Myotendinous and Neuromuscular Adaptation to Long-term Spaceflight (Sarcolab) - 10.12.16
Myotendinous and Neuromuscular Adaptation to Long-term Spaceflight (Sarcolab) investigates the adaptation and deterioration of the soleus, or calf muscle, where it joins the Achilles tendon, which links it to the heel and carries loads from the entire body. Muscle fiber samples are taken from crew members before and after flight, and analyzed for changes in structural and chemical properties. MRI and ultrasound tests and electrode stimulation are conducted to help assess muscle and tendon changes caused by microgravity exposure. Science Results for Everyone
Information Pending Experiment Details
P. Cerretelli, Italy
C. Pérot, France
M. Narici, Italy
F. Canon, France
R. Bottinelli, Italy
C Gelfi, Italy
C. Franceschi, Italy
M. Capri, Italy
M. Flück, United Kingdom
J. Latsch, Germany
C. Maganaris, Greece
Jorn Rittweger, Manchester Metropolitan University, Alsager, United Kingdom
O. Seynnes, United Kingdom
C. Marques, France
D. Gamet, France
S. Boudaoud, France
D. Lambertz, France
F. Goubel, France
A. Minetti, United Kingdom
Carlo Reggiani, Italy
P. Capodaglio, Italy
David L. Costill, Ph.D., Ball State University, Muncie, IN, United States
Scott W. Trappe, Ph.D., Ball State University, Muncie, IN, United States
C L. LeBlanc
Sponsoring Space Agency
European Space Agency (ESA)
ISS Expedition Duration
September 2011 - September 2012; March 2013 - March 2014; September 2016 - February 2017
- Exposure to actual and simulated microgravity is known to lead to loss of muscle mass, function and motor control.
- The first goal of this project is to investigate the myotendinous structural and functional determinants of this phenomenon using an in vivo and in vitro approach. Whole skeletal muscle in vivo (plantarflexors) and in vitro on isolated muscles fibers (of the soleus muscle (SOL) which are most affected by microgravity) will be studied for humans exposed to long-term spaceflight.
- The second goal of this project is to characterize reflex excitability of the dis-used muscles.
By improving the understanding of the mechanisms behind loss of muscle mass in space, we, in turn, can develop more effective countermeasures for the crews, whether pharmacological, dietary or exercise-based in order to alleviate such adverse effects and hence improve/maintain the health and performance of our astronauts in orbit.
By improving the understanding of the mechanisms behind loss of muscle mass in space and developing appropriate and effective countermeasures to any adverse effects, we can also draw conclusions and get insights into certain muscular conditions on Earth. An adaptation of countermeasures originally developed for in-space use by astronauts, or newly developed ground-based countermeasures could be used within rehabilitation of patients affected by such medical conditions.
Operational Requirements and Protocols
Decadal Survey Recommendations
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