Open Access Open Access  Restricted Access Subscription Access

Network Path Optimization Strategy Using Collaborative Cache for Delay Tolerant Networks


Affiliations
1 Department of computer science & engineering, JNTU Hyderabad 500 085, Telangana, India
 

The data transmissions over Delay Tolerant Networks (DTN) and Social-based Opportunistic networks have increased in the last few years due to a higher demand for remote transmissions. The wide applications of DTN have significantly motivated the researchers to focus on finding optimized routing strategies by optimizing various parameters such as energy, cost and congestion. Nonetheless, these parallel research outcomes have reported few further bottlenecks to improve the strategies. Henceforth, this work proposes a novel approach to optimize the routing paths using the cache collaboration method. This proposed method identifies the data-sharing strategies and subsequently identifies the sub-set of the paths between the source and destinations. Further optimizes the path using standard measures such as cost, transmission speed, and the network traffic conditions; lastly Data-Centric and Cost Optimized Routing Path is Identification. This work results in a nearly 20% reduction in the distance between the nodes, a 15% reduction of time in path identification and a nearly 50% reduction in cache allocation demand over multiple iterations compared to the existing models.

Keywords

Cache Collaboration, Cache Discovery Time, Data Affinity, Mean Load Distance, Routing.
User
Notifications
Font Size

  • Chen Y, Liu Y, Zhao J & Zhu Q, Mobile edge cache strategy based on neural collaborative filtering, IEEE Access, 8 (2020) 18475–18482.
  • Li Y, Hu S & Li G, CVC: A collaborative video caching framework based on federated learning at the edge, IEEE Trans Netw Service Manag, 19(2) (2022) 1399–1412.
  • Furqan M, Zhang C, Yan W, Shahid A, Wasim M & Huang Y, A collaborative hotspot caching design for 5G cellular network, IEEE Access, 6 (2018) 38161–38170.
  • Li Q, Nayak A, Wang X, Wang D & Yu F R, A collaborative caching-transmission method for heterogeneous video services in cache-enabled terahertz heterogeneous networks, IEEE Trans Veh Technol, 71(3) (2022) 3187–3200.
  • Chiang Y, Hsu C-H & Wei H-Y, Collaborative social-aware and qoe-driven video caching and adaptation in edge network, IEEE Trans Multimed, 23 (2021) 4311–4325.
  • Sun Z & Nakhai M R, Distributed learning-based cache replacement in collaborative edge networks, IEEE Commun Lett, 25(8) (2021) 2669–2672.
  • Mehrabi A, Siekkinen M & Ylä-Jaaski A, QoE-traffic optimization through collaborative edge caching in adaptive mobile video streaming, IEEE Access, 6 (2018) 52261–52276.
  • Chen L, Song L, Chakareski J & Xu J, collaborative content placement among wireless edge caching stations with time-to-live cache, IEEE Trans Multimed, 22(2) (2020) 432–444.
  • Ugwuanyi E E, Iqbal M & Dagiuklas T, A novel predictive-collaborative-replacement (PCR) intelligent caching scheme for multi-access edge computing, IEEE Access, 9 (2021) 37103–37115.
  • Zheng G, Suraweera H A & Krikidis I, Optimization of hybrid cache placement for collaborative relaying, IEEE Commun Lett, 21(2) (2017) 442–445.
  • Liu J, Li D & Xu Y, Collaborative online edge caching with bayesian clustering in wireless networks, IEEE IoT J, 7(2) (2020) 1548–1560.
  • Wang L & Zhou S, Fractional dynamic caching: A collaborative design of storage and backhaul, IEEE Trans Veh Tech, 69(4) (2020) 4194–4206.
  • Feng H, Guo S, Yang L & Yang Y, Collaborative Data caching and computation offloading for multi-service mobile edge computing, IEEE Trans Veh Technol, 70(9) (2021) 9408–9422.
  • Zhao X, Yuan P, li H & Tang S, Collaborative edge caching in context-aware device-to-device networks, IEEE Trans Veh Technol, 67(10) (2018) 9583–9596.
  • Xu X, Tao M & Shen C, Collaborative multi-agent multi-armed bandit learning for small-cell caching, IEEE Trans Wirel Commun, 19(4) (2020) 2570–2585.
  • Wan K, Cheng M, Kobayashi M & Caire G, On the optimal memory-load tradeoff of coded caching for location-based content, IEEE Trans Commun, 70(5) (2022) 3047–3062.
  • Tang J, Zhou Z, Xue X & Wang G, Using collaborative edge-cloud cache for search in internet of things, IEEE IoT J, 7(2) (2020) 922–936.
  • Zhou P, Gong S, Xu Z, Chen L, Xie Y, Jaing C & Ding X, Trustworthy and context-aware distributed online learning with autoscaling for content caching in collaborative mobile edge computing, IEEE Trans Cogn Commun Netw, 7(4) (2021) 1032–1047.
  • Fadlullah Z & Kato N, HCP: Heterogeneous computing platform for federated learning based collaborative content caching towards 6g networks, IEEE Trans Emerg Topics Comput, 10(1) (2022) 112–123.
  • Zhang P, Li X, Wu D & Wang R, Edge-cloud collaborative entity state data caching strategy toward networking search service in CPSs, IEEE Trans Indust Info, 17(10) (2021) 6906–6915.
  • Xia X, Chen F, He Q, Grundy J, Abdelrazek M & Jin H, Online collaborative data caching in edge computing, IEEE Trans Parallel Distrib Syst, 32(2) (2021) 281–294.

Abstract Views: 50

PDF Views: 51




  • Network Path Optimization Strategy Using Collaborative Cache for Delay Tolerant Networks

Abstract Views: 50  |  PDF Views: 51

Authors

Chiranjeevi Kunamalla
Department of computer science & engineering, JNTU Hyderabad 500 085, Telangana, India
K Shahu Chatrapati
Department of computer science & engineering, JNTU Hyderabad 500 085, Telangana, India

Abstract


The data transmissions over Delay Tolerant Networks (DTN) and Social-based Opportunistic networks have increased in the last few years due to a higher demand for remote transmissions. The wide applications of DTN have significantly motivated the researchers to focus on finding optimized routing strategies by optimizing various parameters such as energy, cost and congestion. Nonetheless, these parallel research outcomes have reported few further bottlenecks to improve the strategies. Henceforth, this work proposes a novel approach to optimize the routing paths using the cache collaboration method. This proposed method identifies the data-sharing strategies and subsequently identifies the sub-set of the paths between the source and destinations. Further optimizes the path using standard measures such as cost, transmission speed, and the network traffic conditions; lastly Data-Centric and Cost Optimized Routing Path is Identification. This work results in a nearly 20% reduction in the distance between the nodes, a 15% reduction of time in path identification and a nearly 50% reduction in cache allocation demand over multiple iterations compared to the existing models.

Keywords


Cache Collaboration, Cache Discovery Time, Data Affinity, Mean Load Distance, Routing.

References