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Article summary:

1. Cloud computing is popular for storing multimedia information, but the cloud server cannot embed data inside client images without a reversible data hiding approach.

2. Reversible image transformation and reversible data hiding can be used in forensics, military, and medical imagery where the encoded and decoded image should remain the same.

3. Various approaches have been introduced for reversible data hiding in encrypted images, including histogram shifting, prediction-based embedding, and frequency domain transformations like DCT, FFT, and DWT are not applicable because they are mostly lossy.

Article analysis:

The article titled "Automatic Classifier Based Reversible Image Transformation for Reversible Data Hiding in Encrypted Images" discusses the need for reversible data hiding in encrypted images and proposes an approach based on automatic classification. While the article provides some useful information, it has several limitations that need to be addressed.

One of the potential biases in the article is its focus on cloud computing as the primary use case for reversible data hiding. While cloud computing is undoubtedly a significant application area, there are many other scenarios where reversible data hiding can be useful, such as digital forensics, steganography, and watermarking. By limiting the discussion to cloud computing, the article may miss out on other important use cases.

Another limitation of the article is its one-sided reporting of existing approaches to reversible data hiding. The authors only mention a few techniques based on histogram shifting and prediction errors but do not provide a comprehensive overview of all available methods. This omission may lead readers to believe that these two approaches are the only viable options when there are many others worth considering.

The article also makes unsupported claims about the limitations of frequency domain transformations like DCT, FFT, and DWT. The authors state that these transformations are mostly lossy and hence not reversible without providing any evidence to support this claim. In reality, there are many lossless frequency domain transformations that can be used for reversible data hiding.

Moreover, the article does not explore counterarguments or potential risks associated with their proposed approach. For example, it is unclear how well their automatic classifier performs on different types of images or how robust it is against attacks aimed at breaking the encryption or extracting hidden data.

Finally, there is some promotional content in the article that may bias readers towards their proposed approach. For instance, they claim that their method outperforms existing techniques without providing any empirical evidence to support this assertion.

In conclusion, while the article provides some valuable insights into reversible data hiding in encrypted images using automatic classification-based transformation, it has several limitations that need to be addressed before accepting its claims at face value. Readers should critically evaluate its content and consider alternative approaches before making any decisions about which technique to use for their specific application scenario.