Experts in 3D technologies since 2012

Experts in 3D technologies since 2012

Metal 3D printer E-PLUS-3D EP-M260

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Metal 3D printer E-PLUS-3D EP-M260

Metal 3D printer E-PLUS-3D EP-M260

Metal 3D printer E-PLUS-3D EP-M260

Metal 3D printer E-PLUS-3D EP-M260

Metal 3D printer E-PLUS-3D EP-M260

Metal 3D printer E-PLUS-3D EP-M260

Metal 3D printer E-PLUS-3D EP-M260

Metal 3D printer E-PLUS-3D EP-M260

Metal 3D printer E-PLUS-3D EP-M260

Metal 3D printer E-PLUS-3D EP-M260

Discontinued

GEN-86368795

Reviews: (0)

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Gas supply Ar / N₂

Laser Characteristics Fiber laser 500W/700W (optional single or dual laser)

Oxygen Content ≤ 100 ppm

Power Requirements 380 V, 50/60 Hz, 5/6 kW

Printing Technology SLM

(see all)

Metal 3D printer E-PLUS-3D EP-M260

The EP-M260 is an industrial metal 3D printer utilizing advanced MPBF™ technology. It efficiently converts CAD data into high-performance, complex metal parts, making it perfect for medium-sized components and small-batch production.

Features

Advanced gas flow management and an optimized filter system maintain a stable build environment.
Superior sealing minimizes oxygen levels.
Accurate laser beam quality control.

Metal 3D printer E-PLUS-3D EP-M260

High Productivity

Dual-laser system with a 260x260x390 mm build chamber.
Continuous operation during filter changes.
Optimized recoating strategy reduces coating time.

Metal 3D printer E-PLUS-3D EP-M260

Reliable and Easy to Operate

Convenient powder recycling and glove box design reduce contact.
Smart software minimizes human intervention.
Real-time monitoring of the production environment and build process.

E-PLUS-3D EP-M260 3D prints

Low Operating Costs

Precise powder feeding and coating minimize waste.
Advanced filtration extends filter life significantly.
Minimal inert gas usage during purging and operation.

Metal 3D printer E-PLUS-3D EP-M260

Glove-box Type Access Door

Double locking with a mechanical lock enhances safety.
Alarm system triggers if the door opens unexpectedly, ensuring safe use.
Two-glove design allows operation without opening the door.
Tension seal offers excellent sealing, controllable automatically or manually.

Buy Metal 3D printer E-PLUS-3D EP-M260 in Ukraine

Tags: E-PLUS-3D

3D Printing

Printing Technology

SLM

Build Volume (mm)

260*260*390

Layer Height (µm)

20-120

Supported Materials

Titanium alloy, aluminum alloy, nickel alloy, maraging steel, stainless steel, cobalt-chromium, copper alloy, etc.

Details

Gas supply

Ar / N₂

Oxygen Content

≤ 100 ppm

Electrical

Power Requirements

380 V, 50/60 Hz, 5/6 kW

Hardware & Performance

Laser Characteristics

Fiber laser 500W/700W (optional single or dual laser)

Laser Engraving and Cutting

Laser Spot Size (mm)

0.07 - 0.1

Software & Connectivity

Supported File Formates

STL or other file to convert

Software

EP Control, EPHatch

Speed

Print Speed (mm/h)

Up to 55

Max Scan Speed (mm/s)

8000

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FAQ

What are metal 3D printers used for?
Metal printing systems are acquired for the rapid production of components with highly complex geometries that are either impossible or economically unfeasible to create using traditional milling or casting.
The most effective applications for this equipment include:
- Rapid manufacturing of unique molds, fixtures, jigs, and other specialized factory tooling;
- Creating weight-optimized, lightweight parts with internal lattice structures for engines or aerospace applications;
- On-demand repair of complex machinery by quickly producing rare or obsolete spare parts;
- Launching small-batch production of functional parts without the high costs of creating traditional metal casting molds.
What is the difference between SLM printing and metal extrusion?
The primary difference is that SLM technology melts a monolithic part in a single stage directly within the build chamber using a laser, whereas Metal FFF extrusion requires additional stages of chemical debinding and sintering in a furnace.
Both additive manufacturing methods offer unique advantages for specific tasks:
- Laser Powder Bed Fusion (SLM/DMLS): High-power lasers melt fine metal powder. This ensures exceptional part density (up to 99.9%) and high geometric precision, making it ideal for the aerospace and defense industries. This segment includes industrial systems from Eplus3D, FastForm, Omni3D, and Sharebot.
- Metal Filament Extrusion (Metal FFF): The printer deposits a filament filled with metal powder to form a "green" part. After printing, the binder polymer is chemically removed (debinding), and the part is sintered in a high-temperature furnace. This method is significantly safer, more affordable, and suitable for standard workshop environments (e.g., the Raise3D ecosystem).
How does Metal FFF technology work?
Metal FFF technology consists of three consecutive stages: printing the workpiece with metal-filled filament, chemical debinding of the binder polymer, and final sintering in a high-temperature furnace.
Step-by-step process of part creation:
- Printing: The printer builds the model layer-by-layer using a specialized metal rod/filament, where metal dust is mixed with polymer and wax.
- Debinding: The "green" part is washed in a chemical solution to remove the primary binding polymer.
- Sintering: In a high-temperature furnace under a protective gas environment, the remaining polymer burns off, and the metal microparticles fuse together into a solid, high-strength metal part. The slicer software automatically scales the model before printing to compensate for shrinkage during sintering.
What are the advantages of 3D printing with metal powders?
The main advantage of powder printing via SLM technology is the near-total absence of raw material waste and the maximum strength of the resulting monolithic products.
Key environmental and production benefits include:
- Reusability: All unused metal powder remaining in the chamber after a cycle is sieved through a vibrating screen and reused in the next build, minimizing waste;
- Maximum Density: Laser melting achieves a monolithic metal structure without porosity, guaranteeing strength that often exceeds traditional casting.
What metals can be used for 3D printing?
Modern 3D printing systems support a wide range of industrial alloys, including stainless and tool steels, titanium, aluminum, copper, and Inconel.
The choice of alloy depends on your specific manufacturing requirements:
- Stainless Steels (316L, 17-4 PH): Ideal for machine parts, fasteners, molds, and food-grade equipment;
- Titanium and Cobalt-Chrome: Widely used in high-precision medical prosthetics, aerospace, and defense industries;
- Aluminum and Copper: Perfect for lightweight structures, heat exchangers, and electrical engineering components.
How do service support and commissioning work?
Our company provides a full range of "turnkey" services — from designing the workspace and installing systems to certified staff training and ongoing technical service.
With over 10 years of hands-on experience, we take full technical responsibility:
- We perform commissioning and setup of any complexity directly at your production facility;
- We provide professional training for your operators on software usage, print parameter optimization, and safe raw material handling.

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