Structured knowledge-based causal discovery: Agentic streams of thought

Causal discovery—the systematic identification of cause-and-effect relationships among variables—forms the cornerstone of causal inference. Its application enables reliable predictions and targeted interventions across complex systems, from medical treatments to engineering processes. Traditional statistical causal discovery methods face significant limitations with high-dimensional data structures, while existing knowledge-based approaches rely on single large-scale models that raise fundamental concerns about computational efficiency and result reliability. The Agentic Stream of Thought (ASoT) addresses these limitations through a novel architecture that orchestrates multiple smaller open-source language models. The framework integrates hierarchical query decomposition with Model Compiler refinement, while dual-stream thought processing enables balanced analysis through parallel evaluation of competing hypotheses. Dedicated Direction and Transitive Processors enhance reasoning by resolving bidirectional relationships and refining transitive pathways. A two-tiered quality gate system and complementary consensus mechanisms—Delphi protocol and Ensemble Synthesis Method—iteratively refine outputs while mitigating hallucination risks. Empirical evaluations across causal discovery benchmarks and question-answering tasks demonstrate that this approach matches or exceeds state-of-the-art models while enabling local deployment, establishing that sophisticated orchestration of smaller models provides a more sustainable path than increasing model scale alone. • ASoT orchestrates open LLMs for causal discovery through hierarchical analysis. • Consensus mechanisms enhance discovery through multi-model voting and synthesis. • Dual-stream processing examines opposing hypotheses for balanced causal reasoning. • Quality gates reduce biases through iterative refinement and feedback loops. • FlowBalancer enables privacy-preserving local knowledge integration.

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Publication Details

Journal
Information Processing & Management
Published
2025-05-09
DOI
https://doi.org/10.1016/j.ipm.2025.104202
Citations
5
Primary Topic
Bayesian Modeling and Causal Inference
Type
article
Field-Weighted Citation Impact
12.40

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article

Structured knowledge-based causal discovery: Agentic streams of thought

Jörg Franke, Nils Thielen, Sven Meier, Felix Mahr et al.
5 citations
Information Processing & Management
Bayesian Modeling and Causal Inference
12.40
article

Structured knowledge-based causal discovery: Agentic streams of thought

Jörg Franke, Nils Thielen, Sven Meier, Felix Mahr, Florian Risch, Pratik Narendra Raut
article en
5 citations

Abstract

Causal discovery—the systematic identification of cause-and-effect relationships among variables—forms the cornerstone of causal inference. Its application enables reliable predictions and targeted interventions across complex systems, from medical treatments to engineering processes. Traditional statistical causal discovery methods face significant limitations with high-dimensional data structures, while existing knowledge-based approaches rely on single large-scale models that raise fundamental concerns about computational efficiency and result reliability. The Agentic Stream of Thought (ASoT) addresses these limitations through a novel architecture that orchestrates multiple smaller open-source language models. The framework integrates hierarchical query decomposition with Model Compiler refinement, while dual-stream thought processing enables balanced analysis through parallel evaluation of competing hypotheses. Dedicated Direction and Transitive Processors enhance reasoning by resolving bidirectional relationships and refining transitive pathways. A two-tiered quality gate system and complementary consensus mechanisms—Delphi protocol and Ensemble Synthesis Method—iteratively refine outputs while mitigating hallucination risks. Empirical evaluations across causal discovery benchmarks and question-answering tasks demonstrate that this approach matches or exceeds state-of-the-art models while enabling local deployment, establishing that sophisticated orchestration of smaller models provides a more sustainable path than increasing model scale alone. • ASoT orchestrates open LLMs for causal discovery through hierarchical analysis. • Consensus mechanisms enhance discovery through multi-model voting and synthesis. • Dual-stream processing examines opposing hypotheses for balanced causal reasoning. • Quality gates reduce biases through iterative refinement and feedback loops. • FlowBalancer enables privacy-preserving local knowledge integration.

Information Processing & ManagementVol. 62(5)
Friedrich-Alexander-Universität Erlangen-Nürnberg (DE), Institute of Automation (DE)
Bayerisches Staatsministerium für Wirtschaft, Infrastruktur, Verkehr und Technologie, Bayerisches Staatsministerium für Wirtschaft und Medien, Energie und Technologie
Reduced inequalities
Openalex Percentile: Top 2%
Bayesian Modeling and Causal Inference
12.40
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