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Posted inMicrobiology & Virology, Space Life Science, Space Stations Collecting Microbe Samples Around The Veggie Space Botany facility On ISS by Keith CowingSeptember 14, 2022March 25, 2023
Posted inAstronomy & Telescopes, Exoplanets, -moons, -comets, Imaging & Spectroscopy Global Dynamics And Architecture Of The Kepler-444 System by Keith CowingSeptember 14, 2022September 14, 2022
Posted inAstronomy & Telescopes, Biosignatures & Paleobiology, Exoplanets, -moons, -comets, Imaging & Spectroscopy, Moon OWL-Moon: Very high Resolution Spectropolarimetric Interferometry And Imaging From The Moon: Exoplanets To Cosmology by Keith CowingSeptember 13, 2022September 13, 2022
Posted inAstrochemistry, Comets and Asteroids Modelling The Water And Carbon Dioxide Production Rates Of Comet 67P/Churyumov-Gerasimenko by Keith CowingSeptember 13, 2022December 2, 2023
Posted inExoplanets, -moons, -comets, Habitable Zones Thermal Evolution And Magnetic History Of Rocky Planets by Keith CowingSeptember 13, 2022September 13, 2022
Posted inImaging & Spectroscopy, Tricorders & Sensors Tricorder Tech: Thermal Imaging Lets Researchers See Beyond The Surface of Butterfly Wings by Keith CowingSeptember 13, 2022September 13, 2022
Posted inBiosignatures & Paleobiology, Exoplanets, -moons, -comets, Habitable Zones The Demographics Of Kepler’s Earths And super-Earths Into The Habitable Zone by Keith CowingSeptember 12, 2022September 12, 2022
Posted inAstronomy & Telescopes, Exoplanets, -moons, -comets, Habitable Zones The KOBE experiment: K-dwarfs Orbited By habitable Exoplanets. Project goals, target selection and stellar characterization by Keith CowingSeptember 12, 2022September 12, 2022
Posted inMicrobiology & Virology, Microgravity, Missions & Hardware, Space Life Science, Space Stations Neural Integration System – ISS KIBO Cell Biology Experiment Facility by Keith CowingSeptember 12, 2022
![Temperature domains of water and terrestrial biopolymers at atmospheric pressure. Left: temperature domains of stability and metastability for liquid and glassy water (black) and dynamic transition (red) (11–13). Equilibrium transitions are shown as full lines, kinetically controlled transitions as dashed lines. Right: temperature domains and glass transition for folding of terrestrial biopolymers (blue). Circles indicate proteins (15–19, 27), squares indicate RNA (16, 20–22) and triangles indicate DNA (23–26). Above the glass transition temperature (dashed line) a biopolymer can search for its folded form in an efficient manner. Below the biopolymer glass transition temperature a biopolymer is trapped in a rough energy landscape and will not fold in a biology relevant timescale. The theoretical limits for Tsel and Tf calculated from the average glass transition temperature and formula [4] to [6] are shown as continuous lines. Adapted from (11). -- astro-ph.EP](https://astrobiology.newspackstaging.com/wp-content/uploads/2023/10/Solventconstraints.png)
