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Materials, Ceramic Filament, Composite Tooling, Engineering, FFF (FDM) 3D Printing Materials, Filament, Filaments 3D Printing Materials, Jigs&Fixtures, Manufacturing · FFF

Zetamix TiO2 Filament 1,75mm

Print titanium-dioxide (TiO2) ceramic parts on a standard FFF printer — a specialty technical ceramic for niche applications.
  • ✔ Specialty technical ceramic produced on an everyday FFF machine
  • ✔ Print → debind → sinter to dense ceramic, no powder system required
  • ✔ Genuine Zetamix by Nanoe · 500 g spool · lead time 10–20 business days (depending on order queue)

$550

Prices follow supplier cost and stock availability and are updated regularly. The price you see is today's price — once you order, it's held for 7 days.
About this product

Zetamix TiO2 filament lets you 3D-print dense titanium-dioxide (rutile) ceramic with a very high dielectric constant on a standard FFF printer, then debind and sinter to a functional RF part — the same print → debind → sinter workflow we run in-house on our 3DCeram M.A.T. Permittivity εr = 75 (±5) at 9.4 GHz makes it a material for miniaturized microwave devices, antennas and dielectric resonators.

Zetamix TiO2 rutile 3D printed sintered ceramic part
TiO2 parts printed on a standard FFF machine, then debound and sintered to dense rutile ceramic.

Why engineers choose Zetamix TiO2 filament

Sintered titanium dioxide (rutile) with a very high, batch-consistent dielectric constant — for RF and microwave parts.

Very high permittivity

Dielectric constant εr = 75 (±5) at 9.4 GHz lets you shrink RF components and antennas that would be far larger in low-ε materials.

Low loss tangent

Loss tangent of 1×10⁻³ to 5×10⁻³ keeps dielectric losses low at microwave frequencies.

Dense sintered rutile ceramic

Titanium dioxide (rutile), 81% by mass, sintered to 98–99% of theoretical density for stable, repeatable RF behaviour.

Batch-consistent dielectric properties

Consistent permittivity and loss from spool to spool, with ±5% dielectric stability from −50 °C to +110 °C.

TiO2 material properties after sintering

  • Composition: titanium dioxide (rutile), 81% by mass
  • Dielectric constant (permittivity): εr = 75 (±5) at 9.4 GHz
  • Loss tangent: 1×10⁻³ to 5×10⁻³
  • Dielectric stability: ±5% from −50 °C to +110 °C
  • Density after sintering: 98–99% of theoretical
  • Specific gravity: 2.59 g/cm³ (filament)
  • Sintering: 30 °C/h to 1300 °C, 2 h hold, air atmosphere
  • Scale factor: 123.4% (X/Y) & 125.7% (Z)
  • Filament: 1.75 mm

Full specifications are listed in the Specifications tab. Dielectric and density values are process-dependent — final properties vary with print, debind and sinter parameters.

From spool to dense rutile ceramic part

Three stages — the same workflow we run in-house.

Step 01

Design & scale

Scale the model by 123.4% (X/Y) and 125.7% (Z) for sintering shrinkage. Design for the RF geometry and target frequency you need.

Step 02

Print on FFF

Print the green part on any standard FFF machine with a grooved drive gear and flexible build plate. No cooling fan; 0.5 mm retraction at 80 mm/s.

Step 03

Debind & sinter

Acetone debind (6 h, 40 °C), thermal debind to 500 °C, then sinter to 1300 °C in air to a dense rutile part. No furnace? We run this for you.

Where Zetamix TiO2 is used

Engineers print TiO2 when they need a high-permittivity dielectric in a complex, miniaturized RF geometry.

RF & microwave devices
High-permittivity dielectric parts
Antennas
Compact, high-ε radiating elements
Waveguides
Dielectric-loaded RF structures
Dielectric resonators
High-Q resonant elements
Miniaturized RF components
Size reduction via high permittivity
Research & prototyping
Parts that need titanium-dioxide properties

See real builds in our Zetamix case studies →

No sintering furnace or debinding station? Talk to our team — we’ll help you get set up. Get in touch →

See Zetamix TiO2 in action

Watch how Zetamix ceramic and metal filaments go from spool to dense, sintered part — the same FFF print → debind → sinter workflow we run in-house.

Choose your Zetamix material

Every Zetamix filament prints on a standard FFF 3D printer — we print and validate them in-house on our 3DCeram M.A.T. system — then debind and sinter to a dense ceramic or metal part. The highlighted row is the material on this page; compare the range below:

Material Type Stands out for Best for From
Alumina Technical ceramic Electrical insulation, ~1550°C Insulators, high-temp tooling $495
White Zirconia Technical ceramic Toughness & flexural strength Wear & structural parts $485
Black Zirconia Technical ceramic Zirconia strength, black finish Aesthetic + technical parts $550
Silicon Carbide Technical ceramic Extreme hardness & thermal Abrasive / high-temp parts $550
Porcelain Ceramic (art) Glazeable, classic finish Art, tableware, decorative $225
316L Stainless steel Corrosion resistance, ductile Functional metal parts $420
17-4 PH Stainless steel High strength, hardenable Tooling & functional parts $420
H13 Tool steel Hot hardness & wear Dies, inserts, tooling $420
TiO2 Specialty ceramic Very high permittivity (εr 75) RF / microwave parts $550
Tell us your target frequency, permittivity and part size — a materials engineer who prints these every day will recommend the right Zetamix material and the print → debind → sinter parameters. Sub-4h reply, NDA standard.
Brand Zetamix by Nanoe
Printing Materials Metal Filaments
Technology FFF
Material Titania (TiO2)
Application Composite Tooling, Engineering, Jigs & Fixtures, Manufacturing

Common questions

Don't see yours? Email [email protected] — NDA standard, typical reply within 4 hours.

What makes TiO2 particularly valuable for RF applications?
TiO2 (rutile) offers an exceptionally high dielectric constant (ε=75) with low loss, enabling miniaturization of RF components while maintaining performance—ideal for antennas, filters, and waveguides.
How stable are the dielectric properties with temperature?
Excellent stability—the dielectric constant varies only ±5% across a wide temperature range from -50°C to +110°C, making it suitable for demanding environmental conditions.
What RF applications is this material best suited for?
Microwave antennas, waveguide components, RF filters, dielectric resonators, phase array systems, and any application requiring high permittivity with low loss at microwave frequencies.
How does the sintering process affect dielectric properties?
Proper sintering to 1300°C achieves 98-99% density, which is crucial for consistent dielectric performance. Lower densities may reduce the permittivity value.
What design limitations should I consider?
Standard ceramic design rules apply—avoid sharp corners, maintain uniform wall thicknesses where possible, and account for anisotropic shrinkage (different in X/Y vs Z).
Can I create complex geometries with internal features?
Yes! This is a key advantage over traditional ceramic manufacturing. Create intricate waveguide structures, complex antenna shapes, and internal channels impossible with conventional methods.
How long does the complete process take?
Printing varies by model. Chemical debinding takes 6h + 2h drying, thermal debinding ≈60h, and sintering ≈43h including ramp times and holding.
What safety precautions are necessary?
Standard ceramic filament handling—use in well-ventilated areas during printing and debinding. The sintered TiO2 is biologically inert and safe for handling.
What's the shelf life of the filament?
Six months when stored in original vacuum-sealed packaging in cool, dry conditions
Can I achieve different permittivity values?
The ε=75 is characteristic of fully dense rutile TiO2. Variations in sintering density or the use of composite designs can modify effective permittivity for specific applications

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