A beam of fast moving alpha particles were directed towards a thin film of gold. The parts $A',\;B'$ and $C'$of the transmitted and reflected beams corresponding to the incident parts $A, B$ and $C$ of the beam, are shown in the adjoining diagram. The number of alpha particles in
A beam of fast moving alpha particles were directed towards a thin film of gold. The parts $A',\;B'$ and $C'$of the transmitted and reflected beams corresponding to the incident parts $A, B$ and $C$ of the beam, are shown in the adjoining diagram. The number of alpha particles in
- A
$B'$ will be minimum and in $C'$ maximum
- B
$A'$ will be maximum and in $B'$ minimum
- C
$A'$ will be minimum and in $B'$ maximum
- D
$C'$ will be minimum and in $B'$ maximum
Similar Questions
Given below are two statements:
Statement $I$: Atoms are electrically neutral as they contain equal number of positive and negative charges.
Statement $II$: Atoms of each element are stable and emit their characteristic spectrum.
In the light of the above statements, choose the most appropriate answer from the options given below.
Given below are two statements:
Statement $I$: Atoms are electrically neutral as they contain equal number of positive and negative charges.
Statement $II$: Atoms of each element are stable and emit their characteristic spectrum.
In the light of the above statements, choose the most appropriate answer from the options given below.
- [NEET 2024]
Give the relationship between impact parameter and scattering angle.
Give the relationship between impact parameter and scattering angle.
Explain Rutherford's explanation for scattered $\alpha $ -particles.
Explain Rutherford's explanation for scattered $\alpha $ -particles.
According to the Rutherford’s atomic model, the electrons inside the atom are
According to the Rutherford’s atomic model, the electrons inside the atom are
For principal quantum number $n = 3$, the possible values of orbital quantum number $‘l’$ are
For principal quantum number $n = 3$, the possible values of orbital quantum number $‘l’$ are