Building a Production Base for Cutting-Edge Technology
Our mission is to build a production base for cutting-edge technology, spanning six core capabilities: metal 3D printing, composite materials & hydrogen tanks, drones, communication & navigation control, CNC & precision machining equipment, and laboratory & testing.
M/01
Metal 3D Printing
SLM (Selective Laser Melting): uses a high-power laser to locally melt metal powder, heating it to full fusion so particles bond together to form the final shape.
M/02
Composite Materials & Hydrogen Tanks
Fiber composite winding technology enables hydrogen tanks to withstand the high-pressure conditions required for storage, expanding the range of hydrogen energy applications while improving safety and overall performance.
M/03
Drones
Our full range of all-electric VTOL drones can take off, land, and fly in winds up to 40 km/h, and continue to operate normally in both hot and cold climates.
M/04
Communication & Navigation Control
A communication and navigation control system developed for low-orbit equipment, delivering effective and stable signal transmission so high-altitude platforms can complete their missions smoothly.
M/05
CNC Machining & Precision Equipment
Our facility is equipped with 3-axis and 5-axis CNC machines along with other precision manufacturing equipment.
M/06
Laboratory & Testing
Our facility houses multiple testing and inspection instruments, providing materials and structural testing to enhance product quality and reliability.
L-PBF uses a high-power laser to selectively melt metal powder layer by layer. It is suitable for complex geometries, lightweight structures, internal channels, and high-performance metal components.
Which metal materials are available?
Common materials include titanium alloys, aluminum alloys, stainless steel, nickel alloys, cobalt-chromium alloys, and other metal powders depending on project requirements.
What are the advantages of metal 3D printing?
Complex structures can be produced without traditional tooling limits.
Parts can be consolidated into a single component to reduce assembly and welding risk.
Internal channels, lattice structures, and topology-optimized designs can improve performance.
It supports small-batch production, prototyping, and design verification.
Material usage can be reduced compared with subtractive manufacturing.
Can you support design optimization?
Yes. Rayvatek can support design review, manufacturability evaluation, topology optimization, support strategy, post-processing planning, and inspection recommendations.
Can parts be post-processed after printing?
Yes. Depending on the part, post-processing may include stress relief, heat treatment, support removal, CNC machining, polishing, surface treatment, or inspection.
Can metal 3D printed parts replace CNC parts?
It depends on the geometry, tolerance, material, and application. Metal 3D printing is especially useful when the design is difficult or inefficient to make with CNC alone.
What tolerances can be achieved?
Tolerance depends on material, size, orientation, and post-processing. CNC finishing can be added when tighter functional surfaces are required.
Is there a minimum order quantity?
MOQ depends on the project scope, material, part size, and inspection requirements. Please contact Rayvatek with drawings or specifications for evaluation.
Centered on R&D and manufacturing in Taiwan, connected with regional service and partner sites in Japan, Australia, and beyond to support cross-border engineering projects, product deployment, and localized technical services.
Taiwan Headquarters
R&D, manufacturing, testing, and project integration center.
Japan
Regional partnerships, technical exchange, and application expansion.
Australia
On-site services, application validation, and overseas support.
