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2021-08-18
Zhao, Huifang, Yang, Fang, Cui, Yuxiang, Yang, Rui, Pan, Dafeng, Zhao, Liang.  2020.  Design of a New Lightweight Stream Cipher VHFO Algorithm. 2020 3rd International Conference on Advanced Electronic Materials, Computers and Software Engineering (AEMCSE). :379—382.
This paper designed the lightweight stream ciphers named VHFO. It used OFB. The key-stream size is 128-bit while the IV is specified to be 128 bits. Our security evaluation shows that VHFO can achieve enough security margin against known attacks. The implementation efficiency of both software and hardware based on VHFO is higher than others in RFID environment.
2020-06-01
Aziz, Nooralhuda waheed, Alsaad, Saad Najim, Hmood, Haider kadhum.  2019.  Implementation of Lightweight Stream Cipher in AODV Routing Protocol for MANET. 2019 First International Conference of Computer and Applied Sciences (CAS). :210—215.

The growing use of MANETs and its vulnerability to attacks due to its fundamental characteristics make secure routing one of the most considerable challenges. In this paper, a new security scheme for mobile ad hoc networks (MANETs) is presented. The proposed scheme used Trivium lightweight stream cipher algorithm in combination with HMAC to secure the routing control packets. This paper compares the performance of the AODV after implementing the security scheme in terms of throughput, delay sum (end-to-end), jitter sum (end-to-end) and packet loss ratio. The proposed scheme shows better performance than original AODV under blackhole attack.

2020-01-20
Thiemann, Benjamin, Feiten, Linus, Raiola, Pascal, Becker, Bernd, Sauer, Matthias.  2019.  On Integrating Lightweight Encryption in Reconfigurable Scan Networks. 2019 IEEE European Test Symposium (ETS). :1–6.

Reconfigurable Scan Networks (RSNs) are a powerful tool for testing and maintenance of embedded systems, since they allow for flexible access to on-chip instrumentation such as built-in self-test and debug modules. RSNs, however, can be also exploited by malicious users as a side-channel in order to gain information about sensitive data or intellectual property and to recover secret keys. Hence, implementing appropriate counter-measures to secure the access to and data integrity of embedded instrumentation is of high importance. In this paper we present a novel hardware and software combined approach to ensure data privacy in IEEE Std 1687 (IJTAG) RSNs. To do so, both a secure IJTAG compliant plug-and-play instrument wrapper and a versatile software toolchain are introduced. The wrapper demonstrates the necessary architectural adaptations required when using a lightweight stream cipher, whereas the software toolchain provides a seamless integration of the testing workflow with stream cipher. The applicability of the method is demonstrated by an FPGA-based implementation. We report on the performance of the developed instrument wrapper, which is empirically shown to have only a small impact on the workflow in terms of hardware overhead, operational costs and test time overhead.