Healthcare

How to Become a Biomedical Engineering Technologist (Repair and Maintenance of Medical Devices) in Ontario: Salary, Training, and Career Outlook

by Occupations.ca Team
10 min read

Are you curious about a hands-on healthcare career where you fix life-saving equipment and keep hospitals running safely? If you enjoy troubleshooting electronics, talking to clinical staff, and making a visible difference in patient care, becoming a Biomedical Engineering Technologist (Repair and Maintenance of medical devices) in Ontario could be a great fit for you.

Job Description

Biomedical Engineering Technologists in Ontario install, inspect, repair, maintain, and calibrate medical equipment used in hospitals, clinics, and healthcare facilities. You make sure devices like patient monitors, infusion pumps, ventilators, defibrillators, Anesthesia machines, surgical equipment, and imaging systems operate safely and meet strict standards. You also Support users (nurses, physicians, and other clinicians), help manage technology life cycles, and document all work to meet Hospital policies and government regulations.

You may work in:

  • Hospital Clinical/Biomedical Engineering (also called Healthcare Technology Management or HTM)
  • Original Equipment Manufacturers (OEMs) like GE HealthCare, Philips, Siemens Healthineers, Dräger (field service roles)
  • Third‑party service providers and independent service organizations
  • Specialty clinics (dialysis, Cardiology, dental, ophthalmology) and community health centres
  • Government or academic labs supporting medical technology research

Daily work activities

As a Biomedical Engineering Technologist in Ontario, your day usually includes:

  • Responding to service requests from clinical areas (ER, OR, ICU, inpatient units)
  • Troubleshooting device issues at the bedside or in a workshop
  • Performing scheduled preventive maintenance and Safety testing
  • Calibrating equipment with specialized test instruments
  • Verifying devices meet Canadian and international standards
  • Training staff on safe use and basic care of devices
  • Updating the computerized maintenance management system (CMMS)
  • Coordinating with vendors for parts, warranty work, and upgrades
  • Participating in equipment evaluations, acceptance testing, and commissioning
  • Being on-call for urgent after-hours support (common in hospitals)
  • Supporting networked medical devices and Cybersecurity best practices

Main tasks

  • Install, configure, and validate new medical equipment
  • Diagnose faults using service manuals, schematics, and test equipment
  • Perform Electrical safety testing and functional checks
  • Calibrate sensors, actuators, and measurement systems
  • Replace components, assemblies, cables, fuses, and batteries
  • Document work in the CMMS, including parts usage and labour time
  • Maintain spare parts inventory and manage loaner devices
  • Assist with recalls, alerts, and product advisories
  • Support device integration with hospital networks, EMRs, and PACS
  • Follow infection Prevention and control (IPAC) and WHMIS procedures
  • Liaise with clinical leaders, Procurement, IT, and vendors
  • Comply with standards and regulations (e.g., Health Canada Medical Devices, CSA, IEC)
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Required Education

To work as a Biomedical Engineering Technologist in Ontario, most employers look for a college diploma in Biomedical Engineering Technology or a closely related electronics/electromechanical program with healthcare technology courses. Some roles welcome graduates from bachelor’s programs in biomedical or electrical engineering, especially for advanced or Leadership roles.

Diplomas and degrees

  • Certificate (Technician-level): 1–2 years. Suitable for entry into technician roles or to ladder into a 3‑year advanced diploma.
  • College Diploma (Advanced Diploma – Technologist): 3 years. The most common path for Biomedical Engineering Technologists in Ontario.
  • Bachelor’s Degree: 4 years. Useful if you plan to become a clinical engineer, move into R&D, or advance to leadership roles; not required for many technologist jobs.

Typical program content includes electronics, biomedical instrumentation, digital/analog circuits, microcontrollers, sensors, signal processing, networking, medical device regulations, safety standards, human factors, and hands-on labs. Many programs offer co‑op or field placements in hospitals or industry, which are highly valued by employers.

Length of studies

  • Technician certificate or diploma: 1–2 years (2–4 semesters)
  • Advanced diploma (Technologist): 3 years (6 semesters), often with co‑op
  • Bachelor’s degree: 4 years

Where to study? (Ontario)

Colleges offering Biomedical Engineering Technology or closely related programs:

Universities with related bachelor’s programs (helpful for advanced roles or bridging):

  • Toronto Metropolitan University (Toronto) – BEng in Biomedical Engineering
    Website: https://www.torontomu.ca/
  • University of Ottawa (Ottawa) – BASc in Biomedical Mechanical or Biomedical Electrical Engineering
    Website: https://www.uottawa.ca/
  • Carleton University (Ottawa) – Biomedical and Electrical/Mechanical Engineering programs
    Website: https://carleton.ca/

Useful links:

Tip: Many Ontario colleges offer co‑op terms in hospital Clinical Engineering departments. Co‑op experience can significantly improve your job prospects.

Salary and Working Conditions

Salary in Ontario

Salaries vary by setting (hospital vs field service), location, experience, and shift/on‑call requirements.

  • Entry-level (new graduate, hospital or service company): about $55,000–$70,000 per year, often $28–$35 per hour.
  • Mid-career (Technologist with 3–7 years): about $70,000–$90,000 per year; hospital pay grids often fall in the $33–$45 per hour range, plus on‑call or overtime.
  • Senior/Lead/Field Service Specialist: about $85,000–$110,000+, depending on OEM training, modality (e.g., anesthesia, ventilators, imaging), and leadership responsibilities. Field roles may include vehicle allowance, overtime, and Travel pay.

Hospitals often provide strong Benefits, paid vacation, sick leave, and access to the HOOPP pension plan (Healthcare of Ontario Pension Plan): https://hoopp.com/

Service companies and OEMs may offer higher base pay or bonuses, especially with significant travel, on‑call, and after‑hours work.

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Working conditions

  • Work environment: hospital workshops, clinical units, operating rooms, intensive care, outpatient clinics, and sometimes patient rooms.
  • Schedule: typically weekday days, with rotating on‑call for evenings/weekends; some emergencies require immediate response.
  • Physical demands: lifting equipment, moving carts, standing for long periods, occasional ladder/ceiling work for mounts or cabling.
  • Safety: follow IPAC, WHMIS, electrical safety, lockout/tagout, and device Cleaning procedures. Fit testing for N95 respirators is common.
  • Travel: field service technologists travel across regions; hospital technologists usually travel within the facility and between sites within the same hospital network.

Job outlook

Ontario’s demand for Biomedical Engineering Technologists is steady and supported by:

  • Growth in medical technology and connected devices
  • Aging population and expanding healthcare services
  • Regulatory and safety requirements for equipment testing and documentation
  • Replacement cycles and capital investment in hospitals

Official resources:

Key Skills

Soft skills

  • Communication: explain technical issues clearly to clinical staff and leaders
  • Customer Service: respond calmly and respectfully in high‑pressure clinical settings
  • Problem-solving: isolate faults, analyze patterns, and decide next steps quickly
  • Teamwork: work with nurses, physicians, IT, procurement, and vendors
  • Time management: prioritize service calls, preventive maintenance, and projects
  • Accountability: accurate documentation and Compliance with policies and standards
  • Adaptability: learn new technologies and adjust to changing priorities

Hard skills

  • Electronics and instrumentation (analog/digital circuits, sensors, microcontrollers)
  • Troubleshooting and repair using service manuals, schematics, and test equipment
  • Electrical safety testing (e.g., leakage current, ground resistance)
  • Calibration and performance verification of clinical devices
  • Networking basics (TCP/IP), device connectivity, and healthcare data standards (DICOM, HL7) in collaboration with IT
  • Cybersecurity awareness for medical devices (patching, hardening, asset control)
  • CMMS use (asset management, work orders, PM Scheduling, parts)
  • Understanding of standards and regulations (e.g., IEC 60601 series, CSA Z32, Health Canada Medical Devices Regulations)
  • Soldering, crimping, cable management, and mechanical assembly
  • Reading technical English; writing clear service reports
  • Vendor-specific training (OEM courses for anesthesia, ventilators, monitors, imaging peripherals)

Credentials that can boost your profile:

Advantages and Disadvantages

Advantages

  • Direct impact on patient safety and care quality
  • Stable employment in Ontario’s large hospital network
  • Variety of work: each day brings new challenges and technologies
  • Strong teamwork and collaboration with clinical professionals
  • Excellent benefits and pensions in many hospital roles (e.g., HOOPP)
  • Opportunities to specialize (anesthesia, Ventilation, dialysis, lab analyzers, imaging peripherals) or move into leadership/HTM management
  • Transferable skills across Canada and to OEM/service roles

Disadvantages

  • On‑call and after-hours work can affect work‑life balance
  • Exposure to biohazards, bodily fluids, and infectious diseases (with proper PPE and training)
  • Physical work: lifting, moving equipment, working in tight spaces
  • Documentation and compliance workload is significant and non‑negotiable
  • Technology changes quickly; ongoing training is essential
  • Travel can be extensive for field service roles
  • Some devices are vendor-locked; obtaining OEM training and parts can be challenging
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Expert Opinion

If you are a hands-on problem solver who likes helping people, this career is rewarding and practical. In Ontario hospitals, clinical teams rely on Biomedical Engineering Technologists every day. Your calm approach during equipment issues can directly support urgent care. Employers value graduates who have completed co‑op terms in Clinical Engineering, can explain repairs clearly, and understand both electronics and clinical workflows.

My advice:

  • Choose a program with co‑op or internships and aim for a hospital placement.
  • Learn how to document thoroughly in a CMMS—accuracy matters.
  • Build a foundation in electrical safety, networking basics, and standards like IEC 60601.
  • Start broad, then specialize in a modality you enjoy (e.g., anesthesia, ventilation, patient monitoring, dialysis).
  • Consider OACETT certification early. It helps demonstrate professionalism in Ontario.
  • Be approachable with clinical staff. Communication is as important as technical skill.

FAQ

What is the difference between a Biomedical Engineering Technician, Technologist, and a Clinical Engineer in Ontario?

  • Technician: usually a 1–2 year certificate/diploma; handles routine maintenance, basic repairs, and support tasks under Supervision.
  • Technologist: typically a 3‑year advanced diploma; performs complex troubleshooting, calibrations, commissioning, and may lead projects and training.
  • Clinical Engineer: generally holds a bachelor’s or master’s in engineering; focuses on technology planning, risk management, integration, and leadership. Clinical Engineers often collaborate closely with Technologists in hospital HTM teams.

Do I need professional certification or a licence to work as a Biomedical Engineering Technologist in Ontario?

This is not a regulated health profession in Ontario. A licence is not required. However, certification through OACETT (C.Tech/C.E.T.) is highly respected and can improve your job prospects: https://www.oacett.org/
Many employers also value CBET or other AAMI credentials, and membership or involvement with CMBES.

What standards and regulations should I know for medical device maintenance in Ontario?

Be familiar with:

Are there good co‑op or placement opportunities in Ontario, and how do I make the most of them?

Yes. Many Ontario colleges partner with hospitals and service providers. To stand out:

  • Request rotations through different clinical units (ICU, OR, dialysis, imaging support) to broaden your skills.
  • Keep meticulous service notes and logs—ask for feedback on your documentation.
  • Volunteer for acceptance testing and inventory projects to learn CMMS workflows.
  • Ask to shadow vendor technicians during complex repairs to understand OEM processes.
  • Treat the placement like a long interview; professionalism can lead to job offers.

I’m internationally trained in electronics/biomedical engineering. How can I enter this field in Ontario?

Many internationally trained professionals transition successfully. Steps to consider:

  • Take a targeted Ontario college course or bridging modules in Biomedical Engineering Technology to learn Canadian standards and healthcare practices.
  • Seek volunteer or co‑op opportunities in hospital Clinical Engineering departments to gain local experience.
  • Join CMBES and attend Ontario events to build your network: https://www.cmbes.ca/
  • Consider OACETT certification to validate your credentials locally: https://www.oacett.org/
  • Emphasize experience with IEC/CSA standards, CMMS, and vendor training when applying.

By choosing the Biomedical Engineering Technologist path in Ontario, you will develop a strong mix of technical, clinical, and communication skills. You will keep critical medical devices safe and reliable—work that truly matters every day.

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