double currentTime()
    {
    TTime current;
    current.HomeTime();
    // second resolution instead of microsecond
    return I64REAL( current.Int64() ) / 1000000;
    }
void CPrimeGenPerformance::PerformAction(TRequestStatus& aStatus)
	{
	__UHEAP_MARK;
	TRequestStatus* status = &aStatus;
	TTime start, end;
	TTimeIntervalSeconds diff(0);
	const TTimeIntervalSeconds iterationTime(iIterations);
	TUint iterations=0;
	
	RInteger prime;

	start.UniversalTime();
	while (diff < iterationTime)
		{
		prime = RInteger::NewPrimeL(iBits, TInteger::ETopBitSet);
		prime.Close();
		iterations++;
		end.UniversalTime();
		end.SecondsFrom(start, diff);
		}
	end.UniversalTime();

	TTimeIntervalMicroSeconds time = end.MicroSecondsFrom(start);
	TReal rate = I64REAL(time.Int64()) / iterations;
    TReal rtime = I64REAL(time.Int64());
	HBufC* realbuf = HBufC::NewLC(128);
	TPtr buf = realbuf->Des();

	buf.Format(KPrimeGenFormat, rate, iterations, rtime);
	iOut.writeString(buf);
	iConsole.Printf(_L("."));
	CleanupStack::PopAndDestroy(realbuf);

	User::RequestComplete(status, KErrNone);
	iActionState = CTestAction::EPostrequisite;
	iResult = ETrue;
	__UHEAP_MARKEND;
	}
void bases::NewSensorEventL(const TTupleName& aTuple, const TDesC& , const CBBSensorEvent& aEvent)
{
	CALLSTACKITEM_N(_CL("bases"), _CL("NewSensorEventL"));
#ifdef __WINS__
	//User::Leave(KErrGeneral);
	//return;
#endif

	const TBBCellId* cell=bb_cast<TBBCellId>(aEvent.iData());

	if (aEvent.iPriority()!=CBBSensorEvent::VALUE || !cell) return;

	if (!testing) now=aEvent.iStamp();

	bool missing_data=false;
	if ( cell->iLocationAreaCode()==0 ) {
		if (started) {
			if (aTuple==KNoTuple) {
				now_at_location(cell, -1, false, false, aEvent.iStamp());
			}
			return;
		}
		missing_data=true;
	}

	TInt id=cell->iMappedId();
	current_cell_value=*cell;

	cell_list_node *n=0;
	n=get_single(id);
	while (n && n->merged_to != n->id) {
		id=n->merged_to;
		n=get_single(id);
	}

	if (started && current) {
		// see if we have a gap between stop and start
		if (current->id!=id) {
			// different cell, allow 10 minute difference
			TTimeIntervalMinutes d(10);
			if (previous_time+d < now && !missed_data ) {
				current->f++;
				update_database(current, false);
				current=0;
			}
		} else {
			// same cell, allow 30 minute difference
			TTimeIntervalMinutes d(30);
			if (previous_time+d < now) {
				current->f++;
				update_database(current, false);
				current=0;
			}
		}
		if (!current) iCandidates->reset();
	}
	started=false;

	bool same_loc=true;
	if (current) {
		if (current->id != id) {
			current->f++;
			same_loc=false;
			iGraph->AddEdge(current->id, id);
		} 
#ifdef __S60V3__
		TInt64 diff=now.Int64()-previous_time.Int64();
		double unaged_spent=I64REAL(diff)/(1024.0*1024.0);
#else
		double unaged_spent=(now.Int64()-previous_time.Int64()).GetTReal()/(1024.0*1024.0);
#endif
		if (unaged_spent<0.0) unaged_spent=0.0;
		double spent=scale*unaged_spent;
		current->unaged_t+=unaged_spent;
		MergeEvent(current, unaged_spent, !same_loc);
		previous_time=now;
		move_into_place(current, spent);
		update_database(current, same_loc);
	} else {
		previous_time=now;
		same_loc=false;
	}

	if (missing_data ) {
		now_at_location(cell, -1, false, false, aEvent.iStamp());
		started=true;
		missed_data=true;
		return;
	} else {
		missed_data=false;
	}

	if (!n) {
		n=new (ELeave) cell_list_node(id, now);
		CC_TRAPD(err, cell_hash->AddDataL(id, n));
		if (err!=KErrNone) {
			delete n;
			User::Leave(1);
		}
		n->prev=last_cell;
		if (last_cell) {
			last_cell->next=n; 
			n->pos=last_cell->pos+1;
		}
		last_cell=n;
	}
	if (!first_cell) {
		first_cell=n;
		n->pos=0;
	}

	while (n && n->merged_to != n->id) {
		id=n->merged_to;
		n=(cell_list_node*)cell_hash->GetData(id);
	}

	current=n;
	n->last_seen=now;
	update_database(n, true);

	if (now.DayNoInYear()!=previous_day.DayNoInYear()) {
		scale*=(1.0/aging);
		if (scale>1024.0) {
			rescale();
		}
		previous_day=now;
		bases_info->t=scale;
		update_database(bases_info, false);
	}

	if (!testing) {
		now_at_location(cell, id, n->is_base, !same_loc, aEvent.iStamp());
	}

}
void CMontgomeryPerformance::PerformAction(TRequestStatus& aStatus)
	{
	TRequestStatus* status = &aStatus;
	iResult = ETrue;

	CMontgomeryStructure* montConst;

	TUint iterations = 0;

	TTime start, end;
	TTimeIntervalSeconds diff(0);
	const TTimeIntervalSeconds iterationTime(iIterations);
	
	start.UniversalTime();
	while (diff < iterationTime)
		{
		montConst = CMontgomeryStructure::NewL(iModulus);
		delete montConst;
		iterations++;
		end.UniversalTime();
		end.SecondsFrom(start, diff);
		}
	end.UniversalTime();

	TTimeIntervalMicroSeconds time = end.MicroSecondsFrom(start);
	TReal rate = I64REAL(time.Int64()) / (iterations);
	TReal rtime = I64REAL(time.Int64());
    HBufC* realbuf = HBufC::NewLC(128);
	TPtr buf = realbuf->Des();
	buf.Format(KPerfConstFormat, rate, iterations, rtime);
	iOut.writeString(buf);
	iConsole.Printf(_L("."));

	CMontgomeryStructure* mont = CMontgomeryStructure::NewLC(iModulus); 

//Multiply
	diff  = 0;
	iterations = 0;
	start.UniversalTime();
	while (diff < iterationTime)
		{
		mont->MultiplyL(iA, iB);
		iterations++;
		end.UniversalTime();
		end.SecondsFrom(start, diff);
		}
	end.UniversalTime();

	time = end.MicroSecondsFrom(start);
	rate = I64REAL(time.Int64()) / iterations;
    rtime = I64REAL(time.Int64());
	buf.Zero();
	buf.Format(KPerfMultiplyFormat, rate, iterations, rtime);
	iOut.writeString(buf);
	iConsole.Printf(_L("."));

//Square
	diff  = 0;
	iterations = 0;
	start.UniversalTime();
	while (diff < iterationTime)
		{
		mont->SquareL(iA);
		iterations++;
		end.UniversalTime();
		end.SecondsFrom(start, diff);
		}
	end.UniversalTime();

	time = end.MicroSecondsFrom(start);
	rate = I64REAL(time.Int64()) / iterations;
    rtime = I64REAL(time.Int64());
	buf.Zero();
	buf.Format(KPerfSquareFormat, rate, iterations, rtime);
	iOut.writeString(buf);
	iConsole.Printf(_L("."));

//Exponentiate
	diff  = 0;
	iterations = 0;
	start.UniversalTime();
	while (diff < iterationTime)
		{
		mont->ExponentiateL(iA, iB);
		iterations++;
		end.UniversalTime();
		end.SecondsFrom(start, diff);
		}
	end.UniversalTime();

	time = end.MicroSecondsFrom(start);
	rate = I64REAL(time.Int64()) / iterations;
    rtime = I64REAL(time.Int64());

	buf.Zero();
	buf.Format(KPerfExpFormat, rate, iterations, rtime);
	iOut.writeString(buf);
	iConsole.Printf(_L("."));

//Reduce
	RInteger top = iA.TimesL(iB);
	CleanupStack::PushL(top);

	diff  = 0;
	iterations = 0;
	start.UniversalTime();
	while (diff < iterationTime)
		{
		mont->ReduceL(top);
		iterations++;
		end.UniversalTime();
		end.SecondsFrom(start, diff);
		}
	end.UniversalTime();

	CleanupStack::PopAndDestroy(&top);

	time = end.MicroSecondsFrom(start);
	rate = I64REAL(time.Int64()) / iterations;
    rtime = I64REAL(time.Int64());
	buf.Zero();
	buf.Format(KPerfReduceFormat, rate, iterations, rtime);
	iOut.writeString(buf);
	iConsole.Printf(_L("."));
	CleanupStack::PopAndDestroy(mont);
	CleanupStack::PopAndDestroy(realbuf);

	User::RequestComplete(status, KErrNone);
	iActionState = CTestAction::EPostrequisite;
	}
Exemplo n.º 5
0
void TDbStoreIndexStats::TBound::Set(const TInt64& aBound)
	{iValue=I64REAL(aBound);}