364996 A monochromatic light wave with wavelength \(\lambda_{1}\) and frequency \(v_{1}\) in air enters another medium. If the angle of incidence and angle of refraction at the interface are \(45^{\circ}\) and \(30^{\circ}\) respectively, then the wavelength \(\lambda_{2}\) and frequency \(v_{2}\) of the refracted wave are
364997
\(A,{\rm{ }}B\) and \(C\) are the parallel sided transparent media of refractive index \({n_1},{n_2}\) and \({n_3}\) respectively. They are arranged as shown in the figure. A ray is incident at an angle \(\theta \) on the surface of separation of \(A\) and \(B\) which is as shown in the figure. After the refraction into the medium \(B\), the ray grazes the surface of separation of the media \(B\) and \(C\). Then sin \(\theta \) =
364998
A ray of light travelling through glass of refractive index \(\sqrt 2 \) is incident on glass - air boundary at an angle of incidence \(45^\circ \) . If refractive index of air is 1, then the angle of refraction will be
\(\left[ {\sin {{45}^o} = \frac{1}{{\sqrt 2 }},\sin {{90}^o} = 1} \right]\)
364996 A monochromatic light wave with wavelength \(\lambda_{1}\) and frequency \(v_{1}\) in air enters another medium. If the angle of incidence and angle of refraction at the interface are \(45^{\circ}\) and \(30^{\circ}\) respectively, then the wavelength \(\lambda_{2}\) and frequency \(v_{2}\) of the refracted wave are
364997
\(A,{\rm{ }}B\) and \(C\) are the parallel sided transparent media of refractive index \({n_1},{n_2}\) and \({n_3}\) respectively. They are arranged as shown in the figure. A ray is incident at an angle \(\theta \) on the surface of separation of \(A\) and \(B\) which is as shown in the figure. After the refraction into the medium \(B\), the ray grazes the surface of separation of the media \(B\) and \(C\). Then sin \(\theta \) =
364998
A ray of light travelling through glass of refractive index \(\sqrt 2 \) is incident on glass - air boundary at an angle of incidence \(45^\circ \) . If refractive index of air is 1, then the angle of refraction will be
\(\left[ {\sin {{45}^o} = \frac{1}{{\sqrt 2 }},\sin {{90}^o} = 1} \right]\)
364996 A monochromatic light wave with wavelength \(\lambda_{1}\) and frequency \(v_{1}\) in air enters another medium. If the angle of incidence and angle of refraction at the interface are \(45^{\circ}\) and \(30^{\circ}\) respectively, then the wavelength \(\lambda_{2}\) and frequency \(v_{2}\) of the refracted wave are
364997
\(A,{\rm{ }}B\) and \(C\) are the parallel sided transparent media of refractive index \({n_1},{n_2}\) and \({n_3}\) respectively. They are arranged as shown in the figure. A ray is incident at an angle \(\theta \) on the surface of separation of \(A\) and \(B\) which is as shown in the figure. After the refraction into the medium \(B\), the ray grazes the surface of separation of the media \(B\) and \(C\). Then sin \(\theta \) =
364998
A ray of light travelling through glass of refractive index \(\sqrt 2 \) is incident on glass - air boundary at an angle of incidence \(45^\circ \) . If refractive index of air is 1, then the angle of refraction will be
\(\left[ {\sin {{45}^o} = \frac{1}{{\sqrt 2 }},\sin {{90}^o} = 1} \right]\)
364996 A monochromatic light wave with wavelength \(\lambda_{1}\) and frequency \(v_{1}\) in air enters another medium. If the angle of incidence and angle of refraction at the interface are \(45^{\circ}\) and \(30^{\circ}\) respectively, then the wavelength \(\lambda_{2}\) and frequency \(v_{2}\) of the refracted wave are
364997
\(A,{\rm{ }}B\) and \(C\) are the parallel sided transparent media of refractive index \({n_1},{n_2}\) and \({n_3}\) respectively. They are arranged as shown in the figure. A ray is incident at an angle \(\theta \) on the surface of separation of \(A\) and \(B\) which is as shown in the figure. After the refraction into the medium \(B\), the ray grazes the surface of separation of the media \(B\) and \(C\). Then sin \(\theta \) =
364998
A ray of light travelling through glass of refractive index \(\sqrt 2 \) is incident on glass - air boundary at an angle of incidence \(45^\circ \) . If refractive index of air is 1, then the angle of refraction will be
\(\left[ {\sin {{45}^o} = \frac{1}{{\sqrt 2 }},\sin {{90}^o} = 1} \right]\)
364996 A monochromatic light wave with wavelength \(\lambda_{1}\) and frequency \(v_{1}\) in air enters another medium. If the angle of incidence and angle of refraction at the interface are \(45^{\circ}\) and \(30^{\circ}\) respectively, then the wavelength \(\lambda_{2}\) and frequency \(v_{2}\) of the refracted wave are
364997
\(A,{\rm{ }}B\) and \(C\) are the parallel sided transparent media of refractive index \({n_1},{n_2}\) and \({n_3}\) respectively. They are arranged as shown in the figure. A ray is incident at an angle \(\theta \) on the surface of separation of \(A\) and \(B\) which is as shown in the figure. After the refraction into the medium \(B\), the ray grazes the surface of separation of the media \(B\) and \(C\). Then sin \(\theta \) =
364998
A ray of light travelling through glass of refractive index \(\sqrt 2 \) is incident on glass - air boundary at an angle of incidence \(45^\circ \) . If refractive index of air is 1, then the angle of refraction will be
\(\left[ {\sin {{45}^o} = \frac{1}{{\sqrt 2 }},\sin {{90}^o} = 1} \right]\)