The universe can be visualized in different spaces, including 2D surfaces like a beach ball or a giant doughnut, studied through geometric topology.
While locally the universe appears 3D, when viewed as a whole, it could be a more complex 3D space with various shapes and structures.
Understanding all possible 2D and 3D spaces has implications in physics and astronomy, helping to determine the nature of the universe.
The concept of higher dimensions beyond 4D, suggested by string theory, has practical applications in areas like robot motion planning.
High-dimensional spaces play a role in solving scientific problems, from modeling planetary motion to analyzing complex datasets.
Topology also explores the relationship of spaces, such as how knots in 3D spaces coincide with surfaces in higher dimensions.
Mathematical knots are crucial in fields like physics, biology, and chemistry, offering insights into spatial relationships and structures.
Studies in geometric topology pose intriguing questions like the Poincaré conjecture and the slice-ribbon conjecture, advancing knowledge of spaces.
Topology contributes to scientific and engineering disciplines, aiming to unravel the mysteries of spaces in various dimensions for practical applications.
Geometric topology, a complex field, continues to hold promise for understanding our world and addressing real-world challenges.