simplified merge_scheduler

git-svn-id: svn+ssh://svn.corp.yahoo.com/yahoo/yrl/labs/pnuts/code/logstore@1479 8dad8b1f-cf64-0410-95b6-bcf113ffbcfe
This commit is contained in:
sears 2010-12-11 00:51:19 +00:00
parent 8dddc7e168
commit a00531ae6d
14 changed files with 168 additions and 255 deletions

View file

@ -23,7 +23,7 @@ template<class TUPLE>
logtable<TUPLE>::logtable(pageid_t internal_region_size, pageid_t datapage_region_size, pageid_t datapage_size) logtable<TUPLE>::logtable(pageid_t internal_region_size, pageid_t datapage_region_size, pageid_t datapage_size)
{ {
r_val = MIN_R; r_val = 3.0; // MIN_R
tree_c0 = NULL; tree_c0 = NULL;
tree_c0_mergeable = NULL; tree_c0_mergeable = NULL;
c0_is_merging = false; c0_is_merging = false;
@ -36,8 +36,6 @@ logtable<TUPLE>::logtable(pageid_t internal_region_size, pageid_t datapage_regio
this->shutting_down_ = false; this->shutting_down_ = false;
flushing = false; flushing = false;
this->merge_mgr = new mergeManager(this); this->merge_mgr = new mergeManager(this);
this->mergedata = 0;
//tmerger = new tuplemerger(&append_merger);
tmerger = new tuplemerger(&replace_merger); tmerger = new tuplemerger(&replace_merger);
header_mut = rwlc_initlock(); header_mut = rwlc_initlock();
@ -61,6 +59,8 @@ logtable<TUPLE>::logtable(pageid_t internal_region_size, pageid_t datapage_regio
template<class TUPLE> template<class TUPLE>
logtable<TUPLE>::~logtable() logtable<TUPLE>::~logtable()
{ {
delete merge_mgr; // shuts down pretty print thread.
if(tree_c1 != NULL) if(tree_c1 != NULL)
delete tree_c1; delete tree_c1;
if(tree_c2 != NULL) if(tree_c2 != NULL)
@ -85,7 +85,7 @@ template<class TUPLE>
void logtable<TUPLE>::init_stasis() { void logtable<TUPLE>::init_stasis() {
DataPage<datatuple>::register_stasis_page_impl(); DataPage<datatuple>::register_stasis_page_impl();
stasis_buffer_manager_size = 768 * 1024; // 4GB = 2^10 pages: //stasis_buffer_manager_size = 768 * 1024; // 4GB = 2^10 pages:
// XXX Workaround Stasis' (still broken) default concurrent buffer manager // XXX Workaround Stasis' (still broken) default concurrent buffer manager
// stasis_buffer_manager_factory = stasis_buffer_manager_hash_factory; // stasis_buffer_manager_factory = stasis_buffer_manager_hash_factory;
// stasis_buffer_manager_hint_writes_are_sequential = 0; // stasis_buffer_manager_hint_writes_are_sequential = 0;
@ -112,6 +112,8 @@ recordid logtable<TUPLE>::allocTable(int xid)
merge_mgr->new_merge(0); merge_mgr->new_merge(0);
c0_stats->starting_merge(); c0_stats->starting_merge();
tree_c0 = new memTreeComponent<datatuple>::rbtree_t;
update_persistent_header(xid, 1); update_persistent_header(xid, 1);
update_persistent_header(xid, 2); update_persistent_header(xid, 2);
@ -124,6 +126,7 @@ void logtable<TUPLE>::openTable(int xid, recordid rid) {
Tread(xid, table_rec, &tbl_header); Tread(xid, table_rec, &tbl_header);
tree_c2 = new diskTreeComponent(xid, tbl_header.c2_root, tbl_header.c2_state, tbl_header.c2_dp_state, 0); tree_c2 = new diskTreeComponent(xid, tbl_header.c2_root, tbl_header.c2_state, tbl_header.c2_dp_state, 0);
tree_c1 = new diskTreeComponent(xid, tbl_header.c1_root, tbl_header.c1_state, tbl_header.c1_dp_state, 0); tree_c1 = new diskTreeComponent(xid, tbl_header.c1_root, tbl_header.c1_state, tbl_header.c1_dp_state, 0);
tree_c0 = new memTreeComponent<datatuple>::rbtree_t;
merge_mgr->get_merge_stats(1)->bytes_out = tbl_header.c1_base_size; merge_mgr->get_merge_stats(1)->bytes_out = tbl_header.c1_base_size;
merge_mgr->get_merge_stats(1)->base_size = tbl_header.c1_base_size; merge_mgr->get_merge_stats(1)->base_size = tbl_header.c1_base_size;
@ -160,12 +163,6 @@ void logtable<TUPLE>::update_persistent_header(int xid, int merge_level) {
Tset(xid, table_rec, &tbl_header); Tset(xid, table_rec, &tbl_header);
} }
template<class TUPLE>
void logtable<TUPLE>::setMergeData(logtable_mergedata * mdata){
this->mergedata = mdata;
bump_epoch();
}
template<class TUPLE> template<class TUPLE>
void logtable<TUPLE>::flushTable() void logtable<TUPLE>::flushTable()
{ {

View file

@ -100,9 +100,6 @@ public:
void set_tree_c0_mergeable(memTreeComponent<datatuple>::rbtree_ptr_t newtree){tree_c0_mergeable = newtree; bump_epoch(); } void set_tree_c0_mergeable(memTreeComponent<datatuple>::rbtree_ptr_t newtree){tree_c0_mergeable = newtree; bump_epoch(); }
void update_persistent_header(int xid, int merge_level); void update_persistent_header(int xid, int merge_level);
void setMergeData(logtable_mergedata * mdata);
logtable_mergedata* getMergeData(){return mergedata;}
inline tuplemerger * gettuplemerger(){return tmerger;} inline tuplemerger * gettuplemerger(){return tmerger;}
public: public:
@ -118,8 +115,6 @@ public:
pageid_t c1_mergeable_size; pageid_t c1_mergeable_size;
pageid_t c1_base_size; pageid_t c1_base_size;
}; };
logtable_mergedata * mergedata;
rwlc * header_mut; rwlc * header_mut;
pthread_mutex_t tick_mut; pthread_mutex_t tick_mut;
pthread_mutex_t rb_mut; pthread_mutex_t rb_mut;

View file

@ -23,13 +23,13 @@ mergeStats* mergeManager:: get_merge_stats(int mergeLevel) {
} }
mergeManager::~mergeManager() { mergeManager::~mergeManager() {
delete c0;
delete c1;
delete c2;
still_running = false; still_running = false;
pthread_cond_signal(&pp_cond); pthread_cond_signal(&pp_cond);
pthread_join(pp_thread, 0); pthread_join(pp_thread, 0);
pthread_cond_destroy(&pp_cond); pthread_cond_destroy(&pp_cond);
delete c0;
delete c1;
delete c2;
} }
void mergeManager::new_merge(int mergeLevel) { void mergeManager::new_merge(int mergeLevel) {

View file

@ -64,16 +64,14 @@ public:
private: private:
logtable<datatuple>* ltable; logtable<datatuple>* ltable;
double throttle_seconds; double throttle_seconds;
// double elapsed_seconds;
double last_throttle_seconds; double last_throttle_seconds;
// double last_elapsed_seconds;
mergeStats * c0; mergeStats * c0;
mergeStats * c1; mergeStats * c1;
mergeStats * c2; mergeStats * c2;
bool sleeping[3]; bool sleeping[3];
bool still_running; bool still_running;
// Needed so that the pretty print thread can be woken up during shutdown.
pthread_cond_t pp_cond; pthread_cond_t pp_cond;
pthread_t pp_thread; pthread_t pp_thread;
}; };
#endif /* MERGEMANAGER_H_ */ #endif /* MERGEMANAGER_H_ */

View file

@ -46,17 +46,13 @@ class mergeStats {
lifetime_elapsed(0), lifetime_elapsed(0),
lifetime_consumed(0), lifetime_consumed(0),
bps(10.0*1024.0*1024.0), bps(10.0*1024.0*1024.0),
print_skipped(0),
active(false) { active(false) {
gettimeofday(&sleep,0); gettimeofday(&sleep,0);
gettimeofday(&last,0); gettimeofday(&last,0);
mergeManager::double_to_ts(&last_tick, mergeManager::tv_to_double(&last)); mergeManager::double_to_ts(&last_tick, mergeManager::tv_to_double(&last));
mergeManager::double_to_ts(&last_mini_tick, mergeManager::tv_to_double(&last)); mergeManager::double_to_ts(&last_mini_tick, mergeManager::tv_to_double(&last));
pthread_mutex_init(&mut,0);
}
~mergeStats() {
pthread_mutex_destroy(&mut);
} }
~mergeStats() { }
void new_merge2() { void new_merge2() {
if(just_handed_off) { if(just_handed_off) {
bytes_out = 0; bytes_out = 0;
@ -151,11 +147,8 @@ class mergeStats {
double bps; double bps;
int print_skipped; // used by pretty print in mergeManager.
bool active; bool active;
pthread_mutex_t mut; // protects things touched in tick(), and nothing else.
public: public:
void pretty_print(FILE* fd) { void pretty_print(FILE* fd) {

View file

@ -1,78 +1,29 @@
#include <math.h> #include <math.h>
#include "merger.h" #include "merger.h"
#include <stasis/transactional.h> #include <stasis/transactional.h>
#undef try #undef try
#undef end #undef end
int merge_scheduler::addlogtable(logtable<datatuple> *ltable) static void* memMerge_thr(void* arg) {
{ return ((merge_scheduler*)arg)->memMergeThread();
}
struct logtable_mergedata * mdata = new logtable_mergedata; static void* diskMerge_thr(void* arg) {
return ((merge_scheduler*)arg)->diskMergeThread();
// initialize merge data
ltable->set_tree_c0_mergeable(NULL);
mergedata.push_back(std::make_pair(ltable, mdata));
return mergedata.size()-1;
} }
merge_scheduler::~merge_scheduler() merge_scheduler::merge_scheduler(logtable<datatuple> *ltable) : ltable_(ltable), MIN_R(3.0) { }
{ merge_scheduler::~merge_scheduler() { }
mergedata.clear();
void merge_scheduler::shutdown() {
ltable_->stop();
pthread_join(mem_merge_thread_, 0);
pthread_join(disk_merge_thread_, 0);
} }
void merge_scheduler::shutdown() void merge_scheduler::start() {
{ pthread_create(&mem_merge_thread_, 0, memMerge_thr, this);
//signal shutdown pthread_create(&disk_merge_thread_, 0, diskMerge_thr, this);
for(size_t i=0; i<mergedata.size(); i++)
{
logtable<datatuple> *ltable = mergedata[i].first;
ltable->stop();
}
for(size_t i=0; i<mergedata.size(); i++)
{
logtable_mergedata *mdata = mergedata[i].second;
pthread_join(mdata->memmerge_thread,0);
pthread_join(mdata->diskmerge_thread,0);
}
}
void merge_scheduler::startlogtable(int index, int64_t MAX_C0_SIZE)
{
logtable<datatuple> * ltable = mergedata[index].first;
struct logtable_mergedata *mdata = mergedata[index].second;
//initialize rb-tree
ltable->set_tree_c0(new memTreeComponent<datatuple>::rbtree_t);
//disk merger args
#ifdef NO_SNOWSHOVEL
ltable->set_max_c0_size(MAX_C0_SIZE);
#else
ltable->set_max_c0_size(MAX_C0_SIZE*2); // XXX blatant hack.
#endif
diskTreeComponent ** block1_scratch = new diskTreeComponent*;
*block1_scratch=0;
DEBUG("Tree C1 is %lld\n", (long long)ltable->get_tree_c1()->get_root_rec().page);
DEBUG("Tree C2 is %lld\n", (long long)ltable->get_tree_c2()->get_root_rec().page);
void * (*diskmerger)(void*) = diskMergeThread;
void * (*memmerger)(void*) = memMergeThread;
pthread_create(&mdata->diskmerge_thread, 0, diskmerger, ltable);
pthread_create(&mdata->memmerge_thread, 0, memmerger, ltable);
} }
template <class ITA, class ITB> template <class ITA, class ITB>
@ -106,51 +57,49 @@ void merge_iterators(int xid, diskTreeComponent * forceMe,
</pre> </pre>
Merge algorithm: actual order: 1 2 3 4 5 6 12 11.5 11 [7 8 (9) 10] 13 Merge algorithm: actual order: 1 2 3 4 5 6 12 11.5 11 [7 8 (9) 10] 13
*/ */
void* memMergeThread(void*arg) void * merge_scheduler::memMergeThread() {
{
int xid; int xid;
logtable<datatuple> * ltable = (logtable<datatuple>*)arg; assert(ltable_->get_tree_c1());
assert(ltable->get_tree_c1());
int merge_count =0; int merge_count =0;
mergeStats * stats = ltable->merge_mgr->get_merge_stats(1); mergeStats * stats = ltable_->merge_mgr->get_merge_stats(1);
while(true) // 1 while(true) // 1
{ {
rwlc_writelock(ltable->header_mut); rwlc_writelock(ltable_->header_mut);
ltable->merge_mgr->new_merge(1); ltable_->merge_mgr->new_merge(1);
int done = 0; int done = 0;
// 2: wait for c0_mergable // 2: wait for c0_mergable
#ifdef NO_SNOWSHOVEL #ifdef NO_SNOWSHOVEL
while(!ltable->get_tree_c0_mergeable()) while(!ltable_->get_tree_c0_mergeable())
{ {
pthread_cond_signal(&ltable->c0_needed); pthread_cond_signal(&ltable_->c0_needed);
if(!ltable->is_still_running()){ if(!ltable_->is_still_running()){
done = 1; done = 1;
break; break;
} }
DEBUG("mmt:\twaiting for block ready cond\n"); DEBUG("mmt:\twaiting for block ready cond\n");
rwlc_cond_wait(&ltable->c0_ready, ltable->header_mut); rwlc_cond_wait(&ltable_->c0_ready, ltable_->header_mut);
DEBUG("mmt:\tblock ready\n"); DEBUG("mmt:\tblock ready\n");
} }
#else #else
// the merge iterator will wait until c0 is big enough for us to proceed. // the merge iterator will wait until c0 is big enough for us to proceed.
if(!ltable->is_still_running()) { if(!ltable_->is_still_running()) {
done = 1; done = 1;
} }
#endif #endif
if(done==1) if(done==1)
{ {
pthread_cond_signal(&ltable->c1_ready); // no block is ready. this allows the other thread to wake up, and see that we're shutting down. pthread_cond_signal(&ltable_->c1_ready); // no block is ready. this allows the other thread to wake up, and see that we're shutting down.
rwlc_unlock(ltable->header_mut); rwlc_unlock(ltable_->header_mut);
break; break;
} }
@ -162,40 +111,40 @@ void* memMergeThread(void*arg)
// 4: Merge // 4: Merge
//create the iterators //create the iterators
diskTreeComponent::iterator *itrA = ltable->get_tree_c1()->open_iterator(); diskTreeComponent::iterator *itrA = ltable_->get_tree_c1()->open_iterator();
#ifdef NO_SNOWSHOVEL #ifdef NO_SNOWSHOVEL
memTreeComponent<datatuple>::iterator *itrB = memTreeComponent<datatuple>::iterator *itrB =
new memTreeComponent<datatuple>::iterator(ltable->get_tree_c0_mergeable()); new memTreeComponent<datatuple>::iterator(ltable_->get_tree_c0_mergeable());
#else #else
// memTreeComponent<datatuple>::revalidatingIterator *itrB = // memTreeComponent<datatuple>::revalidatingIterator *itrB =
// new memTreeComponent<datatuple>::revalidatingIterator(ltable->get_tree_c0(), &ltable->rb_mut); // new memTreeComponent<datatuple>::revalidatingIterator(ltable_->get_tree_c0(), &ltable_->rb_mut);
// memTreeComponent<datatuple>::batchedRevalidatingIterator *itrB = // memTreeComponent<datatuple>::batchedRevalidatingIterator *itrB =
// new memTreeComponent<datatuple>::batchedRevalidatingIterator(ltable->get_tree_c0(), &ltable->tree_bytes, ltable->max_c0_size, &ltable->flushing, 100, &ltable->rb_mut); // new memTreeComponent<datatuple>::batchedRevalidatingIterator(ltable_->get_tree_c0(), &ltable_->tree_bytes, ltable_->max_c0_size, &ltable_->flushing, 100, &ltable_->rb_mut);
#endif #endif
const int64_t min_bloom_target = ltable->max_c0_size; const int64_t min_bloom_target = ltable_->max_c0_size;
//create a new tree //create a new tree
diskTreeComponent * c1_prime = new diskTreeComponent(xid, ltable->internal_region_size, ltable->datapage_region_size, ltable->datapage_size, stats, (stats->target_size < min_bloom_target ? min_bloom_target : stats->target_size) / 100); diskTreeComponent * c1_prime = new diskTreeComponent(xid, ltable_->internal_region_size, ltable_->datapage_region_size, ltable_->datapage_size, stats, (stats->target_size < min_bloom_target ? min_bloom_target : stats->target_size) / 100);
ltable->set_tree_c1_prime(c1_prime); ltable_->set_tree_c1_prime(c1_prime);
rwlc_unlock(ltable->header_mut); rwlc_unlock(ltable_->header_mut);
#ifndef NO_SNOWSHOVEL #ifndef NO_SNOWSHOVEL
// needs to be past the rwlc_unlock... // needs to be past the rwlc_unlock...
memTreeComponent<datatuple>::batchedRevalidatingIterator *itrB = memTreeComponent<datatuple>::batchedRevalidatingIterator *itrB =
new memTreeComponent<datatuple>::batchedRevalidatingIterator(ltable->get_tree_c0(), &ltable->tree_bytes, ltable->max_c0_size, &ltable->flushing, 100, &ltable->rb_mut); new memTreeComponent<datatuple>::batchedRevalidatingIterator(ltable_->get_tree_c0(), &ltable_->tree_bytes, ltable_->max_c0_size, &ltable_->flushing, 100, &ltable_->rb_mut);
#endif #endif
//: do the merge //: do the merge
DEBUG("mmt:\tMerging:\n"); DEBUG("mmt:\tMerging:\n");
merge_iterators<typeof(*itrA),typeof(*itrB)>(xid, c1_prime, itrA, itrB, ltable, c1_prime, stats, false); merge_iterators<typeof(*itrA),typeof(*itrB)>(xid, c1_prime, itrA, itrB, ltable_, c1_prime, stats, false);
delete itrA; delete itrA;
delete itrB; delete itrB;
// 5: force c1' // 5: force c1'
rwlc_writelock(ltable->header_mut); rwlc_writelock(ltable_->header_mut);
//force write the new tree to disk //force write the new tree to disk
c1_prime->force(xid); c1_prime->force(xid);
@ -208,24 +157,24 @@ void* memMergeThread(void*arg)
// first, we need to move the c1' into c1. // first, we need to move the c1' into c1.
// 12: delete old c1 // 12: delete old c1
ltable->get_tree_c1()->dealloc(xid); ltable_->get_tree_c1()->dealloc(xid);
delete ltable->get_tree_c1(); delete ltable_->get_tree_c1();
// 10: c1 = c1' // 10: c1 = c1'
ltable->set_tree_c1(c1_prime); ltable_->set_tree_c1(c1_prime);
ltable->set_tree_c1_prime(0); ltable_->set_tree_c1_prime(0);
#ifdef NO_SNOWSHOVEL #ifdef NO_SNOWSHOVEL
// 11.5: delete old c0_mergeable // 11.5: delete old c0_mergeable
memTreeComponent<datatuple>::tearDownTree(ltable->get_tree_c0_mergeable()); memTreeComponent<datatuple>::tearDownTree(ltable_->get_tree_c0_mergeable());
// 11: c0_mergeable = NULL // 11: c0_mergeable = NULL
ltable->set_tree_c0_mergeable(NULL); ltable_->set_tree_c0_mergeable(NULL);
#endif #endif
ltable->set_c0_is_merging(false); ltable_->set_c0_is_merging(false);
double new_c1_size = stats->output_size(); double new_c1_size = stats->output_size();
pthread_cond_signal(&ltable->c0_needed); pthread_cond_signal(&ltable_->c0_needed);
ltable->update_persistent_header(xid, 1); ltable_->update_persistent_header(xid, 1);
Tcommit(xid); Tcommit(xid);
//TODO: this is simplistic for now //TODO: this is simplistic for now
@ -233,28 +182,28 @@ void* memMergeThread(void*arg)
// update c0 effective size. // update c0 effective size.
double frac = 1.0/(double)merge_count; double frac = 1.0/(double)merge_count;
ltable->num_c0_mergers = merge_count; ltable_->num_c0_mergers = merge_count;
ltable->mean_c0_effective_size = ltable_->mean_c0_effective_size =
(int64_t) ( (int64_t) (
((double)ltable->mean_c0_effective_size)*(1-frac) + ((double)ltable_->mean_c0_effective_size)*(1-frac) +
((double)stats->bytes_in_small*frac)); ((double)stats->bytes_in_small*frac));
ltable->merge_mgr->get_merge_stats(0)->target_size = ltable->mean_c0_effective_size; ltable_->merge_mgr->get_merge_stats(0)->target_size = ltable_->mean_c0_effective_size;
double target_R = *ltable->R(); double target_R = *ltable_->R();
printf("Merge done. R = %f MemSize = %lld Mean = %lld, This = %lld, Count = %d factor %3.3fcur%3.3favg\n", target_R, (long long)ltable->max_c0_size, (long long int)ltable->mean_c0_effective_size, stats->bytes_in_small, merge_count, ((double)stats->bytes_in_small) / (double)ltable->max_c0_size, ((double)ltable->mean_c0_effective_size) / (double)ltable->max_c0_size); printf("Merge done. R = %f MemSize = %lld Mean = %lld, This = %lld, Count = %d factor %3.3fcur%3.3favg\n", target_R, (long long)ltable_->max_c0_size, (long long int)ltable_->mean_c0_effective_size, stats->bytes_in_small, merge_count, ((double)stats->bytes_in_small) / (double)ltable_->max_c0_size, ((double)ltable_->mean_c0_effective_size) / (double)ltable_->max_c0_size);
assert(target_R >= MIN_R); assert(target_R >= MIN_R);
bool signal_c2 = (new_c1_size / ltable->mean_c0_effective_size > target_R); bool signal_c2 = (new_c1_size / ltable_->mean_c0_effective_size > target_R);
DEBUG("\nc1 size %f R %f\n", new_c1_size, target_R); DEBUG("\nc1 size %f R %f\n", new_c1_size, target_R);
if( signal_c2 ) if( signal_c2 )
{ {
DEBUG("mmt:\tsignaling C2 for merge\n"); DEBUG("mmt:\tsignaling C2 for merge\n");
DEBUG("mmt:\tnew_c1_size %.2f\tMAX_C0_SIZE %lld\ta->max_size %lld\t targetr %.2f \n", new_c1_size, DEBUG("mmt:\tnew_c1_size %.2f\tMAX_C0_SIZE %lld\ta->max_size %lld\t targetr %.2f \n", new_c1_size,
ltable->max_c0_size, a->max_size, target_R); ltable_->max_c0_size, a->max_size, target_R);
// XXX need to report backpressure here! // XXX need to report backpressure here!
while(ltable->get_tree_c1_mergeable()) { while(ltable_->get_tree_c1_mergeable()) {
rwlc_cond_wait(&ltable->c1_needed, ltable->header_mut); rwlc_cond_wait(&ltable_->c1_needed, ltable_->header_mut);
} }
xid = Tbegin(); xid = Tbegin();
@ -262,27 +211,27 @@ void* memMergeThread(void*arg)
// we just set c1 = c1'. Want to move c1 -> c1 mergeable, clean out c1. // we just set c1 = c1'. Want to move c1 -> c1 mergeable, clean out c1.
// 7: and perhaps c1_mergeable // 7: and perhaps c1_mergeable
ltable->set_tree_c1_mergeable(ltable->get_tree_c1()); // c1_prime == c1. ltable_->set_tree_c1_mergeable(ltable_->get_tree_c1()); // c1_prime == c1.
stats->handed_off_tree(); stats->handed_off_tree();
// 8: c1 = new empty. // 8: c1 = new empty.
ltable->set_tree_c1(new diskTreeComponent(xid, ltable->internal_region_size, ltable->datapage_region_size, ltable->datapage_size, stats)); ltable_->set_tree_c1(new diskTreeComponent(xid, ltable_->internal_region_size, ltable_->datapage_region_size, ltable_->datapage_size, stats));
pthread_cond_signal(&ltable->c1_ready); pthread_cond_signal(&ltable_->c1_ready);
pageid_t old_bytes_out = stats->bytes_out; pageid_t old_bytes_out = stats->bytes_out;
stats->bytes_out = 0; // XXX HACK stats->bytes_out = 0; // XXX HACK
ltable->update_persistent_header(xid, 1); ltable_->update_persistent_header(xid, 1);
stats->bytes_out = old_bytes_out; stats->bytes_out = old_bytes_out;
Tcommit(xid); Tcommit(xid);
} }
// DEBUG("mmt:\tUpdated C1's position on disk to %lld\n",ltable->get_tree_c1()->get_root_rec().page); // DEBUG("mmt:\tUpdated C1's position on disk to %lld\n",ltable_->get_tree_c1()->get_root_rec().page);
// 13 // 13
rwlc_unlock(ltable->header_mut); rwlc_unlock(ltable_->header_mut);
ltable->merge_mgr->finished_merge(1); ltable_->merge_mgr->finished_merge(1);
// stats->pretty_print(stdout); // stats->pretty_print(stdout);
//TODO: get the freeing outside of the lock //TODO: get the freeing outside of the lock
@ -293,43 +242,42 @@ void* memMergeThread(void*arg)
} }
void *diskMergeThread(void*arg) void * merge_scheduler::diskMergeThread()
{ {
int xid; int xid;
logtable<datatuple> * ltable = (logtable<datatuple>*)arg; assert(ltable_->get_tree_c2());
assert(ltable->get_tree_c2());
int merge_count =0; int merge_count =0;
mergeStats * stats = ltable->merge_mgr->get_merge_stats(2); mergeStats * stats = ltable_->merge_mgr->get_merge_stats(2);
while(true) while(true)
{ {
// 2: wait for input // 2: wait for input
rwlc_writelock(ltable->header_mut); rwlc_writelock(ltable_->header_mut);
ltable->merge_mgr->new_merge(2); ltable_->merge_mgr->new_merge(2);
int done = 0; int done = 0;
// get a new input for merge // get a new input for merge
while(!ltable->get_tree_c1_mergeable()) while(!ltable_->get_tree_c1_mergeable())
{ {
pthread_cond_signal(&ltable->c1_needed); pthread_cond_signal(&ltable_->c1_needed);
if(!ltable->is_still_running()){ if(!ltable_->is_still_running()){
done = 1; done = 1;
break; break;
} }
DEBUG("dmt:\twaiting for block ready cond\n"); DEBUG("dmt:\twaiting for block ready cond\n");
rwlc_cond_wait(&ltable->c1_ready, ltable->header_mut); rwlc_cond_wait(&ltable_->c1_ready, ltable_->header_mut);
DEBUG("dmt:\tblock ready\n"); DEBUG("dmt:\tblock ready\n");
} }
if(done==1) if(done==1)
{ {
rwlc_unlock(ltable->header_mut); rwlc_unlock(ltable_->header_mut);
break; break;
} }
@ -340,23 +288,23 @@ void *diskMergeThread(void*arg)
// 4: do the merge. // 4: do the merge.
//create the iterators //create the iterators
diskTreeComponent::iterator *itrA = ltable->get_tree_c2()->open_iterator(); diskTreeComponent::iterator *itrA = ltable_->get_tree_c2()->open_iterator();
#ifdef NO_SNOWSHOVEL #ifdef NO_SNOWSHOVEL
diskTreeComponent::iterator *itrB = ltable->get_tree_c1_mergeable()->open_iterator(); diskTreeComponent::iterator *itrB = ltable_->get_tree_c1_mergeable()->open_iterator();
#else #else
diskTreeComponent::iterator *itrB = ltable->get_tree_c1_mergeable()->open_iterator(&ltable->merge_mgr->cur_c1_c2_progress_delta, 0.05, &ltable->shutting_down_); diskTreeComponent::iterator *itrB = ltable_->get_tree_c1_mergeable()->open_iterator(&ltable_->merge_mgr->cur_c1_c2_progress_delta, 0.05, &ltable_->shutting_down_);
#endif #endif
//create a new tree //create a new tree
diskTreeComponent * c2_prime = new diskTreeComponent(xid, ltable->internal_region_size, ltable->datapage_region_size, ltable->datapage_size, stats, (ltable->max_c0_size * *ltable->R() + stats->base_size)/ 1000); diskTreeComponent * c2_prime = new diskTreeComponent(xid, ltable_->internal_region_size, ltable_->datapage_region_size, ltable_->datapage_size, stats, (ltable_->max_c0_size * *ltable_->R() + stats->base_size)/ 1000);
// diskTreeComponent * c2_prime = new diskTreeComponent(xid, ltable->internal_region_size, ltable->datapage_region_size, ltable->datapage_size, stats); // diskTreeComponent * c2_prime = new diskTreeComponent(xid, ltable_->internal_region_size, ltable_->datapage_region_size, ltable_->datapage_size, stats);
rwlc_unlock(ltable->header_mut); rwlc_unlock(ltable_->header_mut);
//do the merge //do the merge
DEBUG("dmt:\tMerging:\n"); DEBUG("dmt:\tMerging:\n");
merge_iterators<typeof(*itrA),typeof(*itrB)>(xid, c2_prime, itrA, itrB, ltable, c2_prime, stats, true); merge_iterators<typeof(*itrA),typeof(*itrB)>(xid, c2_prime, itrA, itrB, ltable_, c2_prime, stats, true);
delete itrA; delete itrA;
delete itrB; delete itrB;
@ -366,15 +314,15 @@ void *diskMergeThread(void*arg)
// (skip 6, 7, 8, 8.5, 9)) // (skip 6, 7, 8, 8.5, 9))
rwlc_writelock(ltable->header_mut); rwlc_writelock(ltable_->header_mut);
//12 //12
ltable->get_tree_c2()->dealloc(xid); ltable_->get_tree_c2()->dealloc(xid);
delete ltable->get_tree_c2(); delete ltable_->get_tree_c2();
//11.5 //11.5
ltable->get_tree_c1_mergeable()->dealloc(xid); ltable_->get_tree_c1_mergeable()->dealloc(xid);
//11 //11
delete ltable->get_tree_c1_mergeable(); delete ltable_->get_tree_c1_mergeable();
ltable->set_tree_c1_mergeable(0); ltable_->set_tree_c1_mergeable(0);
//writes complete //writes complete
//now atomically replace the old c2 with new c2 //now atomically replace the old c2 with new c2
@ -382,23 +330,23 @@ void *diskMergeThread(void*arg)
merge_count++; merge_count++;
//update the current optimal R value //update the current optimal R value
*(ltable->R()) = std::max(MIN_R, sqrt( ((double)stats->output_size()) / ((double)ltable->mean_c0_effective_size) ) ); *(ltable_->R()) = std::max(MIN_R, sqrt( ((double)stats->output_size()) / ((double)ltable_->mean_c0_effective_size) ) );
DEBUG("\nR = %f\n", *(ltable->R())); DEBUG("\nR = %f\n", *(ltable_->R()));
DEBUG("dmt:\tmerge_count %lld\t#written bytes: %lld\n optimal r %.2f", stats.merge_count, stats.output_size(), *(a->r_i)); DEBUG("dmt:\tmerge_count %lld\t#written bytes: %lld\n optimal r %.2f", stats.merge_count, stats.output_size(), *(a->r_i));
// 10: C2 is never too big // 10: C2 is never too big
ltable->set_tree_c2(c2_prime); ltable_->set_tree_c2(c2_prime);
stats->handed_off_tree(); stats->handed_off_tree();
DEBUG("dmt:\tUpdated C2's position on disk to %lld\n",(long long)-1); DEBUG("dmt:\tUpdated C2's position on disk to %lld\n",(long long)-1);
// 13 // 13
ltable->update_persistent_header(xid, 2); ltable_->update_persistent_header(xid, 2);
Tcommit(xid); Tcommit(xid);
rwlc_unlock(ltable->header_mut); rwlc_unlock(ltable_->header_mut);
// stats->pretty_print(stdout); // stats->pretty_print(stdout);
ltable->merge_mgr->finished_merge(2); ltable_->merge_mgr->finished_merge(2);
} }
@ -413,14 +361,14 @@ static void periodically_force(int xid, int *i, diskTreeComponent * forceMe, sta
} }
} }
static int garbage_collect(logtable<datatuple> * ltable, datatuple ** garbage, int garbage_len, int next_garbage, bool force = false) { static int garbage_collect(logtable<datatuple> * ltable_, datatuple ** garbage, int garbage_len, int next_garbage, bool force = false) {
if(next_garbage == garbage_len || force) { if(next_garbage == garbage_len || force) {
pthread_mutex_lock(&ltable->rb_mut); pthread_mutex_lock(&ltable_->rb_mut);
for(int i = 0; i < next_garbage; i++) { for(int i = 0; i < next_garbage; i++) {
datatuple * t2tmp = NULL; datatuple * t2tmp = NULL;
{ {
memTreeComponent<datatuple>::rbtree_t::iterator rbitr = ltable->get_tree_c0()->find(garbage[i]); memTreeComponent<datatuple>::rbtree_t::iterator rbitr = ltable_->get_tree_c0()->find(garbage[i]);
if(rbitr != ltable->get_tree_c0()->end()) { if(rbitr != ltable_->get_tree_c0()->end()) {
t2tmp = *rbitr; t2tmp = *rbitr;
if((t2tmp->datalen() == garbage[i]->datalen()) && if((t2tmp->datalen() == garbage[i]->datalen()) &&
!memcmp(t2tmp->data(), garbage[i]->data(), garbage[i]->datalen())) { !memcmp(t2tmp->data(), garbage[i]->data(), garbage[i]->datalen())) {
@ -431,13 +379,13 @@ static int garbage_collect(logtable<datatuple> * ltable, datatuple ** garbage, i
} }
} // close rbitr before touching the tree. } // close rbitr before touching the tree.
if(t2tmp) { if(t2tmp) {
ltable->get_tree_c0()->erase(garbage[i]); ltable_->get_tree_c0()->erase(garbage[i]);
ltable->tree_bytes -= garbage[i]->byte_length(); ltable_->tree_bytes -= garbage[i]->byte_length();
datatuple::freetuple(t2tmp); datatuple::freetuple(t2tmp);
} }
datatuple::freetuple(garbage[i]); datatuple::freetuple(garbage[i]);
} }
pthread_mutex_unlock(&ltable->rb_mut); pthread_mutex_unlock(&ltable_->rb_mut);
return 0; return 0;
} else { } else {
return next_garbage; return next_garbage;

View file

@ -8,33 +8,22 @@
#undef try #undef try
#undef end #undef end
//TODO: 400 bytes overhead per tuple, this is nuts, check if this is true... class merge_scheduler {
static const int RB_TREE_OVERHEAD = 400;
static const double MIN_R = 3.0;
struct logtable_mergedata
{
//merge threads
pthread_t diskmerge_thread;
pthread_t memmerge_thread;
};
class merge_scheduler
{
std::vector<std::pair<logtable<datatuple> *, logtable_mergedata*> > mergedata;
public: public:
~merge_scheduler(); merge_scheduler(logtable<datatuple> * ltable);
~merge_scheduler();
int addlogtable(logtable<datatuple> * ltable); void start();
void startlogtable(int index, int64_t MAX_C0_SIZE = 100*1024*1024); void shutdown();
struct logtable_mergedata *getMergeData(int index){return mergedata[index].second;} void * memMergeThread();
void * diskMergeThread();
void shutdown(); private:
pthread_t mem_merge_thread_;
pthread_t disk_merge_thread_;
logtable<datatuple> * ltable_;
const double MIN_R;
}; };
void* memMergeThread(void* arg);
void* diskMergeThread(void* arg);
#endif #endif

View file

@ -21,7 +21,6 @@ int main(int argc, char *argv[])
int xid = Tbegin(); int xid = Tbegin();
merge_scheduler * mscheduler = new merge_scheduler;
logtable<datatuple> ltable; logtable<datatuple> ltable;
@ -51,11 +50,9 @@ int main(int argc, char *argv[])
} }
Tcommit(xid); Tcommit(xid);
ltable.set_max_c0_size(c0_size);
int lindex = mscheduler->addlogtable(&ltable); merge_scheduler * mscheduler = new merge_scheduler(&ltable);
ltable.setMergeData(mscheduler->getMergeData(lindex)); mscheduler->start();
mscheduler->startlogtable(lindex, c0_size);
simpleServer *lserver = new simpleServer(&ltable); simpleServer *lserver = new simpleServer(&ltable);

View file

@ -54,7 +54,6 @@ int main(int argc, char *argv[])
int xid = Tbegin(); int xid = Tbegin();
mscheduler = new merge_scheduler;
logtable<datatuple> ltable; logtable<datatuple> ltable;
@ -72,8 +71,6 @@ int main(int argc, char *argv[])
Tcommit(xid); Tcommit(xid);
int lindex = mscheduler->addlogtable(&ltable);
ltable.setMergeData(mscheduler->getMergeData(lindex));
int64_t c0_size = 1024 * 1024 * 512 * 1; int64_t c0_size = 1024 * 1024 * 512 * 1;
@ -89,7 +86,9 @@ int main(int argc, char *argv[])
printf("note: running w/ 2GB c0 for benchmarking"); // XXX build a separate test server and deployment server? printf("note: running w/ 2GB c0 for benchmarking"); // XXX build a separate test server and deployment server?
} }
mscheduler->startlogtable(lindex, c0_size); ltable.set_max_c0_size(c0_size);
mscheduler = new merge_scheduler(&ltable);
mscheduler->start();
lserver = new logserver(100, 32432); lserver = new logserver(100, 32432);

View file

@ -18,21 +18,21 @@ int main(int argc, char **argv)
int xid = Tbegin(); int xid = Tbegin();
logtable<datatuple> ltable(1000, 10000, 5); logtable<datatuple> *ltable = new logtable<datatuple>(1000, 10000, 5);
recordid table_root = ltable.allocTable(xid); recordid table_root = ltable->allocTable(xid);
Tcommit(xid); Tcommit(xid);
xid = Tbegin(); xid = Tbegin();
RegionAllocator * ro_alloc = new RegionAllocator(); RegionAllocator * ro_alloc = new RegionAllocator();
diskTreeComponent::internalNodes::iterator * it = new diskTreeComponent::internalNodes::iterator(xid,ro_alloc, ltable.get_tree_c2()->get_root_rid() ); diskTreeComponent::internalNodes::iterator * it = new diskTreeComponent::internalNodes::iterator(xid,ro_alloc, ltable->get_tree_c2()->get_root_rid() );
it->close(); it->close();
delete it; delete it;
delete ro_alloc; delete ro_alloc;
Tcommit(xid); Tcommit(xid);
delete ltable;
logtable<datatuple>::deinit_stasis(); logtable<datatuple>::deinit_stasis();

View file

@ -50,17 +50,15 @@ void insertProbeIter(size_t NUM_ENTRIES)
int xid = Tbegin(); int xid = Tbegin();
merge_scheduler mscheduler; logtable<datatuple> * ltable = new logtable<datatuple>(1000, 10000, 5);
logtable<datatuple> ltable(1000, 10000, 5); ltable->set_max_c0_size(10 * 1024 * 1024);
merge_scheduler mscheduler(ltable);
recordid table_root = ltable.allocTable(xid); recordid table_root = ltable->allocTable(xid);
Tcommit(xid); Tcommit(xid);
int lindex = mscheduler.addlogtable(&ltable); mscheduler.start();
ltable.setMergeData(mscheduler.getMergeData(lindex));
mscheduler.startlogtable(lindex, 10 * 1024 * 1024);
printf("Stage 1: Writing %llu keys\n", (unsigned long long)NUM_ENTRIES); printf("Stage 1: Writing %llu keys\n", (unsigned long long)NUM_ENTRIES);
@ -85,7 +83,7 @@ void insertProbeIter(size_t NUM_ENTRIES)
datasize += newtuple->byte_length(); datasize += newtuple->byte_length();
gettimeofday(&ti_st,0); gettimeofday(&ti_st,0);
ltable.insertTuple(newtuple); ltable->insertTuple(newtuple);
gettimeofday(&ti_end,0); gettimeofday(&ti_end,0);
insert_time += tv_to_double(ti_end) - tv_to_double(ti_st); insert_time += tv_to_double(ti_end) - tv_to_double(ti_st);
@ -122,7 +120,7 @@ void insertProbeIter(size_t NUM_ENTRIES)
//rkey[keylen-1]='\0'; //rkey[keylen-1]='\0';
//find the key with the given tuple //find the key with the given tuple
datatuple *dt = ltable.findTuple(xid, rkey, keylen); datatuple *dt = ltable->findTuple(xid, rkey, keylen);
assert(dt!=0); assert(dt!=0);
//if(dt!=0) //if(dt!=0)
@ -150,6 +148,7 @@ void insertProbeIter(size_t NUM_ENTRIES)
Tcommit(xid); Tcommit(xid);
delete ltable;
logtable<datatuple>::deinit_stasis(); logtable<datatuple>::deinit_stasis();
} }

View file

@ -44,17 +44,15 @@ void insertProbeIter(size_t NUM_ENTRIES)
int xid = Tbegin(); int xid = Tbegin();
merge_scheduler mscheduler; logtable<datatuple> *ltable = new logtable<datatuple>(1000, 10000, 100);
logtable<datatuple> ltable(1000, 10000, 100); ltable->set_max_c0_size(10*1024*1024);
merge_scheduler mscheduler(ltable);
recordid table_root = ltable.allocTable(xid); recordid table_root = ltable->allocTable(xid);
Tcommit(xid); Tcommit(xid);
int lindex = mscheduler.addlogtable(&ltable); mscheduler.start();
ltable.setMergeData(mscheduler.getMergeData(lindex));
mscheduler.startlogtable(lindex, 10 * 1024 * 1024);
printf("Stage 1: Writing %llu keys\n", (unsigned long long)NUM_ENTRIES); printf("Stage 1: Writing %llu keys\n", (unsigned long long)NUM_ENTRIES);
@ -75,7 +73,7 @@ void insertProbeIter(size_t NUM_ENTRIES)
datasize += newtuple->byte_length(); datasize += newtuple->byte_length();
gettimeofday(&ti_st,0); gettimeofday(&ti_st,0);
ltable.insertTuple(newtuple); ltable->insertTuple(newtuple);
gettimeofday(&ti_end,0); gettimeofday(&ti_end,0);
insert_time += tv_to_double(ti_end) - tv_to_double(ti_st); insert_time += tv_to_double(ti_end) - tv_to_double(ti_st);
@ -90,10 +88,10 @@ void insertProbeIter(size_t NUM_ENTRIES)
printf("datasize: %llu\n", (unsigned long long)datasize); printf("datasize: %llu\n", (unsigned long long)datasize);
mscheduler.shutdown(); mscheduler.shutdown();
delete ltable;
printf("merge threads finished.\n"); printf("merge threads finished.\n");
gettimeofday(&stop_tv,0); gettimeofday(&stop_tv,0);
printf("run time: %6.1f\n", (tv_to_double(stop_tv) - tv_to_double(start_tv))); printf("run time: %6.1f\n", (tv_to_double(stop_tv) - tv_to_double(start_tv)));
logtable<datatuple>::deinit_stasis(); logtable<datatuple>::deinit_stasis();
} }

View file

@ -102,16 +102,15 @@ void insertProbeIter(size_t NUM_ENTRIES)
int xid = Tbegin(); int xid = Tbegin();
merge_scheduler mscheduler; logtable<datatuple> *ltable = new logtable<datatuple>(1000, 1000, 40);
logtable<datatuple> ltable(1000, 1000, 40); ltable->set_max_c0_size(10 * 1024 * 1024);
merge_scheduler mscheduler(ltable);
recordid table_root = ltable.allocTable(xid); recordid table_root = ltable->allocTable(xid);
Tcommit(xid); Tcommit(xid);
int lindex = mscheduler.addlogtable(&ltable);
ltable.setMergeData(mscheduler.getMergeData(lindex));
mscheduler.startlogtable(lindex, 10 * 1024 * 1024); mscheduler.start();
printf("Stage 1: Writing %llu keys\n", (unsigned long long)NUM_ENTRIES); printf("Stage 1: Writing %llu keys\n", (unsigned long long)NUM_ENTRIES);
@ -134,7 +133,7 @@ void insertProbeIter(size_t NUM_ENTRIES)
datasize += newtuple->byte_length(); datasize += newtuple->byte_length();
gettimeofday(&ti_st,0); gettimeofday(&ti_st,0);
ltable.insertTuple(newtuple); ltable->insertTuple(newtuple);
gettimeofday(&ti_end,0); gettimeofday(&ti_end,0);
insert_time += tv_to_double(ti_end) - tv_to_double(ti_st); insert_time += tv_to_double(ti_end) - tv_to_double(ti_st);
@ -151,7 +150,7 @@ void insertProbeIter(size_t NUM_ENTRIES)
datatuple *deltuple = datatuple::create((*key_arr)[del_index].c_str(), (*key_arr)[del_index].length()+1); datatuple *deltuple = datatuple::create((*key_arr)[del_index].c_str(), (*key_arr)[del_index].length()+1);
gettimeofday(&ti_st,0); gettimeofday(&ti_st,0);
ltable.insertTuple(deltuple); ltable->insertTuple(deltuple);
gettimeofday(&ti_end,0); gettimeofday(&ti_end,0);
insert_time += tv_to_double(ti_end) - tv_to_double(ti_st); insert_time += tv_to_double(ti_end) - tv_to_double(ti_st);
@ -172,7 +171,7 @@ void insertProbeIter(size_t NUM_ENTRIES)
datatuple *uptuple = datatuple::create((*key_arr)[up_index].c_str(), (*key_arr)[up_index].length()+1, datatuple *uptuple = datatuple::create((*key_arr)[up_index].c_str(), (*key_arr)[up_index].length()+1,
ditem.c_str(), ditem.length()+1); ditem.c_str(), ditem.length()+1);
gettimeofday(&ti_st,0); gettimeofday(&ti_st,0);
ltable.insertTuple(uptuple); ltable->insertTuple(uptuple);
gettimeofday(&ti_end,0); gettimeofday(&ti_end,0);
insert_time += tv_to_double(ti_end) - tv_to_double(ti_st); insert_time += tv_to_double(ti_end) - tv_to_double(ti_st);
@ -207,7 +206,7 @@ void insertProbeIter(size_t NUM_ENTRIES)
memcpy((byte*)rkey, (*key_arr)[ri].c_str(), keylen); memcpy((byte*)rkey, (*key_arr)[ri].c_str(), keylen);
//find the key with the given tuple //find the key with the given tuple
datatuple *dt = ltable.findTuple(xid, rkey, keylen); datatuple *dt = ltable->findTuple(xid, rkey, keylen);
if(std::find(del_list.begin(), del_list.end(), i) == del_list.end()) if(std::find(del_list.begin(), del_list.end(), i) == del_list.end())
{ {
@ -248,6 +247,7 @@ void insertProbeIter(size_t NUM_ENTRIES)
Tcommit(xid); Tcommit(xid);
delete ltable;
logtable<datatuple>::deinit_stasis(); logtable<datatuple>::deinit_stasis();
} }

View file

@ -27,7 +27,8 @@
#define NUM_THREADS 128 #define NUM_THREADS 128
unsigned char vals[NUM_THREADS]; unsigned char vals[NUM_THREADS];
logtable<datatuple>* ltbl;
logtable<datatuple> * ltable;
int myucharcmp(const void * ap, const void * bp) { int myucharcmp(const void * ap, const void * bp) {
unsigned char a = *(unsigned char*)ap; unsigned char a = *(unsigned char*)ap;
@ -43,7 +44,7 @@ void * worker(void * idp) {
printf("id = %d key = %d\n", (int)id, (int)key); printf("id = %d key = %d\n", (int)id, (int)key);
datatuple * dt = datatuple::create(&key, sizeof(key), &id, sizeof(id)); datatuple * dt = datatuple::create(&key, sizeof(key), &id, sizeof(id));
datatuple * dtdelete = datatuple::create(&key, sizeof(key)); datatuple * dtdelete = datatuple::create(&key, sizeof(key));
succ = ltbl->testAndSetTuple(dt, dtdelete); succ = ltable->testAndSetTuple(dt, dtdelete);
datatuple::freetuple(dt); datatuple::freetuple(dt);
datatuple::freetuple(dtdelete); datatuple::freetuple(dtdelete);
vals[id] = key; vals[id] = key;
@ -60,18 +61,16 @@ void insertProbeIter(size_t NUM_ENTRIES)
logtable<datatuple>::init_stasis(); logtable<datatuple>::init_stasis();
int xid = Tbegin(); int xid = Tbegin();
merge_scheduler mscheduler; ltable = new logtable<datatuple>(1000, 10000, 5);
logtable<datatuple> ltable(1000, 10000, 5); ltable->set_max_c0_size(10*1024*1024);
ltbl = &ltable;
recordid table_root = ltable.allocTable(xid); merge_scheduler mscheduler(ltable);
recordid table_root = ltable->allocTable(xid);
Tcommit(xid); Tcommit(xid);
int lindex = mscheduler.addlogtable(&ltable); mscheduler.start();
ltable.setMergeData(mscheduler.getMergeData(lindex));
mscheduler.startlogtable(lindex, 10 * 1024 * 1024);
pthread_t *threads = (pthread_t*)malloc(NUM_THREADS * sizeof(pthread_t)); pthread_t *threads = (pthread_t*)malloc(NUM_THREADS * sizeof(pthread_t));
@ -92,6 +91,7 @@ void insertProbeIter(size_t NUM_ENTRIES)
} }
mscheduler.shutdown(); mscheduler.shutdown();
delete ltable;
logtable<datatuple>::deinit_stasis(); logtable<datatuple>::deinit_stasis();
printf("\npass\n"); printf("\npass\n");