Location
West Lafayette, Indiana
Abstract
University students routinely design and launch small satellites into space, giving students the opportunity to gain experience in a wide variety of STEM disciplines. This paper describes work in progress on one such project, “MagnITO-Sat,” which consists of two picosatellites connected by a conductive tether. The ultimate aim of the tether is to provide electrodynamic thrust generation and power generation. This project will test three major components of the system: 1) the tether deployment mechanism; 2) the high-voltage biasing to enable current flow through a “phantom loop” formed by the conductive tether and the ionosphere; and 3) an optical (near-infrared) link that provides communication between the two picosatellites. A Globalstar radio transmits data and measurements to the ground.
DOI
10.5703/1288284316842
Recommended Citation
Bauson, William A., "Tethered Picosatellites: A First Step towards Electrodynamic Orbital Control and Power Generation" (2018). ASEE IL-IN Section Conference. 1.
https://docs.lib.purdue.edu/aseeil-insectionconference/2018/tech/1
Tethered Picosatellites: A First Step towards Electrodynamic Orbital Control and Power Generation
West Lafayette, Indiana
University students routinely design and launch small satellites into space, giving students the opportunity to gain experience in a wide variety of STEM disciplines. This paper describes work in progress on one such project, “MagnITO-Sat,” which consists of two picosatellites connected by a conductive tether. The ultimate aim of the tether is to provide electrodynamic thrust generation and power generation. This project will test three major components of the system: 1) the tether deployment mechanism; 2) the high-voltage biasing to enable current flow through a “phantom loop” formed by the conductive tether and the ionosphere; and 3) an optical (near-infrared) link that provides communication between the two picosatellites. A Globalstar radio transmits data and measurements to the ground.
