/ Модель

Характеристики

Лицензия
Apache 2.0
Библиотека
pytorch
Опубликована
25 сен 2026

causal-1

Регрессия по таблицам3 профессии

Амортизированная нейронная структурная причинная модель для оценки интервенционных и контрфактических эффектов в синтетических системах с заданным причинным графом.

22скачиваний за 30 дней0лайковвеса обновлены25 сен 2026

Бенчмарки

Как модель справилась с задачами пользователей ailist и что о ней публикуют открытые лидерборды

Публичные оценки

Из открытых лидербордов. Сравнивайте результаты одного теста при одинаковых условиях — отсутствие оценки не значит, что модель хуже.

В подключённых источниках результатов для этой модели пока нет.

Что умеет модель

Описание составлено по карточке модели и метаданным Hugging Face

causal-1 — модель frontal-labs для причинного вывода на синтетических данных. Это амортизированная нейронная структурная причинная модель с 26 119 098 параметрами: она принимает граф причинных связей как вход и выполняет явное структурное моделирование без языковой модели. Поддерживаются DAG до 32 переменных; заявленный сценарий применения — хорошо заданные системы до 20 переменных. Общие веса позволяют обрабатывать структуры графов, не встречавшиеся при обучении.

Модель предназначена для исследовательских задач на синтетических или корректно специфицированных системах: оценки интервенционных распределений P(Y | do(X=x)), средних и индивидуальных эффектов воздействия, а также контрфактических исходов для отдельных единиц. Карточка указывает лицензию Apache-2.0.

На синтетических отложенных мирах модель показывает умеренную ошибку оценивания эффектов и сохраняет калибровку неопределённости в пределах обучающего распределения. На реальных наблюдательных данных она может давать сильно смещённые, уверенно неверные оценки: на IHDP ошибка ATE составляет около пятнадцати стандартных отклонений, а на биологических данных Sachs поиск структуры уступает простой корреляции. Неопределённость не предупреждает о таком сдвиге распределения. Не следует применять модель для причинных оценок на реальных наблюдательных исследованиях или для поиска структуры на реальных биологических данных.

Сценарии применения

  • оценка среднего эффекта воздействия в синтетической причинной системе
  • оценка индивидуальных эффектов воздействия для узлов заданного DAG
  • расчёт контрфактического исхода для отдельного наблюдения
  • оценка распределения результата при вмешательстве do(X=x)
  • исследование причинных запросов в системах до 20 переменных

Ограничения

На реальных наблюдательных данных модель может выдавать сильно смещённые оценки и не калибрует неопределённость; на биологических данных поиск структуры уступил простой корреляции. Она также плохо экстраполирует оценки эффектов на графы больше обучающих, за пределы наблюдавшегося диапазона воздействия и при увеличении объёма данных.

Для каких профессий подходит3

Разделы каталога профессий, в задачах которых используется эта модель

Все профессии

Карточка модели

README от автора на Hugging Face, как он его опубликовал

Открыть на Hugging Face

Scope warning. This is a research model for synthetic causal inference. It is measurably unreliable on real observational studies — on IHDP it reports an ATE of +0.05 +/- 0.12 where the truth is +1.84, an error of roughly fifteen sigma — and it loses to plain correlation for structure discovery on real biological data. Read Known failures below before using it for anything consequential.

causal-1

  • Version: 1.0.0
  • Architecture: amortized neural structural causal model
  • Parameters: 26,119,098
  • Variable capacity: up to 32 variables per graph
  • Inference: explicit structural simulation; no language model is involved

What it does

One shared set of weights answers observational, interventional and counterfactual queries for any DAG within its variable capacity. Graph structure is an input, not an architectural constant, so DAGs that never appeared in training are ordinary inputs.

Intended use

Research use on synthetic or well-specified systems of at most twenty variables, where calibrated uncertainty matters: estimating P(Y | do(X=x)), average and individual treatment effects, and unit-level counterfactuals from a supplied or discovered DAG.

Out of scope

This model should not be used to estimate causal effects from real observational studies, and should not be used for structure discovery on real biological data. It is measurably unreliable on both, in a way that its own uncertainty does not warn you about. See Known failures below before using it for anything consequential.

Known failures

These are measured, not hypothetical, and they are the reason for the scope limits above.

  • Confidently wrong on IHDP. On this standard benchmark (747 rows, 26 covariates, binary treatment) the model reports an ATE of +0.053 with an uncertainty of 0.121 against a true ATE of +1.842. That is an error of roughly fifteen sigma, and the two-sigma interval excludes the truth by a factor of six. A t-learner reaches an ATE error of 0.026 on the same data. Predicting exactly zero would score a PEHE of 1.884; the model scores 1.844, so it contributes almost nothing.
  • Beaten by correlation on Sachs. Edge AUROC 0.654 against 0.738 for ranking pairs by absolute correlation. Skeleton recovery is 0.700 against 0.788, and orientation is at chance (7 of 17 edges). Feeding more rows does not help: 0.627 at 256 rows, 0.654 at 853.
  • A parent's influence is diluted by its siblings. The mechanism aggregates parents with a softmax, so influence decays as roughly 0.26 / n_parents. A twenty-six-covariate outcome dilutes the treatment twenty-six fold, which is the leading explanation for the IHDP result. The model's predictions correlate 0.92 with the truth while having a regression slope of 0.10: it recovers the direction and relative size of an effect and then reports about a tenth of its magnitude. Three attempted fixes all measured no better.
  • Calibration holds in distribution only. On synthetic worlds where the graph is silent about a real effect, uncertainty is near-perfectly calibrated (error/sigma 0.96). On real data it is not, as the IHDP figure above shows. Do not rely on the uncertainty estimate as a safety margin outside the training distribution.

Other limitations

  • Effects that are not identified from the supplied graph cannot be recovered. The model reports elevated uncertainty on such queries and the API marks them not_identified; it does not invent a point estimate it can justify.
  • Discovery returns a DAG consistent with the data, which in general identifies a Markov equivalence class rather than a unique orientation.
  • Accuracy degrades outside the treatment range seen in the observational sample; the outside_range benchmark quantifies this.
  • Effect estimation extrapolates poorly to graphs larger than training: first of seven estimators on held-out worlds, but fourth of seven on twenty-one to twenty-seven variable graphs. Discovery extrapolates fine.
  • Training worlds are homogeneous single SCMs with 256 observational rows. The model was never trained to sharpen an estimate given more data, and measurably does not.

Why it fails on real data

The model is amortized: it never fits the dataset in front of it, it applies a function learned from synthetic structural causal models. A t-learner fits IHDP directly and does well. This model instead asks what effect a world of that shape would typically have, and "typically" is defined entirely by the generator. Two properties of that generator are measured and matter: training tasks whose outcome has eight or more parents average a normalised ATE of 0.639 against 1.543 overall, so the prior actively teaches that wide graphs have modest effects; and every node is calibrated to unit variance, so a treatment cannot dominate a long covariate list the way it does in a real study. Strong synthetic scores and weak real scores are therefore not in tension - nothing in the training objective ever rewarded being right off-distribution.

Held-out benchmark

metricheld-out worldsunseen structures
normalised ATE error0.42310.5004
normalised ITE error0.51490.5848
normalised counterfactual error0.28900.3433
edge F10.70570.6931
edge AUROC0.91930.9375
SHD11.308643.6406
1-sigma coverage0.70700.7812

Baseline comparison (normalised ATE error, lower is better)

estimatorerror
proposed_model0.4231
g_computation0.4304
backdoor_adjustment0.4930
naive_correlation0.5140
propensity_weighting0.5330
linear_regression0.5332
neural_regression1.0974

Reproduction

python -m causal.cli train --steps 12000 --export model
python -m causal.cli benchmark --artifact model

Full benchmark record

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        "baseline_linear_regression_error": 1.0498626232147217,
        "baseline_naive_correlation_error": 1.0376276969909668,
        "baseline_neural_regression_error": 2.398400902748108,
        "baseline_propensity_weighting_error": 0.4118959903717041,
        "causal_slope": 1.1000001448268764,
        "counterfactual_error": 0.07461073994636536,
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        "error_to_sigma_ratio": 0.2179233334533328,
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        "marginal_slope": 1.6864241361618042,
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        "normalised_counterfactual_error": 0.04002290118853031,
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      "hidden_variables": {
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        "causal_slope": 0.9974367782446439,
        "counterfactual_error": 1.7296648025512695,
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        "normalised_ite_error": 0.9196640849113464,
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      "nonlinear": {
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        "baseline_backdoor_adjustment_error": 0.6513547897338867,
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        "baseline_linear_regression_error": 0.6513547897338867,
        "baseline_naive_correlation_error": 1.2258453369140625,
        "baseline_neural_regression_error": 2.005765378475189,
        "baseline_propensity_weighting_error": 0.6513547897338867,
        "causal_slope": 0.9333865277512824,
        "counterfactual_error": 0.20367702841758728,
        "edge_auroc": 0.875,
        "edge_f1": 0.5,
        "edge_precision": 0.5,
        "edge_recall": 0.5,
        "error_to_sigma_ratio": 1.753846704202429,
        "identified": 1.0,
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        "normalised_ate_sigma": 0.07108399336162348,
        "normalised_counterfactual_error": 0.1460407576693404,
        "normalised_ite_error": 0.15125936269760132,
        "reversed_edges": 1.0,
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        "true_ate": 2.9822487831115723
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      "outside_range": {
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        "ate_sigma": 5.753205299377441,
        "baseline_backdoor_adjustment_error": 29.526872634887695,
        "baseline_g_computation_error": 133.46777725219727,
        "baseline_linear_regression_error": 14.822834014892578,
        "baseline_naive_correlation_error": 24.001174926757812,
        "baseline_neural_regression_error": 1.5242118835449219,
        "baseline_propensity_weighting_error": 43.52757549285889,
        "causal_slope": 6.159307069261119,
        "counterfactual_error": 7.563058853149414,
        "edge_auroc": 0.8888888955116272,
        "edge_f1": 0.8,
        "edge_precision": 1.0,
        "edge_recall": 0.6666666666666666,
        "error_to_sigma_ratio": 0.04533247533887548,
        "identified": 1.0,
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        "marginal_slope": 4.536205291748047,
        "n_predicted_edges": 2.0,
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        "normalised_ate_sigma": 1.0047951463415306,
        "normalised_counterfactual_error": 1.3208853902644846,
        "normalised_ite_error": 0.8274750709533691,
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        "baseline_linear_regression_error": 0.32472920417785645,
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        "baseline_neural_regression_error": 0.6534314155578613,
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        "causal_slope": 1.200000014507461,
        "counterfactual_error": 0.06795314699411392,
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        "error_to_sigma_ratio": 0.4258907846277842,
        "identified": 0.0,
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        "marginal_slope": 1.068271279335022,
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      "simpsons_paradox": {
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        "baseline_linear_regression_error": 2.463747024536133,
        "baseline_naive_correlation_error": 2.397135704755783,
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        "baseline_propensity_weighting_error": 1.3367897272109985,
        "causal_slope": -1.0000001452680656,
        "counterfactual_error": 0.47993287444114685,
        "edge_auroc": 1.0,
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        "identified": 1.0,
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    },
    "summary": {
      "mean_normalised_ate_error": 0.5202214121818542,
      "mean_sigma_identified": 0.48233312368392944,
      "mean_sigma_not_identified": 0.20162875950336456,
      "overconfident_scenarios": [
        "confounding",
        "hidden_variables"
      ],
      "uncertainty_ordering_correct": false,
      "worst_error_to_sigma_ratio": 11.463352200005689
    }
  },
  "baselines": {
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      "normalised_ate_error": 0.4930418133735657
    },
    "g_computation": {
      "normalised_ate_error": 0.43038827180862427
    },
    "linear_regression": {
      "normalised_ate_error": 0.5331624746322632
    },
    "naive_correlation": {
      "normalised_ate_error": 0.5140460729598999
    },
    "neural_regression": {
      "normalised_ate_error": 1.0974092483520508
    },
    "propensity_weighting": {
      "normalised_ate_error": 0.5330392122268677
    },
    "proposed_model": {
      "normalised_ate_error": 0.423109233379364
    }
  },
  "baselines_unseen": {
    "backdoor_adjustment": {
      "normalised_ate_error": 0.4284541606903076
    },
    "g_computation": {
      "normalised_ate_error": 0.4658964276313782
    },
    "linear_regression": {
      "normalised_ate_error": 0.46599188446998596
    },
    "naive_correlation": {
      "normalised_ate_error": 0.503264307975769
    },
    "neural_regression": {
      "normalised_ate_error": 1.071964979171753
    },
    "propensity_weighting": {
      "normalised_ate_error": 0.47844383120536804
    },
    "proposed_model": {
      "normalised_ate_error": 0.500436007976532
    }
  },
  "configuration": {
    "counterfactual_rows": 64,
    "edge_threshold": 0.5,
    "held_out_tasks": 256,
    "parameters": 26119098,
    "replicas": 64,
    "seed": 0,
    "unseen_structure_tasks": 128
  },
  "held_out": {
    "ate_bias": -0.0419006422162056,
    "ate_error": 0.4225336015224457,
    "ate_mae": 0.4225336015224457,
    "ate_normalised_mae": 0.423109233379364,
    "ate_normalised_rmse": 0.733408510684967,
    "ate_rmse": 0.7471932172775269,
    "ate_sigma": 0.5646735429763794,
    "calibration_coverage_1sigma": 0.70703125,
    "calibration_coverage_2sigma": 0.91015625,
    "calibration_mean_abs_z": 0.8785681128501892,
    "calibration_mean_sigma": 0.5783447623252869,
    "calibration_uncertainty_error_correlation": 0.4662990868091583,
    "counterfactual_error": 0.28894758224487305,
    "edge_auroc": 0.9193468689918518,
    "edge_f1": 0.7056852579116821,
    "edge_precision": 0.6512736082077026,
    "edge_recall": 0.8075383901596069,
    "identified": 0.765625,
    "ite_error": 0.5081815719604492,
    "n_predicted_edges": 21.75390625,
    "n_true_edges": 14.80078125,
    "n_variables": 11.65625,
    "normalised_ate_error": 0.423109233379364,
    "normalised_ate_sigma": 0.5783447623252869,
    "normalised_counterfactual_error": 0.28902265429496765,
    "normalised_ite_error": 0.5149435997009277,
    "reversed_edges": 1.86328125,
    "shd": 11.30859375,
    "sigma_identification_gap": 0.3878597021102905,
    "sigma_identified": 0.4874401092529297,
    "sigma_not_identified": 0.8752998113632202
  },
  "identification": {
    "held_out": {
      "fraction_backdoor": 0.265625,
      "fraction_identified": 0.765625,
      "n_tasks": 256.0
    },
    "unseen_structures": {
      "fraction_backdoor": 0.3046875,
      "fraction_identified": 0.796875,
      "n_tasks": 128.0
    }
  },
  "real_data": {
    "ihdp": {
      "ate_error": 1.7996239438652992,
      "baseline_linear_adjustment_error": 0.04008984565734863,
      "baseline_naive_difference_error": 0.0023185014724731445,
      "baseline_t_learner_ate_error": 0.025522828102111816,
      "baseline_t_learner_pehe": 0.2680015563964844,
      "description": "747 infants, 25 covariates, known response surfaces",
      "ite_mae": 1.805983543395996,
      "n_samples": 747.0,
      "n_variables": 27.0,
      "pehe": 1.8435747623443604,
      "predicted_ate": 0.042645715177059174,
      "true_ate": 1.8422696590423584
    },
    "sachs": {
      "baseline_correlation_auroc": 0.7375078797340393,
      "description": "853 single-cell measurements of 11 phosphoproteins (log-standardised)",
      "edge_auroc": 0.6540164351463318,
      "edge_f1": 0.2790697674418605,
      "edge_precision": 0.23076923076923078,
      "edge_recall": 0.35294117647058826,
      "n_predicted_edges": 26.0,
      "n_samples": 853.0,
      "n_true_edges": 17.0,
      "reversed_edges": 4.0,
      "shd": 27.0,
      "variants": {
        "log_standardised": {
          "baseline_correlation_auroc": 0.7375078797340393,
          "description": "853 single-cell measurements of 11 phosphoproteins (log-standardised)",
          "edge_auroc": 0.6540164351463318,
          "edge_f1": 0.2790697674418605,
          "edge_precision": 0.23076923076923078,
          "edge_recall": 0.35294117647058826,
          "n_predicted_edges": 26.0,
          "n_samples": 853.0,
          "n_true_edges": 17.0,
          "reversed_edges": 4.0,
          "shd": 27.0
        },
        "standardised": {
          "baseline_correlation_auroc": 0.7305502891540527,
          "description": "853 single-cell measurements of 11 phosphoproteins (standardised)",
          "edge_auroc": 0.6521189212799072,
          "edge_f1": 0.0,
          "edge_precision": 0.0,
          "edge_recall": 0.0,
          "n_predicted_edges": 5.0,
          "n_samples": 853.0,
          "n_true_edges": 17.0,
          "reversed_edges": 4.0,
          "shd": 18.0
        }
      }
    }
  },
  "training": {
    "promoted_stage": "unseen_structures",
    "promoted_step": 22000,
    "validation_score": 1.0260702967643738
  },
  "unseen_structures": {
    "ate_bias": -0.13809093832969666,
    "ate_error": 0.490360826253891,
    "ate_mae": 0.490360826253891,
    "ate_normalised_mae": 0.500436007976532,
    "ate_normalised_rmse": 1.0647010803222656,
    "ate_rmse": 1.0703402757644653,
    "ate_sigma": 0.6500532627105713,
    "calibration_coverage_1sigma": 0.78125,
    "calibration_coverage_2sigma": 0.9375,
    "calibration_mean_abs_z": 0.6925615072250366,
    "calibration_mean_sigma": 0.6671552062034607,
    "calibration_uncertainty_error_correlation": 0.6199653148651123,
    "counterfactual_error": 0.3348301649093628,
    "edge_auroc": 0.9375064969062805,
    "edge_f1": 0.6931359171867371,
    "edge_precision": 0.6278237104415894,
    "edge_recall": 0.8394230008125305,
    "identified": 0.796875,
    "ite_error": 0.5735531449317932,
    "n_predicted_edges": 68.078125,
    "n_true_edges": 38.578125,
    "n_variables": 24.0390625,
    "normalised_ate_error": 0.500436007976532,
    "normalised_ate_sigma": 0.6671552062034607,
    "normalised_counterfactual_error": 0.3433118462562561,
    "normalised_ite_error": 0.5847880244255066,
    "reversed_edges": 5.734375,
    "shd": 43.640625,
    "sigma_identification_gap": 0.8151648640632629,
    "sigma_identified": 0.5015749335289001,
    "sigma_not_identified": 1.316739797592163
  }
}

Training data

frontal-labs/causal-1-training-data — synthetic SCMs with exact ground-truth counterfactuals. That card documents measured biases in the generator which explain the real-data failures above; they are worth reading alongside this one.

Usage

from causal.api import CausalAPI

api = CausalAPI.from_artifact("causal-1")
result = api.effect("treatment", "outcome", 0.0, 1.0)
print(result.effect, result.uncertainty)

Как запустить

На своей GPU в ailist. Цена — по текущим предложениям провайдеров

GPU в ailist

Универсальный рантайм · pytorch

Нельзя запустить

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