GengxuLi123/OCR-MetaReasoning

Dataset

> OCR-MetaReasoning is a controlled benchmark for testing whether multimodal large language models (MLLMs) can organize OCR-grounded visual evidence according to the required reasoning direction, rather than merely copy text from an image.

1

15 commits

2 linked in READMEs

updated Sep 1, 2026

See the code

README

OCR-MetaReasoning Benchmark: Evaluating the Meta-Reasoning Ability of MLLMs in Text-Rich Image Understanding

Gengxu Li1, Yuan Wu1*, Yi Chang1,2,3
1 School of Artificial Intelligence, Jilin University   2 Engineering Research Center of Knowledge-Driven Human-Machine Intelligence, MOE, China
3 International Center of Future Science, Jilin University

Hugging Face dataset arXiv paper Source code MIT License

Overview Β· Task Β· Dataset Β· Evaluation Β· Citation

OCR-MetaReasoning is a controlled benchmark for testing whether multimodal large language models (MLLMs) can organize OCR-grounded visual evidence according to the required reasoning direction, rather than merely copy text from an image.

1,500
verified samples
3
reasoning subsets
3 x 5
balanced taxonomy
15
taxonomy cells
2
evaluation views

Overview

Text-rich images encode meaning through words, tables, charts, fields, layout, constraints, legends, and cross-region correspondences. OCR-MetaReasoning evaluates the ability to use these signals in the reasoning direction required by a question.

Each item contains one text-rich image, one question, a canonical answer, an answer format and scoring rule, and a reference reasoning path. The release is balanced across three meta-reasoning types and five OCR-object categories, enabling controlled analysis of both answer correctness and visible reasoning-process compliance.

OCR-MetaReasoning benchmark construction pipeline

Benchmark construction pipeline. See the paper for the full protocol.

Benchmark at a Glance

PropertyDescription
Primary targetOCR-grounded meta-reasoning in text-rich image understanding
InputOne image and one question
Release size1,500 samples, 500 per subset
Taxonomy3 reasoning types x 5 OCR-object categories; 100 samples per cell
Answer formatsString, integer, floating-point, and JSON
Reference path2-8 numbered reasoning steps; 4.22 steps on average
Image settingSingle image per sample
LanguageEnglish

Task and Taxonomy

Meta-reasoning types

The label is assigned according to the dominant bottleneck needed to recover the target variable. A sample may still contain local arithmetic, lookup, comparison, or OCR operations.

SubsetFormal viewRequired behavior
meta_deductiveH + R -> OExtract a visible rule, clause, threshold, formula, legend, or field dependency; verify a candidate against it; derive the supported conclusion.
meta_inductiveH + O -> RAlign multiple visible examples; infer a stable but unstated pattern; test it and generalize it to a target.
meta_abductiveO + R -> HStart from an observed result, anomaly, or goal; reason backward through constraints; recover the unique or minimal hidden premise.

OCR-object categories

CategoryTypical evidenceSamples
transaction_analysis_reasoningReceipts and invoices: quantities, prices, totals, discounts, taxes, and units.300
data_interpretation_reasoningTables and charts: trends, comparisons, derived values, and visual encodings.300
field_dependency_reasoningForms and certificates: relations among labels, values, and cross-field constraints.300
document_logic_reasoningNotices and policy-like documents: clauses, eligibility, exceptions, and conditions.300
layout_semantics_reasoningPosters, webpages, and infographics: grouping, alignment, legends, and non-adjacent evidence.300

Every combination of one reasoning type and one OCR-object category contains 100 samples.

Dataset

Configs and layout

The dataset provides three independent Hugging Face configs. Each config exposes a train split with 500 annotated samples. The split name reflects the released file structure; it is the complete annotated benchmark subset, not a predefined train/test partition.

The extracted project layout is:

dataset/
β”œβ”€β”€ meta_deductive/
β”‚   β”œβ”€β”€ benchmark_meta_deductive.jsonl
β”‚   └── images/
β”œβ”€β”€ meta_inductive/
β”‚   β”œβ”€β”€ benchmark_meta_inductive.jsonl
β”‚   └── images/
└── meta_abductive/
    β”œβ”€β”€ benchmark_meta_abductive.jsonl
    └── images/

The three subset directories are independent. Image paths in each JSONL file are relative to that subset, and the downloaded/extracted layout mirrors the repository dataset/ directory.

Load from Hugging Face

pip install -U datasets
from datasets import load_dataset

repo_id = "GengxuLi123/OCR-MetaReasoning"
configs = ["meta_deductive", "meta_inductive", "meta_abductive"]

subsets = {
    config: load_dataset(repo_id, config, split="train")
    for config in configs
}

sample = subsets["meta_deductive"][0]
print(sample["question"])
print(sample["answer_type"], sample["metric"])
sample["image"].save("example.png")

For benchmark evaluation, use only image and question as model inputs. Keep answer and reasoning_steps hidden from the model.

Load the local mirror

from datasets import load_dataset

local_files = {
    "meta_deductive": "dataset/meta_deductive/benchmark_meta_deductive.jsonl",
    "meta_inductive": "dataset/meta_inductive/benchmark_meta_inductive.jsonl",
    "meta_abductive": "dataset/meta_abductive/benchmark_meta_abductive.jsonl",
}

local_subsets = {
    config: load_dataset("json", data_files={"train": path}, split="train")
    for config, path in local_files.items()
}

Record schema

FieldTypeDescription
sample_idstringUnique identifier within its subset.
imageimageRelative image path in the source JSONL; decoded as an image feature by datasets.
questionstringQuestion about the text-rich image.
meta_reasoning_typestringOne of the three subset names.
reasoning_taxonomystringOne of the five OCR-object category names.
answer_typestringstring, integer, float, or json.
answerstringCanonical answer used for scoring; structured answers are serialized as JSON.
reasoning_stepssequence of stringsReference reasoning path, with numbered steps beginning at Step1.
metricstringReleased values are exact_match, numeric, or json_f1.

Answer distribution

Answer typeSamplesScoring
String513Normalized exact match
Integer561Normalized numeric match
Float146Normalized numeric match
JSON280JSON micro-F1 over flattened key-value items
Total1,500

Evaluation

Output format

Models are prompted to return numbered reasoning steps followed by a standalone final-answer line:

Step 1: ...
Step 2: ...
...
Final Answer: ...

The released evaluator extracts only the final-answer line for answer scoring and retains the preceding visible process for RPCS evaluation.

MRMS: answer-level correctness

The primary metric is the Meta-Reasoning Macro Score (MRMS):

MRMS = (Acc_deductive + Acc_inductive + Acc_abductive) / 3

Each Acc is the mean per-sample score for one reasoning subset. The macro average prevents performance on one reasoning direction from hiding weakness in another. MRMS is normalized to [0, 1]; paper tables report percentage points.

RPCS: process-level compliance

The Reasoning Process Compliance Score (RPCS) is a separate diagnostic over the visible reasoning process:

RPCS = (capability_match + groundedness + step_completeness + non_hallucination) / 4
CriterionMeaning
capability_matchThe dominant process follows the target deduction, induction, or abduction direction.
groundednessKey claims are tied to image evidence or question constraints.
step_completenessNecessary intermediate reasoning nodes are covered.
non_hallucinationThe process avoids unsupported rules, entities, fields, and values.

RPCS evaluates visible rationales and should not be interpreted as a direct measurement of hidden internal reasoning. The paper's judge protocol removes the standalone final-answer line and withholds the gold answer, predicted answer, and MRMS score.

Reported reference results

The following results are reported in the paper. Scores are percentage points; MRMS is deterministic answer scoring and RPCS is the judge-based process diagnostic.

ModelMRMSRPCS
Gemini-3.1-Pro-Preview89.396.2
GPT-5.4-Medium87.795.2
Doubao-Seed-2.0-Pro86.493.0
Qwen3-VL-235B-A22B-Thinking81.589.6

Data Construction and Quality

The benchmark was constructed from public OCR-oriented seeds covering receipts, charts, forms, policy-like documents, posters, webpages, and infographics. Source collections include CORD, WildReceipt, ChartQA, ChartXiv, FUNSD, DocVQA, InfoVQA, and TextVQA. MLLMs assisted with sample synthesis and controlled image edits; human verification determined whether a candidate was retained.

Three PhD students with MLLM research experience checked each retained item against five requirements: image-grounded primary evidence, at least two required evidence points, a unique or uniquely minimal answer, a label matching the dominant reasoning bottleneck, and a compatible automatic scorer.

Quality checkResult
Complete annotations1,500 / 1,500
Image-question correspondence1,500 / 1,500
Valid answer format and scoring rule1,500 / 1,500
Multi-step reference reasoning1,500 / 1,500
Blinded agreement: reasoning type96.0%
Blinded agreement: OCR-object category92.7%

The final release contains 1,299 unmodified images and 201 edited/reconstructed images. All edited/reconstructed images are in the meta_abductive subset.

Limitations and Responsible Use

  • The benchmark is limited to single-image, text-rich reasoning. It does not evaluate multi-page evidence chains, cross-image aggregation, retrieval-augmented document reasoning, or interactive clarification.
  • The 3 x 5 balance is designed for controlled comparison and does not represent natural task frequencies.
  • MLLM-assisted synthesis and controlled edits may differ from fully natural documents. The reasoning label denotes the dominant bottleneck, although a sample can contain other local operations.
  • The repository declares the MIT license. Some images are derived from public OCR-oriented source collections or controlled variants; users should review the applicable upstream terms before redistributing derived data.

Paper and Code

Citation

@misc{li2026ocrmetareasoningbenchmarkevaluatingmetareasoning,
  title         = {OCR-MetaReasoning Benchmark: Evaluating the Meta-Reasoning Ability of MLLMs in Text-Rich Image Understanding},
  author        = {Gengxu Li and Yuan Wu and Yi Chang},
  year          = {2026},
  eprint        = {2608.30678},
  archivePrefix = {arXiv},
  primaryClass  = {cs.CL},
  url           = {https://arxiv.org/abs/2608.30678}
}

Acknowledgements

This work is supported by the National Key Research and Development Program of China (No. 2023YFF0905400), the National Natural Science Foundation of China (No. U2341229), and the Reform Commission Foundation of Jilin Province (No. 2024C003).

OCR-MetaReasoning: what models read, how they reason, and whether the two stay connected.
OCR-MetaReasoning

Contributors

GengxuLi123

15 commits

GengxuLi123/OCR-MetaReasoning

Dataset

> OCR-MetaReasoning is a controlled benchmark for testing whether multimodal large language models (MLLMs) can organize OCR-grounded visual evidence according to the required reasoning direction, rather than merely copy text from an image.

1

15 commits

2 linked in READMEs

updated Sep 1, 2026

See the code

README

OCR-MetaReasoning Benchmark: Evaluating the Meta-Reasoning Ability of MLLMs in Text-Rich Image Understanding

Gengxu Li1, Yuan Wu1*, Yi Chang1,2,3
1 School of Artificial Intelligence, Jilin University   2 Engineering Research Center of Knowledge-Driven Human-Machine Intelligence, MOE, China
3 International Center of Future Science, Jilin University

Hugging Face dataset arXiv paper Source code MIT License

Overview Β· Task Β· Dataset Β· Evaluation Β· Citation

OCR-MetaReasoning is a controlled benchmark for testing whether multimodal large language models (MLLMs) can organize OCR-grounded visual evidence according to the required reasoning direction, rather than merely copy text from an image.

1,500
verified samples
3
reasoning subsets
3 x 5
balanced taxonomy
15
taxonomy cells
2
evaluation views

Overview

Text-rich images encode meaning through words, tables, charts, fields, layout, constraints, legends, and cross-region correspondences. OCR-MetaReasoning evaluates the ability to use these signals in the reasoning direction required by a question.

Each item contains one text-rich image, one question, a canonical answer, an answer format and scoring rule, and a reference reasoning path. The release is balanced across three meta-reasoning types and five OCR-object categories, enabling controlled analysis of both answer correctness and visible reasoning-process compliance.

OCR-MetaReasoning benchmark construction pipeline

Benchmark construction pipeline. See the paper for the full protocol.

Benchmark at a Glance

PropertyDescription
Primary targetOCR-grounded meta-reasoning in text-rich image understanding
InputOne image and one question
Release size1,500 samples, 500 per subset
Taxonomy3 reasoning types x 5 OCR-object categories; 100 samples per cell
Answer formatsString, integer, floating-point, and JSON
Reference path2-8 numbered reasoning steps; 4.22 steps on average
Image settingSingle image per sample
LanguageEnglish

Task and Taxonomy

Meta-reasoning types

The label is assigned according to the dominant bottleneck needed to recover the target variable. A sample may still contain local arithmetic, lookup, comparison, or OCR operations.

SubsetFormal viewRequired behavior
meta_deductiveH + R -> OExtract a visible rule, clause, threshold, formula, legend, or field dependency; verify a candidate against it; derive the supported conclusion.
meta_inductiveH + O -> RAlign multiple visible examples; infer a stable but unstated pattern; test it and generalize it to a target.
meta_abductiveO + R -> HStart from an observed result, anomaly, or goal; reason backward through constraints; recover the unique or minimal hidden premise.

OCR-object categories

CategoryTypical evidenceSamples
transaction_analysis_reasoningReceipts and invoices: quantities, prices, totals, discounts, taxes, and units.300
data_interpretation_reasoningTables and charts: trends, comparisons, derived values, and visual encodings.300
field_dependency_reasoningForms and certificates: relations among labels, values, and cross-field constraints.300
document_logic_reasoningNotices and policy-like documents: clauses, eligibility, exceptions, and conditions.300
layout_semantics_reasoningPosters, webpages, and infographics: grouping, alignment, legends, and non-adjacent evidence.300

Every combination of one reasoning type and one OCR-object category contains 100 samples.

Dataset

Configs and layout

The dataset provides three independent Hugging Face configs. Each config exposes a train split with 500 annotated samples. The split name reflects the released file structure; it is the complete annotated benchmark subset, not a predefined train/test partition.

The extracted project layout is:

dataset/
β”œβ”€β”€ meta_deductive/
β”‚   β”œβ”€β”€ benchmark_meta_deductive.jsonl
β”‚   └── images/
β”œβ”€β”€ meta_inductive/
β”‚   β”œβ”€β”€ benchmark_meta_inductive.jsonl
β”‚   └── images/
└── meta_abductive/
    β”œβ”€β”€ benchmark_meta_abductive.jsonl
    └── images/

The three subset directories are independent. Image paths in each JSONL file are relative to that subset, and the downloaded/extracted layout mirrors the repository dataset/ directory.

Load from Hugging Face

pip install -U datasets
from datasets import load_dataset

repo_id = "GengxuLi123/OCR-MetaReasoning"
configs = ["meta_deductive", "meta_inductive", "meta_abductive"]

subsets = {
    config: load_dataset(repo_id, config, split="train")
    for config in configs
}

sample = subsets["meta_deductive"][0]
print(sample["question"])
print(sample["answer_type"], sample["metric"])
sample["image"].save("example.png")

For benchmark evaluation, use only image and question as model inputs. Keep answer and reasoning_steps hidden from the model.

Load the local mirror

from datasets import load_dataset

local_files = {
    "meta_deductive": "dataset/meta_deductive/benchmark_meta_deductive.jsonl",
    "meta_inductive": "dataset/meta_inductive/benchmark_meta_inductive.jsonl",
    "meta_abductive": "dataset/meta_abductive/benchmark_meta_abductive.jsonl",
}

local_subsets = {
    config: load_dataset("json", data_files={"train": path}, split="train")
    for config, path in local_files.items()
}

Record schema

FieldTypeDescription
sample_idstringUnique identifier within its subset.
imageimageRelative image path in the source JSONL; decoded as an image feature by datasets.
questionstringQuestion about the text-rich image.
meta_reasoning_typestringOne of the three subset names.
reasoning_taxonomystringOne of the five OCR-object category names.
answer_typestringstring, integer, float, or json.
answerstringCanonical answer used for scoring; structured answers are serialized as JSON.
reasoning_stepssequence of stringsReference reasoning path, with numbered steps beginning at Step1.
metricstringReleased values are exact_match, numeric, or json_f1.

Answer distribution

Answer typeSamplesScoring
String513Normalized exact match
Integer561Normalized numeric match
Float146Normalized numeric match
JSON280JSON micro-F1 over flattened key-value items
Total1,500

Evaluation

Output format

Models are prompted to return numbered reasoning steps followed by a standalone final-answer line:

Step 1: ...
Step 2: ...
...
Final Answer: ...

The released evaluator extracts only the final-answer line for answer scoring and retains the preceding visible process for RPCS evaluation.

MRMS: answer-level correctness

The primary metric is the Meta-Reasoning Macro Score (MRMS):

MRMS = (Acc_deductive + Acc_inductive + Acc_abductive) / 3

Each Acc is the mean per-sample score for one reasoning subset. The macro average prevents performance on one reasoning direction from hiding weakness in another. MRMS is normalized to [0, 1]; paper tables report percentage points.

RPCS: process-level compliance

The Reasoning Process Compliance Score (RPCS) is a separate diagnostic over the visible reasoning process:

RPCS = (capability_match + groundedness + step_completeness + non_hallucination) / 4
CriterionMeaning
capability_matchThe dominant process follows the target deduction, induction, or abduction direction.
groundednessKey claims are tied to image evidence or question constraints.
step_completenessNecessary intermediate reasoning nodes are covered.
non_hallucinationThe process avoids unsupported rules, entities, fields, and values.

RPCS evaluates visible rationales and should not be interpreted as a direct measurement of hidden internal reasoning. The paper's judge protocol removes the standalone final-answer line and withholds the gold answer, predicted answer, and MRMS score.

Reported reference results

The following results are reported in the paper. Scores are percentage points; MRMS is deterministic answer scoring and RPCS is the judge-based process diagnostic.

ModelMRMSRPCS
Gemini-3.1-Pro-Preview89.396.2
GPT-5.4-Medium87.795.2
Doubao-Seed-2.0-Pro86.493.0
Qwen3-VL-235B-A22B-Thinking81.589.6

Data Construction and Quality

The benchmark was constructed from public OCR-oriented seeds covering receipts, charts, forms, policy-like documents, posters, webpages, and infographics. Source collections include CORD, WildReceipt, ChartQA, ChartXiv, FUNSD, DocVQA, InfoVQA, and TextVQA. MLLMs assisted with sample synthesis and controlled image edits; human verification determined whether a candidate was retained.

Three PhD students with MLLM research experience checked each retained item against five requirements: image-grounded primary evidence, at least two required evidence points, a unique or uniquely minimal answer, a label matching the dominant reasoning bottleneck, and a compatible automatic scorer.

Quality checkResult
Complete annotations1,500 / 1,500
Image-question correspondence1,500 / 1,500
Valid answer format and scoring rule1,500 / 1,500
Multi-step reference reasoning1,500 / 1,500
Blinded agreement: reasoning type96.0%
Blinded agreement: OCR-object category92.7%

The final release contains 1,299 unmodified images and 201 edited/reconstructed images. All edited/reconstructed images are in the meta_abductive subset.

Limitations and Responsible Use

  • The benchmark is limited to single-image, text-rich reasoning. It does not evaluate multi-page evidence chains, cross-image aggregation, retrieval-augmented document reasoning, or interactive clarification.
  • The 3 x 5 balance is designed for controlled comparison and does not represent natural task frequencies.
  • MLLM-assisted synthesis and controlled edits may differ from fully natural documents. The reasoning label denotes the dominant bottleneck, although a sample can contain other local operations.
  • The repository declares the MIT license. Some images are derived from public OCR-oriented source collections or controlled variants; users should review the applicable upstream terms before redistributing derived data.

Paper and Code

Citation

@misc{li2026ocrmetareasoningbenchmarkevaluatingmetareasoning,
  title         = {OCR-MetaReasoning Benchmark: Evaluating the Meta-Reasoning Ability of MLLMs in Text-Rich Image Understanding},
  author        = {Gengxu Li and Yuan Wu and Yi Chang},
  year          = {2026},
  eprint        = {2608.30678},
  archivePrefix = {arXiv},
  primaryClass  = {cs.CL},
  url           = {https://arxiv.org/abs/2608.30678}
}

Acknowledgements

This work is supported by the National Key Research and Development Program of China (No. 2023YFF0905400), the National Natural Science Foundation of China (No. U2341229), and the Reform Commission Foundation of Jilin Province (No. 2024C003).

OCR-MetaReasoning: what models read, how they reason, and whether the two stay connected.
OCR-MetaReasoning

Contributors

GengxuLi123

15 commits