
Explore affine and projective geometry, focusing on points, vector spaces, and lines in 2D. Learn to solve geometric problems using projective coordinates and understand curve representation.

Explore Boolean functions and logic circuits through polynumbers, focusing on Boole polynumbers as invariants for equivalent circuits. Learn evaluation techniques and their applications.

Explore canonical forms for logic circuits, Boolean functions, and their geometric interpretations. Learn to express Boolean functions algebraically using Boolean algebra and Boole's original algebra.

Explore how the Algebra of Boole simplifies circuit analysis, comparing it with traditional Boolean algebra for encoding logic gates and solving engineering problems.

Explores Boolean algebra's connection to circuit analysis, focusing on Huntington's formulation and Shannon's groundbreaking 1938 paper linking the two fields.

Explore Boolean algebra, set theory, and Venn diagrams. Learn about De Morgan's laws, distributive properties, and their proofs using truth tables and Boole's algebra.

Explore 16 logical operations, including AND, OR, XOR, and implication, with applications to Boolean algebra and circuit analysis. Gain insights into Modus Ponens and Boole's algebra for solving electrical engineering problems.

Exploring the Algebra of Boole, its relation to Boolean algebra, and its role in logic and circuit analysis. Discusses syllogisms, the Square of Opposition, and Boole's proofs of Aristotle's arguments.

Explore the evolution of logic from Aristotle through medieval and Arabic periods, highlighting key figures and their contributions to the field's development.

Explore ADE graphs, lattices, and their connections to mathematics and particle physics. Discover the Numbers game, weights, and the fascinating link between A2 diagrams and quark theory.

Explore geometric graph theory through the Mutation Game, examining root systems, Weyl groups, and quadratic forms. Discover how graphs generate unique geometrical structures and reflection groups.

Explore ADE graphs' mathematical significance, mutation games, and connections to advanced fields like Lie algebra, root systems, and physics in this insightful seminar on combinatorial structures.

Explore Euclidean isometries from a rational perspective, focusing on grounded isometries and deriving formulas for projections, reflections, and compositions in planar geometry.

Explore the connection between Euclidean rotations and complex number multiplication, introducing the concept of half-slope for a more rational approach to 2D dynamics and graphics.

Explore isometry groups in Euclidean and relativistic geometries, focusing on grounded isometries, reflections, and rotations using an algebraic approach without infinite operations.

Explore turn angles and continued fractions to approximate geometry, using the Euclidean algorithm for angles and circular arcs. Learn about the natural unit of angle and its applications.

Explores the concept of radians, questioning their necessity in uniform motion and examining the distinction between pure and applied mathematics in this context.

Explores the historical and mathematical significance of circular functions, challenging traditional views and offering insights into their true role in trigonometry and uniform circular motion.

Innovative approach to teaching geometry and trigonometry, emphasizing rational methods for Year 9-10 students. Covers shapes, transformations, circle geometry, and challenges traditional concepts.

Innovative approach to teaching geometry and trigonometry, emphasizing rational trigonometry for Year 9-10 students. Covers progression from basic shapes to advanced topics, including circle geometry and 'pi'.

Explores Rheticus' groundbreaking 17th-century trigonometric tables, highlighting their historical significance and impact on classical trigonometry's development and application.