## 7 Conclusions  
Looking forward, we propose several avenues for future development to further enhance the capabilities and applicability of our system. We plan to develop a sophisticated computer program to automate data and message processing fully, allowing users to manage communications with a single click from any location worldwide. Additionally, we aim to improve SWARM devices by incorporating advanced measurement hardware, which will enhance data collection speed and accuracy. These advancements will contribute to a more streamlined and effective system, better suited to meet the diverse needs of users in remote and extreme environments. The importance of stable and efficient communication systems for Arctic and other remote regions cannot be overstated. These areas are critical for scientific research, including climate monitoring, wildlife tracking, and geophysical studies, all of which have global implications. Additionally, reliable communication supports commercial activities, disaster response, and the safety of isolated communities. Current limitations, such as bandwidth restrictions, latency, and cost, underscore the need for innovative solutions like satellite-based IoT networks. While our research demonstrates significant progress, it also highlights the challenges of achieving truly seamless connectivity in such harsh environments. Ultimately, this study represents a small but vital step toward achieving global connectivity. By addressing the unique demands of remote areas, it not only furthers technological advancements but also fosters inclusivity in communication access. Our findings lay the groundwork for future research and development, ensuring that even the most isolated regions can benefit from the transformative power of modern communication systems. Continued innovation in this field has the potential to unlock new possibilities for both scientific discovery and humanitarian efforts in these regions, underscoring the need for sustained investment and collaboration. Conceptualization, A.Y. and P.F. ; methodology, A.Y. ; software, A.Y. ; validation, A.Y. and P.F. ; formal analysis, A.Y. ; investigation, A.Y. ; resources, P.F. ; data curation, A.Y. ; writing--original draft preparation, A.Y. ; writing--review and editing, A.Y. ; visualization, A.Y. ; supervision, P.F. ; project administration, P.F. ; funding acquisition, P.F. All authors have read and agreed to the published version of the manuscript. This research was funded by University of Manitoba award number 26324. Not applicable. Data Availability Statement: Data available on request due to restrictions privacy or ethical. The authors declare no conflicts of interest. The following abbreviations are used in this manuscript: \begin{tabular}{l l} AWS & Amazon Web Services \\ API & Application Programming Interface \\ LEO & low Earth orbiting \\ HF & High Frequency \\ GPS & Global Positioning System \\ UFL & Ultra-Flange Connector \\ SMA & Sub Miniature version A connector \\ VNF & Virtual Network Functions \\ Dev 1 & SWARM Device Number One \\ Dev 2 & SWARM Device Number Two \\ HIVE & Sustainable Distributed Cloud Infrastructure \\ REST & Representational State Transfer \\ POST & HTTP method \\ HTTP & Hypertext Transfer Protocol \\ Amazon S3 & Amazon Simple Storage Service \\ ASCII & American Standard Code for Information Interchange \\ IoRT & Internet of Remote Things \\ VDES & VHF Data Exchange System \\ \end{tabular}   
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