Robert Pataki Award for Healthcare Design

SCOOT: Open Source Power Assist – 2025 Robert Pataki Award for Healthcare Design

NAMED IN HONOUR OF ROBERT PATAKI OAM, RECIPIENT OF THE 2022 AUSTRALIAN DESIGN PRIZE, LIFE FELLOW OF THE DESIGN INSTITUTE OF AUSTRALIA AND INDUSTRIAL DESIGN PIONEER, THE ROBERT PATAKI AWARD FOR HEALTHCARE DESIGN AIMS TO INSPIRE, RECOGNISE AND SUPPORT DESIGN SOLUTIONS THAT HAVE THE POTENTIAL TO IMPROVE THE LIVES OF PEOPLE LIVING OR WORKING WITHIN THE HEALTHCARE SYSTEM.

Driven by curiosity, empathy, and hands-on problem-solving, designer Edward (Teddy) Meredith created SCOOT – an open-source power-assist system for manual wheelchairs, built to make movement safer, simpler, and more reliable.

He’s a designer who thrives on rolling up his sleeves, testing ideas in the workshop, and figuring out what actually works for people.

At its core, SCOOT is user-centred. From its off-the-shelf motors to its affordable, safe, and repairable design, every decision is shaped by the needs of wheelchair users.

We spoke with Teddy Meredith, a recent QUT Industrial Design graduate, to learn hours of iteration and trial and error turned a simple idea and a toolbox into a device that could redefine mobility and independence for wheelchair users worldwide.

SCOOT demonstrates that design works best when made with, and for, the people who rely on it. Keep reading to explore how Teddy’s hands-on approach makes it possible. Now, this recognition is propelling him toward a successful launch.

Edward (Teddy) Meredith. Image: Supplied


Addressing challenges with practical creativity

SCOOT is designed to attach to a manual wheelchair and help propel the user forward. Compact, affordable, and easy to maintain, it’s built from off-the-shelf electric scooter parts and powered by standard Ryobi drill batteries. This approach brings mobility support within reach for more people.

Around one per cent of the world’s population uses a wheelchair, with more than 200,000 in Australia alone. Existing power-assist systems are often expensive, difficult to maintain, and rely on overseas suppliers, with delays through NDIS or prescription approvals adding further barriers.

“[Power-assist systems] are great, but they’re really expensive, and you have to get them prescribed,” Teddy explained.

“If it breaks, you’re usually left with no recourse. The manufacturers aren’t often based in Australia. They’re in Europe or America.”

SCOOT is set to solve these problems with readily available components. 

“If the motor goes bad, you can just hop down to a scooter shop and replace it. The parts are everywhere,” he said. 

By designing for accessibility, repairability, and safety, and integrating features like safe-stop,  SCOOT directly addresses everyday frustrations, proving how thoughtful design can have a genuine impact on independence.

SCOOT demo stand. Image: Supplied


From passion to prototype

Circularity has always been at the heart of Teddy’s approach. As a kid, he loved restoring bikes and cars. Later, working as a tradesman in air conditioning, he learned the value of fixing, maintaining, and extending the life of products. Even repairing his own t-shirts with holes followed the same principle: make things last rather than throw them away.

“I hate the idea of one part breaking and the whole unit being thrown out,” he explained. 

“I wanted the design to last, to keep it in use, and to fit a circular economy mindset. That’s partly why I chose off-the-shelf motors and RYOBI batteries. Users can source parts themselves, they don’t need to go through me or SCOOT. They could go to a scooter or bike shop, people have seen these components before. The goal was to keep it serviceable, not disposable.”

Ultimately, Teddy’s passion for people, sustainability, and long-lasting design is what defines SCOOT. It’s built to endure, evolve, and empower.

SCOOT direct behind. Image: Supplied


Open-source design for global accessibility

Teddy designed SCOOT to be open-source and user-focused, guided by a simple question: how would I want to receive a product myself?

“I’d want to be able to fix it,” he explained. “I’m really into cars and technology, and the right-to-repair movement is a big deal for me. So if I’m designing something like this, those values have to be integrated from the start.”

The design process was shaped by hands-on feedback from wheelchair users.

“It’s about understanding how the user is going to use this today, but also how they’ll use it over time,” he said. “I want someone to have a ten-year-old unit, and if the motor goes bad, they can just replace it and keep going.”

Teddy also sees the broader social impact.

“The real difference comes when a country doesn’t have a social safety net… It can be the difference between going into town and socialising independently, versus needing help for day-to-day life.”

While wheelchair users in Australia already benefit from NDIS support, many still face delays and high costs. SCOOT aims to keep mobility affordable and immediately accessible.

“If I can keep the cost low, users don’t need prescriptions or approvals. It fits within NDIS allowances, and for those outside the system, some users would rather pay to secure a reliable unit themselves than wait for approval.”

By keeping SCOOT open-source and built from readily available components, Teddy has created a repairable, maintainable, and scalable solution, providing wheelchair users everywhere with practical, affordable mobility they can trust.

SCOOT control. Image: Supplied


Hands-on experimentation

With a mix of creativity, technical skill, and relentless hands-on experimentation, Teddy’s approach turns problem-solving into a playful challenge, with a touch of fun along the way.

“I actually loved the process,” he said. “I’m a former tradesman and I’m really good with tools, so I had access to the workshop at QUT. I just went for it,” Teddy explained. 

To test the system, he even built a wooden go-kart powered by the same motors and batteries, reaching close to 30 km/h.

“It was terrifying and brilliant at the same time,” he laughed.

“Everything was driven by making sure the product would work. I’d do hill testing, directional changes, and work on controlling the wheel with a chip.”

I hotwired the motor controller with an Arduino and coded it to limit the top speed. It was like riding around campus with a laptop on my lap, monitoring acceleration and speed while not crashing myself,” Teddy continued.

This hands-on experimentation guided every design decision. Components were chosen for accessibility and durability, ensuring users could maintain and repair their units independently.

“Dozens of hours, lots of testing, learning by doing, trial and error. Just figuring it out along the way,” Teddy explained, reflecting on his semester-long design process at QUT.

“Fail fast, fail often, that’s something one of my professors, Dan Cook, always said. Sometimes the quickest way to find out what works is by discovering all the ways that don’t. You can get stuck in indecision, wondering which idea is best, but the key is to just make it, test it, and tweak it. That’s the iterative design process: build, observe, refine, and repeat until it works,” he added.

SCOOT. Image: Supplied


Mentorship and the road to market

At this stage, SCOOT exists as a working prototype, ready for user testing, but not yet market-ready. Teddy has mastered prototyping and hands-on design, but bringing a product to market requires a different skill set.

“I’ve never started a company or had to bring a product to market,” he admits.

 “I can make something work, but I don’t know how to set up manufacturing, get a custom circuit board made, or make it economical.”

“I could figure it out myself through more trial and error,” Teddy said, “but the best trial and error is learning from someone else. It saves all the time and heartache.”

Receiving the Robert Pataki Award for Healthcare Design will help Teddy take SCOOT to the next stage, guide him through refining SCOOT for market readiness and navigating the steps for a successful launch. With mentorship, financial support, and guidance, the project is poised to move from prototype to a healthcare solution that could benefit users worldwide.

“It makes it feel like I can actually bring it to market. It feels tangible now,” he said, excited about SCOOT’s next steps after receiving recognition on the global design stage.

SCOOT attachment. Image: Supplied


Behind the designer 

A hands-on designer, Teddy thrives on turning ideas into tangible, functional products. 

“Prototyping leads to the best results. No CAD model compares to holding it in your hand,” he said. 

“When it comes to products like SCOOT, user-centric design is everything,” he explained. 

“It’s our job to improve people’s lives. If a product can also be repairable and built to last, even better.”

Lessons from his trades work taught him the value of a circular economy. He is passionate about reusing, repairing, and extending the life of products.

For Teddy, good design isn’t just about making something work; it’s about making something last, something people can keep using, learning from, and adapting over time.


From sourcing batteries on eBay to building a go-kart, Teddy Meredith has taken SCOOT from playful experimentation to a fully prototyped mobility solution with real-world potential. 

With hands-on, user-centred thinking and support from the Robert Pataki Award, SCOOT is ready to reach the people who need it most. It addresses a major gap: the lack of direct-to-consumer products in healthcare technology. 

Good Design Australia congratulates Teddy for showing how innovative, intuitive design has the power to genuinely improve lives, and for using his passion for healthcare design to test, explore, and reveal what’s possible with practical creativity, collaboration, and a whole lot of heart.

First Responder – 2025 Michael Bryce Patron’s Award

THE MICHAEL BRYCE PATRON’S AWARD IS PRESENTED ANNUALLY BY THE PATRON OF GOOD DESIGN AUSTRALIA.

IT RECOGNISES AND CELEBRATES THE BEST AUSTRALIAN-DESIGNED PRODUCT, SERVICE OR PROJECT IN THE ANNUAL AUSTRALIAN GOOD DESIGN AWARDS WITH THE POTENTIAL TO SHAPE THE FUTURE ECONOMIC, SOCIAL, CULTURAL AND ENVIRONMENTAL ASPECTS OF OUR PLANET.

IN 2025, THE AWARD WAS PRESENTED FOR THE FIRST TIME BY THE GOVERNOR-GENERAL OF AUSTRALIA, HER EXCELLENCY THE HONOURABLE SAM MOSTYN AC, WHO IS THE NEW PATRON OF GOOD DESIGN AUSTRALIA. 

Every two seconds, someone in the world has a stroke – an event that can change lives in an instant. Fast diagnosis and treatment are critical for better outcomes, but both rely on being able to see what’s happening in the brain first. 

Mobile Stroke Units (MSUs) have helped make this possible by bringing imaging and treatment to patients when every moment counts. While MSUs were a breakthrough, they’re costly and difficult to scale. EMVision set out to change that with First Responder. 

First Responder is a portable neurodiagnostic device that enables rapid identification of strokes and traumatic brain injuries (TBI). It was created by the EMVision Design and Research Team to be lightweight, intuitive, and affordable.

First Responder was honoured with the 2025 Michael Bryce Patron’s Award. Robert Tiller, Head of Design at EMVision Medical Devices, shared the story of perseverance, invention, and empathy behind the device. 


The EMVision Design Team, led by Robert Tiller (first on the left)

Time is brain

Strokes are on the rise and they have devastating effects on patients – 60% of whom suffer permanent disabilities. First Responder supports better patient outcomes by delivering a diagnosis within five minutes.

“Treatment within the first hour or two [of a stroke] is absolutely crucial to achieving a positive outcome,” said Robert.

“We are bringing the scanner to the patient.”

The First Responder scans patients on-site and communicates results to neurologists via telehealth. This enables paramedics to quickly identify the type of stroke or TBI a patient is experiencing – a crucial step for safe, effective triage and treatment.

Robert described the innovation as “empowering clinicians at the first point of care”. The advancement will prevent delays that can cost lives.

“Time is brain,” said Robert. 

“The earlier we can intervene, the greater the chance of recovery – and the lighter the impact stroke has on patients, families, and society.”

The EMVision Research Team

The economic impact of strokes


Strokes have a devastating economic impact. Robert noted that in 2021 the annual cost of strokes was around US $891 billion globally, and this is projected to rise to US$1.6 trillion by 2050.

By reducing reliance on costly hospital imaging, First Responder minimises the burden on hospitals and health systems. The device itself is also significantly more affordable than existing solutions. MSUs cost up to US$1.7 million and require specialist crews, while First Responder costs approximately US$50,000 and can be operated by trained personnel. 

“If you can treat the patient quickly, you reduce that burden profoundly,” Robert said. 

“The EMVision First Responder takes that same principle [as the MSU] – bringing the scanner to the patient. But, it’s more affordable, lightweight, and deployable anywhere.”

The Governor-General of Australia presents the 2025 Michael Bryce Patron’s Award – First Responder


User needs as the golden standard

First Responder began as a University of Queensland research project and was commercialised by EMVision Medical Devices, which opened its Sydney head office in 2020. Over the years, the EMVision Design and Research Team led rigorous user research and testing. They ensured First Responder could integrate seamlessly into paramedics’ workflows. 

Robert said user needs were treated as the ‘golden standard’ throughout the design process. The collaborative conceptual development process involved meeting paramedics ‘on their terms, in their environment’ and shadowing retrievals. 

During the research process, Robert was amazed by paramedics’ skill and resilience. 

“Even though [paramedics] will figure out how to use it and get around it, we were determined to make this seamless and as invisible to them as possible,” Robert shared.

While some needs changed across different states, one was constant. First Responder needed to be lightweight, fast, and easy to use. Robert said it was important that users didn’t need to think about how the kit works, explaining, “You just want to use it when the time comes.”

Balancing functionality and portability 


The EMVision Design and Research Team overcame significant technical, ergonomic, and usability constraints when designing First Responder. Robert said miniaturising the technology was a response to user needs.

“We’ve done lots and lots of user research with paramedics, both road and air… to determine their workflows and how a scanner like this would fit,” he explained. 

“Miniaturisation is really a result of needing to respond to ergonomics…patients needing to be scanned are not in the best of health if they’re suffering a stroke.”

The design journey was a balancing act between competing demands: power, performance, size, portability and speed. 

“As soon as someone says, ‘I want it to run for an hour,’ that’s another kilo of batteries you have to put into the product.”

“It’s been quite a challenge to balance all the demands from different stakeholders to create something that ultimately ticks the boxes for everyone.”

The team also faced practical design challenges, like developing a flexible cap to fit a wide range of head sizes, avoiding wrinkles during liquid filling, and ensuring the device could operate reliably across road and air ambulance environments. Every decision had to maintain diagnostic accuracy, meet regulatory standards, and support paramedics’ workflow without compromise.

In the end, the EMVision Design and Research Team not only met their ambitious target weight of 12 kilograms, but also integrated proprietary antenna and signal analysis modules, along with a fluidics system. The innovation represents a significant milestone in portable, AI-driven diagnostics.

“When I started with the company eight years ago, that technology was the size of a small desktop computer… and we’ve now worked on a device that is the size of approximately half of a mobile phone.”

2025 Michael Bryce Patron’s Award – First Responder

Reaching remote and underserved communities 

First Responder places life-saving stroke and TBI care within reach, offering advanced neurodiagnostic technology at an affordable price.

“Wherever you are – rural, regional, remote – you should get access,” explained Robert. 

“First Responder is easy and safe to use. This empowers local clinics or practitioners to perform scans on-site.”

Additionally, integrated telehealth systems enable scan data to be shared instantly with specialists across the country.

“You could put one of our scanners anywhere…and action a code stroke immediately.” 

By ‘decentralising big ticket equipment’, First Responder makes life-saving stroke and TBI care more accessible than ever.

The 2025 Australian Good Design Awards Ceremony, where 2025 Michael Bryce Patron’s Award – First Responder was announced

AI-driven diagnostics technology 

First Responder uses a proprietary AI engine, which is trained on clinical data to deliver rapid neurodiagnostic analysis. The engine plays a crucial role in the device’s speed and output.

“Without AI, the computing and data processing power needed would be overwhelming to try and affect the same outcome,” Robert said. 

With more than 35 years in the industry, Robert has seen firsthand how AI can elevate design and development, enabling levels of precision and efficiency that were once out of reach. 

While he sees AI as a powerful tool, he believes the essence of good design still lies in human creativity and intuition, and in how humans guide AI.

“You can make [AI] do amazing things, but it’s only as good as what you ask it to do.”

“AI is the sum of what it can learn, how it learns, and how it’s been told to learn,” he explained. “In the creative industries, original thinking, the generation of new ideas, imagery, and models are critical.  I do not think Ai will deliver true creativity.”

Describing himself as an old-school designer, he joked, “You can mark those words in 50 years, you’ll be able to say how ridiculously wrong I was.” 

From concept to reality 

For Robert personally, the most rewarding part of the project has been seeing the research evolve into a life-saving device.

“Reshaping and lifting that research out of a university laboratory, shaping the science into an application as profoundly important as stroke treatment and diagnosis, was very rewarding.

“It’s not often in your career that you get to work on something that is genuinely new,” he said. “This just didn’t exist 10 years ago…watching the transition from benchtop to product in an entirely new technology is very satisfying.”


Good Design Australia congratulates the EMVision Design and Research Team on their pursuit of excellence – in service of stroke and TBI patients, their communities, and Australia’s first responders.