Thompson told us that matter is made
up of very small particles called atoms. For a time, the atom was considered
the basic particle of matter, which was no longer considered divisible. Later
we learned that an atom consists of a nucleus that is found in the center of
the atom around which electrons revolve. The nucleus consists of protons and
neutrons, and protons and neutrons are made up of quarks. All we know so far is
that quarks are basic particles that cannot be further broken down. According
to scientists, quarks are made up of smaller ten-dimensional massless strings.
But string theory is still a hypothesis
(Fundamental
Particles)
Today we know about seventeen basic
particles. In the standard model, these 17 particles are arranged in a sequence
based on their properties. The standard model divides the particles into two
parts. One part of which are called Fermions while the other part is called
Bosons. Twelve of these seventeen particles are fermions, while the other five
are called bosons.
FERMIONS
In fermions, six particles are
called quarks and six are called leptons.
Quacks
There are six types of quark called
up, down, charm, strange, top and bottom quark. Two or more quarks combine to
form hadrons (e.g. protons, neutrons, etc.). They have the most stable protons
and neutrons. Two up and one down quarks combine to form a proton, while one up
and two down quarks combine to form a neutron. Charm, Strange, Top and Bottom
Quarks are stable for a very short time and immediately turn into up or down quarks.
Leptons
There are also six types of leptons
called Electron, Electron Neutrino, Tau, Tau Neutrino, Meon, Meon Neutrino.
Tau, Tau neutrons and meon, meon neutrons have more mass than electrons. Due to
which they do not become stable and immediately turn into stable particles.
BOSONS
Four particles in bosons are called
vector bosons and one is called scalar boson.
(Vector Bosons)
Four types of bosons are called
vector bosons. Photon, Gluon, W boson, W boson and Z boson are vector bosons,
also called force carriers.
Core forces
(Fundamental
Forces)
There are four basic forces in our
universe: electromagnetic or Coulomb force, Strong nuclear force, Nuclear force
and Gravity force. Who have their own separate force carriers?
Electromagnetic
force
Electromagnetic force is between two
identical charges or two different charges whose force carriers are photons.
Which convey information from one charge to another? Photons are massless
particles and travel at the speed of c.
Strong nuclear
force
Due to the strong nuclear force,
protons with the same charge are bound to each other in the nucleus. Whose
force carriers are gluons? There is an electromagnetic force and a strong
nuclear force between two charges. When the distance between two identical
charges is more than one femtometer, the electromagnetic force is greater so
that the charges repel each other. But as soon as the distance is less than one
femtometer, a strong nuclear force prevails, which binds two equally charged
particles together. Gluons also do not have mass and they also have c speed.
Weak nuclear
power
Due to nuclear force, protons are
converted into neutrons and neutrons into protons through alpha and beta deca.
Its force carriers are called W and ze bosons.
Force of
Gravity
Between the two masses there is a
force, the force of gravity. Which are explained by the General Theory of Relativity?
If there is a force of gravity between two particles, then it must also have a
gravitational force carrier, but this force carrier has not yet been
discovered, which is why it is not included in the standard model of particle
physics.
Scalar boson or
Higgs boson
The Higgs boson was most recently
discovered in 2012, as predicted by Peter Higgs. For this he was awarded the
Nobel Prize. It is also called God Particle. The name became famous in The God
Particle, the first book written on the Higgs boson. The Higgs boson produces
the Higgs field, which gives the particles mass.
nice
ReplyDeleteAmazing work well done
ReplyDeleteThanks
DeleteVery good
ReplyDeleteThanks
DeleteAmazing
ReplyDeleteThanks
DeleteVery good good hard
ReplyDeleteThanks
DeleteGood work I appreciate you keep work hard
ReplyDeleteExcellent work
ReplyDeleteThanks
DeleteThis topic is my favorite and I understand it now clearly thank you so much
ReplyDeleteThanks
DeleteThanks
ReplyDeletevery good
ReplyDeleteexacellent
ReplyDelete