Chapter 21 Notes
... The ion source in a mass spectrometer produces singly and doubly ionized species. The difference in mass between these species is too small to be detected. Both species experience the same potential difference and magnetic field. Find the ratio of the radius of the path of particle 1(+e) to that of ...
... The ion source in a mass spectrometer produces singly and doubly ionized species. The difference in mass between these species is too small to be detected. Both species experience the same potential difference and magnetic field. Find the ratio of the radius of the path of particle 1(+e) to that of ...
Quantum Interference and the Quantum Potential
... choice of either tracing the path of a particle or observing interference effects. Our results show that this is not the case since the essential features of the wholeness of quantum phenomena can be retained without the need to give up the idea of point particles following well-defined trajectories ...
... choice of either tracing the path of a particle or observing interference effects. Our results show that this is not the case since the essential features of the wholeness of quantum phenomena can be retained without the need to give up the idea of point particles following well-defined trajectories ...
PHYS 212 – MT3 Spring 2013 Sample 1 Solutions
... A conducting ring moves downward in the magnetic field of a permanent magnet whose south pole is on top (see sketch). At the instant shown, the induced current in the coil and the magnetic force on the ring are: A. Current as seen from above clockwise and magnetic force down. B. Current as seen from ...
... A conducting ring moves downward in the magnetic field of a permanent magnet whose south pole is on top (see sketch). At the instant shown, the induced current in the coil and the magnetic force on the ring are: A. Current as seen from above clockwise and magnetic force down. B. Current as seen from ...
Solid sphere of charge. An electric charge Q is distributed uniformly
... charges on the inner and outer surfaces of the conductor? Solution: The field must be zero within the conductor, so the inner surface of the cavity must have an induced charge totaling –q (so that a gaussian surface just around the cavity encloses no charge). The charge +Q resides on the outer surfa ...
... charges on the inner and outer surfaces of the conductor? Solution: The field must be zero within the conductor, so the inner surface of the cavity must have an induced charge totaling –q (so that a gaussian surface just around the cavity encloses no charge). The charge +Q resides on the outer surfa ...
The Magnetosphere and Plasmasphere
... • “Non-adiabatic charged particle motion near a magnetic field zero line”, Plasma Physics 13, 977 (1971) • W. Peter & N. Rostoker, “Theory of plasma injection into a magnetic field”, Phys. Fluids 25, 730 (1982) • J. Chen & P. J. Palmadesso, “Chaos and nonlinear dynamics of single-particle orbits in ...
... • “Non-adiabatic charged particle motion near a magnetic field zero line”, Plasma Physics 13, 977 (1971) • W. Peter & N. Rostoker, “Theory of plasma injection into a magnetic field”, Phys. Fluids 25, 730 (1982) • J. Chen & P. J. Palmadesso, “Chaos and nonlinear dynamics of single-particle orbits in ...
[2015 solutions]
... Hence for two perpendicular sheets with charge densities ±σ the magnitude of the electric field is ...
... Hence for two perpendicular sheets with charge densities ±σ the magnitude of the electric field is ...