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Mike Tate Mathematics

Homotopy

πŸŒ€ Homotopy Flow Simulator

A continuous deformation from one loop into another β€” showing homotopic equivalence in geometric space.

πŸ“˜ Explanation: Loop Deformation

This simulation shows how a circular loop can be smoothly deformed into a figure-eight. In topology, such transformations are homotopies β€” they preserve connectivity without tearing or gluing. Homotopy equivalence captures the idea that two shapes can be continuously morphed into one another, revealing deeper structure about the space they inhabit.

πŸ”— Braided Homotopy Flow

Looped strands weave through each other β€” expressing topological equivalence via dynamic braiding motion.

πŸ“˜ Explanation: Braided Homotopy

This flow visualizes two loops twisting around each other in continuous transformation. The smooth braiding illustrates homotopic motion β€” both loops remain path-connected, showing that their topological identity is unchanged. Such braids relate directly to the algebraic structure of the fundamental group.

πŸ”˜ Null-Homotopy Collapse

Observe a loop continuously deforming into a point β€” showing null-homotopic identity in the space.

πŸ“˜ Explanation: Null-Homotopy

A null-homotopy demonstrates that a loop can be continuously contracted to a point within a space. This tells us that the space is simply connected at that region β€” any closed path can shrink down without tearing. This animation reveals how the fundamental group of such a space contains only the identity element.