yes
Protons which possess a positive charge and neutrons which possess no electric charge are subatomic particles within the nuclei of atoms.
''The charge for a proton is going to be 1.6 x 10^ -19 (positive for protons), (koolkeey yahoo anwser)''.
covalent compounds can carry a charge when dissolved in water because ions separate and can carry a charge.
When NaOH is dissolved, if forms separate ions which cancel charge to make a neutral SOLUTION. Hope to have clarified this misunderstanding.
Alkali metals possess +1 charge. Alkaline earth metals have +2 and aluminium has +3 charge.
A current needs a charge carrier. In biological tissue, such charge carriers would usually be ions, from dissolved salts.
Conventional current consists of imaginary carriers of positive charge.
In semiconductor devices there are two types of charge carriers: electrons and holes. In N-type doped semiconductor the majority charge carriers are electrons and the minority charge carriers are holes. In P-type doped semiconductor the majority charge carriers are holes and the minority charge carriers are electrons.Some kinds of semiconductor devices operate using minority charge carriers in part(s) of their structure. The common bipolar junction transistor is one of these, they are sensitive to a phenomenon called thermal runaway because additional minority carriers are produced as temperature increases. (field effect transistors however operate using only majority carriers and are thus not sensitive to thermal runaway)
Depends on the state, or if it is a federal charge, and depends on what was conspired to possess. In most cases, YES!
yes
Protons have a positive charge. Electrons have a negative charge. Neutrons possess no charge.
Majority charge carriers in the N-type side of a semiconductor material are electrons, because N-type semiconductor is doped with a material with 5 valence electrons. Semiconductor materials have 4 valence electrons and hold tightly to 8, so there is a "loose" electron for every atom of dopant. Therefore most of the charge carriers available are electrons. IE, electrons are the majority charge carriers. Minority charge carriers in N-type semiconductor are holes. Only a few holes (lack of an electron) are created by thermal effects, hence holes are the minority carriers in N-type material. The situation is reversed in P-type semiconductor. A material having only 3 valence electrons is doped into the semiconductor. The semiconductor atoms have 4 valence electrons try to hold tightly to 8, so there is a virtual hole created by a "missing" electron in the valence orbit. This acts as if it were a positive charge carrier. Most of the charge carriers are these holes, therefore in P-type semiconductor holes are the majority charge carrier. Again, reverse situation to minority charge carriers. Some electrons are loosened by thermal effects, they are the minority charge carriers in P-type semiconductor.
Electricity is conducted well in substances that have lots of free electrons, or other free charge carriers. That is, charge carriers that are free to move around.
Protons which possess a positive charge and neutrons which possess no electric charge are subatomic particles within the nuclei of atoms.
Electrons are the predominant carriers of charge in copper wire.
There are two recognized types of charge carriers insemiconductors. One iselectrons, which carry a negativeelectric charge. In addition, it is convenient to treat the traveling vacancies in thevalence bandelectron population (holes) as the second type of charge carrier, which carry a positive charge equal in magnitude to that of an electron
The charge of aspartame will be positive