3D Printing

Various Technologies  |  Various Materials  |  Various Scales

Unlimited Possibilities

Various Technologies

Directed Energy Deposition (DED) is an additive manufacturing process that builds or repairs metal parts by feeding powder into a focused laser beam. The material is melted as it is deposited, enabling precise addition of metal. Unlike powder bed systems, DED is well suited for larger structures and multi-axis deposition, enabling efficient repair, feature addition, and near-net-shape manufacturing with a high degree of flexibility. Plus, in-situ powder mixing capability further expands its potential for functionally graded materials (FGMs) fabrication, fast alloy development, and so on.

Laser Powder Bed Fusion (LPBF) is an additive manufacturing process that builds metal parts layer by layer by selectively melting fine powder with a high-precision laser. A thin layer of powder is spread across a build platform, the laser fuses only the required regions from a digital design, and the process repeats until the part is complete. The result is the ability to produce complex geometries, internal channels, and lightweight structures that are difficult or impossible with conventional methods, while enabling tight control over material structure and performance.

Metal Paste Deposition is an additive manufacturing process that forms metal parts by extruding a paste made of fine metal powder bound in a water-based medium. The material is deposited layer by layer at room temperature to create a “green” part, which is then dried and sintered in a furnace to achieve full density and strength. By separating shaping from densification, the process avoids high-energy lasers and powder handling, offering a cleaner and more accessible workflow while still enabling complex geometries and functional metal components.

Projection Micro Stereolithography (PµSL) is an additive manufacturing process that builds ultra-high-resolution parts by curing liquid resin with projected light patterns. Each layer is formed in a single exposure, where a digital image defines the geometry at micron-scale precision. With tightly controlled layer formation, the process delivers exceptional detail, smooth surfaces, and consistent accuracy, making it well suited for intricate micro-scale components.

Selective Laser Sintering (SLS) is an additive manufacturing process that builds parts by fusing fine polymer powder layer by layer using a laser. A thin layer of powder is spread across the build area, the laser selectively sinters the required regions, and the process repeats to form the final part. Because the surrounding powder naturally supports the geometry, SLS can produce complex shapes, internal features, and interlocking parts without additional support structures, making it well suited for functional prototypes and end-use components with consistent mechanical performance.

Xolography is an additive manufacturing process that creates parts by solidifying liquid resin at precise points within a volume using intersecting light beams. Instead of building layer by layer, material is cured only where two light patterns meet, enabling true volumetric fabrication. This approach allows parts to form rapidly with smooth surfaces and fine detail, while reducing many of the constraints associated with traditional layer-based 3D printing.

Various Materials

Metal

Ti-alloys    Stainless Steels

Al-alloys    Maraging Steel

Cu-alloys    Cobalt Chrome

Ni-alloys    More…

Nylon

PA6    PA12

PA11    TPU

PPS    PP

Resin

HTL    Clear

BIO  HT-200

SR    More…

Ceramic

 

AL Alumina

Hydrogel

 

GelMA    PEGDA

Various Scales

μm

Ultra-Fine Feature 3D Printing
Our Solutions:
Material:
Resin, Ceramic, Hydrogel
Applications:
Microfluidics
Drug Delivery
Tissue Engineering
Terahertz & RF
MEMS Packaging
etc.

mm

Precision Manufacturing
Our Solutions:
Material:
Metal, Resin, Ceramic, Hydrogel
Applications:
Electronic housings
Dental Parts
Medical Devices
Robotics Components
etc.

cm

Functional Part Prototyping
Our Solutions:
Material:
Metal, Resin, Ceramic, Nylon
Applications:
Mechanical Tools
Jigs, Fixtures, Brackets
Machine Part Prototypes
Medical Tools
etc.

m

Large-Format Production
Our Solutions:
Material:
Metal, Nylon
Applications:
Automotive
Aerospace
Molds & Dies
Construction
Architecture
etc.

We provide pre-sales consultation, validation printing trials, and after-sales technical support across Australia and New Zealand.