Episode #120 | Physical AI In Healthcare (Bonus)

We explain what physical AI is and why it matters when AI can sense, decide, and act in the real world rather than just analyze data. We map where it shows up across healthcare today, what’s holding it back, and the trends that could make it the next big platform shift in medicine. 

Check out our full guide on physical AI in healthcare here.

Transcript

Physical AI Meets Healthcare

SPEAKER_00 0:00

Physical AI represents a groundbreaking evolution in artificial intelligence, where AI systems integrate with hardware to sense, reason, and act in the physical world. It's a shift that is redefining healthcare, moving beyond software-based data analysis to applications in surgical systems, rehabilitation platforms, wearables, and automated laboratory infrastructures. This innovation is fueled by the belief among industry leaders and investors that physical AI will drive the next wave of technological and economic growth, particularly in healthcare and life sciences.

What Physical AI Really Means

SPEAKER_00 0:38

What exactly is physical AI? Physical AI can be defined as a software and hardware system designed to perceive and understand the real world, objects, spatial relationships, dynamics, and cause and effect relationships, and adapt its actions to complete tasks. The essence of physical AI lies in three core processes: perception, interpretation, and action. Unlike systems that rely on fixed rules or pre-programmed tasks, physical AI dynamically adapts to its environment, making it uniquely suited to complex real-world scenarios like healthcare. Traditional industrial robots, like those on automobile production lines, don't qualify as physical AI because they operate on rigid, predefined programming. True physical AI involves real-time decision-making and adaptability, enabling it to function in unpredictable environments.

Why Healthcare Needs Physical AI

SPEAKER_00 1:34

Why is physical AI crucial for healthcare? Healthcare is inherently physical, involving hands-on procedures, patient-device interactions, and laboratory workflows. Physical AI brings intelligence into these real-world processes by combining sensing, decision making, and action. This is particularly important as healthcare systems face mounting challenges, including labor shortages, rising costs, and increasing demand. The potential of physical AI lies in its ability to enhance care delivery. For example, robotic systems can assist surgeons with greater precision. Wearables can monitor physiological changes in real time, and automated lab systems can handle samples more efficiently. By improving workflows and outcomes, physical AI holds the promise of addressing critical pain points in global healthcare systems.

Five Categories Changing Care

SPEAKER_00 2:29

Key categories of physical AI in healthcare. 1. Embodied Robotics. This category encompasses systems that physically interact with the world, such as surgical robots, rehabilitation robots, and exoskeletons. Robotic surgical platforms, like those from Intuitive Surgical, combine imaging, motion control, and AI-assisted guidance to enhance minimally invasive procedures. While Intuitive Surgical is a dominant player, competitors like CMR Surgical and Moon Surgical are introducing more affordable and flexible systems, making robotics accessible to a broader range of healthcare providers. Major orthopedic companies are also integrating robotics into their offerings. Two, autonomous mobile systems. These robots navigate physical spaces and perform tasks like transporting medications, meals, or specimens in hospitals. Examples include logistics robots from companies like Swisslog Healthcare, Diligent Robotics, and Ethon, which streamline operational efficiency in healthcare facilities. 3. Sensor-driven smart devices. Many physical AI systems in healthcare are not robots, but devices that sense physiological signals and adjust their behavior in real time. Examples include closed-loop insulin systems, connected respiratory devices, and wearables like the Aura Ring. Companies like Medtronic, GE Healthcare, and Siemens Healthenears are embedding AI into devices for chronic disease management, imaging, and home care. 4. Industrial and Lab Automation. Physical AI is transforming laboratories and biomanufacturing by automating tasks like sample handling, imaging, and quality control. However, challenges remain, such as translating tacit biological knowledge into automation and overcoming the lack of standardized affordable tools. Companies like Thermo, Fisher, Scientific, and Danaher are working to address these issues with intelligent automation systems. 5. Rehabilitation robots and assistive devices. These technologies directly interact with the human body to support recovery and mobility. Examples include gate trainers, smart prosthetics, and adaptive orthotics. Companies like Exobionics and Rewalk Robotics are advancing systems that adapt to patients' movements, improving therapy outcomes.

Pitch 3D Startups And Personalized Devices

SPEAKER_00 5:08

The role of pitch 3D startups. Pitch 3D startups are at the forefront of integrating physical AI into healthcare, particularly in areas like 3D printing and bioprinting. These startups often connect digital models with physical interventions, such as surgical workflows or patient-specific implants. Notable examples include Psionic, creator of the ability hand, a bionic prosthesis with high-speed motor control and touch sensing, CarlsMed, uses AI to personalize spinal surgeries and implants based on imaging and outcomes data, COSM, designs customized pessary devices using AI-driven ultrasound imaging and 3D printing. Vent Creativity develops AI-powered digital twin models for surgical planning and implant design. Xylo 3D focuses on intelligent workflows for on-site production of dental prosthetics. These companies demonstrate that physical AI extends beyond robots to include personalized medical devices, surgical tools, and treatment workflows.

Safety, Regulation, And Adoption Barriers

SPEAKER_00 6:17

Challenges in physical AI for healthcare. Despite its promise, physical AI faces significant challenges, particularly in healthcare. The industry's conservative nature, combined with strict safety and regulatory requirements, means that errors can have severe consequences, creating barriers to adoption. Additionally, many startups focus on narrow aspects of workflows, limiting their ability to deliver comprehensive solutions. The most successful players will likely integrate perception, control, and regulatory compliance into cohesive systems.

Three Trends That Define What’s Next

SPEAKER_00 6:53

What's next for physical AI in healthcare? The future of physical AI will be shaped by three key trends. One, more adaptive robots and devices. Systems will become increasingly capable of autonomous decision-making and real-time adaptation. Two, software orchestrated labs and factories. Automation will extend to life sciences, enabling more efficient and precise biomanufacturing. Three, centrality of 3D design and simulation. Advanced modeling and simulation will play a crucial role in medical product development and procedural planning. For innovators and investors, the question is no longer whether AI belongs in medicine, but where it should be integrated into physical workflows. Whether in robots, implants, or lab systems, the possibilities for physical AI in healthcare are vast, limited only by imagination.