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SEED: A Structured Design Grammar Framework for AI Experimental Science

The SEED framework represents experimental conditions through typed participant-flow diagrams, supporting formal description of experimental designs, structural novelty assessment, and candidate solution generation, addressing the reproducibility and auditability issues in human-AI collaboration and multi-agent experiments.

实验设计人机协作多智能体可复现性形式化方法实验语法AI治理
Published 2026-05-18 09:59Recent activity 2026-05-19 11:50Estimated read 5 min
SEED: A Structured Design Grammar Framework for AI Experimental Science
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Section 01

[Introduction] SEED Framework: A Structured Design Grammar for AI Experimental Science

SEED (Structural Encoding for Experimental Discovery) is a structured design grammar framework for AI experimental science, aiming to address the reproducibility and auditability issues in human-AI collaboration and multi-agent experiments. Its core innovation is the typed participant-flow diagram representation, which supports formal description of experimental designs, structural novelty assessment, and candidate solution generation, and has been validated for feasibility in medical triage scenarios.

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Section 02

New Challenges in AI Experimental Science and Limitations of Natural Language Description

AI has transformed from a passive tool to an active participant, deeply integrating into human-AI collaboration and multi-agent systems. Traditional single-metric evaluation struggles to handle complex interaction scenarios. Current experiments rely on natural language descriptions, which have three major limitations: difficulty in cross-study comparison, implicit key decisions leading to reuse challenges, and inability to support systematic auditing in ethically sensitive fields.

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Section 03

Core of the SEED Framework: Typed Participant-Flow Diagrams

SEED abstracts experiments into a graph structure composed of participants (humans, AI, hybrids) and interaction flows (information/task/control transfer), supplemented by a rich type system: participant types include human experts, AI assistants, etc., and flow types include task delegation, result review, etc., enabling formalization and computability of experimental designs.

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Section 04

Analysis of SEED's Three Core Functions

  1. Formal Description: Encode experimental conditions into structured interaction graphs to eliminate natural language ambiguity; 2. Novelty Assessment: Compare with existing designs to automatically identify innovative structures; 3. Candidate Generation: Automatically generate design solutions under constraints to explore the vast design space.
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Section 05

Empirical Evidence in Medical Triage Scenarios: SEED Improves Experimental Design Quality

In medical triage tasks, designs generated under SEED's guidance are clearer than "graph-blind" designs, can identify key control gaps, potential failure modes, and necessary review mechanisms, verifying its feasibility as a design assistance tool.

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Section 06

Deep Tensions in AI Experiment Governance Triggered by SEED

Three tensions are discussed: 1. Balance between novelty and reproducibility; 2. Contradiction between standardized representation and exploration of diversity; 3. New issues of accountability and transparency brought by formal description.

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Section 07

Methodological Significance and Future Outlook of SEED

SEED promotes the evolution of experimental science methodologies, providing new paths for reproducibility and auditability; in the future, it will facilitate the paradigm shift towards human-AI collaborative design and automated execution, while simultaneously advancing technical and governance considerations.