METEOR: Measurable Energy Map Toward the Estimation of Resampling Rate via a Convolutional Neural Network
Document Type
Article
Publication Date
12-1-2020
Abstract
In recent years, with the improvements in machine learning, image forensics has made considerable progress in detecting editing manipulations. This progress also raises more questions in image forensics research, such as can the parameters applied in a manipulation be estimated. Many parameter estimation works have already been performed. However, most of these works are based on mathematical analyses. In this paper, we attempt to solve a particular parameter estimation problem from a different aspect. Specifically, a new convolutional neural network (CNN) model is proposed to estimate the resampling rate for resampled images regardless of whether the image is upscaled or downscaled. This model features an original layer to generate a measurable energy map toward the estimation of resampling rate (METEOR). The METEOR layer is demonstrated to be an outstanding method that can assist in enhancing the estimation performance of the CNN. Furthermore, the METEOR layer can also increase the robustness of the CNN against JPEG compression, which makes it extremely important in realistic application scenarios. Our work has verified that machine learning, particularly CNNs, with proper optimization can also be refined to adapt to parameter estimation in digital forensics with excellent performance and robustness.
Identifier
85077467952 (Scopus)
Publication Title
IEEE Transactions on Circuits and Systems for Video Technology
External Full Text Location
https://doi.org/10.1109/TCSVT.2019.2963715
e-ISSN
15582205
ISSN
10518215
First Page
4715
Last Page
4727
Issue
12
Volume
30
Grant
JCYJ20170818163403748
Fund Ref
National Natural Science Foundation of China
Recommended Citation
Ding, Feng; Wu, Hanzhou; Zhu, Guopu; and Shi, Yun Qing, "METEOR: Measurable Energy Map Toward the Estimation of Resampling Rate via a Convolutional Neural Network" (2020). Faculty Publications. 4817.
https://digitalcommons.njit.edu/fac_pubs/4817
