negation said:Dealing with these has reminded me why I hated chemistry.
What is the relationship between the above 3?
negation said:Given atomic weight of nitrogen and Avogadro's constant, can the number of moles be found?
negation said:Given atomic weight of nitrogen and Avogadro's constant, can the number of moles be found?
That's new. My physics assignment called that atomic weight which throws in further confusion.adjacent said:You don't need Avogadro's constant there.
1 mole = Atomic mass of Nitrogen
You should never call that atomic weight. It's atomic mass.
Borek said:Number of moles of what?
negation said:That's new. My physics assignment called that atomic weight which throws in further confusion.
Oh sorry it should be --> not =negation said:1 mole = 1 atomic mass of Nitrogen?
negation said:Nitrogen. Given Avogadro's constant and the atomic mass of Nitrogen being 28g/mol, is it possible to determine the number of moles?
Borek said:Number of moles of nitrogen in what?
Avogadro's constant, denoted as NA, is a fundamental physical constant that represents the number of particles in one mole of a substance. It is approximately equal to 6.022 x 1023 particles per mole.
Avogadro's constant is used to define the number of particles in one mole of a substance. This means that for every mole of a substance, there are exactly NA particles present.
The number of moles, represented by the symbol n, is a unit of measurement used to express the amount of a substance. It is equal to the mass of the substance divided by its molar mass. On the other hand, the number of particles refers to the actual number of atoms, molecules, or ions present in a given substance.
Avogadro's constant is used in various calculations involving the conversion between moles and particles. For example, to convert from moles to particles, you would multiply the number of moles by Avogadro's constant. To convert from particles to moles, you would divide the number of particles by Avogadro's constant.
Avogadro's constant is important in chemistry because it allows us to connect the macroscopic world (mass, volume) to the microscopic world (particles). It also helps us to accurately measure and understand the amount of substances present in a reaction, and to make precise calculations and predictions in chemistry.