Listen to me, people!
There are two types of hadron: baryons (including protons and neutrons) with a baryon number of 1, and mesons with a baryon number of 0. During hadron reactions, electrical charge, baryon number and strangeness are all conserved. The properties and reactions of hadrons can be explained if hadrons consist of smaller particles called quarks. In the basic quark model there are three flavours of quark: up, down, and strange, plus the corresponding antiquarks. Baryons consist of three quarks which may be the same flavour or different flavours; antibaryons consist of three antiquarks. Mesons consist of quark+antiquark pairs which may be the same flavour or different flavours. Separate quarks are never observed; they are always found confined in hadrons. Attempts to separate quarks may result in the creation of new quark+antiquark pairs which both have the same flavour. In hadron collisions, quarks may be exchanged between hadrons and/or new quark+antiquark pairs may be created. Quarks may be ‘seen’ inside hadrons using beams of high-energy electrons which have sufficiently small effective (de Broglie) wavelength. Theory suggests, and observation confirms, that there are three further flavours of quark: charm, bottom and top. Quarks may be truly fundamental particles.
Leptons are fundamental particles which are not affected by the strong force. Electrons, muons, and tau-minus particles are leptons which have a negative electrical charge; their antiparticles positrons, mu-plus particles and tau-plus particles have a positive electrical charge. There is a neutral particle called a neutrino associated with each charged lepton; because these particles have no electrical charge, and have little or no mass, they hardly interact at all with matter. Reactions between hadrons and some hadron decays are due to the strong force. Other hadron decays involve quarks changing their flavour. Changes of flavour are due to another fundamental force called the weak interaction. When some unstable atomic nuclei decay, they emit beta particles; this can be either a beta-minus particle (an electron) or a beta-plus particle (a positron). Protons are the least massive type of baryon, so ‘free’ protons and protons in stable nuclei do not decay by strong or weak interactions. Protons are, however, probably not completely stable: scientists think that free protons have a half-life of the order of 1032 years.
Didn’t understand what I was saying? Me neither. So in other words…
HEEELLLLPPPPP!!!
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). So many dreams as well! I’ll put them together so it’s like one dream.
Vickie Diablos is an unemployable bum allegedly qualified to work in the health field, a hardcore gamer geek and a socially awkward logic and science nerd. She thought keeping a "cool blog" would make her a cool person. Alas. 



