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Engineer · Inventor · Founder

Jonathan Azevedo

Founder and CEO, Outer Reef Technologies · Co-founder and CTO, Hyperion Surgical

Jonathan builds multidisciplinary systems where robotics, medical devices, motor control, software and real-world product constraints meet.

Jonathan Azevedo speaking at an industry event
Engineering founder and multidisciplinary product leader

Executive profile

Engineering leadership grounded in rigor, service and responsibility.

Jonathan Azevedo has built his career around engineering work that carries a high degree of technical responsibility. Trained in mechanical engineering and robotics at the University of Florida, he works across the boundaries where mechanics, electronics and embedded systems, software, controls and manufacturing must operate as one dependable product.

He founded Outer Reef Technologies to give organizations a thoughtful, technically rigorous partner for complex development programs. His leadership emphasizes clear requirements, candid communication, measured evidence and respect for the people who will ultimately build, use and depend on the system. The objective is not simply to produce a design, but to leave a client with sounder decisions, lower technical uncertainty and a product architecture that can withstand scrutiny.

As co-founder and chief technology officer of Hyperion Surgical, Jonathan helps advance robotics, imaging and intelligent medical-device development for difficult vascular access. His public invention record also spans robotic vascular access, orthopedic implant positioning and intelligent consumer products, reflecting a career devoted to translating difficult physical problems into practical systems.

That same sense of responsibility shaped Outer Reef's Project Omnis response during the COVID-19 emergency, when the company shared an open ventilator concept based on accessible components. Across commercial programs and public-interest work alike, Jonathan's approach remains consistent: listen carefully, make tradeoffs visible, test the assumptions that matter and hold engineering decisions accountable to real-world outcomes.

Selected accomplishments

Engineering leadership with a public record.

01

Built Outer Reef Technologies

Established a multidisciplinary engineering company spanning robotics, medical devices, motor control and product development, with technical decisions kept connected from requirements through verification.

Explore the company
02

Co-founded Hyperion Surgical

Serves as CTO of a medical-robotics company developing systems for difficult vascular access, integrating robotics, imaging, controls and clinical workflow.

View Hyperion leadership
03

Advanced an open ventilator response

Led Outer Reef's Project Omnis response in 2020, publishing an open-source ventilator concept designed around accessible components during the COVID-19 emergency.

Read the independent announcement
04

Invented across product categories

Named on published United States patent records covering robotic vascular access, orthopedic implant positioning and an intelligent pet-crate system.

Review the inventor index

Areas of work

Connected engineering disciplines

01

Robotics

System architecture, mechanisms, controls, sensing, software integration and verification for machines that interact with the physical world.

02

Medical devices

Multidisciplinary development that keeps product architecture, risk controls, design evidence and manufacturing transfer connected.

03

Motor control

BLDC controller architecture shaped by the motor, load, power source, operating environment, interfaces and measurable system requirements.

04

Product engineering

Requirements, architecture, prototyping, integration and verification across the full product rather than isolated technical tasks.

Speaking and media

A systems perspective for technical audiences.

Jonathan is available for engineering discussions, contributed articles, podcasts and events focused on robotics, medical devices, motor control and building multidisciplinary product teams.

  • Designing motor-control systems from the mission profile backward
  • Engineering evidence and risk in medical-device development
  • Robotics architecture across mechanics, controls and software
  • Moving complex products from prototype to production