283257 A beam of light consisting of two wavelengths \(6500 \AA\) and \(5200 \AA\), is used to obtain interference fringes in Young's double slit experiment. Suppose the \(\mathrm{m}^{\text {th }}\) bright fringe due to \(6500 \AA\) coincides with \(n^{\text {th }}\) bright fringe due to \(5200 \AA\) at a minimum distance from the central maximum. Then :
283257 A beam of light consisting of two wavelengths \(6500 \AA\) and \(5200 \AA\), is used to obtain interference fringes in Young's double slit experiment. Suppose the \(\mathrm{m}^{\text {th }}\) bright fringe due to \(6500 \AA\) coincides with \(n^{\text {th }}\) bright fringe due to \(5200 \AA\) at a minimum distance from the central maximum. Then :
283257 A beam of light consisting of two wavelengths \(6500 \AA\) and \(5200 \AA\), is used to obtain interference fringes in Young's double slit experiment. Suppose the \(\mathrm{m}^{\text {th }}\) bright fringe due to \(6500 \AA\) coincides with \(n^{\text {th }}\) bright fringe due to \(5200 \AA\) at a minimum distance from the central maximum. Then :
283257 A beam of light consisting of two wavelengths \(6500 \AA\) and \(5200 \AA\), is used to obtain interference fringes in Young's double slit experiment. Suppose the \(\mathrm{m}^{\text {th }}\) bright fringe due to \(6500 \AA\) coincides with \(n^{\text {th }}\) bright fringe due to \(5200 \AA\) at a minimum distance from the central maximum. Then :