To detect trace amounts of a gaseous species in a mixture of gases, the preferred probing tools is
A. ionization spectroscopy with X-rays
B. NMR spectroscopy
C. ESR spectroscopy
D. laser spectroscopy
Answer: Option D
Solution (By Examveda Team)
In the field of nuclear and particle physics, when it comes to detecting trace amounts of a gaseous species in a mixture of gases, the preferred probing tool is laser spectroscopy.Laser spectroscopy is a highly sensitive technique that utilizes laser light to interact with atoms or molecules, leading to characteristic absorption, emission, or scattering of light. This technique allows for precise identification and quantification of trace elements or species within a complex mixture of gases.
While other spectroscopic techniques like ionization spectroscopy with X-rays (Option A), NMR spectroscopy (Option B), and ESR spectroscopy (Option C) are valuable in various contexts, they may not offer the same level of sensitivity and specificity as laser spectroscopy when it comes to detecting trace amounts of gaseous species in a mixture.
Therefore, Option D: laser spectroscopy is the preferred probing tool for detecting trace amounts of a gaseous species in a mixture of gases in the field of nuclear and particle physics.
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Comments (1)
A. Thorium series
B. Neptunium series
C. Uranium series
D. Actinium series
A. 10-10 eV
B. 10-9 eV
C. 10-6 eV
D. 10-4 eV
A. The process is allowed because ΔS = 0
B. The process is allowed because $$\Delta {I_3} = 0$$
C. The process is not allowed because ΔS ≠ 1 and $$\Delta {I_3} \ne 0$$
D. The process is not allowed because the Baryon number is violated
A. $${\left( {{}^1{s_{1/2}}} \right)^2}{\left( {{}^1{p_{3/2}}} \right)^3};\,J = \frac{3}{2}$$
B. $${\left( {{}^1{s_{1/2}}} \right)^2}{\left( {{}^1{p_{1/2}}} \right)^2}{\left( {{}^1{p_{3/2}}} \right)^1};\,J = \frac{3}{2}$$
C. $${\left( {{}^1{s_{1/2}}} \right)^1}{\left( {{}^1{p_{3/2}}} \right)^4};\,J = \frac{1}{2}$$
D. $${\left( {{}^1{s_{1/2}}} \right)^2}{\left( {{}^1{p_{3/2}}} \right)^2}{\left( {{}^1{p_{1/2}}} \right)^1};\,J = \frac{1}{2}$$
I think Option D is correct.