Current Betti Table Entry:
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(3,0,0) |
(9,1,0) |
(15,1,1) |
(20,3,1) |
(25,4,2) |
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(48,18,7) |
(52,18,10) |
(55,21,11) |
(58,23,13) |
(61,24,16) |
(64,24,20) |
(66,29,20) |
(68,33,21) |
(70,36,23) |
(72,38,26) |
(74,39,30) |
(76,39,35) |
(77,45,35) |
(78,50,36) |
(79,54,38) |
(80,57,41) |
(81,59,45) |
(82,60,50) |
(83,60,56) |
(83,66,57) |
(83,71,59) |
(83,75,62) |
(83,78,66) |
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2 |
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(82,82,70) |
(83,82,76) |
(83,83,82) |
\(\lambda=(83,82,76)\)
- Multiplicity: 1
- Dimension: 63
- Dominant: Yes
\(\textbf{a}=(82,77,82)\)
- Multiplicity: 2
- Dimension: 1
- Error: 0
\(\textbf{a}=(79,83,79)\)
- Multiplicity: 1
- Dimension: 1
- Error: 0
\(\textbf{a}=(80,81,80)\)
- Multiplicity: 2
- Dimension: 1
- Error: 0
\(\textbf{a}=(81,79,81)\)
- Multiplicity: 2
- Dimension: 1
- Error: 0
\(\textbf{a}=(82,76,83)\)
- Multiplicity: 1
- Dimension: 1
- Error: 0
\(\textbf{a}=(81,78,82)\)
- Multiplicity: 2
- Dimension: 1
- Error: 0
\(\textbf{a}=(83,82,76)\)
- Multiplicity: 1
- Dimension: 1
- Error: 0
\(\textbf{a}=(79,82,80)\)
- Multiplicity: 2
- Dimension: 1
- Error: 0
\(\textbf{a}=(80,80,81)\)
- Multiplicity: 2
- Dimension: 1
- Error: 0
\(\textbf{a}=(81,77,83)\)
- Multiplicity: 1
- Dimension: 1
- Error: 0
\(\textbf{a}=(80,79,82)\)
- Multiplicity: 2
- Dimension: 1
- Error: 0
\(\textbf{a}=(79,81,81)\)
- Multiplicity: 2
- Dimension: 1
- Error: 0
\(\textbf{a}=(83,81,77)\)
- Multiplicity: 1
- Dimension: 1
- Error: 0
\(\textbf{a}=(82,83,76)\)
- Multiplicity: 1
- Dimension: 1
- Error: 0
\(\textbf{a}=(78,83,80)\)
- Multiplicity: 1
- Dimension: 1
- Error: 0
\(\textbf{a}=(80,78,83)\)
- Multiplicity: 1
- Dimension: 1
- Error: 0
\(\textbf{a}=(79,80,82)\)
- Multiplicity: 2
- Dimension: 1
- Error: 0
\(\textbf{a}=(78,82,81)\)
- Multiplicity: 2
- Dimension: 1
- Error: 0
\(\textbf{a}=(82,82,77)\)
- Multiplicity: 2
- Dimension: 1
- Error: 0
\(\textbf{a}=(83,80,78)\)
- Multiplicity: 1
- Dimension: 1
- Error: 0
\(\textbf{a}=(79,79,83)\)
- Multiplicity: 1
- Dimension: 1
- Error: 0
\(\textbf{a}=(78,81,82)\)
- Multiplicity: 2
- Dimension: 1
- Error: 0
\(\textbf{a}=(77,83,81)\)
- Multiplicity: 1
- Dimension: 1
- Error: 0
\(\textbf{a}=(83,79,79)\)
- Multiplicity: 1
- Dimension: 1
- Error: 0
\(\textbf{a}=(82,81,78)\)
- Multiplicity: 2
- Dimension: 1
- Error: 0
\(\textbf{a}=(81,83,77)\)
- Multiplicity: 1
- Dimension: 1
- Error: 0
\(\textbf{a}=(78,80,83)\)
- Multiplicity: 1
- Dimension: 1
- Error: 0
\(\textbf{a}=(77,82,82)\)
- Multiplicity: 2
- Dimension: 1
- Error: 0
\(\textbf{a}=(82,80,79)\)
- Multiplicity: 2
- Dimension: 1
- Error: 0
\(\textbf{a}=(81,82,78)\)
- Multiplicity: 2
- Dimension: 1
- Error: 0
\(\textbf{a}=(83,78,80)\)
- Multiplicity: 1
- Dimension: 1
- Error: 0
\(\textbf{a}=(77,81,83)\)
- Multiplicity: 1
- Dimension: 1
- Error: 0
\(\textbf{a}=(76,83,82)\)
- Multiplicity: 1
- Dimension: 1
- Error: 0
\(\textbf{a}=(81,81,79)\)
- Multiplicity: 2
- Dimension: 1
- Error: 0
\(\textbf{a}=(80,83,78)\)
- Multiplicity: 1
- Dimension: 1
- Error: 0
\(\textbf{a}=(82,79,80)\)
- Multiplicity: 2
- Dimension: 1
- Error: 0
\(\textbf{a}=(83,77,81)\)
- Multiplicity: 1
- Dimension: 1
- Error: 0
\(\textbf{a}=(76,82,83)\)
- Multiplicity: 1
- Dimension: 1
- Error: 0
\(\textbf{a}=(83,76,82)\)
- Multiplicity: 1
- Dimension: 1
- Error: 0
\(\textbf{a}=(80,82,79)\)
- Multiplicity: 2
- Dimension: 1
- Error: 0
\(\textbf{a}=(81,80,80)\)
- Multiplicity: 2
- Dimension: 1
- Error: 0
\(\textbf{a}=(82,78,81)\)
- Multiplicity: 2
- Dimension: 1
- Error: 0
Below is a plot displaying the Schur decomposition. In the \(\lambda=(\lambda_0,\lambda_1)\) spot we place \(\beta_{32,\lambda}(2,3;7)\), the multiplicity of \(\textbf{S}_{\lambda}\) occuring in the decomposition of \(K_{32,2}(2,3;7)\). Here \(\lambda\) is the weight \((\lambda_0,\lambda_1,\lambda_2)\) where \(\lambda_2\) is determined by the fact that \(|\lambda|\) equals \(d(p+q)+b\). The dominant weights are displayed in green. Click on an entry for more info!
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82 |
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84 |
81 |
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82 |
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1
| · |
83 |
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Below is a plot displaying the multigraded Betti numbers. In the \((a_0,a_1)\) spot we place \(\beta_{32,\textbf{a}}(2,3;7)\). Here \(\textbf{a}\) is the weight \((a_0,a_1,a_2)\) where \(a_2\) is determined by the fact that \(|\textbf{a}|\) equals \(d(p+q)+b\). Entries with error corrected via our Schur decomposition algorithm are in orange. Click on an entry for more info!
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84 |
76 |
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1
| 1
| · |
77 |
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1
| 2
| 1
| · |
78 |
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1
| 2
| 2
| 1
| · |
79 |
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1
| 2
| 2
| 2
| 1
| · |
80 |
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1
| 2
| 2
| 2
| 2
| 1
| · |
81 |
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1
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| 2
| 2
| 2
| 2
| 1
| · |
82 |
1
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| 2
| 2
| 2
| 2
| 2
| 1
| · |
83 |
1
| 1
| 1
| 1
| 1
| 1
| 1
| · |
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84 |
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