Nano/Microscale Heat Transfer

| 10.1 | For incidence from glass with n = 1.5 to air, calculate the Goos-H nchen phase shift ? for both TE and TM waves. Plot ? as a function of the incidence angle ? 1. |
| 10.2 | Show that the normal component of the time-averaged Poynting vector is zero in both media when total internal reflection occurs. Prove Eq. (10.8). |
| 10.3 | Calculate the Goos-H nchen lateral shift upon total internal reflection from a dielectric with n = 2 to air. Plot the lateral shift for both TE and TM waves as a function of ? 1. Discuss the cause and the physical significance of the lateral beam shift. |
| 10.4 | A perfect conductor can be understood based on the Drude free-electron model by neglecting the collision term. The dielectric function becomes ?( ?) = 1 ? ? 2 p/ ? 2, where ? p is the plasma frequency. For radiation incident from air to a perfect conductor, calculate the phase shift when ? = ? p/2 for TE and TM waves as a function of the incidence angle. Use Eq. (10.9) to calculate the lateral beam shift for a TM wave and modify it for a TE wave. Do you expect a sign difference between the TE and TM waves? |
| 10.5 | For a planar waveguide with n 1 = 1.54 and n 2 = 1.23, with a thickness of d = 200 nm,... |