Healthcare Robotics Design & Development

Collaborative robots and AI are becoming increasingly important for surgeons who must perform extremely precise, often highly repetitive tasks. But surgical applications have unique performance and certification requirements that are not widely understood or available in the current cobot market. In this presentation, we will provide guidance on how to address these barriers. We will also explore critical engineering considerations when specifying surgical application needs regarding collaborative features, AI integration in the surgical flow, and certification requirements. Join us for answers to these questions:

· What are the unique requirements for cobots in surgical applications?
· How do key components such as frameless motors determine performance?
· How do cobots and AI-enabled vision impact surgical flow?
· How customized design can impact performance, development cycle, and certification

It is a long road with numerous hurdles to take a medical robot from an initial idea to a certified product. To achieve this, some important questions must be answered, such as:

– What is the intended use?
– What is the legal framework?
– What are the main risks?
– Which methods can be used to evaluate concepts, to develop prototypes and to verify the final product?

This session will give an overview of the essential steps required to turn a product idea into a market-ready healthcare robot. Attendees will be provided with practical advice on how to implement these steps, as well as a European perspective on the regulatory aspects of the product life cycle.

Across the globe, we are living older for longer than ever before. This is creating huge demands on caregivers, healthcare systems and societies overall, where many regions are already experiencing a labor shortage crisis. Robotics can play a significant role in helping people live more independently for longer.

To achieve this, robotics has to transform in at least two major ways. First, we need to develop robots that can scale to be affordable for personal, 1-to-1 use, which is a dramatic change from most commercial robots today. Second, making functional robots operate autonomously in homes requires solving for much greater complexity, with far more diverse and challenging settings and use case scenarios.

In this presentation, Labrador Systems will walk through the design and development of Retriever, a personal robot built from the ground up to operate in the home, lighten the load of daily activities, extend the impact of caregivers, and ultimately help us live more independently as we age.

Emulation is a concept that will be familiar to anyone engaged in the development of computing systems (or fans of retro gaming), but did you know research & development groups around the world are leveraging the approach to develop more personalized and advanced prosthetics, orthotics, exoskeletons, wearable robotics, and more?

Wearable systems are costly to prototype and difficult to perfect, so it is crucial for this burgeoning industry to reimagine R&D processes to unlock greater efficiency, throughput, and more wildly successful products. Learn more about the opportunities, challenges, and innovative approaches being explored towards developing technology that augments human biomechanics and could one day be accessible to anyone looking for a boost to their physical performance.

Although human factors engineering touches many facets of overall system design, at its core, the practice facilitates the interaction between humans and technology; it aligns a system’s design with individuals’ cognitive and physical capabilities and limitations to produce a safe and satisfying user experience. Despite the level of autonomy healthcare robotics technologies might offer, there is always a human element that requires consideration.

During this talk, the presenters will discuss human factors implications and considerations related to the design of robotic healthcare technology used in clinical and non-clinical environments. The talk will describe how robotics disrupts the four key aspects of design analyzed when supporting product development: the system’s touchpoints, intended users, intended use environment(s), and its intended users’ tasks with the system. We will illuminate how such aspects can and should influence design decisions, as well as best practices when conducting research within the regulated medical device industry.

MassRobotics, FESTO, Mitsubishi Electric Automation, MITRE, Novanta and other key players in the healthcare and robotics space recently initiated the Healthcare Robotics Startup Catalyst Program. The goal is to advance healthcare robotics companies by providing the connections, guidance and resources they need to grow and succeed.

During this session, attendees will hear pitches from the following seven healthcare robotics startups currently in the catalyst program: Able Human Motion, Acumino, Andromeda, Maestro Surgical, Robot on Rails, Unlimited Robotics and Zeta Surgical