Hydro powered spacecraft to be the first to mine an astroid.
A few months back, Luxembourg—a tiny country better known for world-class pastries— announced its intention to become a leader in asteroid mining. Now, Luxembourg has revealed the first step in its plan to fill the banking vaults with space-grade platinum: a small, water-powered spacecraft.
http://gizmodo.com/luxembourg-wants-to-be-a-world-leader-in-…1756860361
Still trying to figure out how Luxembourg got a space program.
(AFP) Luxembourg has staked its claim to the final frontier with an ambitious plan to profit from the mining of asteroids, the government said Thursday.
The Grand Duchy has joined forces with American company Deep Space Industries (DSI) to cash in on the wealth of natural resources thought to exist on asteroids.
The two have inked an agreement that will pave the way for Luxembourg to partly fund DSI’s plans to probe nearby asteroids for mineral riches using “nano” spaceships.
Deep Space Industries, the asteroid mining company, has signed a Memorandum of Understanding with the Luxembourg Government to co-fund the development and launch of DSI’s first spacecraft. Known as Prospector-X, the small spacecraft will test key technologies in Low Earth Orbit that will be necessary for future asteroid prospecting.
1st P-band radar in space will measure the amount of biomass and carbon locked in the world’s forests and how this changes over time — Biomass satellite will provide support to United Nations treaties, notably the Reduction of Emissions due to Deforestation and Forest Degradation
Airbus Defence and Space, the world’s second largest space company has signed a contract with the European Space Agency (ESA) to build its next Earth Explorer mission, the Biomass satellite. Biomass is due to launch in 2021 and will measure forest biomass to assess terrestrial carbon stocks and fluxes for five years.
The spacecraft will carry the first space-borne P-band synthetic aperture radar to deliver exceptionally accurate maps of tropical, temperate and boreal forest biomass that are not obtainable by ground measurement techniques. The mission will collect frequent information on global forests to determine the distribution of above-ground biomass in these forests and measure annual changes. The 5-year mission will see at least eight growth cycles in the worlds’ forests.
Comets are more complicated than ever imagined and even after ESA’s spectacularly successful mission to 67P, researchers are still debating whether they delivered most of the water to Earth and whether they helped jumpstart life here on terra firma.
The European Space Agency’s (ESA) Rosetta mission to the comet 67P/Churyumov-Gerasimenko has arguably given planetary scientists the best new cometary data in a generation. Although the mission’s Philae lander has long ceased communication from the comet’s surface, the Rosetta spacecraft will continue operations until September when it makes a final touchdown on 67P’s surface. As I noted here previously, at that point, Rosetta will be so far from the Sun it will be on the verge of exhausting all its power.
But next month, researchers will meet at The Royal Society in London to discuss the data and the direction cometary science should take in this post-Rosetta era.
Here are a few takeaways from the mission.
The odds are now better than ever that future explorers, both robotic and human, will be able to take samples of the lunar’s hidden interior in deep impact basins like Crisium and Moscoviense. This gives planners more options on where to embed the first science colony.
Finding and sampling the Moon’s ancient interior mantle — one of the science drivers for sending robotic spacecraft and future NASA astronauts to the Moon’s South Pole Aitken basin — is just as likely achievable at similar deep impact basins scattered around the lunar surface.
At least that’s the view reached by planetary scientists who have been analyzing the most recent data from NASA’s Gravity Recovery And Interior Laboratory (GRAIL) and its Lunar Reconnaissance Orbiter (LRO) missions as well as from Japan’s SELENE (Kaguya) lunar orbiter.
The consensus is that the lunar crust is actually thinner than previously thought.
SpaceX has just published a stunning 360-degree video of its most recent feat: landing the first stage of the Falcon 9 rocket on a drone ship in the ocean. If you ever wanted feel like you’re standing under a spaceship that’s landing without the awful side effect of being burned to shreds, here’s your chance.
To be honest, we thought we had seen every angle of this historic moment by this point. We watched it happen live. We watched it in 4K. We saw photos that were taken from just about every conceivable and terrifying angle.
But SpaceX has never released a 360-degree video, so you’ve definitely never seen anything quite like this. Watching the rocket descend from above from the perspective of the ship is extremely surreal, especially when you hear the landing rockets kick in. So sit back, throw your phone in a headset if you have one, and hit play. This will hopefully be just the first of many more to come. (Now if only they had filmed 360-degree videos of the ones that blew up.)
