A platform for research: civil engineering, architecture and urbanism
Modelling the Relationships Between Ground and Buildings Using 3D Architectural Topological Models Utilising Graph Machine Learning
Historically, architects have established different approaches to constructing their buildings on the ground. Classifying the building/ground relationship enables the architect to make informed design decisions during the early design stages. Manual handling of this task is time-consuming, complex as well as prone to errors. This paper leveraged Machine Learning (ML) methods to overcome this difficulty by applying Graph Machine Learning (GML) to 3D topological models, to classify the building and ground relationship. The paper workflow comprised two stages. The first stage involved generating 3D synthetic architectural precedents and created a dataset of their dual graph using Topologic, which is software that computes the spatial relationships between elements. The second stage ran the Deep Graph Convolutional Neural Network (DGCNN) using PyTorch, which is a Python machine learning library developed by Facebook. The paper’s results demonstrate that the system effectively classifies the relationship between building and ground, with the ability to predict a new previously unseen architectural building/ground relationship with high accuracy measurement that aligns with DGCNNs benchmark graphs. The paper concludes by reflecting on the advantages and disadvantages of generating a sizeable synthetic dataset with embedded semantic topological graphs as a formal design method, in addition to outlining future work.
Modelling the Relationships Between Ground and Buildings Using 3D Architectural Topological Models Utilising Graph Machine Learning
Historically, architects have established different approaches to constructing their buildings on the ground. Classifying the building/ground relationship enables the architect to make informed design decisions during the early design stages. Manual handling of this task is time-consuming, complex as well as prone to errors. This paper leveraged Machine Learning (ML) methods to overcome this difficulty by applying Graph Machine Learning (GML) to 3D topological models, to classify the building and ground relationship. The paper workflow comprised two stages. The first stage involved generating 3D synthetic architectural precedents and created a dataset of their dual graph using Topologic, which is software that computes the spatial relationships between elements. The second stage ran the Deep Graph Convolutional Neural Network (DGCNN) using PyTorch, which is a Python machine learning library developed by Facebook. The paper’s results demonstrate that the system effectively classifies the relationship between building and ground, with the ability to predict a new previously unseen architectural building/ground relationship with high accuracy measurement that aligns with DGCNNs benchmark graphs. The paper concludes by reflecting on the advantages and disadvantages of generating a sizeable synthetic dataset with embedded semantic topological graphs as a formal design method, in addition to outlining future work.
Modelling the Relationships Between Ground and Buildings Using 3D Architectural Topological Models Utilising Graph Machine Learning
Digital Innovations in
Mora, Plácido Lizancos (editor) / Viana, David Leite (editor) / Morais, Franklim (editor) / Vieira Vaz, Jorge (editor) / Alymani, Abdulrahman (author) / Jabi, Wassim (author) / Corcoran, Padraig (author)
International Symposium on Formal Methods in Architecture ; 2022 ; Galicia, Spain
2023-08-02
19 pages
Article/Chapter (Book)
Electronic Resource
English
Graph machine learning , 3D graphs topological model , Generative large data , Architectural topology model , Automation building/ground relationship , DGCNN , Prediction machine learning Engineering , Building Construction and Design , Arts , Computer-Aided Engineering (CAD, CAE) and Design , Cities, Countries, Regions
Classifying Building and Ground Relationships Using Unsupervised Graph-Level Representation Learning
Springer Verlag | 2023
|Taylor & Francis Verlag | 2024
|Cause-agnostic bridge damage state identification utilising machine learning
Elsevier | 2024
|