Facilitating Spectrum Sharing With Passive Satellite Incumbents
2024-12-01·
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0 min read
Dr. Jonathan Chamberlain
David Starobinski
Joel T. Johnson
Abstract
Space-Air-Ground Integrated Networks will facilitate seamless user experiences across a variety of 6G applications. The deployment of these networks will necessitate new approaches to spectrum allocation. Spectrum access by passive microwave sensors for earth-based and space-based scientific applications represents a spectrum use application having unique attributes that motivate consideration of spectrum sharing between these ``incumbents’’ and commercial users to ensure the most efficient utilization of available frequencies across applications. Toward this end, we propose an economic framework where incumbents have priority use, with a primary and secondary commercial tier underneath. For commercial users, the option to join the primary tier is based on a model of short term post-paid leases of spectrum, while the secondary tier is available to join at no cost. Using a joint game-theoretic and queuing-theoretic model, we find that for practical parameters the revenue maximizing equilibrium is’:’ i) stable in the Evolutionary Stable Strategy sense; ii) associated with the maximum priority upgrade fee customers are willing to pay; iii) associated with an equilibrium where all customers wish to join the priority class; and iv) socially optimal. We validate our findings leveraging trace data from satellite radiometers operating in the vicinity of Boston, Massachusetts.
Type
Publication
IEEE Journal on Selected Areas in Communications
Spectrum Management and Engineering
Integrated Communications
Scheduling of Communication
Network Economics
Game Theory

Authors
Dr. Jonathan Chamberlain
(he/him)
Unaffiliated Researcher
As a Graduate Research Fellow with BU NISLAB, I published a number of papers, including a paper in collaboration with the Ohio State ElectroScience Laboratory stablishing the economic feasibility of sharing for wholesale commercial markets yielding priority to mission critical Earth Exploration Satellite Service-passive (EESS-passive) radiometers which received the Runner-Up accolade for Best Paper on the Policy Track at IEEE DySpan 2024. I was also actively involved in multiple service roles, including serving on the executive board of the Boston University Student Association of Graduate Engineers in various roles, membering on an advisory committee providing feedback for university initiatives and proposed policy updates to the Associate Provost for Graduate Affairs, and co-organized the 10th and 11th editions of the BU Center for Information and Systems Engineering Graduate Student Workshops in 2024 and 2025. For these efforts, as well as my work mentoring students both within the NISLAB and in other projects as well as my published research, I was recognized with the BU ECE Department Doctoral Acheivement Award for the 2024-25 academic year. I additionally had the privilege of participating in the 2025 NSF NeTS Early Career Investigators workshop.