In a video game of this genre, where the gameplay is unforgiving, because you don’t have the chance to make corrective moves, the perfect responsiveness of the player’s character is a key. You won’t start a level from the same spot each time you play, which is confusing at first, but if you get used to the patterns, you will soon feel yourself at home. The difficulty rises during a run, since your character builds up speed and the changes in the accelerator happen faster, and faster, and faster, and, of course, each level is more demanding than the previous one. Your race doesn’t end though, when you collect the required amount of energy, but continues until you fail to land on a platform. This goal translates into the discovery of a new particle and the unlocking of new fields of experimentation. Your purpose is to gather at least 100% of energy by running over the light blue platforms. It’s just you and the platforms that are landed in front of you almost at the last minute in the 18 procedurally generated and with various color schemes levels of the game. You won’t find collectibles, power-ups and enemies in Boson X. These are the characters which participate in dangerous experiments by running and jumping in giant tubular particle accelerators. I bet that you haven’t heard anything about the physicists Niva and Erik and Keiro, the robotic lab assistant, until now.
BOSON X REDDIT PC
There are many Endless Runners for mobiles, consoles and PC out there: free to play or paid ones, spin-offs of well-known franchises with iconic video game heroes like Sonic the Hedgehog and Lara Croft or original titles with totally non famous guys. In Boson X, you will run for the sake of science. If you find yourself in a dangerous situation, you must run for your life. This research should therefore eliminate the need for further processing, thus reducing the cost of the most expensive part of lithium-ion batteries.Sometimes, you have to run to catch the train.
BOSON X REDDIT SERIES
By analyzing these diffraction patterns, we can also learn about the defect concentration in the material and can track the defects in real time as a function of temperature or time in the reaction.īy doing a series of experiments at different temperatures and different lengths of time, the scientists can identify where the defects are and where they start to disappear, allowing them to pinpoint the lowest temperature and the simplest reaction to produce a defect-free material. As the x-rays pass through the transparent reaction vessel, they bounce off, or get diffracted by, the atoms in the reactor, producing a pattern that reveals the atomic structure of the various materials in the reactor and how they change as the reaction takes place.īecause we're getting the diffraction pattern, we can learn something about the structure. The scientists started with a slurry of both solid and liquid precursors, placed them in the glass capillary reaction vessel, and placed the whole setup in beamline X14A at the National Synchrotron Light Source ( NSLS), a source of extremely bright x-rays and other forms of light for probing materials' structure and properties. So we designed a reactor made out of a glass capillary and, using synchrotron x-ray diffraction, we can not only probe the precursors - the initial parts of the reaction - but we can also track what happens as the reaction takes place. There's no window, no way to see the reaction - we just see what goes in and what comes out.
Generally we make battery materials in a stainless steel reactor. Jason Graetz, a materials scientist and leader of Brookhaven's energy storage group, explains the benefits this way: They recently used this real-time reaction monitoring setup to study the synthesis of lithium iron phosphate and pinpoint the best conditions for producing a defect-free material for rechargeable batteries. Researchers at Brookhaven National Laboratory have developed just such a technique: They've fabricated a transparent chemical reactor vessel that allows x-rays to pass through and capture the chemical changes as they take place. Only you don't really see the action taking place - unless you have some way to visualize the molecular magic.
Here's a recipe for basic chemistry: Mix a bunch of stuff in a reaction vessel and see what happens. Jason Graetz, left, and Jiajun Chen at NSLS beamline X14A with their transparent reactor for viewing chemistry in real time.
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