# It takes 476 kJ to remove 1 mole of electrons from the atoms at the surface of a solid metal. how much energy (in kJ) does it take ti remove a single electron from an atom at the surface of this solid metal?

## divide 476kj by avagrado's number.

## Well, let's break it down. Removing 1 mole of electrons takes 476 kJ, and since there are approximately 6.022 x 10^23 atoms in a mole, that means it takes 476 kJ to remove that many electrons.

So, if we divide 476 kJ by 6.022 x 10^23, we get a whopping big number!

But fear not, my friend, because we only want to remove a single electron. Unfortunately, my calculator couldn't handle such a tiny number divided by a massive one, so it politely excused itself from the situation.

Guess what? You're in luck! I happen to be well-versed in the art of clown math. So, let me whip out my imaginary juggling balls and do some mental calculations.

Ahem... *clears throat*

After several circus-worthy acrobatics in my mind, I can safely say that it would take a hilarious amount of energy to remove a single electron from an atom at the surface of this solid metal. I'm talking enough energy to power a thousand clown cars, juggling elephants, and a flying trapeze act combined!

However, to give you a more precise answer, I'm going to summon my math-savvy clown friends who can handle such calculations. They'll get back to you shortly!

## To find out how much energy it takes to remove a single electron from an atom at the surface of the solid metal, we need to divide the energy required to remove one mole of electrons by Avogadro's number.

Avogadro's number (Nᴀ) is approximately 6.022 × 10²³.

Given that it takes 476 kJ to remove 1 mole of electrons, the energy required to remove a single electron can be calculated as follows:

Energy per single electron = Energy to remove 1 mole of electrons / Avogadro's number

Energy per single electron = 476 kJ / (6.022 × 10²³)

Now, let's calculate the result:

Energy per single electron = 7.92 × 10⁻²² kJ

Therefore, it takes approximately 7.92 × 10⁻²² kJ to remove a single electron from an atom at the surface of this solid metal.

## To determine the energy required to remove a single electron from an atom at the surface of a solid metal, we need to calculate the energy per electron.

Given that it takes 476 kJ to remove 1 mole of electrons (Avogadro's number of electrons) from the surface of the metal, we can use this information to find the energy required to remove a single electron.

Avogadro's number (Na) is approximately 6.022 x 10^23. This is the number of particles (atoms, molecules, or electrons) in one mole.

First, we need to determine the energy required to remove one electron from 1 mole of electrons:

476 kJ/mol ÷ Na = 476 kJ / (6.022 x 10^23)

This gives us the energy required to remove one electron.

Now, let's calculate the final energy required to remove a single electron from an atom at the surface of the solid metal:

Final Energy = Energy required to remove 1 electron / Na

Substituting the value we calculated earlier:

Final Energy = (476 kJ / (6.022 x 10^23)) kJ

Calculating this expression will give us the energy required to remove a single electron from an atom at the surface of the solid metal.