Young's Double Slit Experiment

In Young’s double-slit experiment, the two slits act as coherent sources of equal amplitude 'A' and of wavelength $\lambda$. In another experiment with the same set-up the two slits are sources of equal amplitude 'A' and wavelength $\lambda$ . but are incoherent. The ratio of the intensity of light at the midpoint of the screen in the first case to that in the second case is ______

Can white light produce interference? What is nature?

What is the importance of slits in Young$\text{'}$s double slit experiment?

In Young's double slit experiment, the slits are $2 \mathrm{mm}$ apart and are illuminated by photons of two wavelengths $750 \mathrm{nm} \mathrm{and} 950 \mathrm{nm}$. At what minimum distance from the common central bright fringe on the screen  $2 \mathrm{m}$ from the slit will a bright fringe from one interference pattern coincide with a bright fringe from the other?

Does diffraction take place at  the Young's double slit?

Obtain the equation for the bandwidth in the Young's double slit experiment.

In a Young's double slit experiment, the slit separation is doubled. To maintain the same fringe spacing on the screen, the screen to slit distance $D$ must be changed to:

What is bandwidth of interference pattern? 

In the YDSE experiment, the distance between the slits is $5 \mathrm{mm}$ and the distance between the slits and the screen is $1 \mathrm{m}$. A light of wavelength $100 \mathrm{nm}$ is used. What is the maximum path difference in millimeters that is possible between the light from the two slits in this configuration?

The fringe width in the interference pattem obtained on a screen kept at a distance of $1.2 \mathrm{m}$ from the slits in a double slit experiment when light of wavelength $560\mathrm{nm}$ is used is $0.48 \mathrm{mm}$. Then find the separation between the slits.

In a Young's double slit experiment, the fringe pattern is observed on a screen placed at a distance $D$ from the slits. The slits are separated by a distance $d,$ and are illuminated by monochromatic light of wavelength $\lambda .$ The length of the slits is $\ell , \ell$ is usually much greater than $d.$ The slit width $w$ is extremely small, and the slits are otherwise identical.

Three equidistant slits are illuminated by a monochromatic parallel beam of light falling normally onto them. The screen is parallel to the plane of the slits and the slit separation $d<<D$. The observation point $P$ is directly opposite $A$. It is given that $BP-AP=\frac{\lambda }{4}, \lambda$ being the wavelength of light. Find the ratio of the intensity at $P$ when all slits are open to the intensity at $P$ when only one slit is open.

In a single slit diffraction pattern, the distance between the first minimum on the left and the first minimum on the right is $5 \mathrm{mm}$. The screen on which the diffraction pattern is displayed is at a distance of $80 \mathrm{cm}$ from the slit. The wavelength is $6000 \mathrm{\AA }$. The slit width is about $1.92\times {10}^{-n} \mathrm{m}$. Find the value of $n$.

Two slits in Young's experiment have widths in the ratio $81:1$. What is the ratio of the amplitudes of light waves coming from them ?

A beam of microwaves of wavelength $0.052 \mathrm{m}$ is propagating towards a rectangular aperture of width $0.35 \mathrm{m}$. Resultant diffraction pattern is formed on a wall at a distance $8.0 \mathrm{m}$ from the aperture. What is the distance between first and second order outer fringes?

Two white points are $1 \mathrm{mm}$ apart from each other on a black paper then are viewed from pupil of eye of $3 \mathrm{mm}$ diameter. What is the maximum distance between them so that they are just resolved by eye? (wavelength of light = $500 \mathrm{nm}$)

Light of two different wavelengths is used in young's double slit experiment. Position of third fringe for yellow-orange colour $\left(600 \mathrm{nm}\right)$ coincides with the position of fourth bright fringe for other colour. What is wavelength of other colour?

In Young's double slit experiment, how many maxima can be obtained on a screen (including central maxima), if $d=\frac{5\lambda }{2}$ (where, $\lambda$ is the wavelength of light)?

Two slits are separated by a distance of $0.5 mm$ and illuminated with light of $\lambda =6000 Å.$ If the screen is placed $2.5 m,$ from the slits. The distance of the third bright image from the centre will be

In Young's double slit experiment, red light of wavelength 6000A is used and then $n^{th}$ bright fringe is obtained at a point 'P' on the screen. Keeping the same setting, the source of light is replaced by green light of wavelength 5000A and now ${\left(n+1\right)}^{th}$ bright fringe is obtained at the point P on the screen. The value if 'n' is