Encryption System Using Segmented Key Mediums for Quantum Security
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Solution Overview
Problem
Current encryption algorithms, such as RSA and 2-key triple DES, are vulnerable to quantum computers and have been deprecated by standards like NIST, necessitating a more secure encryption method due to advancements in computing power and decryption technology.
Innovation Solution
An encryption system that utilizes a key medium set with multiple physically associated compounds, where key information is read and used for encryption, and an ID is transmitted along with encrypted information, making it difficult for third parties to identify the correct key information for decryption, thereby enhancing security.
Engineering Contradictions & Design Principles
Engineering Contradiction Analysis
1Reliability
If traditional encryption algorithms (RSA, 2-key triple DES) are used, then current decryption technology can handle them, but security is compromised against quantum computers and future decryption advances
Solution Approach 1:
The encryption key is segmented into multiple key information items distributed across multiple compounds within sets. Each compound holds a portion of the key information, and the complete key is only reconstructed when all compounds in a set are physically associated together. This segmentation prevents quantum computers or future decryption technology from breaking the encryption by analyzing individual key components separately.
Solution Approach 2:
Multiple compounds are nested within sets, with each compound containing key information items. The sets themselves are nested within a key medium set. This nested structure allows the system to hide the complete key information across multiple layers of physical association, making it increasingly difficult for quantum computers to extract and process the key material.
2Ease of operation
If key information is stored in a single location or compound, then decryption is simple, but security is reduced as third parties can more easily identify and access the key
Solution Approach 1:
The key information is segmented across multiple compounds, making it impossible for third parties to identify or access the complete key by targeting a single compound. The segmentation distributes vulnerability across multiple physical locations, requiring an attacker to compromise all compounds in a set simultaneously.
Solution Approach 2:
The physical association between compounds acts as an intermediary mechanism that enables key reconstruction without direct access to individual key information items. The system uses physical proximity or interaction between compounds as a mediator to securely combine key portions only when authorized compounds are brought together, preventing unauthorized key identification.
3Reliability
If multiple key information items are distributed across multiple compounds, then security against key identification is improved, but the system complexity increases
Solution Approach 1:
While segmentation increases the number of components, it organizes key information into structured sets with defined relationships between compounds. This structured segmentation provides security through physical association rules rather than through complex cryptographic protocols, actually simplifying the overall system architecture despite the increased number of physical elements.
Solution Approach 2:
The compounds and sets serve multiple functions: they store key information, provide physical security through distributed storage, enable key reconstruction through physical association, and facilitate secure key distribution. This multi-functionality reduces the need for separate security mechanisms, offsetting the apparent complexity with functional consolidation.
Data Source
AI summary
An encryption method includes an operation method of an encryption system and is a method of encrypting encryption target information.