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Our 3D Printing Services
EnQi offers a comprehensive suite of high-quality additive manufacturing solutions, encompassing technologies like FDM, SLA, SLS, and SLM. This enables the production of both plastic and metal parts, supporting applications from functional prototyping to end-use part production.
3D printing is ideal for creating one-off parts, small batches, and complex geometries that are difficult or impossible to achieve with traditional manufacturing methods.
Why Choose EnQi?
At EnQiïŒWe provide high-quality, dependable 3D printing solutions that accelerate your rapid prototyping and production.
Comprehensive 3D Printing Technologies
We provide a full range of industrial 3D printing processesâincluding FDM, SLA, SLS, and DMLSâenabling you to select the optimal technology based on material needs, surface quality, mechanical properties, and application requirements.
Rapid Parts Delivery
Leveraging our streamlined workflow and in-house production capabilities, we deliver custom 3D-printed parts in as little as 72 hours, helping you speed up product development and shorten lead times.
From Prototyping to Low-Volume Production
Whether you're validating a design concept or scaling to low-volume manufacturing, we efficiently convert your 3D models into high-quality plastic, metal, and elastomeric parts.
Dedicated Engineering Support
Our experienced engineering team supports you through every phaseâfrom 3D model optimization and DFAM to material recommendation and tolerance analysisâcollaborating closely to ensure your parts meet performance and budget goals.
Start Your Custom 3D Printing Project Today.
All information and uploads are secure and confidential.
3D Printing Technologies
EnQi offers high-quality additive manufacturing services, including FDM, SLA, SLS, and SLM, enabling fast, precise 3D printing in plastics and metals. Ideal for rapid prototyping, functional parts, and low-volume production, our solutions handle complex geometries that traditional methods canât achieve
1. FUSED DEPOSITION MODELING (FDM)
Affordable for basic prototypes

Fused Deposition Modeling (FDM), also called Fused Filament Fabrication (FFF), is a leading additive manufacturing technique known for its accessibility and versatility. It constructs parts by selectively depositing layers of molten thermoplastic, guided by a computer-controlled nozzle.
The process begins with a solid filament spool. The filament is fed to an extruder, where it is melted and laid down with precision along a pre-programmed path. Each deposited layer fuses to the one below upon cooling, allowing for the creation of complex geometries with minimal waste.
This makes FDM ideal for prototyping, custom parts, and educational applications.
2. STEREOLITHOGRAPHY (SLA)
Visual prototype
Stereolithography (SLA) is a pioneering additive manufacturing technology that uses a laser to cure liquid resin into solid parts, differing significantly from filament-based FDM. It is renowned for producing parts with the highest resolution and smoothest surface finish among common 3D printing processes.
During printing, a laser beam is guided across a vat of liquid photopolymer resin by a dynamic mirror system, curing precise cross-sections layer by layer. The build platform adjusts its height after each layer is completed.
While its material selection is confined to photopolymers, SLA is unparalleled for applications demanding extreme detail and smoothness, such as prototypes, jewelry, and dental models. As one of the first 3D printing methods developed, it remains a cornerstone of professional additive manufacturing.

3. SELECTIVE LASER SINTERING (SLS)
Functional prototyping and low-volume parts

Selective Laser Sintering (SLS) is a powder bed additive manufacturing process used to make parts from thermoplastic polymer powders. It is commonly used for functional parts, since SLS printed components have good mechanical properties.
An SLS 3D printer works by sintering areas of plastic powder with a laser. During the process, a thin layer of powder is distributed evenly across the build platform, after which the laser sinters selected areas of the 2D layer. When the layer is complete, the platform is lowered, more powder is added, and the laser sinters the next layer.
When all layers are complete, the part is left to cool. Unused powder is kept to be used again, and the part is cleaned to remove excess material.
4. SELECTIVE LASER MELTING (SLM)
Parts for functional end use
Selective Laser Melting (SLM) is a metal 3D printing process that builds high-strength parts layer by layer from fine metal powder. Inside a sealed, inert gas-filled chamber, a powerful laser selectively melts the powder based on the cross-sections of a CAD model.
Once a layer is completed, the build platform lowers slightly, and a fresh layer of powder is spread across the surface to continue the build. Unlike sintering processes, SLM fully melts the metal powder, resulting in parts with excellent mechanical properties and near-wrought strength.
This makes it suitable for highly demanding applications in aerospace, automotive, medical, and more. The technology also allows for the production of complex geometries, internal channels, and lightweight structures that are difficult or impossible to achieve with traditional manufacturing.

Looking for more additive manufacturing solutions?
Contact Us3D Printing Technologies Compared: Which One is Right for You?
When selecting a 3D printing technology, begin by defining your key design requirements and the intended end use of the part. This will help determine the most suitable printing method for your application. Refer to the table below for a comparison of available technologies.
Technologies | FDM | SLA | SLS | SLM |
---|---|---|---|---|
âAdvantages |
|
|
|
|
âDisadvantages |
|
|
|
|
âTypical layer height | 50-400 microns | 25-100 microns | 100-120 microns | 20-50 microns |
FDM
Advantages
- â¢Most affordable 3D printing process for plastic parts
Disadvantages
- â¢Relatively Low Surface Quality.
- â¢Visible layer lines, weaker layer bonding.
- â¢Not cost-effective for high volumes
Typical layer height
50-400 microns
SLA
Advantages
- â¢High resolution
- â¢No visible layer lines, smooth finish
- â¢Ideal for transparent parts
Disadvantages
- â¢Printers more expensive than FDM
- â¢Weak parts will degrade with sunlight
- â¢Extensive post-processing required
Typical layer height
25-100 microns
SLS
Advantages
- â¢Consistent strength
- â¢No support structures needed
Disadvantages
- â¢Porosity
- â¢Rough surface finish
- â¢High cost
Typical layer height
100-120 microns
SLM
Advantages
- â¢Strong and hard parts
- â¢Ideal for complex shapes
Disadvantages
- â¢Limited build size
- â¢Thermal stress and warping
- â¢High cost
Typical layer height
20-50 microns

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