Space Biosciences Research Branch (Code SCR)

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scr
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The principal mission of the Branch is to advance space exploration by achieving new scientific discoveries and technological developments in the biosciences. Relevant research and development issues of the branch include radiation detection and biology, fundamental space biology, and the development of countermeasures to preserve human health in space. Teams of researchers are organized around scientific disciplines critical to NASA’s biosciences missions.

 

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Microgravity and space radiation effects on skeletal health (Globus et al.)

- Research to define risks and mechanisms of skeletal tissue degeneration in space and to develop effective countermeasures if needed.

Radiation Detection Technologies and Biomarkers (Straume et al.)

- Development of small active detectors for Moon, Mars, and beyond.

- Bay-Area Biomarker Consortium focus on markers of individual susceptibility to radiation and other agents.

Effects of Stress Induced by Spaceflight Conditions (Bhattacharya et al.)

- Ground-based & flight experiments using Drosophila (e.g., FIT on STS-121), Volvox, yeast, and other biomodels to study the effect of spaceflight, radiation, extreme environments & altered gravity on microbial virulence changes, and on immunity , development and behavioral changes.

Gravity effects on cellular regeneration (Almeida et al.)

- Both ground based and flight studies using stem cell and newt tail regeneration models of how gravity and the space environment affect stem cell health and regenerative potential.

Gravity effects on vestibular system (Boyle et al.)

- Both ground-based and flight studies using vertebrate and invertebrate experimental systems including collaborative spaceflight experiments with Russians.

Drug Stability in Space and Metabolic Countermeasures (Griko et al.)

- Development of metabolic approaches to reduce damage to radiation and other risk factors in space.

Toxicity of Lunar Dust (Loftus et al.)

- Investigating the health effects of lunar dust - respiratory, dermal, and ocular.

State-of-the-art high- throughput genomics (Stolc et. al.)

-High-density oligonucleotide arrays are produced at NASA Ames by NimbleGen system. Bioinformatics are accomplished using NASA Ames supercomputer resources.

 


fruit flies

Studying space travel with fruit flies

One year from now, in a lab far, far away, a group of fruit flies could unknowingly be helping to make long-term space travel safer.

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AlterG low-gravity treadmill

AlterG™ Anti-Gravity Treadmill Featured on Bloomberg TV

On December 12th, Bloomberg TV released an on-line media feature on the AlterG low-gravity treadmill, highlighting the origination of the technology at NASA Ames. The AlterG, which utilizes a pressurized chamber for the lower body and enables the user to walk or run on an adjustable level to as low as 20% of their body weight.
low-dose radiation

Mice exposed to low-dose radiation show long- lasting changes in cellular proteins

Radiation poses a serious health risk for humans embarking on long- term missions beyond Low Earth Orbit. In order to safely send humans on an exploration mission to Mars, it is important to understand the effects of space radiation on living tissues. Only then can we develop techniques to detect exposure, the risks of damage, and the possibility of recovery.
Erin Weisenhornght ensuring all fruit flies are accounted for and healthy at conclusion of 20G Centrifuge test.

Fruit Fly Experiments Help Prepare Next Generation of NASA Scientists

Today, NASA is conducting one of its most vital missions ever: to prepare a new generation of scientists to help NASA meet the challenges of space travel.

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