tmp = 0;
for (auto &v : repIdxArr) for (auto &r : v) tmp += sizeof(r);
spdlog::info("repIdxArr size : {} GB", tmp / 1024.0 / 1024 / 1024);
bytes += tmp;
spdlog::info("result size : {} GB", bytes / 1024.0 / 1024 / 1024);
return bytes;
}
}; };
struct IntersectData { struct IntersectData {
@ -52,9 +104,9 @@ struct IntersectData {
UnpairedPositionMap unpairedPosArr; UnpairedPositionMap unpairedPosArr;
// 每个task对应一个vector // 每个task对应一个vector
vector<vector<DupInfo>> dupIdxArr; vector<vector<DupInfo>> &dupIdxArr;
vector<vector<int64_t>> opticalDupIdxArr; vector<vector<int64_t>> &opticalDupIdxArr;
vector<vector<DupInfo>> repIdxArr; vector<vector<DupInfo>> &repIdxArr;
// 用来存放后续计算的数据 // 用来存放后续计算的数据
vector<DPSet<DupInfo>> latterDupIdxArr; vector<DPSet<DupInfo>> latterDupIdxArr;
@ -63,6 +115,31 @@ struct IntersectData {
vector<MDSet<int64_t>> latterNotDupIdxArr; vector<MDSet<int64_t>> latterNotDupIdxArr;
vector<MDSet<int64_t>> latterNotOpticalDupIdxArr; vector<MDSet<int64_t>> latterNotOpticalDupIdxArr;
vector<MDSet<int64_t>> latterNotRepIdxArr; vector<MDSet<int64_t>> latterNotRepIdxArr;
IntersectData(DupResult *resPtr) :
dupIdxArr(resPtr->dupIdxArr),
opticalDupIdxArr(resPtr->opticalDupIdxArr),
repIdxArr(resPtr->repIdxArr)
{}
size_t byteSize() {
size_t bytes = 0;
bytes += unpairedDic.size() * 100;
bytes += unpairedPosArr.size() * 1000;
for (auto &v : dupIdxArr) for (auto &r : v) bytes += sizeof(r);
for (auto &v : opticalDupIdxArr) for (auto &r : v) bytes += sizeof(r);
for (auto &v : repIdxArr) for (auto &r : v) bytes += sizeof(r);
spdlog::info("result size : {}", bytes);
for (auto &s : latterDupIdxArr) bytes += s.size() * sizeof(DupInfo);
for (auto &s : latterOpticalDupIdxArr) bytes += s.size() * sizeof(DupInfo);
for (auto &s : latterRepIdxArr) bytes += s.size() * sizeof(DupInfo);
for (auto &s : latterNotDupIdxArr) bytes += s.size() * sizeof(DupInfo);
for (auto &s : latterNotOpticalDupIdxArr) bytes += s.size() * sizeof(DupInfo);
for (auto &s : latterNotRepIdxArr) bytes += s.size() * sizeof(DupInfo);
return bytes;
}
}; };
// 记录流水线状态task的序号以及某阶段是否结束 // 记录流水线状态task的序号以及某阶段是否结束
@ -87,7 +164,7 @@ struct PipelineArg {
yarn::lock_t *sortSig; yarn::lock_t *sortSig;
yarn::lock_t *markDupSig; yarn::lock_t *markDupSig;
PipelineArg() { PipelineArg(DupResult *resPtr) : intersectData(resPtr) {
readSig = yarn::NEW_LOCK(0); // 最大值1, 双buffer在bambuf中实现了对调用透明 readSig = yarn::NEW_LOCK(0); // 最大值1, 双buffer在bambuf中实现了对调用透明
genRESig = yarn::NEW_LOCK(0); // 最大值2, 双buffer genRESig = yarn::NEW_LOCK(0); // 最大值2, 双buffer
sortSig = yarn::NEW_LOCK(0); sortSig = yarn::NEW_LOCK(0);
@ -112,6 +189,26 @@ struct PipelineArg {
MarkDupData markDupData[MARKBUFNUM]; MarkDupData markDupData[MARKBUFNUM];
// for step-5 deal with intersect data // for step-5 deal with intersect data
IntersectData intersectData; IntersectData intersectData;
size_t byteSize() {
size_t bytes = 0;
size_t tmp = 0;
for (int i = 0; i < SORTBUFNUM + MARKBUFNUM; ++i) tmp += sortMarkData[i].byteSize();
bytes += tmp;
spdlog::info("sortMarkData size : {}", tmp);
for (int i = 0; i < GENBUFNUM; ++i) tmp += genREData[i].byteSize();
bytes += tmp;
spdlog::info("genREData size : {}", tmp);
for (int i = 0; i < MARKBUFNUM; ++i) tmp += markDupData[i].byteSize();
bytes += tmp;
spdlog::info("markDupData size : {}", tmp);
tmp += intersectData.byteSize();
bytes += tmp;
spdlog::info("intersectData size : {}", tmp);
return bytes;
}
}; };
struct REArrIdIdx { struct REArrIdIdx {

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@ -78,7 +78,7 @@ struct ReadEnds : PhysicalLocation {
/* zzh增加的成员变量 */ /* zzh增加的成员变量 */
int64_t posKey = -1; // 根据位置信息生成的关键字 return (int64_t)tid << int64_t posKey = -1; // 根据位置信息生成的关键字 return (int64_t)tid <<
// MAX_CONTIG_LEN_SHIFT | (int64_t)pos; // MAX_CONTIG_LEN_SHIFT | (int64_t)pos; 包含clip的序列也就是可能比map结果更偏左
/* 用来做一些判断因为一些readends会做多次操作比如task之间有重叠等等 */ /* 用来做一些判断因为一些readends会做多次操作比如task之间有重叠等等 */
int oprateTime = 0; int oprateTime = 0;
@ -148,12 +148,12 @@ struct ReadEnds : PhysicalLocation {
comp = read2ReferenceIndex - o.read2ReferenceIndex; comp = read2ReferenceIndex - o.read2ReferenceIndex;
if (comp == 0) if (comp == 0)
comp = read2Coordinate - o.read2Coordinate; comp = read2Coordinate - o.read2Coordinate;
if (comp == 0) //if (comp == 0)
comp = tile - o.tile; // comp = tile - o.tile;
if (comp == 0) //if (comp == 0)
comp = x - o.x; // comp = x - o.x;
if (comp == 0) //if (comp == 0)
comp - y - o.y; // comp - y - o.y;
if (comp == 0) if (comp == 0)
comp = (int)(read1IndexInFile - o.read1IndexInFile); comp = (int)(read1IndexInFile - o.read1IndexInFile);
if (comp == 0) if (comp == 0)