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Mechanical Engineering Prosthetics Jobs (NOW HIRING)

Engineer Mech III (1956)

Swainsboro, GA · On-site

$66K - $83K/yr

Must possess sight and hearing senses or use prosthetics that will enable these sources to function adequately so that the requirements of this position can be fully met. * Use of mechanical and ...

... prosthetics, and instruments to market. In this role, you will participate in the following ... EDUCATION and/or EXPERIENCE: * Bachelor's degree in Mechanical Engineering or Biomedical ...

Who We Are We are a dental prosthetics manufacturing organization committed to operational ... Mechanical, Industrial, Manufacturing, or related Engineering field * Basic understanding of ...

R&D Technician

Dublin, OH · On-site

$17.25 - $23.75/hr

... prosthetic devices, and modify parts as needed. The technician will support multiple R&D engineers across projects while reporting directly to the Lead Engineer. Mechanical aptitude and interest in ...

... prosthetic devices, and modify parts as needed. The technician will support multiple R&D engineers across projects while reporting directly to the Lead Engineer. Mechanical aptitude and interest in ...

... prosthetic devices, and modify parts as needed. The technician will support multiple R&D engineers across projects while reporting directly to the Lead Engineer. Mechanical aptitude and interest in ...

Showing results 21-40

Mechanical Engineering Prosthetics information

See salary details

$45.5K

$102.9K

$166.5K

How much do mechanical engineering prosthetics jobs pay per year?

As of Aug 10, 2026, the average yearly pay for mechanical engineering prosthetics in the United States is $102,878.00, according to ZipRecruiter salary data. Most workers in this role earn between $81,500.00 and $126,500.00 per year, depending on experience, location, and employer.

What are the key skills and qualifications needed to thrive as a mechanical engineer specializing in prosthetics?

Mechanical Engineers in prosthetics need a strong background in mechanical design, materials science, biomechanics, and typically a degree in mechanical or biomedical engineering. Familiarity with CAD software, finite element analysis tools, and experience with rapid prototyping or 3D printing technologies are commonly required, along with relevant certifications such as Professional Engineer (PE) licensure. Strong problem-solving, creativity, and interpersonal communication skills help them collaborate with medical professionals and patients to develop effective solutions. These skills are crucial for designing innovative, reliable, and user-centered prosthetic devices that improve quality of life.

What are some common challenges faced by mechanical engineers working in prosthetics design and development?

Mechanical engineers in prosthetics often encounter the challenge of balancing functionality, comfort, and durability while ensuring the device is lightweight and cost-effective. Collaborating closely with clinicians, patients, and multidisciplinary teams, they must also adapt designs to individual user needs and feedback. Additionally, keeping up with advancements in materials and manufacturing technologies, such as 3D printing, is essential for innovation and meeting regulatory standards. These factors make the role both technically demanding and highly rewarding for those passionate about improving quality of life.

What is mechanical engineering prosthetics?

Mechanical engineering prosthetics are artificial devices designed and engineered to replace or enhance the function of missing or impaired limbs and body parts. Mechanical engineers in this field apply principles of mechanics, materials science, and technology to create prosthetic limbs that restore mobility and functionality for users. These prosthetics can range from simple devices to advanced bionic limbs with electronic controls and sensors. The goal is to improve the quality of life for individuals by providing durable, efficient, and comfortable replacements for lost body parts.

Can mechanical engineers work on prosthetics?

Yes, mechanical engineers can work on prosthetics by applying principles of mechanics, materials, and design to develop functional and durable artificial limbs. They often collaborate with biomedical engineers and use tools like CAD software to create prototypes and improve device performance.

What is the difference between Mechanical Engineering Prosthetics vs Mechanical Design Engineer?

AspectMechanical Engineering ProstheticsMechanical Design Engineer
Required CredentialsBachelor's in Mechanical Engineering, certification in prosthetics or biomedical devicesBachelor's or higher in Mechanical Engineering, CAD proficiency
Work EnvironmentBiomedical labs, hospitals, prosthetics manufacturingDesign offices, manufacturing plants, R&D labs
Industry UsageHealthcare, biomedical device industryAutomotive, aerospace, consumer products
Common Search/ComparisonYesNo

Mechanical Engineering Prosthetics focuses on designing and developing prosthetic devices for medical use, often requiring biomedical knowledge. Mechanical Design Engineers create a wide range of mechanical products across various industries. While both roles involve mechanical design and CAD skills, their work environments and industry applications differ significantly.

More about Mechanical Engineering Prosthetics jobs
What states have the most Mechanical Engineering Prosthetics jobs? States with the most job openings for Mechanical Engineering Prosthetics jobs include:
What job categories do people searching Mechanical Engineering Prosthetics jobs look for? The top searched job categories for Mechanical Engineering Prosthetics jobs are:
Infographic showing various Mechanical Engineering Prosthetics job openings in the United States as of August 2026, with employment types broken down into 90% Full Time, 5% Part Time, 4% Contract, and 1% Nights. Highlights an 86% Physical, 4% Hybrid, and 10% Remote job distribution, with an average salary of $102,878 per year, or $49.5 per hour.

Engineering Instructor - One week Summer Camp - 2026

Education Unlimited

Stanford, CA • On-site

$1.4K - $1.5K/wk

Temporary

Re-posted yesterday


Job description

Education Unlimited® provides academic summer camps & pre-college summer programs for students entering grades 4-12. Our summer programs include public speaking camps, college admissions prep programs, science camps, summer acting camp, writing camps, computer camp, leadership camp, video production camp, and college tours.

Enginering Camp Instructor 

Education Unlimited seeks energetic and experienced science instructors for our fun, activity-based summer program.

Available sessions: Please indicate your availability on your application.  Instructors may be hired for one or more sessions based on availability.   Housing, meals, salary and travel stipend provided for correct candidate. 

  • UC Berkeley (Grades 9–12)
    June 28 – July 4, 2026
  • Stanford University (Grades 4–6)
    July 19 – July 24, 2026
    July 26 – July 31, 2026
  • Stanford University (Grades 9–12)
    August 2 – August 8, 2026

Education Unlimited offers two levels of Engineering Courses: 

* Intro to Engineering for rising 4th to 6th graders

* Engineering 9th - 12th for rising 9th to 12th graders

Course descriptions can be found below for both courses. 

Intro to Engineering Course Description:

In Intro to Engineering, students will learn the basic principles of engineering design and use this process to solve a variety of build challenges, which must survive performance trials and unexpected obstacles along the way! Students will work collaboratively with one another and our amazing instructors to study the principles of force, energy, mass, and other fundamental properties in Newtonian physics.

Using real-world buildings and other edifices as inspiration, campers will start the week by defying gravity to build the tallest skyscrapers and strongest bridges. Then, they will move onto air resistance and density and study how different types of planes, boats, and cars operate, seeking out unique ways to build them all and optimize their designs. Students learn how engineers have to build with earth's forces in mind; from gravity, to air resistance, to friction, to buoyancy and even centripetal force, students will be learning how scientists both work against and with those forces in their designs.

As the week continues, our engineering challenges get even more elaborate! Campers will be faced with tasks that combine their knowledge of physics with ingenuity and an ability to work together within a budget! Students will learn how to use air resistance to create windmills and helicopters as well as fight against that force when they create rockets and planes. They will even learn how to keep a top spinning as they create their own toy that uses centripetal force. The camp finale will be a demonstration of campers’ final invention, an egg drop – whose team will succeed and get their precious cargo to safety, and who will crack under pressure?sing real-world buildings and other edifices as inspiration, campers will start the week by defying gravity to build the tallest skyscrapers and strongest bridges. Then, they will move onto air resistance and density and study how different types of planes, boats, and cars operate, seeking out unique ways to build them all and optimize their designs. 

As the week continues, our engineering challenges get even more elaborate! Campers will be faced with tasks that combine their knowledge of physics with ingenuity and an ability to work together within a budget! The camp finale will be a demonstration of campers’ final invention, an egg drop – whose team will succeed and get their precious cargo to safety, and who will crack under pressure? 

High School Engineering Course Description

This immersive camp gives students a hands-on introduction to diverse fields of engineering, guiding them through the full design process across multiple specialties. The week begins with a human-centered design challenge — creating a functional wallet — and progresses into electrical engineering with basic circuitry involving switches and light bulbs.Midweek, students tackle an environmental challenge by designing and building water filtration systems, followed by a biomedical engineering project where they construct a prosthetic hand and explore biomechanics. Mechanical engineering is next, with rubber band-powered car builds that emphasize force, motion, and design iteration.The camp wraps up with an exciting Engineering Olympics — a friendly, fast-paced competition that brings together all the skills students have built throughout the week. Along the way, students practice budgeting, build bills of materials, and present their projects, gaining skills that extend far beyond the classroom.

RESPONSIBILITIES

In-person Camp Responsibilities include teaching the Education Unlimited curriculum, supervising campers both in and out of the classroom, organizing and leading classroom labs, and executing a finale showcasing student work at the end of camp. Instructors will also be responsible for tracking student work and handing in any deliverables to the camp director and EU home office. 

In addition to teaching responsibilities, instructors should be available and willing to assist the camp director with active supervision, recreational activities, and some administrative tasks. Instructors should be mature, reliable, and able to work well with fellow staffers. Instructors are also expected to act as mentors and will be asked to assist with field trips and guide students on excursions. With the support of the entire staff, instructors are responsible for the health and safety of students, in addition to fulfilling instructional objectives.

At all overnight programs, instructors have the option of commuting to camp each day or staying overnight on campus. Overnight staff members will receive full room and board and will be expected to help with evening supervision duties.

Qualifications:

Instructors are usually year-round science teachers, are studying science at the graduate level, or have some other significant teaching/mentoring experience in the area of cardiology. 

  • 2+ years experience teaching experience or significant subject matter knowledge.
  • Experience working with middle, high school  or college age students in an academic setting.
  • Preference given to those with an advanced degrees.
  • A passion for science education.
  • A calm and professional demeanor.
  • Self-motivation and follow-through.
  • Strong organizational skills and attention to detail.

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