This would make it only the second such particle besides heavy hydrogen.
Scientists were afraid this could lead to a planetary-bomb but, luckily, there’s nothing to worry about.
An intriguing signal reported at the LHC might signal some “cracks” in the Standard Model – the theory which describes how different forces interact with each other.
It’s really awesome when the practice confirms the theory! Experiments at the Large Hadrdon Collider have revealed two never before seen particles – exotic types of baryons which were previously predicted by theoretical research. The new measurements serve to confirm and refine the existing theory of subatomic particles and help pave the way for the discovery of more particles predicted by
Once with the discovery and confirmation of the Higgs boson, the Large Hadron Collider in Geneva proved its money worth and garnered international appraise. Despite the LHC is currently shutdown for its periodical maintenance (the restart procedure is well underway, with the particle accelerator expected to become fully operational again in 2015), physicists aren’t slaking. The data gathered from experiments
Scientists closely working with the Large Hadron Collider, the largest and most powerful particle accelerator in the world, have identified evidence of the minuscule droplets produced in the aftermath of high energy proton and lead ions collisions. If their calculations are right, then these are the smallest droplets of liquid ever encountered thus far, just three to five protons in size. That’s about
All life as we know it is primarily based on two elements: carbon and oxygen. Scientists at North Carolina State University investigating the conditions required for the formation of these life essential ingredients found that the Universe lives little room for error. Carbon and oxygen are formed as combustion byproducts after helium burns inside a giant red star. However, for
Not one, but two independent high-energy particle physics laboratories in New York (Relativistic Heavy Ion Collider – RHIC) and Geneva ( Large Hadron Collider – LHC) have managed to create quark-gluon plasma after smashing particles into another at very high speeds. The resulting plasma, which only lasted for a fraction of a moment, is the hottest matter ever recorded – somewhere
It looks like not all is going bad for Italian researchers, after the trial of the seismologists: physicists from Italy have discovered the first evidence of a nucleus that doesn’t exist in nature and survives only for 10-10 seconds when created in a laboratory. Strange matter Hypernuclei contain all sorts of protons and neutrons, but unlike regular nuclei, they also
The Large Hadron Collider (LHC) continues on its quest to find out exactly what happened in the first seconds after the Big Bang, unveiling what is the densest material known so far to man. Exotic densest substance Known as the quark-gluon plasma, this amazing exotic substance can exist only at incredibly high temperatures or pressures, and it consists almost entirely
The Large Hadron Collider at CERN has started doing some serious business. This time, an extremely rare particle containing equal parts of matter and antimatter popped up during experiments at the world’s largest and hottest particle accelerator. The particle, named a B meson is made out of one quark (the building blocks of protons and neutrons) and one antiquark
The Large Hadron Collider at CERN has taken another step towards its goal of finding the so called ‘god particle‘: it recently produced the highest temperatures ever obtained through a science experiment. The day before yesterday, 7 November was a big one at the LHC, as the particle collider started smashing lead ions head-on instead of the proton – proton
Despite several setbacks and technical difficulties, the Large Hadrdon Collider is already starting to live up to it’s nickname, the Big Bang machine. Researchers have pinpointed what may very well be the dense, hot state state of matter that is believed to have filled the Universe during its first nanoseconds. Generally speaking, quarks are bound together in groups of two