Bernard Foing

Prof. Dr. Bernard Foing

ILEWG at ESTEC ESA, Keplerlaan 1, 2201 AZ Noordwijk, The Netherlands

Research Focus & Metrics

Academic Career Length

24Years (2003-Present)

(Calculated once Scilit publication data is synced: current year − year of first publication + 1)

Representative Publications

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14 March 2011 in International Journal of Astrobiology
Verified
Journal Article
Closed access
PDF file
Bernard FoingBernard Foing
Bernard Foing
CSC. Stoker
C. Stoker
JZJ. Zavaleta
J. Zavaleta
PEP. Ehrenfreund
P. Ehrenfreund
CTC. Thiel
C. Thiel
GDG.R. Davies
G.R. Davies
We describe the field demonstration of astrobiology instruments and research methods conducted in and from the Mars Desert Research Station (MDRS) in Utah during the EuroGeoMars campaign 2009 coordinated by ILEWG, ESA/ESTEC and NASA Ames, with the contribution of academic partners. We discuss the entire experimental approach from determining the geological context using remote sensing, in situ measurements, sorties with sample collection and characterization, analysis in the field laboratory, to the post sample analysis using advanced laboratory facilities.We present the rationale for terrestrial field campaigns to strengthen astrobiology research and the link between in situ and orbital remote sensing data. These campaigns are supporting the preparation for future missions such as Mars Science Laboratory, ExoMars or Mars Sample Return. We describe the EuroGeoMars 2009 campaign conducted by MDRS crew 76 and 77, focused on the investigation of surface processes in their geological context. Special emphasis was placed on sample collection and pre-screening using in-situ portable instruments. Science investigations included geological and geochemical measurements as well as detection and diagnostic of water, oxidants, organic matter, minerals, volatiles and biota.EuroGeoMars 2009 was an example of a Moon–Mars field research campaign dedicated to the demonstration of astrobiology instruments and a specific methodology of comprehensive measurements from selected sampling sites. We discuss in sequence: the campaign objectives and trade-off based on science, technical or operational constraints. This includes remote sensing data and maps, and geological context; the monitoring of environmental parameters; the geophysical context and mineralogy studies; geology and geomorphology investigations; geochemistry characterization and subsurface studies.We describe sample handling (extraction and collection) methods, and the sample analysis of soils and rocks performed in the MDRS laboratory using close inspection, initial petrological characterization, microscopy, Visible-NIR spectrometry, Raman spectrometry, X-ray diffraction/X-ray fluorescence spectrometry, soil analysis, electrochemical and biological measurements.The results from post-mission analysis of returned samples using advanced facilities in collaborator institutes are described in companion papers in this issue. We present examples of in-situ analysis, and describe an example investigation on the exploration and analysis of endolithic microbial mats (from reconnaissance, in-situ imaging, sampling, local analysis to post-mission sample analysis).

28 April 2011 in International Journal of Astrobiology
Verified
Journal Article
Closed access
PDF file
Bernard FoingBernard Foing
Bernard Foing
CSC. Stoker
C. Stoker
PEP. Ehrenfreund
P. Ehrenfreund
Extreme environments on Earth often provide similar terrain conditions to landing/operation sites on Moon and Mars. Several field campaigns (EuroGeoMars2009 and DOMMEX/ILEWG EuroMoonMars from November 2009 to March 2010) were conducted at the Mars Desert Research Station (MDRS) in Utah. Some of the key astrobiology results are presented in this special issue on ‘Astrobiology field research in Moon/Mars analogue environments’ relevant to investigate the link between geology, minerals, organics and biota. Preliminary results from a multidisciplinary field campaign at Rio Tinto in Spain are presented.


4 March 2021
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Other
Open access
MMMichaela Musilova
Michaela Musilova
Bernard FoingBernard Foing
Bernard Foing
HRHenk Rogers
Henk Rogers
Lava tube exploration has become an important part of discussions relating to the search for life on Mars by both humans and robots. On Mars, lava tubes may contain biosignatures and existing lifeforms. Alternatively, on the Moon, lava tubes may serve as sheltered environments for the construction of human settlements. Nevertheless, lava tubes can also be difficult environments for robotic operations and they can pose a safety hazard to humans as well. It will thus be extremely important to prepare for lava tube exploration by humans and robots in analog environments on Earth. The Hawaii Space Exploration Analog and Simulation (HI-SEAS) habitat is a lunar and Martian analog research station located on the volcano Mauna Loa in Hawaii. The International MoonBase Alliance (IMA) organises missions at HI-SEAS, during which crews of six analog astronauts perform research and technology testing relevant to the exploration of the Moon and Mars. The missions that take place at HI-SEAS can be of varied duration, from several days to several months, depending on the needs of the researchers. They are open to space agencies, organizations and companies worldwide to take part in, provided their research and technology testing will help contribute to the exploration of the Moon and Mars. Since the HI-SEAS habitat is located on lava flows, its surroundings provide valuable access to performing high-fidelity planetary science fieldwork with very little plant or animal life present, and a wide variety of volcanic features to explore, such as lava tubes, channels, and tumuli. This terrain is also ideal for rover and in situ resource utilization (ISRU) testing because of its great similarity to the basaltic terrains on the Moon and Mars. HI-SEAS crews have performed a number of biochemical and geophysical research projects in the lava tubes accessible to them near the habitat. They explored and collected research samples while wearing Extra-vehicular Activity (EVA) analog spacesuits and following strict EVA protocols. These activities are very challenging for the crew, due to the bulky gloves and EVA equipment they have to wear, while performing precise biochemical research that is sensitive to contamination. The crews also have to take into consideration their safety, their limited life support systems during EVAs and a number of other factors relevant to space exploration missions. Further studies will be needed to assess how best to combine scientific goals with human exploration goals during future human missions, which may use lava tubes as a resource as well as a key site for scientific research.

23 March 2020
Verified
Other
Open access
JCJohanna Chappuis
Johanna Chappuis
CPCharlotte Pouwels
Charlotte Pouwels
MMMichaela Musilova
Michaela Musilova
Bernard FoingBernard Foing
Bernard Foing
Astronaut nutrition is an important aspect to consider for extra-terrestrial missions. It encompasses microbiological risks for humans, individual nutritional needs and the social well-being of astronauts. During a two-week analogue astronaut mission to the Moon, research focusing on the dietary needs and health of each crew member was performed. A crew of six analog astronauts, from the EuroMoonMars IMA HI-SEAS II (EMMIHS-II) mission followed a pre-prepared personal menu based on their intolerances and daily activities. The first things that needed to be considered was the sanitary aspect of the missions, as it severely limits food choices. Fresh foods that are consumed on Earth are microbiologically fragile and occupy an important conservation space air. In order to ensure food safety and optimize storage space, the only food taken on the EMMIHS-II mission was freezedried.Prior to the mission, the food rations and distribution amongst crewmembers was determined according to the average nutritional and calorific needs of the group. To maintain a basal metabolism, a balanced nutrition is required. A healthy and sufficient food intake is of high importance, particularly due to the regular physical activity each crewmember performs during Extra Vehicular Activities (EVAs) that the crew performed daily.It was not possible to determine the actual amount of energy consumed on a daily basis during this mission for logistical reasons. It was also not possible to weigh out the food for each individual crewmember, as it would have taken up too much of the mission time. In the future, portions could be determined in terms of “cup sizes” per person, as this would be the most realistic measure for the preparation of freeze-dried food. Furthermore, various digestive problems have been identified throughout this mission. Possible explanations for these issues could be a too abrupt change of eating habits including the lack of consumption of fresh fruits, fresh vegetables and the lack of fiber-rich cereals. In order to avoid this on future missions, the next strategy could be to first estimate the dietary intake of vegetable fibre for each individual before the mission start, in order to individually adapt the fruit and vegetable ration recommendations.A diverse distribution of culinary recipes is also recommended for the preparation of future missions, in order to improve the taste of the meals for the crew. Taste is an important part of the pleasure of eating and as a result, it heavily influences the intake of food. This inevitably has an effect on the physical and mental well-being of the crew.Finally, the social and psychological aspect of food plays an important role in the mental well-being of the astronauts. In this context, it was found that the food preparation and meal-sharing moments enabled the team to strengthen their social ties, which was in favour of their fulfilment. However, on the other hand, pleasure from eating and each crewmembers’ appetite did often not correspond to this. Hence, it was found that the freezedried food did not contribute to the emotional wellbeing of the astronauts.

8 October 2020
Verified
Conference Paper
Open access
Bernard FoingBernard Foing
Bernard Foing
I2ILEWG EuroMoonMars Core Team 2018-2020
ILEWG EuroMoonMars Core Team 2018-2020
The EuroMoonMars Programme started in 2009 by ILEWG, ESA ESTEC, NASA, VU Amsterdam and supported by various space agencies, universities and academic or industrial partners has to bring together : space science and astronomy, Earth and planetary sciences and biology, technology, field work campaigns in extreme environments, resource utilisation and economy, human factors, international cooperation. Space and society, bridging to Arts and social sciences through the ArtMoonMars initiative. We shall describe how EuroMoonMars can contribute to European astronomy and space science: public and political engagement education in areas of education, research, innovation, culture, youth and sport policies, and industry, digital single market, space and safety, policies . The International Lunar Exploration Working Group (ILEWG) is a public forum sponsored by the world's space agencies to support "international cooperation towards a world strategy for the exploration and utilization of the Moon - our natural satellite" (International Lunar Workshop, Beatenberg (CH), June 1994). ILEWG was founded by several space agencies: ASA, ASI, BNSC, CNES, DARA, ESA, ISAS, NASA, NASDA, RSA. ILEWG has been organising since 1994 the ICEUM International Conferences on Exploration & Utilisation of the Moon with published proceedings, and where community declarations have been prepared and endorsed by community participants. ILEWG has co-organised and co-sponsored lunar sessions at EGU, COSPAR, EPSC. Declarations from ICEUM conferences  cover all aspects of science, technology, cooperation, industry, society and inspiration. ICEUM13 took place together with COSPAR in Pasadena in 2018, and ICEUM14 with EPSC-DPS in Geneva in 2019. Next ICEUM15 is to take place with COSPAR B/PEX symposia (co-chairs: C. Pieters, B. Foing, G. Schmidt, C. Heinicke), in Sydney in January 2021. ILEWG founded in 2009 the EuroMoonMars initiative, which comprises field campaigns in Moon-Mars analogue environments.The EuroMoonMars field campaigns have been organised in specific locations of technical, scientific and exploration interest. The campaigns started with EuroGeoMars2009 (Utah MDRS, 24 Jan-1 Mar 2009) with ILEWG, ESA ESTEC, NASA Ames, VU Amsterdam and GWU and continued yearly at MDRS and other extreme field sites on Earth. The EuroMoonMars campaigns consist of research activities for data analysis, instruments tests and development, field tests in Moon-Mars analogues, pilot projects, training and hands-on workshops and outreach activities. In 2019 ILEWG contributed to IgLuna first ESA Lab inter-University demonstrator project,  hosted by the Swiss Space Centre (SSC) with the vision to create an analogue habitat inside lunar ice caps. The campaigns were held from 17–30 June 2019 and involved 18 student teams from 9 countries across Europe. The students developed modular demonstrators and tested them during a field test conducted inside the moon-like extreme environment of the Glacier Palace inside the Zermatt Matterhorn glacier. Currently, ILEWG is collaborating with the International Moonbase Alliance (IMA)] and the Hawaii Space Exploration Analog and Simulation (HI-SEAS) on a series of EuroMoonMars, IMA and HI-SEAS (EMMIHS) campaigns, at the HI-SEAS analogue facilities in Hawaii. ArtMoonMars, Moon Village & ITACCUS (IAF ITACCUS Committee on Socio Cultural Utilisation of Space) activities were performed, with emphasis on events and workshops. The Moon Village is an open concept proposed with the goal of a sustainable human and robotic presence on the lunar surface as an ensemble where multiple users can carry out multiple activities. We want to involve everybody including Socio cultural and Artistic aspects. Why ArtMoonMars? Artists can convey multiple messages of the community including planetary science, life sciences, astronomy, fundamental research, resources utilisation, human spaceflight, peaceful cooperation, economical development, inspiration, training & capacity building. References https://en.wikipedia.org/wiki/International_Lunar_Exploration_Working_Group