The proton has three parts, two up quarks and one down quark and the gluons which these three quarks exchange, which is how the strong (nuclear) force works to keep them from getting out.
The following is actually a partial attempt to answer "What are the components of a protein?"
The key components are carbon, hydrogen, oxygen, and nitrogen and arranged as strands of amino acids. Some amino acids also contain sulfur.
you already partly answered your own question. Neutrons.
Jimmy Neutron's parents are Hugh Neutron (his father) and Judy Neutron (his mother).
The neutral or no charge particle in an atom is called a neutron. Neutrons are located in the nucleus, along with protons. Neutrons have the same mass as protons.
Some applications of californium: - neutron source as Cf-Be source - neutron source for neutron activation analysis (portable installations) - neutron radiography - irradiation for some cancers treatment - nuclear fuel rod scanning - neutron source to detect water, petroleum, metals, methane etc.
Adding a neutron to an atom's nucleus increases the atom's mass by the mass of the neutron itself. Neutrons are more massive than protons, so adding a neutron will increase the atom's total mass without changing its charge.
A neutron has a zero electric charge and has a mass slightly greater than that of a proton. A proton and an electron can be fused to create a neutron, and a neutron decays into a proton and an electron (and a bit of something else). More details about the neutron can be had by using the link to the Wikipedia article on this "building block" of the atom.
To calculate the energy output of a thorium subcritical reactor when you know the neutron flux input, you would multiply the neutron flux by the energy produced per neutron capture in the thorium fuel. This can be determined based on the specific design and characteristics of the reactor. By knowing the neutron flux input and the energy produced per neutron capture, you can estimate the energy output of the reactor.
All young neutron stars in reality are "pulsars". However, for a neutron star to be termed a pulsar, it's magnetic axis has to point towards Earth. (So we can see the pulse, even though all young neutron stars have a pulse, they cannot be observed from Earth.)
Fast neutron energy is characterized by high kinetic energy levels, making them effective for inducing nuclear reactions. These reactions can be utilized in nuclear power generation, nuclear weapons, and neutron imaging techniques. Fast neutron reactors can also help reduce nuclear waste and increase fuel efficiency in the nuclear industry.
Some characteristics of a atom are they take on part of chemical reactions independently. Atom can be divided into sub-atomic particles and the main particles of a atom are the electron, proton and neutron.
Some characteristics of a atom are they take on part of chemical reactions independently. Atom can be divided into sub-atomic particles and the main particles of a atom are the electron, proton and neutron.
The class you are referring to would be a biology or botany class, specifically focused on plant species. In this class, students would likely study the characteristics, classification, and diversity of different plant varieties.
All "pulsars" are neutron stars - it's just "we" term pulsars as neutron stars who's orientation towards us shows the beam of electromagnetic radiation. Other neutron stars who's orientation, do not point towards us are not called pulsars, although they exhibit the same characteristics.
you already partly answered your own question. Neutrons.
Judy neutron
No. A neutron carries no charge.
There is no such thing as a "positive neutron" or a "negative neutron". A neutron is always neutral.