Our new X account is live! Follow @wizwand_team for updates
WorkDL logo mark

Learning Rich Features for Image Manipulation Detection

About

Image manipulation detection is different from traditional semantic object detection because it pays more attention to tampering artifacts than to image content, which suggests that richer features need to be learned. We propose a two-stream Faster R-CNN network and train it endto- end to detect the tampered regions given a manipulated image. One of the two streams is an RGB stream whose purpose is to extract features from the RGB image input to find tampering artifacts like strong contrast difference, unnatural tampered boundaries, and so on. The other is a noise stream that leverages the noise features extracted from a steganalysis rich model filter layer to discover the noise inconsistency between authentic and tampered regions. We then fuse features from the two streams through a bilinear pooling layer to further incorporate spatial co-occurrence of these two modalities. Experiments on four standard image manipulation datasets demonstrate that our two-stream framework outperforms each individual stream, and also achieves state-of-the-art performance compared to alternative methods with robustness to resizing and compression.

Peng Zhou, Xintong Han, Vlad I. Morariu, Larry S. Davis• 2018

Related benchmarks

TaskDatasetResultRank
Image Manipulation LocalizationNIST16
F1 Score72.2
42
Pixel-level Manipulation DetectionCOVER
F1 Score37.9
34
Pixel-level Manipulation DetectionCASIA v1+
F1 Score40.8
22
Image Manipulation LocalizationCoverage
AUC81.7
16
Pixel-level Manipulation DetectionCASIA v1
F1 Score40.8
14
Image Manipulation LocalizationCOVERAGE (test)--
14
Image Manipulation LocalizationColumbia--
14
Image Manipulation LocalizationCASIA
F1 Score40.8
10
Image Manipulation LocalizationColumbia (test)--
10
Image Manipulation LocalizationNIST 2016 (test)
AUC93.7
8
Showing 10 of 12 rows

Other info

Follow for update