POTICON Filament

TISMO formulated resin composite material filament for 3D printers

Tag

  • Resin composite material
  • Filament
  • 3D printer

Resin composite material containing ultra-fine potassium titanate fibers to make 3D printing more practical

This 3D printer filament features high dimensional accuracy and precision moldability and is capable of molding functional parts such as robots. It is a filament material that meets the needs of 3D printer users, enabling the modeling of actual parts such as process transfer trays, gears for reduction gears, and mechanical parts, in addition to prototypes and production jigs.

Solution

Filament material for thermal melting and laminating (MEX) method 3D printers, which is composed of ultra-fine potassium titanate fibers blended with thermoplastic resin

Filament for 3D MEX(Material Extrusion method) printing

This is a filament material for thermal melting and stacking (MEX) 3D printers. It is also capable of molding minute parts and has excellent sliding properties.

Features

  • High precision moldability
  • High dimensional accuracy
  • Excellent surface smoothness
  • Good sliding properties
  • Low nozzle aggressiveness

Physical Properties

Poticon Filament NTL34M

physical properties Evaluation Method physical property
Physical and Chemical Properties tints visual inspection white
Filament diameter (mm) Laser Displacement Transducer 1.75 ± 0.05
Intense heat loss (wt%) 120℃ × 1h < 1.0
Glass Transition Temperature(TG) (℃) ISO3146 60
Density (g/cm³) ISO1183 1.27
Mechanical strength(4)(5) Forming direction X-Y direction Z-X direction
Tension strength (MPa) ISO527-1 114 68
Tensile elongation (%) ISO527-1 4.1 4.8
Tensile Modulus (GPa) ISO527-1 5.6 2.7
Bending strength (MPa) ISO178 199 107
Flexural Modulus (GPa) ISO178 7.0 2.8
IZOD Impact Strength (Notched) ISO179 32 40.5
Hot Properties(4)(5) Deflection temperature under load 0.45 MPa (℃) ISO 75 129.9 125.7
1.80 MPa (℃) 104.8 75.0

(4) Specimens were formed by Gutenberg G-ZERO with a 0.4mm nozzle.
(5) Physical properties are representative values and are not guaranteed.

Poticon Filament NTL34MB

physical properties Evaluation Method physical property
Physical and Chemical Properties tint visual inspection black
Filament diameter (mm) Laser Displacement Transducer 1.75 ± 0.05
Intense heat loss (wt%) 120℃ × 1h < 1.0
Glass Transition Temperature(TG) (℃) ISO3146 60
Density (g/cm³) ISO1183 1.27
Mechanical strength(4)(5) Forming direction X-Y direction Z-X direction
Tensile strength (MPa) ISO527-1 115 68
Tensile elongation (%) ISO527-1 4.1 4.9
Tensile Modulus (GPa) ISO527-1 5.7 3.1
Bending strength (MPa) ISO178 184 112
Flexural Modulus (GPa) ISO178 6.7 2.9
IZOD Impact Strength (Notched) (J/m) ISO179 32.8 50.0
Hot Properties(4)(5) Deflection temperature under load 0.45 MPa (℃) ISO 75 152.0 127.8
1.80 MPa (℃) 126.6 76.6

(4) Specimens were formed by Gutenberg G-ZERO with a 0.4mm nozzle.
(5) Physical properties are representative values and are not guaranteed.

Poticon Filament NTL36

physical properties Evaluation Method physical property
Physical and Chemical Properties tints visual inspection white
Filament diameter (mm) Laser Displacement Transducer 1.75 ± 0.05
Intense heat loss (wt%) 120℃ × 1h < 1.0
Glass Transition Temperature(TG) (℃) ISO3146 60
Density (g/cm³) ISO1183 1.40
Mechanical strength(4)(5) Forming direction X-Y direction Z-X direction
Tensile strength (MPa) ISO527-1 145 67
Tensile elongation (%) ISO527-1 3.7 2.6
Tensile Modulus (GPa) ISO527-1 8.2 3.3
Bending strength (MPa) ISO178 245 110
Flexural Modulus (GPa) ISO178 9.7 3.2
IZOD Impact Strength (Notched) (J/m) ISO179 28.6 27.4
Hot Properties Deflection temperature under load 0.45 MPa (℃) ISO 75 139.2 127.9
1.80 MPa (℃) 109.5 82.4

(4) Specimens were formed by Gutenberg G-ZERO with a 0.4mm nozzle.
(5) Physical properties are representative values and are not guaranteed.

Poticon Filament RT4

physical properties Evaluation Method physical property
Physical and Chemical Properties tint visual inspection white
Filament diameter (mm) Laser Displacement Transducer 1.75 ± 0.05
Intense heat loss (wt%) 120℃ × 1h < 1.0
Glass Transition Temperature(TG) (℃) ISO3146 89
Density (g/cm³) ISO1183 1.51
Mechanical strength(2)(3) Tensile strength (MPa) ISO527-1 110
Tensile elongation (%) ISO527-1 2.8
引張弾性率 (GPa) ISO527-1 7.2
Bending strength (MPa) ISO178 210
Flexural Modulus (GPa) ISO178 9.7
IZOD Impact Strength (Notched) (J/m) ISO179 31.3
Hot Properties(2)(3) Deflection temperature under load 0.45 MPa (℃) ISO 75 266.8
1.80 MPa (℃) 231.9

(2) Specimens were formed by Gutenberg G-ZERO, using a 0.4mm nozzle, in the X-Y direction.
(3) Physical properties are representative values and are not guaranteed.

Purpose

Robot parts (mechanical parts, gears, bearings)

Robots parts, Gear, Decelarator, Jig

Track Record

Quadruped Robot

Quadruped Robot

This is a production example of a quadruped robot that actually works by modelling mechanical parts and gears with a 3D printer using Poticon filament. (*Co-operation from Endo Laboratory, Tokyo Institute of Technology)

Drink-Serving Robot

Drink-Serving Robot

This is an example of a drink serving robot made with a 3D printer using Poticon filament. All the mechanical parts and reduction gears were formed using a 3D printer, and the robot operates in a stable manner. (*Co-operation from Irie Laboratory, Department of Precision Engineering, Nihon University) 

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For inquiries
to Otsuka Chemical Co., Ltd.