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Metal Additive Manufacturing Research Jobs (NOW HIRING)

Establish and improve production strategies for metal additive manufacturing workflows, including post-processing, heat treatment, depowdering, EDM, scaling, and inspection processes. * Serve as a ...

Establish and improve production strategies for metal additive manufacturing workflows, including post-processing, heat treatment, depowdering, EDM, scaling, and inspection processes. * Serve as a ...

Establish and improve production strategies for metal additive manufacturing workflows, including post-processing, heat treatment, depowdering, EDM, scaling, and inspection processes. * Serve as a ...

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Metal Additive Manufacturing Research information

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How much do metal additive manufacturing research jobs pay per hour?

As of Sep 10, 2026, the average hourly pay for metal additive manufacturing research in the United States is $22.22, according to ZipRecruiter salary data. Most workers in this role earn between $17.31 and $23.80 per hour, depending on experience, location, and employer.

What is metal additive manufacturing research?

Metal additive manufacturing research involves studying and developing new methods, materials, and technologies for producing metal parts using 3D printing techniques. Researchers in this field focus on improving the quality, efficiency, and capabilities of metal additive manufacturing processes such as selective laser melting or electron beam melting. They also work on understanding material properties, optimizing designs for additive manufacturing, and addressing challenges like residual stress and surface finish. This research is essential for advancing applications in aerospace, automotive, healthcare, and other industries.

What are the key skills and qualifications needed to thrive in metal additive manufacturing research?

To excel in Metal Additive Manufacturing Research, a strong background in materials science, mechanical engineering, or a related field is essential, often supported by advanced degrees such as an MS or PhD. Familiarity with additive manufacturing technologies (like SLM, EBM), CAD software, simulation tools, and process monitoring systems is typically required. Analytical thinking, problem-solving, and effective communication are vital soft skills for collaborating on multidisciplinary research and presenting findings. These skills and qualifications are crucial for driving innovation, optimizing processes, and advancing the field of metal additive manufacturing.

What are some common challenges faced in metal additive manufacturing research, and how are they typically addressed?

Professionals in Metal Additive Manufacturing Research often encounter challenges such as optimizing process parameters for new alloys, ensuring material consistency, and overcoming defects like porosity or residual stress. Addressing these issues usually involves iterative experimentation, advanced simulation techniques, and close collaboration with material scientists and production engineers. Staying updated with the latest industry advancements and working in multidisciplinary teams is key to overcoming these obstacles and driving innovation in metal AM technologies.

What are popular job titles related to Metal Additive Manufacturing Research jobs?

For Metal Additive Manufacturing Research jobs, the most frequently searched job titles are:

Infographic showing various Metal Additive Manufacturing Research job openings in the United States as of September 2026, with employment types broken down into 1% Internship, 1% As Needed, 88% Full Time, 9% Part Time, and 1% Contract. Highlights an 79% Physical, 3% Hybrid, and 18% Remote job distribution, with an average salary of $46,222 per year, or $22.2 per hour.

Lead Additive Manufacturing Engineer

Los Angeles, CA โ€ข On-site

Arcturus
Software Developmentย โ€ขย 11 - 50 employees

Full-time

Re-posted 3 days ago


Key responsibilities

  • Own Arcturus' additive manufacturing roadmap across LPBF and DED workflows for infused metal parts and wire

  • Define and optimize print processes for copper and aluminum, including parameter development, thermal management, build strategy, and system-level tradeoffs

  • Diagnose and solve print failures including porosity, cracking, distortion, poor bonding, and geometry drift


Job description

About Arcturus

Arcturus is creating a new wire technology stack that uses carbon nanomaterials to overcome the materials limitations of metals where performance breaks down, at real operating temperatures. Our technology is designed to significantly improve the performance of electric motors for drones and robotics, heat sinks, and ultimately the entire energy grid.

Why you should join us

This is a ground-floor opportunity to help build something that has never been done before.

You would join as a founding engineer and become Arcturus’ first additive manufacturing engineer, with the chance to define the company’s metal printing strategy from the beginning. You will work directly with the Founder and CEO to shape the technical direction of our manufacturing platform and help build a category-defining materials company from scratch.

Purpose

We are seeking a Lead Additive Manufacturing Engineer who can own the development of Arcturus’ metal printing platform across LPBF and DED-based approaches, starting with aluminum and copper systems infused with carbon nanomaterials like graphene and carbon nanotubes. This person should be deeply fluent in how metal additive systems actually work, from lasers and optics to melt pool behavior, thermal history, shielding environments, material delivery, and process control, and be able to translate that knowledge into repeatable, scalable manufacturing capability.

The role

This role reports directly to the CEO

What you’ll do

  • Own Arcturus’ additive manufacturing roadmap across LPBF and DED workflows for infused metal parts and wire

  • Define and optimize print processes for copper and aluminum, including parameter development, thermal management, build strategy, and system-level tradeoffs

  • Establish process windows that preserve conductivity, mechanical integrity, and nanomaterial performance through fabrication

  • Serve as the company’s internal expert on metal AM process physics, machine behavior, lasers, and print quality

  • Lead design-for-additive-manufacturing decisions, including build orientation, support strategy, scan strategy, and geometry tradeoffs that affect printability and final part performance

  • Diagnose and solve print failures including porosity, cracking, distortion, poor bonding, and geometry drift

  • Build qualification plans, process documentation, and acceptance criteria for repeatable development and future scale-up

  • Define feedstock, shielding gas, and contamination-control practices that preserve material quality and process repeatability

  • Use DOE, data analysis, and structured root-cause methods to optimize process windows and improve yield, repeatability, throughput, and cost

  • Partner closely with nanomaterials, characterization, mechanical, and product engineering to connect print process to final conductor performance

  • Contribute to invention disclosures, patent strategy, and internal technical documentation with a high bar for rigor and clarity

Basic qualifications

  • MS, or PhD in metallurgical engineering, mechanical engineering, materials science, manufacturing engineering, welding engineering, physics, or a related field

  • 8+ years of hands-on experience in metal additive manufacturing, advanced process development, or closely related manufacturing systems

  • Deep expertise in metal AM processes, especially LPBF and ideally DED or laser-based directed energy systems

  • Strong understanding of lasers, optics, melt pool physics, heat transfer, solidification, residual stress, and metallurgical process-structure-property relationships

  • Demonstrated experience developing, optimizing, troubleshooting, and scaling AM processes in real hardware environments

  • Strong scientific and technical writing skills, including clear documentation of process development, test plans, specifications, and invention disclosures

Preferred qualifications

  • Experience printing aluminum and/or copper alloys

  • Experience with machine-level AM development, including motion systems, powder handling, feedstock delivery, sensing, or controls

  • Experience qualifying and scaling AM hardware in a high-performance manufacturing environment

  • Familiarity with CAD and AM build preparation tools, including slicing, scan strategy setup, support generation, and print simulation workflows

  • Familiarity with metal matrix composites or other non-standard AM material systems

What we offer

  • Competitive cash compensation and meaningful equity

  • Direct technical ownership over a core manufacturing platform

  • The chance to define the playbook for nanomaterial-enhanced metal additive manufacturing

  • Relocation support for employees moving from outside the Los Angeles area