Leveraging the power of quantum computing for breaking RSA encryption

Q2 Engineering
Moolchand Sharma, Vikas Choudhary, R. Bhatia, Sahil Malik, Anshuman Raina, Harshit Khandelwal
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引用次数: 4

Abstract

ABSTRACT Encryption is the process of securing confidential data that bars a third party’s access to the information.RSA encryption utilises the property of complexity classes wherein the problem of prime integer factorization lies inside the Non-Polynomial time (NP-Hard) class, which makes it impervious to classical computers. Since it is so hard to break even for a computer, it becomes important to do encryption for all the secure transactions. Although it lies outside the capabilities of traditional computing, the recent developments in the field of quantum computing can be utilised to break RSA Encryption. The approach involves mapping of qubits used in a quantum machine to a constraint satisfaction problem (CSP) and then using them to check for factors. This consists of the use of a Multiplicative Boolean circuit in which the qubits utilised by the machine replaces the variables. These Qubits are then mapped as per the gates involved, and the factorization problem is thus transformed into a CSP problem, through which, the factors can be easily found. Once known, these factors can be used to calculate the public and private keys effectively breaking the encryption security. We provide a novel approach to highlight the importance of developing Post-Quantum cryptography techniques for providing a secure channel of communication.
利用量子计算的力量来破解RSA加密
加密是保护机密数据的过程,阻止第三方访问信息。RSA加密利用了复杂性类的特性,其中质数整数分解问题位于非多项式时间(NP-Hard)类中,这使得它不受经典计算机的影响。由于计算机很难做到收支平衡,因此对所有安全交易进行加密就变得非常重要。虽然它超出了传统计算的能力,但量子计算领域的最新发展可以用来破解RSA加密。该方法包括将量子机器中使用的量子位映射到约束满足问题(CSP),然后使用它们来检查因素。这包括使用乘法布尔电路,其中机器使用的量子位替换变量。然后将这些量子位根据所涉及的门进行映射,从而将因数分解问题转化为CSP问题,通过CSP问题可以很容易地找到因子。这些因子一旦已知,就可以用来计算公钥和私钥,有效地破坏了加密的安全性。我们提供了一种新颖的方法来强调开发后量子加密技术对于提供安全通信通道的重要性。
本文章由计算机程序翻译,如有差异,请以英文原文为准。
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来源期刊
Cyber-Physical Systems
Cyber-Physical Systems Engineering-Computational Mechanics
CiteScore
3.10
自引率
0.00%
发文量
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