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In what way are isotopes of a given element always different? In what way(s) are they always the same?

Short Answer

Expert verified

Isotopes of the same element differ in that they have the same number of protons and electrons but a different number of neutrons. Elements are defined by their number of protons; hence two elements with the same number of protons are considered the same.

Step by step solution

01

Definition of proton:

Positively charged particles are Protons which are located in the nucleus of an atom. The electromagnetic force separates the protons, while the strong force, which is stronger at short distances, draws them together.

02

Relation between proton and neutron:

A proton's charge is exactly equal to and opposite to the charge on an electron. As a result, in a neutral atom, the number of protons is always equal to the number of electrons.

03

Definition of neutron:

Neutrons, along with positively charged protons, are neutrally charged particles found in the nucleus of atoms.The electromagnetic force pushes the protons apart, but the strong force, which is greater across short distances, pulls them closer.

04

Definition of electron:

Electrons are negatively charged particles that reside as a cloud around an atom's nucleus.They are unbelievably little, so minuscule that quantum mechanics is required to explain their odd behaviour, and they are, as far as scientists can tell, a fundamental particle.

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Most popular questions from this chapter

Predict and test the behavior of ฮฑ particles fired at a โ€œplum puddingโ€ model atom.

(a) Predict the paths taken by ฮฑ particles that are fired at atoms with a Thomsonโ€™s plum pudding model structure. Explain why you expect the ฮฑ particles to take these paths.

(b) If ฮฑ particles of higher energy than those in (a) are fired at plum pudding atoms, predict how their paths will differ from the lower-energy ฮฑ particle paths. Explain your reasoning.

(c) Now test your predictions from (a) and (b). Open the Rutherford Scattering simulation (http://openstaxcollege.org/l/16PhetScatter) and select the โ€œPlum Pudding Atomโ€ tab. Set โ€œAlpha Particles Energyโ€ to โ€œmin,โ€ and select โ€œshow traces.โ€ Click on the gun to start firing ฮฑ particles. Does this match your prediction from (a)? If not, explain why the actual path would be that shown in the simulation. Hit the pause button, or โ€œReset All.โ€ Set โ€œAlpha Particles Energyโ€ to โ€œmax,โ€ and start firing ฮฑ particles. Does this match your prediction from (b)? If not, explain the effect of increased energy on the actual paths as shown in the simulation.

Explain why the symbol for element sulfur and the formula for a molecule of sulfur differ.

Write the empirical formula for the following compounds:

How are electrons and protons similar? How are they different?

Using the periodic table, classify each of the following elements as a metal or a nonmetal, and then further classify each as a main-group (representative) element, transition metal, or inner transition metal:

  1. Uranium
  2. Bromine
  3. Strontium
  4. Neon
  5. Gold
  6. Americium
  7. Rhodium
  8. Sulfur
  9. Carbon
  10. Potassium
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