The field of human space travel is in the midst of a dramatic revolution. Upcoming missions
are looking to push the boundaries of space travel, with plans to travel for longer distances …

As human space exploration advances to establish a permanent presence beyond the Low
Earth Orbit (LEO) with NASA's Artemis mission, researchers are striving to understand and …

Astronauts returning from spaceflight typically show transient declines in mobility and
balance. Other sensorimotor behaviors and cognitive function have not been investigated as …

Long duration head down tilt bed rest (HDBR) has been widely used as a spaceflight analog
environment to understand the effects of microgravity on human physiology and …

Astronauts experience post-flight disturbances in postural and locomotor control due to
sensorimotor adaptations during spaceflight. These alterations may have adverse …

The altered vestibular signaling and somatosensory unloading of microgravity result in
sensory reweighting and adaptation to conflicting sensory inputs. Aftereffects of these …

Exposure to the spaceflight environment results in profound multi-system physiological
adaptations in which there appears to be substantial inter-individual variability (IV) between …

To properly assess the risk induced by vestibular and sensorimotor adaptation during
exploration missions, we examined how long-duration stays on the International Space …

Background Alterations in motor control systems is an inevitable consequence of space
flights of any duration. After the flight, the crew-members have significant difficulties with …

Astronauts return to Earth from spaceflight missions with impaired mobility and balance;
recovery can last weeks postflight. This is due in large part to the altered vestibular signaling …