blog:2023-08-05
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blog:2023-08-05 [2023/08/05 22:12] – pzhou | blog:2023-08-05 [2023/08/06 04:10] (current) – pzhou | ||
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* write up the notes that are useful for myself. | * write up the notes that are useful for myself. | ||
* why quiver gauge theory has anything to do with Kac-Moody algebra? | * why quiver gauge theory has anything to do with Kac-Moody algebra? | ||
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+ | The stuff that I typed up below, are so incoherent and dreamy, that I don't know what am I talking about. | ||
+ | So they should be either cleaned up or deleted. | ||
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+ | I also cleaned up some to read papers. | ||
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+ | I don't think I want to write up the example computation of the spaces. | ||
===== Statements, | ===== Statements, | ||
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In the example of $\P^1$, at point $[1;0]$, where we use $T_2 / T_1$ as local coordinates. Let me say, the normal bundle is cashed in for $Y_2 - Y_1$. Then, we say | In the example of $\P^1$, at point $[1;0]$, where we use $T_2 / T_1$ as local coordinates. Let me say, the normal bundle is cashed in for $Y_2 - Y_1$. Then, we say | ||
$$ [\P^1] = \frac{[0]}{Y_2 - Y_1} + \frac{[\infty]}{Y_1 - Y_2}. $$ | $$ [\P^1] = \frac{[0]}{Y_2 - Y_1} + \frac{[\infty]}{Y_1 - Y_2}. $$ | ||
- | The homology classes | + | If we understand both sides as cohomology, then both are in degree |
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+ | Why does localization to fixed point works? Why does it play well with convolution? | ||
blog/2023-08-05.1691273543.txt.gz · Last modified: 2023/08/05 22:12 by pzhou