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stepplot.sci
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function stepplot(varargin)
[lhs,rhs]=argn(0)
s=%s
x = poly(0,'x')
finalTimeFlag = %t
if rhs == 0 | (rhs == 1 & typeof(varargin($)) <> ['state-space', 'rational'] | (rhs == 1 & size(varargin($)) == [0 0])) then
error(msprintf(gettext("%s: Wrong type for input argument \n#%d: State-space or transfer function of linear system expected.\n"),"stepplot",1))
end
if typeof(varargin(1)) <> ['state-space','rational'] then
error(msprintf(gettext("%s: Wrong type for first input argument\n#%d: State-space or transfer function expected.\n"),"stepplot",1))
end
//finding the tfinal or vector of time
totalTime = 0:0.1:1000-0.1;
if rhs > 1 then
if typeof(varargin($)) == 'constant' then
if size(varargin($)) == [1 1] then
if varargin($) <= 0 then
error(msprintf(gettext("%s: The final time value must be a positive real number.\n"),"stepplot"))
end
tFinal = varargin($)
totalTime =0:0.01:tFinal;
elseif isequal(size(varargin($)),[1 1]) == %f then
// finding that the time vector has positive time value
tempTimeIndex = find(varargin($) >= 0)
if isequal(size(varargin($)),size(tempTimeIndex)) == %t then
totalTime = varargin($)
else
tempTime = varargin($)
tempTime = tempTime(tempTimeIndex(1):tempTimeIndex($))
totalTime = tempTime
end
end
end
end
//disp(totalTime)
if rhs >= 1 then
if typeof(varargin($)) == 'constant' then
vararginIndex = rhs-1
else
vararginIndex = rhs
end
end
dataIndexNumber = 1
colorIndexNumber = 1
colorIndex = []
currentI = 1
previousI = 0
for ii = 1:vararginIndex
//printf('hi')
if typeof(varargin(ii)) == 'state-space' | typeof(varargin(ii)) == 'rational' then
dataIndex(dataIndexNumber,1) = ii
tempSize = size(varargin(ii))
//disp(tempSize)
if typeof(varargin(ii)) == 'state-space' then
outputSize(dataIndexNumber,1) = tempSize(1,1)
inputSize(dataIndexNumber,1) = tempSize(1,2)
elseif typeof(varargin(ii)) == 'rational' then
if isequal(tempSize,[1 1]) == %f & length(tempSize) == 2 then
//printf('fuck fun')
outputSize(dataIndexNumber,1) = tempSize(1,1)
inputSize(dataIndexNumber,1) = tempSize(1,2)
else
outputSize(dataIndexNumber,1) = 1
inputSize(dataIndexNumber,1) = 1
end
end
if ii+1 == rhs+1 then
tempii = rhs
else
tempii = ii+1
end
if typeof(varargin(tempii)) == 'string' then
currentI = ii+1
if currentI == previousI+1 then
error(msprintf(gettext("%s: Incorrect syntax.\n"),"stepplot"))
end
previousI = currentI
colorIndex(dataIndexNumber,1) = ii+1
else
colorIndex(dataIndexNumber,1) = 0
end
dataIndexNumber = dataIndexNumber + 1
end
end
//disp(outputSize)
//disp(inputSize)
outputSize = max(outputSize)
inputSize = max(inputSize)
//subplotIndex = 100*outputSize+10*inputSize
//disp(subplotIndex)
lastIndex = 0
meanTime = []
if isequal(zeros(length(dataIndex),1),colorIndex) == %f then
//printf('kissme')
[colorIndex newIndex] = gsort(colorIndex,'r')
dataIndex = dataIndex(newIndex(:,1),1)
end
//disp(dataIndex)
//-----------------------------------------------------------------------------------------------------------------
unc = 1//unstable number counter
tfIndex = 1//transfer function Index
// storing the time
for ii = 1:max(size(dataIndex))
if typeof (varargin(dataIndex(ii,1))) == 'state-space' then
tempVarargin = (ss2tf(minss(varargin(dataIndex(ii,1)))))'
else
tempVarargin = varargin(dataIndex(ii,1))
if isequal(size(varargin(dataIndex(ii))),[1 1]) == %f & length(varargin(dataIndex(ii))) >= 4 then
tempVarargin = tempVarargin'
end
end
tempVararginSize = size(tempVarargin)
noe = 1 // number of elements
for jj = 1 : length(tempVararginSize)
noe = noe*tempVararginSize(jj)
end
noeCount(ii,1) = noe
tempVararginNum = tempVarargin.num
tempVararginDen = tempVarargin.den
for kk = 1:noe
denRoots = roots(poly(coeff(tempVararginDen(kk)),'x','coeff'))
denRootsPhase = phasemag(denRoots)
positiveRoots = find(denRootsPhase==0)
tempTF(kk+lastIndex,1) = syslin('c',tempVararginNum(kk)/tempVararginDen(kk))
if size(positiveRoots,'r') ~= 0 then
finalTimeFlag = %f
denRoots = max(denRoots)
//finalTime = min(30*log(10)/denRoots,length(totalTime))
//disp(finalTime)
timeL(unc,1) = 30*log(10)/denRoots
timeU(unc,1) = min(250*log(10)/denRoots,length(totalTime))
unc = unc+1
//disp(timeU)
//tempTF(kk+lastIndex,1) = syslin('c',tempVararginNum(kk)/tempVararginDen(kk))
else
stepData= csim('step',totalTime,tempTF(kk+lastIndex,1))
tempMeanData = mean(stepData)-stepData
tempStepData = stepData
if abs(length(find(tempMeanData>mean(tempMeanData)))-length(find(tempMeanData<mean(tempMeanData)))) < 10 then //critical stable system
if mean(tempStepData) >= 0 then
//printf('locha ye ulfat')
//finding the time period
totalIndex = find(tempStepData>=mean(tempStepData))
tempFirstIndex = totalIndex(1,1)
while(tempStepData(tempFirstIndex)>mean(tempStepData))
tempFirstIndex = tempFirstIndex+1
end
timePeriod = 2*(tempFirstIndex-totalIndex(1,1))
//disp(timePeriod)
tempTime = 100*timePeriod+totalIndex(1,1)
tempTime = min(tempTime,length(totalTime)/2)
elseif mean(tempStepData) < 0 then
//printf('ho gaya')
//finding the time period
totalIndex = find(tempStepData<mean(tempStepData))
tempFirstIndex = totalIndex(1,1)
while(tempStepData(tempFirstIndex)<mean(tempStepData))
tempFirstIndex = tempFirstIndex+1
end
timePeriod = 2*(tempFirstIndex-totalIndex(1,1))
tempTime = 100*timePeriod+totalIndex(1,1)
tempTime = min(tempTime,length(totalTime)/2)
end
meanTime(tfIndex,1) = tempTime
elseif isequal(typeof(varargin($)),'constant') == %f then//stable systems
aboveMean = find(tempStepData>mean(tempStepData))
belowMean = find(tempStepData<mean(tempStepData))
findLength = min(length(aboveMean),length(belowMean))
if findLength == length(aboveMean) then
tempIndex = belowMean
elseif findLength == length(belowMean) then
tempIndex = aboveMean
end
tempCount = 0
for jj = findLength+1:length(tempIndex)-5
tempCount = 0
for kk = 1:5
if tempIndex(1,jj+kk) == tempIndex(1,jj)+kk then
tempCount = tempCount+1
end
end
if tempCount == 5 then
meanTime(tfIndex,1) = jj
break
end
end
end
//tempStepData(tfIndex,1)=stepData
//disp(tfIndex)
tfIndex = tfIndex+1
end
//stepData(kk+lastIndex,:)= csim('step',totalTime,tempTF(kk+lastIndex,1))
end
lastIndex = lastIndex+noe
end
//-----------------------------------------------------------------------------------------------------------------
/////////////////////////////////////////////////////////////////////////////////////////////////////////////////////
//disp(lastIndex)
//setting the final time
if size(meanTime,'r') ~= 0 then//lastIndex <> 1 & isequal(typeof(varargin($)),'constant') == %f then
meanTimeIndex = max(meanTime)//giving the index
meanTime = totalTime(meanTimeIndex)
//disp(meanTime)
end
if finalTimeFlag == %f then
timeL = min(timeL)
timeU = min(timeU)
// printf('enter the zone ')
if lastIndex == 1 then
// printf('\nlol')
// disp(timeL)
tFinal = timeL
elseif lastIndex <> 1 & (timeU < meanTime | timeU > meanTime & timeL < meanTime | timeL > meanTime) then
tFinal = timeU
end
//setting the final time
if timeU < 10 then
timeStep = timeU/1000
tempTime = 0:timeStep:timeU
elseif tFinal > totalTime($)
tempTime = 0:tFinal
else
//disp(tFinal)
tempTimeIndex = find(totalTime<=tFinal)
tempTime = totalTime(tempTimeIndex)
end
else
tempTime = totalTime(1:meanTimeIndex)
// disp(tempTime($))
end
//disp((tempTime($)))
//disp(lastIndex)
//////////////////////////////////////////////////////////////////////////////////////////////////////////////////////
// if end time or time data is give.
if isequal(typeof(varargin($)),'constant') == %t then
if finalTimeFlag == %f then
if totalTime($) > tFinal then
tempTimeIndex = find(totalTime<tFinal)
tempTime = totalTime(tempTimeIndex)
end
end
else
//tempTime = totalTime
end
// disp(size(tempTime))
// disp(lastIndex)
///////////////////////////////////////////////////////////////////////////////////////////////////////////////////////
stepData = []
// collecting the step Data
for ii = 1 : lastIndex
stepData(ii,:) = csim('step',tempTime,tempTF(ii,1))
end
stepDataIndex = 1
colorDataIndex = 1
for ii = 1:length(dataIndex)
if typeof(varargin(dataIndex(ii))) == 'state-space' then
//printf('\nhi')
ssTempSize = size(varargin(dataIndex(ii)))
outputIndex = ssTempSize(1,1)
inputIndex = ssTempSize(1,2)
countIndex = inputIndex
tempSubplotIndex = 0
colorDataIndex = colorDataIndex + 1
for jj = 1 : inputIndex
for kk = 1 : outputIndex
if inputIndex < inputSize then
if tempSubplotIndex < countIndex then
tempSubplotIndex = tempSubplotIndex + 1
else
countIndex = countIndex+inputSize
tempSubplotIndex = tempSubplotIndex + inputSize - inputIndex+1
end
else
tempSubplotIndex = tempSubplotIndex+1
end
if colorIndex(ii,1) == 0 then
subplot(outputSize,inputSize,tempSubplotIndex);plot(tempTime,stepData(stepDataIndex,:))
last_line = gce()
last_line.children.foreground = colorDataIndex
xgrid()
else
selectColor = varargin(colorIndex(ii,1))
subplot(outputSize,inputSize,tempSubplotIndex);plot(tempTime,stepData(stepDataIndex,:),selectColor)
end
stepDataIndex = stepDataIndex + 1
end
end
///////////////////////////////////////////////////////////////////////////////////////////////////////////////
elseif typeof(varargin(dataIndex(ii))) == 'rational' then
tempSubplotIndex = 0
if isequal(size(varargin(dataIndex(ii))),[1 1]) == %f & length(varargin(dataIndex(ii))) >= 4 then
tfTempSize = size(varargin(dataIndex(ii)))
outputIndex = tfTempSize(1,1)
inputIndex = tfTempSize(1,2)
countIndex = inputIndex
colorDataIndex = colorDataIndex+1
for jj = 1:inputIndex
for kk = 1 : outputIndex
if inputIndex < inputSize then
if tempSubplotIndex < countIndex
tempSubplotIndex = tempSubplotIndex+1
else
countIndex = countIndex+inputSize
tempSubplotIndex = tempSubplotIndex + inputSize - inputIndex+1
end
else
tempSubplotIndex = tempSubplotIndex + 1
end
if colorIndex(ii,1) == 0 then
subplot(outputSize,inputSize,tempSubplotIndex);plot(tempTime,stepData(stepDataIndex,:))
last_line = gce()
disp(last_line.children.foreground)
disp(last_line.user_data)
//disp(last_line.children)
last_line.children.foreground = colorDataIndex
else
//last_line = gce()
//disp(last_line.children.foreground)
selectColor = varargin(colorIndex(ii,1))
subplot(outputSize,inputSize,tempSubplotIndex);plot(tempTime,stepData(stepDataIndex,:),selectColor)
end
stepDataIndex = stepDataIndex + 1
end
end
else
tempSubplotIndex = tempSubplotIndex + 1
for jj = 1:noeCount(ii,1)
colorDataIndex = colorDataIndex+1
if colorIndex(ii,1) == 0 then
subplot(outputSize,inputSize,tempSubplotIndex);plot(tempTime,stepData(stepDataIndex,:))
last_line = gce()
last_line.children.foreground = colorDataIndex
else
selectColor = varargin(colorIndex(ii,1))
subplot(outputSize,inputSize,tempSubplotIndex);plot(tempTime,stepData(stepDataIndex,:),selectColor)
end
stepDataIndex = stepDataIndex + 1
end
end
end
end
f = gcf()
f.figure_name = "Step Plot"
//f.parent.title = "boom"
//f.info_message = "hi"
//f.title
//f.x_label
//f.y_label
//xtitle("My title","my x axis label", "Volume")
//type(f.title)
//disp(f)
endfunction
//kachara
// if modulo(tempSubplotIndex,outputSize) == 1 & modulo(tempSubplotIndex,inputSize) == 1 then
// xtitle('From: In(1)','','To:Out(1)')
// elseif modulo(tempSubplotIndex,inputSize) == 1 then//tempSubplotIndex <= outputSize then
// tempString = 'To:Out('+string(modulo(tempSubplotIndex,inputSize))+')'
// xtitle('','',tempString)
// elseif modulo(tempSubplotIndex,outputSize) == 1 then
// tempString = 'From:In('+string(modulo(tempSubplotIndex,outputSize))+')'
// xtitle(tempString,'','')
// end
////////////////////////////
// if tempSubplotIndex < countIndex then
// tempSubplotIndex = tempSubplotIndex + 1
// else
// countIndex = countIndex+inputSize
// tempSubplotIndex = tempSubplotIndex + inputSize - inputIndex+1
// end
//else
// tempSubplotIndex = tempSubplotIndex+1
//////////////////////////
// xtitle(string(tempSubplotIndex),'','')
// if modulo(tempSubplotIndex,outputSize) == 1 & modulo(tempSubplotIndex,inputSize) == 1 then
// xtitle('From: In(1)','','To:Out(1)')
// elseif modulo(tempSubplotIndex,inputSize) == 1 then//tempSubplotIndex <= outputSize then
// tempString = 'To:Out('+string(modulo(tempSubplotIndex,inputSize))+')'
// xtitle('','',tempString)
// elseif modulo(tempSubplotIndex,outputSize) == 1 then
// tempString = 'From:In('+string(modulo(tempSubplotIndex,inputSize))+')'
// xtitle(tempString,'','')
// end
// if modulo(tempSubplotIndex,outputSize) == 1 & modulo(tempSubplotIndex,inputSize) == 1 then
// xtitle('From: In(1)','','To:Out(1)')
// elseif tempSubplotIndex <= outputSize then
// tempString = 'To:Out('+string(tempSubplotIndex)+')'
// xtitle('','',tempString)
// end
//xtitle('Step Response','','bye')
///////////////////////////
// figure(1)
// xtitle('Step Response')
//title('my title')//,'position',[0.3 0.8]);
// disp(outputIndex)
// disp(inputIndex)
// disp(outputSize)
// disp(inputSize)
//disp(size(tempStepData))
//disp(tempTF)
//// if isequal(typeof(varargin($)),'constant') == %f then
//// //if finalTimeFlag == %t then
//// for ii = 1:lastIndex
//// tempMeanData = mean(stepData(ii,:))-stepData(ii,:)
//// tempStepData = stepData(ii,:)
//// if abs(length(find(tempMeanData>mean(tempMeanData)))-length(find(tempMeanData<mean(tempMeanData)))) <= 10 then
////// if mean(tempStepData) >= 0 then
////// printf('locha ye ulfat')
////// totalIndex = find(tempStepData>=mean(tempStepData))
////// tempFirstIndex = totalIndex(1,1)
////// while(tempStepData(tempFirstIndex)>mean(tempStepData))
////// tempFirstIndex = tempFirstIndex+1
////// end
////// timePeriod = 2*(tempFirstIndex-totalIndex(1,1))
////// //disp(timePeriod)
////// tempTime = 100*timePeriod+totalIndex(1,1)
////// tempTime = min(tempTime,length(totalTime)/2)
////// elseif mean(tempStepData) < 0 then
////// printf('ho gaya')
////// totalIndex = find(tempStepData<mean(tempStepData))
////// tempFirstIndex = totalIndex(1,1)
////// while(tempStepData(tempFirstIndex)<mean(tempStepData))
////// tempFirstIndex = tempFirstIndex+1
////// end
////// timePeriod = 2*(tempFirstIndex-totalIndex(1,1))
////// tempTime = 100*timePeriod+totalIndex(1,1)
////// tempTime = min(tempTime,length(totalTime)/2)
////// end
////// meanTime(ii,1) = tempTime
////
////
//// else
//// //printf('\nhook up')
////// tempDiff = tempMeanData(1,:)-tempMeanData($)
////// aboveMean = find(tempStepData>mean(tempStepData))
////// belowMean = find(tempStepData<mean(tempStepData))
////// findLength = min(length(aboveMean),length(belowMean))
////// if findLength == length(aboveMean) then
////// tempIndex = belowMean
////// elseif findLength == length(belowMean) then
////// tempIndex = aboveMean
////// end
////// tempCount = 0
////// for jj = findLength+1:length(tempIndex)-5
////// tempCount = 0
////// for kk = 1:5
////// if tempIndex(1,jj+kk) == tempIndex(1,jj)+kk then
////// tempCount = tempCount+1
////// end
//////
////// end
////// if tempCount == 5 then
////// meanTime(ii,1) = jj
////// break
////// end
////// end
//// end
////
//// end
// meanTime = max(meanTime)
// totalTime = totalTime(1:meanTime)
// stepData = stepData(:,1:meanTime)
// //else
// // tempTime = find(totalTime>finalTime)
// // meanTime=tempTime(1)
// //end
//
// end
//disp(meanTime)
//disp(lastIndex)
// disp(size(tempTF))
// disp(tempTF)
// disp(lastIndex)
// //disp(noeCount)
//save('tra1.dat',stepData);
//--------------------------------------------------------------------------
//step data from csim
//for ii = 1:lastIndex
//stepData(ii,:) = csim('step',totalTime,tempTF(ii,1))
//end
//--------------------------------------------------------------------------
//
// if finalTime <=0.01 then
// timeStep = finalTime/10
// totalTime = 0:timeStep:finalTime
//// //tempTime = totalTime
// else
// totalTime = 0:0.01:finalTime
// //meanTime(ii,1) = finalTime
// end
//tempTF(kk+lastIndex,1) = syslin('c',tempVararginNum(kk)/tempVararginDen(kk))
//stepData(kk+lastIndex,:)= csim('step',tempTime,tempTF)
//else
// tempTF = syslin('c',tempVararginNum(kk)/tempVararginDen(kk))
// stepData(kk+lastIndex,:)= csim('step',totalTime,tempTF)
//denPoly = poly(coeff(tempVarargin.den),'s','coeff')
//disp(roots(denPoly))
//denRoots = roots(tempVarargin.den)
//disp(denRoots)
//plot(tempDiff)
//disp(size(tempStepData))
//tempDiffIndex = find(tempDiff>0.00001)
//disp(tempDiffIndex($))
//disp(outputIndex)
//disp(inputIndex)
// printf('hi hook')
// firstIndex = find(tempMeanData>mean(tempMeanData))
// //disp(firstIndex(1,1))
// tempFirstIndex = firstIndex(1,1)
// while(tempMeanData(tempFirstIndex)>mean(tempMeanData))
// tempFirstIndex = tempFirstIndex+1
// end
// disp(firstIndex(1,1))
// disp(tempFirstIndex)
// disp(mean(tempMeanData))
// disp(tempMeanData(tempFirstIndex))
// disp(tempFirstIndex-firstIndex(1,1))
// printf('\n---------------------------')
// firstIndex = find(tempStepData>mean(tempStepData))
// tempFirstIndex = firstIndex(1,1)
// while(tempStepData(tempFirstIndex)>mean(tempStepData))
// tempFirstIndex = tempFirstIndex+1
// end
// disp(firstIndex(1,1))
// disp(tempFirstIndex)
// disp(mean(tempStepData))
// disp(tempStepData(tempFirstIndex))
// disp(tempFirstIndex-firstIndex(1,1))
//disp(length(aboveMean))
//disp(length(belowMean))
//disp(belowMean($))
//disp(mean(tempStepData)-tempStepData($))
// for jj = 1:length(tempStepData)-5
// for kk = 1:5
// if abs(mean(tempStepData)-tempStepData(1,ii+jj)) < 0.01 then
// tempCount = tempCount+1
// end
// end
// tempCount = 0
// end
// disp(jj)
//plot(totalTime,)
//plot(length(find((tempMeanData > mean(tempMeanData)-10^-15) & (tempMeanData < mean(tempMeanData))+10^-15)))
//disp(find(tempMeanData == mean(tempMeanData)))
//disp(mean(stepData(ii,:)))
//disp((max(stepData(ii,:))))
//disp((min(stepData(ii,:))))
//disp(variance(stepData(ii,:)),'c')
//disp(variance(tempMeanData,'r'))
//figure (2)
//plot(totalTime,gsort(tempMeanData))
//[tempDataStore tempDataStoreIndex]= gsort(tempMeanData)
//hifi = find(tempDataStore >= tempDataStore(1,1)-10^-6)
//disp(()))
//disp(hifi)
//disp(tempDataStoreIndex(hifi(:,:)))
//disp(tempDataStore(1,1))
//last_line = gce()
//last_line.children.foreground =ii
//figure (3)
//plot
//disp(mean(tempMeanData))
//disp(isequal((tempMeanData)-mean(tempMeanData),tempMeanData))
//plot(totalTime,(tempMeanData)-mean(tempMeanData))
//last_line = gce()
//last_line.children.foreground =ii
//disp('---------')
//if mean(stepData(ii,:)) >= 0 then
// tempMeanDataIndex = find(tempMeanData <= mean(tempMeanData))
//elseif mean(stepData(ii,:)) < 0 then
// tempMeanDataIndex = find(tempMeanData > mean(tempMeanData))
//end
//tempCount = 0
//for jj = 1:length(tempMeanDataIndex)-5
// for kk = 1:5
// if tempMeanDataIndex(1,jj)+kk == tempMeanDataIndex(1,jj+kk) then
// tempCount = tempCount+1
// end
// end
// if tempCount == 5 then
// meanTime(ii,1) = tempMeanDataIndex(1,jj)
// break
// end
//end
// tempTime = 100*timePeriod+totalIndex(1,1)
// disp(tempTime)
// disp(size(totalTime))
// totalTime = totalTime(1:tempTime)
// stepData = stepData(:,1:tempTime)
//disp(meanTime)
//disp(length(dataIndex))
// disp(dataIndex)
// disp(colorIndex)
// disp(noeCount)
//meanTime = max(meanTime)
//plot(totalTime(1:meanTime)',stepData(:,1:meanTime)')
//plot(totalTime',stepData')
//disp(meanTime)
//disp(avgTime)
//plot(totalTime(1:max(avgTime))',stepData(:,1:max(avgTime))')
// if isequal(typeof(varargin($)),'constant') == %f then
// for ii = 1 : lastIndex
// tempMean = mean(stepData(ii,:))
// disp(tempMean)
// if tempMean >= 0 then
// tempMeanIndex = find(stepData(ii,:)>=tempMean)
// else
// tempMeanIndex = find(stepData(ii,:)<tempMean)
// end
// entryFlag = 0
// for jj = 1:length(tempMeanIndex)-1
//// disp(tempMeanIndex(jj:jj+10))
// if stepData(ii,tempMeanIndex(jj)) == stepData(ii,tempMeanIndex(jj:jj+1))
// if entryFlag == 0 then
// meanTime(ii,1) = tempMeanIndex(jj)
// end
// entryFlag = entryFlag+1
// end
// end
// end
// end
// disp(meanTime)
// disp(length(totalTime))
//for ii = 1:lastIndex
// tempStepData = stepData(ii,:)
//disp(size(tempStepData))
//disp(size(totalTime))
//disp("----")
//plot(totalTime',stepData')
//end
//
//disp(size(stepData))
//disp(dataIndex)
//disp(colorIndex)
// if typeof(varargin($)) == 'constant' then
//
// else
//
// end
//
// y = []
// s = %s
// t = [0:0.01:1000]'
// sys1 = syslin('c',1/(s+1))
// sys2 = syslin('c',1/((s+1)^2))//+2))
// y1 = csim('step',t,sys1)
// y2 = csim('step',t,sys2)
// index1 = find(mean(y1(1:$))<=y1)
// index2 = find(mean(y2(1:$))<=y2)
// finalindex = max(index1(1),index2(1))
// disp(length(y1(1:finalindex)))
// disp(length(y2(1:finalindex)))
// disp(length(t(1:finalindex)))
// plot2d(t(1:finalindex),y1(1:finalindex))// y2(1:finalindex)]) //(1,1))
// plot2d(t(1:finalindex),y2(1:finalindex))//(2,1))
//printf('\n flying kiss')
//disp(last_line.children.foreground)
//disp(dataIndex(ii))
//disp(colorIndex(ii))
//tempSubplotIndex = 1
//disp(size(varargin(dataIndex(ii))))
//disp(length(varargin(dataIndex(ii))))
//printf('\n flying kiss')
//disp(last_line.children.foreground)
//plot(tempMeanData)
//disp(tempMeanData($))
//disp(dataIndex)
// sorting the color