VDNABDS, A DNA-Based Cryptographic Protocol for Enhancing Cloud Security
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View abstract on PubMed
Summary
This summary is machine-generated.Variational DNA-Based Data Security (VDNABDS) offers a novel approach to cloud encryption, using DNA-like sequences for rapid, secure data protection. This bio-inspired method significantly enhances speed and security against modern cyber threats.
Area Of Science
- Computer Science
- Cryptography
- Bio-inspired Computing
Background
- Cloud storage systems face challenges balancing data security and operational performance.
- Traditional encryption methods often create a trade-off between strong security and processing speed.
- Existing solutions may be vulnerable to sophisticated cyber threats and quantum computing.
Purpose Of The Study
- To develop a next-generation encryption system for cloud storage that overcomes the security-performance dilemma.
- To introduce a novel bio-inspired encryption method utilizing DNA structural principles.
- To enhance data protection against evolving cyber threats, including brute-force and quantum attacks.
Main Methods
- Developed Variational DNA-Based Data Security (VDNABDS), a system inspired by DNA's biological structure.
- Converted user data into DNA-like sequences (A, T, C, G) and applied shuffling/transformation techniques.
- Implemented dynamic key generation blended with bio-inspired patterns for encryption.
Main Results
- VDNABDS generated secure keys in 5 ms (15x faster than CSDES) and completed encryption in 4 s under high load.
- The system offers 1 x 10^38 unique key combinations, rendering brute-force and quantum attacks infeasible.
- Real-world experiments demonstrated superior speed and reliability compared to traditional encryption models.
Conclusions
- VDNABDS provides a robust, scalable, and hardware-independent solution for secure cloud data storage.
- The adaptive design offers resilience against intrusion and maintains strong privacy safeguards.
- This bio-inspired encryption model is suitable for sensitive data industries and future expansion to mobile and IoT devices.
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