tikz.escobar.life

The setup for tikz.escobar.life

images.yml (8865B)

  1 - path: 26-nodes-diagram.tikz
  2   license: "CC BY 4.0"
  3   author: Pablo
  4   author-url: https://pablopie.xyz
  5   description: The 26-nodes diagram
  6 
  7 - path: caleb-yau.png
  8   license: "CC BY-SA 2.5"
  9   author: Lunch
 10   source: https://commons.wikimedia.org/wiki/File:Calabi-Yau-alternate.png
 11   description: A visual representation of the Calebi-Yau manifold
 12 
 13 - path: complex-lattice.tikz
 14   license: "CC BY 4.0"
 15   author: Pablo
 16   author-url: https://pablopie.xyz
 17   description: A complex lattice with two linearly independent periods
 18 
 19 - path: complex-surreal-venn.tikz
 20   license: "CC BY 4.0"
 21   author: Pablo
 22   author-url: https://pablopie.xyz
 23   description: This picture represents the relationship between the real,
 24     complex and surreal numbers
 25 
 26 - path: cube.tikz
 27   license: "CC BY 4.0"
 28   author: Pablo
 29   author-url: https://pablopie.xyz
 30   description: A cube
 31 
 32 - path: diamond.tikz
 33   license: "CC BY 4.0"
 34   author: Pablo
 35   author-url: https://pablopie.xyz
 36   description: A domond-like shape
 37 
 38 - path: dihedral-representation-is-irreducible.tikz
 39   license: "CC BY 4.0"
 40   author: Pablo
 41   author-url: https://pablopie.xyz
 42   description: An ilustration of the proof that the natural real representation
 43     of the Dihidral group is irreducible
 44 
 45 - path: dihedral-representation.tikz
 46   license: "CC BY 4.0"
 47   author: Pablo
 48   author-url: https://pablopie.xyz
 49   description: The action of the dihedral group in the real plain
 50 
 51 - path: elliptic-curve-group-structure.tikz
 52   license: "CC BY 4.0"
 53   author: Pablo
 54   author-url: https://pablopie.xyz
 55   description: The group structure of the points of an elliptic curve
 56 
 57 - path: euclidian-plane.tikz
 58   license: "CC BY 4.0"
 59   author: Pablo
 60   author-url: https://pablopie.xyz
 61   description: The Cartesian plain
 62 
 63 - path: finite-topological-plot.tikz
 64   license: "CC BY 4.0"
 65   author: Pablo
 66   author-url: https://pablopie.xyz
 67   description: A plot of the number of topological spaces of n points in
 68     logarithmic scale
 69 
 70 - path: galois-lattice-antisomorphism.tikz
 71   license: "CC BY 4.0"
 72   author: Pablo
 73   author-url: https://pablopie.xyz
 74   description: The lattice anti-isomorphism between the lattice of the
 75     subgroups of the Galois group of a Galois extension and the lattice of
 76     intermediary subfields of such extension.
 77 
 78 - path: geodesic.tikz
 79   license: "CC BY 4.0"
 80   author: Pablo
 81   author-url: https://pablopie.xyz
 82   description: This picture represents the fact that geodesics locally minimize
 83     distances
 84 
 85 - path: grothendieck-riemann-roch.tikz
 86   author: Alexander Grothendieck
 87   author-url: https://grothendieckcircle.org/
 88   description: The commutative diagram from the Grothendieck-Riemann-Roch
 89     theorem, surrounded by fire and two devils carrying forks
 90 
 91 - path: groups-periodic-table.eps
 92   author: Ivan Andrus
 93   author-url: https://irandrus.wordpress.com
 94   source: https://irandrus.wordpress.com/2012/06/17/the-periodic-table-of-finite-simple-groups/
 95   description: A diagram of the classification of finite simple groups in the
 96     format of a periodic table
 97 
 98 - path: hyperbolic-plane-disc.tikz
 99   license: "CC BY 4.0"
100   author: Pablo
101   author-url: https://pablopie.xyz
102   description: The Poincaré disc model of the hyperbolic plane
103 
104 - path: j-function.eps
105   author: Eugene Jahnke & Fritz Emde
106   description: Relief representation of the j-invariant elliptic modular
107     function
108 
109 # How to license/link this?
110 - path: j-function.jpg
111   license: copyleft # Public domain
112   author: Jan Homann
113   source: https://commons.wikimedia.org/wiki/File:KleinInvariantJ.jpg
114   description: The j-invariant Klein function in the complex plane
115 
116 - path: k4.tikz
117   license: "CC BY 4.0"
118   author: Pablo
119   author-url: https://pablopie.xyz
120   description: The complete graph of four vertices
121 
122 - path: mobius.tikz
123   license: "CC BY 4.0"
124   author: Pablo
125   author-url: https://pablopie.xyz
126   description: The Mobius strip
127 
128 - path: monster-group-character-table.eps
129   license: "CC BY 4.0"
130   author: Pablo
131   author-url: https://pablopie.xyz
132   description: The first columns of the chacter table of the monster simple
133     group in characteristic zero
134 
135 - path: natural-number-line.tikz
136   license: "CC BY 4.0"
137   author: Pablo
138   author-url: https://pablopie.xyz
139   description: The natural number line
140 
141 - path: ordinal-number-line.tikz
142   license: "CC BY 4.0"
143   author: Pablo
144   author-url: https://pablopie.xyz
145   description: The ordinal number line
146 
147 - path: quaternion-rotation.tikz
148   license: "CC BY 4.0"
149   author: Pablo
150   author-url: https://pablopie.xyz
151   description: "This drawing represents the correspondence between conjugation
152     by pure unitary quaternions and rotations in the 3-dimensional Euclidean
153     space: the coordinates of a unitary quaternion p number with zero real
154     coefficient induce a line through the origin in the 3-dimensional Euclidean
155     space, and conjugation by cos t + p sin t acts as rotation by 2 t around
156     this axis."
157 
158 - path: real-number-line.tikz
159   license: "CC BY 4.0"
160   author: Pablo
161   author-url: https://pablopie.xyz
162   description: The real number line
163 
164 - path: real-ordinal-surreal-venn.tikz
165   license: "CC BY 4.0"
166   author: Pablo
167   author-url: https://pablopie.xyz
168   description: This picture represents the relationship between the real,
169     ordinal and surreal numbers
170 
171 - path: riemannian-metric.tikz
172   license: "CC BY 4.0"
173   author: Pablo
174   author-url: https://pablopie.xyz
175   description: This picture is a comparison between the Euclidean distance and
176     the Riemannian distance in a 3-dimensional sphere
177 
178 - path: rigid-motion-reflections.tikz
179   license: "CC BY 4.0"
180   author: Pablo
181   author-url: https://pablopie.xyz
182   description: This picture represents the fact that reflections are rigid
183     motions
184 
185 - path: rigid-motion-rotation.tikz
186   license: "CC BY 4.0"
187   author: Pablo
188   author-url: https://pablopie.xyz
189   description: This picture represents the fact that rotations are rigid
190     motions
191 
192 - path: smooth-function.tikz
193   license: "CC BY 4.0"
194   author: Pablo
195   author-url: https://pablopie.xyz
196   description: This picture represents the definition of a smooth map between
197     manifolds
198 
199 - path: smooth-manifold.tikz
200   license: "CC BY 4.0"
201   author: Pablo
202   author-url: https://pablopie.xyz
203   description: This picture represents the definition of a smooth manifold
204 
205 - path: sphere-quotient.tikz
206   license: "CC BY 4.0"
207   author: Pablo
208   author-url: https://pablopie.xyz
209   description: The isomorphism between the n-dimensional sphere and the
210     quotient of the (n + 1)-dimensional simple orthogonal group by the
211     n-dimensional simple orthogonal group
212 
213 - path: sphere.tikz
214   license: "CC BY 4.0"
215   author: Pablo
216   author-url: https://pablopie.xyz
217   description: A 2-dimensional sphere
218 
219 - path: sporadic-groups.eps
220   license: "CC BY-SA 3.0"
221   author: Drschawrz
222   source: https://en.wikipedia.org/wiki/File:SporadicGroups.svg
223   description: All the Sporadic groups in their subquotient relationship
224 
225 - path: square-to-circle-projection.tikz
226   license: "CC BY 4.0"
227   author: Pablo
228   author-url: https://pablopie.xyz
229   description: "The projection from the square to the circle: we map a point in
230     the square of length √2/2 onto the unit circle by normalizing it"
231 
232 - path: standard-sets-venn.tikz
233   license: "CC BY 4.0"
234   author: Pablo
235   author-url: https://pablopie.xyz
236   description: This diagram represents the relationship between standard number
237     sets
238 
239 - path: stereographic-projection.tikz
240   license: "CC BY 4.0"
241   author: Pablo
242   author-url: https://pablopie.xyz
243   description: The stereographic projection
244 
245 # TODO: Get the TikZ code for this somehow?
246 - path: surreal-number-tree.eps
247   license: "CC BY-SA 3.0"
248   author: Lukáš Lánský
249   source: https://en.wikipedia.org/wiki/File:Surreal_number_tree.svg
250   description: Visualization of the surreal number tree
251 
252 - path: tangent-space.tikz
253   license: "CC BY 4.0"
254   author: Gustavo Mezzovilla
255   description: The tangent space of a smooth manifold at a point
256 
257 - path: topology-mug-donut.tikz
258   license: "CC BY 4.0"
259   author: Pablo
260   author-url: https://pablopie.xyz
261   description: A mug continuously morphing into a donut
262 
263 - path: unit-circle-covering.tikz
264   license: "CC BY 4.0"
265   author: Pablo
266   author-url: https://pablopie.xyz
267   description: The universal covering of the unit circle
268 
269 - path: unit-circle.tikz
270   license: "CC BY 4.0"
271   author: Pablo
272   author-url: https://pablopie.xyz
273   description: The unit complex circle
274 
275 - path: upper-central-projection.tikz
276   license: "CC BY 4.0"
277   author: Pablo
278   author-url: https://pablopie.xyz
279   description: "A graphical depiction of the central projection between the
280     upper semi-sphere and the Euclidean plane: we map each point in the upper
281     half of the sphere to the projection of this point in the tangent plane at
282     the north pole by drawing a line between this point and the center of the
283     sphere and then taking the intersection of this line with the plane."