Particle Physics

A neuron is one cell of a nerve, whereas an electron is a very small negatively charged particle found in an atom. You may, of course, have meant neutron rather than neuron, in which case the answer is that it is a very small particle found in the nucleus of an atom and has no charge.

Protons are composite particles made of quarks held together by strong nuclear forces, while electrons are fundamental particles with spin. The spin of a proton is due to the motion of its quarks, rather than an intrinsic property like the spin of an electron.

The subatomic particle that can be transferred from one object to another is an electron. Electrons carry a negative charge and are exchanged between objects during processes like friction or contact.

This is a somewhat difficult question to answer without a picture but for the left (first) two columns of the periodic table (S Block) and the right (last) six columns (P block) the number of energy levels is the row number of where that atom is on a periodic table (these blocks together are known as the representative elements). For the middle part (transition elements, or D block) the number of energy levels is equal to the row number the element is in, minus one. So for example, Lithium (Li) has two energy levels. In another example, Iron (Fe) has three energy levels. For the inner-transition elements (a.k.a. the lanthanide and actinide, or F block) the number of energy levels is the row number (Lan - row 6, Act - row 7), minus two. So in example, Uranium (U) has 5 energy levels).

The only subatomic particles that exist in an atom are protons, neutrons, and electrons.

There is currently no scientific evidence to suggest that the Large Hadron Collider can enable time travel. Time travel remains a theoretical concept that is not yet achievable with our current understanding of physics.

When travelling a significant portion of the speed of light, you have a lot of energy but you'll be travelling less than the speed of light. This energy must go somewhere, but it cannot go to its velocity; therefore the energy is put into its mass.

The elements above Atomic number 86 generaly redioactive.

As atomic number represents the number of protons,above A.N 86 the elemens will be radio active in specific conditions.exception,C-13 is a radioactive isotope of carbon.

The electron shells in gold and the number of electrons in each one are as follows: 1s2 2s2 2p6 3s2 3p6 3d10 4s2 4p6 5s2 4d10 5p6 4f14 5d10 6s1 Gold has 79 electrons in its neutral state, one for every proton in its nucleus. Because this is a lot of "work" to write out, we often "abbreviate" the electron configuration notation. We do this by writing the chemical symbol of the noble gas with an atomic number below that of the element we wish to identify, and then just "add the rest" of the electron notation above that. We call this noble gas notation or configuration. For gold, the noble gas below gold on the periodic chart is xenon (Xe). Here's the "new" notation (using xenon as an identifier) for the gold: [Xe] 4f14 5d10 6s1 Note that the three shells beyondxenon that describe gold (4f14 5d10 6s1) are identical to the last three in the "long version" of the notation. They must be, as both are expressions of the electron configuration of gold. Wikipedia has additional information of gold, and a link is provided.

A carbon atom has 6 protons, 6 electrons and 6 neutrons

More the number of shells in an atom, more away will be the electrons from the nucleus. Hence, weaker will be the attraction between nucleus and outermost electrons. So atom with more shells will let go their electrons easier than atoms with fewer shells.

The corona is able to stop most subatomic particles from escaping into space due to its strong magnetic fields that can trap and redirect charged particles. Despite being less dense, the corona's magnetic fields play a crucial role in retaining particles within its boundaries.

hydrogen (H) and helium (He)

If a quark has a length of 1×10-18m, and if the volume of a quark could be calculated by using this length as it's diameter, then:

The volume of a quark would be 5.236x10-49m

And if the volume of the sun is about 1.409 x 1018km3 (or 1.409x1027m3), then the number of quarks that could fit in the sun would be:

1.409x1027m3 / 5.236x10-49m3 = 0.269x1076 or 2.69x1075 or 2.69 Quattuorvigintillion quarks.

It should be noted that this is an approximate number, based on the length of an up-quark or a down-quark. As well, the volume for the sun is also approximate.

The electrons in an atom determine how it interacts with other atoms. Electrons are negatively charged particles that orbit the nucleus of an atom in specific energy levels, and their arrangement and movement play a key role in chemical bonding and interactions between atoms.

This particle is the electron with a mass of 5,485 799 094 6(22)×10−4 amu.

The total mass of 6 protons and 6 neutrons would be 12.092166 u (6 protons x 1.007276 u + 6 neutrons x 1.008665 u). The actual mass of carbon is 12 u, so the mass defect would be 0.092166 u (12.092166 u - 12 u).

HCN, hydrogen cyanide, has a total of 10 valence electrons. Hydrogen contributes 1 valence electron, carbon contributes 4 valence electrons, and nitrogen contributes 5 valence electrons.

Yes. And when this occurs, they will collide and annihilate one another.

A bismuth atom has 6 electron shells.

A joule is the work done by applying 1 watt of power for 1 second (J = W x Time in seconds).

1 Watt is 1 Amp at 1 Volt potential (W = Amps x Volts).

1 Amp is 1 coulomb of electrons flowing in a second.

1 coulomb is 6 241 509 629 152 650 000 electrons.

Thus it would appear that there are 6,241,509,629,152,650,000 electrons in a joule, except that 1 Joule could be 2 watts for half a second (or 4 W for 0.25 seconds).

Also 1 Watt could be 2 Amps and half a volt, or .01 Amps at 100 Volts!

The question has no one answer, it has an infinity of possible answers unless more parameters are dictated.

The subatomic particles in an atom are protons, neutrons, and electrons. Protons and neutrons are found in the nucleus of the atom, while electrons orbit around the nucleus in various energy levels or shells.

Free electrons most definitely repel each other.

Any attempt to create a buildup of electrons in a specific spot will eventually result in the repulsion amongst these electrons to overcome the attempt to collect them.

When you rub your skin against a wool rug on a dry day, you build up a surplus of free electrons on your skin. The repulsion between these free electrons cause this surplus to scatter to all parts of the skin, thus permitting a discharge of them to occur at any place in your skin.

Repel, because like charges repel each other

Three different types of neutrinos are recognized.

The latest work on the subject suggests that the combined mass

of one of each type adds up to less than one billionth of an AMU.