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Jun 25, 2019 at 18:58 answer added user43326 timeline score: 4
Jun 25, 2019 at 13:10 history edited Leonardo Schultz CC BY-SA 4.0
edited title
Jun 25, 2019 at 12:40 comment added David Roberts The Lie algebras of $SU(2)$ and $SO(3)$ are canonically isomorphic, so local connection forms for both bundles are essentially valued in the same Lie algebra, and the conjugation action of the structure group that appears in the formula on overlaps is the same for the original transition functions and the lifted ones.
Jun 25, 2019 at 12:38 history edited Martin Sleziak CC BY-SA 4.0
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Jun 25, 2019 at 12:29 comment added Ulrich Pennig $SU(2)$ is a $2$-fold cover of $SO(3)$. In particular, there is a quotient map $q : SU(2) \to SO(3)$. $P$ is covered by a principal $SU(2)$-bundle $Q$ if the bundle projection $Q \to R^2 \times \Sigma$ factors through $P$ and $Q$ is an $SU(2)$-bundle in such a way that the $SU(2)$-multiplication is compatible with the $SO(3)$ multiplication on $P$.
Jun 25, 2019 at 12:23 history edited Leonardo Schultz CC BY-SA 4.0
deleted 15 characters in body
Jun 25, 2019 at 12:09 comment added Oliver Nash The keywords you're looking for are "spin structure": en.wikipedia.org/wiki/Spin_structure
Jun 25, 2019 at 11:09 history edited user43326
Added a tag.
Jun 25, 2019 at 10:56 history edited Leonardo Schultz CC BY-SA 4.0
edited title
Jun 25, 2019 at 8:35 review Close votes
Jun 28, 2019 at 16:21
Jun 25, 2019 at 7:52 history asked Leonardo Schultz CC BY-SA 4.0