San Francisco, CA – A breakthrough at Oxford University promises to dramatically lower the cost of developing and deploying soft robots, potentially unlocking a modern era of innovation in fields ranging from healthcare to search and rescue. Researchers have unveiled a new fabrication technique that can produce soft robotic actuators – the components that enable movement – for under $0.10 each and in less than 10 minutes. This represents a significant leap forward, addressing a key barrier to wider adoption of this promising technology.
Soft robotics, unlike traditional robotics relying on rigid materials, utilizes compliant materials that allow for greater flexibility and adaptability. This makes them ideal for tasks requiring delicate manipulation, navigating confined spaces, or interacting safely with humans. However, the manufacturing processes traditionally associated with soft robots – silicone molding, specialized 3D printing, and complex textile lamination – have been expensive and time-consuming, limiting access to research and development for many institutions and startups. The new method developed at Oxford aims to change that.
Rapid Prototyping with Vacuum-Laser Fabrication
The core of the innovation lies in a surprisingly simple combination of readily available materials and technology: commercially available vacuum-sealable plastic pouches and precision laser cutting. The team, led by Professor Antonio Forte of the University of Oxford’s Department of Engineering Science, discovered that by removing the air between layers of plastic before laser processing, they could both seal and shape inflatable structures with remarkable accuracy. This “cut-and-seal” process creates programmable bending actuators in a single step, drastically reducing both fabrication time and material costs. The research was published today, March 8, 2026, in the journal Advanced Science.
“By lowering the financial and technical barriers to fabrication, this advance could significantly democratize and accelerate soft robotics research and prototyping across laboratories, start-ups, and educational settings,” explained Professor Forte in a press release. Postdoctoral Researcher Ashkan Rezanejad, also from the Department of Engineering Science, added that the technique allows for the creation of functional soft grippers capable of handling a variety of objects, as demonstrated in images released with the study.
Beyond Cost: Expanding the Capabilities of Soft Robotics
This isn’t the first innovation coming out of Oxford’s soft robotics lab. In November 2025, researchers announced a significant advancement in creating air-powered robots capable of synchronized movement without the need for traditional electronics, motors, or computers. The study, published in Advanced Materials, demonstrated how these “fluidic robots” can generate complex, rhythmic movements and automatically synchronize their actions, mimicking behaviors observed in nature, such as fireflies flashing in unison.
Dr. Mostafa Mousa, lead author of the November 2025 study, explained that the team drew inspiration from natural systems where body parts often serve multiple roles and synchronized behavior emerges without centralized control. This approach aims to encode behavior directly into the robot’s physical structure, creating more adaptive and responsive machines. Soft robots, constructed from flexible materials, are particularly well-suited for tasks like navigating uneven terrain or handling fragile objects, where the adaptability of their form is a crucial advantage.
Applications and Future Directions
The potential applications of these advancements are vast. Lowering the cost of fabrication opens doors for wider use in areas like:
- Healthcare: Soft robots could assist in minimally invasive surgery, provide personalized rehabilitation therapies, or create prosthetic limbs with enhanced dexterity and sensitivity.
- Search and Rescue: Their flexibility and ability to navigate confined spaces make them ideal for exploring disaster zones and locating survivors.
- Manufacturing: Soft grippers can handle delicate components without damage, improving efficiency and reducing waste.
- Environmental Monitoring: Soft robots can be deployed to collect samples in hazardous environments or monitor fragile ecosystems.
The combination of low-cost fabrication and the ability to create robots that operate autonomously, as demonstrated by the synchronized air-powered robots, represents a significant step towards more sophisticated and versatile soft robotic systems. Researchers are now exploring ways to integrate sensors and actuators directly into the plastic pouches during the laser cutting process, further streamlining the manufacturing process and expanding the capabilities of these robots.
The Democratization of Robotics
The impact of this technology extends beyond specific applications. By making soft robotics more accessible, the Oxford team is fostering a more inclusive and collaborative research environment. Smaller labs, startups, and educational institutions can now participate in the development of this exciting field, accelerating innovation and potentially leading to unforeseen breakthroughs. The ability to rapidly prototype and iterate on designs will be particularly valuable for researchers exploring new materials, configurations, and control strategies.
The development of these technologies also highlights a growing trend in robotics: a shift away from complex, centralized control systems towards more distributed and embodied intelligence. By leveraging the inherent properties of materials and the principles of biomechanics, researchers are creating robots that are more robust, adaptable, and energy-efficient. This approach promises to unlock a new generation of robots that can seamlessly integrate into our lives and address some of the world’s most pressing challenges.
The next step for the Oxford team involves exploring scalable manufacturing techniques and investigating the long-term durability of the fabricated actuators. They are also actively seeking collaborations with industry partners to translate their research into real-world applications. Further updates on their progress can be found on the University of Oxford’s Engineering Science website.
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