$\GL_2(\Z/60\Z)$-generators: |
$\begin{bmatrix}9&5\\50&13\end{bmatrix}$, $\begin{bmatrix}19&35\\30&23\end{bmatrix}$, $\begin{bmatrix}31&5\\56&59\end{bmatrix}$, $\begin{bmatrix}31&35\\56&47\end{bmatrix}$, $\begin{bmatrix}41&45\\46&13\end{bmatrix}$, $\begin{bmatrix}51&25\\20&21\end{bmatrix}$ |
Contains $-I$: |
yes |
Quadratic refinements: |
60.432.13-60.cx.1.1, 60.432.13-60.cx.1.2, 60.432.13-60.cx.1.3, 60.432.13-60.cx.1.4, 60.432.13-60.cx.1.5, 60.432.13-60.cx.1.6, 60.432.13-60.cx.1.7, 60.432.13-60.cx.1.8, 60.432.13-60.cx.1.9, 60.432.13-60.cx.1.10, 60.432.13-60.cx.1.11, 60.432.13-60.cx.1.12, 60.432.13-60.cx.1.13, 60.432.13-60.cx.1.14, 60.432.13-60.cx.1.15, 60.432.13-60.cx.1.16, 60.432.13-60.cx.1.17, 60.432.13-60.cx.1.18, 60.432.13-60.cx.1.19, 60.432.13-60.cx.1.20, 60.432.13-60.cx.1.21, 60.432.13-60.cx.1.22, 60.432.13-60.cx.1.23, 60.432.13-60.cx.1.24, 60.432.13-60.cx.1.25, 60.432.13-60.cx.1.26, 60.432.13-60.cx.1.27, 60.432.13-60.cx.1.28, 60.432.13-60.cx.1.29, 60.432.13-60.cx.1.30, 60.432.13-60.cx.1.31, 60.432.13-60.cx.1.32, 120.432.13-60.cx.1.1, 120.432.13-60.cx.1.2, 120.432.13-60.cx.1.3, 120.432.13-60.cx.1.4, 120.432.13-60.cx.1.5, 120.432.13-60.cx.1.6, 120.432.13-60.cx.1.7, 120.432.13-60.cx.1.8, 120.432.13-60.cx.1.9, 120.432.13-60.cx.1.10, 120.432.13-60.cx.1.11, 120.432.13-60.cx.1.12, 120.432.13-60.cx.1.13, 120.432.13-60.cx.1.14, 120.432.13-60.cx.1.15, 120.432.13-60.cx.1.16, 120.432.13-60.cx.1.17, 120.432.13-60.cx.1.18, 120.432.13-60.cx.1.19, 120.432.13-60.cx.1.20, 120.432.13-60.cx.1.21, 120.432.13-60.cx.1.22, 120.432.13-60.cx.1.23, 120.432.13-60.cx.1.24, 120.432.13-60.cx.1.25, 120.432.13-60.cx.1.26, 120.432.13-60.cx.1.27, 120.432.13-60.cx.1.28, 120.432.13-60.cx.1.29, 120.432.13-60.cx.1.30, 120.432.13-60.cx.1.31, 120.432.13-60.cx.1.32 |
Cyclic 60-isogeny field degree: |
$8$ |
Cyclic 60-torsion field degree: |
$128$ |
Full 60-torsion field degree: |
$10240$ |
Canonical model in $\mathbb{P}^{ 12 }$ defined by 55 equations
$ 0 $ | $=$ | $ x r + t s $ |
| $=$ | $x v - w s$ |
| $=$ | $w r + t v$ |
| $=$ | $y w - y a - u b$ |
| $=$ | $\cdots$ |
Singular plane model Singular plane model
$ 0 $ | $=$ | $ 284765625 x^{16} z^{2} - 607500 x^{14} y^{3} z + 151875000 x^{14} z^{4} - 81 x^{12} y^{6} + \cdots + 24 z^{18} $ |
This modular curve has 2 rational cusps but no known non-cuspidal rational points. The following are the coordinates of the rational cusps on this modular curve.
Canonical model |
$(0:0:-1/3:0:0:1/3:0:0:0:0:0:1:0)$, $(0:0:1/2:0:0:-1/2:0:0:0:0:0:1:0)$ |
Maps between models of this curve
Birational map from canonical model to plane model:
$\displaystyle X$ |
$=$ |
$\displaystyle b$ |
$\displaystyle Y$ |
$=$ |
$\displaystyle 25c$ |
$\displaystyle Z$ |
$=$ |
$\displaystyle 5y$ |
Maps to other modular curves
Map
of degree 2 from the canonical model of this modular curve to the canonical model of the modular curve
30.108.6.a.1
:
$\displaystyle X$ |
$=$ |
$\displaystyle -t$ |
$\displaystyle Y$ |
$=$ |
$\displaystyle -w$ |
$\displaystyle Z$ |
$=$ |
$\displaystyle w+t-a$ |
$\displaystyle W$ |
$=$ |
$\displaystyle -v+r$ |
$\displaystyle T$ |
$=$ |
$\displaystyle -v$ |
$\displaystyle U$ |
$=$ |
$\displaystyle -v+b$ |
Equation of the image curve:
$0$ |
$=$ |
$ YW-XT-YT $ |
|
$=$ |
$ YW-ZT+YU-ZU $ |
|
$=$ |
$ YW+XT-YT+ZT-YU $ |
|
$=$ |
$ 2XW+ZW-XU-YU $ |
|
$=$ |
$ 3XY+Y^{2}-2XZ-Z^{2} $ |
|
$=$ |
$ 3WT-2T^{2}+2WU-2TU-U^{2} $ |
|
$=$ |
$ X^{2}Z+XYZ+2XZ^{2}+YZ^{2}+Z^{3}-W^{2}T+WTU+2WU^{2}-TU^{2}-U^{3} $ |
|
$=$ |
$ XYZ+Y^{2}Z-XZ^{2}-2YZ^{2}-2W^{2}T+2WT^{2}-WTU+TU^{2} $ |
|
$=$ |
$ 3X^{3}+4X^{2}Y+XY^{2}+4X^{2}Z+XYZ+Y^{2}Z-3YZ^{2}-Z^{3}-WT^{2}+2T^{3}-W^{2}U+WTU-2T^{2}U-2WU^{2}+2TU^{2}+U^{3} $ |
Hi
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Cover information
Click on a modular curve in the diagram to see information about it.
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The following modular covers realize this modular curve as a fiber product over $X(1)$.
This modular curve minimally covers the modular curves listed below.
This modular curve is minimally covered by the modular curves in the database listed below.