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Additive Manufacturing Jobs in Rockledge, FL (NOW HIRING)

Senior Thermal Engineer

Rockledge, FL · On-site

$92K - $122K/yr

We currently use advanced techniques like microchannel cooling, three-dimensional cooling passages through additive manufacturing, membrane enhanced cooling, oscillating heat pipes. This position ...

Senior Thermal Engineer

Rockledge, FL · On-site

$92K - $122K/yr

We currently use advanced techniques like microchannel cooling, three-dimensional cooling passages through additive manufacturing, membrane enhanced cooling, oscillating heat pipes. This position ...

Senior Thermal Engineer

Rockledge, FL · On-site

$92K - $127K/yr

We currently use advanced techniques like microchannel cooling, three-dimensional cooling passages through additive manufacturing, membrane enhanced cooling, oscillating heat pipes. This position ...

Experience with additive manufacturing * Experience with Mil-Std environmental testing Qualifications * Must be a U.S. Citizen or Permanent Resident * Bachelor's degree (or equivalent) in Mechanical ...

Experience with additive manufacturing * Experience with Mil-Std environmental testing Qualifications * Must be a U.S. Citizen or Permanent Resident * Bachelor's degree (or equivalent) in Mechanical ...

Additive manufacturing techonologies and design best practices Understanding of EVMS cost and schedule practices. Enable Skills-Based Hiring No Meet Your Recruiter Usman Khan

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Additive Manufacturing information

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How much do additive manufacturing jobs pay per hour?

As of Aug 12, 2026, the average hourly pay for additive manufacturing in Rockledge, FL is $21.76, according to ZipRecruiter salary data. Most workers in this role earn between $17.60 and $25.14 per hour, depending on experience, location, and employer.

What is the difference between Additive Manufacturing vs CNC Machinist?

AspectAdditive ManufacturingCNC Machinist
CredentialsTypically requires technical training or certification in 3D printing technologiesRequires machining certifications or technical training in CNC operations
Work EnvironmentWorks in labs or manufacturing facilities with 3D printers and related equipmentWorks in machine shops or manufacturing plants operating CNC machines
Industry UsageUsed in prototyping, custom parts, and complex geometriesUsed for precision manufacturing of metal and plastic parts
Search & Comparison IntentOften compared for manufacturing processes involving digital fabricationCompared for traditional subtractive manufacturing skills

While both roles are involved in manufacturing, Additive Manufacturing focuses on building parts layer-by-layer using 3D printing technologies, whereas CNC Machinists operate subtractive machines to carve parts from raw materials. Understanding these differences helps in choosing the right career path or job search focus within the manufacturing industry.

Is additive manufacturing a good career?

Additive manufacturing is a growing field that involves designing and operating 3D printing equipment, often requiring skills in CAD software and knowledge of materials. Careers in this area can offer opportunities in industries such as aerospace, healthcare, and automotive, with roles ranging from technician to engineer. Job prospects depend on industry demand, technical skills, and certifications in additive manufacturing technologies.

What is additive manufacturing?

Additive manufacturing (AM) is the process of creating products by adding material using one or more techniques. This is the opposite of subtractive manufacturing, which produces products by removing material. Many products are produced using a combination of these two techniques. To manufacture a plastic shape, you may use additive manufacturing to layer plastic materials then use subtractive manufacturing to cut and shape the plastic. In recent years, AM has started to focus on advanced techniques like 3D printing, where complex products are created layer by layer, using one or more materials. The main job in AM is that of an additive manufacturing engineer, although rapid prototyping may utilize this process to create a small model of a potential product.

What is additive manufacturing?

Additive manufacturing, often referred to as 3D printing, is a process of creating objects by adding material layer by layer, based on a digital model. Unlike traditional manufacturing methods that remove material from a solid block, additive manufacturing builds products directly from raw materials such as plastics, metals, or composites. This technology enables complex designs, rapid prototyping, and customization that would be difficult or impossible with conventional manufacturing processes.

What are the key skills and qualifications needed to thrive in additive manufacturing, and why are they important?

To excel in Additive Manufacturing, a solid understanding of engineering principles, 3D modeling, and materials science is typically required, often supported by a degree in engineering or a related field. Familiarity with CAD software, 3D printers, and quality assurance systems, as well as certifications like SME Additive Manufacturing Certification, is highly beneficial. Strong problem-solving, attention to detail, and effective communication skills help professionals innovate and collaborate in dynamic production environments. These competencies are essential for ensuring precision, efficiency, and the successful implementation of advanced manufacturing technologies.

What are some typical challenges faced in an additive manufacturing role, and how can they be addressed?

Professionals in Additive Manufacturing often encounter challenges such as ensuring part quality, optimizing print parameters, and troubleshooting equipment malfunctions. Working closely with engineering teams and using advanced simulation software can help address issues related to design for additive processes. Regular calibration of machinery and staying updated on the latest material advancements are also key strategies for overcoming common hurdles. Collaboration and ongoing training play a significant role in maintaining production efficiency and quality standards.

How to get into additive manufacturing?

To pursue a career in additive manufacturing, gaining a background in engineering, materials science, or manufacturing technology is essential. Developing skills in 3D modeling, CAD software, and understanding different 3D printing processes, along with relevant certifications, can improve job prospects. Entry-level roles often require hands-on experience with additive manufacturing equipment and knowledge of quality control standards.
What cities near Rockledge, FL are hiring for Additive Manufacturing jobs? Cities near Rockledge, FL with the most Additive Manufacturing job openings:
Infographic showing various Additive Manufacturing job openings in Rockledge, FL as of August 2026, with employment types broken down into 100% Full Time. Highlights an 100% In-person job distribution, with an average salary of $45,259 per year, or $21.8 per hour.

Computational Geometry Engineer

Siemens Energy, Inc.

Orlando, FL • On-site

$104K - $122K/yr

Full-time

Medical, Retirement, PTO

Posted 4 days ago


Siemens Energy rating

8.3

Company rating: 8.3 out of 10

Based on 86 frontline employees who took The Breakroom Quiz

113th of 487 rated machine equipment manufacturers


Job description

A Snapshot of Your Day
Shape the Future of Turbomachinery Innovation. Join a team at the forefront of advanced engineering, where mathematics, computational physics, and optimization come together to redefine how complex turbomachinery components are designed. This is not traditional CAD engineering. It's an opportunity to build the next generation of geometry modeling methods, algorithms, and digital workflows that power breakthrough performance across multidisciplinary optimization environments.
If you're energized by solving difficult problems through equations, fields, and computational methods, and thrive at the intersection of applied mathematics, fluid dynamics, structural mechanics, and software-enabled engineering, we want to hear from you. Help pioneer the tools, methodologies, and innovations that will shape the future of turbomachinery design.
How You'll Make an Impact
  • Develop advanced computational geometry methods and algorithms for turbine component design, including blades, cooling channels, casings, lattice structures, and additive manufacturing applications.
  • Translate aerodynamic, thermal, and structural engineering requirements into robust mathematical and geometry-based design models.
  • Implement, validate, and optimize implicit CAD methodologies, creating reusable modules and best practices for scalable deployment.
  • Build and maintain integration frameworks linking computational geometry with optimization, manufacturing simulation, and CAE workflows.
  • Document, standardize, and transfer geometric modeling methods to engineering teams to drive adoption and long-term capability growth.
  • Partner closely with aerodynamics, design engineering, simulation, and additive manufacturing teams to advance computational geometry capabilities and support product development initiatives.
  • Continuously improve design workflows by developing generalizable, efficient, and reusable computational geometry solutions.
What You Bring
  • Master's degree in Mathematics, Applied Mathematics, Physics, or a related field required; PhD preferred, with strong computational physics expertise in fluid dynamics, heat transfer, structural mechanics, or similar domains.
  • 3-8+ years' (or relevant PhD research) in computational geometry, generative design, or related fields, combined with a highly motivated, self-directed mindset and exceptional communication and collaboration skills. Candidates with more years of experience may be considered at a higher level.
  • Differential geometry, linear algebra, numerical methods, computational geometry, and mathematical modeling for engineering applications.
  • Programming skills in Python and C++ (or another compiled language), with experience developing mathematical and geometric modeling solutions.
  • Hands-on Git/GitLab, Linux environments, and modern engineering software development practices.
  • Implicit geometry modeling, signed distance fields, lattice topology, and geometry design platforms such as nTop, or the ability to rapidly learn them.
  • Applicants must be legally authorized for employment in the United States without need for current or future employer-sponsored work authorization. Siemens Energy employees with current visa sponsorship may be eligible for internal transfers.
Preferred:
  • Advanced Degree in Mathematics, Applied Mathematics, Computer Science, or a related field, paired with exceptional analytical thinking and abstract mathematical problem-solving skills.
  • Developing implicit geometry, field-based design, and parametric modeling solutions for complex engineering applications.
  • Computational physics, including CFD, fluid dynamics, structural analysis, and mechanics.
  • Working in high-performance computing (HPC) environments to solve large-scale computational challenges.
  • Developing APIs, automation frameworks, and scalable toolchains that accelerate engineering workflows.
  • Applying machine learning and AI techniques to 3D CAE, simulation-driven design, and computational engineering workflows.
Export Control Requirement:
Due to applicable export control laws and regulations, candidates must be a U.S. Citizen or national, U.S. permanent resident (i.e., current Green Card holder), or lawfully admitted into the U.S. as a refugee or granted asylum.
About the Team
Our Gas Services division offers Low-emission power generation through service and decarbonization. Zero or low emission power generation and all gas turbines under one roof, steam turbines and generators. Decarbonization opportunities through service offerings, modernization, and digitalization of the fleet.
Who is Siemens Energy?
At Siemens Energy, we are more than just an energy technology company. With ~100,000 dedicated employees in more than 90 countries, we develop the energy systems of the future, ensuring that the growing energy demand of the global community is met reliably and sustainably. The technologies created in our research departments and factories drive the energy transition and provide the base for one sixth of the world's electricity generation.
Our global team is committed to making sustainable, reliable, and affordable energy a reality by pushing the boundaries of what is possible. We uphold a 150-year legacy of innovation that encourages our search for people who will support our focus on decarbonization, new technologies, and energy transformation.
Find out how you can make a difference at Siemens Energy: https://www.siemens-energy.com/employeevideo
Rewards/Benefits
  • Career growth and development opportunities
  • Supportive work culture
  • Company paid Health and wellness benefits
  • Paid Time Off and paid holidays
  • 401K savings plan with company match
  • Family building benefits
  • Parental leave
Jobs & Careers: https://jobs.siemens-energy.com/jobs
#TeamPurple #ELECTRON
Equal Employment Opportunity Statement
Siemens Energy and Siemens Gamesa Renewable Energy is an Equal Opportunity and Affirmative Action Employer. All qualified applicants will receive consideration for employment without regard to their race, color, creed, religion, national origin, citizenship status, ancestry, sex, age, physical or mental disability unrelated to ability, marital status, family responsibilities, pregnancy, genetic information, sexual orientation, gender expression, gender identity, transgender, sex stereotyping, order of protection status, protected veteran or military status, or an unfavorable discharge from military service, and other categories protected by federal, state or local law.
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