January 30, 2026 — United States — Stryker Corporation, a major global player in orthopedics and surgical technologies, has begun clinical use of a newly developed handheld robotic assistant as part of its established Mako robotic platform ecosystem. The device, known as the Mako Robotic Preparation System (Mako RPS), represents a next step in expanding robotic support for joint replacement procedures — particularly knee surgery — into a wider range of clinical environments.
The development was highlighted by Stryker leadership during the company’s January 30, 2026 earnings discussion, where executives noted that the Mako RPS is entering early clinical deployment and is expected to be showcased at the American Academy of Orthopaedic Surgeons (AAOS) Annual Meeting later this year. This introduction reflects the company’s strategy of broadening access to robotic assistance across hospital and ambulatory surgery settings.
The Mako RPS (Robotic Preparation System) is a handheld extension of Stryker’s well-established Mako SmartRobotics™ platform, which has been widely used in orthopedic surgery for hip and knee replacements. Unlike the full-sized robotic units typically found in large operating rooms, the handheld system is designed to support surgeons with precision guidance during bone preparation and alignment tasks while requiring less physical space and potentially fewer logistical barriers.
According to Stryker leadership, the Mako RPS aims to bridge the gap between traditional manual instruments and larger robotic systems, offering surgeons a degree of robotic guidance that may be more accessible to a wider range of facilities — including community hospitals and ambulatory surgery centers (ASCs).
While the full commercial rollout is still in its early stages, Stryker has confirmed that the Mako RPS is being used in initial knee surgery cases under controlled clinical environments. These initial experiences are part of the device’s broader clinical introduction, and the system is scheduled to be featured at the AAOS Annual Meeting, where orthopedic surgeons and healthcare leaders will have the opportunity to see demonstrations and ask detailed questions about workflow, training, and potential applications.
The move toward handheld robotic assistance reflects a wider industry trend: surgical robotics are becoming smaller, more flexible, and increasingly integrated into standard surgical workflows. The goal for many hospitals is to combine precision and reproducibility with practical usability that fits within existing OR schedules and staffing models.
The introduction of systems like the Mako RPS underscores several strategic implications for hospitals, surgical departments, and procurement teams:
1. Expanded Access to Robotic Precision
Smaller, more portable robotic tools can help surgical teams achieve more consistent bone preparation and implant alignment — key factors in long-term joint replacement success — without committing to the footprint or training demands associated with larger robotic platforms.
2. Workflow Efficiency
A handheld robotic assistant has the potential to reduce OR setup time and procedural complexity. For facilities with limited space or staffing trained on traditional robotics, this can make robotic guidance more feasible and scalable.
3. Supply Chain and Procurement Planning
As new robotic tools are integrated, hospitals and ASCs must plan for associated consumables, service agreements, and vendor support structures. Procurement teams should coordinate early with vendors on inventory needs and training resources.
4. Surgeon Training and Credentialing
Even compact robotic systems require structured training and credentialing. Collaboration between device manufacturers and hospital leadership is essential to ensure safe adoption and maintain clinical quality standards.
The addition of the Mako RPS to Stryker’s robotic lineup aligns with ongoing industry momentum toward precision-enhancing technologies in orthopedic surgery. Over the past decade, robotic systems have increasingly become part of joint replacement strategies — driven by evidence showing improved alignment, reproducibility, and, in some cases, patient outcomes when compared with traditional manual techniques.
