Reduced 60%
no it can not be reduced.... :)
No it cannot be reduced
It cannot be reduced
1/16 cannot be reduced. In fact, no unit fraction can be reduced.
effects that prolonged time in microgravily
In microgravity, the density of an object remains the same. However, the apparent weight of the object is reduced because there is no gravitational force acting on it, giving the impression of weightlessness.
A microgravity environment is a condition in which objects appear to be weightless and experience very low gravitational forces, typically occurring in space. This state is often achieved during spaceflight or in free-fall scenarios, like during parabolic flights or in orbit around Earth. In microgravity, the effects of gravity are significantly reduced, allowing researchers to study phenomena that are not possible under normal gravitational conditions, such as fluid dynamics, combustion, and biological processes.
they adapt to the gravity and your reduced wait, so therefore can carry less weight and become weaker
Scientists send a variety of items to the International Space Station to test the effects of microgravity, including plant seeds, bacteria, cells, and even small animals like mice. These experiments help researchers understand how living organisms respond to space conditions and how microgravity affects biological systems.
Carlos M. Grodsinsky has written: 'Microgravity vibration isolation technology' -- subject(s): Reduced gravity environments, Vibration (Aeronautics) 'Nonintrusive inertial vibration isolation technology for microgravity space experiments' -- subject(s): Vibration isolators, Microgravity, Space shuttles, Spaceborne experiments
Microgravity (the very low gravity found in orbit) is insufficient to prevent loss of bone structure during a long period of time in space. One way to compensate is by stressing the skeleton through vigorous exercise.
excersising 2 hours a day
Microgravity significantly impacts space travel by altering the physical and biological processes of astronauts and spacecraft. In microgravity, fluids behave differently, which can affect systems like fuel management and life support. Additionally, prolonged exposure to microgravity can lead to muscle atrophy, bone density loss, and changes in vision for astronauts. These effects necessitate careful planning for long-duration missions and require countermeasures to maintain astronaut health and mission success.
Astronauts and cosmonauts combat the degenerative effects of microgravity on the International Space Station (ISS) through a rigorous exercise regimen, typically involving two hours of physical activity daily using specialized equipment like treadmills, resistance machines, and stationary bikes. They also follow a balanced diet to ensure proper nutrition and maintain muscle mass and bone density. Additionally, researchers study the effects of microgravity and develop countermeasures, such as medications and nutritional supplements, to further mitigate these impacts on their health.
findings can be ussed to help the aging live healthier & live more active lives
if you toss a coin in the air you are subjecting that coin to microgravity. When an experiment is in a NASA Glenn Research Center drop tower, the experiment is subjected to microgravity for about 2 or 5 seconds. When experiments and/or people are flown on a parabolic-trajectory aircraft, they experience a microgravity environment also. When astronauts, cosmonauts, and experiments are on the Int'l Space Station, they also experience a microgravity environment. All three effects are due to a condition of free fall, where the only significant force upon the person or experiment is gravity. The only real difference between the three conditions is the horizontal velocity and altitude.