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Origin BCI Titania prosthetic hand new design

The upgrade is here

The latest version of our bionic hand is now complete.

This update brings improvements across both hardware and control systems. The mechanical structure has been refined for better strength, smoother motion, and easier maintenance. We've adjusted part tolerances, rebalanced the layout, and improved the overall fit of components.

These changes are based on what we've learned from previous prototypes. They focus on reliability, performance, and preparing the device for real-world use.

This version will be the basis for our next round of internal tests and early user trials. It's an important step as we move closer to a final product.

More updates soon.

Origin BCI Titania prosthetic hand updated design

Titania Upgraded

After an incredible first round of testing, where the feedback blew us away and interest came in from every direction, we're proud to announce the next iteration of Titania. Every upgrade comes straight from what we've learned in the field—from real people, real signals, real motion.

Titania now features a fully actuated palm and rotating thumb—a major step forward in dexterity and lifelike interaction. One more actuator, infinite new possibilities. Her fingers have been redesigned too—slimmer, rounder, more organic, with surfaces built for grip. And the palm itself now carries more adherent contact points.

The next testing campaign kicks off on June 16, and it's all happening with the most advanced version of Titania we've ever built. She's faster. Easier to use. More intuitive. And absolutely beautiful.

Origin BCI Titania prosthetic hand presentation

Titania – ready for the real world. The final piece? You.

Titania is nearly complete. She's built, wired, and waiting—not just for the world, but for the people who will truly bring her to life. That's why on 16 June 2025, we're opening the door to something special: our volunteer testing program.

We're looking for individuals who want to do more than just wear a prosthetic—they want to shape it. Before Titania enters clinical trials, we want her in the hands of real people, moving through real lives, and telling us what works, what doesn't, and what could be better. This isn't about lab results. This is about real feedback, real motion, and real change.

Titania was always meant to be more than hardware. She's a collaboration between technology and humanity, and now it's time for that collaboration to go live. The volunteers who join us now won't just be testing a device—they'll be leaving fingerprints on the final form of something revolutionary.

If you've ever looked at a prosthetic and thought, I would've done it differently, now's your chance. This is the part where the loop closes. The machine listens. And together, we build something better.

Applications are open. The future's in motion.

Titania bionic hand work in progress

Inside the Workshop: Titania Takes Shape

Titania, our fully actuated bionic hand, is now in the final stages of development.

This image shows part of the assembly process in our workshop. The mechanical design is complete, and we've reached Technology Readiness Level 5. Electronics integration and testing are underway, and we've started manufacturing the first actuated prototype.

Titania is designed to combine strong performance with accessible pricing. It includes wrist flexion and extension, myoelectric control, and a fully custom mechanical system—built from the ground up for reliability and precision.

As we prepare for real-world testing, we're looking to connect with users, testers, institutions, and partners who want to be part of the next phase.

If you're working in prosthetics, rehabilitation, or related fields—we'd be glad to talk.

Titania bionic hand work in progress

Titania | Bionic hand reveal

After years of development and iteration, our fourth prototype is complete.

Titania is the most advanced prosthetic we've built so far—a custom-designed, high-performance bionic hand developed from the ground up. It features wrist flexion and extension, myoelectric control, and a fully original mechanical architecture.

This is our first prototype intended for commercial release. Every part of Titania, from its internal components to its exterior design, has been engineered for both function and form. Our goal was to create a device that combines precision control with a distinctive visual identity—something that performs well and makes a statement.

Titania represents the shift from research-focused experimentation to real-world application. With manufacturing preparation underway, we're entering the next phase: testing, refinement, and early-stage collaborations with users, medical institutions, and partners.

It's a major milestone—and the starting point for what comes next.

Titania bionic hand work in progress

Calibra – A Signal from the Future

Our third prototype, Calibra, marked a major step forward—it was the first time we successfully linked muscle signals to movement.

Built as a custom design from scratch, Calibra featured a single actuated finger mounted on a demonstration stand. It responded to real myoelectric input, translating muscle activity into motion. While limited in scope, this was our first proof of concept for signal-driven control.

Through Calibra, we began studying the fundamentals of bioelectric communication—signal clarity, responsiveness, and the reliability of muscle input under different conditions. It helped us understand how to build more accurate and responsive control systems, laying the groundwork for future development.

Though never intended to be worn, Calibra played a key role in shaping our approach to control fidelity and user interaction. It was an essential step in moving from theory to applied function, and it brought us closer to the goal of intuitive, human-centered prosthetics.

Titania bionic hand work in progress

Our very first prototype

Two years ago, we built our very first prototype—a single finger driven by a custom hydraulic concept. It wasn't electric, and it didn't move on its own, but it gave us our first real insights into force, range, and motion.

This early design focused on pressure control and mechanical feedback. It allowed us to test fundamental ideas about how a future prosthetic hand could feel, move, and respond. There were no expectations—just a starting point and a lot of questions.

That one finger helped define what would become the core of our approach: precision, strength, and expressive control. It challenged our assumptions and pushed us to keep improving.

We've made a lot of progress since then, but this first prototype laid the foundation for everything that followed. It was the beginning of Titania.