B.S.
Biomedical Engineering Technology
A 105-credit bachelor's degree that builds on the Biomedical Engineering Technology A.A.S. Ten upper-level courses cover physiological signal processing, imaging physics, healthcare interoperability, clinical engineering management, quality and risk management, life support systems, device design and human factors, failure analysis, project management, and a senior capstone.
Outcomes
What you will be able to do
- 01Analyze physiological signals and imaging systems
- 02Manage medical equipment programs and budgets
- 03Apply quality and risk management standards
- 04Lead healthcare technology projects
Careers
Where graduates work
- Senior biomedical equipment technician (BMET II/III)
- Clinical engineering supervisor
- Healthcare technology manager
Curriculum
Term 1
Introduction to Biomedical Equipment Technology
This foundational course introduces students to the essential aspects of biomedical equipment technology, preparing them for a career as a biomedical equipment technician (BMET). It covers the core responsibilities, operational environments, and critical processes involved in managing and maintaining medical technology.
DC Circuit Analysis
Ohm's law, Kirchhoff's laws, series-parallel networks, network theorems.
Electronics Lab Practices
Virtual lab orientation, measurement technique, safety, DMM and bench power supply simulation.
Technical Algebra & Trigonometry
Applied math for phasors, ratios, and circuit problem solving.
Term 2
Anatomy and Physiology for Technicians
This course provides a foundational understanding of human anatomy and physiology, specifically focusing on systems critical for medical device function and interpretation. Students will learn the structure and function of the cardiovascular, respiratory, nervous, and renal systems to better support and troubleshoot related technical equipment.
AC Circuit Analysis
Sinusoids, reactance, impedance, resonance, transformers, power factor.
Test & Measurement Instrumentation
Oscilloscopes, function generators, spectrum basics, measurement uncertainty.
Technical Writing
Lab reports, specifications, and documentation for engineering teams.
Term 3
Medical Device Safety, Standards and Regulation
This course provides essential knowledge of medical device safety, regulatory requirements, and quality assurance principles for technicians. It covers electrical safety standards, device classification, adverse event reporting, and fundamental quality concepts relevant to healthcare technology.
Semiconductor Devices
Diodes, BJTs, MOSFETs, biasing, small-signal models, thermal limits.
Digital Logic Fundamentals
Boolean algebra, combinational and sequential logic, counters, state machines.
Applied Calculus Concepts
Rates of change, integrals, and transients as used in circuit behavior.
Term 4
Analog Circuit Design
Op-amps, filters, oscillators, instrumentation amplifiers, noise.
Microcontrollers & Embedded C
ARM Cortex-M programming, GPIO, timers, interrupts, ADC, serial buses.
Applied Physics for Electronics
Electromagnetism, energy, and materials behavior in electronic systems.
Term 5
Physiological Signal Processing
This course explores the fundamental principles and practical applications of processing physiological signals, focusing on the acquisition, conditioning, and analysis of biopotential measurements. Students will gain expertise in amplifier design, signal filtering, and digital sampling techniques crucial for biomedical instrumentation.
Medical Imaging Physics and Systems
This course provides an in-depth understanding of the fundamental physics and operational principles behind major medical imaging modalities. It is tailored for engineering students to analyze and design components and systems used in diagnostic imaging.
Industrial Controls & PLCs
Ladder logic, sensors, actuators, motor control, process loops.
Power Electronics & Motor Drives
Rectifiers, converters, inverters, switching regulators, protection.
Data Communications & Networking
Signal integrity, serial protocols, Ethernet, industrial networks, IoT links.
Term 6
Healthcare Networks and Interoperability
This course explores the foundational principles and practical applications of networked systems within healthcare environments, focusing on data exchange standards and device interoperability. Students will gain expertise in securing medical device networks and understanding the challenges of integrating diverse healthcare technologies.
Clinical Engineering Management
This course provides a comprehensive overview of clinical engineering management principles, focusing on the strategic administration of healthcare technology. Students will learn the essential processes for managing medical equipment throughout its lifecycle, optimizing operations, and ensuring patient safety.
Quality Systems and Risk Management
This course provides an in-depth exploration of quality management systems and risk management principles, with a focus on their application in safety-critical industries. Students will master key international standards, root cause analysis techniques, and corrective and preventive actions.
Biomedical Equipment Practicum Capstone
This capstone practicum integrates advanced troubleshooting skills across interconnected biomedical equipment, including patient monitors, infusion devices, and diagnostic imaging systems. Students will apply professional practices to resolve complex technical challenges in a simulated healthcare environment.
PCB Design & Prototyping
Schematic capture, layout rules, DFM, bring-up and rework.
Troubleshooting & Reliability
Fault trees, root-cause analysis, calibration, preventive maintenance.
Capstone Project
Design, build, document, and defend a working electronic system.
Term 7
Life Support and Critical Care Systems
This course provides a comprehensive, systems-level understanding of advanced life support and critical care technologies. Students will explore the operational principles, design considerations, and clinical applications of these essential medical devices.
Medical Device Design and Human Factors
This course provides a comprehensive study of the design and development processes for medical devices, emphasizing regulatory compliance and human-centered design principles. Students will gain practical experience in applying design controls, usability engineering, and rigorous verification and validation techniques to ensure device safety and effectiveness.
Advanced Troubleshooting and Failure Analysis
This course provides comprehensive training in advanced fault isolation techniques and board-level repair strategies for complex electronic systems. Students will master systematic troubleshooting methodologies, statistical failure analysis, and practical repair skills to resolve intricate technical issues.
Term 8
Healthcare Technology Project Management
This course provides a comprehensive overview of project management principles specifically tailored for capital projects involving advanced technology in healthcare settings. Students will learn critical skills for planning, executing, and closing complex technology initiatives from inception to operational readiness.
Biomedical Engineering Technology Senior Capstone
This capstone course culminates the biomedical engineering technology curriculum, challenging students to execute a complete equipment program project from initial assessment through final reporting. It integrates all previously acquired knowledge and skills into a comprehensive, real-world application.
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