
Hyperbolic space - Wikipedia
Hyperbolic space, developed independently by Nikolai Lobachevsky, János Bolyai and Carl Friedrich Gauss, is a geometric space analogous to Euclidean space, but such that Euclid's …
The hyperbolic case occurs when the extended map has no fixed point in L itself but has two fixed points at infinity: we examine this transformation in the half- space model H for …
Hyperbolic Geometry - from Wolfram MathWorld
6 days ago · There are no similar triangles in hyperbolic geometry. The best-known example of a hyperbolic space are spheres in Lorentzian four-space. The Poincaré hyperbolic disk is a …
We want to know what it means for a space (X, d) to be hyperbolic. There are several definitions, all of them being equivalent. We will give various versions of Gromov’s hyperbolic criterion.
Hyperbolic geometry | Non-Euclidean, Lobachevsky, Bolyai
In hyperbolic geometry, through a point not on a given line there are at least two lines parallel to the given line. The tenets of hyperbolic geometry, however, admit the other four Euclidean …
In this chapter we gather together basic information about the geometry of two- and three-dimensional hyperbolic spaces and their isometries. This will set the stage for our study of …
Hyperbolic Geometry | Brilliant Math & Science Wiki
4 days ago · Later, physicists discovered practical applications of these ideas to the theory of special relativity. Hyperbolic geometry also inspired the art of M. C. Escher, and has various …
With his “Circle Limit” series of drawings, Escher explored the endless symmetries inherent in hyperbolic space: in “Circle Limit III,” red, green, blue and yellow fish tessellate their world in a …
Hyperbolic Space - Stanford University
We use the hyperbolic metric in order to take advantage of the surprising property that hyperbolic space has more room than our familiar euclidean space. Two parallel lines are always the …
Hyperbolic geometry - Wikipedia
The space of relativistic velocities has a three-dimensional hyperbolic geometry, where the distance function is determined from the relative velocities of "nearby" points (velocities).