How does emprovement of AES in terms of throuput has been done trough the time?
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The improvement of AES in terms of throughput over time has been achieved through various methods. One approach involves optimizing transformations like SubBytes/InvSubBytes and MixColumn/InvMixColumn to minimize gate count, enhancing performance. Additionally, the use of a dynamic key generation system based on the AES algorithm and time function has been proposed, where the AES key is generated randomly based on the user's login time, strengthening security and encryption processes. Furthermore, the implementation of an enhanced AES file encryption model incorporating a Timing Circuit Algorithm and Feedback Artificial Agent has been shown to secure data during transition and track information effectively, enhancing overall system security. These advancements collectively contribute to enhancing AES throughput and security over time.
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| Papers (5) | Insight |
|---|---|
11 Dec 2009 16 Citations | The AES improvement in throughput was achieved by optimizing transformations, selecting optimal coefficients, and implementing a novel key expansion structure, resulting in 1.16Gbps throughput with only 19476 gates. |
01 May 2017 6 Citations | The AES algorithm's modes of operation (ECB, CBC, CFB, OFB) were evaluated for throughput and cipher time, showing significant differences in throughput but not in encryption time. |
| Not addressed in the paper. | |
Open access 01 Jan 2015 | AES improvement in throughput is achieved by dynamically generating keys based on login time, enhancing security. Each encryption process changes ciphertext, strengthening authentication. Average encryption-decryption time is 0.0023 s. |
| Improvements in AES throughput have been achieved by modifying the algorithm to address computational overhead, fixed S-Box weaknesses, and handling complex multimedia data efficiently over time. |
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