Home > Information technology essays > An exposure towards dynamic transmission by employing mitigation features

Essay: An exposure towards dynamic transmission by employing mitigation features

Essay details and download:

  • Subject area(s): Information technology essays
  • Reading time: 8 minutes
  • Price: Free download
  • Published: 23 September 2015*
  • Last Modified: 23 July 2024
  • File format: Text
  • Words: 2,073 (approx)
  • Number of pages: 9 (approx)

Text preview of this essay:

This page of the essay has 2,073 words.

ABSTRACT:
It is important to maintain the applications of group-oriented for the audio or video conference in mobile ad hoc networks, serving as a resourceful system of networking assisting exchange of data between mobile devices devoid of permanent infrastructures. A vehicular ad hoc network includes on-board units entrenched in vehicles helping as mobile nodes of computing and roadside units working as the infrastructure of information positioned in the significant points on the road. The major concern of security in communications of group-oriented by access control is key management. Key management existing systems are mostly put into practice by means of two approaches such as group key agreement and system of key distribution which are active research fields. By means of efficiently exploiting the features of mitigating and circumventing the restrictions, a novel paradigm of key management was introduced allowing protected and competent transmissions to remote cooperative groups.
Keywords: Mobile ad hoc networks, Cooperative groups, Key management, Mitigation.
1. INTRODUCTION:
To make available speedy Internet access, wireless mesh networks have been of late recommended as a promising approach of inexpensive. It is necessary to put into effect access control of susceptible information for managing both eavesdroppers in addition to malicious attackers, due to essentially open and dispersed nature of wireless mesh networks. Communication in networks of wireless is broadcast and a convinced amount of devices can accept transmitted messages, the hazard of unsecured responsive information being captured by unintended recipients is a real apprehension[4]. Rapid entry points of wired Internet are present in the upper layer; the second layer includes routers serving of stationary mesh as a backbone of multi-hop joining each other in addition to Internet by means of long-range quick wireless methods; the bottom layer comprises a huge number of users of mobile network. By means of a direct link of wireless or all the way through a chain of other users of peer leading to a close by mesh router, the end users have a right of entry towards the network. All the way through the wireless backbone in addition to Internet, the router additionally attaches to remote users [8]. In approaching the achievement of wireless mesh networks intended for their wide deployment and for supporting applications of service-oriented, issues of security and privacy are of extreme concerns. A mobile ad hoc network is a scheme made up of wireless mobile nodes having wireless communication and characteristics of networking. In mobile ad hoc network, it is important to maintain the applications of group-oriented for instance audio or video conference and additionally serves as a resourceful system of networking assisting exchange of data between mobile devices still devoid of permanent infrastructures. [1]. Efforts to make safe group communications in mobile ad hoc networks shown in fig1 are necessary. A cooperation domain was formed by the users who are working for the comparable assignment; any meticulous application or attention in a network may possibly lead to the organization of an equivalent community. From the certificate ability and validating the legitimacy of the public key by means of checking its certificate, a remote sender can recover the public key of receiver implying that no unswerving communication from the receivers towards the sender is essential [11]. A vehicular ad hoc network includes on-board units entrenched in vehicles helping as mobile nodes of computing and roadside units working as the infrastructure of information positioned in the significant points on the road [3]. They are measured with the most important goal of getting better traffic safety in addition to the secondary objective of providing services of value-added to vehicles. The sender has to concurrently stay online with the receivers and unswerving communications from the receivers towards the sender are necessary in the traditional system of group key agreement and this is complicated for a remote sender [14]. By means of efficiently exploiting the features of mitigating and circumventing the restrictions, a novel paradigm of key management was introduced allowing protected and competent transmissions to remote cooperative groups. The novel approach is a hybrid of agreement of group key and broadcast encryption of public-key and also includes structural benefits over existing paradigms [9]. From a third party, the sender simply needs to get hold of the public keys of the receiver and no direct communication from the receivers towards the sender is necessary, which is implementable with accurately the existing public key infrastructure in open networks. A secret intra-group broadcast channel can be traditional devoid of relying on a server of centralized key to create and allocate secret keys to the prospective members. The schemes of broadcast encryption can be categorized as symmetric-key broadcast encryption in addition to encryption of public-key broadcast [7]. In the symmetric-key setting, merely the center which is trustworthy generates the entire secret keys and broadcasts the messages towards users consequently only the center of key generation can be the broadcaster otherwise the sender. In the setting of public-key besides the secret keys for each user, the trusted center moreover generates a public key for the entire users with the aim to facilitate that anyone can take part as the broadcaster or sender. In the system of key distribution, a trustworthy and centralized key server fixes and distributes the secret keys to the prospective users, aiming that only the privileged users can understand the message which is transmitted [2]. The early protocol of key distribution does not hold up the addition or deletion of the member subsequent to the deployment of the system. This concept was consequently evolved to permit the sender for choosing the intentional receiver subset of the initial group, generally referred as broadcast encryption [15].
Fig1: An overview of MANET
2. METHODOLOGY:
The main concern of security in communications of group-oriented by access control is key management. Existing systems of key management are mostly put into practice by means of two approaches such as group key agreement and system of key distribution which are active research fields [12]. Group key agreement permits a group of users to discuss a common key of secret by means of insecure networks. Any member can encrypt any secret message by means of the secret key and merely the members of the group can decrypt. A novel paradigm of key management known as group key agreement-based broadcast encryption was introduced [5]. With competent local connections the potential receivers are associated collectively and by means of communication infrastructures they can also join to heterogeneous networks. Each receiver includes a public or undisclosed key pair [7]. By means of a certificate authority, the public key is authorized and however the secret key is reserved only by means of the receiver. By means of checking its certificate, a remote sender can recover the public key of receiver from the certificate ability and validate the accuracy of the public key, indicating that no unswerving communication from the receivers towards the sender is necessary [10]. Towards any selected subset of the receivers the sender can transmit undisclosed messages. The concept of new key management in fact requires a sender to be acquainted with the keys of the receivers, which may necessitate communications from the receivers in the direction of the sender as in conventional protocols of group key agreement. The sender has to concurrently stay online with the receivers and unswerving communications from the receivers towards the sender are necessary and this is complicated for a remote sender in the protocols of traditional group key agreement [6]. Paradigm of key management does not necessitate a remote sender to concurrently stay online through the receivers when measured to the approach of group key agreement. The sender simply needs to get hold of the receiver public keys from a third party in the paradigm of key management, and no direct communication from the receivers towards the sender is necessary, which is implementable with accurately the existing public key infrastructure in open networks [13]. While a sender regularly communicates to a moderately fixed group in reality, a sender does not necessitate commonly contacting the third party or maintaining a huge number of keys.
3. RESULTS:
A novel paradigm of key management known as group key agreement-based broadcast encryption was introduced. In a variety of mobile ad hoc networks, the idea of new key management is especially efficient in coping with member alterations and the rekeying concerns. In a proficient way, the idea of new key management can handle with member alterations and key updates. By means of the number of the receivers appropriate to the linear number of operations of bilinear map, the expenditure of the encryption to the group develops linearly. The new concept of key management has also structural benefits over existing paradigms and does not necessitate a fully trusted key server and is effortless to be deployed in practice. When considered to the approach of group key agreement, concept of key management does not necessitate a remote sender to concurrently stay online through the receivers which makes probable the enviable pattern of send-and-leave intended for the senders.
4. CONCLUSION:
Towards achieving the wireless mesh networks for their wide deployment and supporting applications of service-oriented, issues of security and privacy are of extreme concerns. The novel approach is a hybrid of agreement of group key and broadcast encryption of public-key and also includes structural benefits over existing paradigms. The schemes of broadcast encryption can be categorized as symmetric-key broadcast encryption in addition to encryption of public-key broadcast. In mobile ad hoc networks, the scheme of new key management is especially efficient in coping with member alterations and the rekeying concerns. The concept of key management does not necessitate a remote sender to concurrently stay online through the receivers when measured to the approach of group key agreement. It requires a sender to be acquainted with the keys of the receivers, which may necessitate communications from the receivers in the direction of the sender as in conventional protocols of group key agreement. The new concept of key management has also structural benefits over existing paradigms and does not necessitate a fully trusted key server and is effortless to be deployed in practice.
REFERENCES:
[1] J. H. Cheon, N.-S. Jho, M.-H. Kim, and E. S. Yoo, ‘Skipping, cascade, and combined chain schemes for broadcast encryption,’ IEEE Trans.
Inf. Theory, vol. 54, no. 11, pp. 5155’5171, Nov. 2008.
[2] J.-H. Park, H.-J. Kim,M.-H. Sung, and D.-H. Lee, ‘Public key broadcast encryption schemes with shorter transmissions,’ IEEE Trans. Broadcast., vol. 54, no. 3, pp. 401’411, Sep. 2008.
[3] Y. Zhang and Y. Fang, ‘ARSA: An attack-resilient security architecture for multi-hop wireless mesh networks,’ IEEE J. Sel. Areas Commun., vol. 24, no. 10, pp. 1916’1928, Oct. 2006.
[4] E. Bresson, Y. Lakhnech, L. Mazar??, and B. Warinschi, ‘A generalization of DDH with applications to protocol analysis and computational
soundness,’ Adv, Cryptol,, vol. 4622, CRYPTO’07, LNCS, pp. 482’499, 2007.
[5] C. Gentry and B. Waters, ‘Adaptive security in broadcast encryption systems (with short ciphertexts),’ Adv. Cryptol., vol. 5479, EUROCRYPT’ 09, LNCS, pp. 171’188, 2009.
[6] K. Ren, S. Yu, W. Lou, and Y. Zhang, ‘PEACE: A novel privacy-enhanced yet accountable security framework for metropolitan wireless mesh networks,’ IEEE Trans. Parallel Distrib. Syst., vol. 21, no. 2, pp. 203’215, Feb. 2010.
[7] D. Boneh, C. Gentry, and B. Waters, ‘Collusion resistant broadcast encryption with short ciphertexts and private keys,’ Adv. Cryptol., vol.
3621, CRYPTO’05, LNCS, pp. 258’275, 2005.
[8] W. Yu, Y. Sun, and K. J. R. Liu, ‘Optimizing the rekeying cost for contributory group key agreement schemes,’ IEEE Trans. Depend. Secure
Comput., vol. 4, no. 3, pp. 228’242, Jul.’Sep. 2007.
[9] L. Zhang, Q. Wu, A. Solanas, and J. Domingo-Ferrer, ‘A scalable robust authentication protocol for secure vehicular communications,’ IEEE Trans. Veh. Technol., vol. 59, no. 4, pp. 1606’1617, May 2010.
[10] E. Fujisaki and T. Okamoto, ‘Secure integration of asymmetric and symmetric encryption schemes,’ Adv. Cryptol., vol. 1666, CRYPTO’99, LNCS, pp. 537’554, 1999.
[11] B. Rong, H.-H. Chen, Y. Qian, K. Lu, R. Q. Hu, and S. Guizani, ‘A pyramidal security model for large-scale group-oriented computing in mobile ad hoc networks: The key management study,’ IEEE Trans. Veh. Technol., vol. 58, no. 1, pp. 398’408, Jan. 2009.
[12] Y. Amir, Y. Kim, C. Nita-Rotaru, J. L. Schultz, J. Stanton, and G. Tsudik, ‘Secure group communication using robust contributory key agreement,’ IEEE Trans. Parallel Distrib. Syst., vol. 15, no. 5, pp. 468’480, May 2004.
[13] Q.Wu,Y.Mu, W. Susilo, B.Qin, and J. Domingo-Ferrer, ‘Asymmetric group key agreement,’ Adv. Cryptol., vol. 5479, EUROCRYPT’09, LNCS, pp. 153’170, 2009.
[14] Y.-M. Huang, C.-H. Yeh, T.-I. Wang, and H.-C. Chao, ‘Constructing secure group communication over wireless ad hoc networks based on a virtual subnet model,’ IEEE Wireless Commun., vol. 14, no. 5, pp. 71’75, Oct. 2007.
[15] K. Sampigethaya, M. Li, L. Huang, and R. Poovendran, ‘AMOEBA: Robust location privacy scheme for VANET,’ IEEE J. Sel. Areas Commun., vol. 25, no. 8, pp. 1569’1589, Oct. 2007.

About this essay:

If you use part of this page in your own work, you need to provide a citation, as follows:

Essay Sauce, An exposure towards dynamic transmission by employing mitigation features. Available from:<https://www.essaysauce.com/information-technology-essays/essay-an-exposure-towards-dynamic-transmission-by-employing-mitigation-features/> [Accessed 19-12-24].

These Information technology essays have been submitted to us by students in order to help you with your studies.

* This essay may have been previously published on EssaySauce.com and/or Essay.uk.com at an earlier date than indicated.