large 3D metal printer
large 3D metal printer

System Description:

LaserComb series of the 3D metal printing system is designed for precision and rapid transition of metal printed parts from prototype to production based on a common family of geometric shapes and application-specific metal type.

LaserComb technology using one precision mechanical X-axis and one optical generating high-resolution bit map image across the Y-axis, resulting inability to use multi KW lasers to achieve high printing speed and consistent repeatability.

Each 3D FUSION metal printing system is designed for the rapid transition of metal-printed parts from prototype to production based on a common family of geometric shapes and application-specific metal types. The process starts with a comprehensive review of 3D CAD files and part specifications optimizing the XYZ build-plate dimensions for minimum power usage. Based on the part specification, the company selects the best-fit building block technologies from its 3D Fusion library of patents, licenses, proprietary metal IP and next-generation hardware representing the fastest path to MRL 10 manufacturing production readiness. Desktop Metal printing specialists acknowledge that current generation metal printing systems manufacture metal printed parts with wide unit-to-unit variations with very few companies announcing MRL6 capabilities. Each of the company’s 3DFusion building block technologies incrementally eliminates the system processing conditions that contribute to the wide fluctuations of metal printing parts from the same machine and from machine-to-machine.

3D Metal Printing Systems: Fastest Path To MRL10

3D Fusion represents the company’s continuously growing umbrella of building-block technologies supported by patents, licenses, next-generation hardware and proprietary metal processing IP dedicated to designing specialized 3D metal printing systems for manufacturing purposes representing the fastest path to MRL10 production readiness.

  • Reduce product development times
  • Reduce mold and tooling costs with dramatic reduction of lead time
  • Puts product on the market in weeks rather than in months
  • Produce products with complex geometries and internal structures
  • Optical or mechanical Z axis capability
  • Sealed digital encoder 100% maintenance-free with laser placement accuracy of 3-5μm
  • Build rate: 5 cm³ – 40 cm³ per hour
  • Printing speed 2000 – 3000 mm/s
  • Positioning speed (max.) 6000-12000 mm/s
  • Layer thickness 20 – 100 µm
  • Min Wall Thickness 150 – 1000 mkm

Follow the link to download pdf file with systems specifications:

3D FUSION – Powder Bed Direct Metal Sintering System

  • Single or Dual Head Configuration
  • Optional Dual Head master-slave configuration
  • 2 units of Fiber Lasers configured for Dual head operation
  • 3D package for focal distance alignment without mechanical Z-axis
  • Master/ Slave configuration or both heads works independently from each other

Typical Applications For 3DF Series of Laser Metal Printers

  • Fast-track prototype functional testing and market demonstration
  • Manufacturing of highly complex geometries
  • Manufacturing of customized or individually fitted parts
  • Reduce weight applications
  • Tooling repair, spare parts, and parts reconditioning


automobile partsHighly complex parts previously unrealizable through traditional means now allow automotive designers to improve automotive efficiencies and reduce part counts while eliminating tooling cost leading to more fuel efficient vehicles. With Laser Photonics highly-automated based direct drive motion system technology, automotive engine blocks are now possible to metal print.

Military & Defense

From maintenance centers, naval ships, to military outposts, 3D metal printing systems are changing the entire fleet management workflow from maintaining huge inventories to quick printing replacement parts on demand. Metal printing is having a profound affect on next-generation capabilities of our soldiers including battlefield armor, special purpose ballistic munitions, and weapons. BTS technology allows replacing 100’s of warhead components to only a few achieving intricate designs to control explosion pattern, blast direction, and other special purpose components for mission specific applications.


Private companies, NASA and other groups are developing new concepts to launch 3D printing into the final frontier. Long-term missions benefit greatly from having onboard manufacturing capabilities reducing the need to maintain costly inventory on the International Space Station and future spacecrafts.. Space colonies would be self-sufficient with the capabilities to manufacture spare parts/tools. BTS technology opens the door to metal printing larger rocket, missile, and propulsion based components and subassemblies.

Aerospace & Industrial Applications

Tooling inserts featuring conformal cooling channels to lightweight structures for aerospace, applications include turbine blades, aircraft frames & structures, jet engines, fuel systems, guide vanes & other reduce weight components contributing to lighter aircrafts reducing fuel consumption. Laser Photonics BTS large build-plate technology expands applications to include turbine rings with diameters out to 1.5 meters and long structures & frames out to 3 meters.

Medical Applications

Patient specific implants featuring hybrid structures and textures unlock manufacturing capabilities that combine free-form shapes and intricate lattice structures improving Osseo integration leading to much improved patient outcomes. BTS technology optimized for biocompatible metal powders like titanium target specific surface properties that generate expected responses from neighboring cells and tissue of orthopedic implants, such as hip, knee and spinal devices.

  • Industrial Vacuum Cleaner
  • Glovebox cabinet
  • Screening/Sieving Machine
  • Sand Blaster
  • Replacement gloves
  • Vacuum Drying Oven
  • Powder storage cabinet
  • System Filters
  • Powder Canisters
  • 3D Scanner Arm
  • 3D HandHeld Scanner
We Offer Our Customers…
  • Factory and on-site operator training
  • Advanced customer training
  • Designated customer service engineers
  • Optimal system configuration
  • Inbound Customer Support
  • Advanced application support
  • Notifications of System Upgrades
  • Remote diagnostics capability
  • Direct Technical Support
  • Engineers log in for testing/troubleshooting