paper_id large_string | dimension large_string | dimension_name large_string | gold_risk large_string | ambiguous int64 | source large_string |
|---|---|---|---|---|---|
paper_01 | parallel_trends | Parallel trends (pre-treatment) | high | 1 | agreed_independently |
paper_01 | no_anticipation | No anticipation | medium | 1 | agreed_independently |
paper_01 | treatment_timing | Treatment timing / staggered adoption | medium | 1 | agreed_independently |
paper_01 | treatment_definition_sutva | Treatment definition & SUTVA / spillovers | medium | 1 | agreed_independently |
paper_01 | control_group | Control group construction | medium | 1 | agreed_independently |
paper_01 | specification | Functional form & specification | medium | 0 | agreed_independently |
paper_01 | inference | Inference (standard errors) | medium | 0 | agreed_independently |
paper_01 | sample_period | Sample & period selection | medium | 0 | agreed_independently |
paper_01 | concurrent_policies | Concurrent / confounding policies | medium | 1 | reconciled |
paper_01 | robustness_placebo | Robustness & placebo tests | medium | 0 | agreed_independently |
paper_01 | data_measurement | Data quality & measurement | medium | 0 | agreed_independently |
paper_03 | parallel_trends | Parallel trends (pre-treatment) | medium | 1 | agreed_independently |
paper_03 | no_anticipation | No anticipation | medium | 0 | agreed_independently |
paper_03 | treatment_timing | Treatment timing / staggered adoption | medium | 1 | reconciled |
paper_03 | treatment_definition_sutva | Treatment definition & SUTVA / spillovers | medium | 0 | agreed_independently |
paper_03 | control_group | Control group construction | medium | 1 | agreed_independently |
paper_03 | specification | Functional form & specification | medium | 0 | agreed_independently |
paper_03 | inference | Inference (standard errors) | high | 0 | agreed_independently |
paper_03 | sample_period | Sample & period selection | medium | 0 | agreed_independently |
paper_03 | concurrent_policies | Concurrent / confounding policies | medium | 0 | agreed_independently |
paper_03 | robustness_placebo | Robustness & placebo tests | medium | 0 | agreed_independently |
paper_03 | data_measurement | Data quality & measurement | medium | 0 | reconciled |
paper_07 | parallel_trends | Parallel trends (pre-treatment) | medium | 1 | agreed_independently |
paper_07 | no_anticipation | No anticipation | low | 1 | reconciled |
paper_07 | treatment_timing | Treatment timing / staggered adoption | low | 1 | agreed_independently |
paper_07 | treatment_definition_sutva | Treatment definition & SUTVA / spillovers | medium | 1 | reconciled |
paper_07 | control_group | Control group construction | medium | 1 | reconciled |
paper_07 | specification | Functional form & specification | medium | 0 | reconciled |
paper_07 | inference | Inference (standard errors) | medium | 0 | agreed_independently |
paper_07 | sample_period | Sample & period selection | medium | 0 | agreed_independently |
paper_07 | concurrent_policies | Concurrent / confounding policies | medium | 0 | agreed_independently |
paper_07 | robustness_placebo | Robustness & placebo tests | medium | 0 | agreed_independently |
paper_07 | data_measurement | Data quality & measurement | low | 0 | agreed_independently |
paper_08 | parallel_trends | Parallel trends (pre-treatment) | medium | 1 | agreed_independently |
paper_08 | no_anticipation | No anticipation | medium | 1 | reconciled |
paper_08 | treatment_timing | Treatment timing / staggered adoption | medium | 1 | reconciled |
paper_08 | treatment_definition_sutva | Treatment definition & SUTVA / spillovers | medium | 1 | agreed_independently |
paper_08 | control_group | Control group construction | medium | 1 | agreed_independently |
paper_08 | specification | Functional form & specification | medium | 0 | reconciled |
paper_08 | inference | Inference (standard errors) | medium | 0 | agreed_independently |
paper_08 | sample_period | Sample & period selection | medium | 0 | agreed_independently |
paper_08 | concurrent_policies | Concurrent / confounding policies | medium | 1 | agreed_independently |
paper_08 | robustness_placebo | Robustness & placebo tests | medium | 0 | agreed_independently |
paper_08 | data_measurement | Data quality & measurement | medium | 0 | reconciled |
paper_10 | parallel_trends | Parallel trends (pre-treatment) | low | 1 | reconciled |
paper_10 | no_anticipation | No anticipation | low | 0 | agreed_independently |
paper_10 | treatment_timing | Treatment timing / staggered adoption | medium | 1 | reconciled |
paper_10 | treatment_definition_sutva | Treatment definition & SUTVA / spillovers | medium | 1 | agreed_independently |
paper_10 | control_group | Control group construction | low | 0 | agreed_independently |
paper_10 | specification | Functional form & specification | medium | 0 | agreed_independently |
paper_10 | inference | Inference (standard errors) | medium | 0 | agreed_independently |
paper_10 | sample_period | Sample & period selection | medium | 0 | agreed_independently |
paper_10 | concurrent_policies | Concurrent / confounding policies | medium | 0 | agreed_independently |
paper_10 | robustness_placebo | Robustness & placebo tests | medium | 0 | agreed_independently |
paper_10 | data_measurement | Data quality & measurement | low | 0 | agreed_independently |
At a glance · Quick start · Fields · Reading the labels · Citation
ARGUS: Evidence-Grounded Auditing of Identification Assumptions
Data release for "Evidence-Grounded Auditing of Identification Assumptions in Climate-Policy Causal Evaluations" (Zhang, Xie, Parra & Correia), to appear at ClimateNLP 2026 (EMNLP 2026 workshop).
ARGUS is a structured language-model pipeline that audits the evidence a difference-in-differences (DID) study reports for its identification assumptions. It maps each paper onto an eleven-dimension assumption–implication–evidence rubric, retrieves supporting evidence, assigns a risk level per dimension, and abstains (unknown) when relevant evidence cannot be retrieved. It does not judge whether a paper's estimated effect is correct.
Flag, not judge. Every label here is a screening signal about the evidence a paper reports, not a verdict on the paper. Please read How to read the labels before using any single cell.
At a glance
| Papers audited | Rubric dimensions | Human gold cells | Planted flaws |
|---|---|---|---|
| 26 | 11 | 55 | 11 + 33 |
| published DID studies from eight fields of economics | one assumption → implication → evidence chain each | 5 papers × 11 dimensions, two annotators | base flaws, plus a harder set of variants |
Configurations
| Config | Rows | Description |
|---|---|---|
gold_labels (default) |
55 | Human-pilot labels: 5 papers × 11 dimensions, from two independent annotators under a pre-registered protocol, reconciled where they differed |
corpus_results |
869 | Per-paper, per-dimension risk labels from three pipelines on the real-paper corpus |
corpus_manifest |
27 | Title, year and venue of each paper in the corpus |
rubric |
11 | The identification rubric: assumption, testable implication and expected evidence per dimension |
flaw_taxonomy |
11 | The base flaws used for flaw injection (one per dimension) |
flaw_variants |
33 | The harder 33-variant flaw-injection benchmark (commission and omission flaws) |
Quick start
from datasets import load_dataset
gold = load_dataset("yonghongzhang/ARGUS", "gold_labels", split="train").to_pandas()
runs = load_dataset("yonghongzhang/ARGUS", "corpus_results", split="train").to_pandas()
# The 26-paper corpus reported in the paper, main system only
argus = runs[runs.counted_in_paper & (runs.pipeline == "argus_two_stage")]
print(f"abstentions: {(argus.risk == 'unknown').mean():.1%}") # 39.5%
# ARGUS next to the reconciled human labels on the five pilot papers
order = {"low": 0, "medium": 1, "high": 2}
pilot = gold.merge(argus, on=["paper_id", "dimension"])
answered = pilot[pilot.risk != "unknown"]
more_severe = (answered.risk.map(order) > answered.gold_risk.map(order)).sum()
print(f"more severe than gold on {more_severe} of {len(answered)} answered cells") # 25 of 33
What the corpus results look like
Share of the 26 papers at each risk level on each dimension, from corpus_results (keyword baseline on the left, the two-stage ARGUS pipeline on the right). Grey is an abstention.
Fields
gold_labels
| Column | Description |
|---|---|
paper_id |
Paper identifier; joins to corpus_manifest and corpus_results |
dimension / dimension_name |
Rubric dimension id and its readable name |
gold_risk |
low, medium or high |
ambiguous |
1 if the annotators flagged the cell as open to reasonable expert disagreement |
source |
agreed_independently (42 cells) or reconciled after discussion (13 cells) |
corpus_results
| Column | Description |
|---|---|
paper_id, dimension |
As above |
pipeline |
argus_two_stage (the main system), full_paper_single_pass (ablation; covers 25 of the 26 papers, with no run for paper_165) or keyword_baseline |
risk |
low, medium, high or unknown (abstention) |
counted_in_paper |
False for paper_164, a byte-identical duplicate of paper_120 that is excluded from every count in the paper. Filter on True to reproduce the 26-paper corpus |
corpus_manifest
| Column | Description |
|---|---|
paper_id |
As above |
title_as_indexed, year_as_indexed, venue_as_indexed |
Title, year and venue as recorded in the source corpus index. For paper_101 and paper_128 the index venue and year are corrupted; note gives the published reference |
venue_in_table |
Venue as reported in the paper's corpus table |
topic |
Field of economics (eight in total) |
counted |
yes for the 26 papers in the corpus, no for the duplicate paper_164 |
note |
Remarks on individual papers |
rubric
| Column | Description |
|---|---|
dimension / name |
Dimension id and readable name |
assumption |
The identification assumption |
implication |
Its testable implication |
evidence |
The kinds of evidence a credible paper would report |
flaw_taxonomy
| Column | Description |
|---|---|
id |
Flaw identifier |
target_dimension |
The rubric dimension the flaw should make ARGUS flag |
severity |
low, medium or high |
description |
What the flaw is |
injection_method |
How it is planted into a paper |
detection_signal |
What an auditor should notice |
flaw_variants
| Column | Description |
|---|---|
variant_id |
Variant identifier |
target_dimension |
The rubric dimension the variant should make ARGUS flag |
flaw_type |
commission (a section replaced by flawed but natural prose) or omission (the supporting evidence removed) |
severity |
low, medium or high |
injection |
JSON string: the edit operation and its targets, with the replacement text for commission flaws |
expected |
JSON string: clean_risk_max and injected_risk_min, the bounds the audit should satisfy on the target dimension |
forbidden_leakage_terms |
Phrases that must not appear in the injected text, so a flaw cannot be detected from its own wording |
The original YAML files are under config/, and the guideline given to the annotators under annotation/. The full annotation protocol, with its log of deviations, is in the GitHub repository: annotation/human_pilot/PROTOCOL.md. No text of the audited published articles is redistributed; papers are identified by title and venue only.
How to read the labels
Please read these caveats before using the per-paper labels:
- Screening signals, not quality judgements. A label says whether a paper reports evidence adequate to support an identification assumption. It is not a verdict on the paper's causal estimate or on research quality.
- ARGUS is systematically over-severe. Against the reconciled human labels, it assigned a higher risk level on 25 of the 33 cells it answered and a lower one on none. Weighted agreement stays low even after the pre-specified calibration rule.
- Individual cells are unreliable. The human pilot covers only 5 papers. Nothing here supports a claim about any single paper on any single dimension.
unknownmeans retrieval failed, not that evidence is absent. ARGUS abstains on roughly 40% of paper–dimension assessments, often because the evidence sits in a figure that text retrieval cannot reach.
Quoting a single cell as a verdict on a published paper misuses this data.
License
Data: CC BY 4.0 (see LICENSE.md). Code (on GitHub): MIT.
Citation
@inproceedings{zhang2026argus,
title = {Evidence-Grounded Auditing of Identification Assumptions in
Climate-Policy Causal Evaluations},
author = {Zhang, Yonghong and Xie, Yong and Parra, Isabel M. and Correia, Ricardo},
booktitle = {ClimateNLP 2026: Workshop on Natural Language Processing Meets Climate Change},
year = {2026},
note = {To appear}
}
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