TinyIBE: Identity-based encryption for heterogeneous sensor networks

Szczechowiak, Piotr; Collier, Martin

doi:10.1109/issnip.2009.5416743

Cited by 34 publications

(10 citation statements)

References 20 publications

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“…i ≠ H2'(e'(T, C1)) ⊕ C2 (5) Moreover in the opposite way, the adversary is not able to correctly calculate the session key j generated by the legitimate RFID tag, since: j ≠ H2'(e'( , C3)) ⊕ C4 (6) Thus, an adversary is not able to access the information both from the legitimate RFID reader and legitimate RFID tag.…”

Section: Msmentioning

confidence: 99%

Efficient Key Management System for Large-scale Smart RFID Applications

Sadikin¹,

Kyas²

2015

Proceedings of the 1st International Conference on Industrial Networks and Intelligent Systems

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Due to low-cost and its practical solution, the integration of RFID tag to the sensor node called smart RFID has become prominent solution in various fields including industrial applications. Nevertheless, the constrained nature of smart RFID system introduces tremendous security and privacy problem. One of them is the problem in key management system. Indeed, it is not feasible to recall all RFID tags in order to update their security properties (e.g. update their private keys). On the other hand, using common key management solution like standard TLS/SSL is too heavy-weight that can drain and overload the limited resources. Furthermore, most of existing solutions are highly susceptible to various threats reaching from privacy threats, physical attacks to various technics of Man-in-the-Middle attacks. This paper introduces novel key management system, tailored to the limited resources of smart RFID system. It proposes light-weight mutual authentication and identity protection to mitigate the existing threats. Keywords -RFID and Sensor Node Integration; Key Management System; Security and Privacy; Industrial Applications I. INTRODUCTIONThe emerging of smart RFID, which is the integration of sensor node to the active RFID system, has been seen as a prominent solution in various fields including industrial applications. Such pervasive computing technology introduces various advantages ranging from low cost, ease of centralized management, practical and comprehensive solution which covers the combination of tracking and sensor applications, to its flexibility to be deployed in large-scale system. Nevertheless, smart RFID system introduces tremendous security and privacy problems. One of them is the complex problem in large-scale key management system. Indeed, the enforcement of common key management solution like using standard Transport Layer Security (TLS/SSL) requires advanced resources including more memory storage, as well as more communication and computation overhead. Thus, it is infeasible for smart RFID system that associates to limited resources (i.e. limited CPU power, limited memory, limited battery/power, and low bandwidth/data-rate). On the other hand, enforcing manual key management solution by recalling all the RFID tags in order to update the security property (e.g. update the new private key) is infeasible to be applied in largescale and distributed system. Furthermore, most of existing solutions in key management system for wireless communication are highly susceptible to various security and privacy threats. For instance, an adversary may have chance to perform various techniques of Man-in-the-Middle attacks to compromise the key management system. In this case, an adversary may impersonate as legitimate devices in order to trick the legitimate RFID tag and RFID reader to reveal their sensitive information. In this regards, an adversary may reveal the privacy ranging from the location information, data applications, to the most critical information like security properties (e.g. the private key).

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Section: Msmentioning

confidence: 99%

Efficient Key Management System for Large-scale Smart RFID Applications

Sadikin¹,

Kyas²

2015

Proceedings of the 1st International Conference on Industrial Networks and Intelligent Systems

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“…In the context of IBE for WSN, Szczechowiak and Collier [4] proposed TinyIBE using ƞT pairing to disprove the argument that using IBE is too heavy for sensor node. They demonstrated that it is feasible to enforce the ƞT pairing even on at very constrained nodes.…”

Section: Related Workmentioning

confidence: 99%

“… Light-weight cryptographic operation with highlevel security strength: IMAKA-Tate uses 128 bit security strength of ƞT paring. This method is known as the most light-weight cryptographic operation, even it is feasible for the most constrained sensor node [4]. In addition, such security strength is about same as the 3072 bit of RSA method.…”

Section: Security Featuresmentioning

confidence: 99%

Efficient Security and Privacy Protection for Emerging Smart RFID Communications

Sadikin¹,

Kyas²

2014

IJNDC

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Due to its constrained nature, the use of smart RFID technology introduces tremendous security and privacy issues. This paper presents IMAKA-Tate: Identity protection, Mutual Authentication and Key Agreement using Tate pairing of Identity-based Encryption method. It is designed to tackle various challenges in the constrained nature of RFID applications by applying a light-weight cryptographic method with advanced-level 128 bit security protection. Thus, IMAKA-Tate protects the RFID system from various security and privacy threats (e.g. unauthorized tracking, cloning attack, etc.).

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“…The key pre-distribution scheme proposed by Eschenauer and Gligor [9], Du et.al [10,11], and TinyIBE [12] is used for comparison. Although the WSN architecture presented above is between sensor node and base station only, our scheme is flexible to be implemented in hierarchal structure that may consist of base station, sensor node and cluster head.…”

Section: Proposed Ibe-trust Security Frameworkmentioning

confidence: 99%

Analysis of trusted identity based encryption (IBE-trust) protocol for Wireless Sensor Networks

Yussoff

Hashim

Baba

2012

2012 IEEE Control and System Graduate Research Colloquium

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The peculiarity of Wireless Sensor Networks demands extra consideration during the design of the security protocol. One of the most challenging yet important security features in Wireless Sensor Network is in establishing trusted communication between sensor node and base station. While the term trusted has been widely used referring to valid nodes in the group, this paper discusses the term trusted based on the specifications of Trusted Computing Group (TCG) and presents an IBE-Trust security protocol utilizing well-known identitybased encryption scheme. The protocol incorporates ideas from Trusted Computing Group and Identity-based cryptosystem by Boneh Franklin in ensuring trusted and secured communications between sender and receiver. The proposed protocols were then modeled using the high-level formal language HLPSL and verified using the model checking tool AVISPA. Analysis on the proposed protocols is presented at the end of this paper

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TinyIBE: Identity-based encryption for heterogeneous sensor networks

Cited by 34 publications

References 20 publications

Efficient Key Management System for Large-scale Smart RFID Applications

Efficient Key Management System for Large-scale Smart RFID Applications

Efficient Security and Privacy Protection for Emerging Smart RFID Communications

Analysis of trusted identity based encryption (IBE-trust) protocol for Wireless Sensor Networks

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