Ijraset Journal For Research in Applied Science and Engineering Technology

Abstract

Real-time data collected by smart sensors deployed in factories is shared over open channels as the Industrial Internet of Things (IIoT) expands, posing a risk of unauthorised access to transmitted messages by adversaries, resulting in a privacy leakage problem. However, users frequently find it difficult to backup all data from the original cloud servers to their mobile phones in order to upload the downloaded data to the new cloud provider due to insufficient local storage and computational capabilities. To address this issue, it is proposed to gather information on the available solutions for the application of security issues in peer-to-peer networks, with a focus on authentication mechanisms.

Introduction

I. INTRODUCTION

People are increasingly reliant on devices such as smartphones and tablets. Every person can own and use multiple smart devices. It is also common for people to change their smart phones on a regular basis due to the fact that More inherent features from a variety of manufacturers are characterised by the new one. When people choose to use a different manufacturer's new smart device, the Data stored on the previous smart device provider's cloud server should be retrieved. transferred to the new smart device provider's cloud server This internet architecture does not require a centralised server. enables the ability to connect all participating nodes (peers) directly to communicate and disseminate data This research will look at the architecture of Peer-to-peer networks in general

II. EXISTING WORK

1. To assist users to gain authorization in access control contexts,  property-based proxy re-encryption system. However, according to  Liang and Au , this method lacks adaptive security and CCA  security properties. A new proxy broadcast repeat encryption (PBRE)  technique is proposed and demonstrated its security in a random oracle model under the choice n-BDHE hypothesis against the  selective cypher text attack (CCA).
2. To overcome the key revocation problem, a broadcast agent  encryption (RIBBPRE) security concept based on revocable  identification is proposed. The agent can reverse a set of delegates  provided by the principal from the re-encryption key in this RIB BPRE scheme. They also mentioned that the identity-based broadcast  agent re-encryption (RIB-BPRE) techniques do not take use of cloud  computing, which leads cloud users to be inconvenienced.

III. PROPOSED WORK

An anonymous three-factor authentication mechanism is presented, and biometric impression user authentication is improved. The following could be a list of contributions.

1. To begin, we present a three-factor user authenticated key-agreement system with ECC support.
2. Second, if an attacker falsifies a sensible card, the user's environment is jeopardised. In our protocol, both the client and the server verify users' biometric impressions; in some specific applications, this can provide security protection for specific requirements. Because RC is involved in the authentication process, the RC and server roles are distinct.
3. Although the proposed protocol requires more processing from the server, servers are typically expected to have sufficient resources. As a result, the server is easily accessible

Although the suggested protocol adds more processing to the server,  servers are typically expected to have adequate resources. As a result,  the server can easily handle these additional computations, lowering  the user's computation cost. The system is built on a multi-server  architecture that includes user (Uu), server (Sj), and registration  centre (RC). RC facilitates user registration and also assists with the  delivery of server services. To register all users, RC chooses its  master secret key x. The suggested approach, like previous schemes,  comprises three stages: authentication, registration, and password  changing.

To preserve the privacy of service providers and customers, the  suggested approach employs server anonymity. It's worth noting that  for mutual authentication and key agreement, both of the cloud  servers engaged in the migration process employ anonymous  identities. This technique not only protects cloud service providers'  identity privacy, but also prevents them from gaining superfluous  information such as the brand of the users' old and new mobile  phones. As a result, our methodology protects consumers' privacy by  not disclosing their specific preferences.

IV. PREFATORY

A. Elliptic Curve Cryptography

Elliptic Curve Cryptography (ECC) The Elliptical Curve Cryptography (ECC) was introduced by Victor S. Miller and Neal Koblitz within the 80s, but it had been only within the late 90's that it began its application. ECC is predicated on the usage of finite field elliptic curves.

Moreover, a sum operation is defined 6 over an elliptical curve and a special item O is additionally defined because the identity element. Then, some extent G of the elliptical curve is defined as a base point and an elliptical curve is utilized for the sum operation of a number of elements (points).

Elliptical curve cryptosystems are predicated on the intractability of certain mathematical issues, even as the other public key system. Specifically, ECC is predicated on the ECDLP problem that asserts that it's inoperative to compute the discrete logarithm of a random elliptical curve in respect to a base point of an elliptical curve. Elliptic curve cryptography could be a key-based technique for encrypting data. ECC focuses on pairs of public and personal keys for decryption and encryption of web traffic

V.   IMPLEMENTATION

A. Authentication and Key Exchange

Two aspects contribute to the commonly expected level of security  for authenticated key-exchange (AKE) protocols. Authentication  ensures the identities of the parties involved in protocol execution. Secrecy ensures that active adversaries are unaware of the key.

B. Server Registration Page

To become legitimate server Sj, the server needs to register with RC  by following these steps. 

1. SR Step1: Sj selects his identity IDj and sends to RC through secure  channel. 
2. SR Step2: After receiving IDj, RC calculates s = h(IDj||x), pkSj = sP  and pkRC = xP where x is secret key maintained by RC.
3. SR Step3: After that, RC sends s, pkSj , pkRC to server Sj and aborts  the registration.

C. Mutual Authentication

The enhanced scheme provides mutual authentication because  legitimate participants verify each other, ensuring strong mutual  authentication. This property secures our protocol and allows for the  early detection of potential attacks such as replay attacks.

VI. RESULTS

A. Migrated Files

Conclusion

The study recommended employing a core contract protocol to communicate user data between multiple cloud servers. Three factors highlight the advantages of our system: security and value performance, cost projections, and communication costs. Our solution can address a fundamental trust issue while transiting data between cloud servers as well as cloud server anonymity. Our proposed technology protects users\' privacy indirectly so as to safeguard cloud service providers\' privacy.

References

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Copyright

Copyright © 2022 Dr. V Anantha Krishna, K. Poornima, J. Vidya, A. Navitha . This is an open access article distributed under the Creative Commons Attribution License, which permits unrestricted use, distribution, and reproduction in any medium, provided the original work is properly cited.