Member Login

Cobots in Action Workshops – 27th November

On 27 November, the Australian Cobotics Centre welcomed over 20 industry attendees for a full-day event focused on practical strategies for implementing collaborative robots. Participants rotated through five interactive workshops, covering topics from foundational concepts and safety to advanced applications like no-code vision quality assurance, human-centred design, and strategic workforce planning. The sessions provided hands-on experience and actionable insights to help businesses integrate cobots effectively and prepare for future workforce needs.

All participants could attend one, two, three, four or all five interactive workshops designed to explore different aspects of collaborative robotics — from technical integration and no-code machine learning to human-centred design and workforce readiness. 

Each workshop was led by Research Programs and tailored for engineers, managers, and professionals looking to deepen their understanding of cobot adoption and innovation.

Workshop 1: Getting Started with Cobots

  • Focus: programming, cobot terminology, safety
  • A foundational introduction to collaborative robots, covering technical concepts, safety, and ethical considerations.

Workshop 2: No-Code Vision Quality Assurance: Train, Test, Deploy with Cobots

  • Focus: Inspection, traceability, ergonomic efficiency
  • A practical session on using no-code machine learning tools and cobots for automated visual inspection.

Workshop 3: Demystifying Cobots – XR, Human Factors, and Planning Tools

  • Focus: Simulation, human factors, planning tools
  • This session will showcase human-centred design strategies and tools for planning cobot integration.

Workshop 4: A Framework for Understanding, Evaluating, and Designing Cobot Solutions

  • Focus: Strategic alignment, design-led evaluation, planning
  • A hands-on session exploring frameworks for designing, evaluating, and implementing cobot solutions.

Workshop 5: Introducing New Technology: Workforce Implications

  • Focus: Change management, skills gaps, workforce engagement
  • A strategic session focused on preparing teams for cobot adoption through work design and future skills planning.

All resources from the workshop can be found here: Cobots in Action Workshop resources 

2025 Annual ACC Awards

ACC Annual Awards 2025: Celebrating Excellence and Collaboration

The Australian Cobotics Centre proudly celebrated the outstanding achievements of our researchers, collaborators, and supporters at the 2025 Annual Symposium. These awards highlight the dedication, creativity, and impact of our community.

Research Achievement

  • Munia Ahamed – For high-quality publications and impactful industry outcomes, including award-winning work on defect management and leading the Cook Medical quality framework validation project.
  • Jagannatha Pyaraka – For multiple first-author papers on human-object interaction and humanoid navigation, alongside significant contributions to industry projects and workshops.

Best Collaborative Research Output

  • InfraBuild Coil Raking Project Team
    Andrew (InfraBuild), Jagannatha Pyaraka, Danial Rizvi, Nadimul Haque, Sheila Sutjipto, Mariadas Roshan, Michelle Dunn, Chris McCarthy, Gavin Paul, Mats Isaksson, John McCormick, Teresa Vidal-Calleja, Jonathan Roberts.
    This team delivered an innovative coil-stack quality monitoring framework through multi-node collaboration, integrating robotics, computer vision, and manufacturing expertise for direct industry impact.

Industry Champion

  • James Dwyer – For exceptional industry engagement and design-led innovation, including a rapid prototype for Cook Medical and tools that advance teaching and collaborative projects.

Industry-Research Collaboration

  • Cook Medical Quality Framework Project Team
    Munia Ahamed, Mariadas Roshan, Nathalie Sick, Michelle Dunn, Matthias Guertler, Lee Clemon, Kettina Materna, Gareth Keen.
    Recognized for developing a systematic methodology to improve quality control in precision manufacturing, with strong multi-node collaboration and direct operational value for industry.

Contribution to Public Debate

  • Jasper Vermeulen – For thought leadership and active engagement in public discussions, enriching societal understanding of ACC-related research.

Emerging Leader

  • Mariadas Roshan – For transforming Program 4 from “surviving” to “thriving” through new research projects, mentoring HDRs, and driving publications—all while meeting every deadline and seeking new opportunities.

Quiet Achievers

  • Valeria Macalupu – For stepping into Project 2.6 with Stryker, supporting HDRs, and initiating new research within her first year.
  • Nisar – For joining an editorial board, publishing a journal paper, and winning two best poster awards at ANZAM.
  • Zongyuan – For developing a robotic battery sanding proof-of-concept with Vaulta and supporting industry engagement for humanoid robotics.

Epic Centre Citizens

  • Müge Belek Fialho Teixeira – For championing HDR experience, promoting collaboration, and supporting cross-university engagement.
  • Mariadas Roshan – For embodying the Centre’s spirit through exceptional research, industry collaboration, and cross-program leadership.

Whoopsie Daisy

  • Jagannatha Pyaraka – For resilience in turning multiple journal rejections into high-impact publications and attracting industry interest through persistence and innovation.

Thought Leader

  • Penny Williams – For shaping conversations on ethical technology and future-of-work, regularly presenting at industry forums and panels.

Centre Supporter

  • Jasper Vermeulen – For being a KPI champion, sharing updates across programs, and fostering community within the Centre.

 

Celebrating Together

To close out another successful year, our team swapped robots for lawn bowls and enjoyed a fun afternoon of barefoot bowls—a perfect way to celebrate collaboration, innovation, and community spirit.

Congratulations to all our winners and thank you to everyone who contributed to making 2025 a year of impact and progress. Here’s to an even bigger and brighter 2026!

QUT Excolo! Grant for Prof Will Browne

Congratulations to Chief Investigator Professor Will Browne, whose project ASTRO has taken out the top spot as the 2025 Champion of QUT’s Excolo! pitching competition Grand Final, securing up to $100,000 in investment funding via the Industry Engagement Fund. ASTRO is an Upper Arm Active Stroke Rehabilitation Orthotic that aims to enhance post-stroke recovery while easing demand on healthcare systems.

QUT Excolo! is a pitching competition delivered by QUT’s Office of Industry Engagement: research teams are matched with a commercialisation coach, and participate in pitching workshops in collaboration with QUT Entrepreneurship.

Read more: QUT – News

52nd Computers and Industrial Engineering Conference (CIE52)

UTS PhD researcher, Munia Ahamed presented her paper at the 52nd International Conference on Computers and Industrial Engineering (CIE52) on 29th October.

Her paper, entitled A Computational Approach to Quality Dimension Implementation in Industry 4.0:
Integrating DMAIC with Statistical Analysis for Enhanced Defect Management was co-authored by: Nathalie Sick, Matthias Guertler, Mickey Clemon and Mariadas Capsran Roshan.

The paper focused on developing a computational approach for implementing Quality Dimensions in Industry 4.0, integrating DMAIC with statistical modelling to strengthen defect management decision-making.

ARC Discovery Project successes

We’re excited to celebrate three ARC Discovery Project successes! These groundbreaking projects will advance robotics in deformable and unstructured environments and co-design assistive technologies that promote independence and dignity.

Congratulations to all our researchers for securing over $2.1M in funding!

  • Navigating Deformable Spaces – How to Localise in a Shifting World. Led by Prof Will Browne, Prof Cameron Brown, Dr Maryam Haghighat, and Prof Ross Crawford (QUT), this project will develop novel methods for robotic systems to operate safely and precisely in deformable environments—from disaster recovery zones to robotic-assisted surgery. Funding: $755,357
  • Supporting Independent Living with “Seeing” Technologies. Led by A/Prof Laurianne Sitbon, Dr Jessica Korte, A/Prof Jared Donovan, and Prof Glenda Caldwell (QUT), this project will co-design next-generation assistive technologies with people with cognitive disabilities, promoting independence, dignity, and privacy. Funding: $747,855
  • Robotic Navigation in Unstructured Environments. Led by Prof Teresa Vidal Calleja and team (UTS), this project will advance robotic perception and navigation in dynamic, unknown environments, enabling autonomous systems to respond to challenges like crowds or fire spread. Funding: $686,776

 

Read the full project list: Discovery Projects 2026 | Australian Research Council

ARTICLE: Making Cobots Ready-to-Hand: A Compliance Perspective 

Written by Katia Bourahmoune, UTS & Acting Co-Lead Quality Assurance and Compliance program

Heidegger describes an equipment as ready-to-hand when it disappears into practice, when its use is so seamlessly integrated that it ceases to be an object of thought and becomes instead a transparent extension of action. A hammer is not noticed as a hammer when it drives a nail effectively; it is only when it splinters or slips that it becomes it becomes an object of scrutiny, unready-to-hand, with its use questioned. In modern manufacturing, collaborative robots (cobots) occupy an uneasy position between these two states. They promise repeatability, precision, and tireless monitoring, yet they are undeniably still machines to be supervised, audited, and monitored. In compliance and quality assurance, this human oversight of machines is necessary. Afterall, compliance remains the most human part of the hyper-mechanised modern manufacturing process. This is particularly evident in heavily regulated industries like medical device manufacturing, aviation and defence, where errors are measured not only in costs but in lives and national security.

For cobots to become ready-to-hand, they must be genuinely collaborative: partners in the task rather than peripheral machinery. While collaboration in the context of human-robot interaction is hard to define and evolves as the field advances, it is useful to frame it within the level on interaction between a human and a robot. These levels range from co-existence (shared space, individual actions) to co-operation (shared space, human-guided actions), to collaboration (shared space, joint bi-directional actions). Collaboration through this lens implies shared situational awareness, legible intent, and adaptive action: the robot exposes what it “perceives” (vision, force,…), why it is acting (constraints, goals,…), and how humans can adapt, override, or teach. Such interfaces must preserve human agency and skilled technique while reducing ergonomic and cognitive load. In practice, this means adaptive assistance that yields to expert touch, explanations of proposed actions, and workflows that keep responsibility distributed rather than displaced. When collaboration works this way, it does more than improve throughput; it establishes the preconditions for assurance to be intrinsic rather than supervisory. On this foundation, compliance becomes by design: assurance embedded in action, rather than appended after it. Cobots can inspect as they assemble, verify as they position, and generate audit-grade evidence as a by-product of normal operation. Cobots can extend human judgment through continuous monitoring, allowing human inspectors to concentrate on exceptions, interpretation, and continuous improvement.

This human-robot collaboration fundamentally hinges on trust. In production, workers must believe that a cobot will act predictably and safely; in quality assurance, they must also believe that the cobot’s monitoring and record-keeping are accurate and transparent. Research on automation psychology shows the dangers of both extremes: over-trust leads to blind reliance, while under-trust leads to redundancy and disuse. The literature points to several ways for calibrated trust including reliable and predictable performance, timely feedback, options for human override, transparent explanations of decisions, and auditable records tied to actions, and here we emphasise the compliance-critical elements of legibility, traceability, and contestability. Trust, then, is not an abstract sentiment but a design commitment: when cobots make their intentions legible and their decisions contestable, human operators retain meaningful agency in the loop. This keeps human judgment engaged precisely where it adds the most value. In regulated settings, this turns assurance into a shared practice rather than a supervisory afterthought, and it reorients collaboration toward preserving and amplifying human skill rather than displacing it.

Concerns are often raised that automation “deskills” human labour, relegating workers to passive supervision. Cobots designed for compliance offer the opposite prospect. By taking on repetitive inspection tasks, cobots free human expertise for higher-order judgment: interpreting anomalies, adapting processes, and innovating in response to unforeseen conditions. The skill does not vanish; it is re-centred where it matters most. In this way, cobots not only maintain but actively sustain skill, ensuring that human judgment remains the decisive element in compliance.

The Compliance and Quality Assurance program at the Australian Cobotics Centre aims to develop practical tools that specify, monitor and evaluate human–robot collaboration using multi-modality sensing and AI for assessing compliance.

When cobots are truly ready-to-hand, i.e. useful, trustworthy, and engineered for compliance-by-design, they cease to be mere machines and become true collaborators that elevate human skill while making quality an intrinsic property of every human–robot action.

 

Further reading:  

Heidegger, M. (1962). Being and time. In J. Macquarrie, & E. Robinson, (Trans.), New York, NY: Harper & Row. 

Guertler, M., Tomidei, L., Sick, N., Carmichael, M., Paul, G., Wambsganss, A., … & Hussain, S. (2023). When is a robot a cobot? Moving beyond manufacturing and arm-based cobot manipulators. Proceedings of the Design Society, 3, 3889-3898. https://doi.org/10.1017/pds.2023.390  

Hancock, P. A., Billings, D. R., & Schaefer, K. E. (2011). A meta-analysis of factors affecting trust in human-robot interaction. Human Factors, 53(5), 517–527.  https://doi.org/10.1177/0018720811417254  

Carmichael, M. (2023). Can we Unlock the Potential of Collaborative Robots?. Australian Cobotics Centre. https://www.australiancobotics.org/articles/can-we-unlock-the-potential-of-collaborative-robots/  

 

 

PhD Research Spotlight: Zongyuan Zhang Tackles Contact Tasks with Mobile Robots

PhD Research Spotlight: Zongyuan Zhang Tackles Contact Tasks with Mobile Robots

As part of the Biomimic Cobots program within the Australian Cobotics Centre, PhD researcher Zongyuan Zhang is leading a project that addresses a key challenge in manufacturing: enabling mobile robots to perform high-precision contact tasks, such as grinding, polishing, and welding, on large, arbitrarily placed workpieces in factory environments.

Zongyuan brings a diverse background in robotics to this work. He holds an M.Sc. in Robotics from the University of Birmingham, UK, where he focused on applying deep learning to manipulator force control. His experience spans control system design, mechanical structure design, and participation in a range of innovative robotics projects—including underwater photography robots, driverless racing cars, exoskeleton mechanical arms, dual-rotor aircraft, and remote-control robotic arms—some of which are now undergoing commercialisation.

His PhD project, Contact Task Execution by Robot with Non-Rigid Fixation, investigates how robots with non-rigidly fixed chassis can maintain the accuracy, stability, and adaptability required for industrial contact tasks. These tasks typically demand hybrid force/position control and high contact forces, which are complicated by the mobility and flexibility of the robot’s base.

This research contributes to the Biomimic Cobots program’s goal of developing collaborative robots that mimic human sensing, learning, and manipulation skills. It explores:

  • How a robot mimics human control to execute contact tasks like sanding and grinding.
  • How augmented mobility enables task execution in large, unconstrained spaces.
  • How minimal task-specific programming can be used to adapt to new workpieces and environments.

Zongyuan, based at QUT, is supervised by Professor Jonathan Roberts, Professor Will Browne, and Dr Chris Lehnert, and is working onsite at ARM Hub alongside industry partner, Vaulta. The project with industrial partners concerns the efficient and accurate removal of surface oxides from metallic materials, thereby enabling tighter bonding between metal components. This embedded collaboration ensures his research is conducted in real production environments and remains grounded in the practical needs of Australian manufacturers.

Recent milestones include the:

  • Design and deployment a framework for performing industrial sanding tasks using collaborative robots.
  • Utilisation of sound as a multimodal input to improve the robustness of the sanding process and enhance the cost-efficiency of the robotic system.
  • Exploration of how humanoid robots can achieve high-precision performance in contact tasks.

Check out our website for the latest on his project: Project 1.1 – Contact task execution by robot with non-rigid fixation » Australian Cobotics Centre | ARC funded ITTC for Collaborative Robotics in Advanced Manufacturing

Zongyuan pictured (centre) with ARM Hub’s Technology Lead, Dr Troy Cordie (top picture, L) and Queensland’s Deputy Premier, Minister for State Development, Infrastructure and Planning and Minister for Industrial Relations, Jarrod Bleijie MP. (R)

Celebrating the Robotics & Advanced Manufacturing Centre at TAFE Queensland!

On 17th June 2025, our Centre was part of the official opening of the Robotics and Advanced Manufacturing Centre (RAMC) at TAFE Queensland Eagle Farm campus. This 5-Star Green Star-rated facility was officially launched by The Honourable Ros Bates MP, Minister for Finance, Trade, Employment and Training and included Minister Tim Nicholls MP and a talk from ARM Hub‘s Technical Lead, Dr Troy Cordie

As part of the opening, TAFE opened their doors for an Industry Open Day. Centre Director Prof Jonathan Roberts, Centre Manager Merryn Ballantyne, and PhD researcher Jacqueline Greentree spoke with over 150 attendees about our exciting initiatives and upcoming events.

The Open Day also included stands and demonstrations from Mynt Energy Tech, ARM Hub, Aptella, Infinispark, and HFS Design (formerly Micromelon Engineering) providing a showcase of Queensland’s collaborative innovation ecosystem.

Thank you to TAFE Queensland for inviting us to be part of the event and to Benaiah Fenby and team for organising such a wonderful day. The new TAFE Centre is a fantastic step forward in preparing Queensland’s workforce for the future of work in emerging and sustainable industries. And, as one of our Centre’s industry partners, we look forward to continuing to work together to ensure manufacturers are equipped for the next generation of advanced manufacturing.

📸 TAFE Queensland, Merryn Ballantyne, Jonathan RobertsNo alternative text description for this image