| 1. History, axioms, absolute geometry, 5th postulate, various geometries. | 8/26 |
| 1. An algebraic model of the Euclidean plane: the Gauss plane, Cartesian coordinates. | 0.1-0.3 | 8/28 |
| 2. Complex numbers: the Argand diagram; the conjugate of a complex number; the triangle inequality; trigonometric form of a complex number - De Moivre's Theorem. | 0.4-0.8 | 8/31 |
| 3. Vectors in the Euclidean (and affine) plane; equation of a line; parametric representation of a line. | 1.1-1.4
2.1, 3.1 |
8/28 |
| 4. Algebraic criterion of collinearity of three points (xA+yB+zC=0, where x+y+z=0 and one of x, y, z is non-zero). | 3.1-3.3 | 9/2 |
| 5. Theorem of Menelaus; barycentric coordinates; signed area of a triangle; Theorem of Ceva. | 4.1-4.3 | |
| 6. Inner product; the nine-point circle. | 7.1-7.3 | |
| 7. Synthetic method of solving geometrical problems; "locus of points" as a problem solving strategy. | ||
| 8. Geometric Construction with a straightedge and compass. |
| 1. Geometrical transformations: composition, identity, inverse transformation, notion of a group. | 0.11,-0.12 | |
| 2. Transformations of the Euclidean plane: translations, rotations, reflections, glide reflections, central dilations. | 41.1-41.5 | |
| 3. Complex numbers and inversions of the Euclidean plane. | 20.1-20.4 | |
| 4. How inversions help to solve some construction problems. | 31.1 | |
| 5. Isomerties of the Euclidean plane form a group. Every isometry is a collineation. | 42.1-42.2,
43.1-43.3, 46.4 |
|
| 6. Direct and indirect isometries. Fixed points and fixed lines of translations, rotations, reflections, and glide reflections. | 48.1-48.5,
49.1-49.3 |
|
| 7. Isometries are uniquely determined by images of three points; the classification theorem of isometries of the Euclidean plane. | 50.1, 51.1,
51.4 |
|
| 8. Matrix representation of geometrical transformations. | 80.3 | |
| 9. Discrete symmetry groups: rosette, frieze, and wallpaper groups. | [21] |
| 1. Inversive plane as extended Gauss plane; stereographic projection; the group of Moebius transformations. | 52.1-52.5
53.1-53.2 |
|
| 2. Moebius transformations map line and circles into lines and circles. | 52.3 | |
| 3. The cross-ratio; its invariance under Moebius transformations; the reality of the cross-ratio for four distinct points lying on a straight line or a circle. | 53.3 -53.5 | |
| 4. Conformal property of Moebius transformations; classification of Moebius transformations. | 54.3 |
| 1. Incidence geometry of the sphere; distance and the triangle
inequality; parametric representation of
lines, perpendicular lines. |
{4} | |
| 2. Centroid of a spherical triangle; the area of a spherical triangle. | [11] | |
| 3. Orthogonal transformations of the 3-space; Euler's Theorem;
isometries of the sphere, their fixed
points and fixed lines.; spherical trigonometry. |
{4} | |
| 4. Finite rotation groups. | {4} |
| 1. Central projection in the 3-dimensional space; projective
plane as a set of lines through the origin in the
3-dimensional space. |
[13] | |
| 2. Projective plane as an extension of the Euclidean plane by adding "points at "infinity". | [13] | |
| 3. Cross-ratio; the Desargues
Theorem and construction with a straightedge in a restricted
domain. |
[14] | |
| 4. Principal of duality in projective geometry; dual of the Desargues Theorem. | [13] |
| 1. The Poincare and the upper half-plane model of hyperbolic plane.; the parallel axiom; distance in the hyperbolic plane, geodesic lines. | 56.1-56.2,
57.1-57.2 58.3 |
|
| 2. Classification of isometries of the hyperbolic plane; matrix representation of isometries; circles horocycles and equidistant curves. | 59.2 | |
| 3. Triangles and hyperbolic trigonometry. | 59.1 | |
| 4. Area of a hyperbolic triangle; the angular defect. | 58.1 |