diff --git a/Transceiver52M/Transceiver.cpp b/Transceiver52M/Transceiver.cpp
index 7054dec..b60496a 100644
--- a/Transceiver52M/Transceiver.cpp
+++ b/Transceiver52M/Transceiver.cpp
@@ -50,7 +50,7 @@
 
 Transceiver::Transceiver(int wBasePort,
 			 const char *TRXAddress,
-			 int wSamplesPerSymbol,
+			 int wSPS,
 			 GSM::Time wTransmitLatency,
 			 RadioInterface *wRadioInterface)
 	:mDataSocket(wBasePort+2,TRXAddress,wBasePort+102),
@@ -66,7 +66,7 @@
   mTransmitPriorityQueueServiceLoopThread = new Thread(32768);///< thread to process transmit bursts from GSM core
 
 
-  mSamplesPerSymbol = wSamplesPerSymbol;
+  mSPS = wSPS;
   mRadioInterface = wRadioInterface;
   mTransmitLatency = wTransmitLatency;
   mTransmitDeadlineClock = startTime;
@@ -76,9 +76,9 @@
   mMaxExpectedDelay = 0;
 
   // generate pulse and setup up signal processing library
-  gsmPulse = generateGSMPulse(2,mSamplesPerSymbol);
+  gsmPulse = generateGSMPulse(2, mSPS);
   LOG(DEBUG) << "gsmPulse: " << *gsmPulse;
-  sigProcLibSetup(mSamplesPerSymbol);
+  sigProcLibSetup(mSPS);
 
   txFullScale = mRadioInterface->fullScaleInputValue();
   rxFullScale = mRadioInterface->fullScaleOutputValue();
@@ -87,7 +87,7 @@
   for (int i = 0; i < 8; i++) {
     signalVector* modBurst = modulateBurst(gDummyBurst,*gsmPulse,
 					   8 + (i % 4 == 0),
-					   mSamplesPerSymbol);
+					   mSPS);
     scaleVector(*modBurst,txFullScale);
     fillerModulus[i]=26;
     for (int j = 0; j < 102; j++) {
@@ -124,7 +124,7 @@
   // modulate and stick into queue 
   signalVector* modBurst = modulateBurst(burst,*gsmPulse,
 					 8 + (wTime.TN() % 4 == 0),
-					 mSamplesPerSymbol);
+					 mSPS);
   scaleVector(*modBurst,txFullScale * pow(10,-RSSI/10));
   radioVector *newVec = new radioVector(*modBurst,wTime);
   mTransmitPriorityQueue.write(newVec);
@@ -137,7 +137,7 @@
 {
   SoftVector *burst = demodulateBurst(wVector,
 				   *gsmPulse,
-				   mSamplesPerSymbol,
+				   mSPS,
 				   1.0,0.0);
   LOG(DEBUG) << "LOGGED BURST: " << *burst;
 
@@ -322,7 +322,7 @@
   complex amplitude = 0.0;
   float TOA = 0.0;
   float avgPwr = 0.0;
-  if (!energyDetect(*vectorBurst,20*mSamplesPerSymbol,mEnergyThreshold,&avgPwr)) {
+  if (!energyDetect(*vectorBurst, 20 * mSPS, mEnergyThreshold, &avgPwr)) {
      LOG(DEBUG) << "Estimated Energy: " << sqrt(avgPwr) << ", at time " << rxBurst->getTime();
      double framesElapsed = rxBurst->getTime()-prevFalseDetectionTime;
      if (framesElapsed > 50) {  // if we haven't had any false detections for a while, lower threshold
@@ -358,7 +358,7 @@
     success = analyzeTrafficBurst(*vectorBurst,
 				  mTSC,
 				  3.0,
-				  mSamplesPerSymbol,
+				  mSPS,
 				  &amplitude,
 				  &TOA,
 				  mMaxExpectedDelay, 
@@ -393,7 +393,7 @@
     // RACH burst
     success = detectRACHBurst(*vectorBurst,
 			      5.0,  // detection threshold
-			      mSamplesPerSymbol,
+			      mSPS,
 			      &amplitude,
 			      &TOA);
     if (success) {
@@ -416,21 +416,21 @@
     if ((corrType==RACH) || (!needDFE)) {
       burst = demodulateBurst(*vectorBurst,
 			      *gsmPulse,
-			      mSamplesPerSymbol,
+			      mSPS,
 			      amplitude,TOA);
     }
     else { // TSC
       scaleVector(*vectorBurst,complex(1.0,0.0)/amplitude);
       burst = equalizeBurst(*vectorBurst,
 			    TOA-chanRespOffset[timeslot],
-			    mSamplesPerSymbol,
+			    mSPS,
 			    *DFEForward[timeslot],
 			    *DFEFeedback[timeslot]);
     }
     wTime = rxBurst->getTime();
     RSSI = (int) floor(20.0*log10(rxFullScale/amplitude.abs()));
     LOG(DEBUG) << "RSSI: " << RSSI;
-    timingOffset = (int) round(TOA*256.0/mSamplesPerSymbol);
+    timingOffset = (int) round(TOA * 256.0 / mSPS);
   }
 
   //if (burst) LOG(DEBUG) << "burst: " << *burst << '\n';
@@ -497,7 +497,7 @@
         // Prepare for thread start
         mPower = -20;
         mRadioInterface->start();
-        generateRACHSequence(*gsmPulse,mSamplesPerSymbol);
+        generateRACHSequence(*gsmPulse, mSPS);
 
         // Start radio interface threads.
         mFIFOServiceLoopThread->start((void * (*)(void*))FIFOServiceLoopAdapter,(void*) this);
@@ -589,7 +589,7 @@
       sprintf(response,"RSP SETTSC 1 %d",TSC);
     else {
       mTSC = TSC;
-      generateMidamble(*gsmPulse,mSamplesPerSymbol,TSC);
+      generateMidamble(*gsmPulse, mSPS, TSC);
       sprintf(response,"RSP SETTSC 0 %d",TSC);
     }
   }
diff --git a/Transceiver52M/Transceiver.h b/Transceiver52M/Transceiver.h
index 30eb7b9..91d92b2 100644
--- a/Transceiver52M/Transceiver.h
+++ b/Transceiver52M/Transceiver.h
@@ -126,7 +126,7 @@
 
   signalVector *gsmPulse;              ///< the GSM shaping pulse for modulation
 
-  int mSamplesPerSymbol;               ///< number of samples per GSM symbol
+  int mSPS;                            ///< number of samples per GSM symbol
 
   bool mOn;			       ///< flag to indicate that transceiver is powered on
   ChannelCombination mChanType[8];     ///< channel types for all timeslots
@@ -153,13 +153,13 @@
   /** Transceiver constructor 
       @param wBasePort base port number of UDP sockets
       @param TRXAddress IP address of the TRX manager, as a string
-      @param wSamplesPerSymbol number of samples per GSM symbol
+      @param wSPS number of samples per GSM symbol
       @param wTransmitLatency initial setting of transmit latency
       @param radioInterface associated radioInterface object
   */
   Transceiver(int wBasePort,
 	      const char *TRXAddress,
-	      int wSamplesPerSymbol,
+	      int wSPS,
 	      GSM::Time wTransmitLatency,
 	      RadioInterface *wRadioInterface);
    
diff --git a/Transceiver52M/radioInterface.cpp b/Transceiver52M/radioInterface.cpp
index 93d2ff3..e3fa2a4 100644
--- a/Transceiver52M/radioInterface.cpp
+++ b/Transceiver52M/radioInterface.cpp
@@ -55,7 +55,7 @@
 			       GSM::Time wStartTime)
   : underrun(false), sendCursor(0), rcvCursor(0), mOn(false),
     mRadio(wRadio), receiveOffset(wReceiveOffset),
-    samplesPerSymbol(wSPS), powerScaling(1.0),
+    sps(wSPS), powerScaling(1.0),
     loadTest(false)
 {
   mClock.set(wStartTime);
@@ -150,8 +150,8 @@
   mRadio->updateAlignment(writeTimestamp-10000); 
   mRadio->updateAlignment(writeTimestamp-10000);
 
-  sendBuffer = new float[2*2*INCHUNK*samplesPerSymbol];
-  rcvBuffer = new float[2*2*OUTCHUNK*samplesPerSymbol];
+  sendBuffer = new float[2*2*INCHUNK*sps];
+  rcvBuffer = new float[2*2*OUTCHUNK*sps];
  
   mOn = true;
 
@@ -202,8 +202,8 @@
   // while there's enough data in receive buffer, form received 
   //    GSM bursts and pass up to Transceiver
   // Using the 157-156-156-156 symbols per timeslot format.
-  while (rcvSz > (symbolsPerSlot + (tN % 4 == 0))*samplesPerSymbol) {
-    signalVector rxVector((symbolsPerSlot + (tN % 4 == 0))*samplesPerSymbol);
+  while (rcvSz > (symbolsPerSlot + (tN % 4 == 0)) * sps) {
+    signalVector rxVector((symbolsPerSlot + (tN % 4 == 0)) * sps);
     unRadioifyVector(rcvBuffer+readSz*2,rxVector);
     GSM::Time tmpTime = rcvClock;
     if (rcvClock.FN() >= 0) {
@@ -223,8 +223,8 @@
     rcvClock.incTN();
     //if (mReceiveFIFO.size() >= 16) mReceiveFIFO.wait(8);
     //LOG(DEBUG) << "receiveFIFO: wrote radio vector at time: " << mClock.get() << ", new size: " << mReceiveFIFO.size() ;
-    readSz += (symbolsPerSlot+(tN % 4 == 0))*samplesPerSymbol;
-    rcvSz -= (symbolsPerSlot+(tN % 4 == 0))*samplesPerSymbol;
+    readSz += (symbolsPerSlot+(tN % 4 == 0)) * sps;
+    rcvSz -= (symbolsPerSlot+(tN % 4 == 0)) * sps;
 
     tN = rcvClock.TN();
   }
diff --git a/Transceiver52M/radioInterface.h b/Transceiver52M/radioInterface.h
index 94d8917..a64702b 100644
--- a/Transceiver52M/radioInterface.h
+++ b/Transceiver52M/radioInterface.h
@@ -52,7 +52,7 @@
 
   RadioClock mClock;                          ///< the basestation clock!
 
-  int samplesPerSymbol;			      ///< samples per GSM symbol
+  int sps;                                    ///< samples per GSM symbol
   int receiveOffset;                          ///< offset b/w transmit and receive GSM timestamps, in timeslots
 
   bool mOn;				      ///< indicates radio is on
@@ -94,10 +94,6 @@
   /** destructor */
   ~RadioInterface();
 
-  void setSamplesPerSymbol(int wSamplesPerSymbol) {if (!mOn) samplesPerSymbol = wSamplesPerSymbol;}
-
-  int getSamplesPerSymbol() { return samplesPerSymbol;}
-
   /** check for underrun, resets underrun value */
   bool isUnderrun();
   
diff --git a/Transceiver52M/sigProcLib.cpp b/Transceiver52M/sigProcLib.cpp
index cf72cae..b7f3511 100644
--- a/Transceiver52M/sigProcLib.cpp
+++ b/Transceiver52M/sigProcLib.cpp
@@ -216,22 +216,24 @@
   }
 }
 
-void initGMSKRotationTables(int samplesPerSymbol) {
-  GMSKRotation = new signalVector(157*samplesPerSymbol);
-  GMSKReverseRotation = new signalVector(157*samplesPerSymbol);
+void initGMSKRotationTables(int sps)
+{
+  GMSKRotation = new signalVector(157 * sps);
+  GMSKReverseRotation = new signalVector(157 * sps);
   signalVector::iterator rotPtr = GMSKRotation->begin();
   signalVector::iterator revPtr = GMSKReverseRotation->begin();
   float phase = 0.0;
   while (rotPtr != GMSKRotation->end()) {
     *rotPtr++ = expjLookup(phase);
     *revPtr++ = expjLookup(-phase);
-    phase += M_PI_F/2.0F/(float) samplesPerSymbol;
+    phase += M_PI_F / 2.0F / (float) sps;
   }
 }
 
-void sigProcLibSetup(int samplesPerSymbol) {
+void sigProcLibSetup(int sps)
+{
   initTrigTables();
-  initGMSKRotationTables(samplesPerSymbol);
+  initGMSKRotationTables(sps);
 }
 
 void GMSKRotate(signalVector &x) {
@@ -437,20 +439,19 @@
 }
 
 
-signalVector* generateGSMPulse(int symbolLength,
-			       int samplesPerSymbol)
+signalVector* generateGSMPulse(int sps, int symbolLength)
 {
 
-  int numSamples = samplesPerSymbol*symbolLength + 1;
+  int numSamples = sps * symbolLength + 1;
   signalVector *x = new signalVector(numSamples);
   signalVector::iterator xP = x->begin();
   int centerPoint = (numSamples-1)/2;
   for (int i = 0; i < numSamples; i++) {
-    float arg = (float) (i-centerPoint)/(float) samplesPerSymbol;
+    float arg = (float) (i - centerPoint) / (float) sps;
     *xP++ = 0.96*exp(-1.1380*arg*arg-0.527*arg*arg*arg*arg); // GSM pulse approx.
   }
 
-  float avgAbsval = sqrtf(vectorNorm2(*x)/samplesPerSymbol);
+  float avgAbsval = sqrtf(vectorNorm2(*x) / sps);
   xP = x->begin();
   for (int i = 0; i < numSamples; i++) 
     *xP++ /= avgAbsval;
@@ -566,12 +567,12 @@
 signalVector *modulateBurst(const BitVector &wBurst,
 			    const signalVector &gsmPulse,
 			    int guardPeriodLength,
-			    int samplesPerSymbol)
+			    int sps)
 {
 
   //static complex staticBurst[157];
 
-  int burstSize = samplesPerSymbol*(wBurst.size()+guardPeriodLength);
+  int burstSize = sps * (wBurst.size() + guardPeriodLength);
   //signalVector modBurst((complex *) staticBurst,0,burstSize);
   signalVector modBurst(burstSize);// = new signalVector(burstSize);
   modBurst.isRealOnly(true);
@@ -584,7 +585,7 @@
   *modBurstItr = 2.0*(wBurst[0] & 0x01)-1.0;
   signalVector::iterator prevVal = modBurstItr;
   for (unsigned int i = 1; i < wBurst.size(); i++) {
-    modBurstItr += samplesPerSymbol;
+    modBurstItr += sps;
     if (wBurst[i] & 0x01) 
       *modBurstItr = *prevVal * complex(0.0,1.0);
     else
@@ -595,7 +596,7 @@
   // if wBurst are the raw bits
   for (unsigned int i = 0; i < wBurst.size(); i++) {
     *modBurstItr = 2.0*(wBurst[i] & 0x01)-1.0;
-    modBurstItr += samplesPerSymbol;
+    modBurstItr += sps;
   }
 
   // shift up pi/2
@@ -837,7 +838,7 @@
 }
 
 bool generateMidamble(signalVector &gsmPulse,
-		      int samplesPerSymbol,
+		      int sps,
 		      int TSC)
 {
 
@@ -856,11 +857,11 @@
   signalVector *middleMidamble = modulateBurst(gTrainingSequence[TSC].segment(5,16),
 					 emptyPulse,
 					 0,
-					 samplesPerSymbol);
+					 sps);
   signalVector *midamble = modulateBurst(gTrainingSequence[TSC],
                                          gsmPulse,
                                          0,
-                                         samplesPerSymbol);
+                                         sps);
   
   if (midamble == NULL) return false;
   if (middleMidamble == NULL) return false;
@@ -886,7 +887,7 @@
 
   LOG(DEBUG) << "TOA: " << gMidambles[TSC]->TOA;
 
-  //gMidambles[TSC]->TOA -= 5*samplesPerSymbol;
+  //gMidambles[TSC]->TOA -= 5*sps;
 
   delete autocorr;
   delete midamble;
@@ -895,7 +896,7 @@
 }
 
 bool generateRACHSequence(signalVector &gsmPulse,
-			  int samplesPerSymbol)
+			  int sps)
 {
   
   if (gRACHSequence) {
@@ -906,7 +907,7 @@
   signalVector *RACHSeq = modulateBurst(gRACHSynchSequence,
 					gsmPulse,
 					0,
-					samplesPerSymbol);
+					sps);
 
   assert(RACHSeq);
 
@@ -928,7 +929,7 @@
 				
 bool detectRACHBurst(signalVector &rxBurst,
 		     float detectThreshold,
-		     int samplesPerSymbol,
+		     int sps,
 		     complex *amplitude,
 		     float* TOA)
 {
@@ -954,7 +955,7 @@
   LOG(DEBUG) << "RACH corr: " << correlatedRACH;
 
   float numSamples = 0.0;
-  for (int i = 57*samplesPerSymbol; i <= 107*samplesPerSymbol;i++) {
+  for (int i = 57 * sps; i <= 107 * sps; i++) {
     if (peakPtr+i >= correlatedRACH.end())
       break;
     valleyPower += (peakPtr+i)->norm2();
@@ -972,7 +973,7 @@
   LOG(DEBUG) << "RACH peakAmpl=" << peakAmpl << " RMS=" << RMS << " peakToMean=" << peakToMean;
   *amplitude = peakAmpl/(gRACHSequence->gain);
 
-  *TOA = (*TOA) - gRACHSequence->TOA - 8*samplesPerSymbol;
+  *TOA = (*TOA) - gRACHSequence->TOA - 8 * sps;
 
   LOG(DEBUG) << "RACH thresh: " << peakToMean;
 
@@ -1002,7 +1003,7 @@
 bool analyzeTrafficBurst(signalVector &rxBurst,
 			 unsigned TSC,
 			 float detectThreshold,
-			 int samplesPerSymbol,
+			 int sps,
 			 complex *amplitude,
 			 float *TOA,
 			 unsigned maxTOA,
@@ -1016,12 +1017,12 @@
   assert(TOA);
   assert(gMidambles[TSC]);
 
-  if (maxTOA < 3*samplesPerSymbol) maxTOA = 3*samplesPerSymbol;
+  if (maxTOA < 3*sps) maxTOA = 3*sps;
   unsigned spanTOA = maxTOA;
-  if (spanTOA < 5*samplesPerSymbol) spanTOA = 5*samplesPerSymbol;
+  if (spanTOA < 5*sps) spanTOA = 5*sps;
 
-  unsigned startIx = 66*samplesPerSymbol-spanTOA;
-  unsigned endIx = (66+16)*samplesPerSymbol+spanTOA;
+  unsigned startIx = 66*sps-spanTOA;
+  unsigned endIx = (66+16)*sps+spanTOA;
   unsigned windowLen = endIx - startIx;
   unsigned corrLen = 2*maxTOA+1;
 
@@ -1048,7 +1049,7 @@
   }
 
   int numRms = 0;
-  for (int i = 2*samplesPerSymbol; i <= 5*samplesPerSymbol;i++) {
+  for (int i = 2*sps; i <= 5*sps;i++) {
     if (peakPtr - i >= correlatedBurst.begin()) { 
       valleyPower += (peakPtr-i)->norm2();
       numRms++;
@@ -1081,30 +1082,36 @@
   LOG(DEBUG) << "autocorr: " << correlatedBurst;
   
   if (requestChannel && (peakToMean > detectThreshold)) {
-    float TOAoffset = maxTOA; //gMidambles[TSC]->TOA+(66*samplesPerSymbol-startIx);
+    float TOAoffset = maxTOA;
     delayVector(correlatedBurst,-(*TOA));
     // midamble only allows estimation of a 6-tap channel
-    signalVector channelVector(6*samplesPerSymbol);
+    signalVector chanVector(6 * sps);
     float maxEnergy = -1.0;
     int maxI = -1;
     for (int i = 0; i < 7; i++) {
-      if (TOAoffset+(i-5)*samplesPerSymbol + channelVector.size() > correlatedBurst.size()) continue;
-      if (TOAoffset+(i-5)*samplesPerSymbol < 0) continue;
-      correlatedBurst.segmentCopyTo(channelVector,(int) floor(TOAoffset+(i-5)*samplesPerSymbol),channelVector.size());
-      float energy = vectorNorm2(channelVector);
+      if (TOAoffset + (i-5) * sps + chanVector.size() > correlatedBurst.size())
+        continue;
+      if (TOAoffset + (i-5) * sps < 0)
+        continue;
+      correlatedBurst.segmentCopyTo(chanVector,
+                                    (int) floor(TOAoffset + (i - 5) * sps),
+                                    chanVector.size());
+      float energy = vectorNorm2(chanVector);
       if (energy > 0.95*maxEnergy) {
 	maxI = i;
 	maxEnergy = energy;
       }
     }
 	
-    *channelResponse = new signalVector(channelVector.size());
-    correlatedBurst.segmentCopyTo(**channelResponse,(int) floor(TOAoffset+(maxI-5)*samplesPerSymbol),(*channelResponse)->size());
-    scaleVector(**channelResponse,complex(1.0,0.0)/gMidambles[TSC]->gain);
+    *channelResponse = new signalVector(chanVector.size());
+    correlatedBurst.segmentCopyTo(**channelResponse,
+                                  (int) floor(TOAoffset + (maxI - 5) * sps),
+                                  (*channelResponse)->size());
+    scaleVector(**channelResponse, complex(1.0, 0.0) / gMidambles[TSC]->gain);
     LOG(DEBUG) << "channelResponse: " << **channelResponse;
     
     if (channelResponseOffset) 
-      *channelResponseOffset = 5*samplesPerSymbol-maxI;
+      *channelResponseOffset = 5 * sps - maxI;
       
   }
 
@@ -1131,7 +1138,7 @@
 
 SoftVector *demodulateBurst(signalVector &rxBurst,
 			 const signalVector &gsmPulse,
-			 int samplesPerSymbol,
+			 int sps,
 			 complex channel,
 			 float TOA) 
 
@@ -1146,8 +1153,8 @@
   GMSKReverseRotate(*shapedBurst);
 
   // run through slicer
-  if (samplesPerSymbol > 1) {
-     signalVector *decShapedBurst = decimateVector(*shapedBurst,samplesPerSymbol);
+  if (sps > 1) {
+     signalVector *decShapedBurst = decimateVector(*shapedBurst, sps);
      shapedBurst = decShapedBurst;
   }
 
@@ -1162,7 +1169,8 @@
   for (; shapedItr < shapedBurst->end(); shapedItr++) 
     *burstItr++ = shapedItr->real();
 
-  if (samplesPerSymbol > 1) delete shapedBurst;
+  if (sps > 1)
+    delete shapedBurst;
 
   return burstBits;
 
@@ -1456,7 +1464,7 @@
 // Assumes symbol-rate sampling!!!!
 SoftVector *equalizeBurst(signalVector &rxBurst,
 		       float TOA,
-		       int samplesPerSymbol,
+		       int sps,
 		       signalVector &w, // feedforward filter
 		       signalVector &b) // feedback filter
 {
diff --git a/Transceiver52M/sigProcLib.h b/Transceiver52M/sigProcLib.h
index 8e8c48f..e91644c 100644
--- a/Transceiver52M/sigProcLib.h
+++ b/Transceiver52M/sigProcLib.h
@@ -100,7 +100,7 @@
 float vectorPower(const signalVector &x);
 
 /** Setup the signal processing library */
-void sigProcLibSetup(int samplesPerSymbol);
+void sigProcLibSetup(int sps);
 
 /** Destroy the signal processing library */
 void sigProcLibDestroy(void);
@@ -121,12 +121,11 @@
 
 /** 
 	Generate the GSM pulse. 
-	@param samplesPerSymbol The number of samples per GSM symbol.
+	@param sps The number of samples per GSM symbol.
 	@param symbolLength The size of the pulse.
 	@return The GSM pulse.
 */
-signalVector* generateGSMPulse(int samplesPerSymbol,
-			       int symbolLength);
+signalVector* generateGSMPulse(int sps, int symbolLength);
 
 /** 
         Frequency shift a vector.
@@ -165,7 +164,7 @@
 signalVector *modulateBurst(const BitVector &wBurst,
 			    const signalVector &gsmPulse,
 			    int guardPeriodLength,
-			    int samplesPerSymbol);
+			    int sps);
 
 /** Sinc function */
 float sinc(float x);
@@ -226,21 +225,19 @@
 /**
         Generate a modulated GSM midamble, stored within the library.
         @param gsmPulse The GSM pulse used for modulation.
-        @param samplesPerSymbol The number of samples per GSM symbol.
+        @param sps The number of samples per GSM symbol.
         @param TSC The training sequence [0..7]
         @return Success.
 */
-bool generateMidamble(signalVector &gsmPulse,
-		      int samplesPerSymbol,
-		      int TSC);
+bool generateMidamble(signalVector &gsmPulse, int sps, int tsc);
 /**
         Generate a modulated RACH sequence, stored within the library.
         @param gsmPulse The GSM pulse used for modulation.
-        @param samplesPerSymbol The number of samples per GSM symbol.
+        @param sps The number of samples per GSM symbol.
         @return Success.
 */
 bool generateRACHSequence(signalVector &gsmPulse,
-			  int samplesPerSymbol);
+			  int sps);
 
 /**
         Energy detector, checks to see if received burst energy is above a threshold.
@@ -259,14 +256,14 @@
         RACH correlator/detector.
         @param rxBurst The received GSM burst of interest.
         @param detectThreshold The threshold that the received burst's post-correlator SNR is compared against to determine validity.
-        @param samplesPerSymbol The number of samples per GSM symbol.
+        @param sps The number of samples per GSM symbol.
         @param amplitude The estimated amplitude of received RACH burst.
         @param TOA The estimate time-of-arrival of received RACH burst.
         @return True if burst SNR is larger that the detectThreshold value.
 */
 bool detectRACHBurst(signalVector &rxBurst,
 		     float detectThreshold,
-		     int samplesPerSymbol,
+		     int sps,
 		     complex *amplitude,
 		     float* TOA);
 
@@ -275,7 +272,7 @@
         @param rxBurst The received GSM burst of interest.
  
         @param detectThreshold The threshold that the received burst's post-correlator SNR is compared against to determine validity.
-        @param samplesPerSymbol The number of samples per GSM symbol.
+        @param sps The number of samples per GSM symbol.
         @param amplitude The estimated amplitude of received TSC burst.
         @param TOA The estimate time-of-arrival of received TSC burst.
         @param maxTOA The maximum expected time-of-arrival
@@ -287,7 +284,7 @@
 bool analyzeTrafficBurst(signalVector &rxBurst,
 			 unsigned TSC,
 			 float detectThreshold,
-			 int samplesPerSymbol,
+			 int sps,
 			 complex *amplitude,
 			 float *TOA,
                          unsigned maxTOA,
@@ -308,14 +305,14 @@
         Demodulates a received burst using a soft-slicer.
 	@param rxBurst The burst to be demodulated.
         @param gsmPulse The GSM pulse.
-        @param samplesPerSymbol The number of samples per GSM symbol.
+        @param sps The number of samples per GSM symbol.
         @param channel The amplitude estimate of the received burst.
         @param TOA The time-of-arrival of the received burst.
         @return The demodulated bit sequence.
 */
 SoftVector *demodulateBurst(signalVector &rxBurst,
 			 const signalVector &gsmPulse,
-			 int samplesPerSymbol,
+			 int sps,
 			 complex channel,
 			 float TOA);
 
@@ -372,14 +369,14 @@
 	Equalize/demodulate a received burst via a decision-feedback equalizer.
 	@param rxBurst The received burst to be demodulated.
 	@param TOA The time-of-arrival of the received burst.
-	@param samplesPerSymbol The number of samples per GSM symbol.
+	@param sps The number of samples per GSM symbol.
 	@param w The feed forward filter of the DFE.
 	@param b The feedback filter of the DFE.
 	@return The demodulated bit sequence.
 */
 SoftVector *equalizeBurst(signalVector &rxBurst,
 		       float TOA,
-		       int samplesPerSymbol,
+		       int sps,
 		       signalVector &w, 
 		       signalVector &b);