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[47] Developing surrogate models for the early-stage design of residential blocks using graph neural networks

EBSCO – Screened Energy Estimation & Digital Twins 2025

Paper Description extracted from PDF · abstract · 133 words

Building simulation based on physical modeling is commonly adopted for performance prediction, but the high time costs hinder its application in the early design stage of buildings. Data-driven surrogate models have been proposed as a means to replicate computationally expensive simulation models. However, existing surrogate models for sustainable residential block design are limited in scope, focusing either on individual buildings or on specific cases within multi-block projects. This study leverages graph neural networks to develop optimal surrogate models incorporating inter-building effects to predict multiple indicators of sustainable performance for residential blocks at a region level. A graph schema is prop osed to represent the general geometric features and relations among buildings in residential bloc k design. A regional dataset is generated for model training and testing, using real residential zones in Hong Kong.

AuthorsWu, Zhaoji and Li, Mingkai and Liu, Wenli and Cheng, Jack C. P. and Wang, Zhe and Kwok, Helen H. L. and Huang, Cong and Hou, Fangli
Year2025
VenueBuilding Simulation: An International Journal
DOI10.1007/s12273-025-1237-7
Source DatabaseEBSCO (Springer Nature Journals)
Bridge-to-GNNCategory A
GNN ArchitectureGAT (heuristic — verify)
Graph EncodingNot yet extracted from PDF
AEC TaskNot yet extracted from PDF
CohortMature Applications (2024–2026)

Extracted Methodology heuristic — verify before citing

Dataset Size962 graphs; 26 buildings (heuristic — verify)
Implementation FrameworkPyTorch Geometric (PyG), PyTorch (heuristic — verify)
Key Hyperparameters2000 epochs (heuristic — verify)
Primary MetricAccuracy (heuristic — verify)
Primary Value11.79% (heuristic — verify)
Key Findinggraph schema describing general residential block design, which supports various input structures of the GNN-based surrogate models and represents inter-building effects (heuristic — verify)
Quality Assessment1/6 · rigor: Low ·
Baseline: ✓ (heuristic — verify)

Detected Technical Stack auto-detected from PDF · regex catalogue match

GNN architectures detectedGAT (Graph Attention) · T-GCN / Temporal GCN · Knowledge Graph Embedding (TransE/RotatE/DistMult) · GCN
Frameworks / librariesPyTorch Geometric (PyG) · PyTorch · EnergyPlus
Hyperparameters (regex-detected)epochs=2000
Dataset stats found26 buildings · 962 graphs
Reported metrics + valuesAccuracy: 11.79% · Accuracy: 12.9% · Accuracy: 10.2% · RMSE: 11.79% · RMSE: 12.05% · RMSE: 0.5% · RMSE: 3.2% · RMSE: 21.9%
Quality (heuristic, 6-flag)1/6 · rigor: Low
Code/Data: —Benchmark: —Baseline: ✓CV/Split: —Ablation: —Reproducible: —

Lineage Families

energy-digital-twin

Enabled By / Precursors

[59]

Extended By

None in corpus

Infrastructure Dependencies

BIM PyTorch Geometric (PyG) (detected from PDF) PyTorch (detected from PDF) EnergyPlus (detected from PDF)

Research Frontier Tags

explicit-gnn frontier-2025+

Part of the GML/GNN in AEC Systematic Review (PRISMA 2020) — 112 papers, 2020–2026