A hop-by-hop Congestion Control Mechanisms in NDN Networks – A Survey

El-Bakkouchi, Asmaa; Bouayad, Anas; Bekkali, Moulhime El

doi:10.1109/cmt.2019.8931405

Cited by 11 publications

(12 citation statements)

References 9 publications

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“…3) Hop-by-Hop Dynamic Addressing-Based Routing (H 2 -DAB) [33]: This greedy nature protocol does not require additional hardware unlike other protocol belongs to same class. Many stationary sinks are located on the water surface, while other nodes are at the bottom of the sea.…”

Section: B Location Free (Or) Forwarding Node Impingementmentioning

confidence: 99%

Underwater Pragmatic Routing Approach Through Packet Reverberation Mechanism

et al. 2020

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The advances in underwater sensor communication has become imperative getting up-to-date information about underwater happenings, especially when world has already faced the calamity like Tsunami. The underwater environment possessed freak and unpredictable movements which becomes more harsh time to time. The sensor nodes deployed under such juncture are the main source of information which in fact, facing numerous challenges. These nodes are mainly energy-constrained and rely on limited battery source. Due to most intricated underwater routing architecture, the biggest detriment is the limited battery lifespan. Therefore, it is imperative to adopt the pragmatic and possible alternate to improve the life expectancy of these sensor nodes. The solution of such shortcomings and identifying the varieties of impingements impelled by forwarding node on battery lifespan during packet transmission course are meticulously explored by developing an Underwater Pragmatic Routing Approach through Packet Reverberation mechanism (UPRA-PR). It is a novel approach and never considered in past. Through Packet Reverberation technique, the use of energy has been confined and the desired outcomes are achieved in four phases. In the first phase, the eligibility criteria for both packet and nodes have been computed by setting the Node Depth Factor (Ndf). Second phase formulates the forwarding relay node mechanism and rummage out the path failure by complying a Data Rate criterion 0. The selection of the shrewd communication link is established in third phase by considering an Accepted Link Quality (ALQ) factor. The fourth phase where most prominent developments has been made regarding impingements effects on the battery lifespan left by the forwarding node after the packet transmission. The UPRA-PR performance metrics are assessed by staging extensive NS2 simulation with AquaSim 2.0 and compared to state-existing routing protocols i.e., DBR, H 2 DAB, GEDAR and FBR for Packet dissemination ratio, Path failure, Point-to-point delay estimation, System energy consumption, Network lifespan, Forwarding node impingement and Network throughput. The simulation results have ratified the UPRA-PR performance and justified the statements made in this respect.

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Section: B Location Free (Or) Forwarding Node Impingementmentioning

confidence: 99%

Underwater Pragmatic Routing Approach Through Packet Reverberation Mechanism

et al. 2020

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“…Furthermore, prototype models may be built to represent the characteristics of the medium underwater.  With water flows, sensor nodes shift, continuously shifting their locations [19,20]. This often shifts their place details.…”

Section: Open Challengsmentioning

confidence: 99%

Underwater Routing Protocols Analysis of Intrepid Link Selection Mechanism, Challenges and Strategies

Ashraf¹,

Aslam²,

Yahya³

et al. 2020

IJSRCSE

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The sensor nodes deployed in underwater environment have a different routing mechanism in contrast to the terrestrial network. In order to get underwater information from dynamically deployed senor nodes, a smooth packet transmission must be maintained, which is a crucial challenge, and selecting the best communication link between source and destination node is a key phenomenon. The meticulous research has been conducted to search out the best link selection mythology of bodacious underwater routing protocol EnOR, SURS-PES and USPF. The performance has been evaluated through NS2 simulation for packet delivery ratio, end-to-end delay, network lifespan and network energy consumption.

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“…With water flows, sensor nodes shift, continuously shifting their locations [19]. This often shifts their place details.…”

Section: Open Challengesmentioning

confidence: 99%

Underwater Routing Protocols: Analysis of Intrepid Link Selection Mechanism, Challenges and Strategies

Ashraf

Ahmed

2020

Preprint

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The sensor nodes deployed in underwater environment has different routing mechanism in contrast to the terrestrial network. Getting underwater data on pollution detection, control of the ecosystem, marine mining, catastrophe avoidance and strategic surveillance thereby demands smooth packet transmission from dynamic nodes to base station encounters numerous challenges, out of which selecting best communication link between source and destination node is a key phenomenon of Underwater sensor network. The meticulous research has been conducted to search out the best link selection mythology of bodacious underwater routing protocol EnOR, SURS‐PES and USPF. The performance has been evaluated through NS2 simulation for packet delivery ratio, end-to-end delay, network lifespan and network energy consumption.

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A hop-by-hop Congestion Control Mechanisms in NDN Networks – A Survey

Cited by 11 publications

References 9 publications

Underwater Pragmatic Routing Approach Through Packet Reverberation Mechanism

Underwater Pragmatic Routing Approach Through Packet Reverberation Mechanism

Underwater Routing Protocols Analysis of Intrepid Link Selection Mechanism, Challenges and Strategies

Underwater Routing Protocols: Analysis of Intrepid Link Selection Mechanism, Challenges and Strategies

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