Hardware & Health Technology Engineering
Designs, develops, and validates physical hardware and electronics for health technology and medical devices — spanning schematic capture, PCB layout, circuit design, embedded systems, power architecture, and EMI/EMC. Distinct from firmware/software focuses (which own embedded code and integration logic) and from regulatory/quality focuses (which own QMS and submissions); this focus owns the physical electronic design through compliance with medical electrical safety standards such as IEC 60601-1.
19 leveled profiles. Pick a level to see the full profile.
Individual contributor
Designs, develops, and validates physical hardware and electronics for health technology and medical devices — spanning schematic capture, PCB layout, circuit design, embedded systems, power architecture, and EMI/EMC. Distinct from firmware/software focuses (which own embedded code and integration logic) and from regulatory/quality focuses (which own QMS and submissions); this focus owns the physical electronic design through compliance with medical electrical safety standards such as IEC 60601-1.
Optical Engineering — design, simulation, tolerancing, and validation of optical imaging systems (lenses, sensors, and imaging assemblies). Distinct from sibling electrical, mechanical, or firmware focuses: this focus centers on ray-tracing/optical design software (Zemax, Code V, LightTools), optical physics (diffraction, aberration theory, Fourier optics), image-quality metrics (MTF/PSF, radiometry, photometry), and hands-on lab characterization with interferometers, collimators, and test benches to guarantee end-to-end optical performance.
Optical Engineering — design, simulation, tolerancing, and validation of optical imaging systems (lenses, sensors, and imaging assemblies). Distinct from sibling electrical, mechanical, or firmware focuses: this focus centers on ray-tracing/optical design software (Zemax, Code V, LightTools), optical physics (diffraction, aberration theory, Fourier optics), image-quality metrics (MTF/PSF, radiometry, photometry), and hands-on lab characterization with interferometers, collimators, and test benches to guarantee end-to-end optical performance.
Designs, develops, and validates physical hardware and electronics for health technology and medical devices — spanning schematic capture, PCB layout, circuit design, embedded systems, power architecture, and EMI/EMC. Distinct from firmware/software focuses (which own embedded code and integration logic) and from regulatory/quality focuses (which own QMS and submissions); this focus owns the physical electronic design through compliance with medical electrical safety standards such as IEC 60601-1.
Designs, develops, and validates physical hardware and electronics for health technology and medical devices — spanning schematic capture, PCB layout, circuit design, embedded systems, power architecture, and EMI/EMC. Distinct from firmware/software focuses (which own embedded code and integration logic) and from regulatory/quality focuses (which own QMS and submissions); this focus owns the physical electronic design through compliance with medical electrical safety standards such as IEC 60601-1.
Optical Engineering — design, simulation, tolerancing, and validation of optical imaging systems (lenses, sensors, and imaging assemblies). Distinct from sibling electrical, mechanical, or firmware focuses: this focus centers on ray-tracing/optical design software (Zemax, Code V, LightTools), optical physics (diffraction, aberration theory, Fourier optics), image-quality metrics (MTF/PSF, radiometry, photometry), and hands-on lab characterization with interferometers, collimators, and test benches to guarantee end-to-end optical performance.
Designs, develops, and validates physical hardware and electronics for health technology and medical devices — spanning schematic capture, PCB layout, circuit design, embedded systems, power architecture, and EMI/EMC. Distinct from firmware/software focuses (which own embedded code and integration logic) and from regulatory/quality focuses (which own QMS and submissions); this focus owns the physical electronic design through compliance with medical electrical safety standards such as IEC 60601-1.
Optical Engineering — design, simulation, tolerancing, and validation of optical imaging systems (lenses, sensors, and imaging assemblies). Distinct from sibling electrical, mechanical, or firmware focuses: this focus centers on ray-tracing/optical design software (Zemax, Code V, LightTools), optical physics (diffraction, aberration theory, Fourier optics), image-quality metrics (MTF/PSF, radiometry, photometry), and hands-on lab characterization with interferometers, collimators, and test benches to guarantee end-to-end optical performance.
Designs, develops, and validates physical hardware and electronics for health technology and medical devices — spanning schematic capture, PCB layout, circuit design, embedded systems, power architecture, and EMI/EMC. Distinct from firmware/software focuses (which own embedded code and integration logic) and from regulatory/quality focuses (which own QMS and submissions); this focus owns the physical electronic design through compliance with medical electrical safety standards such as IEC 60601-1.
Optical Engineering — design, simulation, tolerancing, and validation of optical imaging systems (lenses, sensors, and imaging assemblies). Distinct from sibling electrical, mechanical, or firmware focuses: this focus centers on ray-tracing/optical design software (Zemax, Code V, LightTools), optical physics (diffraction, aberration theory, Fourier optics), image-quality metrics (MTF/PSF, radiometry, photometry), and hands-on lab characterization with interferometers, collimators, and test benches to guarantee end-to-end optical performance.
Optical Engineering — design, simulation, tolerancing, and validation of optical imaging systems (lenses, sensors, and imaging assemblies). Distinct from sibling electrical, mechanical, or firmware focuses: this focus centers on ray-tracing/optical design software (Zemax, Code V, LightTools), optical physics (diffraction, aberration theory, Fourier optics), image-quality metrics (MTF/PSF, radiometry, photometry), and hands-on lab characterization with interferometers, collimators, and test benches to guarantee end-to-end optical performance.
Designs, develops, and validates physical hardware and electronics for health technology and medical devices — spanning schematic capture, PCB layout, circuit design, embedded systems, power architecture, and EMI/EMC. Distinct from firmware/software focuses (which own embedded code and integration logic) and from regulatory/quality focuses (which own QMS and submissions); this focus owns the physical electronic design through compliance with medical electrical safety standards such as IEC 60601-1.
Designs, develops, and validates physical hardware and electronics for health technology and medical devices — spanning schematic capture, PCB layout, circuit design, embedded systems, power architecture, and EMI/EMC. Distinct from firmware/software focuses (which own embedded code and integration logic) and from regulatory/quality focuses (which own QMS and submissions); this focus owns the physical electronic design through compliance with medical electrical safety standards such as IEC 60601-1.
Optical Engineering — design, simulation, tolerancing, and validation of optical imaging systems (lenses, sensors, and imaging assemblies). Distinct from sibling electrical, mechanical, or firmware focuses: this focus centers on ray-tracing/optical design software (Zemax, Code V, LightTools), optical physics (diffraction, aberration theory, Fourier optics), image-quality metrics (MTF/PSF, radiometry, photometry), and hands-on lab characterization with interferometers, collimators, and test benches to guarantee end-to-end optical performance.
Management
Leads engineering teams developing medical devices and health technology from concept through regulatory approval, market launch, and post-market lifecycle management. Distinct from general hardware/electronics focuses through its grounding in medical device design controls (ISO 13485, FDA 21 CFR 820.30), risk management (ISO 14971), software lifecycle (IEC 62304), and electrical/usability standards (IEC 60601-1, IEC 62366). Managers in this focus own regulatory strategy, verification/validation, biocompatibility/sterilization/packaging constraints, and structured collaboration with clinical, regulatory, and manufacturing teams — alongside team leadership, mentorship, project plans, and budgets — using engineering and analysis tools such as SolidWorks, AutoCAD, Pro/Engineer, Mathcad, MATLAB, LabVIEW, Zuken, Minitab, SAS, three-dimensional motion capture software, and Microsoft Project.
Leads engineering teams developing medical devices and health technology from concept through regulatory approval, market launch, and post-market lifecycle management. Distinct from general hardware/electronics focuses through its grounding in medical device design controls (ISO 13485, FDA 21 CFR 820.30), risk management (ISO 14971), software lifecycle (IEC 62304), and electrical/usability standards (IEC 60601-1, IEC 62366). Managers in this focus own regulatory strategy, verification/validation, biocompatibility/sterilization/packaging constraints, and structured collaboration with clinical, regulatory, and manufacturing teams — alongside team leadership, mentorship, project plans, and budgets — using engineering and analysis tools such as SolidWorks, AutoCAD, Pro/Engineer, Mathcad, MATLAB, LabVIEW, Zuken, Minitab, SAS, three-dimensional motion capture software, and Microsoft Project.
Leads engineering teams developing medical devices and health technology from concept through regulatory approval, market launch, and post-market lifecycle management. Distinct from general hardware/electronics focuses through its grounding in medical device design controls (ISO 13485, FDA 21 CFR 820.30), risk management (ISO 14971), software lifecycle (IEC 62304), and electrical/usability standards (IEC 60601-1, IEC 62366). Managers in this focus own regulatory strategy, verification/validation, biocompatibility/sterilization/packaging constraints, and structured collaboration with clinical, regulatory, and manufacturing teams — alongside team leadership, mentorship, project plans, and budgets — using engineering and analysis tools such as SolidWorks, AutoCAD, Pro/Engineer, Mathcad, MATLAB, LabVIEW, Zuken, Minitab, SAS, three-dimensional motion capture software, and Microsoft Project.
Leads engineering teams developing medical devices and health technology from concept through regulatory approval, market launch, and post-market lifecycle management. Distinct from general hardware/electronics focuses through its grounding in medical device design controls (ISO 13485, FDA 21 CFR 820.30), risk management (ISO 14971), software lifecycle (IEC 62304), and electrical/usability standards (IEC 60601-1, IEC 62366). Managers in this focus own regulatory strategy, verification/validation, biocompatibility/sterilization/packaging constraints, and structured collaboration with clinical, regulatory, and manufacturing teams — alongside team leadership, mentorship, project plans, and budgets — using engineering and analysis tools such as SolidWorks, AutoCAD, Pro/Engineer, Mathcad, MATLAB, LabVIEW, Zuken, Minitab, SAS, three-dimensional motion capture software, and Microsoft Project.
Leads engineering teams developing medical devices and health technology from concept through regulatory approval, market launch, and post-market lifecycle management. Distinct from general hardware/electronics focuses through its grounding in medical device design controls (ISO 13485, FDA 21 CFR 820.30), risk management (ISO 14971), software lifecycle (IEC 62304), and electrical/usability standards (IEC 60601-1, IEC 62366). Managers in this focus own regulatory strategy, verification/validation, biocompatibility/sterilization/packaging constraints, and structured collaboration with clinical, regulatory, and manufacturing teams — alongside team leadership, mentorship, project plans, and budgets — using engineering and analysis tools such as SolidWorks, AutoCAD, Pro/Engineer, Mathcad, MATLAB, LabVIEW, Zuken, Minitab, SAS, three-dimensional motion capture software, and Microsoft Project.