Research Additive Laser information
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$81.5K - $85.7K
6% of jobs
$91.4K is the 25th percentile. Wages below this are outliers.
$90K - $94.2K
29% of jobs
The median wage is $96.5K / yr.
$94.2K - $98.4K
12% of jobs
$98.4K - $102.6K
18% of jobs
$103.2K is the 75th percentile. Wages above this are outliers.
$102.6K - $106.9K
12% of jobs
$106.9K - $111.1K
5% of jobs
$111.1K - $115.3K
4% of jobs
$115.3K - $119.5K
2% of jobs
$119.5K - $123.8K
1% of jobs
$123.8K - $128K
2% of jobs
How much do research additive laser jobs pay per year?
As of Sep 9, 2026, the average yearly pay for research additive laser in the United States is $100,127.00, according to ZipRecruiter salary data. Most workers in this role earn between $91,500.00 and $103,000.00 per year, depending on experience, location, and employer.
A Research Additive Laser typically refers to a specialized role or equipment used in the field of additive manufacturing, where lasers are used to fuse materials together layer by layer to create 3D objects. In research settings, additive lasers are used to experiment with new materials, improve manufacturing processes, and develop innovative prototypes. Professionals in this area often work in laboratories or industrial research environments, collaborating with engineers and scientists to advance 3D printing technologies. The use of lasers in additive manufacturing enables high precision and the ability to work with metals, plastics, and composites.
To thrive as a Research Additive Laser Engineer, you need a solid background in materials science, engineering, and laser-based additive manufacturing, typically supported by an advanced degree in a related field. Proficiency with CAD software, laser systems, 3D printing technologies, and possibly certifications in additive manufacturing are highly valuable. Strong analytical thinking, problem-solving skills, and effective communication help you excel in collaborative research and innovation-driven environments. These competencies are crucial for driving advancements in additive laser technologies and ensuring the quality and efficiency of research outcomes.
Professionals in Research Additive Laser often encounter challenges such as keeping up with rapid advancements in laser technologies and materials, troubleshooting equipment malfunctions, and ensuring precise calibration for optimal results. Additionally, collaborating across multidisciplinary teams—such as material scientists, engineers, and software developers—requires clear communication and adaptability. Staying proactive through continuous learning, regular equipment maintenance, and open collaboration can help address these challenges and contribute to successful project outcomes.
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