2020•Unpublished venueRequires access

Mars Cube One

Nacer E. Chahat, Emmanuel Decrossas, M. Michael Kobayashi

Open publisher page 3 citations

Abstract

The limited mass and volume available in a CubeSat present a tremendous design challenge. This challenge needed to be solved even before thinking of sending any CubeSat to Deep Space and to enable the first interplanetary CubeSat mission: Mars Cube One (MarCO). This chapter provides detailed information on the antenna development at X-band and UHF that made this mission possible. In order to fill the needs of deep-space communications and navigation for CubeSats and small satellites, the Iris V1 Deep-Space Transponder was developed at the Jet Propulsion Laboratory starting with the interplanetary nanospacecraft pathfinder in relevant environment “first CubeSat to deep space” mission. MarCO essentially communicates at X-band with the DSN stations and all antennas are optimized across the deep-space frequency bands. Before presenting the original deployable UHF antenna, a brief state-of-the-art is presented showing all antenna concepts available in the literature at the time MarCO development started.

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What this paper is about

The limited mass and volume available in a CubeSat present a tremendous design challenge. This challenge needed to be solved even before thinking of sending any CubeSat to Deep Space and to enable the first interplanetary CubeSat mission: Mars Cube One (MarCO). This chapter provides detailed information on the antenna development at X-band and UHF that made this mission possible. In order to fill the needs of deep-space communications and navigation for CubeSats and small satellites, the Iris V1 Deep-Space Transponder was developed at the Jet Propulsion Laboratory starting with the interplanetary nanospacecraft pathfinder in relevant environment “first CubeSat to deep space” mission. MarCO essentially communicates at X-band with the DSN stations and all antennas are optimized across the deep-space frequency bands. Before presenting the original deployable UHF antenna, a brief state-of-the-art is presented showing all antenna concepts available in the literature at the time MarCO development started.

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Available abstract

The limited mass and volume available in a CubeSat present a tremendous design challenge. This challenge needed to be solved even before thinking of sending any CubeSat to Deep Space and to enable the first interplanetary CubeSat mission: Mars Cube One (MarCO). This chapter provides detailed information on the antenna development at X-band and UHF that made this mission possible. In order to fill the needs of deep-space communications and navigation for CubeSats and small satellites, the Iris V1 Deep-Space Transponder was developed at the Jet Propulsion Laboratory starting with the interplanetary nanospacecraft pathfinder in relevant environment “first CubeSat to deep space” mission. MarCO essentially communicates at X-band with the DSN stations and all antennas are optimized across the deep-space frequency bands. Before presenting the original deployable UHF antenna, a brief state-of-the-art is presented showing all antenna concepts available in the literature at the time MarCO development started.

Key concepts: CubeSat, NASA Deep Space Network, Deep space exploration, Interplanetary spaceflight, Mars Exploration Program, Aerospace engineering, Antenna (radio), Computer science

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