RetroShare/libretroshare/src/gxs/rsgxsnetservice.cc
chrisparker126 5440aec17b Fixed code issues resulting in excessive warnings
Cleaned up GXS code a bit, removed unused functions and types from nxs and serialise items

git-svn-id: http://svn.code.sf.net/p/retroshare/code/trunk@7203 b45a01b8-16f6-495d-af2f-9b41ad6348cc
2014-03-23 12:13:44 +00:00

2455 lines
66 KiB
C++

/*
* libretroshare/src/gxs: rsgxnetservice.cc
*
* Access to rs network and synchronisation service implementation
*
* Copyright 2012-2012 by Christopher Evi-Parker
*
* This library is free software; you can redistribute it and/or
* modify it under the terms of the GNU Library General Public
* License Version 2 as published by the Free Software Foundation.
*
* This library is distributed in the hope that it will be useful,
* but WITHOUT ANY WARRANTY; without even the implied warranty of
* MERCHANTABILITY or FITNESS FOR A PARTICULAR PURPOSE. See the GNU
* Library General Public License for more details.
*
* You should have received a copy of the GNU Library General Public
* License along with this library; if not, write to the Free Software
* Foundation, Inc., 59 Temple Place, Suite 330, Boston, MA 02111-1307
* USA.
*
* Please report all bugs and problems to "retroshare@lunamutt.com".
*
*/
#include <unistd.h>
#include <math.h>
#include "rsgxsnetservice.h"
#include "retroshare/rsgxsflags.h"
#include "retroshare/rsgxscircles.h"
#include "retroshare/rspeers.h"
#define NXS_NET_DEBUG 1
#define GIXS_CUT_OFF 0
#define SYNC_PERIOD 12 // in microseconds every 10 seconds (1 second for testing)
#define TRANSAC_TIMEOUT 10 // 10 seconds
const uint32_t RsGxsNetService::FRAGMENT_SIZE = 150000;
RsGxsNetService::RsGxsNetService(uint16_t servType, RsGeneralDataService *gds,
RsNxsNetMgr *netMgr, RsNxsObserver *nxsObs,
const RsServiceInfo serviceInfo,
RsGixsReputation* reputations, RsGcxs* circles, bool grpAutoSync)
: p3ThreadedService(), p3Config(servType), mTransactionN(0),
mObserver(nxsObs), mDataStore(gds), mServType(servType),
mTransactionTimeOut(TRANSAC_TIMEOUT), mNetMgr(netMgr), mNxsMutex("RsGxsNetService"),
mSyncTs(0), mSYNC_PERIOD(SYNC_PERIOD), mCircles(circles), mReputations(reputations), mGrpAutoSync(grpAutoSync), mGrpServerUpdateItem(NULL),
mServiceInfo(serviceInfo)
{
addSerialType(new RsNxsSerialiser(mServType));
mOwnId = mNetMgr->getOwnId();
}
RsGxsNetService::~RsGxsNetService()
{
}
int RsGxsNetService::tick(){
// always check for new items arriving
// from peers
if(receivedItems())
recvNxsItemQueue();
uint32_t now = time(NULL);
uint32_t elapsed = mSYNC_PERIOD + mSyncTs;
if((elapsed) < now)
{
syncWithPeers();
mSyncTs = now;
}
return 1;
}
void RsGxsNetService::syncWithPeers()
{
std::set<RsPeerId> peers;
mNetMgr->getOnlineList(peers);
std::set<RsPeerId>::iterator sit = peers.begin();
if(mGrpAutoSync)
{
// for now just grps
for(; sit != peers.end(); sit++)
{
const RsPeerId peerId = *sit;
ClientGrpMap::const_iterator cit = mClientGrpUpdateMap.find(peerId);
uint32_t updateTS = 0;
if(cit != mClientGrpUpdateMap.end())
{
const RsGxsGrpUpdateItem *gui = cit->second;
updateTS = gui->grpUpdateTS;
}
RsNxsSyncGrp *grp = new RsNxsSyncGrp(mServType);
grp->clear();
grp->PeerId(*sit);
grp->updateTS = updateTS;
sendItem(grp);
}
}
#ifndef GXS_DISABLE_SYNC_MSGS
std::map<RsGxsGroupId, RsGxsGrpMetaData* > grpMeta;
mDataStore->retrieveGxsGrpMetaData(grpMeta);
std::map<RsGxsGroupId, RsGxsGrpMetaData* >::iterator
mit = grpMeta.begin();
std::vector<RsGxsGroupId> grpIds;
for(; mit != grpMeta.end(); mit++)
{
RsGxsGrpMetaData* meta = mit->second;
if(meta->mSubscribeFlags & GXS_SERV::GROUP_SUBSCRIBE_SUBSCRIBED )
{
grpIds.push_back(mit->first);
}
delete meta;
}
sit = peers.begin();
// synchronise group msg for groups which we're subscribed to
for(; sit != peers.end(); sit++)
{
RsStackMutex stack(mNxsMutex);
std::vector<RsGxsGroupId>::iterator vit = grpIds.begin();
// now see if you have an updateTS so optimise whether you need
// to get a new list of peer data
RsGxsMsgUpdateItem* mui = NULL;
ClientMsgMap::const_iterator cit = mClientMsgUpdateMap.find(*sit);
if(cit != mClientMsgUpdateMap.end())
{
mui = cit->second;
}
for(; vit != grpIds.end(); vit++)
{
uint32_t updateTS = 0;
if(mui)
{
std::map<RsGxsGroupId, uint32_t>::const_iterator cit2 = mui->msgUpdateTS.find(*vit);
if(cit2 != mui->msgUpdateTS.end())
{
updateTS = cit2->second;
}
}
RsNxsSyncMsg* msg = new RsNxsSyncMsg(mServType);
msg->clear();
msg->PeerId(*sit);
msg->grpId = *vit;
msg->updateTS = updateTS;
sendItem(msg);
}
}
#endif
}
bool RsGxsNetService::fragmentMsg(RsNxsMsg& msg, MsgFragments& msgFragments) const
{
// first determine how many fragments
uint32_t msgSize = msg.msg.TlvSize();
uint32_t dataLeft = msgSize;
uint8_t nFragments = ceil(float(msgSize)/FRAGMENT_SIZE);
char buffer[FRAGMENT_SIZE];
int currPos = 0;
for(uint8_t i=0; i < nFragments; i++)
{
RsNxsMsg* msgFrag = new RsNxsMsg(mServType);
msgFrag->grpId = msg.grpId;
msgFrag->msgId = msg.msgId;
msgFrag->meta = msg.meta;
msgFrag->transactionNumber = msg.transactionNumber;
msgFrag->pos = i;
msgFrag->PeerId(msg.PeerId());
msgFrag->count = nFragments;
uint32_t fragSize = std::min(dataLeft, FRAGMENT_SIZE);
memcpy(buffer, ((char*)msg.msg.bin_data) + currPos, fragSize);
msgFrag->msg.setBinData(buffer, fragSize);
currPos += fragSize;
dataLeft -= fragSize;
msgFragments.push_back(msgFrag);
}
return true;
}
bool RsGxsNetService::fragmentGrp(RsNxsGrp& grp, GrpFragments& grpFragments) const
{
// first determine how many fragments
uint32_t grpSize = grp.grp.TlvSize();
uint32_t dataLeft = grpSize;
uint8_t nFragments = ceil(float(grpSize)/FRAGMENT_SIZE);
char buffer[FRAGMENT_SIZE];
int currPos = 0;
for(uint8_t i=0; i < nFragments; i++)
{
RsNxsGrp* grpFrag = new RsNxsGrp(mServType);
grpFrag->grpId = grp.grpId;
grpFrag->meta = grp.meta;
grpFrag->pos = i;
grpFrag->count = nFragments;
uint32_t fragSize = std::min(dataLeft, FRAGMENT_SIZE);
memcpy(buffer, ((char*)grp.grp.bin_data) + currPos, fragSize);
grpFrag->grp.setBinData(buffer, fragSize);
currPos += fragSize;
dataLeft -= fragSize;
grpFragments.push_back(grpFrag);
}
return true;
}
RsNxsMsg* RsGxsNetService::deFragmentMsg(MsgFragments& msgFragments) const
{
if(msgFragments.empty()) return NULL;
// if there is only one fragment with a count 1 or less then
// the fragment is the msg
if(msgFragments.size() == 1)
{
RsNxsMsg* m = msgFragments.front();
if(m->count > 1)
return NULL;
else
return m;
}
// first determine total size for binary data
MsgFragments::iterator mit = msgFragments.begin();
uint32_t datSize = 0;
for(; mit != msgFragments.end(); mit++)
datSize += (*mit)->msg.bin_len;
char* data = new char[datSize];
uint32_t currPos = 0;
for(mit = msgFragments.begin(); mit != msgFragments.end(); mit++)
{
RsNxsMsg* msg = *mit;
memcpy(data + (currPos), msg->msg.bin_data, msg->msg.bin_len);
currPos += msg->msg.bin_len;
}
RsNxsMsg* msg = new RsNxsMsg(mServType);
const RsNxsMsg& m = *(*(msgFragments.begin()));
msg->msg.setBinData(data, datSize);
msg->msgId = m.msgId;
msg->grpId = m.grpId;
msg->transactionNumber = m.transactionNumber;
msg->meta = m.meta;
delete[] data;
return msg;
}
RsNxsGrp* RsGxsNetService::deFragmentGrp(GrpFragments& grpFragments) const
{
if(grpFragments.empty()) return NULL;
// first determine total size for binary data
GrpFragments::iterator mit = grpFragments.begin();
uint32_t datSize = 0;
for(; mit != grpFragments.end(); mit++)
datSize += (*mit)->grp.bin_len;
char* data = new char[datSize];
uint32_t currPos = 0;
for(mit = grpFragments.begin(); mit != grpFragments.end(); mit++)
{
RsNxsGrp* grp = *mit;
memcpy(data + (currPos), grp->grp.bin_data, grp->grp.bin_len);
currPos += grp->grp.bin_len;
}
RsNxsGrp* grp = new RsNxsGrp(mServType);
const RsNxsGrp& g = *(*(grpFragments.begin()));
grp->grp.setBinData(data, datSize);
grp->grpId = g.grpId;
grp->transactionNumber = g.transactionNumber;
grp->meta = g.meta;
delete[] data;
return grp;
}
struct GrpFragCollate
{
RsGxsGroupId mGrpId;
GrpFragCollate(const RsGxsGroupId& grpId) : mGrpId(grpId){ }
bool operator()(RsNxsGrp* grp) { return grp->grpId == mGrpId;}
};
void RsGxsNetService::locked_createTransactionFromPending(
MsgRespPending* msgPend)
{
MsgAuthorV::const_iterator cit = msgPend->mMsgAuthV.begin();
std::list<RsNxsItem*> reqList;
uint32_t transN = locked_getTransactionId();
for(; cit != msgPend->mMsgAuthV.end(); cit++)
{
const MsgAuthEntry& entry = *cit;
if(entry.mPassedVetting)
{
RsNxsSyncMsgItem* msgItem = new RsNxsSyncMsgItem(mServType);
msgItem->grpId = entry.mGrpId;
msgItem->msgId = entry.mMsgId;
msgItem->authorId = entry.mAuthorId;
msgItem->flag = RsNxsSyncMsgItem::FLAG_REQUEST;
msgItem->transactionNumber = transN;
msgItem->PeerId(msgPend->mPeerId);
reqList.push_back(msgItem);
}
}
if(!reqList.empty())
locked_pushMsgTransactionFromList(reqList, msgPend->mPeerId, transN);
}
void RsGxsNetService::locked_createTransactionFromPending(
GrpRespPending* grpPend)
{
GrpAuthorV::const_iterator cit = grpPend->mGrpAuthV.begin();
std::list<RsNxsItem*> reqList;
uint32_t transN = locked_getTransactionId();
for(; cit != grpPend->mGrpAuthV.end(); cit++)
{
const GrpAuthEntry& entry = *cit;
if(entry.mPassedVetting)
{
RsNxsSyncGrpItem* msgItem = new RsNxsSyncGrpItem(mServType);
msgItem->grpId = entry.mGrpId;
msgItem->authorId = entry.mAuthorId;
msgItem->flag = RsNxsSyncMsgItem::FLAG_REQUEST;
msgItem->transactionNumber = transN;
msgItem->PeerId(grpPend->mPeerId);
reqList.push_back(msgItem);
}
}
if(!reqList.empty())
locked_pushGrpTransactionFromList(reqList, grpPend->mPeerId, transN);
}
void RsGxsNetService::locked_createTransactionFromPending(GrpCircleIdRequestVetting* grpPend)
{
std::vector<GrpIdCircleVet>::iterator cit = grpPend->mGrpCircleV.begin();
uint32_t transN = locked_getTransactionId();
std::list<RsNxsItem*> itemL;
for(; cit != grpPend->mGrpCircleV.end(); cit++)
{
const GrpIdCircleVet& entry = *cit;
// this shows what groups got cleared by the server
#ifdef NXS_NET_DEBUG
std::cerr << "locked_createTransactionFromPending() Group Id: " << entry.mGroupId << "cleared: "
<< entry.mCleared << std::endl;
#endif
if(entry.mCleared)
{
RsNxsSyncGrpItem* gItem = new
RsNxsSyncGrpItem(mServType);
gItem->flag = RsNxsSyncGrpItem::FLAG_RESPONSE;
gItem->grpId = entry.mGroupId;
gItem->publishTs = 0;
gItem->PeerId(grpPend->mPeerId);
gItem->transactionNumber = transN;
itemL.push_back(gItem);
}
}
if(!itemL.empty())
locked_pushGrpRespFromList(itemL, grpPend->mPeerId, transN);
}
void RsGxsNetService::locked_createTransactionFromPending(MsgCircleIdsRequestVetting* msgPend)
{
std::vector<MsgIdCircleVet>::iterator vit = msgPend->mMsgs.begin();
std::list<RsNxsItem*> itemL;
uint32_t transN = locked_getTransactionId();
for(; vit != msgPend->mMsgs.end(); vit++)
{
MsgIdCircleVet& mic = *vit;
RsNxsSyncMsgItem* mItem = new
RsNxsSyncMsgItem(mServType);
mItem->flag = RsNxsSyncGrpItem::FLAG_RESPONSE;
mItem->grpId = msgPend->mGrpId;
mItem->msgId = mic.mMsgId;
mItem->authorId = mic.mAuthorId;
mItem->PeerId(msgPend->mPeerId);
mItem->transactionNumber = transN;
itemL.push_back(mItem);
}
if(!itemL.empty())
locked_pushMsgRespFromList(itemL, msgPend->mPeerId, transN);
}
bool RsGxsNetService::locked_canReceive(const RsGxsGrpMetaData * const grpMeta,
const RsPeerId& peerId)
{
double timeDelta = 0.2;
if(grpMeta->mCircleType == GXS_CIRCLE_TYPE_EXTERNAL)
{
int i=0;
mCircles->loadCircle(grpMeta->mCircleId);
// check 5 times at most
// spin for 1 second at most
while(i < 5)
{
#ifndef WINDOWS_SYS
usleep((int) (timeDelta * 1000000));
#else
Sleep((int) (timeDelta * 1000));
#endif
if(mCircles->isLoaded(grpMeta->mCircleId))
{
const RsPgpId& pgpId = rsPeers->getGPGId(peerId);
return mCircles->canSend(grpMeta->mCircleId, pgpId);
}
i++;
}
}else
{
return true;
}
return false;
}
void RsGxsNetService::collateGrpFragments(GrpFragments fragments,
std::map<RsGxsGroupId, GrpFragments>& partFragments) const
{
// get all unique grpIds;
GrpFragments::iterator vit = fragments.begin();
std::set<RsGxsGroupId> grpIds;
for(; vit != fragments.end(); vit++)
grpIds.insert( (*vit)->grpId );
std::set<RsGxsGroupId>::iterator sit = grpIds.begin();
for(; sit != grpIds.end(); sit++)
{
const RsGxsGroupId& grpId = *sit;
GrpFragments::iterator bound = std::partition(
fragments.begin(), fragments.end(),
GrpFragCollate(grpId));
// something will always be found for a group id
for(vit = fragments.begin(); vit != bound; )
{
partFragments[grpId].push_back(*vit);
vit = fragments.erase(vit);
}
GrpFragments& f = partFragments[grpId];
RsNxsGrp* grp = *(f.begin());
// if counts of fragments is incorrect remove
// from coalescion
if(grp->count != f.size())
{
GrpFragments::iterator vit2 = f.begin();
for(; vit2 != f.end(); vit2++)
delete *vit2;
partFragments.erase(grpId);
}
}
fragments.clear();
}
struct MsgFragCollate
{
RsGxsMessageId mMsgId;
MsgFragCollate(const RsGxsMessageId& msgId) : mMsgId(msgId){ }
bool operator()(RsNxsMsg* msg) { return msg->msgId == mMsgId;}
};
void RsGxsNetService::collateMsgFragments(MsgFragments fragments, std::map<RsGxsMessageId, MsgFragments>& partFragments) const
{
// get all unique message Ids;
MsgFragments::iterator vit = fragments.begin();
std::set<RsGxsMessageId> msgIds;
for(; vit != fragments.end(); vit++)
msgIds.insert( (*vit)->msgId );
std::set<RsGxsMessageId>::iterator sit = msgIds.begin();
for(; sit != msgIds.end(); sit++)
{
const RsGxsMessageId& msgId = *sit;
MsgFragments::iterator bound = std::partition(
fragments.begin(), fragments.end(),
MsgFragCollate(msgId));
// something will always be found for a group id
for(vit = fragments.begin(); vit != bound; vit++ )
{
partFragments[msgId].push_back(*vit);
}
fragments.erase(fragments.begin(), bound);
MsgFragments& f = partFragments[msgId];
RsNxsMsg* msg = *(f.begin());
// if counts of fragments is incorrect remove
// from coalescion
if(msg->count != f.size())
{
MsgFragments::iterator vit2 = f.begin();
for(; vit2 != f.end(); vit2++)
delete *vit2;
partFragments.erase(msgId);
}
}
fragments.clear();
}
class StoreHere
{
public:
StoreHere(RsGxsNetService::ClientGrpMap& cgm, RsGxsNetService::ClientMsgMap& cmm,
RsGxsNetService::ServerMsgMap& smm,
RsGxsServerGrpUpdateItem*& sgm) : mClientGrpMap(cgm), mClientMsgMap(cmm),
mServerMsgMap(smm), mServerGrpUpdateItem(sgm)
{}
void operator() (RsItem* item)
{
RsGxsMsgUpdateItem* mui;
RsGxsGrpUpdateItem* gui;
RsGxsServerGrpUpdateItem* gsui;
RsGxsServerMsgUpdateItem* msui;
if((mui = dynamic_cast<RsGxsMsgUpdateItem*>(item)) != NULL)
mClientMsgMap.insert(std::make_pair(mui->peerId, mui));
else if((gui = dynamic_cast<RsGxsGrpUpdateItem*>(item)) != NULL)
mClientGrpMap.insert(std::make_pair(gui->peerId, gui));
else if((msui = dynamic_cast<RsGxsServerMsgUpdateItem*>(item)) != NULL)
mServerMsgMap.insert(std::make_pair(msui->grpId, msui));
else if((gsui = dynamic_cast<RsGxsServerGrpUpdateItem*>(item)) != NULL)
{
if(mServerGrpUpdateItem == NULL)
{
mServerGrpUpdateItem = gsui;
}
else
{
#ifdef NXS_NET_DEBUG
std::cerr << "Error! More than one server group update item exists!" << std::endl;
#endif
delete gsui;
}
}
else
{
std::cerr << "Type not expected!" << std::endl;
}
}
private:
RsGxsNetService::ClientGrpMap& mClientGrpMap;
RsGxsNetService::ClientMsgMap& mClientMsgMap;
RsGxsNetService::ServerMsgMap& mServerMsgMap;
RsGxsServerGrpUpdateItem*& mServerGrpUpdateItem;
};
bool RsGxsNetService::loadList(std::list<RsItem *> &load)
{
std::for_each(load.begin(), load.end(), StoreHere(mClientGrpUpdateMap, mClientMsgUpdateMap,
mServerMsgUpdateMap, mGrpServerUpdateItem));
return true;
}
#include <algorithm>
template <typename UpdateMap>
struct get_second : public std::unary_function<typename UpdateMap::value_type, RsItem*>
{
RsItem* operator()(const typename UpdateMap::value_type& value) const
{
return value.second;
}
};
bool RsGxsNetService::saveList(bool& cleanup, std::list<RsItem*>& save)
{
RsStackMutex stack(mNxsMutex);
// hardcore templates
std::transform(mClientGrpUpdateMap.begin(), mClientGrpUpdateMap.end(),
std::back_inserter(save), get_second<ClientGrpMap>());
std::transform(mClientMsgUpdateMap.begin(), mClientMsgUpdateMap.end(),
std::back_inserter(save), get_second<ClientMsgMap>());
std::transform(mServerMsgUpdateMap.begin(), mServerMsgUpdateMap.end(),
std::back_inserter(save), get_second<ServerMsgMap>());
save.push_back(mGrpServerUpdateItem);
cleanup = false;
return true;
}
RsSerialiser *RsGxsNetService::setupSerialiser()
{
RsSerialiser *rss = new RsSerialiser;
rss->addSerialType(new RsGxsUpdateSerialiser(mServType));
return rss;
}
void RsGxsNetService::recvNxsItemQueue(){
RsItem *item ;
while(NULL != (item=recvItem()))
{
#ifdef NXS_NET_DEBUG
std::cerr << "RsGxsNetService Item:" << (void*)item << std::endl ;
#endif
// RsNxsItem needs dynamic_cast, since they have derived siblings.
//
RsNxsItem *ni = dynamic_cast<RsNxsItem*>(item) ;
if(ni != NULL)
{
// a live transaction has a non zero value
if(ni->transactionNumber != 0){
#ifdef NXS_NET_DEBUG
std::cerr << "recvNxsItemQueue()" << std::endl;
std::cerr << "handlingTransaction, transN" << ni->transactionNumber << std::endl;
#endif
if(handleTransaction(ni))
continue ;
}
switch(ni->PacketSubType())
{
case RS_PKT_SUBTYPE_NXS_SYNC_GRP: handleRecvSyncGroup (dynamic_cast<RsNxsSyncGrp*>(ni)) ; break ;
case RS_PKT_SUBTYPE_NXS_SYNC_MSG: handleRecvSyncMessage (dynamic_cast<RsNxsSyncMsg*>(ni)) ; break ;
default:
std::cerr << "Unhandled item subtype " << ni->PacketSubType() << " in RsGxsNetService: " << std::endl; break;
}
delete item ;
}
else
{
std::cerr << "Not a RsNxsItem, deleting!" << std::endl;
delete(item);
}
}
}
bool RsGxsNetService::handleTransaction(RsNxsItem* item)
{
/*!
* This attempts to handle a transaction
* It first checks if this transaction id already exists
* If it does then check this not a initiating transactions
*/
RsStackMutex stack(mNxsMutex);
const RsPeerId& peer = item->PeerId();
RsNxsTransac* transItem = dynamic_cast<RsNxsTransac*>(item);
// if this is a RsNxsTransac item process
if(transItem)
return locked_processTransac(transItem);
// then this must be transaction content to be consumed
// first check peer exist for transaction
bool peerTransExists = mTransactions.find(peer) != mTransactions.end();
// then check transaction exists
bool transExists = false;
NxsTransaction* tr = NULL;
uint32_t transN = item->transactionNumber;
if(peerTransExists)
{
TransactionIdMap& transMap = mTransactions[peer];
transExists = transMap.find(transN) != transMap.end();
if(transExists)
{
#ifdef NXS_NET_DEBUG
std::cerr << "handleTransaction() " << std::endl;
std::cerr << "Consuming Transaction content, transN: " << item->transactionNumber << std::endl;
std::cerr << "Consuming Transaction content, from Peer: " << item->PeerId() << std::endl;
#endif
tr = transMap[transN];
tr->mItems.push_back(item);
return true;
}
}
return false;
}
bool RsGxsNetService::locked_processTransac(RsNxsTransac* item)
{
/*!
* To process the transaction item
* It can either be initiating a transaction
* or ending one that already exists
*
* For initiating an incoming transaction the peer
* and transaction item need not exists
* as the peer will be added and transaction number
* added thereafter
*
* For commencing/starting an outgoing transaction
* the transaction must exist already
*
* For ending a transaction the
*/
RsPeerId peer;
// for outgoing transaction use own id
if(item->transactFlag & (RsNxsTransac::FLAG_BEGIN_P2 | RsNxsTransac::FLAG_END_SUCCESS))
peer = mOwnId;
else
peer = item->PeerId();
uint32_t transN = item->transactionNumber;
item->timestamp = time(NULL); // register time received
NxsTransaction* tr = NULL;
#ifdef NXS_NET_DEBUG
std::cerr << "locked_processTransac() " << std::endl;
std::cerr << "locked_processTransac(), Received transaction item: " << transN << std::endl;
std::cerr << "locked_processTransac(), With peer: " << item->PeerId() << std::endl;
std::cerr << "locked_processTransac(), trans type: " << item->transactFlag << std::endl;
#endif
bool peerTrExists = mTransactions.find(peer) != mTransactions.end();
bool transExists = false;
if(peerTrExists){
TransactionIdMap& transMap = mTransactions[peer];
// record whether transaction exists already
transExists = transMap.find(transN) != transMap.end();
}
// initiating an incoming transaction
if(item->transactFlag & RsNxsTransac::FLAG_BEGIN_P1){
if(transExists)
return false; // should not happen!
// create a transaction if the peer does not exist
if(!peerTrExists){
mTransactions[peer] = TransactionIdMap();
}
TransactionIdMap& transMap = mTransactions[peer];
// create new transaction
tr = new NxsTransaction();
transMap[transN] = tr;
tr->mTransaction = item;
tr->mTimeOut = item->timestamp + mTransactionTimeOut;
// note state as receiving, commencement item
// is sent on next run() loop
tr->mFlag = NxsTransaction::FLAG_STATE_STARTING;
// commencement item for outgoing transaction
}else if(item->transactFlag & RsNxsTransac::FLAG_BEGIN_P2){
// transaction must exist
if(!peerTrExists || !transExists)
return false;
// alter state so transaction content is sent on
// next run() loop
TransactionIdMap& transMap = mTransactions[mOwnId];
NxsTransaction* tr = transMap[transN];
tr->mFlag = NxsTransaction::FLAG_STATE_SENDING;
// end transac item for outgoing transaction
}else if(item->transactFlag & RsNxsTransac::FLAG_END_SUCCESS){
// transaction does not exist
if(!peerTrExists || !transExists){
return false;
}
// alter state so that transaction is removed
// on next run() loop
TransactionIdMap& transMap = mTransactions[mOwnId];
NxsTransaction* tr = transMap[transN];
tr->mFlag = NxsTransaction::FLAG_STATE_COMPLETED;
}
return true;
}
void RsGxsNetService::run(){
double timeDelta = 0.5;
int updateCounter = 0;
while(isRunning()){
#ifndef WINDOWS_SYS
usleep((int) (timeDelta * 1000000));
#else
Sleep((int) (timeDelta * 1000));
#endif
if(updateCounter == 20)
{
updateServerSyncTS();
updateCounter = 0;
}
else
updateCounter++;
// process active transactions
processTransactions();
// process completed transactions
processCompletedTransactions();
// vetting of id and circle info
runVetting();
processExplicitGroupRequests();
}
}
void RsGxsNetService::updateServerSyncTS()
{
RsStackMutex stack(mNxsMutex);
std::map<RsGxsGroupId, RsGxsGrpMetaData*> gxsMap;
// retrieve all grps and update TS
mDataStore->retrieveGxsGrpMetaData(gxsMap);
std::map<RsGxsGroupId, RsGxsGrpMetaData*>::iterator mit = gxsMap.begin();
// as a grp list server also note this is the latest item you have
if(mGrpServerUpdateItem == NULL)
{
mGrpServerUpdateItem = new RsGxsServerGrpUpdateItem(mServType);
}
bool change = false;
for(; mit != gxsMap.end(); mit++)
{
const RsGxsGroupId& grpId = mit->first;
RsGxsGrpMetaData* grpMeta = mit->second;
ServerMsgMap::iterator mapIT = mServerMsgUpdateMap.find(grpId);
RsGxsServerMsgUpdateItem* msui = NULL;
if(mapIT == mServerMsgUpdateMap.end())
{
msui = new RsGxsServerMsgUpdateItem(mServType);
msui->grpId = grpMeta->mGroupId;
mServerMsgUpdateMap.insert(std::make_pair(msui->grpId, msui));
}else
{
msui = mapIT->second;
}
if(grpMeta->mLastPost > msui->msgUpdateTS )
{
change = true;
msui->msgUpdateTS = grpMeta->mLastPost;
}
// this might be very inefficient with time
if(grpMeta->mRecvTS > mGrpServerUpdateItem->grpUpdateTS)
{
mGrpServerUpdateItem->grpUpdateTS = grpMeta->mRecvTS;
change = true;
}
}
// actual change in config settings, then save configuration
if(change)
IndicateConfigChanged();
freeAndClearContainerResource<std::map<RsGxsGroupId, RsGxsGrpMetaData*>,
RsGxsGrpMetaData*>(gxsMap);
}
bool RsGxsNetService::locked_checkTransacTimedOut(NxsTransaction* tr)
{
return tr->mTimeOut < ((uint32_t) time(NULL));
}
void RsGxsNetService::processTransactions(){
RsStackMutex stack(mNxsMutex);
TransactionsPeerMap::iterator mit = mTransactions.begin();
for(; mit != mTransactions.end(); mit++){
TransactionIdMap& transMap = mit->second;
TransactionIdMap::iterator mmit = transMap.begin(),
mmit_end = transMap.end();
// transaction to be removed
std::list<uint32_t> toRemove;
/*!
* Transactions owned by peer
*/
if(mit->first == mOwnId){
for(; mmit != mmit_end; mmit++){
NxsTransaction* tr = mmit->second;
uint16_t flag = tr->mFlag;
std::list<RsNxsItem*>::iterator lit, lit_end;
uint32_t transN = tr->mTransaction->transactionNumber;
// first check transaction has not expired
if(locked_checkTransacTimedOut(tr))
{
#ifdef NXS_NET_DEBUG
std::cerr << "processTransactions() " << std::endl;
std::cerr << "Transaction has failed, tranN: " << transN << std::endl;
std::cerr << "Transaction has failed, Peer: " << mit->first << std::endl;
#endif
tr->mFlag = NxsTransaction::FLAG_STATE_FAILED;
toRemove.push_back(transN);
mComplTransactions.push_back(tr);
continue;
}
// send items requested
if(flag & NxsTransaction::FLAG_STATE_SENDING){
#ifdef NXS_NET_DEBUG
std::cerr << "processTransactions() " << std::endl;
std::cerr << "Sending Transaction content, transN: " << transN << std::endl;
std::cerr << "with peer: " << tr->mTransaction->PeerId();
#endif
lit = tr->mItems.begin();
lit_end = tr->mItems.end();
for(; lit != lit_end; lit++){
sendItem(*lit);
}
tr->mItems.clear(); // clear so they don't get deleted in trans cleaning
tr->mFlag = NxsTransaction::FLAG_STATE_WAITING_CONFIRM;
}else if(flag & NxsTransaction::FLAG_STATE_WAITING_CONFIRM){
continue;
}else if(flag & NxsTransaction::FLAG_STATE_COMPLETED){
// move to completed transactions
toRemove.push_back(transN);
mComplTransactions.push_back(tr);
}else{
std::cerr << "processTransactions() " << std::endl;
std::cerr << "processTransactions(), Unknown flag for active transaction, transN: " << transN
<< std::endl;
std::cerr << "processTransactions(), Unknown flag, Peer: " << mit->first;
toRemove.push_back(transN);
tr->mFlag = NxsTransaction::FLAG_STATE_FAILED;
mComplTransactions.push_back(tr);
}
}
}else{
/*!
* Essentially these are incoming transactions
* Several states are dealth with
* Receiving: waiting to receive items from peer's transaction
* and checking if all have been received
* Completed: remove transaction from active and tell peer
* involved in transaction
* Starting: this is a new transaction and need to teell peer
* involved in transaction
*/
for(; mmit != mmit_end; mmit++){
NxsTransaction* tr = mmit->second;
uint16_t flag = tr->mFlag;
uint32_t transN = tr->mTransaction->transactionNumber;
// first check transaction has not expired
if(locked_checkTransacTimedOut(tr))
{
#ifdef NXS_NET_DEBUG
std::cerr << "processTransactions() " << std::endl;
std::cerr << "Transaction has failed, tranN: " << transN << std::endl;
std::cerr << "Transaction has failed, Peer: " << mit->first << std::endl;
#endif
tr->mFlag = NxsTransaction::FLAG_STATE_FAILED;
toRemove.push_back(transN);
mComplTransactions.push_back(tr);
continue;
}
if(flag & NxsTransaction::FLAG_STATE_RECEIVING){
// if the number it item received equal that indicated
// then transaction is marked as completed
// to be moved to complete transations
// check if done
if(tr->mItems.size() == tr->mTransaction->nItems)
tr->mFlag = NxsTransaction::FLAG_STATE_COMPLETED;
}else if(flag & NxsTransaction::FLAG_STATE_COMPLETED)
{
// send completion msg
RsNxsTransac* trans = new RsNxsTransac(mServType);
trans->clear();
trans->transactFlag = RsNxsTransac::FLAG_END_SUCCESS;
trans->transactionNumber = transN;
trans->PeerId(tr->mTransaction->PeerId());
sendItem(trans);
// move to completed transactions
mComplTransactions.push_back(tr);
// transaction processing done
// for this id, add to removal list
toRemove.push_back(mmit->first);
}else if(flag & NxsTransaction::FLAG_STATE_STARTING){
// send item to tell peer your are ready to start
RsNxsTransac* trans = new RsNxsTransac(mServType);
trans->clear();
trans->transactFlag = RsNxsTransac::FLAG_BEGIN_P2 |
(tr->mTransaction->transactFlag & RsNxsTransac::FLAG_TYPE_MASK);
trans->transactionNumber = transN;
trans->PeerId(tr->mTransaction->PeerId());
sendItem(trans);
tr->mFlag = NxsTransaction::FLAG_STATE_RECEIVING;
}
else{
std::cerr << "processTransactions() " << std::endl;
std::cerr << "processTransactions(), Unknown flag for active transaction, transN: " << transN
<< std::endl;
std::cerr << "processTransactions(), Unknown flag, Peer: " << mit->first;
toRemove.push_back(mmit->first);
mComplTransactions.push_back(tr);
tr->mFlag = NxsTransaction::FLAG_STATE_FAILED; // flag as a failed transaction
}
}
}
std::list<uint32_t>::iterator lit = toRemove.begin();
for(; lit != toRemove.end(); lit++)
{
transMap.erase(*lit);
}
}
}
void RsGxsNetService::processCompletedTransactions()
{
RsStackMutex stack(mNxsMutex);
/*!
* Depending on transaction we may have to respond to peer
* responsible for transaction
*/
std::list<NxsTransaction*>::iterator lit = mComplTransactions.begin();
while(mComplTransactions.size()>0)
{
NxsTransaction* tr = mComplTransactions.front();
bool outgoing = tr->mTransaction->PeerId() == mOwnId;
if(outgoing){
locked_processCompletedOutgoingTrans(tr);
}else{
locked_processCompletedIncomingTrans(tr);
}
delete tr;
mComplTransactions.pop_front();
}
}
void RsGxsNetService::locked_processCompletedIncomingTrans(NxsTransaction* tr)
{
uint16_t flag = tr->mTransaction->transactFlag;
if(tr->mFlag & NxsTransaction::FLAG_STATE_COMPLETED){
// for a completed list response transaction
// one needs generate requests from this
if(flag & RsNxsTransac::FLAG_TYPE_MSG_LIST_RESP)
{
// generate request based on a peers response
locked_genReqMsgTransaction(tr);
}else if(flag & RsNxsTransac::FLAG_TYPE_GRP_LIST_RESP)
{
locked_genReqGrpTransaction(tr);
}
// you've finished receiving request information now gen
else if(flag & RsNxsTransac::FLAG_TYPE_MSG_LIST_REQ)
{
locked_genSendMsgsTransaction(tr);
}
else if(flag & RsNxsTransac::FLAG_TYPE_GRP_LIST_REQ)
{
locked_genSendGrpsTransaction(tr);
}
else if(flag & RsNxsTransac::FLAG_TYPE_GRPS)
{
std::list<RsNxsItem*>::iterator lit = tr->mItems.begin();
std::vector<RsNxsGrp*> grps;
while(tr->mItems.size() != 0)
{
RsNxsGrp* grp = dynamic_cast<RsNxsGrp*>(tr->mItems.front());
if(grp)
{
tr->mItems.pop_front();
grps.push_back(grp);
}
else
{
#ifdef NXS_NET_DEBUG
std::cerr << "RsGxsNetService::processCompletedTransactions(): item did not caste to grp"
<< std::endl;
#endif
}
}
// notify listener of grps
mObserver->notifyNewGroups(grps);
// now note this as the latest you've received from this peer
RsPeerId peerFrom = tr->mTransaction->PeerId();
uint32_t updateTS = tr->mTransaction->updateTS;
ClientGrpMap::iterator it = mClientGrpUpdateMap.find(peerFrom);
RsGxsGrpUpdateItem* item = NULL;
if(it != mClientGrpUpdateMap.end())
{
item = it->second;
}else
{
item = new RsGxsGrpUpdateItem(mServType);
mClientGrpUpdateMap.insert(
std::make_pair(peerFrom, item));
}
item->grpUpdateTS = updateTS;
item->peerId = peerFrom;
IndicateConfigChanged();
}else if(flag & RsNxsTransac::FLAG_TYPE_MSGS)
{
std::vector<RsNxsMsg*> msgs;
RsGxsGroupId grpId;
while(tr->mItems.size() > 0)
{
RsNxsMsg* msg = dynamic_cast<RsNxsMsg*>(tr->mItems.front());
if(msg)
{
if(grpId.isNull())
grpId = msg->grpId;
tr->mItems.pop_front();
msgs.push_back(msg);
}
else
{
#ifdef NXS_NET_DEBUG
std::cerr << "RsGxsNetService::processCompletedTransactions(): item did not caste to msg"
<< std::endl;
#endif
}
}
#ifdef NSXS_FRAG
std::map<RsGxsGroupId, MsgFragments > collatedMsgs;
collateMsgFragments(msgs, collatedMsgs);
msgs.clear();
std::map<RsGxsGroupId, MsgFragments >::iterator mit = collatedMsgs.begin();
for(; mit != collatedMsgs.end(); mit++)
{
MsgFragments& f = mit->second;
RsNxsMsg* msg = deFragmentMsg(f);
if(msg)
msgs.push_back(msg);
}
#endif
// notify listener of msgs
mObserver->notifyNewMessages(msgs);
// now note that this is the latest you've received from this peer
// for the grp id
locked_doMsgUpdateWork(tr->mTransaction, grpId);
}
}else if(tr->mFlag == NxsTransaction::FLAG_STATE_FAILED){
// don't do anything transaction will simply be cleaned
}
return;
}
void RsGxsNetService::locked_doMsgUpdateWork(const RsNxsTransac *nxsTrans, const RsGxsGroupId &grpId)
{
// firts check if peer exists
const RsPeerId& peerFrom = nxsTrans->PeerId();
ClientMsgMap::iterator it = mClientMsgUpdateMap.find(peerFrom);
RsGxsMsgUpdateItem* mui = NULL;
// now update the peer's entry for this grp id
if(it != mClientMsgUpdateMap.end())
{
mui = it->second;
}
else
{
mui = new RsGxsMsgUpdateItem(mServType);
mClientMsgUpdateMap.insert(std::make_pair(peerFrom, mui));
}
mui->msgUpdateTS[grpId] = nxsTrans->updateTS;
mui->peerId = peerFrom;
IndicateConfigChanged();
}
void RsGxsNetService::locked_processCompletedOutgoingTrans(NxsTransaction* tr)
{
uint16_t flag = tr->mTransaction->transactFlag;
if(tr->mFlag & NxsTransaction::FLAG_STATE_COMPLETED){
// for a completed list response transaction
// one needs generate requests from this
if(flag & RsNxsTransac::FLAG_TYPE_MSG_LIST_RESP)
{
#ifdef NXS_NET_DEBUG
std::cerr << "processCompletedOutgoingTrans()" << std::endl;
std::cerr << "complete Sending Msg List Response, transN: " <<
tr->mTransaction->transactionNumber << std::endl;
#endif
}else if(flag & RsNxsTransac::FLAG_TYPE_GRP_LIST_RESP)
{
#ifdef NXS_NET_DEBUG
std::cerr << "processCompletedOutgoingTrans()" << std::endl;
std::cerr << "complete Sending Grp Response, transN: " <<
tr->mTransaction->transactionNumber << std::endl;
#endif
}
// you've finished sending a request so don't do anything
else if( (flag & RsNxsTransac::FLAG_TYPE_MSG_LIST_REQ) ||
(flag & RsNxsTransac::FLAG_TYPE_GRP_LIST_REQ) )
{
#ifdef NXS_NET_DEBUG
std::cerr << "processCompletedOutgoingTrans()" << std::endl;
std::cerr << "complete Sending Msg/Grp Request, transN: " <<
tr->mTransaction->transactionNumber << std::endl;
#endif
}else if(flag & RsNxsTransac::FLAG_TYPE_GRPS)
{
#ifdef NXS_NET_DEBUG
std::cerr << "processCompletedOutgoingTrans()" << std::endl;
std::cerr << "complete Sending Grp Data, transN: " <<
tr->mTransaction->transactionNumber << std::endl;
#endif
}else if(flag & RsNxsTransac::FLAG_TYPE_MSGS)
{
#ifdef NXS_NET_DEBUG
std::cerr << "processCompletedOutgoingTrans()" << std::endl;
std::cerr << "complete Sending Msg Data, transN: " <<
tr->mTransaction->transactionNumber << std::endl;
#endif
}
}else if(tr->mFlag == NxsTransaction::FLAG_STATE_FAILED){
#ifdef NXS_NET_DEBUG
std::cerr << "processCompletedOutgoingTrans()" << std::endl;
std::cerr << "Failed transaction! transN: " <<
tr->mTransaction->transactionNumber << std::endl;
#endif
}else{
#ifdef NXS_NET_DEBUG
std::cerr << "processCompletedOutgoingTrans()" << std::endl;
std::cerr << "Serious error unrecognised trans Flag! transN: " <<
tr->mTransaction->transactionNumber << std::endl;
#endif
}
}
void RsGxsNetService::locked_pushMsgTransactionFromList(
std::list<RsNxsItem*>& reqList, const RsPeerId& peerId, const uint32_t& transN)
{
RsNxsTransac* transac = new RsNxsTransac(mServType);
transac->transactFlag = RsNxsTransac::FLAG_TYPE_MSG_LIST_REQ
| RsNxsTransac::FLAG_BEGIN_P1;
transac->timestamp = 0;
transac->nItems = reqList.size();
transac->PeerId(peerId);
transac->transactionNumber = transN;
NxsTransaction* newTrans = new NxsTransaction();
newTrans->mItems = reqList;
newTrans->mFlag = NxsTransaction::FLAG_STATE_WAITING_CONFIRM;
newTrans->mTimeOut = time(NULL) + mTransactionTimeOut;
// create transaction copy with your id to indicate
// its an outgoing transaction
newTrans->mTransaction = new RsNxsTransac(*transac);
newTrans->mTransaction->PeerId(mOwnId);
sendItem(transac);
{
if (!locked_addTransaction(newTrans))
delete newTrans;
}
}
void RsGxsNetService::locked_genReqMsgTransaction(NxsTransaction* tr)
{
// to create a transaction you need to know who you are transacting with
// then what msgs to request
// then add an active Transaction for request
std::list<RsNxsSyncMsgItem*> msgItemL;
std::list<RsNxsItem*>::iterator lit = tr->mItems.begin();
// first get item list sent from transaction
for(; lit != tr->mItems.end(); lit++)
{
RsNxsSyncMsgItem* item = dynamic_cast<RsNxsSyncMsgItem*>(*lit);
if(item)
{
msgItemL.push_back(item);
}else
{
#ifdef NXS_NET_DEBUG
std::cerr << "RsGxsNetService::genReqMsgTransaction(): item failed cast to RsNxsSyncMsgItem* "
<< std::endl;
#endif
}
}
if(msgItemL.empty())
return;
// get grp id for this transaction
RsNxsSyncMsgItem* item = msgItemL.front();
const RsGxsGroupId& grpId = item->grpId;
std::map<RsGxsGroupId, RsGxsGrpMetaData*> grpMetaMap;
grpMetaMap[grpId] = NULL;
mDataStore->retrieveGxsGrpMetaData(grpMetaMap);
RsGxsGrpMetaData* grpMeta = grpMetaMap[grpId];
int cutoff = 0;
if(grpMeta != NULL)
cutoff = grpMeta->mReputationCutOff;
//
// // you want to find out if you can receive it
// // number polls essentially represent multiple
// // of sleep interval
// if(grpMeta)
// {
// // always can receive, only provides weak guaranttee this peer is part of the group
// bool can = true;//locked_canReceive(grpMeta, tr->mTransaction->PeerId());
//
// delete grpMeta;
//
// if(!can)
// return;
//
// }else
// {
// return;
// }
GxsMsgReq reqIds;
reqIds[grpId] = std::vector<RsGxsMessageId>();
GxsMsgMetaResult result;
mDataStore->retrieveGxsMsgMetaData(reqIds, result);
std::vector<RsGxsMsgMetaData*> &msgMetaV = result[grpId];
std::vector<RsGxsMsgMetaData*>::const_iterator vit = msgMetaV.begin();
std::set<RsGxsMessageId> msgIdSet;
// put ids in set for each searching
for(; vit != msgMetaV.end(); vit++)
{
msgIdSet.insert((*vit)->mMsgId);
delete(*vit);
}
msgMetaV.clear();
// get unique id for this transaction
uint32_t transN = locked_getTransactionId();
// add msgs that you don't have to request list
std::list<RsNxsSyncMsgItem*>::iterator llit = msgItemL.begin();
std::list<RsNxsItem*> reqList;
const RsPeerId peerFrom = tr->mTransaction->PeerId();
MsgAuthorV toVet;
std::list<RsPeerId> peers;
peers.push_back(tr->mTransaction->PeerId());
for(; llit != msgItemL.end(); llit++)
{
RsNxsSyncMsgItem*& syncItem = *llit;
const RsGxsMessageId& msgId = syncItem->msgId;
if(msgIdSet.find(msgId) == msgIdSet.end()){
// if reputation is in reputations cache then proceed
// or if there isn't an author (note as author requirement is
// enforced at service level, if no author is needed then reputation
// filtering is optional)
bool noAuthor = syncItem->authorId.isNull();
// grp meta must be present if author present
if(!noAuthor && grpMeta == NULL)
continue;
if(mReputations->haveReputation(syncItem->authorId) || noAuthor)
{
GixsReputation rep;
if(!noAuthor)
mReputations->getReputation(syncItem->authorId, rep);
// if author is required for this message, it will simply get dropped
// at genexchange side of things
if(rep.score > grpMeta->mReputationCutOff || noAuthor)
{
RsNxsSyncMsgItem* msgItem = new RsNxsSyncMsgItem(mServType);
msgItem->grpId = grpId;
msgItem->msgId = msgId;
msgItem->flag = RsNxsSyncMsgItem::FLAG_REQUEST;
msgItem->transactionNumber = transN;
msgItem->PeerId(peerFrom);
reqList.push_back(msgItem);
}
}
else
{
// preload for speed
mReputations->loadReputation(syncItem->authorId, peers);
MsgAuthEntry entry;
entry.mAuthorId = syncItem->authorId;
entry.mGrpId = syncItem->grpId;
entry.mMsgId = syncItem->msgId;
toVet.push_back(entry);
}
}
}
if(!toVet.empty())
{
MsgRespPending* mrp = new MsgRespPending(mReputations, tr->mTransaction->PeerId(), toVet, cutoff);
mPendingResp.push_back(mrp);
}
if(!reqList.empty())
{
locked_pushMsgTransactionFromList(reqList, tr->mTransaction->PeerId(), transN);
}
}
void RsGxsNetService::locked_pushGrpTransactionFromList(
std::list<RsNxsItem*>& reqList, const RsPeerId& peerId, const uint32_t& transN)
{
RsNxsTransac* transac = new RsNxsTransac(mServType);
transac->transactFlag = RsNxsTransac::FLAG_TYPE_GRP_LIST_REQ
| RsNxsTransac::FLAG_BEGIN_P1;
transac->timestamp = 0;
transac->nItems = reqList.size();
transac->PeerId(peerId);
transac->transactionNumber = transN;
NxsTransaction* newTrans = new NxsTransaction();
newTrans->mItems = reqList;
newTrans->mFlag = NxsTransaction::FLAG_STATE_WAITING_CONFIRM;
newTrans->mTimeOut = time(NULL) + mTransactionTimeOut;
newTrans->mTransaction = new RsNxsTransac(*transac);
newTrans->mTransaction->PeerId(mOwnId);
sendItem(transac);
if (!locked_addTransaction(newTrans))
delete newTrans;
}
void RsGxsNetService::addGroupItemToList(NxsTransaction*& tr,
const RsGxsGroupId& grpId, uint32_t& transN,
std::list<RsNxsItem*>& reqList)
{
RsNxsSyncGrpItem* grpItem = new RsNxsSyncGrpItem(mServType);
grpItem->PeerId(tr->mTransaction->PeerId());
grpItem->grpId = grpId;
grpItem->flag = RsNxsSyncMsgItem::FLAG_REQUEST;
grpItem->transactionNumber = transN;
reqList.push_back(grpItem);
}
void RsGxsNetService::locked_genReqGrpTransaction(NxsTransaction* tr)
{
// to create a transaction you need to know who you are transacting with
// then what grps to request
// then add an active Transaction for request
std::list<RsNxsSyncGrpItem*> grpItemL;
std::list<RsNxsItem*>::iterator lit = tr->mItems.begin();
for(; lit != tr->mItems.end(); lit++)
{
RsNxsSyncGrpItem* item = dynamic_cast<RsNxsSyncGrpItem*>(*lit);
if(item)
{
grpItemL.push_back(item);
}else
{
#ifdef NXS_NET_DEBUG
std::cerr << "RsGxsNetService::genReqGrpTransaction(): item failed to caste to RsNxsSyncMsgItem* "
<< std::endl;
#endif
}
}
std::map<RsGxsGroupId, RsGxsGrpMetaData*> grpMetaMap;
std::map<RsGxsGroupId, RsGxsGrpMetaData*>::const_iterator metaIter;
mDataStore->retrieveGxsGrpMetaData(grpMetaMap);
// now do compare and add loop
std::list<RsNxsSyncGrpItem*>::iterator llit = grpItemL.begin();
std::list<RsNxsItem*> reqList;
uint32_t transN = locked_getTransactionId();
GrpAuthorV toVet;
std::list<RsPeerId> peers;
peers.push_back(tr->mTransaction->PeerId());
for(; llit != grpItemL.end(); llit++)
{
RsNxsSyncGrpItem*& grpSyncItem = *llit;
const RsGxsGroupId& grpId = grpSyncItem->grpId;
metaIter = grpMetaMap.find(grpId);
bool haveItem = false;
bool latestVersion = false;
if (metaIter != grpMetaMap.end())
{
haveItem = true;
latestVersion = grpSyncItem->publishTs > metaIter->second->mPublishTs;
}
if(!haveItem || (haveItem && latestVersion) ){
// determine if you need to check reputation
bool checkRep = !grpSyncItem->authorId.isNull();
// check if you have reputation, if you don't then
// place in holding pen
if(checkRep)
{
if(mReputations->haveReputation(grpSyncItem->authorId))
{
GixsReputation rep;
mReputations->getReputation(grpSyncItem->authorId, rep);
if(rep.score > GIXS_CUT_OFF)
{
addGroupItemToList(tr, grpId, transN, reqList);
}
}
else
{
// preload reputation for later
mReputations->loadReputation(grpSyncItem->authorId, peers);
GrpAuthEntry entry;
entry.mAuthorId = grpSyncItem->authorId;
entry.mGrpId = grpSyncItem->grpId;
toVet.push_back(entry);
}
}
else
{
addGroupItemToList(tr, grpId, transN, reqList);
}
}
}
if(!toVet.empty())
{
RsPeerId peerId = tr->mTransaction->PeerId();
GrpRespPending* grp = new GrpRespPending(mReputations, peerId, toVet);
mPendingResp.push_back(grp);
}
if(!reqList.empty())
{
locked_pushGrpTransactionFromList(reqList, tr->mTransaction->PeerId(), transN);
}
// clean up meta data
std::map<RsGxsGroupId, RsGxsGrpMetaData*>::iterator mit = grpMetaMap.begin();
for(; mit != grpMetaMap.end(); mit++)
delete mit->second;
}
void RsGxsNetService::locked_genSendGrpsTransaction(NxsTransaction* tr)
{
#ifdef NXS_NET_DEBUG
std::cerr << "locked_genSendGrpsTransaction()" << std::endl;
std::cerr << "Generating Grp data send fron TransN: " << tr->mTransaction->transactionNumber
<< std::endl;
#endif
// go groups requested in transaction tr
std::list<RsNxsItem*>::iterator lit = tr->mItems.begin();
std::map<RsGxsGroupId, RsNxsGrp*> grps;
for(;lit != tr->mItems.end(); lit++)
{
RsNxsSyncGrpItem* item = dynamic_cast<RsNxsSyncGrpItem*>(*lit);
if (item)
{
grps[item->grpId] = NULL;
}else
{
#ifdef NXS_NET_DEBUG
std::cerr << "RsGxsNetService::locked_genSendGrpsTransaction(): item failed to caste to RsNxsSyncGrpItem* "
<< std::endl;
#endif
}
}
if(!grps.empty())
{
mDataStore->retrieveNxsGrps(grps, false, false);
}
else{
return;
}
NxsTransaction* newTr = new NxsTransaction();
newTr->mFlag = NxsTransaction::FLAG_STATE_WAITING_CONFIRM;
uint32_t transN = locked_getTransactionId();
// store grp items to send in transaction
std::map<RsGxsGroupId, RsNxsGrp*>::iterator mit = grps.begin();
RsPeerId peerId = tr->mTransaction->PeerId();
for(;mit != grps.end(); mit++)
{
mit->second->PeerId(peerId); // set so it gets sent to right peer
mit->second->transactionNumber = transN;
newTr->mItems.push_back(mit->second);
}
if(newTr->mItems.empty()){
delete newTr;
return;
}
uint32_t updateTS = 0;
if(mGrpServerUpdateItem)
updateTS = mGrpServerUpdateItem->grpUpdateTS;
RsNxsTransac* ntr = new RsNxsTransac(mServType);
ntr->transactionNumber = transN;
ntr->transactFlag = RsNxsTransac::FLAG_BEGIN_P1 |
RsNxsTransac::FLAG_TYPE_GRPS;
ntr->updateTS = updateTS;
ntr->nItems = grps.size();
ntr->PeerId(tr->mTransaction->PeerId());
newTr->mTransaction = new RsNxsTransac(*ntr);
newTr->mTransaction->PeerId(mOwnId);
newTr->mTimeOut = time(NULL) + mTransactionTimeOut;
ntr->PeerId(tr->mTransaction->PeerId());
sendItem(ntr);
locked_addTransaction(newTr);
return;
}
void RsGxsNetService::runVetting()
{
RsStackMutex stack(mNxsMutex);
std::vector<AuthorPending*>::iterator vit = mPendingResp.begin();
for(; vit != mPendingResp.end(); )
{
AuthorPending* ap = *vit;
if(ap->accepted() || ap->expired())
{
// add to transactions
if(AuthorPending::MSG_PEND == ap->getType())
{
MsgRespPending* mrp = static_cast<MsgRespPending*>(ap);
locked_createTransactionFromPending(mrp);
}
else if(AuthorPending::GRP_PEND == ap->getType())
{
GrpRespPending* grp = static_cast<GrpRespPending*>(ap);
locked_createTransactionFromPending(grp);
}else
{
#ifdef NXS_NET_DEBUG
std::cerr << "RsGxsNetService::runVetting(): Unknown pending type! Type: " << ap->getType()
<< std::endl;
#endif
}
delete ap;
vit = mPendingResp.erase(vit);
}
else
{
vit++;
}
}
// now lets do circle vetting
std::vector<GrpCircleVetting*>::iterator vit2 = mPendingCircleVets.begin();
for(; vit2 != mPendingCircleVets.end(); )
{
GrpCircleVetting*& gcv = *vit2;
if(gcv->cleared() || gcv->expired())
{
if(gcv->getType() == GrpCircleVetting::GRP_ID_PEND)
{
GrpCircleIdRequestVetting* gcirv =
static_cast<GrpCircleIdRequestVetting*>(gcv);
locked_createTransactionFromPending(gcirv);
}
else if(gcv->getType() == GrpCircleVetting::MSG_ID_SEND_PEND)
{
MsgCircleIdsRequestVetting* mcirv =
static_cast<MsgCircleIdsRequestVetting*>(gcv);
locked_createTransactionFromPending(mcirv);
}
else
{
#ifdef NXS_NET_DEBUG
std::cerr << "RsGxsNetService::runVetting(): Unknown Circle pending type! Type: " << gcv->getType()
<< std::endl;
#endif
}
delete gcv;
vit2 = mPendingCircleVets.erase(vit2);
}
else
{
vit2++;
}
}
}
void RsGxsNetService::locked_genSendMsgsTransaction(NxsTransaction* tr)
{
#ifdef NXS_NET_DEBUG
std::cerr << "locked_genSendMsgsTransaction()" << std::endl;
std::cerr << "Generating Msg data send fron TransN: " << tr->mTransaction->transactionNumber
<< std::endl;
#endif
// go groups requested in transaction tr
std::list<RsNxsItem*>::iterator lit = tr->mItems.begin();
GxsMsgReq msgIds;
GxsMsgResult msgs;
if(tr->mItems.empty()){
return;
}
RsGxsGroupId grpId;
for(;lit != tr->mItems.end(); lit++)
{
RsNxsSyncMsgItem* item = dynamic_cast<RsNxsSyncMsgItem*>(*lit);
if (item)
{
msgIds[item->grpId].push_back(item->msgId);
if(grpId.isNull())
grpId = item->grpId;
}
else
{
#ifdef NXS_NET_DEBUG
std::cerr << "RsGxsNetService::locked_genSendMsgsTransaction(): item failed to caste to RsNxsSyncMsgItem* "
<< std::endl;
#endif
}
}
mDataStore->retrieveNxsMsgs(msgIds, msgs, false, false);
NxsTransaction* newTr = new NxsTransaction();
newTr->mFlag = NxsTransaction::FLAG_STATE_WAITING_CONFIRM;
uint32_t transN = locked_getTransactionId();
// store msg items to send in transaction
GxsMsgResult::iterator mit = msgs.begin();
RsPeerId peerId = tr->mTransaction->PeerId();
uint32_t msgSize = 0;
for(;mit != msgs.end(); mit++)
{
std::vector<RsNxsMsg*>& msgV = mit->second;
std::vector<RsNxsMsg*>::iterator vit = msgV.begin();
for(; vit != msgV.end(); vit++)
{
RsNxsMsg* msg = *vit;
msg->PeerId(peerId);
msg->transactionNumber = transN;
#ifndef NXS_FRAG
newTr->mItems.push_back(msg);
msgSize++;
#else
MsgFragments fragments;
fragmentMsg(*msg, fragments);
MsgFragments::iterator mit = fragments.begin();
for(; mit != fragments.end(); mit++)
{
newTr->mItems.push_back(*mit);
msgSize++;
}
#endif
}
}
if(newTr->mItems.empty()){
delete newTr;
return;
}
uint32_t updateTS = 0;
ServerMsgMap::const_iterator cit = mServerMsgUpdateMap.find(grpId);
if(cit != mServerMsgUpdateMap.end())
updateTS = cit->second->msgUpdateTS;
RsNxsTransac* ntr = new RsNxsTransac(mServType);
ntr->transactionNumber = transN;
ntr->transactFlag = RsNxsTransac::FLAG_BEGIN_P1 |
RsNxsTransac::FLAG_TYPE_MSGS;
ntr->updateTS = updateTS;
ntr->nItems = msgSize;
ntr->PeerId(peerId);
newTr->mTransaction = new RsNxsTransac(*ntr);
newTr->mTransaction->PeerId(mOwnId);
newTr->mTimeOut = time(NULL) + mTransactionTimeOut;
ntr->PeerId(tr->mTransaction->PeerId());
sendItem(ntr);
locked_addTransaction(newTr);
return;
}
uint32_t RsGxsNetService::locked_getTransactionId()
{
return ++mTransactionN;
}
bool RsGxsNetService::locked_addTransaction(NxsTransaction* tr)
{
const RsPeerId& peer = tr->mTransaction->PeerId();
uint32_t transN = tr->mTransaction->transactionNumber;
TransactionIdMap& transMap = mTransactions[peer];
bool transNumExist = transMap.find(transN)
!= transMap.end();
if(transNumExist){
#ifdef NXS_NET_DEBUG
std::cerr << "locked_addTransaction() " << std::endl;
std::cerr << "Transaction number exist already, transN: " << transN
<< std::endl;
#endif
return false;
}else{
transMap[transN] = tr;
return true;
}
}
void RsGxsNetService::cleanTransactionItems(NxsTransaction* tr) const
{
std::list<RsNxsItem*>::iterator lit = tr->mItems.begin();
for(; lit != tr->mItems.end(); lit++)
{
delete *lit;
}
tr->mItems.clear();
}
void RsGxsNetService::locked_pushGrpRespFromList(std::list<RsNxsItem*>& respList,
const RsPeerId& peer, const uint32_t& transN)
{
NxsTransaction* tr = new NxsTransaction();
tr->mItems = respList;
tr->mFlag = NxsTransaction::FLAG_STATE_WAITING_CONFIRM;
RsNxsTransac* trItem = new RsNxsTransac(mServType);
trItem->transactFlag = RsNxsTransac::FLAG_BEGIN_P1
| RsNxsTransac::FLAG_TYPE_GRP_LIST_RESP;
trItem->nItems = respList.size();
trItem->timestamp = 0;
trItem->PeerId(peer);
trItem->transactionNumber = transN;
// also make a copy for the resident transaction
tr->mTransaction = new RsNxsTransac(*trItem);
tr->mTransaction->PeerId(mOwnId);
tr->mTimeOut = time(NULL) + mTransactionTimeOut;
// signal peer to prepare for transaction
sendItem(trItem);
locked_addTransaction(tr);
}
bool RsGxsNetService::locked_CanReceiveUpdate(const RsNxsSyncGrp *item)
{
// don't sync if you have no new updates for this peer
if(mGrpServerUpdateItem)
{
if(item->updateTS >= mGrpServerUpdateItem->grpUpdateTS && item->updateTS != 0)
{
return false;
}
}
return true;
}
void RsGxsNetService::handleRecvSyncGroup(RsNxsSyncGrp* item)
{
RsStackMutex stack(mNxsMutex);
if(!locked_CanReceiveUpdate(item))
return;
RsPeerId peer = item->PeerId();
std::map<RsGxsGroupId, RsGxsGrpMetaData*> grp;
mDataStore->retrieveGxsGrpMetaData(grp);
if(grp.empty())
return;
std::map<RsGxsGroupId, RsGxsGrpMetaData*>::iterator mit =
grp.begin();
std::list<RsNxsItem*> itemL;
uint32_t transN = locked_getTransactionId();
std::vector<GrpIdCircleVet> toVet;
#ifdef NXS_NET_DEBUG
std::cerr << "RsGxsNetService::handleRecvSyncGroup() \nService: " << mServType << "\nGroup list beings being sent: " << std::endl;
#endif
for(; mit != grp.end(); mit++)
{
RsGxsGrpMetaData* grpMeta = mit->second;
if(grpMeta->mSubscribeFlags &
GXS_SERV::GROUP_SUBSCRIBE_SUBSCRIBED)
{
// check if you can send this id to peer
// or if you need to add to the holding
// pen for peer to be vetted
if(canSendGrpId(peer, *grpMeta, toVet))
{
RsNxsSyncGrpItem* gItem = new
RsNxsSyncGrpItem(mServType);
gItem->flag = RsNxsSyncGrpItem::FLAG_RESPONSE;
gItem->grpId = mit->first;
gItem->publishTs = mit->second->mPublishTs;
gItem->authorId = grpMeta->mAuthorId;
gItem->PeerId(peer);
gItem->transactionNumber = transN;
itemL.push_back(gItem);
#ifdef NXS_NET_DEBUG
std::cerr << "RsGxsNetService::handleRecvSyncGroup"
<< "\nGroup : " << grpMeta->mGroupName << ", id: " << gItem->grpId << std::endl;
#endif
}
}
delete grpMeta; // release resource
}
if(!toVet.empty())
{
mPendingCircleVets.push_back(new GrpCircleIdRequestVetting(mCircles, toVet, peer));
}
locked_pushGrpRespFromList(itemL, peer, transN);
return;
}
bool RsGxsNetService::canSendGrpId(const RsPeerId& sslId, RsGxsGrpMetaData& grpMeta, std::vector<GrpIdCircleVet>& toVet)
{
// first do the simple checks
uint8_t circleType = grpMeta.mCircleType;
if(circleType == GXS_CIRCLE_TYPE_LOCAL)
return false;
if(circleType == GXS_CIRCLE_TYPE_PUBLIC)
return true;
const RsGxsCircleId& circleId = grpMeta.mCircleId;
if(circleType == GXS_CIRCLE_TYPE_EXTERNAL)
{
if(mCircles->isLoaded(circleId))
{
const RsPgpId& pgpId = rsPeers->getGPGId(sslId);
return mCircles->canSend(circleId, pgpId);
}
toVet.push_back(GrpIdCircleVet(grpMeta.mGroupId, circleId));
return false;
}
if(circleType == GXS_CIRCLE_TYPE_YOUREYESONLY)
{
// a non empty internal circle id means this
// is the personal circle owner
if(!grpMeta.mInternalCircle.isNull())
{
const RsGxsCircleId& internalCircleId = grpMeta.mCircleId;
if(mCircles->isLoaded(internalCircleId))
{
const RsPgpId& pgpId = rsPeers->getGPGId(sslId);
return mCircles->canSend(internalCircleId, pgpId);
}
toVet.push_back(GrpIdCircleVet(grpMeta.mGroupId, internalCircleId));
return false;
}
else
{
// an empty internal circle id means this peer can only
// send circle related info from peer he received it
if(grpMeta.mOriginator == sslId)
return true;
else
return false;
}
}
return true;
}
bool RsGxsNetService::locked_CanReceiveUpdate(const RsNxsSyncMsg *item)
{
ServerMsgMap::const_iterator cit = mServerMsgUpdateMap.find(item->grpId);
if(cit != mServerMsgUpdateMap.end())
{
const RsGxsServerMsgUpdateItem *msui = cit->second;
if(item->updateTS >= msui->msgUpdateTS && item->updateTS != 0)
{
#ifdef NXS_NET_DEBUG
std::cerr << "RsGxsNetService::locked_CanReceiveUpdate(): Msgs up to date" << std::endl;
#endif
return false;
}
}
return true;
}
void RsGxsNetService::handleRecvSyncMessage(RsNxsSyncMsg* item)
{
RsStackMutex stack(mNxsMutex);
if(!locked_CanReceiveUpdate(item))
return;
const RsPeerId& peer = item->PeerId();
GxsMsgMetaResult metaResult;
GxsMsgReq req;
std::map<RsGxsGroupId, RsGxsGrpMetaData*> grpMetas;
grpMetas[item->grpId] = NULL;
mDataStore->retrieveGxsGrpMetaData(grpMetas);
RsGxsGrpMetaData* grpMeta = grpMetas[item->grpId];
if(grpMeta == NULL)
return;
req[item->grpId] = std::vector<RsGxsMessageId>();
mDataStore->retrieveGxsMsgMetaData(req, metaResult);
std::vector<RsGxsMsgMetaData*>& msgMetas = metaResult[item->grpId];
if(req.empty())
{
delete(grpMeta);
return;
}
std::list<RsNxsItem*> itemL;
uint32_t transN = locked_getTransactionId();
if(/*canSendMsgIds(msgMetas, *grpMeta, peer)*/ true)
{
std::vector<RsGxsMsgMetaData*>::iterator vit = msgMetas.begin();
for(; vit != msgMetas.end(); vit++)
{
RsGxsMsgMetaData* m = *vit;
RsNxsSyncMsgItem* mItem = new
RsNxsSyncMsgItem(mServType);
mItem->flag = RsNxsSyncGrpItem::FLAG_RESPONSE;
mItem->grpId = m->mGroupId;
mItem->msgId = m->mMsgId;
mItem->authorId = m->mAuthorId;
mItem->PeerId(peer);
mItem->transactionNumber = transN;
itemL.push_back(mItem);
}
if(!itemL.empty())
locked_pushMsgRespFromList(itemL, peer, transN);
}
std::vector<RsGxsMsgMetaData*>::iterator vit = msgMetas.begin();
// release meta resource
for(vit = msgMetas.begin(); vit != msgMetas.end(); vit++)
delete *vit;
delete(grpMeta);
}
void RsGxsNetService::locked_pushMsgRespFromList(std::list<RsNxsItem*>& itemL, const RsPeerId& sslId,
const uint32_t& transN)
{
NxsTransaction* tr = new NxsTransaction();
tr->mItems = itemL;
tr->mFlag = NxsTransaction::FLAG_STATE_WAITING_CONFIRM;
RsNxsTransac* trItem = new RsNxsTransac(mServType);
trItem->transactFlag = RsNxsTransac::FLAG_BEGIN_P1
| RsNxsTransac::FLAG_TYPE_MSG_LIST_RESP;
trItem->nItems = itemL.size();
trItem->timestamp = 0;
trItem->PeerId(sslId);
trItem->transactionNumber = transN;
// also make a copy for the resident transaction
tr->mTransaction = new RsNxsTransac(*trItem);
tr->mTransaction->PeerId(mOwnId);
tr->mTimeOut = time(NULL) + mTransactionTimeOut;
// signal peer to prepare for transaction
sendItem(trItem);
locked_addTransaction(tr);
}
bool RsGxsNetService::canSendMsgIds(const std::vector<RsGxsMsgMetaData*>& msgMetas,
const RsGxsGrpMetaData& grpMeta, const RsPeerId& sslId)
{
// first do the simple checks
uint8_t circleType = grpMeta.mCircleType;
if(circleType == GXS_CIRCLE_TYPE_LOCAL)
return false;
if(circleType == GXS_CIRCLE_TYPE_PUBLIC)
return true;
const RsGxsCircleId& circleId = grpMeta.mCircleId;
if(circleType == GXS_CIRCLE_TYPE_EXTERNAL)
{
if(mCircles->isLoaded(circleId))
{
const RsPgpId& pgpId = rsPeers->getGPGId(sslId);
return mCircles->canSend(circleId, pgpId);
}
std::vector<MsgIdCircleVet> toVet;
std::vector<RsGxsMsgMetaData*>::const_iterator vit = msgMetas.begin();
for(; vit != msgMetas.end(); vit++)
{
const RsGxsMsgMetaData* const& meta = *vit;
MsgIdCircleVet mic(meta->mMsgId, meta->mAuthorId);
toVet.push_back(mic);
}
if(!toVet.empty())
mPendingCircleVets.push_back(new MsgCircleIdsRequestVetting(mCircles, toVet, grpMeta.mGroupId,
sslId, grpMeta.mCircleId));
return false;
}
if(circleType == GXS_CIRCLE_TYPE_YOUREYESONLY)
{
// a non empty internal circle id means this
// is the personal circle owner
if(!grpMeta.mInternalCircle.isNull())
{
const RsGxsCircleId& internalCircleId = grpMeta.mCircleId;
if(mCircles->isLoaded(internalCircleId))
{
const RsPgpId& pgpId = rsPeers->getGPGId(sslId);
return mCircles->canSend(internalCircleId, pgpId);
}
std::vector<MsgIdCircleVet> toVet;
std::vector<RsGxsMsgMetaData*>::const_iterator vit = msgMetas.begin();
for(; vit != msgMetas.end(); vit++)
{
const RsGxsMsgMetaData* const& meta = *vit;
MsgIdCircleVet mic(meta->mMsgId, meta->mAuthorId);
toVet.push_back(mic);
}
if(!toVet.empty())
mPendingCircleVets.push_back(new MsgCircleIdsRequestVetting(mCircles, toVet, grpMeta.mGroupId,
sslId, grpMeta.mCircleId));
return false;
}
else
{
// an empty internal circle id means this peer can only
// send circle related info from peer he received it
if(grpMeta.mOriginator == sslId)
return true;
else
return false;
}
}
return true;
}
/** inherited methods **/
void RsGxsNetService::pauseSynchronisation(bool /* enabled */)
{
}
void RsGxsNetService::setSyncAge(uint32_t /* age */)
{
}
int RsGxsNetService::requestGrp(const std::list<RsGxsGroupId>& grpId, const RsPeerId& peerId)
{
RsStackMutex stack(mNxsMutex);
mExplicitRequest[peerId].assign(grpId.begin(), grpId.end());
return 1;
}
void RsGxsNetService::processExplicitGroupRequests()
{
RsStackMutex stack(mNxsMutex);
std::map<RsPeerId, std::list<RsGxsGroupId> >::const_iterator cit = mExplicitRequest.begin();
for(; cit != mExplicitRequest.end(); cit++)
{
const RsPeerId& peerId = cit->first;
const std::list<RsGxsGroupId>& groupIdList = cit->second;
std::list<RsNxsItem*> grpSyncItems;
std::list<RsGxsGroupId>::const_iterator git = groupIdList.begin();
uint32_t transN = locked_getTransactionId();
for(; git != groupIdList.end(); git++)
{
RsNxsSyncGrpItem* item = new RsNxsSyncGrpItem(mServType);
item->grpId = *git;
item->PeerId(peerId);
item->flag = RsNxsSyncGrpItem::FLAG_REQUEST;
item->transactionNumber = transN;
grpSyncItems.push_back(item);
}
if(!grpSyncItems.empty())
locked_pushGrpTransactionFromList(grpSyncItems, peerId, transN);
}
mExplicitRequest.clear();
}