Metrics
Metrics define distances on base/total spaces used in cover construction, analysis and visualization.
Standard Euclidean metric on \(\mathbb{R}^d\). |
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Geodesic distance on the circle \(\mathbb{S}^1\) using angles. |
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Geodesic distance on the real projective line \(\mathbb{RP}^1\) using angular coordinates. |
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Geodesic distance on \(\mathbb{S}^1\) using unit vectors in \(\mathbb{R}^2\). |
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Geodesic distance on \(\mathbb{RP}^1\) using unit vectors in \(\mathbb{R}^2\). |
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Metric on \(\mathbb{RP}^2\) using antipodal unit vectors in \(\mathbb{R}^3\). |
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Flat metric on the 2-torus \(\mathbb{T}^2\). |
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Z2 quotient metric on R^4 C^2-torus embedding for the diagonal pi-shift: |
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Z2 quotient metric on R^4 C^2-torus embedding that implements the Klein identification (base,fiber) ~ (base+pi, -fiber) with an explicit base-factor choice. |
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Trivial circle bundle over RP^2: (v,z)~(-v,z). |
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Orientable nontrivial (monodromy -1): (v,z)~(-v,-z). |
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Non-orientable (reflection on fiber): (v,z)~(-v,conj z). |
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