Theme 2: Increasing adoption

Goal: Australian industries are supported to integrate robotics and automation technologies into their operations in ways that benefit Australian workers and communities.

What we’ve heard

Robotics and automation technologies have far-reaching benefits. They will improve productivity and worker safety in many Australian industries, as well as create higher quality work for Australians. We are well positioned to increase the adoption of these technologies across the economy. Sectors that have high costs associated with upgrading business processes and infrastructure can learn from sectors who are already leading in the uptake of these technologies.

Australia is a leader in adopting whole-of-system automation solutions in mining and resources. These solutions have improved worker safety by removing risks in dangerous environments or the need to perform unsafe tasks. In other sectors, greater adoption could help address business problems by filling gaps in skills and labour, scaling production as well as improving sustainability. Stakeholders told us that companies adopting robotics have seen a range of benefits, including:

  • increased labour productivity across industries
  • increased scalability of production and manufacturing capability
  • improved precision and reliability
  • reduced operating costs
  • reduced waste and environmental impact
  • optimised resource management
  • more employment opportunities due to increased scale of operations
  • improved health and safety 
  • increased worker satisfaction.

Despite the benefits of robotics and automation, there are several barriers to adoption. Australian businesses need help to understand the advantages of robotics and automation. It can be difficult for organisations to find information on new technologies, including developments, trends, costs and installation time. Organisations need better visibility of how other Australian companies have adopted robotics and how this has improved their business. 

There are also short-term costs and risks for companies looking to adopt robotics and automation solutions. Many businesses, particularly SMEs, are hesitant to adopt robotics because of a perceived high cost of entry. Existing business processes will need to change to realise the full benefits of adopting new technologies, and costs associated with upgrading infrastructure can be high. This often involves buying new stock, upgrading underpinning infrastructure, updating procedures and investing in training and work health and safety.  

These barriers are compounded by Australian businesses often seeking international off-the-shelf solutions, rather than bespoke Australian solutions that may offer more localised support. Some businesses told us they chose international solutions because they were overwhelmed by the range of robotics and automation solutions available. Some businesses were also deterred by the perceived risks of working with a newer Australian robotics business. The availability and reliability of supporting infrastructure is also important for businesses looking to adopt these technologies. For instance, reliable internet connections and high upload speeds depend on digital infrastructure, which, if inadequate, can be a barrier to successful operations and growth.

For Australian industry, reliable access to strong, trusted domestic and international supply chains for essential materials and components is critical. Complex global supply chains can be vulnerable to disruption, resulting in unpredictable availability and costs for manufacturers. For example, industry has reported wait times of up to 36 months for some industrial robot arms. Without strong, secure and diverse supply chains, Australia faces barriers in maintaining, growing and diversifying our local manufacturing capabilities. These barriers will continue to result in businesses relying on overseas suppliers to import robotics technologies that we could supply ourselves.

Technological advances have helped address some of these barriers. Improvements made to robotics interfaces and usability, particularly in cobotics, have lowered technical barriers to adoption. Similarly, the use of digital twins – the virtual modelling of physical objects and environments – allows adopters to visualise how they can use robotics in their business by affordably simulating robotics in context.   

Through increased adoption of robotics and automation, businesses can develop more productive business models, help build scale and access new markets for products. Sectors that are earlier adopters can also demonstrate to other businesses the potential use cases and commercial benefits from adopting trusted Australian solutions. These collaborative efforts can ultimately attract domestic and foreign investment for robot manufacturers and businesses who are adopting solutions, especially for manufacturers at the seed and startup stages.

Lettuce grown in an autonomously controlled vertical farm.

Lettuce grown in an autonomously controlled vertical farm. Credit: Stacked Farm.

Agriculture: Robotics can help address widespread workforce shortages in the agriculture industry and help maximise yield.  A range of solutions are currently being used, including:

  • autonomous tractors
  • fruit-picking robots
  • drones for crop monitoring and precision 
    agriculture. 

Case Study: Stacked Farm, a Gold Coast-based indoor vertical farm, integrates AI, robotics and machine learning in the agricultural technology sector. The business has automated all stages of the production process on its 2,300 m² farm, from growing crops to packing final produce.

Stacked Farm uses end-to-end automation to address inefficiencies. By stacking their vertical crop beds using automation, the company reduces the physical footprint of the farm and the manual strain on workers. This approach is sustainable, repeatable, scalable and safe.

Construction: Robotics and automation are being used in construction for a variety of applications including autonomous earth-moving; materials handling (robotic cranes and mobile robots); structural joining (assembly); and robotic 3D concrete printing.

These applications are driven by the need to reduce costs and address skills shortages 
while simultaneously improving consistency, predictability, environmental sustainability
and safety.

Case Study: Hadrian X is a fully autonomous bricklaying robot developed by the Australian company FBR Limited. It is designed to build structures quickly and efficiently by converting wall sketches into block data and autonomously placing blocks precisely to minimise handling and product waste. 

Hadrian X can lay up to 300 large blocks or 8,000 standard bricks per hour. That means it can construct a traditional 4‑bedroom, 2-bathroom home in one day, increasing productivity in construction projects. By handling repetitive bricklaying tasks, Hadrian X also reduces the risk of construction workers developing strain injuries and excess waste through precise brick placement.

Bricklaying robot, Hadrian X, autonomously building the walls of a house.

Bricklaying robot, Hadrian X, autonomously building the walls of a house. Credit: FBR Limited. 

MQ-28 Ghost Bat, an uncrewed teaming aircraft.

MQ-28 Ghost Bat, an uncrewed teaming aircraft. Credit: Boeing. 

Defence: Australia is a leader in robotics technologies for defence, including niche systems for land, sea, air and harsh environments. Australia is also at the forefront of combining robotics and AI for defence purposes. 

Our expertise in field robotics means Australia could lead the world in robotics applications for dynamic and harsh environments. These include defence applications, as well as in extreme weather events, mines and disaster zones.

Case Study: Boeing, supported by the Royal Australian Air Force and over 55 Australian companies, has developed and built an uncrewed aircraft called the MQ-28 Ghost Bat. This innovative autonomous aircraft is designed to work closely with crewed aircraft to support a range of missions.

Logistics and transport: Logistics and transport are some of the fastest growing 
applications for mobile robotic systems. Robots are typically used for order fulfilment, warehousing and delivery. They can increase the speed and effectiveness of supply chains and reduce errors and accidents. 

Case Study: Swoop Aero is an Australian-based robotics company. Its end-to-end automated drone logistics platform gives remote and regional communities reliable access to essential healthcare supplies. 

Swoop Aero operates networks in 5 countries including Malawi, Democratic Republic of the Congo and Australia, and has conducted over 27,000 flights to deliver more than 1.4 million items, including vaccines, pharmaceuticals and test kits. The on-demand deliveries have improved many communities’ access to quality healthcare.

A drone being prepared for the delivery of critical supplies.

A drone being prepared for the delivery of critical supplies. Credit: Swoop Aero.

Custom designed robots automating manufacturing processes for carbon fibre wheels.

Custom designed robots automating manufacturing processes for carbon fibre wheels. Credit: Carbon Revolution.

Manufacturing: The manufacturing sector has been using robotics and automation for decades. Robots are used to do repetitive and unsafe work as well as increase production efficiency and quality. 

Case Study: Based in Geelong, Carbon Revolution is an Australian company that manufactures carbon fibre wheels for the global automotive industry. 

The company uses robotics in their manufacturing process to make one-piece carbon fibre wheels that are 40% to 50% lighter than comparable aluminium wheels. These wheels can be used to reduce the weight of electric vehicles, leading to better fuel efficiency.

Health and medical science: Robots are becoming increasingly common in general hospital operations, such as transporting medical supplies and more precise medical tasks such as helping perform surgery. 

Working with AI, robots can help diagnose and interact with patients. In the future, robots will be increasingly used in prosthetics and assistive technologies.

Case Study: Macquarie University Hospital has been an early investor in robotic-assisted technologies. It has a particular focus on using robotic surgery for the management of urological conditions, including prostate cancer. 

The hospital also uses robotics to achieve better patient outcomes in cardiology, neurosurgery, colorectal surgery, orthopaedics and gynaecology. Research shows that certain types of robotic surgery are associated with shorter operating times and faster patient recovery.

Mining and resources: Robots are well established in Australia’s mining and resources sector, where they can perform tasks that are highly repetitive or too dangerous
for humans. Robots are commonly found in:

  • utility line inspections
  • autonomous vehicles including trucks and trains 
  • undersea and underground exploration.

In the future, robotics and automation will become increasingly important in supporting the extraction and processing of critical minerals, and allow for whole of mine automation. 

Case Study: IMDEX is a global mining technology company focused on detecting and extracting minerals safely, quickly and precisely. Its semi-autonomous Blast Dog system gives mining and mineral exploration companies crucial measurement data before they start drilling and extraction. This:

  • increases productivity
  • supports decision-making
  • improves safety
  • reduces environmental impacts in the resources sector.
Blast Dog, a semi-autonomous system providing real-time measurement data to workers on a mining site.

Blast Dog, a semi-autonomous system providing real-time measurement data to workers on a mining site. Credit: IMDEX.

Mission control room at the Australian Space Automation AI and Robotics Control Complex

Mission control room at the Australian Space Automation AI and Robotics Control Complex Credit: SpAARC

Space: Australians rely on space-based technology to transmit essential data for everyday activities like weather forecasts, internet access and online banking. 

Robots in space collect data remotely and go places that humans can’t go. The future of robots in space could see applications such as remote monitoring and maintenance site preparation, material handling, and transport and logistics.

Case Study: The Australian Space Automation AI and Robotics Control Complex (SpAARC) is based in Perth. It is a joint initiative between the Australian Space Agency, Fugro and the Western Australian Government. SpAARC’s infrastructure supports start-ups, small businesses, major international companies and researchers in developing and performing robotic activities for applications in space. These technologies allow monitoring for environmental impact and the operation of remote robotic assets that perform challenging and hazardous work.

SpAARC partners with local companies, harnessing Australia’s world-leading expertise in field robots to overcome the environmental challenges of space. This has created a shared space for companies to test robotic technologies and remotely operate systems for use in space, on Earth and under the sea.

Case study: future growth in manufacturing

Bosch Australia Manufacturing Solutions (BAMS) was established to provide advanced automation and robotic systems to Australian manufacturers. This includes custom machine building, engineering and manufacturing solutions. 

BAMS is helping 3RT convert wood waste into timber with similar physical characteristics to old-growth hardwood. The result is a low-carbon, non-toxic building material that reduces native forest depletion and helps secure global supply chains.

BAMS will supply digital production units and fully automated production cells to help 3RT improve its manufacturing efficiency. The technology can be customised and easily scaled. 

3RT forecasts revenue of $44.5 million over 5 years and expects the project to create new opportunities in their workforce. 

A large grey robot in a warehouse, operated by a staff member with a remote control.
3RT’s robot handling hardwood, converted from renewable growth logs, on the production line built at the BAMS facility. Credit: Bosch Australia Manufacturing Solutions.

Supporting government initiatives

The Australian Government has a number of initiatives to support the right conditions for increased robotics adoption.

  • The Future Made in Australia agenda strengthens Australia's capabilities in key industries, securing Australia's place in a changing global economic and strategic landscape and maximising the economic and industrial benefits of the move to net zero.
  • The National Reconstruction Fund provides funding for projects that diversify and transform Australia’s industry. As part of the $15 billion NRF, the government has announced a target investment level of $1 billion for critical technologies, which may include robotics technologies, and $1 billion for advanced manufacturing. 
  • The Industry Growth Program provides commercialisation and growth advice to innovative start-ups and SMEs with one or more of the 7 government identified priority areas of the Australian economy for the NRF. 
    • This includes providing Industry Partner Organisation grant funding for the ARM Hub, which will provide specialised sectoral advice and expertise to businesses participating in the program and complement the one-on-one Advisory Service of IGP.
  • The Australian Industry Participation policy gives Australian industry a full, fair and reasonable opportunity to compete for supply opportunities. 
  • AusIndustry’s national network of Regional Managers provides local business connections and impartial, trusted guidance tailored to businesses. 
  • The business.gov.au website and contact centre provide continual support, connecting businesses with information from across all levels of government.
  • The Better Connectivity Plan delivers digital infrastructure, improved network connectivity and consumer awareness across regional and rural Australia.
  • The TAFE Technology Fund invests $50 million to modernise IT infrastructure, workshops, laboratories, and other facilities at TAFEs across Australia.

To improve the adoption of robotics in Australia, the strategy has set the following objectives, outcomes and indicators of success.

Objectives

  • Raise awareness of robotics and automation technologies and their benefits for critical industries, like advanced manufacturing, agriculture and mining, to support Australia’s future competitiveness
  • Support and incentivise Australian businesses to adopt local robotics and automation solutions
  • Improve digital and telecommunications infrastructure underpinning robotics automation

Outcomes

  • Increased adoption of robotics and automation throughout the economy that has helped diversify, revitalise and strengthen the competitiveness of Australian industries.
  • A visible and celebrated Australian robotics ecosystem that lets Australians see the benefits of living and working with robotics and automation. 
  • Strengthened digital infrastructure that supports the adoption and use of robotics and automation in regional and remote locations.

Indicators of success

  • Increased robot density.
  • Growth in the number of new applications and uses for robotics.
  • Increased uptake of Australian-made robotics solutions.
  • Improved business perceptions and fewer barriers to adoption.
  • Increased industry awareness of robotics solutions.