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Particle Physics

Relatively recent experimental results have confirmed what philosophers throughout history had theorized all along; that all matter is made up of elementary particles. Those curious about this cutting-edge field of physics known as particle physics should post their questions here, including those about fundamental particles, fundamental forces, Grand Unified Theories, and the extraordinary devices that have been or need to be engineered to research them.

3,842 Questions

Is there any particles whose velocity is greater than photon particles?

Possibly neutrinos are . . . scientists right now are thinking that neutrinos travel faster than light (photons)

What grade is jimmy neutron in?

he is in 5th gread hard to belive but he is if you go to nick.com it will tell you

How many protons are in a valence electron?

None. Protons are a subatomic particle, as are electrons and neutrons. Three different kinds - at least until you start talking about quarks, which are more fundamental than protons and neutrons.

A valence electron is simply one in the outermost quantum level, making it possible to be shared between atoms - this is called a covalent bond.

Is there antifrancium?

Yes, but it has not been created and it is highly unlikely that it ever will be created due to the difficulty in creating any antiatom (the biggest ever created is antihelium) and, even if antifrancium were created, it would decay rapidly.

When was god's particle found?

The Higgs Boson was discovered in July of 2012. The media calls it "The God Particle", but this is a misnomer; there is nothing godlike about this particle. It's the particle counterpart to the field that gives particles their mass.

Electron configuration Ne?

1s^2 Note: The "^" symbol means the the following number is in the form of a superscript.

What happens to electrons after a chemical bond is formed?

If the starting point are elements then the inner shell electrons (non valence) these orbit the nuclei of the atoms and the formation of a chemical bond does not affect these materially.

What happens to the valence electrons depends on the bond formed.

In an ionic bond electrons are transferred from say the metal atom to the nonmetal- these electrons essentially "orbit" the nuclei of the cations and anions. They are "localised".

When a covalent bond is formed the valence electrons involved are shared between the atoms, they "orbit" both nuclei. When the bond is polar covalent they spend a little more time nearer the more electronegative element.

When a "delocalised"covalent bond is formed as in bezene or graphite the electrons orbit a number of atomic nuclei.

In a metallic bond the valence electrons are also delocalised (the sea of electrons model) across the metal lattice, but in transition metals there is additional bonding between electrons in d orbitals (the tight bound electrons) and these electrons are essentially localised.

When an atoms loses an electron it?

The atom is said to be ionized. (It can also be said to be oxidised.)

An electron that participates in a chemical bond?

Electrons participating in the chemical bond is valence electrons or the electrons present in the outer shell

Electrons with higher energy are located where?

It depends on your definition of high energy. Electrons close to the nucleus have a high positive energy and will require a lot of energy to elevate them to higher orbitals. Electrons far away from the nucleus have the potential to give off a lot of energy falling to inner orbitals.

Why are protons being collided in the Large Hadron Collider?

The LHC is the Large Hadron Collider, and it's set up to use large hadrons as "bullets" in experiments. The proton is a "quick and easy" bullet to acquire. It's a hydrogen nucleus, and it's not that hard to come by. Take hydrogen gas and stip off the electron and we're in business. And a proton is a better "bullet" than an electron because it's heavier than the electron by some 1836 times. Bigger "bullets" make for a better "hit" on a target. We've already been accelerating protons for a long time so we know something about that. And now we have a bigger machine to do it with. Actually, the machine will be used on some other atomic nuclei as well, like lead. The trick is to strip off the electrons and then send the remaining nucleus sans electrons into a linear accelerator (along with more of its kind) and then into the different rings that will boost energies to the point where they can be injected into the LHC ring proper for their final "boost" to almost the speed of light. A link is provided below.

What does a particle accelerator do to atoms?

Nothing unless the atoms form a target.

A PARTICLE accelerator accelerates PARTICLES not atoms.

Can a christian do psi or is it unholy?

Christians are definitively allowed to practice the manipulation of psi and energy.

Another answer

Christians are against the use of magick as they believe it is assisted by the devil. However, in theory Christians are not against the use of psi, this is because psi is an mechanism and do not appear to require the assistance from the devil. However, due to similarities between magick and psionics, a common misconception is that they are the same thing, so some Christians will be against the use of psi due to this misconception.

Note: The relation between magick and the devil also a misconception. Magick does not actually require the presence of a 'devil'.

Why conversion of a photon to an electron positron pair is not possible in free space?

Because energy mass conservation will not be satisfied in free space, so that this process needs some material by which this conversion will be proceed.

Which is donate electron for LI and CL?

Li atom donates one electron to a Cl atom when Li+Cl- is to be formed as ionic compound (salt):

Li --> e- + Li+

Cl + e- --> Cl-

-------------- +

Li + Cl --> LiCl (or Li+Cl-)

What shape is PF3?

Trigonal Pyramidal resulting from 3 bonded pairs and 1 non-bonded pair

The synthesis of ATP by relying on a proton gradient?

Yes, only then can the protons in the intermembrane space move through the ATP synthase into the matrix by diffusion, and as they move through ATP synthase, the enzyme c an harness the available energy thus allowing the phosphorylation of ATP