A Survey on Opportunistic Routing in Mobile Ad Hoc Networks
Opportunistic Routing (OR) increases the
transmission reliability and network throughput. Traditional routing
protocols preselects one or more predetermined nodes before
transmission starts and uses a predetermined neighbor to forward a
packet in each hop. The opportunistic routing overcomes the
drawback of unreliable wireless transmission by broadcasting one
transmission can be overheard by manifold neighbors. The first
cooperation-optimal protocol for Multirate OR (COMO) used to
achieve social efficiency and prevent the selfish behavior of the
nodes. The novel link-correlation-aware OR improves the
performance by exploiting the miscellaneous low correlated forward
links. Context aware Adaptive OR (CAOR) uses active suppression
mechanism to reduce packet duplication. The Context-aware OR
(COR) can provide efficient routing in mobile networks. By using
Cooperative Opportunistic Routing in Mobile Ad hoc Networks
(CORMAN), the problem of opportunistic data transfer can be
tackled. While comparing to all the protocols, COMO is the best as it
achieves social efficiency and prevents the selfish behavior of the
nodes.
[1] Azzedine Boukerche and Amir Darehshoorzadeh, “Opportunistic
Routing in Wireless Networks: Models, Algorithms,and Classifications,”
ACM Computing Surveys, Vol. 47, No. 2, Article 22, 2014.
[2] Prof. Gaikwad Ravi. P. and Prof. Gaikwad Anil P, “Adhoc Networks,”
JM International Journal of IT, Volume -1 Issue 1, January 2011.
[3] Chun-Pong Luk, Wing-Cheong Lau and On-Ching Yue, “An Analysis of
Opportunistic Routing in Wireless Mesh Network,” IEEE 2008.
[4] Aarti and Dr. S. S. Tyagi, “Study of MANET: Characteristics,
Challenges, Application and Security Attacks,” International Journal of
Advanced Research in Computer Science and Software Engineering,
Volume 3, Issue 5, May 2013.
[5] Haitao Liu and Baoxian Zhang, “Opportunistic Routing for Wireless Ad
Hoc and Sensor Networks: Present and Future Directions,” IEEE
Communications Magazine, December 2009.
[6] Yuanzhu Chen and Zehua Wang, “CORMAN: A Novel Cooperative
Opportunistic Routing Scheme in Mobile Ad Hoc Networks,” IEEE
Journal on Selected Areas in Communications, 2012.
[7] Zhongliang Zhao and Denis Ros´ario, “Context-aware Opportunistic
Routing in Mobile Ad-hoc Networks Incorporating Node Mobility,”
IEEE WCNC'14 Track 3 (Mobile and Wireless Networks), 2014.
[8] Denis Ros´ario and Eduardo Cerqueira, “Context-aware Adaptive
Opportunistic Routing in Mobile Ad-hoc Networks,” IEEE JOURNAL,
2014.
[9] Anas Basalamah and Song Min Kim, “Link-Correlation-Aware
Opportunistic Routing in Wireless Networks” IEEE Transactions on
Wireless Communications, 2015.
[10] Fan Wu and Kai Gong, “A Game-Theoretic Approach for Joint
Multirate Opportunistic Routing and Forwarding in Non-Cooperative
Wireless Networks” IEEE Transactions on Wireless Communications,
2015.
[1] Azzedine Boukerche and Amir Darehshoorzadeh, “Opportunistic
Routing in Wireless Networks: Models, Algorithms,and Classifications,”
ACM Computing Surveys, Vol. 47, No. 2, Article 22, 2014.
[2] Prof. Gaikwad Ravi. P. and Prof. Gaikwad Anil P, “Adhoc Networks,”
JM International Journal of IT, Volume -1 Issue 1, January 2011.
[3] Chun-Pong Luk, Wing-Cheong Lau and On-Ching Yue, “An Analysis of
Opportunistic Routing in Wireless Mesh Network,” IEEE 2008.
[4] Aarti and Dr. S. S. Tyagi, “Study of MANET: Characteristics,
Challenges, Application and Security Attacks,” International Journal of
Advanced Research in Computer Science and Software Engineering,
Volume 3, Issue 5, May 2013.
[5] Haitao Liu and Baoxian Zhang, “Opportunistic Routing for Wireless Ad
Hoc and Sensor Networks: Present and Future Directions,” IEEE
Communications Magazine, December 2009.
[6] Yuanzhu Chen and Zehua Wang, “CORMAN: A Novel Cooperative
Opportunistic Routing Scheme in Mobile Ad Hoc Networks,” IEEE
Journal on Selected Areas in Communications, 2012.
[7] Zhongliang Zhao and Denis Ros´ario, “Context-aware Opportunistic
Routing in Mobile Ad-hoc Networks Incorporating Node Mobility,”
IEEE WCNC'14 Track 3 (Mobile and Wireless Networks), 2014.
[8] Denis Ros´ario and Eduardo Cerqueira, “Context-aware Adaptive
Opportunistic Routing in Mobile Ad-hoc Networks,” IEEE JOURNAL,
2014.
[9] Anas Basalamah and Song Min Kim, “Link-Correlation-Aware
Opportunistic Routing in Wireless Networks” IEEE Transactions on
Wireless Communications, 2015.
[10] Fan Wu and Kai Gong, “A Game-Theoretic Approach for Joint
Multirate Opportunistic Routing and Forwarding in Non-Cooperative
Wireless Networks” IEEE Transactions on Wireless Communications,
2015.
@article{"International Journal of Information, Control and Computer Sciences:71623", author = "R. Poonkuzhali and M. Y. Sanavullah and A. Sabari and T. Dhivyaa", title = "A Survey on Opportunistic Routing in Mobile Ad Hoc Networks", abstract = "Opportunistic Routing (OR) increases the
transmission reliability and network throughput. Traditional routing
protocols preselects one or more predetermined nodes before
transmission starts and uses a predetermined neighbor to forward a
packet in each hop. The opportunistic routing overcomes the
drawback of unreliable wireless transmission by broadcasting one
transmission can be overheard by manifold neighbors. The first
cooperation-optimal protocol for Multirate OR (COMO) used to
achieve social efficiency and prevent the selfish behavior of the
nodes. The novel link-correlation-aware OR improves the
performance by exploiting the miscellaneous low correlated forward
links. Context aware Adaptive OR (CAOR) uses active suppression
mechanism to reduce packet duplication. The Context-aware OR
(COR) can provide efficient routing in mobile networks. By using
Cooperative Opportunistic Routing in Mobile Ad hoc Networks
(CORMAN), the problem of opportunistic data transfer can be
tackled. While comparing to all the protocols, COMO is the best as it
achieves social efficiency and prevents the selfish behavior of the
nodes.", keywords = "CAOR, COMO, COR, CORMAN, MANET,
Opportunistic Routing, Reliability, Throughput.", volume = "9", number = "6", pages = "1628-4", }