一种将量子密钥分配技术集成到标准安全通信应用中的方法

Y. Tanizawa, R. Takahashi, H. Sato, A. Dixon
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引用次数: 6

摘要

量子密钥分发(QKD)技术根据物理定律在两个独立的站点之间提供无条件的安全加密密钥共享。使用共享密钥,应用程序能够以理论上信息安全的方式相互通信。我们提出了一种提供安全通信的方法,该方法根据QKD存储的当前密钥数量自动选择基于QKD的安全性和基于标准密码学的安全性。该方法提供了基于qkd的安全通信功能。然而,在存储的QKD密钥不足的情况下,该方法提供了一个标准的基于密码学的安全通信功能,以避免通信延迟。由于该方法具有与OpenSSL兼容的接口,即用于安全通信的事实上的标准加密库,因此可以轻松地将使用OpenSSL库开发的现有安全通信应用程序移植到支持qkd的应用程序。它还可能使QKD技术逐步应用于现有的安全通信应用。定量性能评估显示安全会话建立延迟。虽然结果表明所提出的方法增加了会话建立延迟,但所提出的加密方法选择的延迟开销为7 msec。,这在一些实际应用中是可以接受的。此外,结果还表明,当标准密码使用更大的密钥时,可以减小与标准密码的延迟差异。
本文章由计算机程序翻译,如有差异,请以英文原文为准。
An approach to integrate quantum key distribution technology into standard secure communication applications
Quantum Key Distribution (QKD) technology provides unconditional secure cryptography key sharing between two separate sites based on the laws of physics. With the shared keys, applications are able to communicate with each other in an information theoretically secure manner. We propose a method for providing secure communication that selects between QKD-based security and standard cryptography-based security automatically according to the current amount of QKD keys stored by QKD. The proposed method provides a QKD-based secure communication function. However, in the case of a shortage of QKD keys stored, the method alternatively provides a standard cryptography-based secure communication function to avoid a communication delay. Since the method has an OpenSSL-compatible interface, that is, a de facto standard cryptography library for secure communication, it makes it easy to port existing secure communication applications developed with the OpenSSL library to QKD-ready applications. It could also make it possible to phase QKD technology into existing secure communication applications. The quantitative performance evaluation showed the secure session establishment delay. Although the result reveals that the proposed method increases the session establishment delay, the delay overhead of the proposed cryptography method selection is 7 msec., which is acceptable for some practical applications. In addition, the result also shows that the delay difference from the standard cryptography can be reduced when the standard cryptography uses a larger key.
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