Question
Medium
Solving time: 6 mins
Obtain the maximum kinetic energy of -particles, and the radiation frequencies of decays in the decay scheme shown.
Found 8 tutors discussing this question
Discuss this question LIVE
10 mins ago
Text solutionVerified
It can be observed from the given decay diagram that decays from the 1.088 MeV energy level to the 0 MeV energy level.
Hence, the energy corresponding to decays is given as
Hence, the energy corresponding to decays is given as
Where,
h= Plank's constant and = frequency of radiation radiated by decay.
It can be observed the given gamma decay diagram that decays from the 0.412 MeV energy level to the 0 MeV energy level.
Hence, the energy corresponding to decay is given as
Where is the frequency of the radiation radiated by decay.
It can be observed from the given gamma decay diagram that decays from the 1.088 MeV energy level to the 0.412 MeV energy level. Hence, the energy corresponding to is given as
Where frequency of the radiation radiated by decay
Now mass of is 197.968 u and mass of = 197.9667 u
Energy of the highest level is given as :
decays from the 1.3720995 MeV level to the 1.088 MeV level
maximum kinetic energy of the particle
decays from the 1.3720995 MeV level to the 0.412 MeV level
Maximum kinetic energy of the particle =
Was this solution helpful?
11
Share
Report
One destination to cover all your homework and assignment needs
Learn Practice Revision Succeed
Instant 1:1 help, 24x7
60, 000+ Expert tutors
Textbook solutions
Big idea maths, McGraw-Hill Education etc
Essay review
Get expert feedback on your essay
Schedule classes
High dosage tutoring from Dedicated 3 experts
Practice more questions from Physics Part-II (NCERT)
Q1
Consider the DT reaction (deuteriumtritium fusion).
(a) Calculate the energy released in MeV in this reaction from the data:
(b) Consider the radius of both deuterium and tritium to be approximately 2.0 fm. What is the kinetic energy needed to overcome the coulomb repulsion between the two nuclei? To what temperature must the gas be heated to initiate the reaction? (Hint: Kinetic energy required for one fusion event =average thermal kinetic energy available with the interacting particles = 2(3kT/2); k = Boltzmans constant, T = absolute temperature.)
(a) Calculate the energy released in MeV in this reaction from the data:
(b) Consider the radius of both deuterium and tritium to be approximately 2.0 fm. What is the kinetic energy needed to overcome the coulomb repulsion between the two nuclei? To what temperature must the gas be heated to initiate the reaction? (Hint: Kinetic energy required for one fusion event =average thermal kinetic energy available with the interacting particles = 2(3kT/2); k = Boltzmans constant, T = absolute temperature.)
Q2
Obtain the maximum kinetic energy of -particles, and the radiation frequencies of decays in the decay scheme shown.
Q3
Calculate and compare the energy released by (a) Fusion of 1.0 kg of hydrogen deep within Sun (b) The fission of 1.0 kg of in a fission reactor
View allPractice questions from Physics Part-II (NCERT)
Question 1
Medium
Views: 5,698
Question 2
Easy
Views: 6,450
Question 3
Easy
Views: 5,753
Question 4
Medium
Views: 6,251
Practice more questions from Nuclei
Question 1
Easy
Views: 6,207
Question 2
Easy
Views: 5,482
(a)
(b)
(c)
(d)
Question 3
Hard
Views: 5,598
Practice questions on similar concepts asked by Filo students
Question 1
Views: 5,624
Question 2
Views: 5,421
Question 4
Views: 5,700
Stuck on the question or explanation?
Connect with our Physics tutors online and get step by step solution of this question.
231 students are taking LIVE classes
Question Text | Obtain the maximum kinetic energy of -particles, and the radiation frequencies of decays in the decay scheme shown. |
Topic | Nuclei |
Subject | Physics |
Class | Class 12 |
Answer Type | Text solution:1 |
Upvotes | 11 |