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Developing strategies for automated remote plant production systems: Environmental control and monitoring of the Arthur Clarke Mars Greenhouse in the Canadian High Arctic
Authors:M Bamsey  A Berinstain  T Graham  P Neron  R Giroux  S Braham  R Ferl  A-L Paul  M Dixon
Institution:1. Canadian Space Agency, Space Science, 6767 route de l’aeroport, St-Hubert, Que., Canada J3Y 8Y9;2. University of Guelph, Dept. of Environmental Biology, 50 Stone Road East, Guelph, Ont., Canada N1G 2W1;3. PolyLAB, 515 West Hasting Street, Simon Fraser University, Vancouver, BC, Canada V6B 5K3;4. Mars Institute, NASA Research Park, Bldg 19 – Suite 2047, Moffett Field, CA 94035, USA;5. University of Florida, Horticultural Sciences, Gainesville, FL 32601-0600, USA
Abstract:The Arthur Clarke Mars Greenhouse is a unique research facility dedicated to the study of greenhouse engineering and autonomous functionality under extreme operational conditions, in preparation for extraterrestrial biologically-based life support systems. The Arthur Clarke Mars Greenhouse is located at the Haughton Mars Project Research Station on Devon Island in the Canadian High Arctic. The greenhouse has been operational since 2002. Over recent years the greenhouse has served as a controlled environment facility for conducting scientific and operationally relevant plant growth investigations in an extreme environment. Since 2005 the greenhouse has seen the deployment of a refined nutrient control system, an improved imaging system capable of remote assessment of basic plant health parameters, more robust communication and power systems as well as the implementation of a distributed data acquisition system. Though several other Arctic greenhouses exist, the Arthur Clarke Mars Greenhouse is distinct in that the focus is on autonomous operation as opposed to strictly plant production. Remote control and autonomous operational experience has applications both terrestrially in production greenhouses and extraterrestrially where future long duration Moon/Mars missions will utilize biological life support systems to close the air, food and water loops. Minimizing crew time is an important goal for any space-based system. The experience gained through the remote operation of the Arthur Clarke Mars Greenhouse is providing the experience necessary to optimize future plant production systems and minimize crew time requirements. Internal greenhouse environmental data shows that the fall growth season (July–September) provides an average photosynthetic photon flux of 161.09 μmol m−2 s−1 (August) and 76.76 μmol m−2 s−1 (September) with approximately a 24 h photoperiod. The spring growth season provides an average of 327.51 μmol m−2 s−1 (May) and 339.32 μmol m−2 s−1 (June) demonstrating that even at high latitudes adequate light is available for crop growth during 4–5 months of the year. The Canadian Space Agency Development Greenhouse now operational] serves as a test-bed for evaluating new systems prior to deployment in the Arthur Clarke Mars Greenhouse. This greenhouse is also used as a venue for public outreach relating to biological life support research and its corresponding terrestrial spin-offs.
Keywords:Advanced life support  Biological life support  Greenhouse  Plant production  Autonomous operation  Space analogue
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