Final isotope should be determined. Concept Introduction: Radioactive decay: This process is the accompanied by the emission of one or more than one types of ionizing radiation like alpha ,beta, neutron, particles and gamma rays are disintegrate Radio active life-it refers to the amount of time taken by completion of half of its original isotope to decay. The rate of decay is a fixed rate called half-life. Half-life used in carbon dating-technique forthe age calculation of dead wood fossil, monument old tree etc. The half-life period s are determined by considering carbon dating technique. Carbon dating uses the half-life of carbon-14 to find the approximate age of an object. It’s may be 40.000 year old or younger. Radioactive isotope: An atom in a chemical compound is replaced by another atom, of the same chemical element. This is the principle behind the radioactive tracers. Titanium is the example of radioactive isotope .

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Chapter 19, Problem 19.30QP

Interpretation Introduction

Interpretation: Final isotope should be determined.

Concept Introduction:

Radioactive decay:

This process is the accompanied by the emission of one or more than one types of ionizing radiation like alpha ,beta, neutron, particles and gamma rays are disintegrate

Radio active life-it refers to the amount of time taken by completion of half of its original isotope to decay. The rate of decay is a fixed rate called half-life.

Half-life used in carbon dating-technique forthe age calculation of dead wood fossil, monument old tree etc.

The half-life period s are determined by considering carbon dating technique.

Carbon dating uses the half-life of carbon-14 to find the approximate age of an object. It’s may be 40.000 year old or younger.

Radioactive isotope: An atom in a chemical compound is replaced by another atom, of the same chemical element. This is the principle behind the radioactive tracers.
Titanium is the example of radioactive isotope.

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