Data privacy preservation in MAC aware Internet of things with optimized key generation

Kalyani, G.; Chaudhari, Shilpa

doi:10.1016/j.jksuci.2019.12.008

Cited by 9 publications

(8 citation statements)

References 23 publications

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“…This evaluation is undergone for three sets of data sets. The resultant acquired by the presented work (WNU) is compared over the existing models, like AAP‐CSA, 30 CM‐LA, 35 BS‐WOA, 36 GA, 37 and PSO 38…”

Section: Resultsmentioning

confidence: 99%

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Blockchain‐based secure information sharing for supply chain management: Optimization assisted data sanitization process

et al. 2020

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Currently, the furious competitiveness in global markets and speedy improvements in information technology lead to shorter product life cycles, lesser transportation capabilities, and increased demands as well. In most business scenarios, the supply chain network is becoming one of the most vital focusing areas. In the supply chain network, blockchain technology is a promising solution for secure information sharing. However, it is a bit critical in maintaining security at each level of the blockchain and hence the public-private-key cryptography is more commonly preferred. This study intends to construct a new privacy preservation model in the field of supply chain networks based on blockchain technology by undergoing three major phases, namely, (a) data sanitization, (b) key generation, and (c) restoration. Further, the sensitive fields in the original data are selected during the data sanitization phase, and in the key generation phase; the optimal key is generated to hide the selected sensitive fields. The hidden data with the secured key is transferred from the source (manufacturer) to destination (vendor) in the supply chain network via the blockchain. The restoration process takes place in the receiver side with the help of the same key. Among all these data flow methods, the optimal key selection is the critical issue that needs to be overridden to make the data transmission secured. As a novelty, a new optimization algorithm referred to as Whale with New Crosspoint-based Update (WNU), which is the advanced version of Whale Optimization Algorithm (WOA), is developed here to select the optimal key. Finally, the proposed WNU model is analyzed in terms of Hiding Failure (HF) rate, Information Preservation (IP) Rate, and False Rule generation (FR), and Degree of Modification (DM). The proposed secured information sharing in supply chain management (SCM) with blockchain technology will be validated by comparing it over the traditional models in terms of security as well.

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Section: Resultsmentioning

confidence: 99%

“…This evaluation is undergone for three sets of data sets. The resultant acquired by the presented work (WNU) is compared over the existing models, like AAP-CSA, 30 CM-LA, 35 BS-WOA, 36 GA, 37 and PSO. 38 This evaluation is undergone in terms of the cost function, chosen-ciphertext attack (CCA), key sensitivity, attacks as well.…”

Section: Simulation Proceduresmentioning

confidence: 99%

Blockchain‐based secure information sharing for supply chain management: Optimization assisted data sanitization process

et al. 2020

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“…The previous work focuses on the data privacy preservation framework in MAC with the 'optimal key generation process'. As a novelty, the key is optimally selected by the hybridized Cuckoo Mated Lion Algorithm (CM-LA) model [35]. The optimization leads to the production of the optimal key this obviously enhances and assures the security crisis.…”

Section: Elgamal Cryptosystem For Data Privacy Preservationmentioning

confidence: 99%

“…The adopted cross layer protocol was executed in MATLAB R2019a and the corresponding outcomes were achieved. Accordingly, the performance of the presented secured cross layer protocol was compared over the other security protocols based on approaches like GA [30], PSO [31], FF [32], CS [33], LA [34] and CM-LA [35]. Here, validation was carried out with respect to varied measures like MAC overhead (seconds) and MAC protection frequency (%)by varying the number of nodes from 250, 500, 750 and 1000.In addition, analysis was done by varying the threshold from 0.3, 0.4, 0.5 and 0.7 and the results were observed.…”

Section: Simulation Setupmentioning

confidence: 99%

Cross Layer Security MAC Aware Routing Protocol for IoT Networks

Kalyani

Chaudhari

2021

Wireless Pers Commun

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Proliferation Internet of Things (IoT) devices is increasing security vulnerabilities across the enterprise besides its intrinsic constraints such as processing power, storage capabilities, and energy resources. IoT security to resists vulnerability of attacks is a growing challenge for security professionals. Mobile IoT devices need data routing protocol to communicate the captured data considering various security vulnerabilities. Security aware routing is unceasing thought-provoking topic in IoT in the view of essential characteristics of IoT, notably multi-hop decentralized architecture, frequent topology change due to mobile IoT devices, lower link life, media access delay and multi-layer security threats. Additionally, there is need of cross layer routing that exploits dependency parameters between protocol layers as routing parameters to gain network performance through optimal routing decision. This paper introduces a design of secured cross layer protocol that utilizes routing parameters computed based on the exchanged information from Media Access Control (MAC) layer. Optimal routing decision considers various constraints like "distance, energy and Risk factor of path by Self Improved SLnO (SI-SLnO) algorithm". We compute the Risk factor for each optimal path. Threshold based Risk factor usage helps to decide level of data privacy requirements using Elgamal cryptosystem and Elliptic Curve Cryptography (ECC). Finally, the superiority of proposed secured cross layer protocol is validated in terms of various measures.

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“…Since the new contribution, the purposes for optimizing the respective private key using the new EPO algorithm. Also, the encryption message ∈ 1 and the public key is defined as the pair i 1 ≡ ( ′ ) ; 2 ≡ i mod , where refers the random number [25].…”

Section: Encryption Of Shares Using Epo-epkc Algorithmmentioning

confidence: 99%

Blockchain Enabled Emperor Penguin Optimizer Based Encryption Technique for Secure Image Management System

Padmavathi¹,

Rajagopalan²

2021

Wireless Pers Commun

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In recent years, the electronic sharing of digital images faces a major threat to security, as the existing image transmission infrastructure is mainly based on the trust of third parties. At the same time, the available solutions are placed on the cloud based centralized data center, which is expensive, requires large storage area, and security issues regarding the transmission of data over the network. So, it is needed to develop an image management system which enables sharing and storing of digital images effectively. This paper develops novel multiple share creation schemes with block technology for secure image management (MSCCBT-SIM) systems. The MSCCBT-SIM model allows the user to create consensus with no dependencies on central authorities. It involves an MSC which involves share creation and share encryption using emperor penguin optimizer based ElGamal public key cryptosystem (EPO-EPKC). In addition, the blockchain is used as a distributed data storage mechanism to generate a ledger for permitting access to the user and prevent third party access to the encrypted shares. The application of blockchain technology and MSC techniques helps to achieve decentralization, highly reliable, inexpensive, and secure transmission and storage of digital images. In order to validate the effective performance of the MSCCBT-SIM model, a series of simulations take place and investigated the results interms of different measures. The experimental results ensured the better performance of the MSCCBT-SIM model over the state of art methods.

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Data privacy preservation in MAC aware Internet of things with optimized key generation

Cited by 9 publications

References 23 publications

Blockchain‐based secure information sharing for supply chain management: Optimization assisted data sanitization process

Blockchain‐based secure information sharing for supply chain management: Optimization assisted data sanitization process

Cross Layer Security MAC Aware Routing Protocol for IoT Networks

Blockchain Enabled Emperor Penguin Optimizer Based Encryption Technique for Secure Image Management System

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