Adapting to the microgravity environment of space changes the way your brain interprets sensory signals, decreases muscle strength and alters cardiovascular function. Astronauts will need to overcome these changes to perform critical mission tasks on a journey to Mars. Simple tasks on Earth such as exiting a vehicle becomes more crucial when stepping foot in an unfamiliar world. Maintaining balance control will be key to a successful mission.
Adapting to the microgravity environment of space changes the way your brain interprets sensory signals, decreases muscle strength and alters cardiovascular function. Astronauts will need to overcome these changes to perform critical mission tasks on a journey to Mars. Simple tasks on Earth such as exiting a vehicle becomes more crucial when stepping foot in an unfamiliar world. Maintaining balance control will be key to a successful mission.
NASA’s Human Research Program wants to understand how spaceflight affects human physiological systems and functional performance to help identify the best countermeasures for astronauts in support of future deep space missions. Jacob Bloomberg, Ph.D., senior scientist at the Johnson Space Center, is investigating functional performance and physiological systems to determine how these changes can impact astronauts.
The goal of Bloomberg’s One-Year Mission Functional Task Test investigation is to connect changes in physiological systems like brain, cardiovascular and muscle function to functional performance like obstacle avoidance during walking, ladder climbing and hatch opening. Astronauts are tested before spaceflight and after their return to Earth. Understanding how these changes occur leads to the development of countermeasures.
Read more at NASA/Johnson Space Center
Image: Test Subject Chris Miller maneuvers an obstacle course. This is part of the Functional Task Test that evaluates functional capability of astronauts in the Neuroscience Laboratory at NASA Johnson Space Center. (Credit: NASA)
