| A) Vector Geometry of Lines | |
|---|---|
| 1) Analyzing Alignment and Relative Positions of Lines | Ex 1 Ex 2 Ex 3 Ex 4 Ex 5 |
| 2) Establishing a Parametric Representation of a Line | Ex 6 Ex 7 Ex 8 |
| 3) Proving the Alignment of Three Points | Ex 9 Ex 10 Ex 11 Ex 12 |
| 4) Determining if a Point Belongs to a Line | Ex 13 Ex 14 Ex 15 Ex 16 |
| 5) Determining the Relative Position of Two Lines | Ex 17 Ex 18 Ex 19 |
| 6) Proving that Two Lines are Secant | Ex 20 Ex 21 |
| 7) Determining the Orthogonality of Two Lines | Ex 22 Ex 23 Ex 24 |
| B) Vector Geometry of Planes | |
| 8) Analyzing Coplanarity and Relative Positions | Ex 25 Ex 26 Ex 27 Ex 28 Ex 29 |
| 9) Testing the Coplanarity of Four Points | Ex 30 Ex 31 |
| 10) Establishing Parametric Equations of a Plane | Ex 32 Ex 33 |
| 11) Determining if a Line and a Plane are Parallel | Ex 34 Ex 35 |
| 12) Studying Geometric Properties in a Tetrahedron | Ex 36 Ex 37 Ex 38 |
| C) Normal Vectors to a Plane | |
| 13) Analyzing Normal Vectors and Plane Perpendicularity | Ex 39 Ex 40 Ex 41 Ex 42 |
| 14) Applying the Properties of Normal Vectors to a Plane | Ex 43 Ex 44 Ex 45 Ex 46 |
| D) Cartesian Equation of a Plane | |
| 15) Determining the Cartesian Equation of a Plane | Ex 47 Ex 48 Ex 49 Ex 50 |
| 16) Determining the Relative Position of Two Planes | Ex 51 Ex 52 Ex 53 |
| 17) Determining the Cartesian Equation of a Plane from Three Points | Ex 54 Ex 55 |
| 18) Proving that a Line is Normal to a Plane | Ex 56 Ex 57 |
| 19) Studying Parallelism and Angles in Space | Ex 58 |
| E) Distance from a Point to a Plane | |
| 20) Understanding Projections and Distances | Ex 59 Ex 60 Ex 61 Ex 62 |
| 21) Verifying Orthogonal Projections and Distances | Ex 63 Ex 64 |
| 22) Determining the Parametric Representation of a Perpendicular Line | Ex 65 Ex 66 Ex 67 |
| 23) Calculating the Coordinates of an Orthogonal Projection | Ex 68 Ex 69 Ex 70 Ex 71 |
| 24) Solving a Comprehensive Geometry Problem in Space | Ex 72 |