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a4df2fdddb
@ -10,41 +10,20 @@ function output_x = AnuragDampenTarget(x, Fs,LOW, MID, HIGH)
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% Detailed explanation goes here
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TARGET = MID;
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AreaPercentage = 0.15;
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[dim,len] = size(x); %get length of the input
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len = length(x); %get length of the input
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F = Fs * ((-len/2) : ((len/2) - 1)) / len;
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lenf = length(F);
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Mod_Freq = ifft(fft(x)); %Fourier Transform of the input signal
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Mod_Freq = fftshift(fft(x)); %Fourier Transform of the input signal
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output = zeros([1,lenf]); % zero array of size Mod_freq
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if(dim == 2) %check for dual channel audio
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F = [F;F];
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output = [output;output];
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end
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%set the bounds
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lowerBound = (1-AreaPercentage) * TARGET;
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upperBound = (1+AreaPercentage) * TARGET;
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%% Dampen the target frequencies and maintain the others
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if(dim == 2) %iterate through both channels if track is dual channel
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for n = 1:lenf
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if ((lowerBound < abs(F(1,n))) && abs(F(1,n)) < upperBound)
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output(1,n) = 1;
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else
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output(1,n) = 0.5;
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end
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end
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for n = 1:lenf
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if ((lowerBound < abs(F(2,n))) && abs(F(2,n)) < upperBound)
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output(2,n) = 1;
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else
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output(2,n) = .5;
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end
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end
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else %iterate onnly once for monochannel
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for n = 1:lenf
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if ((lowerBound < abs(F(n))) && abs(F(n)) < upperBound)
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output(n) = 1;
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else
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output(n) = .5;
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end
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for n = 1:lenf
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if ((lowerBound < abs(F(n))) && abs(F(n)) < upperBound)
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output(n) = 0.5;
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else
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output(n) = 1;
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end
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end
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%%Filter the original signal and transform
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@ -10,41 +10,21 @@ function output_x = AnuragEnchanceTarget(x, Fs,LOW, MID, HIGH)
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% Detailed explanation goes here
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TARGET = MID;
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AreaPercentage = 0.15;
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[dim,len] = size(x); %get length of the input
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len = length(x); %get length of the input
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F = Fs * ((-len/2) : ((len/2) - 1)) / len;
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lenf = length(F);
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Mod_Freq = ifft(fft(x)); %Fourier Transform of the input signal
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Mod_Freq = fftshift(fft(x)); %Fourier Transform of the input signal
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output = zeros([1,lenf]); % zero array of size Mod_freq
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if(dim == 2) %check for dual channel audio
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F = [F;F];
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output = [output;output];
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end
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%set the bounds
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lowerBound = (1-AreaPercentage) * TARGET;
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upperBound = (1+AreaPercentage) * TARGET;
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%% Amplify the target frequencies and dampen the others
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if(dim == 2) %iterate through both channels if track is dual channel
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for n = 1:lenf
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if ((lowerBound < abs(F(1,n))) && abs(F(1,n)) < upperBound)
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output(1,n) = 2;
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else
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output(1,n) = 0.75;
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end
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end
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for n = 1:lenf
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if ((lowerBound < abs(F(2,n))) && abs(F(2,n)) < upperBound)
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output(2,n) = 2;
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else
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output(2,n) = 0.75;
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end
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end
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else %iterate onnly once for monochannel
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for n = 1:lenf
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if ((lowerBound < abs(F(n))) && abs(F(n)) < upperBound)
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output(n) = 2;
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else
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output(n) = 0.75;
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end
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for n = 1:lenf
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if ((lowerBound < abs(F(n))) && abs(F(n)) < upperBound)
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output(n) = 2;
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else
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output(n) = 0.75;
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end
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end
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%%Filter the original signal and transform
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