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Mechanical Engineer Additive Manufacturing Jobs (NOW HIRING)

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Mechanical Engineer Additive Manufacturing information

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How much do mechanical engineer additive manufacturing jobs pay per year?

As of Aug 21, 2026, the average yearly pay for mechanical engineer additive manufacturing 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 is a mechanical engineer additive manufacturing?

A Mechanical Engineer in Additive Manufacturing (AM) is responsible for designing, developing, and optimizing components and processes for 3D printing technologies. They work with a variety of materials, such as metals, polymers, and composites, to create functional parts with enhanced performance and efficiency. Their role includes testing printed components, improving printing parameters, and collaborating with cross-functional teams to integrate AM into production. Additionally, they ensure quality control, cost-effectiveness, and scalability of AM processes to meet industry standards. This position is crucial in industries like aerospace, automotive, and medical, where lightweight and complex designs provide significant advantages.

What does a mechanical engineer additive manufacturing do?

Mechanical Engineers specializing in additive manufacturing typically spend their days designing components using CAD software, preparing digital files for 3D printing, and overseeing the production process. They also analyze prototype performance, refine product designs, and troubleshoot any issues with printing equipment or material selection. Collaboration with cross-functional teams such as product designers, process engineers, and quality assurance professionals is common. This hands-on, project-driven environment provides the opportunity to work on innovative products and see the direct impact of your engineering solutions.

What are the key skills and qualifications needed to thrive as a mechanical engineer additive manufacturing?

To thrive as a Mechanical Engineer Additive Manufacturing, you need a solid understanding of mechanical engineering principles, 3D modeling, and material science, often complemented by a relevant engineering degree. Experience with CAD software, additive manufacturing machines, and knowledge of industry standards or certifications such as ASME or ASTM are typically required. Strong problem-solving skills, attention to detail, and effective teamwork and communication abilities are crucial soft skills for this role. These combined capabilities allow engineers to develop innovative products, troubleshoot complex challenges, and collaborate efficiently in a dynamic manufacturing environment.

What are the most commonly searched types of Mechanical Engineer Additive Manufacturing jobs?

The most popular types of Mechanical Engineer Additive Manufacturing jobs are:

What states have the most Mechanical Engineer Additive Manufacturing jobs?

States with the most job openings for Mechanical Engineer Additive Manufacturing jobs include:

Infographic showing various Mechanical Engineer Additive Manufacturing job openings in the United States as of August 2026, with employment types broken down into 91% Full Time, 7% Part Time, 1% Contract, and 1% Nights. Highlights an 97% Physical, 1% Hybrid, and 2% Remote job distribution, with an average salary of $102,878 per year, or $49.5 per hour.

Principal Mechanical Engineer, Additive Manufacturing

Elastium

Los Angeles, CA

Full-time

Re-posted yesterday


Job description

Elastium is transforming the legacy footwear industry toward rapid, fully automated, and localized production. Our manufacturing platform combines proprietary 3D printing technology, software, and materials science to make shoe production as effortless as pushing a button. We're building the most frictionless way of turning bits into useful atoms, sending ripples of singularity across the industry, and bringing tens of billions of GDP back to America.
You'll be playing the key role in rolling out the mass production of Elastium production cells, operating at unprecedented scale for the AM industry. Specifically, you will:

  • Execute the mechanical design of the most advanced FGF/FDM 3D printers on Earth, from initial concept through testing and deployment.
  • Eliminate expensive, complex assemblies with radically simple designs that minimize part count, are trivial to build, and scale fast.
  • Develop novel tooling solutions for fabrication and assembly of structural parts.
  • Develop process flows, breaking down large assemblies into a logical part flow of subassemblies and sub-processes.
  • Create excellent technical documentation - test plans and reports, assembly instructions, inspection requirements, part and assembly drawings, vendor specifications, BOMs, etc.
  • Work with contract manufacturers and vendors across various disciplines to develop repeatable, sustained processes for quick-turn development as well as at-scale production.
  • Troubleshoot and resolve mechanical issues during design, commissioning, and production rollout.

Requirements

  • BS in Mechanical Engineering or equivalent.
  • 3+ years of experience designing, testing, and shipping complex electromechanical systems (Robotics or Industrial Tech preferred).
  • Proficiency with NX (should be your primary CAD for 2+ years).
  • A formidable track record building systems utilizing robot arms or precision gantry kinematics.
  • Hands-on experience with CNC milling/turning, sheet metal fab, and welding; excellent understanding of DFM/DFA and what makes good production documentation.
  • Familiarity with common elements of manufacturing systems: linear guides, ball screws, encoders, reducers, servos, pneumatic/hydraulic systems, and etc.
  • You're high-agency operator with mission-critical discipline and accountability. You identify and neutralize threats before they escalate.

Why this job matters

At Elastium, you won't be another engineer optimizing inside an existing box-you'll build in the wild, architecting a new industrial era where factories run like software, starting with footwear. Footwear is an enormous challenge because it's a massive, messy, labor-heavy industry that left the U.S. for a reason. Reinventing how footwear is made at scale requires the deployment of autonomous plants with thousands of robots that can be reconfigured in real time with no human in the loop. If you want to solve problems that fundamentally reshape the physical world, this is the mission.