CSE 408 Multimedia Information SystemsPhase #2(Due November 1 2015, midnight)Description: In this project, you will experiment with video data experiment with lossy and lossless encoding techniquesTasks:The input to the project will be a video file and a 10 pixel by 10 pixel region. You will operate only on the Y channel.Task I (Temporal Predictive coding): Implement a program which treats the video region as 100 separate signals(one for each pixel) and includes the following predictive coding (PC) schemes (that will be applied separately oneach signal): PC Option 1: No PC (use original values). PC Option 2: Predictive encoding with the predictor si[t] = si[t 1]. PC Option 3: Predictive encoding with the predictor si[t] = si[t1]+si[t2]2 . PC Option 4: Predictive encoding with the predictor si[t] = 1 si[t 1] + 2 si[t 2], where 1 and 2are two non-negative values such that 1 + 2 = 1.0 and1 si[t 2] + 2 si[t 3] = si[t 1]1 si[t 3] + 2 si[t 4] = si[t 2]In case there are not sufficient observations to compute 1 and 2, use 1 = 2 = 0.5 as default.The program should output its result into a text file named asX Y.tpcwhere X is the name of the video file and y is the option number. The program should output the total (absolute)prediction error.Task II (Spatial Predictive coding): Implement a program which treats the video as numframes separate2D signals (one for each frame) and includes the following predictive coding (PC) schemes (that will be appliedseparately on each 2D signal): PC Option 1: No PC (use original values). PC Option 2: Predictive encoding with the predictor A. PC Option 3: Predictive encoding with the predictor B. PC Option 4: Predictive encoding with the predictor C. PC Option 5: Predictive encoding with the predictor aA+bB+cC, where 1, 2, and 3 are threenon-negative values such that 1 + 2 + 3 = 1.0 and would correspond to zero-error predictions for the mostrecent three past predictions.In case there are not sufficient observations to compute 1, 2, and 3 use 1 = 2 = 3 = 13 as default.The program should output its result into a text file named asX Y.spcwhere X is the name of the video file and y is the option number. The program should also output the total (absolute)prediction error.Task III: You will implement the following error quantization schemes (that will be applied after temporal or spatialpredictive coding): Error Quantization Option 1: No quantization. Error Quantization Option 2: Quantization of the error into 2m uniform bins for a given m 1.The program should output its result into a text file labeled asX Y Z.tpqorX Y Z.spqwhere for option 1, Z = 0 and for option 2, Z = m.Task IV: You will implement the following encoding schemes that generates a bit stream given the output of TaskIII: Encoding Option 1: No compression (non-integer entries should be stored as double), Encoding Option 2: Variable-length encoding with Shannon-Fano coding Encoding Option 3: Dictionary encoding with LZW coding (for a given dictionary bit length) Encoding Option 4: Arithmetic codingThe result should be written into a binary output fileX Y Z C.tpvorX Y Z C.spvwhere C is the compression option. The total amount of distortion (signal-to-noise ratio) between the original videoand the encoded video and the size of the encoded video should also be printed.Task V: Implement also a viewer that reads the given binary file and displays the decoded video.Deliverables: Your code (properly commented) and a README file. A report describing your work and the results on a sample image.Please place your code in a directory titled Code, the outputs to a directory called Outputs, and your report ina directory called Report; zip or tar all off them together and submit it through the Blackboard.
Programming
[Solved] SOLVED:CSE 408 Multimedia Information Systems Phase #2
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