On the Improper Use of CRC for Cryptographic Purposes in RFID Mutual Authentication Protocols

Mutual authentication is essential to guarantee the confidentiality, integrity, and availability of an RFID system. One area of interest is the design of lightweight mutual authentication protocols that meet the limited computational and energy resources of the tags. These protocols use simple operations such as permutation and cyclic redundancy code for cryptographic purposes. However, these functions are cryptographically weak and are easily broken. In this work, we present a case against the use of these functions for cryptographic purposes, due to their simplicity and linear properties, by analyzing the LPCP protocol. We evaluate the claims of the LPCP resistance to de-synchronization and full disclosure attacks and show that the protocol is weak and can be easily broken by eavesdropping on a few mutual authentication sessions. This  weakness stems from the functions themselves as well as the improper use of inputs to these functions. We further offer suggestions that would help in designing more secure protocols

MUMAP: Modified Ultralightweight Mutual Authentication protocol for RFID enabled IoT networks

Flawed authentication protocols led to the need for a secured protocol for radio frequency identification (RFID) techniques. In this paper, an authentication protocol named Modified ultralightweight mutual authentication protocol (MUMAP) has been proposed and cryptanalysed by Juel-Weis challenge. The proposed protocol aimed to reduce memory requirements in the authentication process for low-cost RFID tags with limited resources. Lightweight operations like XOR and Left Rotation, are used to circumvent the flaws made in the other protocols. The proposed protocol has three-phase of authentication. Security analysis of the proposed protocol proves its resistivity against attacks like desynchronization, disclosure, tracking, and replay attack. On the other hand, performance analysis indicates that it is an effective protocol to use in low-cost RFID tags. Juel-Weis challenge verifies the proposed protocol where it shows insusceptibility against modular operations

Enhancing the security of RCIA ultra-lightweight authentication protocol by using Random Number Generator (RNG) technique

This study is an attempt to enhance the security of Robust Confidentiality, Integrity, and Authentication (RCIA) ultra-lightweight authentication protocols.In the RCIA protocol, IDs value is sent between reader and tag as a constant value.This makes RCIA susceptible to traceability attack which lead to the privacy issue. In order to overcome this problem, Random Number Generator (RNG) technique based on Bitwise operations has been used in the tag side.The idea of this technique is to change the IDs of a tag on every query session so that it will not stay as a constant value.The implementation of Enhanced RCIA has been conducted by using a simulation.The simulation provided the ability to show that the operations of RCIA protocol as to compare with the enhanced RCIA.The outcome shows that the enhanced RCIA outperforms existing one in terms of privacy

Enhancing the security of RCIA ultra-lightweight authentication protocol by using random number generator (RNG) technique

With the growing demand for low-cost Radio Frequency Identification (RFID) system, there is a necessity to design RFID ultra-lightweight authentication protocols to be compatible with the system and also resistant against possible attacks. However, the existing ultra-lightweight authentication protocols are susceptible to wide range of attacks. This study is an attempt to enhance the security of Robust Confidentiality, Integrity, and Authentication (RCIA) ultra-lightweight authentication protocols especially with regard to privacy issue. In the RCIA protocol, IDs value is sent between reader and tag as a constant value. The constant value will enable attacker to trace the location of the tag which violates the privacy users. In order to enhance the security of RCIA protocol, Random Number Generator (RNG) technique has been used. This technique relies on generating random numbers in the tag side, based on Bitwise operations. The idea of this technique is to change the IDs of a tag on every query session so that it will not stay as a constant value. The implementation of Enhanced RCIA has been conducted by using a simulation. The simulation provided the ability to show that the operations of RCIA protocol as to compare with the enhanced RCIA. The outcome shows that the enhanced RCIA outperforms existing one in terms of privacy

Passive Secret Disclosure Attack on an Ultralightweight Authentication Protocol for Internet of Things

Recently, Tewari and Gupta have proposed an ultralightweight RFID authentication protocol. In this paper, we consider the security of the proposed protocol and present a passive secret disclosure attack against it. The success probability of the attack is `1\u27 while the complexity of the attack is only eavesdropping one session of the protocol. The presented attack has negligible complexity. We simulated our attack and verified its correctness

Generalized Desynchronization Attack on UMAP: Application to RCIA, KMAP, SLAP and SASI+^+ protocols

Tian et al. proposed a permutation based authentication protocol entitled RAPP. However, it came out very soon that it suffers from several security treats such as desynchronization attack. Following RAPP, several protocols have been proposed in literature to defeat such attacks. Among them, some protocols suggested to keep a record of old parameters by both the reader and the tag. In this paper we present a genrilized version of all such protocols, named GUMAP, and present an efficent desynchronization attack against it. The complexity of our attack is 5 consequences sessions of protocol and the success probability is almost 1. Our attack is applicable as it is to recently proposed protocols entitled RCIA, KMAP, SASI$^{+}$ and SLAP. To the best of our knowledge, it is the first report on the vulnerability of these protocols

Toward designing a secure authentication protocol for IoT environments

Authentication protocol is a critical part of any application to manage the access control in many applications. A former research recently proposed a lightweight authentication scheme to transmit data in an IoT subsystem securely. Although the designers presented the first security analysis of the proposed protocol, that protocol has not been independently analyzed by third-party researchers, to the best of our knowledge. On the other hand, it is generally agreed that no cryptosystem should be used in a practical application unless its security has been verified through security analysis by third parties extensively, which is addressed in this paper. Although it is an efficient protocol by design compared to other related schemes, our security analysis identifies the non-ideal properties of this protocol. More specifically, we show that this protocol does not provide perfect forward secrecy. In addition, we show that it is vulnerable to an insider attacker, and an active insider adversary can successfully recover the shared keys between the protocol’s entities. In addition, such an adversary can impersonate the remote server to the user and vice versa. Next, the adversary can trace the target user using the extracted information. Finally, we redesign the protocol such that the enhanced protocol can withstand all the aforementioned attacks. The overhead of the proposed protocol compared to its predecessor is only 15.5% in terms of computational cost