Iconic Melbourne F1 Pit Lane Project Embraces Sustainable Australian Mass Timber

In support of the ARC Advance Timber Hub’s aim to increase the uptake of sustainable timber products used in buildings, the Hub acknowledges this iconic Australian exemplar building “Albert Park Pit Building” which is currently being constructed using MASSLAM supplied by Australian Sustainable Hardwoods (ASH).

“From the racetrack to the netball court, MASSLAM is going to be at the heart of the new Albert Park Pit Building,” according to ASH which calls their Australian-made mass timber “perfect for a brief like this because it’s structurally smart, sustainably sourced, and beautifully finished.”.

To learn more please see WoodCentral’s article below and ASH’s LinkedIn Post: https://lnkd.in/p/gkBXqXt7

From Model to Machine: My PhD Journey in Prefabricated Timber Construction

The ARC Advance Timber Hub is super proud of Sasindu Samarawickrama in completing his PhD at the University of Melbourne this year, with his research supporting Hub Project 6.3 “Digital and Physical Systems Design for Optimised Design-to-Delivery of Prefabricated Timber Housing“.

His PhD Thesis is titled: DIGITAL INTEGRATION FRAMEWORK FOR DESIGN-TO-DELIVERY OPTIMISATION IN PREFABRICATED TIMBER SYSTEMS
Sasindu describes it in one sentence as “My PhD explored how we can better connect the digital design of prefabricated timber buildings with the systems used to manufacture them.”

To learn about Sasindu’s PhD journey please read this wonderful recap below.

From Model to Machine: My PhD Journey in Prefabricated Timber Construction

Sasindu Randil Samarawickrama
PhD Researcher, Department of Infrastructure Engineering, The University of Melbourne

Completing my PhD at the University of Melbourne has been a journey that went far beyond writing a thesis. My research was undertaken as part of Project 6.3 of the ARC Advance Timber Hub, within the Manufacturing Innovation research node. The broader project focuses on improving the design-to-delivery process for prefabricated timber construction and supporting more efficient offsite manufacturing in Australia.

My background is in structural engineering, and I have always been interested in how engineering can connect with digital technologies, computational design and automation. Timber particularly interested me because it brings together sustainability, prefabrication, structural engineering and advanced manufacturing. Although timber is one of our oldest construction materials, modern engineered timber systems are creating new possibilities for how buildings can be designed, manufactured and constructed.

As I explored prefabricated timber construction, I became interested in a challenge that is often hidden behind the finished building. A timber component may eventually be produced using highly precise automated machinery, but before reaching the factory floor, its information can pass between architects, engineers, fabricators and manufacturers using different digital systems. These systems do not always communicate efficiently, and this became the main problem I wanted to investigate through my PhD.

Learning from the timber industry

One of the most valuable parts of my research was learning directly from professionals working in the Australian prefabricated timber industry. I conducted industry interviews with architects, structural engineers, fabricators, manufacturers and other professionals involved in timber design and delivery. These conversations helped me understand how information actually moves through a project and where difficulties occur between design, engineering, fabrication and manufacturing.

A recurring issue was that even when detailed architectural and structural models already existed, manufacturers often still needed to modify, restructure or recreate information before it could be used for production. This can create duplicated work, inconsistencies, extra coordination and delays. For me, it highlighted an interesting contradiction: the physical manufacturing process can be highly automated, while parts of the digital process leading to it can remain surprisingly manual.

My research journey also took me outside the university. I had opportunities to visit timber manufacturing and prefabrication facilities, including Timberlink and DWTT, where I could see mass timber, panelised systems and manufacturing processes first-hand. Speaking with industry professionals helped me understand the challenges, while visiting manufacturing facilities made those challenges much more tangible and connected my digital research with what actually happens on the factory floor.

Connecting design and manufacturing

Based on the literature, industry interviews and observations of real workflows, my research mapped current design-to-manufacturing practices and identified where digital information was being lost, recreated or disconnected. I then developed a process model and a digital integration framework aimed at creating a better connection between design, engineering and manufacturing. This directly aligns with Project 6.3’s objectives around identifying integration bottlenecks and improving design-to-manufacturing processes.

The main idea behind my research is simple: information that has already been created should not need to be repeatedly rebuilt whenever a project moves between disciplines. Improving this connection can reduce unnecessary remodelling, support better coordination and create a stronger foundation for more efficient DfMA and future automation. I believe addressing this bottleneck can help prefabricated timber construction become more efficient, reliable and scalable.

Research beyond the thesis

It has also been rewarding to see the research develop beyond the thesis itself. My PhD has resulted in several journal and conference papers, with some already published and others currently under review or revision. The work covers areas including digital integration, software interoperability, DfMA and DfD, design-to-manufacturing workflows, and the perspectives of professionals working within the Australian prefabricated timber industry.

I also had opportunities to present my research at conferences including the World Conference on Timber Engineering (WCTE) and the Infrastructure Engineering Graduate Research Conference (IEGRC). These experiences allowed me to share my research, receive feedback and connect with researchers and industry professionals. My research collaborations also continue through ongoing publications and work with my supervisors, research team and connections developed throughout the PhD.

What excited me about the ARC Advance Timber Hub

What excited me most about being part of the ARC Advance Timber Hub was seeing research connected to real industry challenges. The Hub brought together researchers, universities and industry professionals working across timber design, manufacturing, materials, sustainability and construction. It gave me opportunities to look beyond my own PhD topic, engage with industry, visit manufacturing facilities and understand how different research projects contribute to the wider advancement of timber construction in Australia.

I also valued being part of a larger research community. At the University of Melbourne, our timber research team included Isuri, Harshani, Yi, Sumitha and myself, each working on different timber-related research areas. Although our individual projects were different, we shared ideas, conferences, field visits, research discussions, milestones and plenty of casual outings and celebrations. Those friendships and shared experiences became an important part of my PhD journey.

I was also fortunate to work under the guidance of Prof Priyan Mendis, Dr Tharaka Gunawardena and Dr Nic Bao. Their support, together with the wider Timber Hub community, helped me see my research as one part of a much broader effort to advance timber construction. Looking back, I started my PhD thinking mainly about connecting digital systems, but finished with a much greater appreciation of connecting people, disciplines and ideas as well.

Enjoying the PhD beyond research

My PhD years were also much more than research. I was actively involved in student leadership and volunteering, including serving as President of the Sri Lankan Graduates’ Society at the University of Melbourne. Leading a committee, organising events and working with the wider student community gave me a valuable balance alongside research and helped me develop leadership, communication, teamwork and organisational skills.

I was especially proud that our team received the GSA Community Builder Award 2025, while our “Awurudu Udanaya” event was recognised as Runner-Up for Best Club Event at the UMSU Clubs & Societies Awards 2025. I also contributed to other volunteering and university activities during my PhD. Balancing these experiences with research was sometimes challenging, but I genuinely enjoyed them, and they became an important part of how I experienced university life.

How the PhD shaped my future

My PhD has strongly influenced the kind of engineer I would like to become. It gave me a deeper interest in timber engineering and changed the way I think about structural design. I now tend to look beyond structural analysis alone and think about how something will be detailed, communicated between disciplines, manufactured and eventually constructed.

I am currently working as a Graduate Structural Engineer, where my immediate focus is on developing strong practical experience across different structural systems and projects. In the longer term, I hope to build deeper expertise in timber structural engineering and combine structural design with some of the computational, digital and manufacturing knowledge I developed during my PhD. For me, completing the PhD is not the end of my timber journey, but the foundation for the direction I hope to take in my career.

A timber building I would love to visit

If I could visit any timber building in the world, I would choose Ascent in Milwaukee, USA. As a high-rise mass-timber building, it demonstrates what can be achieved when innovative structural engineering, timber technology, prefabrication and modern construction methods come together. With my research background and long-term interest in timber structural engineering, I would love to experience a project of this scale in person and understand the engineering and construction thinking behind it.

Thank You!

PROJECT UPDATE: Smarter Robots for Timber Building Assembly

The ARC Advance Timber Hub Project “Autonomous Screw-Fixing Robots for CLT Panel Building Assembly” research team, led by Professor Dikai Liu from the University of Technology, Sydney, has successfully advanced robotic technologies for timber building construction through the development and validation of a mobile robotic system designed to assist with structural screw installation in cross-laminated timber (CLT) panel assemblies. Screw fixing is a critical, repetitive, and labour-intensive task in mass timber construction, and this project has focused on delivering practical, site-ready robotic solutions that enhance productivity, safety, and workforce capability, while integrating seamlessly with existing construction workflows.

Over the course of the project, the research team designed, developed and tested a significantly improved mobile robotic platform featuring advanced perception, localisation and control capabilities. The latest prototype incorporates a redesigned screw-handling end-effector and gripper, integrated vision and sensing systems, and a mobile base capable of navigating construction environments. The system supports both fully autonomous operation and human-robot collaborative modes, providing flexibility for a range of site conditions and construction workflows.

In fully autonomous mode, the robot can navigate a site, identify screw locations using digital building models, and independently undertake screw installation. In human-assisted mode, workers can guide the robot using intuitive inputs such as pointing, laser pointers, or verbal instructions, allowing efficient operation in complex or constrained environments where full autonomy may not be practical.

Professor Liu explained, “A key achievement of the project has been the development of robust machine learning and artificial intelligence algorithms that significantly reduce setup and training requirements. The system can learn from a limited number of demonstrations and reliably identify screws and construction features regardless of orientation, enabling deployment by construction personnel without specialist robotics or programming expertise. Advanced AI capabilities have also enabled natural human-robot collaboration, allowing the robot to observe worker activities and anticipate required tools or materials, supporting more seamless teamwork on site.”

Key Outcomes

The project delivered:
  • Development of robust perception and localisation algorithms for identifying screw locations and construction features in unstructured timber construction environments.
  • Development of assisted, guided and autonomous screw installation capabilities for a mobile robotic platform.
  • Design of new end-effectors for screw handling.
  • Integration of advanced vision systems, custom screw-handling end-effectors and operator-assistance interfaces.
  • Development and validation of machine learning approaches for robotic manipulation and human-robot collaboration.
  • Robotic system integration and development.
  • Evaluation of robotic construction workflows with industry partners to assess practicality, safety and deployment readiness.
  • Publication and dissemination of research outcomes through peer-reviewed publications, demonstrations and industry engagement activities.

Industry Engagement and Demonstration

Demonstration at the 22nd Robotics: Science and Systems (RSS) Conference

The project team has actively demonstrated the technology, robustness and usability of the system to industry partners, government representatives, international visitors and media outlets.

Examples of live report demos include to:
  • The Hon Julian Hill MP Assistant Minister
  • BMW Representative Volker Richter
  • U.S. Consul General
  • Safework Australia
  • Visitors from the National Cheng Kung University (NCKU), UTS Workshop
  • Tatsuya Manabe and Kohichi Matsui of Ken Robotech Japan
  • Journalists from South Korea
  • The 22nd Robotics: Science and Systems (RSS) Conference
While the latest evaluations have primarily occurred in controlled environments, earlier iterations of the robotic platform have been tested on active construction sites. The team is continuing to pursue opportunities for expanded field trials to further validate performance under real-world conditions, including dust, glare, changing site layouts and dynamic construction activities.

Importantly, the technologies developed through the project are adaptable beyond screw installation and have potential applications in related construction tasks such as drilling, fastening, material handling and tool delivery.

Industry Impact

This project has generated significant new knowledge in construction robotics, intelligent automation and human-robot collaboration for timber construction. By automating physically demanding and repetitive tasks, the technology has the potential to improve productivity, enhance workplace safety and reduce physical strain on construction workers.

The project demonstrates how targeted, task-specific robotics can deliver practical value to the timber construction sector by prioritising usability, flexibility and collaboration with workers. The outcomes strengthen Australia’s research capability in advanced robotics, artificial intelligence and digital construction technologies, positioning the sector to benefit from future innovations in automated and collaborative construction systems.

Learn More

To learn more, please visit the project page:“Autonomous Screw-Fixing Robots for CLT Panel Building Assembly” and view video demonstrations below.

This project directly supports the ARC Advance Timber Hub’s Manufacturing Innovation Research Node by introducing robotics and automation into timber construction processes. By enabling precise, efficient and scalable installation of prefabricated timber systems, the project improves productivity and accelerates the adoption of advanced manufacturing approaches in Australia’s construction sector.