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📄 Abstract
Abstract: Relational multi-table data is common in domains such as e-commerce,
healthcare, and scientific research, and can be naturally represented as
heterogeneous temporal graphs with multi-modal node attributes. Existing graph
neural networks (GNNs) rely on schema-specific feature encoders, requiring
separate modules for each node type and feature column, which hinders
scalability and parameter sharing. We introduce RELATE (Relational Encoder for
Latent Aggregation of Typed Entities), a schema-agnostic, plug-and-play feature
encoder that can be used with any general purpose GNN. RELATE employs shared
modality-specific encoders for categorical, numerical, textual, and temporal
attributes, followed by a Perceiver-style cross-attention module that
aggregates features into a fixed-size, permutation-invariant node
representation. We evaluate RELATE on ReLGNN and HGT in the RelBench benchmark,
where it achieves performance within 3% of schema-specific encoders while
reducing parameter counts by up to 5x. This design supports varying schemas and
enables multi-dataset pretraining for general-purpose GNNs, paving the way
toward foundation models for relational graph data.
Authors (7)
Joe Meyer
Divyansha Lachi
Mahmoud Mohammadi
Roshan Reddy Upendra
Eva L. Dyer
Mark Li
+1 more
Submitted
October 22, 2025
Key Contributions
RELATE introduces a schema-agnostic, plug-and-play feature encoder for GNNs that handles multimodal relational data efficiently. By using modality-specific encoders and a Perceiver-style cross-attention module, it creates a fixed-size, permutation-invariant node representation, significantly reducing parameters and improving scalability compared to schema-specific encoders.
Business Value
Enables more efficient and scalable analysis of complex relational datasets across various industries, leading to better insights and predictions in areas like customer behavior, disease progression, and scientific discovery.