picard_cpp/src/sam/markdups/serial_md.h

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#include <algorithm>
#include <robin-map/include/tsl/robin_map.h>
/* 存放未匹配readend相同位点的所有readend */
struct UnpairedREInfo
{
int64_t taskSeq;
ReadEnds unpairedRE;
};
struct GlobalUnpairedInfo
{
int64_t taskSeq;
vector<ReadEnds> reArr;
};
struct TaskSeqDupInfo
{
set<int64_t> dupIdx;
set<int64_t> opticalDupIdx;
set<int64_t> notDupIdx;
};
// typedef unordered_map<string, UnpairedREInfo> UnpairedNameMap;
// typedef unordered_map<int64_t, vector<ReadEnds>> UnpairedPositionMap;
typedef tsl::robin_map<string, UnpairedREInfo> UnpairedNameMap;
typedef tsl::robin_map<int64_t, vector<ReadEnds>> UnpairedPositionMap;
/* 单线程处理冗余参数结构体 */
struct SerailMarkDupArg
{
int64_t taskSeq;
int64_t bamStartIdx; // 当前vBam数组中第一个bam记录在整体bam中所处的位置
vector<BamWrap *> bams; // 存放待处理的bam read
vector<ReadEnds> pairs;
vector<ReadEnds> frags;
set<int64_t> pairDupIdx; // pair的冗余read的索引
set<int64_t> pairOpticalDupIdx; // optical冗余read的索引
set<int64_t> fragDupIdx; // frag的冗余read的索引
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
};
/* 全局保留的数据因为有些paired数据比对到了不同的染色体相距甚远 */
struct GlobalDataArg
{
set<int64_t> pairDupIdx; // pair的冗余read的索引
set<int64_t> pairOpticalDupIdx; // optical冗余read的索引
set<int64_t> notDupIdx; // 不是冗余
//unordered_map<string, UnpairedREInfo> unpairedDic; // 用来寻找pair end
//unordered_map<int64_t, vector<ReadEnds>> unpairedPosArr;
UnpairedNameMap unpairedDic; // 用来寻找pair end
UnpairedPositionMap unpairedPosArr;
// 每个task对应一个vector
vector<vector<int64_t>> dupIdxArr;
vector<vector<int64_t>> opticalDupIdxArr;
};
static GlobalDataArg gData;
/* 查找 */
template<class Itr, class T>
static inline Itr binaryFind(Itr first, Itr last, const T &val)
{
first = std::lower_bound(first, last, val);
return (first != last && *first == val) ? first : last;
}
/* 排序 */
static inline void sortReadEndsArr(vector<ReadEnds> &arr)
{
size_t blockSize = 64 * 1024;
blockSize = min(blockSize, arr.size());
size_t blockNum = (arr.size() + blockSize - 1) / blockSize;
size_t crossNum = 1024;
size_t start, end, i, left, right;
std::sort(arr.begin(), arr.begin() + blockSize);
for (i = 1; i < blockNum; ++i)
{
start = i * blockSize;
end = min(start + blockSize, arr.size());
std::sort(arr.begin() + start, arr.begin() + end);
left = crossNum;
while (!(arr[start - left] < arr[start]))
{
left = left << 1;
if (left >= blockSize)
{
std::sort(arr.begin(), arr.end()); // 退化到普通排序
return;
}
}
right = min(crossNum, end - start - 1);
while (!(arr[start - 1] < arr[start + right]))
{
right = min(right << 1, end - start - 1);
if (right == end - start - 1)
break;
}
// cout << "sort: " << left << ' ' << right << ' '
// << arr[start - left].posKey << ' ' << arr[start - 1].posKey << ' '
// << arr[start].posKey << ' ' << arr[start + right].posKey << endl;
std::sort(arr.begin() + start - left, arr.begin() + start + right);
}
}
/* 处理一组pairend的readends标记冗余 */
static void markDupsForPairs(vector<const ReadEnds *> &vpRe,
set<int64_t> *dupIdx,
set<int64_t> *opticalDupIdx,
set<int64_t> *notDupIdx = nullptr)
{
if (vpRe.size() < 2)
{
if (vpRe.size() == 1)
{
// addSingletonToCount(libraryIdGenerator);
}
return;
}
int maxScore = 0;
const ReadEnds *pBest = nullptr;
/** All read ends should have orientation FF, FR, RF, or RR **/
for (auto pe : vpRe) // 找分数最高的readend
{
if (pe->score > maxScore || pBest == nullptr)
{
maxScore = pe->score;
pBest = pe;
}
}
if (notDupIdx != nullptr)
{
notDupIdx->insert(pBest->read1IndexInFile);
notDupIdx->insert(pBest->read2IndexInFile);
}
if (!g_mdArg.READ_NAME_REGEX.empty()) // 检查光学冗余
{
// trackOpticalDuplicates
}
for (auto pe : vpRe) // 对非best read标记冗余
{
if (pe != pBest) // 非best
{
dupIdx->insert(pe->read1IndexInFile); // 添加read1
if (pe->read2IndexInFile != pe->read1IndexInFile)
dupIdx->insert(pe->read2IndexInFile); // 添加read2
}
}
// if (g_mdArg.TAG_DUPLICATE_SET_MEMBERS)
// {
// addRepresentativeReadIndex(vpRe);
// }
}
/* 处理一组非paired的readends标记冗余 */
static void markDupsForFrags(vector<const ReadEnds *> &vpRe,
bool containsPairs,
set<int64_t> *dupIdx,
set<int64_t> *notDupIdx = nullptr)
{
if (containsPairs)
{
for (auto pe : vpRe)
{
if (!pe->IsPaired())
{
dupIdx->insert(pe->read1IndexInFile);
}
}
}
else
{
int maxScore = 0;
const ReadEnds *pBest = nullptr;
for (auto pe : vpRe)
{
if (pe->score > maxScore || pBest == nullptr)
{
maxScore = pe->score;
pBest = pe;
}
}
if (notDupIdx != nullptr)
{
notDupIdx->insert(pBest->read1IndexInFile);
}
for (auto pe : vpRe)
{
if (pe != pBest)
{
dupIdx->insert(pe->read1IndexInFile);
}
}
}
}
/* 找到与readend pos相等的所有readend */
static void getEqualRE(const ReadEnds &re, vector<ReadEnds> &src, vector<ReadEnds> *dst)
{
auto range = std::equal_range(src.begin(), src.end(), re, ReadEnds::pairsCmp);
dst->insert(dst->end(), range.first, range.second);
}
/* 单线程生成readends (第一步)*/
static void generateReadEnds(SerailMarkDupArg *arg)
{
auto &p = *arg;
auto &rnParser = g_vRnParser[0];
p.pairs.clear();
p.frags.clear();
p.unpairedDic.clear();
p.unpairedPosArr.clear();
/* 处理每个read创建ReadEnd并放入frag和pair中 */
set<ReadEnds> reSet;
ReadEnds lastRe;
for (int i = 0; i < p.bams.size(); ++i) // 循环处理每个read
{
BamWrap *bw = p.bams[i];
const int64_t bamIdx = p.bamStartIdx + i;
if (bw->GetReadUnmappedFlag())
{
if (bw->b->core.tid == -1)
// When we hit the unmapped reads with no coordinate, no reason to continue (only in coordinate sort).
break;
}
else if (!bw->IsSecondaryOrSupplementary()) // 是主要比对
{
ReadEnds fragEnd;
tm_arr[8].acc_start();
buildReadEnds(*bw, bamIdx, rnParser, &fragEnd);
tm_arr[8].acc_end();
p.frags.push_back(fragEnd); // 添加进frag集合
if (bw->GetReadPairedFlag() && !bw->GetMateUnmappedFlag()) // 是pairend而且互补的read也比对上了
{
string key = bw->query_name();
if (p.unpairedDic.find(key) == p.unpairedDic.end())
{
p.unpairedDic[key] = {p.taskSeq, fragEnd};
}
else // 找到了pairend
{
auto &pairedEnds = p.unpairedDic.at(key).unpairedRE;
modifyPairedEnds(fragEnd, &pairedEnds);
// if (pairedEnds.read1IndexInFile == 94 || pairedEnds.read1IndexInFile == 95)
// {
// cout << "pair score: " << pairedEnds.read1IndexInFile << ' ' << pairedEnds.score << endl;
// }
// if (pairedEnds.read1IndexInFile == 94)
// {
// lastRe = pairedEnds;
// }
// if (pairedEnds.read1IndexInFile == 95)
// {
// cout << "compare: " << (lastRe < pairedEnds) << ' ' << (pairedEnds < lastRe) << endl;
//
// }
p.pairs.push_back(pairedEnds);
p.unpairedDic.erase(key); // 删除找到的pairend
}
}
}
}
// cout << "sort frags" << endl;
sortReadEndsArr(p.frags);
// sort(p.frags.begin(), p.frags.end());
// cout << "sort pairs" << endl;
// sortReadEndsArr(p.pairs);
sort(p.pairs.begin(), p.pairs.end());
// cout << "unpaired num: " << p.unpairedDic.size() << endl;
// 把未匹配的pair对应的每个位点的pairs记录下来
for (auto &e : p.unpairedDic) {
auto &unpair = e.second;
auto posKey = unpair.unpairedRE.posKey;
if (p.unpairedPosArr.find(posKey) == p.unpairedPosArr.end())
getEqualRE(unpair.unpairedRE, p.pairs, &p.unpairedPosArr[posKey]);
}
}
/* 处理pairs */
static void processPairs(vector<ReadEnds> &readEnds,
set<int64_t> *dupIdx,
set<int64_t> *opticalDupIdx,
set<int64_t> *notDupIdx = nullptr)
{
vector<const ReadEnds *> vpCache; // 有可能是冗余的reads
const ReadEnds *pReadEnd = nullptr;
for (auto &re : readEnds)
{
if (pReadEnd != nullptr && ReadEnds::AreComparableForDuplicates(*pReadEnd, re, true)) // 跟前一个一样
vpCache.push_back(&re); // 处理一个潜在的冗余组
else
{
markDupsForPairs(vpCache, dupIdx, opticalDupIdx, notDupIdx); // 不一样
vpCache.clear();
vpCache.push_back(&re);
pReadEnd = &re;
}
}
markDupsForPairs(vpCache, dupIdx, opticalDupIdx, notDupIdx);
}
/* 处理frags */
static void processFrags(vector<ReadEnds> &readEnds,
set<int64_t> *dupIdx,
set<int64_t> *notDupIdx = nullptr)
{
bool containsPairs = false;
bool containsFrags = false;
vector<const ReadEnds *> vpCache; // 有可能是冗余的reads
const ReadEnds *pReadEnd = nullptr;
for (auto &re : readEnds)
{
if (pReadEnd != nullptr && ReadEnds::AreComparableForDuplicates(*pReadEnd, re, false))
{
vpCache.push_back(&re);
containsPairs = containsPairs || re.IsPaired();
containsFrags = containsFrags || !re.IsPaired();
}
else
{
if (vpCache.size() > 1 && containsFrags)
{
markDupsForFrags(vpCache, containsPairs, dupIdx, notDupIdx);
}
vpCache.clear();
vpCache.push_back(&re);
pReadEnd = &re;
containsPairs = re.IsPaired();
containsFrags = !re.IsPaired();
}
}
if (vpCache.size() > 1 && containsFrags)
{
markDupsForFrags(vpCache, containsPairs, dupIdx, notDupIdx);
}
}
/* 单线程markdup (第二步)*/
static void markdups(SerailMarkDupArg *arg)
{
auto &p = *arg;
p.pairDupIdx.clear();
p.pairOpticalDupIdx.clear();
p.fragDupIdx.clear();
/* generateDuplicateIndexes计算冗余read在所有read中的位置索引 */
// 先处理 pair
processPairs(p.pairs, &p.pairDupIdx, &p.pairOpticalDupIdx);
// 再处理frag
processFrags(p.frags, &p.fragDupIdx);
}
/* 获取交叉部分的数据 */
static inline void getIntersectData(vector<ReadEnds> &leftArr, vector<ReadEnds> &rightArr, vector<ReadEnds> *dst)
{
const size_t leftEndIdx = leftArr.size() - 1;
const size_t rightStartIdx = 0;
size_t leftSpan = 0;
size_t rightSpan = 0;
while (!(leftArr[leftEndIdx - leftSpan] < rightArr[rightStartIdx]))
{
leftSpan += 1;
if (leftSpan > leftEndIdx)
{
leftSpan = leftArr.size() - 1;
break;
}
}
while (!(leftArr[leftEndIdx] < rightArr[rightSpan]))
{
rightSpan += 1;
if (rightSpan == rightArr.size() - 1)
break;
}
dst->insert(dst->end(), leftArr.end() - leftSpan, leftArr.end());
dst->insert(dst->end(), rightArr.begin(), rightArr.begin() + rightSpan);
std::sort(dst->begin(), dst->end());
}
/* 将重叠部分的dup idx放进数据中 */
static inline void refreshFragDupIdx(set<int64_t> &dupIdx,
set<int64_t> &notDupIdx,
SerailMarkDupArg * lastArg,
SerailMarkDupArg *curArg)
{
auto &lp = *lastArg;
auto &p = *curArg;
for (auto idx : dupIdx)
{
lp.fragDupIdx.insert(idx);
p.fragDupIdx.erase(idx);
}
for (auto idx : notDupIdx)
{
lp.fragDupIdx.erase(idx);
p.fragDupIdx.erase(idx);
}
}
static inline void refreshPairDupIdx(set<int64_t> &dupIdx,
set<int64_t> &opticalDupIdx,
set<int64_t> &notDupIdx,
SerailMarkDupArg *lastArg,
SerailMarkDupArg *curArg)
{
auto &lp = *lastArg;
auto &p = *curArg;
for (auto idx : dupIdx)
{
lp.pairDupIdx.insert(idx);
p.pairDupIdx.erase(idx);
}
for (auto idx : opticalDupIdx)
{
lp.pairOpticalDupIdx.insert(idx);
p.pairOpticalDupIdx.erase(idx);
}
for (auto idx : notDupIdx)
{
lp.pairDupIdx.erase(idx);
lp.pairOpticalDupIdx.erase(idx);
p.pairDupIdx.erase(idx);
p.pairOpticalDupIdx.erase(idx);
}
}
/* 处理未匹配的部分 */
static inline void processUnpairedPosForCalc(UnpairedNameMap &lpUnpairedDic,
UnpairedPositionMap &lpUnpairedPosArr,
UnpairedNameMap &pUnpairedDic,
UnpairedPositionMap &pUnpairedPosArr,
vector<ReadEnds> &pairs,
map<int64_t, int64_t> &recalcPos,
bool addToLast = false)
{
recalcPos.clear();
for (auto itr = pUnpairedDic.begin(); itr != pUnpairedDic.end();)
{
auto &readName = itr->first;
if (lpUnpairedDic.find(readName) != lpUnpairedDic.end())
{
auto &posInfo = lpUnpairedDic[readName];
auto posKey = posInfo.unpairedRE.posKey;
auto &posReArr = lpUnpairedPosArr[posKey];
modifyPairedEnds(itr->second.unpairedRE, &posInfo.unpairedRE);
posKey = posInfo.unpairedRE.posKey;
if (recalcPos.find(posKey) == recalcPos.end()) // 如果之前没有这个位点
getEqualRE(posInfo.unpairedRE, pairs, &posReArr);
recalcPos[posKey] = posInfo.taskSeq;
posReArr.push_back(posInfo.unpairedRE);
std::sort(posReArr.begin(), posReArr.end());
lpUnpairedDic.erase(readName);
itr = pUnpairedDic.erase(itr);
}
else
{
if (addToLast) // 将数据添加进遗留数据中
{
auto posKey = itr->second.unpairedRE.posKey;
lpUnpairedDic[readName] = itr->second;
lpUnpairedPosArr[posKey] = pUnpairedPosArr[posKey];
}
++itr;
}
}
}
// 用来分别处理dup和optical dup
static void refeshTaskDupInfo(vector<int64_t> &addDup,
map<int64_t, int64_t> &ndPosVal,
set<int64_t> &dupIdx,
set<int64_t> &notDupIdx,
vector<int64_t> &dupArr)
{
addDup.clear();
ndPosVal.clear();
// 去除之前有的,重复的
for (auto i = dupIdx.begin(); i != dupIdx.end();)
{
auto itr = binaryFind(dupArr.begin(), dupArr.end(), *i);
if (itr != dupArr.end())
{
i = dupIdx.erase(i);
}
else
{
++i;
}
}
// 添加现有的
auto di = dupIdx.begin();
for (auto nidx : notDupIdx)
{
auto itr = binaryFind(dupArr.begin(), dupArr.end(), nidx);
if (itr != dupArr.end())
{
ndPosVal[itr - dupArr.begin()] = *di++;
}
}
while (di != dupIdx.end())
addDup.push_back(*di++);
for (auto pos : ndPosVal)
dupArr[pos.first] = pos.second;
dupArr.insert(dupArr.end(), addDup.begin(), addDup.end());
std::sort(dupArr.begin(), dupArr.end());
}
/* 将遗留的冗余信息添加进对应的任务数据中 */
static void addDupInfoToTask(map<int64_t, TaskSeqDupInfo> &seqTaskChanged, GlobalDataArg *gDataArg)
{
auto &g = *gDataArg;
// 更新遗留的结果
vector<int64_t> addDup;
map<int64_t, int64_t> ndPosVal;
for (auto &e : seqTaskChanged)
{
refeshTaskDupInfo(addDup, ndPosVal, e.second.dupIdx, e.second.notDupIdx, g.dupIdxArr[e.first]);
refeshTaskDupInfo(addDup, ndPosVal, e.second.opticalDupIdx, e.second.notDupIdx, g.opticalDupIdxArr[e.first]);
}
}
/* 处理相邻的两个任务,有相交叉的数据 */
static void handleIntersectData(SerailMarkDupArg *lastArg, SerailMarkDupArg *curArg, GlobalDataArg *gDataArg)
{
auto &lp = *lastArg;
auto &p = *curArg;
auto &g = *gDataArg;
vector<ReadEnds> reArr;
set<int64_t> dupIdx;
set<int64_t> notDupIdx;
// 先处理重叠的frags
getIntersectData(lp.frags, p.frags, &reArr);
processFrags(reArr, &dupIdx, &notDupIdx);
refreshFragDupIdx(dupIdx, notDupIdx, &lp, &p);
// 再处理重叠的pairs
reArr.clear();
dupIdx.clear();
notDupIdx.clear();
set<int64_t> opticalDupIdx;
getIntersectData(lp.pairs, p.pairs, &reArr);
processPairs(reArr, &dupIdx, &opticalDupIdx, &notDupIdx);
refreshPairDupIdx(dupIdx, opticalDupIdx, notDupIdx, &lp, &p);
// 处理之前未匹配的部分
map<int64_t, int64_t> recalcPos;
processUnpairedPosForCalc(lp.unpairedDic,
lp.unpairedPosArr,
p.unpairedDic,
p.unpairedPosArr,
p.pairs,
recalcPos);
for (auto &e : recalcPos)
{
auto posKey = e.first;
dupIdx.clear();
notDupIdx.clear();
opticalDupIdx.clear();
processPairs(lp.unpairedPosArr[posKey], &dupIdx, &opticalDupIdx, &notDupIdx);
refreshPairDupIdx(dupIdx, opticalDupIdx, notDupIdx, &lp, &p);
}
// 遗留的未匹配的pair
processUnpairedPosForCalc(g.unpairedDic,
g.unpairedPosArr,
lp.unpairedDic,
lp.unpairedPosArr,
lp.pairs,
recalcPos,
true);
map<int64_t, TaskSeqDupInfo> seqTaskChanged;
for (auto &e : recalcPos)
{
auto posKey = e.first;
auto seqNum = e.second;
auto &t = seqTaskChanged[seqNum];
// 在对应的任务包含的dup idx里修改结果数据
processPairs(g.unpairedPosArr[posKey], &t.dupIdx, &t.opticalDupIdx, &t.notDupIdx);
g.unpairedPosArr.erase(posKey);
}
addDupInfoToTask(seqTaskChanged, &g);
cout << "remain unpaired: " << g.unpairedDic.size() << '\t' << g.unpairedPosArr.size() << endl;
// 将dupidx放进全局数据
g.dupIdxArr.push_back(vector<int64_t>());
auto &vIdx = g.dupIdxArr.back();
lp.pairDupIdx.insert(lp.fragDupIdx.begin(), lp.fragDupIdx.end());
vIdx.insert(vIdx.end(), lp.pairDupIdx.begin(), lp.pairDupIdx.end());
g.opticalDupIdxArr.push_back(vector<int64_t>());
auto &vOpticalIdx = g.opticalDupIdxArr.back();
vOpticalIdx.insert(vOpticalIdx.end(), lp.pairOpticalDupIdx.begin(), lp.pairOpticalDupIdx.end());
}
/* 当所有任务结束后global data里还有未处理的数据 */
static void handleLastTask(SerailMarkDupArg *task, GlobalDataArg *gDataArg)
{
auto &lp = *task;
auto &g = *gDataArg;
map<int64_t, int64_t> recalcPos;
// 遗留的未匹配的pair
processUnpairedPosForCalc(g.unpairedDic,
g.unpairedPosArr,
lp.unpairedDic,
lp.unpairedPosArr,
lp.pairs,
recalcPos,
true);
map<int64_t, TaskSeqDupInfo> seqTaskChanged;
for (auto &e : recalcPos)
{
auto posKey = e.first;
auto seqNum = e.second;
auto &t = seqTaskChanged[seqNum];
// 在对应的任务包含的dup idx里修改结果数据
processPairs(g.unpairedPosArr[posKey], &t.dupIdx, &t.opticalDupIdx, &t.notDupIdx);
g.unpairedPosArr.erase(posKey);
}
// 更新遗留的结果
addDupInfoToTask(seqTaskChanged, &g);
cout << "last unpair info: " << g.unpairedPosArr.size() << '\t' << g.unpairedDic.size() << endl;
// 将dupidx放进全局数据
g.dupIdxArr.push_back(vector<int64_t>());
auto &vIdx = g.dupIdxArr.back();
lp.pairDupIdx.insert(lp.fragDupIdx.begin(), lp.fragDupIdx.end());
vIdx.insert(vIdx.end(), lp.pairDupIdx.begin(), lp.pairDupIdx.end());
g.opticalDupIdxArr.push_back(vector<int64_t>());
auto &vOpticalIdx = g.opticalDupIdxArr.back();
vOpticalIdx.insert(vOpticalIdx.end(), lp.pairOpticalDupIdx.begin(), lp.pairOpticalDupIdx.end());
}
/* 串行处理数据,标记冗余 */
static void serialMarkDups()
{
tm_arr[5].acc_start();
Timer::log_time("serial start");
// 读取缓存初始化
BamBufType inBamBuf(g_gArg.use_asyncio);
inBamBuf.Init(g_inBamFp, g_inBamHeader, g_gArg.max_mem);
// BamBufType inBamBuf(false);
// inBamBuf.Init(g_inBamFp, g_inBamHeader, 20 * 1024 * 1024);
int64_t processedBamNum = 0;
SerailMarkDupArg smdArg1, smdArg2;
SerailMarkDupArg *lastArgP = &smdArg1;
SerailMarkDupArg *curArgP = &smdArg2;
bool isFirstRound = true;
int roundNum = 0;
while (inBamBuf.ReadStat() >= 0)
{
Timer t_round;
// 读取bam文件中的read
tm_arr[4].acc_start();
size_t readNum = inBamBuf.ReadBam();
tm_arr[4].acc_end();
cout << "read num: " << readNum << endl;
// lastArgP = curArgP;
tm_arr[6].acc_start();
curArgP->taskSeq = roundNum;
curArgP->bamStartIdx = processedBamNum;
curArgP->bams = inBamBuf.GetBamArr();
tm_arr[6].acc_end();
tm_arr[0].acc_start();
Timer t1;
generateReadEnds(curArgP);
cout << "calc read end time: " << t1.seconds_elapsed() << " s" << endl;
tm_arr[0].acc_end();
tm_arr[1].acc_start();
t1.reinit();
markdups(curArgP);
cout << "markdups time: " << t1.seconds_elapsed() << " s" << endl;
tm_arr[1].acc_end();
if (!isFirstRound)
{
tm_arr[2].acc_start();
t1.reinit();
handleIntersectData(lastArgP, curArgP, &gData);
cout << "intersect time: " << t1.seconds_elapsed() << " s" << endl;
// addTaskIdxToSet(lastArgP, &gData);
tm_arr[2].acc_end();
}
else
{
isFirstRound = false;
}
inBamBuf.ClearAll(); // 清理上一轮读入的数据
processedBamNum += readNum;
// 交换
auto tmp = lastArgP;
lastArgP = curArgP;
curArgP = tmp;
cout << "round time: " << t_round.seconds_elapsed() << endl;
roundNum++;
if (roundNum > 9){
// break;
}
}
tm_arr[3].acc_start();
// 处理剩下的全局数据
handleLastTask(lastArgP, &gData);
tm_arr[3].acc_end();
tm_arr[5].acc_end();
// 统计所有冗余index数量
int64_t dupNum = 0;
unordered_set<int64_t> dup;
for (auto &arr : gData.dupIdxArr)
for (auto idx : arr)
dup.insert(idx);
dupNum += dup.size();
cout << "dup num : " << dupNum << endl;
cout << "calc readend: " << tm_arr[0].acc_seconds_elapsed() << endl;
cout << "markdup : " << tm_arr[1].acc_seconds_elapsed() << endl;
cout << "handle tail : " << tm_arr[2].acc_seconds_elapsed() << endl;
cout << "handle last : " << tm_arr[3].acc_seconds_elapsed() << endl;
cout << "read bam : " << tm_arr[4].acc_seconds_elapsed() << endl;
cout << "new arg : " << tm_arr[6].acc_seconds_elapsed() << endl;
cout << "del arg : " << tm_arr[7].acc_seconds_elapsed() << endl;
cout << "build ends : " << tm_arr[8].acc_seconds_elapsed() << endl;
cout << "all : " << tm_arr[5].acc_seconds_elapsed() << endl;
Timer::log_time("serial end ");
//for (auto i : gData.dupArr)
// cout << i << endl;
}