Home
Class 12
PHYSICS
Find the minimum energy required to sepa...

Find the minimum energy required to separated a neutron form `._18Ar^(40)`. Given `M_n=1.008665 u` , mass of `._18Ar^(40)=39.962383u` and mass of `._18Ar^(39)=38.964314u`.

Text Solution

Verified by Experts

The nuclear reaction involved is
`._18Ar^(40)` to `._18Ar^(39)+._0n^1`
Mass defect `=39.962383-(38.964314+1.008665)`
`Deltam=0.010596u`
`:.` Minimum separation energy required
`=Delta mxx931MeV`
`=0.010596xx931=9.86MeV`
Promotional Banner

Topper's Solved these Questions

  • ATOMS AND NUCLEI

    PRADEEP|Exercise (II) very short answer 16|1 Videos
  • ATOMS AND NUCLEI

    PRADEEP|Exercise (I) Short Answer questions 1|1 Videos
  • COMMUNICATION SYSTEMS

    PRADEEP|Exercise MODEL TEST PAPER-2|9 Videos

Similar Questions

Explore conceptually related problems

Calculate the energy required to remove the least tightly neutron form .^20(Ca^(40)) . Given that Mass of .^20(Ca^(40)) = 39.962589 amu Mass of .^20(Ca^(39)) = 38.970691 amu Mass of neutron = 1.008665 amu

Find the Binding energy per neucleon for ""_(50)^(120)Sn Mass of proton m_(p)=1.00783U , mass of neutron m_(n)=1.00867U and mass of tin nucleus m_(Sn)=119.902199U . (take 1 U = 931 MEV)

Calculate the minimum energy needed to separate a neutron form a nucleus with Z protons and N neutrons in terms of the masses M_(Z,N),M_(Z,N-1) and the mass of the neutron.

The energy required to separate the typical middle mass nucleus ._(50)^(120)Sn into its constituent nucleons ( Mass of ._(50)^(120)sn=119.902199u , mass of proton =1.007825 u and mass of neutron =1.008665 u )

Calculate the B.E./nucleon of ._17Cl^(35) nucleus. Given that of proton =1.007825u , mass of neutron =1.008665 u , mass of ._17Cl^(35)=34.980000u , 1u=931MeV .

Find energy required to break an aluminium nucleus into its constituent nucleons ( m_n = 1.00867 u , m_p = 1.00783 u , m_Al = 26.98154 u )

Calculate the binding energy per nucleon of ._(20)^(40)Ca . Given that mass of ._(20)^(40)Ca nucleus = 39.962589 u , mass of proton = 1.007825 u . Mass of Neutron = 1.008665 u and 1 u is equivalent to 931 MeV .

What would be the energy required to dissociate completely 1 g of Ca-40 into its constituent, particles? Given: Mass of proton =1.00866 am u , Mass of neutron =1.00866 am u , Mass of Ca-40 =39.97454 am u , (Take 1 am u =931 MeV ).