Adaptive Multi-Layered Non-Terrestrial Network for Deep Learning-Enhanced Global Connectivity

This paper presents the Adaptive Deep Learning-Enhanced Non-Terrestrial Network (ADL-NTN), an innovative framework that combines satellites, High Altitude Platform Stations (HAPS), and Unmanned Aerial Vehicles (UAVs). By integrating Free-Space Op- tical (FSO) and Radio Frequency (RF) communications optimised for different altitudes, this architecture aims to improve connectivity in remote and disaster-affected regions. The ADL-NTN employs deep learning algorithms for dynamic power distribution and link opti- misation, significantly enhancing the network’s robustness and adaptability to environmen- tal conditions and varying demands. Simulations conducted in OMNeT++ demonstrate substantial improvements, with throughput increasing by up to 37% and latency decreas- ing by 42%, surpassing traditional NTN systems. The ADL-NTN architecture exhibits exceptional resilience, ensuring high-quality service delivery under diverse conditions. This research sets the stage for integrating future communication technologies and expanding the framework for global implementation. The ADL-NTN offers groundbreaking solutions for enhancing rural connectivity and providing rapid disaster response, significantly con- tributing to global digital inclusion

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Publication Details

Journal
Kalpa publications in computing
Published
2024-10-17
DOI
https://doi.org/10.29007/l5lc
Primary Topic
Energy Efficient Wireless Sensor Networks
Type
article
Field-Weighted Citation Impact
0.00
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article

Adaptive Multi-Layered Non-Terrestrial Network for Deep Learning-Enhanced Global Connectivity

Zohaib Khan, Junaid Hussain Muzamal, Okechukwu Clement Agomuo, Osei Wusu Brempong
Kalpa publications in computing
Energy Efficient Wireless Sensor Networks
article

Adaptive Multi-Layered Non-Terrestrial Network for Deep Learning-Enhanced Global Connectivity

Zohaib Khan, Junaid Hussain Muzamal, Okechukwu Clement Agomuo, Osei Wusu Brempong
article en

Abstract

This paper presents the Adaptive Deep Learning-Enhanced Non-Terrestrial Network (ADL-NTN), an innovative framework that combines satellites, High Altitude Platform Stations (HAPS), and Unmanned Aerial Vehicles (UAVs). By integrating Free-Space Op- tical (FSO) and Radio Frequency (RF) communications optimised for different altitudes, this architecture aims to improve connectivity in remote and disaster-affected regions. The ADL-NTN employs deep learning algorithms for dynamic power distribution and link opti- misation, significantly enhancing the network’s robustness and adaptability to environmen- tal conditions and varying demands. Simulations conducted in OMNeT++ demonstrate substantial improvements, with throughput increasing by up to 37% and latency decreas- ing by 42%, surpassing traditional NTN systems. The ADL-NTN architecture exhibits exceptional resilience, ensuring high-quality service delivery under diverse conditions. This research sets the stage for integrating future communication technologies and expanding the framework for global implementation. The ADL-NTN offers groundbreaking solutions for enhancing rural connectivity and providing rapid disaster response, significantly con- tributing to global digital inclusion

Kalpa publications in computingVol. 20
Openalex Percentile: Top 80%
Energy Efficient Wireless Sensor Networks
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Adaptive Multi-Layered Non-Terrestrial Network for Deep Learning-Enhanced Global Connectivity — Zohaib Khan, Junaid Hussain Muzamal, et al. · Kalpa publications in computing (2024) | TGRS Research Map | TGRS