#include <RunInfoRead.h>
Public Member Functions | |
RunInfo | readData (const std::string &table, const std::string &column, const int r_number) |
void | run () |
RunInfoRead (const std::string &connectionString, const std::string &user, const std::string &pass) | |
virtual | ~RunInfoRead () |
Private Attributes | |
std::string | m_columnToRead |
std::string | m_connectionString |
std::string | m_pass |
std::string | m_tableToRead |
std::string | m_user |
Definition at line 8 of file RunInfoRead.h.
RunInfoRead::RunInfoRead | ( | const std::string & | connectionString, |
const std::string & | user, | ||
const std::string & | pass | ||
) |
Definition at line 23 of file RunInfoRead.cc.
References m_columnToRead, and m_tableToRead.
: TestBase(), m_connectionString( connectionString ), m_user( user ), m_pass( pass ) { m_tableToRead=""; m_columnToRead=""; }
RunInfoRead::~RunInfoRead | ( | ) | [virtual] |
Definition at line 34 of file RunInfoRead.cc.
{}
RunInfo RunInfoRead::readData | ( | const std::string & | table, |
const std::string & | column, | ||
const int | r_number | ||
) |
Definition at line 39 of file RunInfoRead.cc.
References TestBase::connect(), filterCSVwithJSON::copy, gather_cfg::cout, exception, i, RunInfo::m_avg_current, m_columnToRead, m_connectionString, RunInfo::m_current, RunInfo::m_fed_in, RunInfo::m_max_current, RunInfo::m_min_current, m_pass, RunInfo::m_run, RunInfo::m_run_intervall_micros, RunInfo::m_start_current, RunInfo::m_start_time_ll, RunInfo::m_start_time_str, RunInfo::m_stop_current, RunInfo::m_stop_time_ll, RunInfo::m_stop_time_str, m_tableToRead, RunInfo::m_times_of_currents, m_user, max(), min, python::rootplot::root2matplotlib::replace(), python::IdGenerator::schema, python::CommonUtils::session, asciidump::table, and cond::time::time0.
Referenced by RunInfoHandler::getNewObjects().
{ m_tableToRead = table; // to be cms_runinfo.runsession_parameter m_columnToRead= column; // to be string_value; RunInfo sum; RunInfo temp_sum; //RunInfo Sum; //for B currents... bool Bnotchanged = 0; //from TimeConversions.h const boost::posix_time::ptime time0 = boost::posix_time::from_time_t(0); //if cursor is null setting null values temp_sum.m_run = r_number; std::cout << "entering readData" << std::endl; coral::ISession* session = this->connect( m_connectionString, m_user, m_pass ); try{ session->transaction().start(); std::cout << "starting session " << std::endl; coral::ISchema& schema = session->schema("CMS_RUNINFO"); std::cout << " accessing schema " << std::endl; std::cout << " trying to handle table :: " << m_tableToRead << std::endl; std::string m_columnToRead_id = "ID"; long long id_start = 0; //new query to obtain the start_time, fist obtaining the id coral::IQuery* queryI = schema.tableHandle(m_tableToRead).newQuery(); //implementing the query here....... queryI->addToOutputList(m_tableToRead + "." + m_columnToRead_id, m_columnToRead_id); //condition coral::AttributeList conditionData; conditionData.extend<int>( "n_run" ); conditionData[0].data<int>() = r_number; std::string condition1 = m_tableToRead + ".runnumber=:n_run AND " + m_tableToRead + ".name='CMS.LVL0:START_TIME_T'"; queryI->setCondition(condition1, conditionData); coral::ICursor& cursorI = queryI->execute(); if( cursorI.next() ) { //cursorI.currentRow().toOutputStream(std::cout) << std::endl; const coral::AttributeList& row = cursorI.currentRow(); id_start = row[m_columnToRead_id].data<long long>(); } else { id_start = -1; } //std::cout << "id for start time time extracted == " << id_start << std::endl; delete queryI; //now extracting the start time std::string m_tableToRead_date = "RUNSESSION_DATE"; std::string m_columnToRead_val = "VALUE"; //new query to obtain the start_time, fist obtaining the id coral::IQuery* queryII = schema.tableHandle(m_tableToRead_date).newQuery(); //implementing the query here....... queryII->addToOutputList(m_tableToRead_date + "." + m_columnToRead_val, m_columnToRead_val); //condition coral::AttributeList conditionData2; conditionData2.extend<long long>( "n_id" ); conditionData2[0].data<long long>() = id_start; std::string condition2 = m_tableToRead_date + ".runsession_parameter_id=:n_id"; queryII->setCondition(condition2, conditionData2); coral::ICursor& cursorII = queryII->execute(); coral::TimeStamp start; //now all times are UTC! if( cursorII.next() ) { //cursorII.currentRow().toOutputStream(std::cout) << std::endl; const coral::AttributeList& row = cursorII.currentRow(); start = row[m_columnToRead_val].data<coral::TimeStamp>(); /* std::cout << "start time extracted == " << "-->year " << start.year() << "-- month " << start.month() << "-- day " << start.day() << "-- hour " << start.hour() << "-- minute " << start.minute() << "-- second " << start.second() << "-- nanosecond " << start.nanosecond() << std::endl; */ boost::posix_time::ptime start_ptime = start.time(); std::cout << "Posix time for run start: "<< start_ptime << std::endl; boost::posix_time::time_duration startTimeFromEpoch = start_ptime - time0; temp_sum.m_start_time_str = boost::posix_time::to_iso_extended_string(start_ptime); temp_sum.m_start_time_ll = startTimeFromEpoch.total_microseconds(); std::cout << "start time string extracted == " << temp_sum.m_start_time_str << std::endl; std::cout << "microsecond since Epoch (UTC) : " << temp_sum.m_start_time_ll << std::endl; } else { temp_sum.m_start_time_str = "null"; temp_sum.m_start_time_ll = -1; } delete queryII; //new query to obtain the stop_time, fist obtaining the id coral::IQuery* queryIII = schema.tableHandle(m_tableToRead).newQuery(); //implementing the query here....... queryIII->addToOutputList(m_tableToRead + "." + m_columnToRead_id, m_columnToRead_id); //condition std::string condition3 = m_tableToRead + ".runnumber=:n_run AND " + m_tableToRead + ".name='CMS.LVL0:STOP_TIME_T'"; queryIII->setCondition(condition3, conditionData); coral::ICursor& cursorIII = queryIII->execute(); long long id_stop = 0; if( cursorIII.next() ) { //cursorIII.currentRow().toOutputStream(std::cout) << std::endl; const coral::AttributeList& row = cursorIII.currentRow(); id_stop = row[m_columnToRead_id].data<long long>(); } else { id_stop = -1; } //std::cout << "id for stop time time extracted == " << id_stop << std::endl; delete queryIII; //now exctracting the stop time coral::IQuery* queryIV = schema.tableHandle(m_tableToRead_date).newQuery(); //implementing the query here....... queryIV->addToOutputList(m_tableToRead_date + "." + m_columnToRead_val, m_columnToRead_val); //condition coral::AttributeList conditionData4; conditionData4.extend<long long>( "n_id" ); conditionData4[0].data<long long>() = id_stop; std::string condition4 = m_tableToRead_date + ".runsession_parameter_id=:n_id"; queryIV->setCondition(condition4, conditionData4); coral::ICursor& cursorIV = queryIV->execute(); coral::TimeStamp stop; if( cursorIV.next() ) { //cursorIV.currentRow().toOutputStream(std::cout) << std::endl; const coral::AttributeList& row = cursorIV.currentRow(); stop = row[m_columnToRead_val].data<coral::TimeStamp>(); /* std::cout << "stop time extracted == " << "-->year " << stop.year() << "-- month " << stop.month() << "-- day " << stop.day() << "-- hour " << stop.hour() << "-- minute " << stop.minute() << "-- second " << stop.second() << "-- nanosecond " << stop.nanosecond() << std::endl; */ boost::posix_time::ptime stop_ptime = stop.time(); std::cout << "Posix time for run stop: "<< stop_ptime << std::endl; boost::posix_time::time_duration stopTimeFromEpoch = stop_ptime - time0; temp_sum.m_stop_time_str = boost::posix_time::to_iso_extended_string(stop_ptime); temp_sum.m_stop_time_ll = stopTimeFromEpoch.total_microseconds(); std::cout << "stop time string extracted == " << temp_sum.m_stop_time_str << std::endl; std::cout << "microsecond since Epoch (UTC) : " << temp_sum.m_stop_time_ll << std::endl; } else { temp_sum.m_stop_time_str = "null"; temp_sum.m_stop_time_ll = -1; } delete queryIV; std::string m_tableToRead_fed = "RUNSESSION_STRING"; coral::IQuery* queryV = schema.newQuery(); queryV->addToTableList(m_tableToRead); queryV->addToTableList(m_tableToRead_fed); queryV->addToOutputList(m_tableToRead_fed + "." + m_columnToRead_val, m_columnToRead_val); //queryV->addToOutputList(m_tableToRead + "." + m_columnToRead, m_columnToRead); //condition std::string condition5 = m_tableToRead + ".RUNNUMBER=:n_run AND " + m_tableToRead + ".NAME='CMS.LVL0:FED_ENABLE_MASK' AND RUNSESSION_PARAMETER.ID = RUNSESSION_STRING.RUNSESSION_PARAMETER_ID"; //std::string condition5 = m_tableToRead + ".runnumber=:n_run AND " + m_tableToRead + ".name='CMS.LVL0:FED_ENABLE_MASK'"; queryV->setCondition(condition5, conditionData); coral::ICursor& cursorV = queryV->execute(); std::string fed; if ( cursorV.next() ) { //cursorV.currentRow().toOutputStream(std::cout) << std::endl; const coral::AttributeList& row = cursorV.currentRow(); fed = row[m_columnToRead_val].data<std::string>(); } else { fed="null"; } //std::cout << "string fed emask == " << fed << std::endl; delete queryV; std::replace(fed.begin(), fed.end(), '%', ' '); std::stringstream stream(fed); for(;;) { std::string word; if ( !(stream >> word) ){break;} std::replace(word.begin(), word.end(), '&', ' '); std::stringstream ss(word); int fedNumber; int val; ss >> fedNumber >> val; //std::cout << "fed:: " << fed << "--> val:: " << val << std::endl; //val bit 0 represents the status of the SLINK, but 5 and 7 means the SLINK/TTS is ON but NA or BROKEN (see mail of alex....) if( (val & 0001) == 1 && (val != 5) && (val != 7) ) temp_sum.m_fed_in.push_back(fedNumber); } std::cout << "feds in run:--> "; std::copy(temp_sum.m_fed_in.begin(), temp_sum.m_fed_in.end(), std::ostream_iterator<int>(std::cout, ", ")); std::cout << std::endl; /* for (size_t i =0; i<temp_sum.m_fed_in.size() ; ++i){ std::cout << "fed in run:--> " << temp_sum.m_fed_in[i] << std::endl; } */ coral::ISchema& schema2 = session->schema("CMS_DCS_ENV_PVSS_COND"); std::string m_tableToRead_cur= "CMSFWMAGNET"; std::string m_columnToRead_cur= "CURRENT"; std::string m_columnToRead_date= "CHANGE_DATE"; coral::IQuery* queryVI = schema2.tableHandle(m_tableToRead_cur).newQuery(); queryVI->addToOutputList(m_tableToRead_cur + "." + m_columnToRead_cur, m_columnToRead_cur); queryVI->addToOutputList(m_tableToRead_cur + "." + m_columnToRead_date, m_columnToRead_date); //condition coral::AttributeList conditionData6; float last_current = -1; if(temp_sum.m_stop_time_str != "null") { conditionData6.extend<coral::TimeStamp>( "runstart_time" ); conditionData6.extend<coral::TimeStamp>( "runstop_time" ); conditionData6["runstart_time"].data<coral::TimeStamp>() = start; //start_time ; conditionData6["runstop_time"].data<coral::TimeStamp>() = stop; //stop_time ; std::string conditionVI = " NOT " + m_tableToRead_cur + "." + m_columnToRead_cur + " IS NULL AND " + m_tableToRead_cur + "." + m_columnToRead_date + ">:runstart_time AND " + m_tableToRead_cur + "." + m_columnToRead_date + "<:runstop_time" /*" ORDER BY " + m_columnToRead_date + " DESC"*/; queryVI->setCondition(conditionVI, conditionData6); queryVI->addToOrderList(m_tableToRead_cur + "." + m_columnToRead_date + " DESC"); } else { std::cout << "run stop null" << std::endl; conditionData6.extend<coral::TimeStamp>( "runstart_time" ); conditionData6["runstart_time"].data<coral::TimeStamp>() = start; //start_time ; std::string conditionVI = " NOT " + m_tableToRead_cur + "." + m_columnToRead_cur + " IS NULL AND " + m_tableToRead_cur + "." + m_columnToRead_date + "<:runstart_time" /*" ORDER BY " + m_columnToRead_date + " DESC"*/; queryVI->setCondition(conditionVI, conditionData6); queryVI->addToOrderList(m_tableToRead_cur + "." + m_columnToRead_date + " DESC"); } queryVI->limitReturnedRows(10000); coral::ICursor& cursorVI = queryVI->execute(); coral::TimeStamp lastCurrentDate; std::string last_date; std::vector<double> time_curr; if ( !cursorVI.next() ) { // we should deal with stable currents... so the query is returning no value and we should take the last modified current value... Bnotchanged = 1; coral::AttributeList conditionData6bis; conditionData6bis.extend<coral::TimeStamp>( "runstop_time" ); conditionData6bis["runstop_time"].data<coral::TimeStamp>() = stop; //stop_time ; std::string conditionVIbis = " NOT " + m_tableToRead_cur + "." + m_columnToRead_cur + " IS NULL AND " + m_tableToRead_cur + "." + m_columnToRead_date + " <:runstop_time" /*" ORDER BY " + m_columnToRead_date + " DESC"*/; coral::IQuery* queryVIbis = schema2.tableHandle(m_tableToRead_cur).newQuery(); queryVIbis->addToOutputList(m_tableToRead_cur + "." + m_columnToRead_cur, m_columnToRead_cur); queryVIbis->setCondition(conditionVIbis, conditionData6bis); queryVIbis->addToOrderList(m_tableToRead_cur + "." + m_columnToRead_date + " DESC"); coral::ICursor& cursorVIbis= queryVIbis->execute(); if( cursorVIbis.next() ) { //cursorVIbis.currentRow().toOutputStream(std::cout) << std::endl; const coral::AttributeList& row = cursorVIbis.currentRow(); last_current = row[m_columnToRead_cur].data<float>(); std::cout << "previos run(s) current, not changed in this run... " << last_current << std::endl; } temp_sum.m_avg_current = last_current; temp_sum.m_min_current = last_current; temp_sum.m_max_current = last_current; temp_sum.m_stop_current = last_current; temp_sum.m_start_current = last_current; } while( cursorVI.next() ) { //cursorVI.currentRow().toOutputStream(std::cout) << std::endl; const coral::AttributeList& row = cursorVI.currentRow(); lastCurrentDate = row[m_columnToRead_date].data<coral::TimeStamp>(); temp_sum.m_current.push_back( row[m_columnToRead_cur].data<float>() ); if(temp_sum.m_stop_time_str == "null") break; /* std::cout << " last current time extracted == " << "-->year " << lastCurrentDate.year() << "-- month " << lastCurrentDate.month() << "-- day " << lastCurrentDate.day() << "-- hour " << lastCurrentDate.hour() << "-- minute " << lastCurrentDate.minute() << "-- second " << lastCurrentDate.second() << "-- nanosecond " << lastCurrentDate.nanosecond() << std::endl; */ boost::posix_time::ptime lastCurrentDate_ptime = lastCurrentDate.time(); std::cout << "Posix time for last current time: " << lastCurrentDate_ptime << std::endl; boost::posix_time::time_duration lastCurrentDateTimeFromEpoch = lastCurrentDate_ptime - time0; last_date = boost::posix_time::to_iso_extended_string(lastCurrentDate_ptime); std::cout << "last current time extracted == " << last_date << std::endl; long long last_date_ll = lastCurrentDateTimeFromEpoch.total_microseconds(); time_curr.push_back(last_date_ll); } delete queryVI; size_t csize = temp_sum.m_current.size(); std::cout << "size of currents " << csize << std::endl; size_t tsize = time_curr.size(); std::cout << "size of time " << tsize << std::endl; if(csize != tsize) { std::cout<< "current and time not filled correctly" << std::endl; } if(tsize > 1) { temp_sum.m_run_intervall_micros = time_curr.front() - time_curr.back(); } else { temp_sum.m_run_intervall_micros = 0; } std::cout << "change current during run interval in microseconds " << temp_sum.m_run_intervall_micros << std::endl; double wi = 0; //std::vector<double> v_wi; double sumwixi = 0; double sumwi = 0; float min = -1; float max = -1; if(csize != 0) { min = temp_sum.m_current.front(); max = temp_sum.m_current.front(); for(size_t i = 0; i < csize; ++i) { std::cout << "--> " << temp_sum.m_current[i] << std::endl; if( (tsize > 1) && ( i < csize - 1 ) ) { wi = (time_curr[i] - time_curr[i+1]) ; temp_sum.m_times_of_currents.push_back(wi); //v_wi.push_back(wi); sumwixi += wi * temp_sum.m_current[i] ; sumwi += wi; } min = std::min(min, temp_sum.m_current[i]); max = std::max(max, temp_sum.m_current[i]); } //for (size_t i = 0; i < v_wi.size(); ++i) { for (size_t i = 0; i < temp_sum.m_times_of_currents.size(); ++i){ std::cout << "wi " << temp_sum.m_times_of_currents[i] << std::endl; } temp_sum.m_start_current = temp_sum.m_current.back(); //temp_sum.m_current[csize - 1]; std::cout << "--> " << "start cur " << temp_sum.m_start_current << std::endl; temp_sum.m_stop_current = temp_sum.m_current.front(); //temp_sum.m_current[0]; std::cout<< "--> " << "stop cur " << temp_sum.m_stop_current << std::endl; if (tsize>1) { temp_sum.m_avg_current=sumwixi/sumwi; } else { temp_sum.m_avg_current= temp_sum.m_start_current; } std::cout<< "--> " << "avg cur " << temp_sum.m_avg_current << std::endl; temp_sum.m_max_current= max; std::cout<< "--> " << "max cur " << temp_sum.m_max_current << std::endl; temp_sum.m_min_current= min; std::cout<< "--> " << "min cur " << temp_sum.m_min_current << std::endl; } else { if (!Bnotchanged) { temp_sum.m_avg_current = -1; temp_sum.m_min_current = -1; temp_sum.m_max_current = -1; temp_sum.m_stop_current = -1; temp_sum.m_start_current = -1; } } std::cout << "temp_sum.m_avg_current " << temp_sum.m_avg_current << std::endl; std::cout << "temp_sum.m_min_current " << temp_sum.m_min_current << std::endl; std::cout << "temp_sum.m_max_current " << temp_sum.m_max_current << std::endl; std::cout << "temp_sum.m_stop_current " << temp_sum.m_stop_current << std::endl; std::cout << "temp_sum.m_start_current " << temp_sum.m_start_current << std::endl; session->transaction().commit(); } catch (const std::exception& e) { std::cout << "Exception: " << e.what() << std::endl; } delete session; sum= temp_sum; return sum; }
void RunInfoRead::run | ( | ) | [virtual] |
std::string RunInfoRead::m_columnToRead [private] |
Definition at line 18 of file RunInfoRead.h.
Referenced by readData(), and RunInfoRead().
std::string RunInfoRead::m_connectionString [private] |
Definition at line 19 of file RunInfoRead.h.
Referenced by readData().
std::string RunInfoRead::m_pass [private] |
Definition at line 21 of file RunInfoRead.h.
Referenced by readData().
std::string RunInfoRead::m_tableToRead [private] |
Definition at line 17 of file RunInfoRead.h.
Referenced by readData(), and RunInfoRead().
std::string RunInfoRead::m_user [private] |
Definition at line 20 of file RunInfoRead.h.
Referenced by readData().