noblegas
Nov1-09, 10:22 PM
1. The problem statement, all variables and given/known data
A very long cylinder of liner dielectric materil is placed in an otherwise uniform electric field E_0 . Find the resulting field within the cylinder. (the radius is a , the susceptibililty \chi_e and the axis is perpendicular to E_0)
2. Relevant equations
3. The attempt at a solution
V_in(r,\theta)= \sigma(l=0..infinity)A_l*r^l*P_l(cos(\theta)
should I take the derivative of V_in with respect to r to obtain the field? Not sure why latex isn't display infiinity but l is supposed to range from zero to infinity
I also know that E_0 = \lambda/(2*\pi*\epsilon_0*a)
P_0=\epsilon_0*\chi_e*E_0 P=\epsilon*\chi_e*E ; should I plugged \chi_e=P/(E_0*\epsilon_0) into P to get E?
A very long cylinder of liner dielectric materil is placed in an otherwise uniform electric field E_0 . Find the resulting field within the cylinder. (the radius is a , the susceptibililty \chi_e and the axis is perpendicular to E_0)
2. Relevant equations
3. The attempt at a solution
V_in(r,\theta)= \sigma(l=0..infinity)A_l*r^l*P_l(cos(\theta)
should I take the derivative of V_in with respect to r to obtain the field? Not sure why latex isn't display infiinity but l is supposed to range from zero to infinity
I also know that E_0 = \lambda/(2*\pi*\epsilon_0*a)
P_0=\epsilon_0*\chi_e*E_0 P=\epsilon*\chi_e*E ; should I plugged \chi_e=P/(E_0*\epsilon_0) into P to get E?