comparison src/AccompanimentSynchroniser.cpp @ 55:2eca10a31ae2

improving printing of information, looking at how tempo is modelled

 	reset();
 }
 
 void AccompanimentSynchroniser::reset(){
 	
+	printf("ACC SYNC RESET\n");
 	
 	playingPositionRatio = 0;
 	playingPositionSamples = 0;
 	playingPositionMillis = 0;
 	playingPositionTimeSent = 0;
 	
 	recordedPositionMillis = 0;
 	recordedPositionTimeSent = 0;
-	
+
 	speed = 1;
 	smoothedSpeedOutput = 1;
 	difference = 0;
+
+	sendSpeed(smoothedSpeedOutput);
 	
 }
 
 void AccompanimentSynchroniser::setPlayingRatio(const double& ratio, const double& timePlayed){
 	playingPositionRatio = ratio;

 
 void AccompanimentSynchroniser::updateOutputSpeed(){
 	//we want the playing position to more closely align with the recordedPosition
 
 
-	difference += 0.5*((recordedPositionMillis - playingPositionMillis)-difference);
+	difference += 0.5*((recordedPositionMillis - playingPositionMillis) - difference);
 //	difference -=  (recordedPositionTimeSent - playingPositionTimeSent);
 	
 	//suppose we project that we will align in 1 seconds time
 	double projectedAlignmentTime = 1000;
 	

 		counter++;
 
 }
 
 void AccompanimentSynchroniser::sendSpeed(double const& val){
-	if (val > -3 && val < 4){
+	if (val > -2 && val < 2.){
 		ofxOscMessage m;
 		m.setAddress( "/setSpeed" );
 		m.addFloatArg( val );
 		sender.sendMessage( m );
 		
 		ofxOscMessage z;
 		z.setAddress( "/syncDifference" );
 		z.addFloatArg( difference );
 		sender.sendMessage( z );
+	} else {
+		printf("TRY TO SEND START rec pos %f play %f\n", recordedPositionMillis, playingPositionMillis);
+		ofxOscMessage z;
+		z.setAddress( "/setToSyncPlayingPosition" );
+		z.addFloatArg( recordedPositionMillis );
+		sender.sendMessage( z );
+		sendSpeed(1);
+		smoothedSpeedOutput = 1;
+		difference = 0;
 	}
 }