The formula for density is:

We know the density for mercury is 13.6 g/mL, and we know the mass of the sample is 53.8 g. Thus, we can plug these numbers into our equation and solve for volume.
The volume is unknown, so we can simply denote it as "x"

multiply both sides by x

The x's cancel out on the right side and you are left with

From here, simply divide both sides of the equation by 13.6 g/mL and solve for x.


Round to 3 significant figures, and your final answer is:

The volume of the sample of mercury was 3.96 mL.
Answer: I am unsure of what you mean.
Explanation:
Please explain better.
13. D
14. A
15. C
16. B
17. F
18. E
The answer is; C
The radioisotopes in the interior of the earth are not in pure form and have many embedded impurities and are interspersed. Therefore when a neutron is released by a decaying atom, its chances of hitting another radioisotope atom (to continue the chain reaction) are lower than in a manmade nuclear reactor. This way, the radioactive chain reaction in the earth’s interior is not well sustained.
6,160.506
Explanation:
That is, the molar mass of a substance is the mass (in grams per mole) of 6.022 × 1023 atoms, molecules, or formula units of that substance. In each case, the number of grams in 1 mol is the same as the number of atomic mass units that describe the atomic mass, the molecular mass, or the formula mass, respectively.