Dataset card: license, code link, cost types
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README.md
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---
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dataset_info:
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features:
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- name: n
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path: data/test_ood-*
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---
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# ToR-OT
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Discrete Kantorovich instances with exact sparse optimal plans, generated by
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`python -m torot.data.generate` from the ToR-OT code release
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("Learning Optimal Transport Plans Via Autoregressive Token Regression", NeurIPS 2026).
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Each record is one instance:
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The cost matrix is not stored; it is `torot.data.cost.cost_matrix(coords_src, coords_tgt, cost_type)`.
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## Splits
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| split | instances |
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---
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license: mit
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pretty_name: ToR-OT synthetic discrete OT instances
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dataset_info:
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features:
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- name: n
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path: data/test_ood-*
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---
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# ToR-OT synthetic optimal-transport corpus
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Discrete Kantorovich instances with exact sparse optimal plans, generated by
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`python -m torot.data.generate` from the ToR-OT code release (https://github.com/vsingh-group/TOR-OT)
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("Learning Optimal Transport Plans Via Autoregressive Token Regression", NeurIPS 2026).
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Each record is one instance:
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The cost matrix is not stored; it is `torot.data.cost.cost_matrix(coords_src, coords_tgt, cost_type)`.
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## Cost types
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`cost_type` holds the code name; the paper writes the costs as below. L2^p is the Euclidean distance to the power p
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(in 1D, L2 = |x - y|, which on a line also equals L1 and L∞). Each cost matrix is divided by its largest entry.
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| `cost_type` | paper | c(x, y) |
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|---|---|---|
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| `euclidean` | L2 | ‖x − y‖₂ |
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| `sqrt_euclidean` | L2^(1/2) | ‖x − y‖₂^(1/2) |
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| `sqeuclidean` | L2^2 | ‖x − y‖₂² |
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| `cubic_euclidean` | L2^3 | ‖x − y‖₂³ |
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| `canberra` | Canberra | Σ_d \|x_d − y_d\| / (\|x_d\| + \|y_d\|) |
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| `gaussian` | Gaussian | 1 − exp(−‖x − y‖₂² / 2σ²), σ = 0.2 |
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## Splits
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| split | instances |
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