
Copernical Team
We could get large amounts of water from the moon by directing the sun at it

One of the most commonly discussed challenges when starting our species' space exploration journey is how to get the resources necessary for life off of the Earth. Typically this is thought of as two things—water and oxygen, but, luckily, oxygen can be supplied by splitting apart a water molecule, so the most critical resource we could find in space is water.
Commonly called a "volatile" in the language of space resources, water has been the focal point of many plans for in-situ resource utilization on the moon, Mars, and elsewhere. Some of those plans have been well thought out, others not. One particular showed some promise when it was selected as part of NASA's Institute for Advanced Concepts (NIAC) funding back in 2019, and here we'll take a closer look at it.
The concept, published in a report titled "Thermal Mining of Ices on Cold Solar System Bodies" but hereafter referred to as "thermal mining," is the brainchild of George Sowers, a space resource expert and Professor of Mechanical Engineering at the Colorado School of Mines (CSM).
The clays of Mawrth Vallis

ESA's Mars Express has revisited an old favourite: the distinctive and fascinating Mawrth Vallis, one of the most promising locations on Mars in our search for signs of life.
Webb sees carbon-rich dust grains in the first billion years of cosmic time

For the first time, the NASA/ESA/CSA James Webb Space Telescope has observed the chemical signature of carbon-rich dust grains at redshift ~ 7 [1], which is roughly equivalent to one billion years after the birth of the Universe [2]. Similar observational signatures have been observed in the much more recent Universe, attributed to complex, carbon-based molecules known as polycyclic aromatic hydrocarbons (PAHs). It is not thought likely, however, that PAHs would have developed within the first billion years of cosmic time.
Replay: Aeolus reentry media briefing

After completing its mission in orbit, ESA’s wind mission Aeolus will soon reenter Earth's atmosphere. Currently orbiting 320 km above, Aeolus is being kept in orbit with its remaining fuel. This fuel is running out, and the satellite will soon succumb to Earth’s atmosphere and gravity.
Going above and beyond what the satellite was technically designed to do, ESA is attempting a first-of-its-kind assisted reentry to reduce the (already very small) risk of damage from any fragments that survive the journey and reach the ground.
ESA held an online media briefing on 19 July 2023 to explain more about this assisted
Urania: muse of gravitational-wave astronomy

Training robots how to learn, make decisions on the fly

Simulating Aeolus's return: mission control feels the heat

How an "AI-tocracy" emerges

PSI's David Grinspoon Appointed to New NASA Post

NASA's IXPE fires up astronomers with new blazar findings
