ARC AI powered design co-pilot for reimagining Australian single-family homes

Housing
LP250200778
In Development
Competitive
Australia’s housing delivery system is under significant pressure, with extended residential design timeframes and limited capability to incorporate supply chain, cost, and sustainability considerations early...
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Overview

Australia’s housing delivery system is under significant pressure, with extended residential design timeframes and limited capability to incorporate supply chain, cost, and sustainability considerations early in the design process. This project will develop an AI-powered design co-pilot for Australian single-family homes, aimed at improving the efficiency, consistency, and decision-readiness of early-stage housing design.

The co-pilot integrates generative architectural design, real-time material availability and cost intelligence, and early sustainability assessment within a single, interactive workflow. By enabling iterative design exploration informed by supply constraints and sustainability performance, the system supports more informed decision-making before designs are finalised. Delivered in collaboration with industry and government partners, the project seeks to support faster delivery of cost-effective, high-quality, and environmentally responsible housing outcomes.

Objectives

The objectives of this project are organised under the following broad categories:

  1. Develop an AI-based architectural design engine tailored to Australian single-family housing, capable of producing compliant and buildable design layouts
  2. Enable iterative, user-guided co-design through a human-in-the-loop AI workflow that supports evolving client and project requirements
  3. Improve productivity in early design phases by reducing manual drafting, coordination, and validation effort
  4. Provide material recommendations informed by real-time supply, pricing, and budget constraints, aligned with Australian construction contexts
  5. Integrate early-stage sustainability assessment (including energy performance and embodied carbon) to inform design
    decisions prior to finalisation
  6. Deliver an integrated, deployable platform validated through real-world industry design workflows.

Industry Outcomes

This project aims to deliver the following key industry outcomes:

  1. Reduced early-stage residential design time through AI-assisted layout generation and iteration
  2. Improved cost and schedule certainty by integrating real-time material availability and pricing into design decisions
  3. Earlier incorporation of sustainability considerations, supporting better energy and embodied-carbon performance outcomes
  4. Increased productivity across design and construction teams through automation of routine and validation tasks
  5. Stronger integration of material suppliers into design and procurement workflows
  6. Improved design readiness for regulatory approval, reducing rework during assessment and compliance stages
  7. Enhanced capacity to deliver cost-effective, high-quality, and sustainable housing at scale.

Research Team

Dan Luo

Dan Luo

PhD (Architecture), M.Arch, MSc

University of Queensland

Will Hackney

Will Hackney

BSc (Hons) MSc GAICD MIEAust

CEO SBEnrc and former Chair of Research & Utilisation Committee (RUC)

Hongzhi Yin

Hongzhi Yin

University of Queensland

 

Rocky Tong Chen

Rocky Tong Chen

BSoftEng, PhD

University of Queensland

Joe Gattas

Joe Gattas

University of Queensland

Nic Bao

Nic Bao

RMIT

Shengping Li

Shengping Li

Curtin University


Research Partners

ATLAS
Goverment of Western Australia
The University of Queensland
RMIT University
Curtin University
Queensland Goverment

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