Two deuterons udnergo nuclear fusion to form a Helium nucleus. Energy released in this process is : (given binding energy per nucleon for deuteron = 1.1 MeV and for helium = 7.0 MeV)
A
23.6 MeV
B
25.8 MeV
C
30.2 MeV
D
32.4 MeV
Text Solution
Verified by Experts
The correct Answer is:
A
Topper's Solved these Questions
JEE MAINS
JEE MAINS PREVIOUS YEAR ENGLISH|Exercise Chemistry|1 Videos
JEE MAIN
JEE MAINS PREVIOUS YEAR ENGLISH|Exercise All Questions|452 Videos
JEE MAINS 2020
JEE MAINS PREVIOUS YEAR ENGLISH|Exercise PHYSICS|250 Videos
Similar Questions
Explore conceptually related problems
Nuclear energy is released in fusion reaction, since binding energy per nucleon is
if the binding energy per nucleon of deuteron is 1.115 Me V , find its masss defect in atomic mass unit .
If the binding energy per nucleon of deuterium is 1.115 MeV, its mass defect in atomic mass unit is
Assertion : Binding energy per nucleon is of the order of MeV. Reason: 1 MeV=1.6xx10^-13J .
The mass defect for the nucleus of helium is 0.0303 a.m.u. What is the binding energy per nucleon for helium in MeV ?
Hydrogen nucleus combines to form helium then energy is released. Binding energy/nucleon of He is greater than hydrogen.
When two nuclei (with A=8) join to form a heavier nucleus , the binding energy (B.E) per nucleon of the heavier nuclei is
Find the binding energy of the nucleus of lighium isotope ._(3)Li^(7) and hence find the binding energy per nucleon in it.
A heavy nuleus having mass number 200 gets disintegrated into two small fragmnets of mass numbers 80 and 120 . If binding energy per nulceon for parent atom is 6.5 MeV and for daughter nuceli is 7 MeV and 8 MeV , respectivley , then the energy released in the decay will be.
A heavy nuleus having mass number 200 gets disintegrated into two small fragmnets of mass numbers 80 and 120 . If binding energy per nulceon for parent atom is 6.5 MeV and for daughter nuceli is 7 MeV and 8 MeV , respectivley , then the energy released in the decay will be.
JEE MAINS PREVIOUS YEAR ENGLISH-JEE MAINS-Chemistry