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Biomedical Engineer Jobs in Salem, OR (NOW HIRING)

Actalent

Quality Engineer

Mcminnville, OR · Hybrid

$73K - $94K/yr

NPI Engineer (Hybrid Quality & Engineering Role) This NPI Engineer role is a hybrid quality and engineering position focused on building robust quality structures upfront for new parts. Working a ...

Garmin International, Inc.

Quality Engineer 1

Salem, OR · On-site

$71K - $91K/yr

Overview We are seeking a full-time Quality Engineer 1 in our Salem, OR location. In this role, you will be responsible for understanding and implementing basic quality tools and methods and ...

A-dec, Inc.

AI Engineer, Sr

Newberg, OR

$109K - $150K/yr

Overview The AI Engineer, Sr plays a key role in building and scaling applied artificial intelligence capabilities across the organization. This role focuses on delivering practical AI solutions that ...

A-dec, Inc.

AI Engineer, Sr

Newberg, OR · On-site

$109K - $150K/yr

Overview The AI Engineer, Sr plays a key role in building and scaling applied artificial intelligence capabilities across the organization. This role focuses on delivering practical AI solutions that ...

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All JobsBiomedical Engineer JobsBiomedical Engineer Jobs in Salem, OR

Biomedical Engineer information

See Salem, OR salary details

$41.3K

$95.4K

$140.9K

How much do biomedical engineer jobs pay per year?

As of Aug 31, 2026, the average yearly pay for biomedical engineer in Salem, OR is $95,403.00, according to ZipRecruiter salary data. Most workers in this role earn between $75,000.00 and $116,700.00 per year, depending on experience, location, and employer.

What is a biomedical engineer?

Biomedical engineers are professionals who apply principles of engineering and biological sciences to design, develop, and maintain equipment, devices, computer systems, and software used in healthcare. They work to improve the quality and effectiveness of patient care by creating technologies such as artificial organs, medical imaging devices, and prosthetics. Biomedical engineers often collaborate with doctors, researchers, and other engineers to solve clinical problems and advance medical technology. Their work can be found in hospitals, research facilities, manufacturing companies, and regulatory agencies.

What do biomedical engineers do?

A Biomedical Engineer is an expert in the fields of medicine and biological sciences. They use their extensive knowledge base to develop different kinds of equipment and devices with the end goal of improving the effectiveness of patient care. Biomedical Engineers are critical thinkers and analysts. Their time is spent brainstorming solutions to medical problems and designing new devices, such as diagnostic machinery and even equipment for artificial body part generation. It is the job of a Biomedical Engineer to maintain the equipment they develop and to train other clinicians on proper usage and upkeep. In addition to the hands-on aspect of this career, Biomedical Engineers also dedicate time to researching medical dilemmas, studying up on biological discoveries, and assisting in the development of new scientific advances.

What are the key skills and qualifications needed to thrive as a biomedical engineer, and why are they important?

To thrive as a Biomedical Engineer, you need a solid background in biology, engineering principles, mathematics, and often at least a bachelor's degree in biomedical engineering or a related field. Familiarity with CAD software, medical imaging systems, and regulatory standards such as FDA guidelines is typically required. Strong problem-solving, communication, and teamwork skills help you collaborate with healthcare professionals and translate technical solutions into clinical practice. These competencies are crucial for developing safe, effective medical devices and technologies that improve patient outcomes.

What are some common challenges biomedical engineers face when working on interdisciplinary teams?

Biomedical engineers frequently collaborate with professionals from diverse backgrounds, including clinicians, software developers, and regulatory specialists. One common challenge is effectively communicating technical concepts to non-engineers and aligning project goals across disciplines. Navigating differing priorities and timelines can also require strong project management and interpersonal skills. Emphasizing clear communication and a willingness to learn from other fields helps biomedical engineers successfully contribute to innovative healthcare solutions.

What is the difference between Biomedical Engineer vs Mechanical Engineer?

AspectBiomedical EngineerMechanical Engineer
Required CredentialsBachelor's in Biomedical Engineering or related field; often licensed or certifiedBachelor's in Mechanical Engineering; licensure varies by role
Work EnvironmentHospitals, medical device companies, research labsManufacturing, automotive, aerospace, research facilities
Industry UsageHealthcare, medical device development, biotechAutomotive, aerospace, energy, manufacturing

Biomedical Engineers focus on designing and improving medical devices and healthcare solutions, working mainly in healthcare settings. Mechanical Engineers have a broader scope, working on machinery, systems, and products across various industries. While both roles require engineering degrees, their work environments and industry applications differ significantly.

Do biomedical engineers get paid a lot?

Biomedical engineers typically earn competitive salaries that vary based on experience, education, and location. According to industry data, the median annual wage is around $90,000, with higher earnings possible for those with advanced degrees or specialized skills in medical device design or research. The profession often requires knowledge of engineering principles, biology, and medical technology.

What type of jobs do biomedical engineers do?

Biomedical engineers design and develop medical devices, equipment, and software used in healthcare, such as imaging systems, prosthetics, and diagnostic tools. They often work in research labs, hospitals, or manufacturing environments, applying engineering principles to improve patient care and medical technology. Strong knowledge of biology, engineering, and computer skills are essential for these roles.
More about Biomedical Engineer jobs

What are the most commonly searched types of Biomedical Engineer jobs in Salem, OR?

The most popular types of Biomedical Engineer jobs in Salem, OR are:

What job categories do people searching Biomedical Engineer jobs in Salem, OR look for?

The top searched job categories for Biomedical Engineer jobs in Salem, OR are:

What cities near Salem, OR are hiring for Biomedical Engineer jobs?

Cities near Salem, OR with the most Biomedical Engineer job openings:

Biomedical Engineer jobs near you
Infographic showing various Biomedical Engineer job openings in Salem, OR as of August 2026, with employment types broken down into 89% Full Time, 6% Part Time, and 5% Contract. Highlights an 88% Physical, 4% Hybrid, and 8% Remote job distribution, with an average salary of $95,403 per year, or $45.9 per hour.

SR MANUFACTURING ENGINEER - TUBING-Wilsonville,Oregon

TE Connectivity

Scotts Mills, OR

$102K - $153K/yr

Full-time

Medical, Life, Retirement, PTO

Posted 6 days ago

TE Connectivity rating

7.6

Company rating: 7.6 out of 10

Based on 72 frontline employees who took The Breakroom Quiz

85th of 159 rated electronics manufacturers

Job description

At TE, you will unleash your potential working with people from diverse backgrounds and industries to create a safer, sustainable and more connected world.
Job Description:
Job Overview
Responsible for the design, development, validation, transfer, optimization, and sustained performance of polymer extrusion and downstream manufacturing processes used to produce medical tubing, catheter components, and medical heat-shrink products. The Senior Manufacturing Engineer will apply advanced knowledge of polymer materials, rheology, extrusion, thermal processing, heat-shrink expansion and recovery, and material-process-property relationships to develop stable, repeatable, and scalable manufacturing processes. The position will provide technical direction for new product introduction, manufacturing transfers, process troubleshooting, equipment and tooling development, process validation, and continuous improvement. This position works under general direction and exercises independent technical judgment when resolving complex manufacturing problems. The Senior Manufacturing Engineer will collaborate with Operations, Quality, Maintenance, Research and Development, Supply Chain, EHS, suppliers, customers, and other manufacturing sites. The individual may also train and coach operators, technicians, and less-experienced engineers.
Job Requirements
  • Lead the design, development, characterization, and optimization of polymer extrusion processes for tight-tolerance medical tubing and catheter-related components.
  • Develop and improve downstream manufacturing processes associated with medical heat-shrink tubing,
  • Develop a scientific understanding of the relationship between polymer properties, material condition, equipment configuration, tooling design, and process parameters.
  • Support the selection and evaluation of polymers used in medical tubing and heat-shrink applications, including PEBAX, nylon, polyurethane, polyethylene, other polyolefins, FEP, PFA, and related medical-grade materials.
  • Coordinate or perform testing of polymer materials and finished products.
  • Lead structured troubleshooting of extrusion and downstream manufacturing issues, including dimensional instability, wall-thickness variation, concentricity variation, surface defects, gels, contamination, pinholes, die lines, line breaks, surging, melt fracture, material degradation, expansion blowouts, slacking, uneven expansion, and recovery failures.
  • Apply engineering fundamentals, polymer science, rheology, heat transfer, statistical analysis, and equipment knowledge to differentiate material-, machine-, tooling-, method-, measurement-, and operator-related causes.
  • Lead root-cause investigations using appropriate methodologies such as DMAIC, A3, 8D, Design of Experiments, fishbone analysis, fault-tree analysis, and five-why analysis.
  • Develop, implement, and verify corrective and preventive actions associated with nonconformances, CAPAs, audit findings, manufacturing deviations, and customer complaints.
  • Plan, author, execute, and report equipment and process qualification activities, including Installation Qualification, Operational Qualification, and Performance Qualification.
  • Develop statistically and scientifically justified validation strategies, sampling plans, acceptance criteria, and process-capability requirements.
  • Execute or support Test Method Validation and measurement-system analysis for dimensional, mechanical, thermal, visual, and functional inspection methods.
  • Lead or support the transfer of products, equipment, tooling, and manufacturing technology between facilities.
  • Create and maintain Process Development Reports, technical reports, process specifications, setup sheets, Technical Instructions, work instructions, PFMEAs, control plans, validation protocols, validation reports, and troubleshooting guides.
  • Apply Design of Experiments, Statistical Process Control, process-capability analysis, regression, hypothesis testing, and other statistical methods using Minitab or equivalent software.
  • Identify and implement opportunities to improve safety, first-pass yield, process capability, throughput, labor efficiency, material utilization, equipment effectiveness, lead time, delivery performance, and Cost of Poor Quality.
  • Provide technical training and coaching to operators, technicians, and engineers on equipment setup, material behavior, process controls, troubleshooting, and standardized work.
  • Translate individual and subject-matter-expert knowledge into controlled, repeatable, and transferable manufacturing knowledge through written procedures, technical reports, images, videos, training materials, and practical demonstrations.

What your background should look like
  • Bachelor's degree in Polymer Engineering, Plastics Engineering, Materials Science and Engineering, Mechanical Engineering, Chemical Engineering, Manufacturing Engineering, Biomedical Engineering, or a related engineering discipline, with at least five years of relevant experience; or
  • Master's degree in a related engineering discipline with at least three years of relevant experience; or
  • Doctoral degree in a related engineering discipline; or
  • An equivalent combination of education and directly relevant technical experience.
  • Demonstrated hands-on experience developing, optimizing, or sustaining polymer extrusion processes.
  • Experience applying polymer rheology and material-property-processing relationships to manufacturing problems.
  • Experience with process validation, including IQ, OQ, and PQ activities.
  • Experience with Design of Experiments, Statistical Process Control, process capability, PFMEA, and root-cause analysis.
  • Experience investigating manufacturing nonconformances and implementing corrective actions.
  • Experience authoring technical reports, manufacturing instructions, validation documentation, and controlled specifications.
  • Working knowledge of ISO 13485, cGMP, and applicable medical-device quality-system requirements.
  • Proficiency with statistical analysis software such as Minitab.
  • Ability to work independently, manage multiple technical priorities, and lead cross-functional projects.
  • Strong written, verbal, analytical, and technical-presentation skills.

Competencies
Values: Integrity, Accountability, Inclusion, Innovation, Teamwork
ABOUT TE CONNECTIVITY
TE Connectivity plc (NYSE: TEL) is a global industrial technology leader creating a safer, sustainable, productive, and connected future. As a trusted innovation partner, our broad range of connectivity and sensor solutions enable the distribution of power, signal and data to advance next-generation transportation, energy networks, automated factories, data centers enabling artificial intelligence, and more.
Our more than 90,000 employees, including 10,000 engineers, work alongside customers in approximately 130 countries. In a world that is racing ahead, TE ensures that EVERY CONNECTION COUNTS. Learn more at www.te.com and on LinkedIn, Facebook, WeChat, Instagram and X (formerly Twitter).
COMPENSATION
• Competitive base salary commensurate with experience: $102,500 - $153,800 (subject to change dependent on physical location)
• Posted salary ranges are made in good faith. TE Connectivity reserves the right to adjust ranges depending on the experience/qualification of the selected candidate as well as internal and external equity.
• Total Compensation = Base Salary + Incentive(s) + Benefits
BENEFITS
• A comprehensive benefits package including health insurance, 401(k), disability, life insurance, employee stock purchase plan, paid time off and voluntary benefits.
EOE, Including Disability/Vets
IMPORTANT NOTICE REGARDING RECRUITMENT FRAUD
TE Connectivity has become aware of fraudulent recruitment activities being conducted by individuals or organizations falsely claiming to represent TE Connectivity. Please be advised that TE Connectivity never requests payment or fees from job applicants at any stage of the recruitment process. All legitimate job openings are posted exclusively on our official careers website at te.com/careers, and all email communications from our recruitment team will come only from actual email addresses ending in @te.com. If you receive any suspicious communications, we strongly advise you not to engage or provide any personal information, and to report the incident to your local authorities.

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