Timeline for Green's function on torus
Current License: CC BY-SA 4.0
7 events
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Jan 13, 2020 at 2:26 | comment | added | phys_student | @Wakabaloola Yes, the Beltrami form is tangent to the gauge slice. | |
Jan 6, 2020 at 14:40 | comment | added | Wakabaloola | h is the zero mode(s) and eta specifies a gauge slice | |
Jan 5, 2020 at 17:07 | comment | added | mike stone | I don't have access to the Eguchi paper here, although I have read it a long time ago. I'll have a look at what they do when I get into the office tomorrow. | |
Jan 5, 2020 at 16:37 | comment | added | phys_student | If $h$ or $\eta$ corresponds to zero mode, then the second term should be of the form with like $h^* h$ or $\eta^*\eta$, as $\phi^*_0\phi_0$ in the answer. However, the second term take the form $\eta h$. (Where I omit the indices $z,\bar{z}$) | |
Jan 5, 2020 at 16:14 | comment | added | phys_student | Thank you very much! This paper sciencedirect.com/science/article/pii/… "Conformal and current algebras on a general Riemann surface" have considered similar Green function for higher genus case in eq(8) which is $\nabla^z G^z(z,w)=\delta^{(2)}(z-w)-\sum_{j=1}^{3g-3}g^{z\bar{z}}\eta^z_{\bar{z},j}(z,\bar{z})h_{ww}^j(w)$, where the second term should correspond zero modes. So here what the zero modes is $\eta$ or $h$?($\eta$ is called Beltrami form and $h$ is holomophic quadratic differential) | |
Jan 5, 2020 at 16:05 | history | edited | mike stone | CC BY-SA 4.0 |
added 42 characters in body
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Jan 5, 2020 at 15:54 | history | answered | mike stone | CC BY-SA 4.0 |