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Streamlining the Production Process with Phillips Opto

Hybrid for Manufacturing Educators

Equip the next generation with hands-on experience across the full manufacturing workflow: Add. Subtract. Repeat.

Hybrid manufacturing education is transforming how advanced manufacturing is taught by combining metal additive manufacturing and CNC machining into a single, integrated learning platform. Rather than teaching these technologies in isolation, hybrid manufacturing systems allow educators to deliver hands-on additive manufacturing training and CNC machining education that reflects real-world production workflows. Students learn how to program, build, machine, repair, and finish metal parts using industry-proven hybrid processes—preparing them for careers in modern manufacturing, research, and defense applications.

Designed for universities, community colleges, technical schools, and advanced high school programs, hybrid manufacturing systems help prepare students for today's workforce while supporting applied research and curriculum innovation. Students gain practical experience with additive manufacturing, CNC machining, and hybrid workflows that emphasize efficiency, repeatability, and production readiness. The result is an education model that aligns with modern manufacturing demands, supports workforce development, and equips graduates with skills employers actively seek—add, subtract, and repeat.

[ K-State Testimonial Video Embed ]

/// Brand & Partnership

Why Hybrid
For Education?

  • Teach more skills in less space
  • One system → teaches machining + additive + programming + automation
  • Learn from the ground up with Phillips' two weeks of training and ongoing support
  • Compact, safe, and faculty-trainable
  • Supports coursework, capstone projects, and research
  • Builds employable, industry-ready skills
  • Enables competitive proposals for federal and state funding
  • Creates opportunities for partnerships with local industry
  • Phillips' support with curriculum development
  • Reduce equipment budgets by combining multiple technologies
  • Equip students with in-demand hybrid manufacturing capabilities
  • Integrate cutting-edge research workflows in one machine
Phillips Hybrid System - Fronius WAAM UMC 750

Ready to bring hybrid into your program?

Talk To A Hybrid Expert →

/// Featured

Who We Serve

01

Universities

  • Multi-material research
  • Repair & remanufacturing experiments
  • ML, process monitoring, and data-driven research
  • DoD-funded programs (NSF, ONR, AFRL, DOE)
02

Community Colleges & Trade Schools

  • Workforce-driven programs
  • Machining + welding + AM hybrid coursework
  • Industry partnerships and job placement
  • Perkins V + workforce development funding
03

High Schools (Tech / Charter / CTE)

  • Entry-level exposure to advanced manufacturing
  • Career and technical education pathways
  • Safe, instructor-ready systems
  • Parent/student recruitment differentiator
04

R&D Institutes

  • Rapid prototyping
  • Sustainment and repair workflows
  • Throughput and redundancy for DoD projects
  • Materials development and testing

/// The Technology

What Is Phillips Additive Hybrid?

Hybrid = CNC Machining + Directed Energy Deposition
  • ► Three DED options: Wire-Arc, Laser-Wire, Laser-Powder
  • ► Compatible with widely used Haas CNC platforms (3-, 4-, or 5-axis)
  • ► Fully integrated & field-proven

Additional Phillips DED Additive Solutions

Solution 01

Insstek

MX-Lab & MX-Fab

  • Process Uses laser + metal powder
  • Strengths Precision + materials science
  • Ideal For R&D, high-precision parts, material development

Solution 02

Meltio

M600

  • Process Uses laser + welding wire
  • Strengths Functional metal part production
  • Ideal For Technical programs, applied engineering labs, workforce training

Solution 03

MX3D

M1

  • Process Uses electric arc + wire (WAAM)
  • Strengths Scale + deposition speed + robotics
  • Ideal For Large projects, applied research

/// The Advantage

Benefits

A

Skills Development & Workforce Readiness

  • Machining, CAD/CAM, toolpaths, AM, sensors, QC
  • Real-world hybrid workflows used in aerospace, defense, and energy
B

Research Power & Funding Alignment

  • Publishable hybrid research
  • Grant competitiveness (NSF, ONR, AFRL, state research boards)
C

Cost Efficiency & Space Savings

  • Replace multiple machines with one
  • Low operating costs
D

Curriculum & Training Support

  • Turnkey modules (intro → advanced)
  • Faculty training and certification
  • Lab integration guidance
E

Industry & DoD Collaboration

  • Earn industry partnerships
  • Participate in government-funded research and education programs

/// Applications

Real-World Success Stories

Innovation Spotlights from Phillips Hybrid Education Partners

01
Spotlight 01 — Defense

Kansas State University

Partnered with Overmatch Inc.

Defense-ready training and certified part production for DoD applications.

Focus

DoD Certification

Outcome

Workforce Pipeline

02
Spotlight 02 — Research

University of Arizona

Aerospace & Materials Research

Students conducting aerospace alloy research, ML-based monitoring, and full hybrid repair workflows.

Focus

Aerospace Alloys

Outcome

ML Monitoring

Bring Hybrid to Your Classroom

Connect with a Phillips hybrid expert to discuss curriculum, training, funding strategies, and equipment that fits your program.

/// Get In Touch

Contact Us to Learn More

Tell us about your program and a member of the Phillips team will reach out to discuss next steps, funding pathways, and curriculum support.

Ask Jason