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Titanium Ti64

Titanium Ti64

EOS Ti64 - lightweight, high-strength titanium alloy with high corrosion resistance.

Estimated delivery time:
10 - 15 working days
The delivery time extends from the time the order is placed until the models are received.
Maximum print size:
334 x 358 x 360mm
Larger models can be printed by dividing them into several parts and then joining them together.
Standard layer height:
0.04 mm
Tolerance:
±0.2%
Heat resistance:
400°C
The model can be used up to this temperature without being damaged.

Available colors

Grey

Available post-processing

Heat treatment Surface treatment Thread cutting

Gallery

Suitable for

  • Corrosive environments
  • Lightweight, heavy-duty components
  • Medical technology

Unsuitable for

  • Cost-critical projects
  • Extremely high continuous heat (>500 °C)
  • Parts with extreme abrasion (SUS316L better in this case)

Additional information

Surface machining is carried out by us as standard. For thread cutting, please contact us directly.
Titanium (EOS Ti64) is a high-strength, lightweight titanium alloy with excellent corrosion and temperature resistance, which is particularly suitable for demanding applications. It is produced by selective laser melting of titanium powder and delivers precise metal parts with high load-bearing capacity and a long service life. 3D-printed titanium has a matt, slightly rough surface with a uniform structure and silver-grey coloring. EOS Ti64 is ideal for components where an optimum weight/strength ratio is required. Typical applications include aerospace components, medical implants, motorsport parts and complex functional prototypes.

Minimum wall thickness with supported wall

A supported wall is one that is connected to other walls on two or more sides.

0.8 mm

Minimum wall thickness for unsupported wall

An unsupported wall is one that is connected to other walls on less than two sides.

1 mm

Minimum supported wire thickness with support structure

A wire is a feature whose length is more than five times its width. A supported wire is connected to walls on both sides.

0.8 mm

Minimum supported wire thickness without support structure

A wire is a feature whose length is more than five times its width. An unsupported wire is connected to walls on less than two sides.

1 mm

Minimum hole diameter

The precision of a hole depends not only on its diameter, but also on the thickness of the wall in which it is printed. The thicker the wall, the less accurate the hole can be. For holes that go all the way through, it must also be ensured that there is a clear line of sight so that all excess material can be removed during post-processing.

1 mm

Minimal raised detail

A detail is a feature whose length is less than twice its width. The minimum size of details is determined by the printer resolution. If the detail dimensions are below this minimum, the printer may not be able to reproduce them accurately. Details that are too small can also be smoothed out during polishing and thus disappear.

To ensure that details are clearly displayed, they should be larger than the specified minimum. We may not be able to print products with details below the minimum size as the end result will not match your design. If your product contains smaller details, try to enlarge them, remove them or choose a material with finer detail reproduction.

0.6 mm

Minimal engraved detail

A detail is a feature whose length is less than twice its width. Engraved or recessed details are those that go into a surface.

0.6 mm

Minimum distance between components

The distance is the space between two parts, walls or wires. To achieve a successful print result, the gap between parts, walls and wires should be greater than the specified minimum. If the distance is too small, it may help to increase the gap or connect the parts or features if their independence is not necessary. Alternatively, a material with a smaller minimum gap can be selected.

1 mm

Included parts possible?

Sometimes interlocking or moving parts cannot be printed because the supports inside the cross-section cannot be removed.

No

Support structures needed?

As each layer must build on the previous one, some materials at angles greater than 45 degrees usually require supports to be printed along with the design. Supports are not inherently detrimental to your design, but they increase the complexity of the printing process and result in a less smooth surface on overhanging parts.

No

Properties

Weather resistant

Heat resistant

Elastic

High strength

Chemically resistant

Biodegradable

Technical data sheet

Technical data sheet
Safety sheet

SLM (Selective Laser Melting)

Functionality

In the SLM process, a machine applies metal powder layer by layer. A laser melts the specific areas that form the component. The building platform then lowers and a new layer of powder is applied. This is repeated until the part is finished.
 

Advantages

- High density and good mechanical properties
- Comparable to conventional manufacturing.
- Complex geometries
- Many metals can be used

 

Areas of application

- Medical technology
- Aerospace
- Automotive industry
- Toolmaking and customization

 

Further video

Below you will find a video showing the SLM process in action. The video starts at 5 seconds to go directly to the relevant scene.
  [slm_video]
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