MEDICAL INTELLIGENCE. ENGINEERED WITH PURPOSE. Vancouver, Canada
Surgical robotic instruments in a clinical environment, 3D rendering

Better questions. Better possibilities for care.

Helping shape the future of Autonomous Neurosurgery

Bringing AI, surgical robotics, and predictive medicine closer together

Our work connects AI, new ROSA instrumentation, and da Vinci research, advancing the intelligence behind autonomous surgery.

SURGICAL ROBOTICS | 3D RENDERING

AI & SURGICAL ROBOTICS

Known platforms.
A new layer of intelligence.

We’re working on new ROSA instrumentation and da Vinci research with a clear goal: connect surgical perception, planning, and robotic control to advance autonomous surgery.

Our focus is the intelligence behind the movement, and the instrument at the point of action.

ROSA robotic arm and da Vinci surgical system
ROSA / Zimmer Biomet · da Vinci / Intuitive
01 / ROSA

New instruments.
Purposeful control.

Neurosurgical access, image-guided positioning, and instrument development sit at the centre of our ROSA-focused work.

Explore ROSA in 3D ↗
02 / DA VINCI

Perception.
Coordination. Dexterity.

Our da Vinci research connects visual understanding, planning, and fine instrument motion across a coordinated robotic workspace.

Watch the device films ↗

ENGINEERING IN MOTION

Look closer.
Precision is in the details.

Three perspectives on surgical robotics.
Explore the Precision Arm, ROSA, and da Vinci.

Explore the ROSA arm, wrist, and stereotactic instrument guide.

Interactive 3D
ROSA · NEUROSURGICAL INSTRUMENTATION
ROSA / Robotic arm

3D visualization

A platform for precise neurosurgical access.

Explore the distinctive compact arm and articulated joints. Our work on new ROSA instrumentation connects this mechanical foundation with AI perception, planning, and control.

ROSA is a Zimmer Biomet platform. Platform details ↗

IN THE OPERATING ROOM

See the technology.
Watch the work.

Device close-ups and surgical workflows,
from the original manufacturers.

ROSA Brain video poster, 3D renderingVideo by Zimmer Biomet
Zimmer Biomet · Procedural demonstrationOpen original video ↗

OFFICIAL DEVICE FILMS

Inside a neurosurgical workflow.

Watch Zimmer Biomet’s abbreviated SEEG demonstration, with a closer view of the robotic arm and procedural workflow.

A CLOSER LOOK AT OUR WORLD

Medicine is complex.
Our focus is clear.

Illustrative precision surgical instrument in an operating room
Medical technology | 3D rendering
01

SURGICAL ROBOTICS

Engineering for the most demanding environments.

Complex surgery brings anatomy, precision, and judgement together. Our focus is the intelligence and instrumentation that connect them.

Explore surgical robotics
Illustrative biomedical research team examining a surgical instrument
Research collaboration | Visualization

PEOPLE BEHIND THE PROGRESS

The next step in medicine
starts with working together.

Clinicians see the challenge. Engineers ask how. Researchers look closer. We bring those perspectives together around the questions that deserve our full attention.

Let’s build something that matters

Research and innovation

The experience behind our work.

Our team brings together computer science, medical science, and precision engineering.

69M+

Patient Data Focus

Healthcare data and predictive intelligence.

86K+

Research & Development

Focused work across medical AI, robotics, and predictive healthcare.

22

Years of Expertise

Combined team experience in AI, medical science, and engineering.

295+ patents

Innovation across medical technology and AI.

Scientific research and publications

Work across medical AI and biomedical engineering.

98% heart attack prediction accuracy

Cardiovascular predictive analytics.

Our technology focus

Three connected areas. One purpose: better care.

Medical AI, robotics, and predictive analytics bring different capabilities to the challenges healthcare teams face.

Surgical robotic instruments, 3D rendering01
AI Robotics

Autonomous Surgical Robotics

Medical AI, planning, and robotic control for the complex demands of brain and spinal surgery.

  • Medical imaging and anatomical interpretation
  • Surgical planning and instrumentation
  • Robotic control and safety engineering
Explore surgical robotics
3D visualization
Cardiovascular anatomy, 3D illustration02
Predictive Medicine

Predictive Analytics

Health data and machine learning for cardiovascular risk assessment, earlier clinical review, and preventive care planning.

  • Cardiovascular risk and prediction
  • Model evaluation and validation
  • Preventive healthcare analytics
Explore predictive analytics
3D visualization
Medical imaging workstation, 3D rendering03
AI Health

AI Health and Intelligence

Clinical intelligence and connected information that support healthcare teams and their workflows.

  • Clinical intelligence and research analytics
  • EMR-connected information
  • Patient engagement and care planning
Explore AI Health
3D visualization
Autonomous neurosurgeryMedical imaging and surgical planning workstation, 3D rendering
Medical imaging and surgical planning | 3D rendering

Autonomous surgical robotics

Precision for the challenges of neurosurgery.

Our autonomous neurosurgery programme connects artificial intelligence, medical computer vision, and robotic engineering around the complex anatomy of the brain and spinal canal.

Our work includes new ROSA instrumentation and da Vinci research, with a focus on the software and instrument interfaces that connect perception, planning, and precise movement.

Medical imaging and anatomy

Image interpretation brings lesion location, tissue relationships, and critical structures into view. Our work connects anatomical recognition, segmentation, and spatial information with surgical planning.

Planning and robotic control

Planning brings access geometry, instrument reach, anatomical boundaries, and movement together. Calibration, localization, and sensor feedback connect the plan to the robotic system.

Safety and human oversight

Operating boundaries, fault detection, continuous monitoring, and controlled stopping are considered throughout the system. Clinical and engineering expertise contribute to the design and evaluation process.

Explore autonomous neurosurgery

Brain and spinal canal tumour research

Taking on the most demanding neurosurgical questions.

Our work focuses on complex tumours, including cases where access and proximity to critical structures create exceptional surgical difficulty.

Brain and cervical spinal anatomy, 3D illustration
Brain and spinal anatomy | 3D illustration

Anatomy shapes the problem. We bring medical imaging, AI, and precision engineering together to investigate new approaches for high-risk and currently inoperable cases.

01 / Brain tumours

Complex anatomy. Critical structures.

Deep-seated lesions and limited access corridors place demanding requirements on anatomical interpretation and planning. Our work considers tissue relationships, access paths, and controlled instrument movement.

Anatomical interpretationAccess planningMedical computer vision

02 / Spinal canal tumours

Confined spaces. Precise control.

The spinal cord, nerve roots, and surrounding structures create a tightly constrained working environment. We investigate image-guided navigation, instrumentation, and sensing around these requirements.

Instrument positioningSensor feedbackRobotic control
Image-guided navigation

Navigation connects anatomical information with instrument position and planned movement. Spatial alignment, critical structures, and feedback are central to this work.

AI surgical intelligence

How imaging informs each next step.

Medical imaging, anatomical interpretation, planning, and robotic control connected through sensing and safety monitoring.

Medical imaging

Imaging provides information about anatomy, lesions, and surrounding structures. Image quality, spatial alignment, and the clinical question guide how that information enters the planning workflow.

Sensing and safety checks connect every stage of the workflow.

Predictive analytics

Earlier insight into cardiovascular risk.

Our cardiovascular programme applies machine learning to health data for heart attack prediction, risk assessment, and preventive care planning.

98%

Heart attack prediction accuracy Cardiovascular predictive analytics

We connect this analytical work with the information healthcare teams need for clinical review and care planning.

Health data and model development

The prediction task guides the choice of information, outcome, and time horizon. Data preparation, model development, and interpretation are considered together.

Model evaluation

Accuracy, sensitivity, specificity, calibration, and population provide different views of model performance. Our evaluation work considers these measures in relation to the clinical question and intended use.

Healthcare collaboration

We welcome cardiovascular specialists, health systems, and research teams interested in predictive medicine. Contact us to discuss your analytical priorities and workflow requirements.

Explore cardiovascular prediction
Cardiovascular anatomy, 3D illustration
Cardiovascular anatomy | 3D illustration
Clinical intelligence workstation, 3D rendering
Clinical intelligence | 3D rendering

AI Health

Making clinical information more useful.

Healthcare teams need information that is relevant, understandable, and connected to their workflow.

Clinical intelligence and analytics

Our work includes medical data analysis, predictive healthcare, and research analytics for review and care-planning workflows.

Connected healthcare information

Interoperability, terminology, data quality, and provenance help connect analytical work with an organization’s information systems.

Privacy and system governance

Appropriate access, secure handling, auditability, and defined responsibilities are considered throughout the information lifecycle.

Start with your workflow

Tell us who needs the information, the task it supports, and the systems involved. These practical requirements help shape a focused technical discussion.

Explore AI Health
295+

Patents

Intellectual property across medical technology, artificial intelligence, and surgical robotics.

Patents and intellectual property

Innovation built through sustained research.

Our portfolio reflects work across medical AI, predictive health, robotic systems, and intelligent healthcare applications.

Medical artificial intelligence
Predictive healthcare
Surgical robotics
Medical computer vision
Intelligent medical systems
Medical data processing
Explore our intellectual property

Scientific research and publications

Research across the disciplines that shape medicine.

Our scientific work connects medical understanding with AI, robotics, and precision engineering.

01Neurosurgery
02Surgical robotics
03Medical computer vision
04AI in healthcare
05Cardiovascular analytics
06Biomedical engineering

Explore the work behind the technology.

Contact our team to discuss publications and technical materials related to your area of interest, from surgical intelligence and instrumentation to cardiovascular analytics.

Explore scientific research
Connect with our research team

We welcome clinical, academic, and engineering teams with complementary expertise. Tell us about the research question, technology, or application you would like to discuss.

Research collaboration

Work with our team.

We welcome institutions working on medical AI, autonomous surgical robotics, and predictive healthcare.

Bring us your clinical question or engineering challenge. Together, we can define the scope, responsibilities, and practical steps for a focused collaboration.

  • Hospitals and health systems
  • Neurosurgical research centres
  • Pharmaceutical and biotechnology organizations
  • Medical device manufacturers
  • Universities and academic medical centres
  • Medical AI research laboratories

Start a conversation

Good work starts with a conversation.

Tell us what your team is working on and where you see a connection. We’ll help you find the right next step.

Mailing address

68 Water St #401, Vancouver, BC V6B 1A4

Based in

Vancouver, British Columbia, Canada

For business and research inquiries only. For clinical emergencies or patient care, contact your healthcare provider.

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