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Biomedical Engineer 3D Printing Jobs in Texas (NOW HIRING)

Mechanical Engineer - Robotics This role focuses on owning the mechanical design and engineering lifecycle for large-format robotic 3D printing construction equipment. You will develop complex ...

Mechanical Engineer - Robotics This role focuses on owning the mechanical design and engineering lifecycle for large-format robotic 3D printing construction equipment. You will develop complex ...

Execute testing programs focused on the performance evaluation of 3D-printed materials and ... D. in Civil Engineering or Material Science (with a focus on cement-based materials), or Master ...

Support rapid prototyping efforts utilizing 3D printing and other prototype fabrication methods. Engineering Analysis & Testing * Utilize FEA tools to analyze structural, thermal, and mechanical ...

Design and fabricate hardware in-house - operate machine shop equipment, 3D printers, and ... Collaborate across engineering disciplines - work directly with controls, electrical, and systems ...

Rapidly prototype and iterate using 3D printing, CNC machining, and other in-house fabrication methods * Work with internal engineering teams, vendors, and manufacturers to ensure designs are ...

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Biomedical Engineer 3D Printing information

What does a biomedical engineer 3D printing do?

A Biomedical Engineer specializing in 3D printing uses advanced additive manufacturing technologies to design and create medical devices, prosthetics, implants, and tissue scaffolds. They work closely with healthcare professionals to develop customized solutions that improve patient outcomes. Their responsibilities often include computer-aided design (CAD), selecting appropriate biomaterials, and ensuring that printed products meet regulatory and safety standards. This field requires a combination of engineering, biology, and material science expertise.

How does a biomedical engineer 3D printing typically collaborate with clinicians and researchers during the product development process?

Biomedical Engineers in 3D Printing often work closely with clinicians and researchers to understand clinical needs, gather anatomical data, and refine prototypes. This collaboration ensures that the custom devices or models meet both medical requirements and regulatory standards. Regular interdisciplinary meetings, feedback sessions, and iterative design reviews are common, fostering a dynamic environment where engineering solutions are aligned with real-world healthcare challenges. Effective communication and teamwork are crucial in translating medical concepts into functional 3D-printed products.

What are the key skills and qualifications needed to thrive as a biomedical engineer 3D printing?

To thrive as a Biomedical Engineer specializing in 3D printing, you need a solid background in biomedical engineering principles, CAD modeling, and materials science, typically supported by a relevant engineering degree. Proficiency with 3D printing technologies, such as FDM, SLA, and SLS, as well as familiarity with software like SolidWorks and experience with regulatory standards, is often required. Strong problem-solving, creativity, and effective communication skills distinguish top performers in this role. These competencies are crucial for designing innovative medical devices, ensuring product safety, and collaborating across multidisciplinary teams to advance healthcare solutions.
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Infographic showing various Biomedical Engineer 3D Printing job openings in Texas as of August 2026, with employment types broken down into 2% Internship, 83% Full Time, 13% Part Time, and 2% Contract. Highlights an 98% In-person, and 2% Remote job distribution.

Mechanical Engineer, Precision Automation

ELECTRONINKS INCORPORATED

Austin, TX • On-site

$80K - $115K/yr

Full-time

Medical, Dental, Vision, Life, Retirement, PTO

Re-posted 20 days ago


Job description

Electroninks is quickly expanding and is seeking a full-time Mechanical Engineer, Precision Automation to joining the CircuitJet Team. You should be able to design a machine gantry, spec the sheet metal enclosure, pick the right motor, wire it up, and know when a problem calls for a clever mechanism versus an electrical solution. You’ll work hand‑in‑hand with experienced electrical engineers the whole way. The work is significantly mechanical engineering, but not exclusively: you’ll think across domains because that’s what building a real machine requires.

You’ll own the structural and motion architecture of a complex, multi‑process machine: precision gantries, sheet metal enclosures, CNC‑machined stages, tool changers, fixturing, and board handling, all to micron‑level accuracy and production‑ready reliability. Beyond the mechanical design, you’ll build reliable processes across pick‑and‑place, laser ablation, inkjet printing, solder paste dispensing, alignment, and calibration. And as we move from hand‑built prototypes toward contract‑manufactured production, you’ll help scale the machine itself.

You’ll work on a very small team of industry experts who live, eat, and breathe PCBA production. People obsessed with crafting the perfect machine, the perfect process, and the opportunities they unleash. If you’ve built your own 3D printer or robots, get excited about manufacturing machines, and love the idea of a single platform that does the full PCBA stack locally (bare substrate to finished, assembled board), this is your role.


Duties and Responsibilities:

  • Design and detail the machine. Architect multi‑axis gantry systems, structural frames, sheet metal enclosures, and CNC‑machined stages. Select linear guides, ball screws, motors, bearings, and drives to hit accuracy, stiffness, and throughput targets. Design toolhead mounts, board handling, fixturing, and transfer mechanisms.
  • Integrate across domains. Spec and wire motors, encoders, sensors, drivers, and cabling into mechanical assemblies, working hand‑in‑hand with experienced EEs. Know when to solve a problem with a mechanism and when to reach for a sensor and a cable.
  • Own the processes. Develop reliable, repeatable processes for pick‑and‑place, laser ablation, conductive inkjet printing, solder paste dispensing, board handling, alignment, and calibration. Characterize process windows and iterate until each station performs to spec.
  • Build, test, iterate. Assemble prototype gantries and subsystems hands‑on. Debug, align, and test for repeatability. Work with materials scientists to translate ink and paste properties into machine parameters that produce consistent results.
  • Scale it. Help take production from a handful of hand‑built units to working with contract manufacturers for volume. Design for manufacturability, serviceability, and cost‑reduction.
  • Document everything. Produce detailed CAD assemblies, drawings, BOMs, tolerance stacks, and interface documentation.


Qualifications:

Required

  • BS or MS in Mechanical Engineering, Mechatronics, Robotics, or equivalent practical experience.
  • 3+ years building robots, machines, or mechatronics systems professionally.
  • Strong experience designing precision motion systems, gantries, CNC machines, robotics, or automation equipment.
  • Hands‑on machine building, whether professionally (CNC routers, pick‑and‑place, production equipment) or through personal projects (custom 3D printers, robots, laser cutters).
  • Deep CAD proficiency is non‑negotiable.
  • Solid mechanics fundamentals: stiffness, tolerances, bearings, drivetrains, vibration, thermal effects. Comfortable with fabrication (3D printing, machining, laser cutting, sheet metal).
  • Hands‑on electrical integration (wiring motors, sensors, drives) working alongside experienced EEs.

Preferred

  • Experience with high‑precision linear stages, micron‑scale positioning, servo systems, or closed‑loop motion.
  • Familiarity with machine vision‑driven alignment and mechanical design to support optical calibration.
  • Background in industrial automation, semiconductor tools, PCB equipment, or lab instrumentation.
  • Experience designing for DFM and low‑volume production scaling to contract manufacturing.
  • Excited about using AI in your engineering workflow to speed up calculations, select components, and get design critiques, while maintaining your own judgment. You use AI to move faster, not to think for you. When colleagues ask your opinion, you have real thoughts, not a regurgitated ChatGPT answer.
  • Personal projects that show genuine passion for machines (a custom 3D printer, a robot, a home CNC) speak louder than credentials.


Benefits

  • Health, Dental, and Vision Insurance – provided by Employer
  • Short-term Disability, Long-term Disability – provided by Employer
  • Life Insurance – provided by Employer
  • 401(K) Plan with 2% match
  • Paid Time Off (PTO)
  • Paid Holidays


About Electroninks:

Electroninks Incorporated is the market-leader in the production and scaled manufacturing of metal-complex conductive inks. We have developed a full suite of proprietary conductive ink solutions, world-class manufacturing partners, and complimentary equipment ecosystems, thus accelerating time to market for new products and additive manufacturing breakthroughs.

Electroninks’ metal complex inks – including silver, gold, platinum, nickel and copper –deliver higher conductivity, flexibility and cost-effectiveness. We are the only domestic U.S. supplier of this full suite line of particle-free inks. The company’s conductive inks have been adopted by customers requiring highly reliable solutions for applications in semiconductor packaging, printed circuit board (PCB) manufacturing, consumer electronics, wearables, medical devices and more. We also partner closely with best-in-class equipment and integration partners to provide customers a total ink and process solution with the ultimate goal to reduce the manufacturing costs and complexity.


Our goal is to successfully implement our conductive inks into our customers products and close the gap of commercialization. We have a world-class talented and professional team, with expertise in electronics, semiconductor, advanced materials, chemistry, and ink production. We are backed by strong strategic partners and some of the most prominent global technology investors. We are headquartered and located in Austin, Texas.