Halley Research Station as a platform for testing space flight missions
- Start date
- 1 January, 2015
The remoteness and winter isolation of communities working in Antarctica provide an excellent environment for research into human behaviour, performance, health and well being. Many studies of overwintering staff in Antarctica have been carried out at BAS research stations in partnership with the BAS Medical Unit (BASMU) based at Plymouth Hospitals NHS.
Using Antarctica as a ‘platform’ for simulating certain aspects of a manned spaceflight mission, this project, involving BAS, BASMU and the European Space Agency (ESA) will investigate how living in an isolated community during 24-hour winter darkness affects the health of Halley staff and their and ability to perform specific problem-solving functions. The isolation and darkness at Antarctic research stations during winter is similar to what astronauts might experience during a long-term space flight to the moon, Mars and beyond.
The four components of this project are:
SIMSKILL space flight simulator
Teams are using a cockpit simulator – modelled on the Russian spacecraft Soyuz for training astronauts in the virtual docking to the international space station ISS – to test how skills are maintained over long periods of darkness and isolation.
Astronauts on long missions in space need to pilot their spacecraft and conduct complex operations months or even years after their training on Earth. On the International Space Station, astronauts periodically take refresher courses for critical tasks such as berthing cargo spacecraft. For astronauts returning from Mars, mission designers need to know that they will be able to perform after months of isolation and stressful exploration. The SIMSKILL experiment uses spacecraft simulators in Antarctica to see how the wintering crew copes over the course of their stay.
Eyes on Ice
This element of the research project is investigated the potential changes in eye function and health under influence of either constant light or constant darkness. It exploried if additional light and medicine can influence the body’s natural clock and enable regular sleep/wake patterns. Experiments study how the eye’s pupil reacts to different flashes of light after a prolonged period of light or dark and also monitors how physical activity affects the rest-wake cycle by the wearing of special watches. Read the research paper: Impact of long-term daylight deprivation on retinal light sensitivity, circadian rhythms and sleep during the Antarctic winter
So far, sleep disturbances remain the most common complaints with regard to health and well-being in extreme environments, especially in the polar regions. This research is taking place at a network of Antarctic stations across the continent to look at why the constant light and dark affects sleep patterns so dramatically. Measurements of melatonin, cortisol and an individual’s mood (through questionnaires) can build up a picture of what affects poor sleep patterns and how it can be counteracted.
Computerised Analysis of Language
The study of an individual’s voice can reveal their well-being
. Using weekly recorded video-diaries and read-aloud standardized texts, the Halley doctor is undertaking research to determine an individuals’ well-being through the physical characteristics of their voice. This monitoring was developed within the Russian space programme to overcome the issue that cosmonauts/astronauts would never willingly report a reduction in their psychological well-being and performance. The recordings are compared with those from Concordia to quantify the effects of hypoxia.
This medical research aims to
- investigate the potential changes in health including stress, sleep patterns and eye function under influence of either constant light or constant darkness
- investigate the development of piloting skills over time in isolation conditions to assist with the planning of future manned missions to Mars and beyond
- use a space flight simulator to test whether or not they are still able to safely and correctly control the spacecraft at the end of a long period of darkness and isolation.
- get a detailed understanding of if and how quickly the ‘astronauts’ might lose the ability to perform certain tasks which they have previously learned in training, but don’t practice on a regular basis. and to enhance this understanding by explicitly investigating the effects which isolation and hypoxia might have on the degradation rate of piloting skills
- train the crews of the stations to use a cockpit simulator of the Russian spacecraft Soyuz for the virtual docking to the international space station ISS
- include a control group study at the University of Stuttgart to follow a training routine that is similar to the training on the Antarctic stations – however, without the isolation conditions or changed atmosphere. Meaning: The participants in Stuttgart will continue to life their normal lives
- Compare the flight performance of the different experiment groups across Antarctica and in Europe to determine whether there are any differences in performance
Professor Dr Ernst Messerschmid, University of Stuttgart. Principle Investigator
Professor Dr Fabio Ferlazzo, University of Rome
Mr Pete Marquis, BAS Medical Unit
Dr Nathalie Pattyn, BAS Medical Unit
2 November, 2018
Medical research in Antarctica
8 June, 2016
An exhibition showing how the isolation of Antarctica is used as a platform for understanding space opens this week (7-12 June) at The Times Science Festival in Cheltenham.
2 March, 2015
Research for human space flight