267753 A charged bead is capable of sliding freely through a string held vertically in tension. An electric field is applied parallel to the string so that the bead stays at rest of the middle of the string. If the electric field is switched off momentarily and switched on

267754 An electron is moving with constant velocity along \(x\)-axis. If a uniform electric field is applied along \(y\)-axis, then its path in the \(x-y\) plane will be

267755 An electron of mass \(M_{e}\), initially at rest, moves through a certain distance in a uniform electric field in time \(t_{1}\), proton of mass \(M_{p}\) also initially at rest, takes time \(t_{2}\) to move through an equal distance in this uniform electric field. Neglecting the effect of gravity the ratio \(t_{2} / t_{1}\) is nearly equal to

267850 Two charges of\(50 \mu \mathrm{C}\) and \(100 \mu \mathrm{C}\) are separated by a distance of \(0.6 \mathrm{~m}\). The intensity of electric field at a point midway between them is

267753 A charged bead is capable of sliding freely through a string held vertically in tension. An electric field is applied parallel to the string so that the bead stays at rest of the middle of the string. If the electric field is switched off momentarily and switched on

267754 An electron is moving with constant velocity along \(x\)-axis. If a uniform electric field is applied along \(y\)-axis, then its path in the \(x-y\) plane will be

267755 An electron of mass \(M_{e}\), initially at rest, moves through a certain distance in a uniform electric field in time \(t_{1}\), proton of mass \(M_{p}\) also initially at rest, takes time \(t_{2}\) to move through an equal distance in this uniform electric field. Neglecting the effect of gravity the ratio \(t_{2} / t_{1}\) is nearly equal to

267850 Two charges of\(50 \mu \mathrm{C}\) and \(100 \mu \mathrm{C}\) are separated by a distance of \(0.6 \mathrm{~m}\). The intensity of electric field at a point midway between them is

267753 A charged bead is capable of sliding freely through a string held vertically in tension. An electric field is applied parallel to the string so that the bead stays at rest of the middle of the string. If the electric field is switched off momentarily and switched on

267754 An electron is moving with constant velocity along \(x\)-axis. If a uniform electric field is applied along \(y\)-axis, then its path in the \(x-y\) plane will be

267755 An electron of mass \(M_{e}\), initially at rest, moves through a certain distance in a uniform electric field in time \(t_{1}\), proton of mass \(M_{p}\) also initially at rest, takes time \(t_{2}\) to move through an equal distance in this uniform electric field. Neglecting the effect of gravity the ratio \(t_{2} / t_{1}\) is nearly equal to

267850 Two charges of\(50 \mu \mathrm{C}\) and \(100 \mu \mathrm{C}\) are separated by a distance of \(0.6 \mathrm{~m}\). The intensity of electric field at a point midway between them is

267753 A charged bead is capable of sliding freely through a string held vertically in tension. An electric field is applied parallel to the string so that the bead stays at rest of the middle of the string. If the electric field is switched off momentarily and switched on

267754 An electron is moving with constant velocity along \(x\)-axis. If a uniform electric field is applied along \(y\)-axis, then its path in the \(x-y\) plane will be

267755 An electron of mass \(M_{e}\), initially at rest, moves through a certain distance in a uniform electric field in time \(t_{1}\), proton of mass \(M_{p}\) also initially at rest, takes time \(t_{2}\) to move through an equal distance in this uniform electric field. Neglecting the effect of gravity the ratio \(t_{2} / t_{1}\) is nearly equal to

267850 Two charges of\(50 \mu \mathrm{C}\) and \(100 \mu \mathrm{C}\) are separated by a distance of \(0.6 \mathrm{~m}\). The intensity of electric field at a point midway between them is