When two nuclei $(A \leq 10)$ fuse together to form a heavier nucleus, the

Question

Verified by Toppr

Answer 1

Since the two nuclei fuse together to from a stable heavier nucleus, the heavier nucleus will be more stable that the two nuclei. So, the binding energy of the heavier nucleus is greater than the binding energy of the two nuclei.
Option (A) is correct.

Answer 2

Since the two nuclei fuse together to from a stable heavier nucleus, the heavier nucleus will be more stable that the two nuclei. So, the binding energy of the heavier nucleus is greater than the binding energy of the two nuclei.

Option (A) is correct.

When two nuclei $(A \leq 10)$ fuse together to form a heavier nucleus, the

binding energy per nucleon increases.

binding energy per nucleon decreases.

binding energy per nucleon does not change.

total binding energy decreases.

Since the two nuclei fuse together to from a stable heavier nucleus, the heavier nucleus will be more stable that the two nuclei. So, the binding energy of the heavier nucleus is greater than the binding energy of the two nuclei.
Option (A) is correct.

The binding energy per nucleon in deuterium and helium nuclei are $1.1 M e V$ and $7.0 M e V$ , respectively. When two deuterium nuclei fuse to form a helium nucleus the energy released in the fusion is :

Two lighter nuclei are fused together to form a nucleus of medium atomic mass and energy is released in this process because

The binding energy per nucleon for $_{1}^{2} H$ and $_{2}^{4} H e$ respectively are $1.1$ MeV and $7.1$ MeV. The energy released in MeV when two $_{1}^{2} H$ nuclei fuse to form $_{2}^{4} H e$ is

Revise with Concepts

Nuclear Fusion (Phy)

Controlled Thermonuclear Fusion

When two nuclei (A≤10) fuse together to form a heavier nucleus, the

binding energy per nucleon increases.

binding energy per nucleon decreases.

binding energy per nucleon does not change.

total binding energy decreases.

Since the two nuclei fuse together to from a stable heavier nucleus, the heavier nucleus will be more stable that the two nuclei. So, the binding energy of the heavier nucleus is greater than the binding energy of the two nuclei.Option (A) is correct.

The binding energy per nucleon in deuterium and helium nuclei are 1.1MeV and 7.0MeV, respectively. When two deuterium nuclei fuse to form a helium nucleus the energy released in the fusion is :

Two lighter nuclei are fused together to form a nucleus of medium atomic mass and energy is released in this process because

In a nuclear fusion reaction, two nuclei, A and B, fuse to produce a nucleus C, releasing an amount of energy δE in the process. If the mass defects of the three nuclei are δMA​,δMB​ and δMC​ respectively, then which of the following relations holds? Here, c is the speed of the light.

The binding energy per nucleon for 12​H and 24​He respectively are 1.1 MeV and 7.1 MeV. The energy released in MeV when two 12​H nuclei fuse to form 24​He is

Revise with Concepts

Nuclear Fusion (Phy)

Controlled Thermonuclear Fusion

When two nuclei $(A \leq 10)$ fuse together to form a heavier nucleus, the

Since the two nuclei fuse together to from a stable heavier nucleus, the heavier nucleus will be more stable that the two nuclei. So, the binding energy of the heavier nucleus is greater than the binding energy of the two nuclei.
Option (A) is correct.

The binding energy per nucleon in deuterium and helium nuclei are $1.1 M e V$ and $7.0 M e V$ , respectively. When two deuterium nuclei fuse to form a helium nucleus the energy released in the fusion is :

The binding energy per nucleon for $_{1}^{2} H$ and $_{2}^{4} H e$ respectively are $1.1$ MeV and $7.1$ MeV. The energy released in MeV when two $_{1}^{2} H$ nuclei fuse to form $_{2}^{4} H e$ is