Results 191 to 200 of about 1,196,768 (246)

Microgravity‐induced changes in skeletal muscle and possible countermeasures: What we can learn from bed rest and human space studies

Experimental Physiology, Volume 111, Issue 9, Page 4179-4194, 1 September 2026.
Abstract Despite exercise countermeasures to sustain health and performance in spaceflight, complete maintenance of muscle mass and functions in microgravity is still not possible for most astronauts. The principal cause of the limited effectiveness of existing exercise countermeasures is the difficulty in achieving full loading forces in space.
Alessandra Bosutti, Bergita Ganse, Nicola A. Maffiuletti, Rob C. I. Wüst, Gustav J. Strijkers, Andy Sanderson, Hans Degens   +6 more
wiley   +1 more source

Tackling aging and chronic disease: How space exploration and the ‘chameleon effect’ of pharmaceuticals can lead the way

Experimental Physiology, Volume 111, Issue 9, Page 4064-4072, 1 September 2026.
Abstract A common misconception surrounding space exploration is that humanity's pursuit of interplanetary travel, such as missions to Mars, is an escape from Earth. In reality, this endeavour offers an invaluable opportunity to address critical biomedical challenges here at home.
Carina Kern, Tina Woods, Keith Siew
wiley   +1 more source

Blood flow restriction exercise during microgravity exposure in parabolic flight

Experimental Physiology, Volume 111, Issue 9, Page 3928-3935, 1 September 2026.
Abstract This case report evaluates whether it is possible to perform blood flow restriction (BFR) exercise during exposure to microgravity. The objectives were three‐fold: (1) to determine if a personalised tourniquet system (PTS) hardware technology performs nominally and enables BFR exercise in microgravity; (2) to determine if BFR augments the ...
Yannick Laflamme, Etienne Chassé, Luke Hughes   +2 more
wiley   +1 more source

To Mars through LEO: How commercial space travel will change exploration‐enabling research

Experimental Physiology, Volume 111, Issue 9, Page 3884-3889, 1 September 2026.
Christopher Puhl, Michail Magkos
wiley   +1 more source

Blistering barnacles: Space physiology in The Adventures of Tintin

Experimental Physiology, Volume 111, Issue 9, Page 3870-3873, 1 September 2026.
Jacob P. Hartmann, Mathis B. Mottelson, Rasmus H. Dahl, Ronni R. Plovsing, Ronan M. G. Berg   +4 more
wiley   +1 more source

Houston, we have a problem: Coagulation concerns during long‐term spaceflight

Experimental Physiology, Volume 111, Issue 9, Page 3880-3883, 1 September 2026.
Lewis Fall, Damian M. Bailey
wiley   +1 more source

The physiology of survival: Space

Experimental Physiology, Volume 111, Issue 9, Page 3890-3894, 1 September 2026.
Damian M. Bailey, Angelique van Ombergen
wiley   +1 more source

Space physiology: Challenges and solutions for a journey to Mars

Experimental Physiology, Volume 111, Issue 9, Page 3863-3869, 1 September 2026.
Damian M. Bailey
wiley   +1 more source

Geant4 simulation of Lunar-RICheS for human lunar exploration

Geant4 simulation of Lunar-RICheS for human lunar exploration
openaire   +3 more sources

Cryogenics for lunar exploration

Cryogenics, 2006
As part of the refocusing of NASA from Space Station research to exploration research, we are pursuing a number of proposed and funded projects for lunar exploration using cryogenic techniques. This paper gives a summary of these projects which include: (1) Using passive radiative cooling for separation and storage of volatiles from lunar regolith; (2)
Chui, Talso, Zhang, Burt, Barmatz, M., Hahn, Inseob, Penanen, Konstantin, Hays, Charles, Strayer, Donald, Liu, Yuanming, Zhong, Fang, Young, Joseph, Radey, Tom, Jones, Jack, Galitzki, Nicholas, Li, Nixon, Lo, Leyan, Horikoshi, Steven, Hollen, Shawna M., Paik, Ho Jung   +17 more
openaire   +3 more sources