
Public learning track
Conic Sections: Geometric Loci and Standard Equations
11th Grade · Math · Open Global Math
8 lessons
Goal
Understand conics as double-cone cross sections and geometric loci, deriving and graphing standard Cartesian equations of parabolas, ellipses, and hyperbolas.
Featured Diagrams
Conic Sections as Cone Cross-Sections and Eccentricity
8 lessons
0 of 8 done
- 1Conic Sections as Cone Cross-Sections and EccentricityUp nextStart
- 2Solving Geometric Problems Using LociPremiumNot started yet
- 3Parabolas: Focus, Directrix, and Standard EquationsNot started yet
- 4Graphing Ellipses from Standard EquationsNot started yet
- 5Focal Properties and Eccentricity of EllipsesNot started yet
- 6Graphing Hyperbolas from Standard EquationsNot started yet
- 7Asymptotes and Focal Properties of HyperbolasNot started yet
- 8Reflective Properties and Real-World Applications of ConicsNot started yet
Curriculum Framework
11th Grade · Math · Open Global Math
1
8 lessons
Advanced Linear Coordinate Geometry and Distance Optimization
Master linear equations in general and point-slope forms, calculate perpendicular distances, analyze families of lines, and solve geometric optimization problems on the Cartesian plane.
2
7 lessons
Coordinate Geometry of Circles: Equations, Chords, and Tangents
Analyze circle equations in standard and general forms, determine centers, radii, chord lengths, tangent lines, and intersection properties algebraically.
3
8 lessons
Conic Sections: Geometric Loci and Standard Equations
Understand conics as double-cone cross sections and geometric loci, deriving and graphing standard Cartesian equations of parabolas, ellipses, and hyperbolas.
4
5 lessons
Conics in Polar Coordinates and General Second-Degree Curves
Classify general second-degree quadratic equations via the algebraic discriminant, rotate coordinate axes, and represent conic sections in polar form.
5
7 lessons
Parametric Curves: Conversions and Geometric Trajectories
Model plane curves parametrically, convert between parametric and Cartesian representations, and analyze 2D kinematics, projectile motion, and cycloids.