SLInterpreter: An Exploratory and Iterative Human-AI Collaborative System for GNN-based Synthetic Lethal Prediction.

Haoran Jiang, Shaohan Shi, Shuhao Zhang, Jie Zheng, Quan Li
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Abstract

Synthetic Lethal (SL) relationships, though rare among the vast array of gene combinations, hold substantial promise for targeted cancer therapy. Despite advancements in AI model accuracy, there is still a significant need among domain experts for interpretive paths and mechanism explorations that align better with domain-specific knowledge, particularly due to the high costs of experimentation. To address this gap, we propose an iterative Human-AI collaborative framework with two key components: 1) HumanEngaged Knowledge Graph Refinement based on Metapath Strategies, which leverages insights from interpretive paths and domain expertise to refine the knowledge graph through metapath strategies with appropriate granularity. 2) Cross-Granularity SL Interpretation Enhancement and Mechanism Analysis, which aids experts in organizing and comparing predictions and interpretive paths across different granularities, uncovering new SL relationships, enhancing result interpretation, and elucidating potential mechanisms inferred by Graph Neural Network (GNN) models. These components cyclically optimize model predictions and mechanism explorations, enhancing expert involvement and intervention to build trust. Facilitated by SLInterpreter, this framework ensures that newly generated interpretive paths increasingly align with domain knowledge and adhere more closely to real-world biological principles through iterative Human-AI collaboration. We evaluate the framework's efficacy through a case study and expert interviews.

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SLInterpreter:基于 GNN 的合成致命性预测的探索性和迭代式人机协作系统。
合成致命(SL)关系虽然在大量基因组合中非常罕见,但却为癌症靶向治疗带来了巨大希望。尽管人工智能模型的准确性有所提高,但领域专家仍然非常需要与特定领域知识更加一致的解释路径和机制探索,特别是由于实验成本高昂。为了弥补这一差距,我们提出了一个迭代式人机协作框架,其中包含两个关键组成部分:1) 基于元路径策略的人类参与的知识图谱完善,利用从解释路径和领域专业知识中获得的洞察力,通过具有适当粒度的元路径策略完善知识图谱。2)跨粒度 SL 解释增强和机制分析,帮助专家组织和比较不同粒度的预测和解释路径,发现新的 SL 关系,增强结果解释,并阐明图神经网络(GNN)模型推断出的潜在机制。这些组件循环优化模型预测和机制探索,加强专家参与和干预以建立信任。在 SLInterpreter 的协助下,该框架确保新生成的解释路径越来越符合领域知识,并通过迭代式人机协作更贴近真实世界的生物学原理。我们通过案例研究和专家访谈来评估该框架的功效。
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