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Calculate mass defect in the following r...

Calculate mass defect in the following reaction: `H_1^2 + H_1^3 to He_2^4+n_0^1`
(Given: mass `H^(2) = 2.014 am u, H^3 = 3.016 `amu He= 4.004,n =1.008amu)

A

0.018 amu

B

0.18 amu

C

0.0018 amu

D

1.8 amu

Text Solution

AI Generated Solution

The correct Answer is:
To calculate the mass defect in the given nuclear reaction, we will follow these steps: ### Step 1: Identify the reactants and products The reaction is: \[ H_2^1 + H_3^1 \rightarrow He_4^2 + n_1^0 \] Here, the reactants are: - \( H_2^1 \) (Deuterium) - \( H_3^1 \) (Tritium) And the products are: - \( He_4^2 \) (Helium) - \( n_1^0 \) (Neutron) ### Step 2: Write down the given masses - Mass of \( H_2^1 \) = 2.014 amu - Mass of \( H_3^1 \) = 3.016 amu - Mass of \( He_4^2 \) = 4.004 amu - Mass of \( n_1^0 \) = 1.008 amu ### Step 3: Calculate the total mass of the reactants The total mass of the reactants is the sum of the masses of \( H_2^1 \) and \( H_3^1 \): \[ \text{Total mass of reactants} = \text{mass of } H_2^1 + \text{mass of } H_3^1 \] \[ = 2.014 \, \text{amu} + 3.016 \, \text{amu} = 5.030 \, \text{amu} \] ### Step 4: Calculate the total mass of the products The total mass of the products is the sum of the masses of \( He_4^2 \) and \( n_1^0 \): \[ \text{Total mass of products} = \text{mass of } He_4^2 + \text{mass of } n_1^0 \] \[ = 4.004 \, \text{amu} + 1.008 \, \text{amu} = 5.012 \, \text{amu} \] ### Step 5: Calculate the mass defect The mass defect (\( \Delta m \)) is the difference between the total mass of the reactants and the total mass of the products: \[ \Delta m = \text{Total mass of reactants} - \text{Total mass of products} \] \[ = 5.030 \, \text{amu} - 5.012 \, \text{amu} = 0.018 \, \text{amu} \] ### Conclusion The mass defect for the reaction \( H_2^1 + H_3^1 \rightarrow He_4^2 + n_1^0 \) is: \[ \Delta m = 0.018 \, \text{amu} \] ---
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