Bosons are particles that follow Bose-Einstein statistics, fermions are particles that follow Fermi-Dirac statistics. Another way of saying that is that fermions obey the Pauli exclusion principle and bosons do not.
They are leptons, bosons, hadrons, fermions etc.
Elementary particles are primarily classified into three main categories: fermions, bosons, and gauge bosons. Fermions, which include quarks and leptons, make up matter and follow the Pauli exclusion principle. Bosons are force-carrying particles, with examples like photons and gluons, and they mediate interactions between fermions. Gauge bosons, a subset of bosons, include particles like the W and Z bosons, which are responsible for the weak nuclear force.
The Particle rules refer to guidelines in physics and particle physics that describe the behavior, interactions, and properties of subatomic particles. These rules include principles such as conservation laws (e.g., conservation of energy, momentum, and charge), the Standard Model of particle physics, and the classification of particles into fermions and bosons. They govern how particles interact through fundamental forces and provide a framework for understanding phenomena like particle decay and collisions in accelerators. Overall, the Particle rules are essential for predicting the outcomes of experiments and understanding the universe at a fundamental level.
I think perhaps your confused here somewhat. A fermion is a particle which obeys the Pauli exclusion principle; put simply two fermions can not be in the same state (i.e. have the same set of quantum no's) at the same time. Fermions cannot be broken down into anything smaller, fermions include quark's, electron's, muon's, tau's and neutrino's which are elementary i.e. not made of anything but energy Quarks make up all other particles. Bosons can be made of 3 quarks and are split into two catergorys: Baryons such as Protons, Neutrons and many other heavy particles these are effectively composite fermions as they contain 3 quarks. Or Mesons, which contain one quark and an anti quark and hence are not composite fermions.
photonsgravitonsBoth are bosons, there are no massless fermions although neutrinos were once believed to be massless.
At the same temperature, fermions will generally exert greater pressure than bosons. This is due to the Pauli exclusion principle, which prevents fermions (like electrons) from occupying the same quantum state, leading to higher energy levels and increased pressure. In contrast, bosons can occupy the same state, allowing them to condense into lower energy states, which results in lower pressure under similar conditions. Therefore, the nature of the particles significantly influences the pressure they exert.
Yes, identical fermions have antisymmetric wavefunctions. Identical bosons have symmetric -- look up Spin Statistics in any Standard Field Theory text.
Yes, they are bosons. Fermions might be force carriers for supersymmetric particles if they exist but otherwise they are not.
The Higgs boson is analogous to other bosons (photon, muon, gluon, graviton, etc.) which couple forces. Atoms are composed of fermions bound together by exchanging various virtual bosons (e.g. electrons are bound to the nucleus by exchanging virtual photons, the protons and neutrons in the nucleus are bound together by exchanging virtual muons, the quarks are bound inside protons and neutrons by exchanging virtual gluons), no real bosons of any type exist in an atom (although some atoms are themselves bosons even though they are entirely composed of fermions).
Gauge bosons are elementary particles (subatomic particles). An elementary particle is a substance that can not be broken down anymore. So to answer your question: Gauge bosons are the forces of what makes up nature. For example: Photon=electromagnetic force, gluon=strength, z and w bosons=weakness and gravitons=gravity (not yet observed). The different particles can be found on the Elementary particle table. I hope this partially answers your question.
The W bosons are named after the weak force. The additional particle was named the "Z particle", it was the last additional particle needed by the model - the W bosons had already been named - and that it has zero electric charge.
Some examples of bosons are photons (particle of light), W and Z bosons (mediate weak nuclear force), gluons (mediate strong nuclear force), and Higgs boson (associated with giving mass to particles).