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| Article | Page | |
|---|---|---|
| 165. | Finite systems of successive images In electrostatics, "images" refer to a mathematical method for calculating the electric field by placing imaginary charges. .. .. .. .. .. .. | 203 |
| 166. | Case of two spherical surfaces intersecting at an angle of 180 degrees divided by n original: $\frac{π}{n}$ .. .. | 204 |
| 167. | List of the cases in which the number of images is finite .. .. .. .. .. .. .. .. .. .. | 206 |
| 168. | Case of two spheres intersecting at right angles original: "orthogonally" .. .. .. .. | 207 |
| 169. | Case of three spheres intersecting at right angles .. .. .. | 210 |
| 170. | Case of four spheres intersecting at right angles .. .. .. | 211 |
| 171. | Infinite series of images. Case of two spheres with the same center original: "concentric spheres" .. | 212 |
| 172. | Any two spheres that do not intersect each other .. .. .. .. | 213 |
| 173. | Calculation of the coefficients of capacity and induction .. .. | 216 |
| 174. | Calculation of the charges of the spheres, and of the force between them .. .. .. .. .. .. .. .. | 217 |
| 175. | Distribution of electricity on two spheres in contact. The "proof sphere" method .. .. .. .. .. .. .. .. .. .. | 219 |
| 176. | William Thomson’s Later known as Lord Kelvin. investigation of an electrified spherical bowl .. .. | 221 |
| 177. | Distribution on an ellipsoid, and on a circular disk at electric potential V .. .. .. .. .. .. .. .. .. | 221 |
| 178. | Induction on a disk or bowl that is not insulated, caused by an electrified point located on the extension of the plane or spherical surface .. | 222 |
| 179. | The rest of the sphere assumed to be uniformly electrified .. .. | 223 |
| 180. | The bowl maintained at potential V and not influenced by other charges .. .. | 223 |
| 181. | Induction on the bowl due to a point placed anywhere .. .. | 224 |
"Conjugate functions" are pairs of mathematical functions used here to solve complex problems regarding electric fields in a flat plane.
| 182. | Cases in which the quantities are functions of x and y coordinates only .. | 226 |
| 183. | Conjugate functions .. .. .. .. .. .. .. .. .. | 227 |
| 184. | Conjugate functions may be added or subtracted .. .. .. | 228 |
| 185. | Conjugate functions of other conjugate functions are themselves conjugate .. .. .. .. .. .. .. .. .. .. | 229 |
| 186. | Transformation of Poisson’s equation A fundamental partial differential equation used to describe the potential field caused by a given charge distribution. .. .. .. .. .. | 231 |
| 187. | Additional theorems on conjugate functions .. .. .. .. | 232 |
| 188. | Inversion in two dimensions .. .. .. .. .. .. .. | 232 |
| 189. | Electric images in two dimensions .. .. .. .. .. .. | 233 |
| 190. | Neumann’s transformation of this case .. .. .. .. .. | 234 |
| 191. | Distribution of electricity near the edge of a conductor formed by two plane surfaces .. .. .. .. .. .. .. .. | 236 |
| 192. | Ellipses and hyperbolas. (Figure X) .. .. .. .. .. .. | 237 |
| 193. | Transformation of this case. (Figure XI) .. .. .. .. .. | 238 |