DISCLAIMER

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 Disclaimer:

Please note that I do not claim to own any of the given inventions/discoveries. These are not my original work and have been taken from various sources on the internet. 

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Cosmic Rays

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    Table of contents  COSMIC RAYS View my previous post here - The Survival of a Neutron View the next article here - (Coming soon!) ----------------------------------------- Cosmic Rays are super fast subatomic particles "raining" down on us from space.  These high-energy particles arriving from outer space are mainly (89%) protons – nuclei of hydrogen, the lightest and most common element in the universe – but they also include nuclei of helium (10%) and heavier nuclei (1%), all the way up to uranium. (Source of information: CERN) Their origin remains to be a mystery.  These are radiations or rather little bits of atoms whizzing by us, even through us, all the time! We cannot feel them, because they don't affect the human body . However, they do show their presence in different ways. For instance, they cause computers to malfunction . Scientists have been studying cosmic rays since the early 1900s. At the beginning of the 20th century, around 1911, a physi...
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Weak Interaction

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  Table of contents  WEAK INTERACTION View my previous article here - Beta Decay View the next article here - The Survival of a Neutron ----------------------------------------- Weak interactions manifest themselves as reactions, or decays, in which some particles may disappear, while others appear. No structure is bound together by a ‘weak force’, but weak interactions are vital for understanding the world around us. Weak interactions were involved in most of the reactions in the very early Universe by which particles changed from one sort to another. They are therefore largely responsible for the overall mixture of particles from which the current Universe is made. The most common example of a weak interaction is beta-decay and, as you saw earlier, there are three related processes, each of which is a different type of beta-decay. In each of these three processes, the nucleus involved will change from one type of element to another, as a result of either increasing or decre...
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Discover More: Homing in on the Higgs boson interaction with the charm quark

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Homing in on the  Higgs boson interaction  with the charm quark Date Posted: 29th March 2022 Since the Higgs Boson was discovered about a decade ago, various investigations have been made to observe how the Higgs Boson interacts with the fundamental particles that make up matter - like quarks and leptons.  In the Standard Model of particle physics, these matter particles fall into three "generations" of increasing mass, and the Higgs boson interacts with them with a strength that is proportional to their mass. Although the interactions with a muon, a second-generation lepton, has been observed earlier, only recently has the strength of the Higgs Boson interaction with the charm quark, a second-generation quark, been observed. In their latest studies, using data from the second run of the LHC, the two teams searched for the decay of the Higgs boson into a charm quark and its antimatter counterpart, the charm antiquark. (I will be publishing more about decays in my upcoming...
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