A construction of post quantum secure and signal leakage resistant authenticated key agreement protocol for mobile communication

Kumar, Uddeshaya; Garg, Manish; Kumari, Saru; Dharminder, Dharminder

doi:10.1002/ett.4660

Cited by 7 publications

(4 citation statements)

References 20 publications

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“…Even if the BiGISIS.PAKE has much more arithmetic operations and running time due to the BiP method used for SLA resistance and MSB reconciliation function; it does not require any signal information to obtain the shared key. In Dabra, Bala & Kumari (2020) , Ding, Cheng & Qin, (2022) and Kumar et al (2023) the Ding reconciliation method, defined with Cha() and Mod 2 () functions, was added as a solution of reconciliation problem. In this approach, the idea of sending additional information about the key component was used to generate the shared key.…”

Section: Comparisonmentioning

confidence: 99%

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A new lattice-based password authenticated key exchange scheme with anonymity and reusable key

Seyhan,

Akleylek

2024

PeerJ Computer Science

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In this article, we propose a novel bilateral generalization inhomogenous short integer solution (BiGISIS)-based password-authenticated key exchange (PAKE) scheme for post-quantum era security. The hardness assumption of the constructed PAKE is based on newly proposed hard lattice problem, BiGISIS. The main aim of this article is to provide a solution for the post-quantum secure PAKE scheme, which is one of the open problems in the literature. The proposed PAKE is the first BiGISIS-based PAKE that satisfies anonymity and reusable key features. The bilateral-pasteurization (BiP) approach is used to obtain the reusable key, and anonymity is achieved thanks to the additional identity components and hash functions. The reusable key structure reduces the time in the key generation, and anonymity prevents illegal user login attempts. The security analysis is done by following the real-or-random (RoR) model assumptions. As a result of security examinations, perfect forward secrecy (PFS) and integrity are satisfied, and the resistance against eavesdropping, manipulation-based attack (MBA), hash function simulation, impersonation, signal leakage attack (SLA), man-in-the-middle (MitM), known-key security (KKS), and offline password dictionary attack (PDA) is captured. According to the comparison analysis, the proposed PAKE is the first SLA-resistant lattice-based PAKE with reusable key and anonymity properties.

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Section: Comparisonmentioning

confidence: 99%

“…SLA and MBA resistances were discussed by considering mobile environment communication. In Kumar et al (2023) , an SLA-resistant PAKE scheme was constructed for mobile devices. The security of the proposed PAKE was based on the RLWE problem.…”

Section: Introductionmentioning

confidence: 99%

A new lattice-based password authenticated key exchange scheme with anonymity and reusable key

Seyhan,

Akleylek

2024

PeerJ Computer Science

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“…Figure 2 shows this edge-cloud continuum: deep edge nodes are operating under limited connectivity and low power conditions. Those can be mobile devices supporting fintech applications, autonomous robots in factory environments, or connected cars that operate under similar terms like [18], to name a few examples. However, this does not preclude local processing power for AI processes and establishment of quantum resilient links.…”

Section: Introductionmentioning

confidence: 99%

Falcon/Kyber and Dilithium/Kyber Network Stack on Nvidia’s Data Processing Unit Platform

Lawo,

Frantz,

Aguilera

et al. 2024

IEEE Access

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Commercially available quantum computers are expected to reshape the world in the near future. They are said to break conventional cryptographic security mechanisms that are deeply embedded in our today's communication. Symmetric cryptography, such as AES, will withstand quantum attacks as long as the key sizes are doubled compared to today's key lengths. Asymmetric cryptographic procedures, e.g. RSA, however are broken. It is therefore necessary to change the way we assure our privacy by adopting and moving towards post-quantum cryptography (PQC) principles. In this work, we benchmark three PQC algorithms, Falcon, Dilithium, and Kyber. Moreover, we present an implementation of a PQC stack consisting of the algorithms Dilithium/Kyber and Falcon/Kyber which use hardware accelerators for some key functions and evaluate their performance and resource utilization. Regarding a classic server-client model, the computational load of the Dilithium/Kyber stack is distributed more equally among server and client. The stack Falcon/Kyber biases the computational challenges towards the server, hence relieving the client of performing costly operations. We found that Dilithium's advantage over Falcon is that Dilithium's execution is faster while the workload to be performed is distributed equally among client and server, whereas Falcon's advantage over Dilithium lies within the small signature sizes and the unequally distributed computational tasks. In a client server model with a performance limited client (i.e. Internet-of-Things -IoT -environments) Falcon could proof useful for it constrains the computational hard tasks to the server and leaves a minimal workload to the client. Furthermore, Falcon requires smaller bandwidth, making it a strong candidate for deep-edge or IoT applications.

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“…In 2022, Dharminder et al [5] proposed a post quantum reconciliation enabling key exchange for the Internet of Things environment. In 2023, Kumar et al [19] proposed a quantum-safe key agreement based on a variant of ideal lattice assumption, the ring learning errors. This protocol just requires two messages in exchange for an authenticated key agreement.…”

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confidence: 99%

Anonymous Quantum Safe Construction of Three Party Authentication and Key Agreement Protocol for Mobile Devices

Chaudhary,

Kumar Dadsena,

Padmavathi

et al. 2024

IEEE Access

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Once the shared secret key is established, three parties can use it for secure communication using symmetric-key encryption AES (128, 192, 256) algorithms or other cryptographic primitives. Although there are few third-party post-quantum authentication and key agreement protocols exist, but the recent studies in this article show that they are not anonymous or cannot provide forward secrecy. Most of the existing protocols enable adversaries to trace the source of messages. Many of third-party AKA schemes based on conventional public-key cryptosystems are vulnerable to quantum computers. Therefore, this paper contains a forward secure three-party postquantum authenticated key establishment protocol for mobile devices. The proposed three-party key exchange protocol establishes an authenticated shared key that can be periodically refreshed to maintain forward secrecy. This protocol enables two parties to establish a shared session key even in the presence of quantum adversaries and enables them to communicate condentially and securely over insecure networks. The protocol is anonymous as both the parties communicate using masked dynamic identities. A contrast study consisting of performance and security assessment is presented, which illustrates the suggested design is more applicable.

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A construction of post quantum secure and signal leakage resistant authenticated key agreement protocol for mobile communication

Cited by 7 publications

References 20 publications

A new lattice-based password authenticated key exchange scheme with anonymity and reusable key

A new lattice-based password authenticated key exchange scheme with anonymity and reusable key

Falcon/Kyber and Dilithium/Kyber Network Stack on Nvidia’s Data Processing Unit Platform

Anonymous Quantum Safe Construction of Three Party Authentication and Key Agreement Protocol for Mobile Devices

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