| Preface; Introduction. Historical Summary |
| I. Möbius Transformation |
| §5. Conformal representation in general |
| §§6-9. Möbius Transformation |
| §§10-12. Invariance of the cross-ratio |
| §§13-15. Pencils of circles |
| §§16-22. Bundles of circles |
| §§23-25. Inversion with respect to a circle |
| §§26-30. Geometry of Möbius Transformations |
| II. Non-Euclidean Geometry |
| §§31-34. Inversion with respect to the circles of a bundle |
| §35. Representation of a circular area on itself |
| §§36, 37. Non-Euclidean Geometry |
| §§38-41. Angle and distance |
| §42. The triangle theorem |
| §43. Non-Euclidean length of a curve |
| §44. Geodesic curvature |
| §45-47. Non-Euclidean motions |
| §48. Parallel curves |
| III. Elementary Transformations |
| §49-51. The exponential function |
| §§52, 53. Representation of a rectilinear strip on a circle |
| §54. Representation of a circular crescent |
| §§55-59. Representation of Riemann surfaces |
| §§60, 61. Representation of the exterior of an ellipse |
| §§62-66. Representation of an arbitrary simply-connected domain on a bounded domain |
| IV. Schwarz's Lemma |
| §67. Schwarz's Theorem |
| §68. Theorem of uniqueness for the conformal representation of simply-connected domains |
| §69. Liouville's Theorem |
| §§70-73. Invariant enunciation of Schwarz's Lemma |
| §74. Functions with positive real parts |
| §75. Harnack's Theorem |
| §76. Functions with bounded real parts |
| §§77-79. Surfaces with algebraic and logarithmic branch-points |
| §§80-82. Representation of simple domains |
| §§83-85. Representation upon one another of domains containing circular areas |
| §86. Problem |
| §§87, 88. Extensions of Schwarz's Lemma |
| §§89-93. Julia's Theorem |
| V. The Fundamental Theorems of Conformal Representation |
| §94. Continuous convergence |
| §§95, 96. Limiting oscillation |
| §§97-99. Normal families of bounded functions |
| §100. Existence of the solution in certain problems of the calculus of variations |
| §§101-103. Normal families of regular analytic functions |
| §104. Application to conformal representation |
| §§105-118. The main theorem of conformal representation |
| §119. Normal families composed of functions which transform simple domains into circles |
| §§120-123. The kernel of a sequence of domains |
| §124. Examples |
| §§125-130. Simultaneous conformal transformation of domains lying each within an |
| VI. Transformation of the Frontier |
| §§131-133. An inequality due to Lindelöf |
| §§134, 135. Lemma 1, on representation of the frontier |
| §136. Lemma 2 |
| §§137, 138. Transformation of one Jordan domain into another |
| §§139, 140. Inversion with respect to an analytic curve |
| §§141-145. The inversion principle |
| §§146-151. Transformation of corners |
| §§152, 153. Conformal transformation on the frontier |
| VII. Transformation of Closed Surfaces |
| §§154, 155. Blending of domains |
| §§156. Conformal transformation of a three-dimensional surface |
| §§157-161. Conformal representation of a closed surface on a sphere |
| VIII. The General Theorem of Uniformisation |
| §§162, 163, 164. Abstract surfaces |
| §§165, 166. The universal covering surface |
| §167. Domains and their boundaries |
| §168. The Theorem of van der Waerden |
| §169. Riemann surfaces |
| §§170, 171. The Uniformisation Theorem |
| §172. Conformal representation of a torus |
| Bibliographical Notes |