Metal, SLA & FDM 3D Printing Services

AM PRODUCTION STRATEGY

Start with performance,
then select the process.

We analyze drawings, operating conditions, material requirements and lead times to propose a suitable process and material.
From feasibility validation to post-processing, inspection and precision production, we connect every stage into one workflow.

Request a Quote Portfolio

HOW A PROJECT MOVES

From inquiry to inspection and shipment

We share the review results at each stage before proceeding.

01Quote & File ReviewReview 3D data, quantity, tolerances and application
02Slicing & Build PreparationPlan build orientation, supports and nesting
03PrintingApply process parameters and monitor the build
04Post-processingRemove supports, wash and cure; apply heat treatment or surface finishing as needed
05Inspection & ShipmentCheck requirements, pack and deliver

PRINTING PROCESS

Additive Manufacturing Processes

Compare LPBF, SLA and FDM based on component performance and manufacturing objectives.

LPBF · Laser Powder Bed Fusion

For dense metal parts and complex internal structures

A thin layer of metal powder is spread, then a laser selectively melts the required areas. Repeating this process layer by layer builds the part.

Equipment: TERRA 270x2 · TERRA 270P · TERRA 250P
Material: Maraging Steel C300 (18Ni-300 / MS1) · SUS316L · Inconel 718
Benefits: High density and strength, internal channels and integrated complex geometries
Key specifications: Maximum build volume Ø270 × 200 mm³ · Layer thickness 20–50 μm · Nitrogen/argon atmosphere

Recommended for

Functional metal partsInternal channels & heat exchangersTire moldsHigh-strength prototypes

LPBF additive manufacturing: selectively melting metal powder with a laser

SLA · Stereolithography

For smooth surfaces and fine detail

The Form 3B+ uses LFS: a 405 nm laser beneath the tank scans and cures cross-sections of liquid resin, building parts layer by layer beneath the build platform.

Equipment: Formlabs Form 3B+ · LFS (laser-based SLA)
Material: Rigid 4000 · Clear · Grey · Tough series · Silicone 40A and more
Benefits: Excellent surface finish, fine features and high dimensional accuracy
Key specifications: Build volume 145 × 145 × 193 mm (machine specification) · Material-specific washing and post-curing

Recommended for

Visual prototypesFine-detail geometriesClear & high-resolution partsMold masters

SLA additive manufacturing: curing photopolymer resin layer by layer

FDM · Fused Deposition Modeling

For fast functional prototypes, jigs and fixtures

Thermoplastic filament is heated and extruded through a nozzle along the designed toolpath to build functional parts layer by layer.

Equipment: Bambu Lab H2D · CreatBot PEEK 300
Material: PLA · ABS · PETG · Nylon · PA-CF · PEEK/PEEK-CF · PP-GF and more
Benefits: Fast production, cost efficiency, large parts and functional materials
Key specifications: Maximum build volume 300 × 320 × 325 mm³ · Build-orientation effects on properties require review

Recommended for

Functional prototypesJigs & fixturesLarge partsCost-effective iteration

FDM additive manufacturing: extruding filament to build a part

LAYER BY LAYER

LPBF How it works

Explore the key motions that turn material into a part, one layer at a time.

Process Guide

Start with performance,
then select the process.

From inquiry to inspection and shipment

Additive Manufacturing Processes

For dense metal parts and complex internal structures

For smooth surfaces and fine detail

For fast functional prototypes, jigs and fixtures

LPBF How it works

Powder spreading and laser melting repeat layer by layer.

The laser cures a fresh resin layer beneath the part.

Molten filament is deposited along the toolpath.

Choose the next step for your project.