Source: Signal Processing, Vol. 89, Issue 6, June 2009, Pages 1129-1143 Author: Piyu Tsai, Yu-Chen Hu, and Hsui-Lien Yeh Speaker: Hon-Hang Chang Date:

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Source: Signal Processing, Vol. 89, Issue 6, June 2009, Pages Author: Piyu Tsai, Yu-Chen Hu, and Hsui-Lien Yeh Speaker: Hon-Hang Chang Date:

Outline Introduction Related Work Proposed Method Experiment Results Conclusions

Introduction Reversible data hiding Original image Stego-image Secret data Original image Extract Embed

Related work The histogram-based reversible data hiding original image stego image Peak value: 6 Zero value: 4 b= 1, no change b=0, close to zero pixel at 1 Peak value (Embeddable) In the range from zero value to peak value Close to zero value at 1 Out of the range from zero value to peak value No change b=101100

Proposed method Linear prediction Original image (block size 5 by 5) Basic pixel Residual image Non-negative histogram (NNH) Negative histogram (NH) Peak value: -3 Zero value: -1 Peak value: 1 Zero value: 3

Proposed method(Cont.) Linear prediction Non-negative histogram (NNH) Negative histogram (NH) Peak value= -3 Zero vale= -1 Peak value= 1 Zero vale= Residual image Embed area

Proposed method(Cont.) Embedding Rule: b=1, no change (-3 or 1) b=0, the peak pixel close to zero pixel at 1 (-2 or 2) Embed area Residual image Peak value= -3 Zero vale= -1 Peak value= 1 Zero vale= 3 b = … … Stego-image

Proposed method(Cont.) Extracting Peak value= -3 Zero vale= -1 NH Peak value= 1 Zero vale= 3 NNH Stego-imageResidual stego-image or -3  b=1  no change 2 or -2  b=0  return to the peak pixel (1 or -3) b = … … The pixel x in the range from zeros value and peak value : Close toward the peak value at 1 The pixel x out of the range from zeros value and peak value : no change Original image (block size 5 by 5)

Proposed method  Overlapping scheme Peak value= 1, 0 Zero vale= 3, 4 NNH b= 1, no change b=0, close to zero pixel at 1 Peak value (Embeddable) b= 1close to zero pixel at 1 b=0, close to zero pixel at 2 Overlap value (Embeddable) Close to the zero pixel at 2 Peak value (No embed) Residual image b= Residual image

Experiment results Fig. 1 Testing image ‘‘MRI_400_400’’: (a) original image, (b) original histogram, (c) residual histogram and (d) stego-image.

Experiment results(Cont.) Fig. 1 Testing image ‘‘MRI_400_400’’: (a) original image, (b) original histogram, (c) residual histogram and (d) stego-image. Fig. 2. Relationship between the stego-image quality and the hiding capacities

Conclusions  The proposed method can achieve the goal of higher hiding capacity.  The secret data are embedded in the residual images instead of the image histogram.