A New TCP Design for Satellite-HAP Networks

Wang, Sudan; Sun, Lijuan; Xiao, Fu; Ye, Xiaoguo; Wang, Ruchuan

doi:10.1007/978-3-642-36252-1_44

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Handover Measurement1

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2016

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“…HAP movement starts from the center of the coverage area to its end and then it returns to the other end. The random walk and reflection movements of HAPs are determined in [58]. There are three handover metrics, which are used to determine the QoS of mobile calls.…”

Section: Handover Measurementmentioning

confidence: 99%

Performance Evaluation of a Dual Coverage System for Internet of Things Environments

Said

Tolba

2016

Mobile Information Systems

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A dual coverage system for Internet of Things (IoT) environments is introduced. This system is used to connect IoT nodes regardless of their locations. The proposed system has three different architectures, which are based on satellites and High Altitude Platforms (HAPs). In case of Internet coverage problems, the Internet coverage will be replaced with the Satellite/HAP network coverage under specific restrictions such as loss and delay. According to IoT requirements, the proposed architectures should include multiple levels of satellites or HAPs, or a combination of both, to cover the global Internet things. It was shown that the Satellite/HAP/HAP/Things architecture provides the largest coverage area. A network simulation package, NS2, was used to test the performance of the proposed multilevel architectures. The results indicated that the HAP/HAP/Things architecture has the best end-to-end delay, packet loss, throughput, energy consumption, and handover.

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Section: Handover Measurementmentioning

confidence: 99%