Datasets:
qid stringlengths 26 26 | did stringlengths 26 26 | dense_rank int8 1 100 ⌀ | stage stringclasses 8
values | label int8 0 2 ⌀ | judge stringclasses 2
values | rm8b_score float32 -1.29 2.86 ⌀ | dense_score float32 0.39 0.98 ⌀ | reranker_score float32 -16.89 11.2 ⌀ | answer_validity stringclasses 5
values | reason_codes listlengths 1 5 ⌀ | confidence stringclasses 3
values | rationale stringlengths 22 730 ⌀ | rubric_sha256 stringclasses 1
value | query_evaluable bool 2
classes | is_source_page bool 2
classes | bm25_rank int8 1 100 ⌀ | ngram5_rank int8 1 100 ⌀ | fused_rank int8 1 20 ⌀ | rrf_score float64 0.01 0.07 ⌀ | label_round stringclasses 3
values |
|---|---|---|---|---|---|---|---|---|---|---|---|---|---|---|---|---|---|---|---|---|
p_00021f40cdc830fe40aee5e8 | d_15935b322320fcd1255b4744 | 10 | short_doc | 0 | rm8b | 0.1514 | 0.6938 | -3.1875 | null | null | null | null | null | null | false | null | null | 18 | 0.028571 | v1 |
p_00021f40cdc830fe40aee5e8 | d_19c91960529e2a01e258d746 | 30 | fused_short | 0 | rm8b | 0.127 | 0.6758 | null | null | null | null | null | null | null | false | 31 | null | 8 | 0.033211 | v2_fused |
p_00021f40cdc830fe40aee5e8 | d_229a5b650c79be148003e263 | 8 | short_doc | 1 | rm8b | 0.832 | 0.6953 | -4.1875 | null | null | null | null | null | null | false | null | null | 15 | 0.029412 | v1 |
p_00021f40cdc830fe40aee5e8 | d_28e84410927a5e02e795dce4 | 65 | fused_short | 0 | rm8b | 0.0549 | 0.6675 | null | null | null | null | null | null | null | false | 15 | null | 16 | 0.029333 | v2_fused |
p_00021f40cdc830fe40aee5e8 | d_33a37b8682cfaabc8fe454a2 | 3 | dense_top5 | 0 | llm | null | 0.7017 | null | major_error | [
"major_math_error",
"wrong_problem"
] | high | The document addresses a different income problem and does not explain when to use Z rather than t. It also incorrectly gives the standard error of a sample mean using sqrt(n-1) instead of sqrt(n). | 031ac72b649ae9793c04c9cbb8a7acc64fc9de65e871d6e20589f11522c5eaa6 | true | false | null | null | 12 | 0.031746 | v1 |
p_00021f40cdc830fe40aee5e8 | d_3e005cb38f9a9c256c5bdd7e | null | fused_short | 0 | rm8b | 0.2734 | null | null | null | null | null | null | null | null | false | 2 | 3 | 10 | 0.032002 | v2_fused |
p_00021f40cdc830fe40aee5e8 | d_423ce158a879881ae25a9ece | 19 | rerank_top5 | 0 | llm | 0.0835 | 0.6836 | 0.25 | not_applicable | [
"contaminated_or_spliced",
"unresolved_attempt"
] | high | This is a large splice of unrelated statistics questions. Although one multiple-choice prompt mentions an unknown population standard deviation, no answer is selected or explanation of the query's z-versus-t distinction is supplied. | 031ac72b649ae9793c04c9cbb8a7acc64fc9de65e871d6e20589f11522c5eaa6 | true | false | 7 | null | 6 | 0.040242 | v1 |
p_00021f40cdc830fe40aee5e8 | d_524bf915e309b6fb159811be | 16 | short_doc | 1 | rm8b | 0.7969 | 0.687 | -2.4375 | null | null | null | null | null | null | false | null | null | null | 0.026316 | v1 |
p_00021f40cdc830fe40aee5e8 | d_525c81484d42f2827661d9f7 | 18 | rerank_top5 | 0 | llm | 1.5391 | 0.6836 | 1.8125 | major_error | [
"major_math_error"
] | high | The document incorrectly treats a small sample by itself as grounds for using t and even uses t in an example where a population standard deviation is stated. This reinforces the query's misconception instead of explaining that known population sigma gives a z statistic even for n=25. | 031ac72b649ae9793c04c9cbb8a7acc64fc9de65e871d6e20589f11522c5eaa6 | true | false | null | null | null | 0.025641 | v1 |
p_00021f40cdc830fe40aee5e8 | d_6a72b7a20b8b722f5c46e100 | 15 | rerank_top5 | 1 | llm | 1.1797 | 0.6875 | 0.5 | correct | [
"correct_partial_method"
] | medium | The document correctly states that t is used for a small normal sample when the population standard deviation is unknown, which explains part (b). It does not directly state or apply the complementary fact that known population sigma makes z appropriate in part (a). | 031ac72b649ae9793c04c9cbb8a7acc64fc9de65e871d6e20589f11522c5eaa6 | true | false | null | null | null | 0.026667 | v1 |
p_00021f40cdc830fe40aee5e8 | d_6d53564bcc4a56b44bc6bed6 | 14 | short_doc | 0 | rm8b | 0.3145 | 0.6875 | -2.75 | null | null | null | null | null | null | false | null | null | null | 0.027027 | v1 |
p_00021f40cdc830fe40aee5e8 | d_72db36a3beac90ff2e9592ea | 2 | dense_top5 | 0 | llm | null | 0.7046 | null | not_applicable | [
"topic_only"
] | high | This is a collection of statistics multiple-choice questions. Although it mentions small-sample tests and known standard deviations, it does not explain the known-versus-estimated standard-deviation distinction asked about. | 031ac72b649ae9793c04c9cbb8a7acc64fc9de65e871d6e20589f11522c5eaa6 | true | false | null | null | 9 | 0.032258 | v1 |
p_00021f40cdc830fe40aee5e8 | d_734333e4dc6cb1a1b37dde1d | 12 | short_doc | 0 | rm8b | 0.1895 | 0.6909 | -1.125 | null | null | null | null | null | null | false | 5 | null | 5 | 0.043162 | v1 |
p_00021f40cdc830fe40aee5e8 | d_7eedcd06d8592d9b60ab7e21 | 13 | short_doc | 1 | rm8b | 0.6875 | 0.6895 | -2.125 | null | null | null | null | null | null | false | null | null | 20 | 0.027397 | v1 |
p_00021f40cdc830fe40aee5e8 | d_80de20b0ab0c046c40c7139f | 6 | short_doc | 0 | rm8b | 0.4414 | 0.6978 | -5 | null | null | null | null | null | null | false | null | null | 14 | 0.030303 | v1 |
p_00021f40cdc830fe40aee5e8 | d_92697cb8b1dd3a5468f8c58d | 17 | rerank_top5 | 0 | llm | 1.1953 | 0.6865 | 1.5 | major_error | [
"major_math_error"
] | high | Its claim that t should be used whenever n<30, regardless of whether population sigma is known, is the central misconception the query asks to resolve. It does not justify the correct z choice in part (a). | 031ac72b649ae9793c04c9cbb8a7acc64fc9de65e871d6e20589f11522c5eaa6 | true | false | null | null | null | 0.025974 | v1 |
p_00021f40cdc830fe40aee5e8 | d_9c5ab899601bbbd8086e4d57 | null | fused_short | 1 | rm8b | 0.6172 | null | null | null | null | null | null | null | null | false | 3 | 2 | 11 | 0.032002 | v2_fused |
p_00021f40cdc830fe40aee5e8 | d_a2b0aaeef753c170a7e74389 | 71 | fused_long | 1 | rm8b | 1.2734 | 0.6665 | null | null | null | null | null | null | null | false | 12 | null | 17 | 0.029156 | v2_fused |
p_00021f40cdc830fe40aee5e8 | d_a630e80d695430ada1895f06 | 1 | dense_top5 | 2 | llm | null | 0.894 | null | correct | [
"full_solution"
] | high | The document correctly explains that a Z statistic applies when the population standard deviation is known, while replacing an unknown population standard deviation by the sample standard deviation yields a t statistic with n-1 degrees of freedom. It also clarifies that the sample-size rule is only an approximation con... | 031ac72b649ae9793c04c9cbb8a7acc64fc9de65e871d6e20589f11522c5eaa6 | true | false | 1 | 1 | 1 | 0.065574 | v1 |
p_00021f40cdc830fe40aee5e8 | d_ae07b24f9ac862b20c91baf5 | 7 | rerank_top5 | 0 | llm | 0.125 | 0.6973 | -0.875 | not_applicable | [
"contaminated_or_spliced",
"unresolved_attempt"
] | high | The document is an incoherent compilation of many unrelated exercises. Its uncompleted multiple-choice item about t distributions does not explain why known sigma leads to z in part (a) and estimated sigma leads to t in part (b). | 031ac72b649ae9793c04c9cbb8a7acc64fc9de65e871d6e20589f11522c5eaa6 | true | false | 8 | null | 3 | 0.044557 | v1 |
p_00021f40cdc830fe40aee5e8 | d_b8db37356cfe1930448d8e5e | 4 | dense_top5 | 2 | llm | null | 0.6992 | null | correct | [
"full_solution"
] | high | The relevant portions give the exact distinction: with known sigma, the standardized sample mean is normal; with unknown sigma replaced by S, it has a t distribution with n-1 degrees of freedom under normal sampling. This directly resolves why the two cases use different statistics regardless of both sample sizes being... | 031ac72b649ae9793c04c9cbb8a7acc64fc9de65e871d6e20589f11522c5eaa6 | true | false | null | null | 13 | 0.03125 | v1 |
p_00021f40cdc830fe40aee5e8 | d_bcd007b73eda43299fbd14d6 | 5 | dense_top5 | 1 | llm | null | 0.6978 | null | correct | [
"correct_partial_subquestion"
] | medium | The document contains the correct key criterion that t is used when the population standard deviation is unknown and the normal-model conditions apply. It does not coherently contrast this with the known-sigma Z case or explain why 30 is not the deciding cutoff. | 031ac72b649ae9793c04c9cbb8a7acc64fc9de65e871d6e20589f11522c5eaa6 | true | false | 9 | null | 2 | 0.045262 | v1 |
p_00021f40cdc830fe40aee5e8 | d_bd5c8c73e603184ec80fba24 | 20 | short_doc | 0 | rm8b | 0.2812 | 0.6816 | -5 | null | null | null | null | null | null | false | null | null | null | 0.025 | v1 |
p_00021f40cdc830fe40aee5e8 | d_d89a0808db08bf4bafa852bd | 9 | short_doc | 0 | rm8b | 0.127 | 0.6948 | -1.0625 | null | null | null | null | null | null | false | 6 | null | 4 | 0.044137 | v1 |
p_00021f40cdc830fe40aee5e8 | d_e256974ca72e587a766c71ff | 11 | long_doc | 2 | llm | null | 0.6924 | null | correct | [
"full_solution"
] | high | The document gives the decisive distinction: with a normal population and known population standard deviation, standardizing the sample mean uses the normal Z distribution; when the standard deviation is estimated by the sample SD, the statistic has a t distribution with n−1 degrees of freedom. Thus sample size 30 is o... | 031ac72b649ae9793c04c9cbb8a7acc64fc9de65e871d6e20589f11522c5eaa6 | true | false | null | null | 19 | 0.028169 | v1 |
p_00021f40cdc830fe40aee5e8 | d_e87081db946a164fc262ee41 | 31 | fused_short | 0 | rm8b | 0.0234 | 0.6758 | null | null | null | null | null | null | null | false | 16 | null | 7 | 0.035136 | v2_fused |
p_0003a780dab836bcc993d2c4 | d_040027227d07fab4b2e07e64 | 11 | rerank_top5 | 1 | llm | 0.8906 | 0.6821 | -0.25 | correct | [
"correct_partial_method"
] | medium | The document gives a substantially correct account of Pythagorean expected wins and actual-versus-expected differences, but it stops short of deriving or interpreting Rodman’s player-specific X-Factor. | 031ac72b649ae9793c04c9cbb8a7acc64fc9de65e871d6e20589f11522c5eaa6 | true | false | null | null | 13 | 0.028169 | v1 |
p_0003a780dab836bcc993d2c4 | d_0aa6a9b003de5464f1c8b182 | 6 | short_doc | 0 | rm8b | 0.1836 | 0.6865 | -2.3125 | null | null | null | null | null | null | false | null | null | 7 | 0.030303 | v1 |
p_0003a780dab836bcc993d2c4 | d_1004c89160fbb00addeabcae | 20 | short_doc | 0 | rm8b | 0.1118 | 0.6753 | -4.875 | null | null | null | null | null | null | false | null | null | null | 0.025 | v1 |
p_0003a780dab836bcc993d2c4 | d_13828ad0de6de1c53a022ff7 | 60 | fused_short | 0 | rm8b | 0.1064 | 0.646 | null | null | null | null | null | null | null | false | 39 | null | 18 | 0.026768 | v2_fused |
p_0003a780dab836bcc993d2c4 | d_192099440f6842d217f9fbf5 | 4 | dense_top5 | 0 | llm | null | 0.6953 | null | not_applicable | [
"wrong_problem",
"topic_only"
] | high | The document explains Pythagorean win-percentage models and prediction errors, primarily for baseball. Although broadly related to discrepancies between scoring margin and wins, it does not analyze Rodman or answer where his X-Factor comes from. | 031ac72b649ae9793c04c9cbb8a7acc64fc9de65e871d6e20589f11522c5eaa6 | true | false | null | null | 5 | 0.03125 | v1 |
p_0003a780dab836bcc993d2c4 | d_1a5b2011eb01bef825ea3466 | 12 | rerank_top5 | 1 | llm | 0.5352 | 0.6816 | 1.1875 | correct | [
"correct_partial_method"
] | medium | The document correctly explains Pythagorean expectation, the scoring-differential baseline relevant to an unexplained win differential, but it never discusses Rodman or derives his X-Factor. | 031ac72b649ae9793c04c9cbb8a7acc64fc9de65e871d6e20589f11522c5eaa6 | true | false | null | null | 14 | 0.027778 | v1 |
p_0003a780dab836bcc993d2c4 | d_1b608cf8a0d003c6527d0141 | 7 | short_doc | 0 | rm8b | 0.2334 | 0.686 | -1.75 | null | null | null | null | null | null | false | null | null | 9 | 0.029851 | v1 |
p_0003a780dab836bcc993d2c4 | d_38666831fd99249e8ab7e709 | 64 | fused_short | 0 | rm8b | 0.377 | 0.6445 | null | null | null | null | null | null | null | false | 38 | null | 20 | 0.026333 | v2_fused |
p_0003a780dab836bcc993d2c4 | d_3a3d90dc4e9b20eb4a54f6fb | 14 | rerank_top5 | 1 | llm | 0.8906 | 0.6807 | -0.25 | correct | [
"correct_partial_method"
] | medium | It correctly explains Bill James’s Pythagorean expectation and the difference between actual and predicted wins, which is relevant to the baseline behind an X-Factor, but it does not connect the method to Rodman or player-level win differentials. | 031ac72b649ae9793c04c9cbb8a7acc64fc9de65e871d6e20589f11522c5eaa6 | true | false | null | null | 16 | 0.027027 | v1 |
p_0003a780dab836bcc993d2c4 | d_3e28635fd017855efc391b87 | 9 | short_doc | 0 | rm8b | 0.3574 | 0.6846 | -4.6875 | null | null | null | null | null | null | false | null | null | 11 | 0.028986 | v1 |
p_0003a780dab836bcc993d2c4 | d_4c93ec0220f18e2468b56a45 | 18 | short_doc | 1 | rm8b | 0.6836 | 0.6772 | -1.9375 | null | null | null | null | null | null | false | null | null | null | 0.025641 | v1 |
p_0003a780dab836bcc993d2c4 | d_5bb34de8c17a23dede0b1e80 | 1 | dense_top5 | 2 | llm | null | 0.8584 | null | correct | [
"full_solution"
] | high | The document directly defines Rodman’s X-Factor as the residual between actual and MOV-predicted win differential and explains plausible sources, including random variance, clutch performance, selective playing time, reverse-clutch behavior, and possible rebound-padding in non-close games. | 031ac72b649ae9793c04c9cbb8a7acc64fc9de65e871d6e20589f11522c5eaa6 | true | false | 1 | 1 | 1 | 0.065574 | v1 |
p_0003a780dab836bcc993d2c4 | d_5f492fbdc8f64643d5f6e1fd | 3 | dense_top5 | 1 | llm | null | 0.7021 | null | correct | [
"correct_partial_subquestion"
] | high | The document provides substantive evidence that win percentage contains predictive information beyond margin of victory, supporting the claim that X-Factors are not entirely random. It does not determine the source of Rodman’s individual residual or discuss the proposed Rodman-specific mechanisms. | 031ac72b649ae9793c04c9cbb8a7acc64fc9de65e871d6e20589f11522c5eaa6 | true | false | 2 | null | 2 | 0.047875 | v1 |
p_0003a780dab836bcc993d2c4 | d_66a27ae90adf8a9b92c28c37 | 8 | short_doc | 0 | rm8b | 0.1943 | 0.6855 | -1.9375 | null | null | null | null | null | null | false | null | null | 10 | 0.029412 | v1 |
p_0003a780dab836bcc993d2c4 | d_701f31e173caf5f6a2196471 | 5 | dense_top5 | 0 | llm | null | 0.6909 | null | not_applicable | [
"wrong_problem",
"topic_only"
] | high | The document discusses RAPM, ezPM, four-factor regressions, and player plus-minus valuation. It supplies no analysis of Rodman’s win-differential residual or its possible origin. | 031ac72b649ae9793c04c9cbb8a7acc64fc9de65e871d6e20589f11522c5eaa6 | true | false | null | null | 6 | 0.030769 | v1 |
p_0003a780dab836bcc993d2c4 | d_840ec64886a3b88f277eb63a | 16 | rerank_top5 | 1 | llm | 0.668 | 0.6782 | 0.25 | correct | [
"correct_partial_method"
] | medium | The document correctly derives the Pythagorean win-percentage model that supplies the expected-win baseline, but it does not explain its basketball-specific application or how Rodman’s residual win differential is calculated. | 031ac72b649ae9793c04c9cbb8a7acc64fc9de65e871d6e20589f11522c5eaa6 | true | false | null | null | null | 0.026316 | v1 |
p_0003a780dab836bcc993d2c4 | d_998ebdbb03638717eb8457e7 | 10 | short_doc | 0 | rm8b | 0.209 | 0.6826 | -2.5 | null | null | null | null | null | null | false | null | null | 12 | 0.028571 | v1 |
p_0003a780dab836bcc993d2c4 | d_a4a7587ceb9ed72498c3e16d | 2 | dense_top5 | 0 | llm | null | 0.7085 | null | not_applicable | [
"wrong_problem"
] | high | The document develops an expected run-differential statistic for MLB teams and never addresses Rodman, NBA player win differentials, or the stated X-Factor. | 031ac72b649ae9793c04c9cbb8a7acc64fc9de65e871d6e20589f11522c5eaa6 | true | false | null | null | 4 | 0.032258 | v1 |
p_0003a780dab836bcc993d2c4 | d_c223f597ca393433b707492d | 17 | short_doc | 0 | rm8b | 0.2559 | 0.6782 | -2.5625 | null | null | null | null | null | null | false | 17 | null | 3 | 0.038961 | v1 |
p_0003a780dab836bcc993d2c4 | d_c5225cc8cc61d6c58a6cf66a | 15 | short_doc | 1 | rm8b | 0.5938 | 0.6807 | -2.25 | null | null | null | null | null | null | false | null | null | 19 | 0.026667 | v1 |
p_0003a780dab836bcc993d2c4 | d_cb059d84794ce8bb51b42ff4 | 30 | fused_short | 0 | rm8b | 0.3672 | 0.667 | null | null | null | null | null | null | null | false | 69 | null | 8 | 0.029974 | v2_fused |
p_0003a780dab836bcc993d2c4 | d_db54b7c80d4ba2cc10fcdb8f | 13 | rerank_top5 | 0 | llm | 0.4824 | 0.6812 | 0.375 | not_applicable | [
"target_mismatch",
"topic_only"
] | high | The document develops a team-level Four Factors regression model, not Rodman's unexplained player win differential or the origin of the stated X-Factor. | 031ac72b649ae9793c04c9cbb8a7acc64fc9de65e871d6e20589f11522c5eaa6 | true | false | null | null | 15 | 0.027397 | v1 |
p_0003a780dab836bcc993d2c4 | d_e5c43bf612b674be7091c953 | 100 | fused_long | 1 | rm8b | 0.7969 | 0.6372 | null | null | null | null | null | null | null | false | 9 | null | 17 | 0.026993 | v2_fused |
p_0003a780dab836bcc993d2c4 | d_fc434967c6d55d35cd3ed1c2 | 19 | short_doc | 0 | rm8b | 0.1504 | 0.6758 | -4.75 | null | null | null | null | null | null | false | null | null | null | 0.025316 | v1 |
p_00043540acc32a47a5b1d2bf | d_00555ef95da9445585ead3b8 | 25 | fused_short | 1 | rm8b | 0.8828 | 0.7222 | null | null | null | null | null | null | null | false | 2 | 25 | 10 | 0.051423 | v2_fused |
p_00043540acc32a47a5b1d2bf | d_1551c73be8b6e3ba25e34c98 | 11 | rerank_top5 | 0 | llm | 0.2383 | 0.7661 | -0.5 | not_applicable | [
"target_mismatch",
"topic_only"
] | high | The document discusses geometric reducedness and a general topological irreducibility lemma but neither states nor proves the transitivity of geometric irreducibility in the query. | 031ac72b649ae9793c04c9cbb8a7acc64fc9de65e871d6e20589f11522c5eaa6 | true | false | null | null | null | 0.028169 | v1 |
p_00043540acc32a47a5b1d2bf | d_1ac47d6a594abd7556e44252 | 7 | rerank_top5 | 0 | llm | 0.1943 | 0.8096 | -0.5625 | not_applicable | [
"target_mismatch"
] | high | It proves a sufficient condition for a field extension K/k to be geometrically irreducible, whereas the query already assumes that fact and asks for the resulting geometric irreducibility of S over k. | 031ac72b649ae9793c04c9cbb8a7acc64fc9de65e871d6e20589f11522c5eaa6 | true | false | null | 19 | 16 | 0.042509 | v1 |
p_00043540acc32a47a5b1d2bf | d_278cd83d89764b1720f67450 | 17 | short_doc | 0 | rm8b | 0.0152 | 0.7344 | -6.9062 | null | null | null | null | null | null | false | null | null | null | 0.025974 | v1 |
p_00043540acc32a47a5b1d2bf | d_3086d4754d62f49a83a02dd9 | 22 | fused_short | 0 | rm8b | 0.1011 | 0.7256 | null | null | null | null | null | null | null | false | 24 | 6 | 9 | 0.051447 | v2_fused |
p_00043540acc32a47a5b1d2bf | d_4276c2f8821877d0f4afe2d5 | 5 | dense_top5 | 1 | llm | null | 0.8354 | null | correct | [
"correct_partial_subquestion"
] | medium | The document correctly proves that tensoring a reduced algebra with a separable field extension preserves reducedness. This helps prove K⊗_k k' is a field after irreducibility is supplied, but it neither supplies that step nor concludes that S is geometrically irreducible over k. | 031ac72b649ae9793c04c9cbb8a7acc64fc9de65e871d6e20589f11522c5eaa6 | true | false | 8 | 18 | 5 | 0.058296 | v1 |
p_00043540acc32a47a5b1d2bf | d_5eb647907b9182cd2bd0d821 | 9 | short_doc | 0 | rm8b | 0.3477 | 0.7759 | -3.4375 | null | null | null | null | null | null | false | null | null | null | 0.028986 | v1 |
p_00043540acc32a47a5b1d2bf | d_66492d6b51f5f2a41a2fa6ba | 2 | dense_top5 | 1 | llm | null | 0.8398 | null | correct | [
"correct_partial_method"
] | high | The document supplies the definition and finite-separable testing criterion for geometric irreducibility, which gives the appropriate initial reduction. It does not perform the crucial argument that K⊗_k k' is a field or apply the hypothesis on S to finish the proof. | 031ac72b649ae9793c04c9cbb8a7acc64fc9de65e871d6e20589f11522c5eaa6 | true | false | 1 | 7 | 2 | 0.063577 | v1 |
p_00043540acc32a47a5b1d2bf | d_66f9562aac7ccdb731dc43b1 | 20 | short_doc | 0 | rm8b | 0.4043 | 0.7275 | -5.5938 | null | null | null | null | null | null | false | null | null | null | 0.025 | v1 |
p_00043540acc32a47a5b1d2bf | d_7007526eed5ddcbad3a8ec71 | 14 | short_doc | 0 | rm8b | 0.0172 | 0.7529 | -6.4375 | null | null | null | null | null | null | false | null | null | null | 0.027027 | v1 |
p_00043540acc32a47a5b1d2bf | d_96150241cf528ae0b42f0be8 | 3 | dense_top5 | 1 | llm | null | 0.8364 | null | correct | [
"correct_partial_subquestion"
] | medium | Lemma 10.42.6 gives a useful required substep: for finite separable k'/k, the tensor product K⊗_k k' is reduced. Combined with its irreducibility this helps show it is a field, but the document does not establish that irreducibility or complete the argument for S. | 031ac72b649ae9793c04c9cbb8a7acc64fc9de65e871d6e20589f11522c5eaa6 | true | false | 13 | 17 | 4 | 0.058432 | v1 |
p_00043540acc32a47a5b1d2bf | d_997e1e96d009e11434689503 | 8 | short_doc | 0 | rm8b | 0.3906 | 0.7773 | -3.5 | null | null | null | null | null | null | false | null | 100 | 20 | 0.035662 | v1 |
p_00043540acc32a47a5b1d2bf | d_9acbcadd24e4b955f641ebe0 | 4 | dense_top5 | 1 | llm | null | 0.8364 | null | correct | [
"correct_partial_subquestion"
] | medium | The result that separable scalar extension preserves reducedness can be applied to show K⊗_k k' is reduced for finite separable k'/k, a genuine intermediate step in the desired proof. The document treats geometric reducedness rather than completing the geometric-irreducibility argument. | 031ac72b649ae9793c04c9cbb8a7acc64fc9de65e871d6e20589f11522c5eaa6 | true | false | 7 | 16 | 3 | 0.059333 | v1 |
p_00043540acc32a47a5b1d2bf | d_af2eed69291ab140bcf6d79a | 26 | fused_short | 0 | rm8b | 0.1206 | 0.7217 | null | null | null | null | null | null | null | false | 22 | 3 | 11 | 0.051324 | v2_fused |
p_00043540acc32a47a5b1d2bf | d_c3824fe13114ee61ac0c7e19 | 39 | fused_short | 0 | rm8b | 0.2012 | 0.7085 | null | null | null | null | null | null | null | false | 20 | 20 | 15 | 0.045202 | v2_fused |
p_00043540acc32a47a5b1d2bf | d_c432dcf6e64ccb4eb1edf12b | 32 | fused_short | 0 | rm8b | 0.3184 | 0.7148 | null | null | null | null | null | null | null | false | 3 | 28 | 12 | 0.048976 | v2_fused |
p_00043540acc32a47a5b1d2bf | d_c46612c0437279aade8f6ad2 | 21 | fused_short | 0 | rm8b | 0.1348 | 0.7266 | null | null | null | null | null | null | null | false | 23 | 5 | 8 | 0.052124 | v2_fused |
p_00043540acc32a47a5b1d2bf | d_c61cfd67beceb0fa6827a95b | 16 | rerank_top5 | 0 | llm | 0.8438 | 0.7378 | -2.875 | major_error | [
"major_math_error",
"condition_mismatch",
"unresolved_attempt"
] | high | The discussion concerns tensor products of domains and relies on finite-type, algebraically closed, or separability assumptions absent from the query. Its broad opening claim that tensor products of domains over an arbitrary field are domains is false, and it never proves the requested irreducibility result. | 031ac72b649ae9793c04c9cbb8a7acc64fc9de65e871d6e20589f11522c5eaa6 | true | false | 11 | null | 17 | 0.0404 | v1 |
p_00043540acc32a47a5b1d2bf | d_c7c28052d97a4ee7fe95be23 | 18 | short_doc | 1 | rm8b | 0.6211 | 0.7324 | -3.3125 | null | null | null | null | null | null | false | null | null | null | 0.025641 | v1 |
p_00043540acc32a47a5b1d2bf | d_c7c8a925d25b8c3f3869376f | 10 | short_doc | 0 | rm8b | 0.4004 | 0.7754 | -3.5 | null | null | null | null | null | null | false | null | 79 | 19 | 0.035766 | v1 |
p_00043540acc32a47a5b1d2bf | d_c96f5916c58878f44a3d5716 | 6 | rerank_top5 | 1 | llm | 0.3867 | 0.8169 | 0.375 | correct | [
"correct_partial_method"
] | medium | The valid tensor-product lemma for geometrically integral algebras supplies the analogous argument under stronger domain and reducedness hypotheses. It does not handle merely geometrically irreducible, possibly nonreduced algebras or complete the requested transitivity proof. | 031ac72b649ae9793c04c9cbb8a7acc64fc9de65e871d6e20589f11522c5eaa6 | true | false | 9 | 23 | 6 | 0.056844 | v1 |
p_00043540acc32a47a5b1d2bf | d_d762e1221983ae53a7209746 | 12 | rerank_top5 | 0 | llm | 0.1836 | 0.7646 | -2 | not_applicable | [
"target_mismatch",
"topic_only"
] | high | The document proves that the generic-point residue field of a geometrically irreducible scheme is geometrically irreducible. It does not address composition of base fields or the K-algebra S. | 031ac72b649ae9793c04c9cbb8a7acc64fc9de65e871d6e20589f11522c5eaa6 | true | false | 95 | 26 | 14 | 0.045857 | v1 |
p_00043540acc32a47a5b1d2bf | d_db0cf5e8cd5e42a9fc94f06d | 33 | fused_short | 0 | rm8b | 0.0908 | 0.7148 | null | null | null | null | null | null | null | false | 26 | 4 | 13 | 0.048758 | v2_fused |
p_00043540acc32a47a5b1d2bf | d_dcd855d5eecbf72d8173291c | 15 | short_doc | 0 | rm8b | 0.2832 | 0.7388 | -3.625 | null | null | null | null | null | null | false | null | 59 | null | 0.03507 | v1 |
p_00043540acc32a47a5b1d2bf | d_de644d78813c7e239d257126 | 19 | short_doc | 0 | rm8b | 0.2266 | 0.7295 | -3.875 | null | null | null | null | null | null | false | null | 57 | null | 0.033863 | v1 |
p_00043540acc32a47a5b1d2bf | d_f4475917c98f036b68290568 | 13 | short_doc | 0 | rm8b | 0.0513 | 0.7588 | -6.6875 | null | null | null | null | null | null | false | null | 43 | 18 | 0.037106 | v1 |
p_00043540acc32a47a5b1d2bf | d_f554a48db24bc1f8ac60b781 | 24 | fused_short | 0 | rm8b | 0.1357 | 0.7227 | null | null | null | null | null | null | null | false | 21 | 2 | 7 | 0.052284 | v2_fused |
p_00043540acc32a47a5b1d2bf | d_fda5fb51aa3abbde127d7a1c | 1 | dense_top5 | 2 | llm | null | 0.8657 | null | correct | [
"full_solution"
] | high | The document proves the exact claim by reducing to finite separable extensions k'/k, showing K⊗_k k' is a finite separable field extension of K, and applying the geometric irreducibility of S over K. | 031ac72b649ae9793c04c9cbb8a7acc64fc9de65e871d6e20589f11522c5eaa6 | true | true | 5 | 1 | 1 | 0.064565 | v1 |
p_00092ac075db954489913e2b | d_0a0f1cfdab0748aaccbbcf21 | 13 | long_doc | 0 | llm | null | 0.7368 | null | not_applicable | [
"contaminated_or_spliced",
"unresolved_attempt"
] | high | The document is a corrupted collection of unrelated exercise statements. It neither identifies the units of F[x] nor proves that an invertible polynomial must be a nonzero constant. | 031ac72b649ae9793c04c9cbb8a7acc64fc9de65e871d6e20589f11522c5eaa6 | true | false | null | null | 15 | 0.027397 | v1 |
p_00092ac075db954489913e2b | d_113c98023ac3e528b9236c59 | null | source_page | 2 | llm | null | null | null | null | null | null | null | null | null | true | null | 3 | null | 0.015873 | v1 |
p_00092ac075db954489913e2b | d_16ee47a9c6d42a470377fdc5 | 8 | rerank_top5 | 0 | llm | 1.9766 | 0.7451 | 2.1875 | not_applicable | [
"unresolved_attempt"
] | high | The document merely recalls that the units of F[x] are F* and uses that fact later; it supplies no proof of the requested assertion. | 031ac72b649ae9793c04c9cbb8a7acc64fc9de65e871d6e20589f11522c5eaa6 | true | false | null | null | 10 | 0.029412 | v1 |
p_00092ac075db954489913e2b | d_23de8c02cb9aadc179e68b1f | 2 | dense_top5 | 2 | llm | null | 0.7632 | null | correct | [
"full_solution"
] | high | It gives the standard degree proof: if g(x)g(x)^{-1}=1, additivity of degree forces both factors to have degree zero, while every nonzero constant from the field has its reciprocal as an inverse. Thus the units are exactly F^*. | 031ac72b649ae9793c04c9cbb8a7acc64fc9de65e871d6e20589f11522c5eaa6 | true | false | null | null | 2 | 0.032258 | v1 |
p_00092ac075db954489913e2b | d_515b9ef18beae1f5f9e5562d | 10 | short_doc | 1 | rm8b | 1.3281 | 0.7378 | 1.25 | null | null | null | null | null | null | false | null | null | 12 | 0.028571 | v1 |
p_00092ac075db954489913e2b | d_581aa36bfec30ee56cadd54c | 63 | fused_short | 0 | rm8b | 0.0845 | 0.7109 | null | null | null | null | null | null | null | false | 6 | null | 4 | 0.031412 | v2_fused |
p_00092ac075db954489913e2b | d_5b0ac9622108bc7b38259e6e | 65 | fused_short | 0 | rm8b | -0.0452 | 0.7095 | null | null | null | null | null | null | null | false | null | 9 | 7 | 0.030493 | v2_fused |
p_00092ac075db954489913e2b | d_72d836e281e3336d06e76d86 | 3 | dense_top5 | 2 | llm | null | 0.7622 | null | correct | [
"full_solution"
] | high | The response correctly uses the nonvanishing leading coefficient of a product over a field to rule out a positive-degree unit, then observes that every nonzero constant has an inverse in F. Both inclusions in F[x]^*=F^* are established. | 031ac72b649ae9793c04c9cbb8a7acc64fc9de65e871d6e20589f11522c5eaa6 | true | false | null | null | 3 | 0.031746 | v1 |
p_00092ac075db954489913e2b | d_7ffaecb692288bce763b3b93 | 18 | rerank_top5 | 2 | llm | 1.7578 | 0.7334 | 1.25 | correct | [
"full_solution"
] | high | The Herstein 3.11.4 solution takes uv=1, applies degree additivity in the integral domain to force deg(u)=deg(v)=0, and concludes u is a unit of the coefficient ring. Together with the evident converse, this proves the equality for a field. | 031ac72b649ae9793c04c9cbb8a7acc64fc9de65e871d6e20589f11522c5eaa6 | true | false | null | null | 20 | 0.025641 | v1 |
p_00092ac075db954489913e2b | d_84529ecb9054a52429171658 | 15 | short_doc | 1 | rm8b | 0.7539 | 0.7344 | 0.25 | null | null | null | null | null | null | false | null | null | 17 | 0.026667 | v1 |
p_00092ac075db954489913e2b | d_8b670c4ebf819a1d60325606 | 1 | dense_top5 | 2 | llm | null | 0.7671 | null | correct | [
"full_solution"
] | high | The document states that a polynomial is a unit exactly when it divides 1, which in F[x] occurs exactly for nonzero constant polynomials, and notes that these are precisely the invertible elements of F. This proves F[x]^*=F^*. | 031ac72b649ae9793c04c9cbb8a7acc64fc9de65e871d6e20589f11522c5eaa6 | true | false | null | null | 1 | 0.032787 | v1 |
p_00092ac075db954489913e2b | d_9dd862d6ed24b9e5a36c30e2 | 19 | short_doc | 1 | rm8b | 0.543 | 0.7329 | -2.1875 | null | null | null | null | null | null | false | null | null | null | 0.025316 | v1 |
p_00092ac075db954489913e2b | d_a593258cfad155bc09cc5fe6 | 16 | rerank_top5 | 0 | llm | 1.4844 | 0.7334 | 1.3125 | not_applicable | [
"target_mismatch"
] | high | The argument only proves that the indeterminate x is not a unit and hence that R[x] is not a field. It does not establish that every nonconstant polynomial is noninvertible or characterize all units. | 031ac72b649ae9793c04c9cbb8a7acc64fc9de65e871d6e20589f11522c5eaa6 | true | false | null | null | 18 | 0.026316 | v1 |
p_00092ac075db954489913e2b | d_b5e84535f83185e90d3f0af3 | 12 | rerank_top5 | 2 | llm | 1.8516 | 0.7368 | 2.375 | correct | [
"equivalent_solution"
] | high | The stated lemma proves the stronger integral-domain result: a unit f in R[x] and its inverse g satisfy 0=deg(fg)=deg(f)+deg(g), so both are constant units of R; the converse inclusion is immediate. Applying this to a field gives the requested equality. | 031ac72b649ae9793c04c9cbb8a7acc64fc9de65e871d6e20589f11522c5eaa6 | true | false | null | null | 14 | 0.027778 | v1 |
p_00092ac075db954489913e2b | d_b6556c11432f4fc2ea321d46 | 4 | dense_top5 | 0 | llm | null | 0.7524 | null | not_applicable | [
"question_restatement"
] | high | The document merely presents the more general domain result as an exercise and supplies no proof or substantive derivation. An explicitly requested proof is therefore unsupported. | 031ac72b649ae9793c04c9cbb8a7acc64fc9de65e871d6e20589f11522c5eaa6 | true | false | null | null | 5 | 0.03125 | v1 |
p_00092ac075db954489913e2b | d_c13e9c16b0372b76bc2a1d62 | 5 | dense_top5 | 2 | llm | null | 0.751 | null | correct | [
"full_solution"
] | high | It correctly shows that a product involving a positive-degree polynomial cannot equal 1 because the leading coefficient remains nonzero over a field. Hence every unit is a nonzero constant, and conversely every nonzero constant is invertible in the field. | 031ac72b649ae9793c04c9cbb8a7acc64fc9de65e871d6e20589f11522c5eaa6 | true | false | null | null | 6 | 0.030769 | v1 |
p_00092ac075db954489913e2b | d_c2f7b833620a1e2316b1a8d3 | 9 | rerank_top5 | 2 | llm | 1.4453 | 0.7451 | 2.4375 | correct | [
"full_solution"
] | high | The document proves that if A has polynomial inverse B, then deg(AB)=deg(A)+deg(B)=0, forcing both polynomials to be constants. Thus every unit is a nonzero field element, while every nonzero constant is plainly invertible. | 031ac72b649ae9793c04c9cbb8a7acc64fc9de65e871d6e20589f11522c5eaa6 | true | false | null | null | 11 | 0.028986 | v1 |
p_00092ac075db954489913e2b | d_c9c768bc0aee8cc0d6d03265 | 14 | short_doc | 1 | rm8b | 1.0859 | 0.7349 | -1.375 | null | null | null | null | null | null | false | null | null | 16 | 0.027027 | v1 |
p_00092ac075db954489913e2b | d_dd0e8172303fa9d1ab4df5de | 6 | short_doc | 1 | rm8b | 0.7227 | 0.749 | 0.75 | null | null | null | null | null | null | false | null | null | 8 | 0.030303 | v1 |
p_00092ac075db954489913e2b | d_e192b48c40125b82f02bdf9e | 17 | short_doc | 0 | rm8b | 0.3613 | 0.7334 | -1.6875 | null | null | null | null | null | null | false | null | null | 19 | 0.025974 | v1 |
p_00092ac075db954489913e2b | d_e422dfdd80433cf609e24d48 | 20 | long_doc | 2 | llm | null | 0.7329 | null | correct | [
"full_solution"
] | high | The document proves that deg(fg)=deg(f)+deg(g). Thus fg=1 forces both factors to have degree zero, while every nonzero constant has an inverse in F, establishing F[x]^*=F^*. | 031ac72b649ae9793c04c9cbb8a7acc64fc9de65e871d6e20589f11522c5eaa6 | true | false | null | null | null | 0.025 | v1 |
p_00092ac075db954489913e2b | d_e635fb7cfb66b50d73830f13 | 11 | short_doc | 2 | rm8b | 1.8438 | 0.7378 | -0.25 | null | null | null | null | null | null | false | null | null | 13 | 0.028169 | v1 |
MathPinpoint
Status: v2, private preview. Every count below comes from the assembled v2 table. For what a retriever fine-tuned on it gains, see Training a retriever on MathPinpoint.
MathPinpoint is training data for problem-level math retrieval. Given a math question, the task is to find the web page that solves that problem, and solves it correctly. Each (query, page) pair carries a relevance label of 0, 1 or 2 under one written rubric, prompts/judge_prompt.md. The rubric is strict in two ways:
- Same problem, not same topic. A page gets 0 when it addresses a different problem (
wrong_problem), changes the conditions (condition_mismatch), answers a different target (target_mismatch), or only shares the topic or keywords (topic_only). - Correctness-aware. A page whose central mathematics is wrong gets 0, even when it addresses the right problem. A correct final answer reached through invalid reasoning is also 0.
What the release contains
| config | rows | content |
|---|---|---|
queries |
2,032,033 | query text, the page it was extracted from, extraction metadata |
corpus |
3,676,820 | deduplicated mathematical documents |
judgments |
51,158,695 | one row per judged (query, document) pair: its rank in each retrieval route, label, which judge produced it, and raw score where available |
Column-level schemas are in docs/schema.md.
How the labels were made
- Documents. Mathematical web pages go through a content extractor, are normalized, and are deduplicated with MinHash. See
docs/corpus.md. - Queries. One query per page, produced with a minimal-edit prompt: if the page contains a question somebody actually asked, that question is the query, copied with as few changes as possible. The prompt is
prompts/query_gen_prompt.txt. Queries are then deduplicated and filtered, and leakage against evaluation sets is removed. Seedocs/queries.md. - Candidates.
- Three retrieval routes each contribute their top 100: dense (Qwen3-Embedding-4B), BM25, and word 5-gram. They are combined with weighted reciprocal rank fusion (dense weight 2, k = 60).
- A query's candidates are its fused top 20 together with its dense top 20.
- v1 judged the dense top 20 only, which departed from this design. v2 adds the 9,949,472 fused candidates that the dense top 20 missed, and judges the 37,228 dense top-20 pairs that v1 had left without a judgment.
- See
docs/judging.md.
- Judging.
- The LLM judge (GPT-5.6-Sol) labels, under
prompts/judge_prompt.md: dense ranks 1–5; the top 5 within dense ranks 6–20 as ordered by a zero-shot reranker; documents in dense ranks 6–20 too long for that reranker; and, among the new candidates, documents too long for it at fused positions 1–5. - An 8B relevance model trained on the LLM labels scores every short document in dense ranks 6–20. That includes the reranker's picks, so those pairs carry both labels. In v2 it also labels every new candidate that the LLM judge does not.
- Every row records which judge produced its label and in which round (
label_round), and the 8B's raw score is kept wherever it exists. Seedocs/judging.md.
- The LLM judge (GPT-5.6-Sol) labels, under
Training a retriever on MathPinpoint
Qwen3-Embedding-0.6B was fine-tuned on training rows built from v2 of this release and compared with the same model before fine-tuning, on a held-out test set of 2,303 queries.
| metric | before | after | difference [95% CI] |
|---|---|---|---|
| nDCG@10 | 0.403 | 0.451 | +0.048 [+0.035, +0.061] |
| R@100 | 0.470 | 0.490 | +0.020 [+0.009, +0.031] |
Training rows. Each query gives one row:
- the positive is drawn at random from the query's score-2 candidates;
- the three score-0 candidates with the best dense rank are the hard negatives; candidates outside the dense top 100 come last;
- queries with fewer than three score-0 candidates are skipped.
Labels from both judges are used:
- Where both judges labeled a pair, the LLM label is used.
- A pair labeled only by the 8B model counts as score 2 if its raw score is at least 1.5, and as score 0 if it is below 0.5.
- A query's own source page is not used, and pairs marked not evaluable are dropped.
Documents are cut to 4,000 characters and queries to 2,000. This gives 1,403,375 rows.
Training.
- Loss: multiple-negatives ranking loss, using in-batch negatives plus the three hard negatives, and a Matryoshka loss over 768, 512, 256 and 128 dimensions.
- Batch: effective batch 512 (8 GPUs × 64, GradCache with mini-batch 32).
- Schedule: learning rate 2e-5 with 10% warmup, sequence length 512, 1,000 steps. A run therefore sees 512,000 of the 1,403,375 rows.
- Runs: three, with seeds 42, 43 and 44. Per-query scores are averaged over the three.
Evaluation.
Search runs over all 3,676,820 corpus documents, with last-token pooling at 512 tokens. Each query is prefixed with the instruction below; documents get no prefix.
Instruct: Given a web search query, retrieve relevant passages that answer the query Query:The test set is held out: none of its queries matches a training query after NFKC normalization, whitespace folding and lowercasing.
Only documents judged score 2, which answer the same problem correctly, count as relevant.
Intervals come from a paired bootstrap over queries, with 10,000 resamples.
Documentation
| page | covers |
|---|---|
docs/corpus.md |
source pages, extraction, question removal, dedup, document ids |
docs/queries.md |
query extraction, dedup, leakage removal, source-page check |
docs/judging.md |
candidates, who judged what, the rubric, the LLM judge, the 8B model |
docs/schema.md |
release layout (proposal) |
docs/limitations.md |
what the labels do and do not tell you |
Prompts and schemas
prompts/ holds the exact texts that produced the data. prompts/SHA256SUMS pins them. The judge prompt's guideline_version string is fixed in the output schema, so it does not identify which prompt text produced a label; the SHA-256 does.
| file | sha256 |
|---|---|
judge_prompt.md |
031ac72b649ae979… |
query_gen_prompt.txt |
d75d30a5b8cb0b03… |
Provenance and license
TBD before any public release. The source pages come from a gated upstream dataset that declares no license, and the documents here are derived from that content.
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