EDEN ISS
Ground Demonstration of Plant Cultivation Technologies and Operation in Space
Space
The aim of EDEN ISS is to identify operation procedures for safe food production in space through adaptation, integration and demonstration of higher plant cultivation techniques.
The basic idea of EDEN ISS is to the develop an ISPR (International Standard Payload Rack)-like system for food production, integrating a controlled agricultural environment characterized by constraints which are analogue to those related to the use of the system in Space and test it on Earth.
EDEN ISS combines the disciplines of plant physiology, biochemistry and mathematical modeling with the design of key electrical and mechanical elements.
The development of an ISPR based higher plants cultivation system with a production area of 1 m2 is ambitious and challenging task. The real-time detection of microbiological contamination and the specific decontamination depending on the type and level on contamination supports the mid-term sustainability of the plants in the green house and represents a substantial step towards a reliable "food production" in orbit.
Participant in the facility design CE-study | Responsible for thermal fluid dynamics and environmental simulations | Performer of detailed CFD simulations of the environmental control
DLR German Aerospace Center, Germany | LIQUIFER Systems Group, Austria | National Research Council, Italy | University of Guelph, Canada | Alfred Wegener Institute for Polar and Marine Research, Germany | Enginsoft S.p.A., Italy | Airbus Defence and Space, Germany | Thales Alenia Space Italia S.p.A., Italy | Arescosmo S.p.A., Italy | Wageningen University and Research, the Netherlands | Heliospectra AB, Sweden | Limerick Institute of Technology, Ireland | Telespazio S.p.A., Italy | University of Florida, USA | Scientific Advisory Board (SAB)
Funding Scheme Horizon2020 | Call identifier H2020-COMPET-7-2014
42 months
March 2015 – September 2018
DLR
Lorenzo Bucchieri
13
Some of our competences in research and technology transfer
Research project
The GAP Project’s innovativeness lies in the development of innovative metallic materials with multi-sector application potential, increased by experimentation with new specific technologies (e.g. the use of ceramic cores for die-casting, surface treatments, and joining techniques).
Research project
The overall objective of the RaRe2 project is to create a flexible and resilient Holistic Ecosystem Platform powered by the interactions of many European organizations interested in cooperating in the rapid reconfiguration of process chains through collaborative systems and adaptive workforce up-skilling.
Research project
The MAIPCO project concerns defect analysis in the production of complex composite components in the aeronautical sector and has developed new methodologies to reduce these defects.