Thats a unique idea.You should consider the following idea to enhance your idea so that it would impact uniquely: While traditionally cryptographic algorithms have been designed with the black-box security in mind, they often have to deal with a much stronger adversary - namely, an attacker that has some access to the execution environment of a cryptographic algorithm. This can happen in such grey-box settings as physical side-channel attacks or digital forensics as ll as due to Trojans. ,  aim to address this challenge for symmetric-key cryptography.  study the security of the Advanced Encryption Stan- dard (AES) in the presence of explicit leakage:  let a part of the inter- nal secret state leak in each operation.  consider a wide spectrum of settings - from adversaries with limited control all the way to the more porful attacks with more knowledge of the computational plat- form. To mount key recoveries under leakage,  develop several novel cryptanalytic techniques such as differential bias attacks .M oreover,  demonstrate and quantify the effect of uncertainty and implementation countermeasures under such attacks: black-boxed rounds, space random- ization, time randomization, and dummy operations.  observe that the residual security of AES can be considerable, especially with uncertainty and basic countermeasures in place.
['Andrey Bogdanov', 'Takanori Isobe']
I am writing a research paper on a idea How Secure is AES Under Leakage
[{"from": "human", "value": "I am writing a research paper on a idea How Secure is AES Under Leakage"}, {"from": "gpt", "value": "Thats a unique idea.You should consider the following idea to enhance your idea so that it would impact uniquely: While traditionally cryptographic algorithms have been designed with the black-box security in mind, they often have to deal with a much stronger adversary - namely, an attacker that has some access to the execution environment of a cryptographic algorithm. This can happen in such grey-box settings as physical side-channel attacks or digital forensics as ll as due to Trojans. ,  aim to address this challenge for symmetric-key cryptography.  study the security of the Advanced Encryption Stan- dard (AES) in the presence of explicit leakage:  let a part of the inter- nal secret state leak in each operation.  consider a wide spectrum of settings - from adversaries with limited control all the way to the more porful attacks with more knowledge of the computational plat- form. To mount key recoveries under leakage,  develop several novel cryptanalytic techniques such as differential bias attacks .M oreover,  demonstrate and quantify the effect of uncertainty and implementation countermeasures under such attacks: black-boxed rounds, space random- ization, time randomization, and dummy operations.  observe that the residual security of AES can be considerable, especially with uncertainty and basic countermeasures in place."}]