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Search results for “International Space Station”

1,000+ results for "International Space Station"

Why don't fish freeze to death in icy water?

Researchers from Hokkaido University conducted microgravity experiments on the International Space Station to measure ice crystal growth rates. They found that glycoproteins in fish blood facilitate growth, but also lead to a slowing effect when flat faces are truncated by slower-growing faces.

SourceHokkaido University·JournalScientific Reports·DateApr 17, 2017

Cells adapt ultra-rapidly to zero gravity

Researchers found that mammalian cells can respond to changes in gravitational conditions extremely quickly, recovering full function within 42 seconds. This rapid adaptation challenges previous assumptions about cell behavior in space, providing good news for manned space flight.

SourceUniversity of Zurich·JournalScientific Reports·DateFeb 28, 2017

Home is where the astronaut is

The study investigates changes in perceptions about home in space and the development of a unique culture among astronauts. Researchers found that a shared space culture can help crew members respond to different situations, reducing stress and improving morale.

One giant leap for space robotics

A new UK-RAS Network white paper led by Professor Yang Gao showcases the future of space robotics, predicting autonomous robots will replicate insects, birds, animals, and even humans on future missions. The report highlights technological advancements with applications in sectors like healthcare, mining, agriculture, and more.

Tiny microchips enable extreme science

The tiny radiation-resistant chips play a crucial role in the Jupiter Energetic Particle Detector Instrument (JEDI), measuring particle speed, energy, and position with time accuracy down to a fraction of a billionth of a second. Without these microchips, satellite electronics would be much heavier and require more shielding and power.

Outsourcing crystal growth...to space

Japanese researchers grew protein crystals in space using interferometry to measure growth rate and dissolution properties. The results showed an increased growth rate despite expected suppression of solution convection, which may be due to suppressed transport speed of impurity molecules.

SourceAmerican Institute of Physics·JournalReview of Scientific Instruments·DateMar 15, 2016

May the capillary force be with you

Researchers at Washington State University are developing a computer model and designs for improved liquid transport systems using capillary forces to move liquids through narrow spaces in space. By studying the effects of viscosity in microgravity, they aim to conserve energy and enable longer space missions.