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PEEK-OPTIMA™ Reinforced LT1CA30 (Granules)

High performance biocompatible thermoplastic material, 30% carbon fibre reinforced PolyEtherEtherKetone (PEEK), semi crystalline. Granules for injection moulding and extrusion, standard flow, for use in long term human implantation. Colour black.

Typical Application Areas
For use in applications requiring high strength, high stiffness, and high ductility. Suitable for use in long-term implantable medical devices. Excellent sterilisation resistance. As PEEK is hygroscopic, drying before use is recommended. Further information is available upon request.

This grade combines the biocompatibility of PEEK with the high strength and stiffness of carbon fiber. It is specifically designed for applications requiring higher strength or stiffness.

Material Properties
Physical

Nominal Value

Unit

Test Method

Density (23°C)

1.40

g/cm³

ISO 1183

Melt Mass-Flow Rate (MFR) (400°C/2.16 kg)

11

g/10 min

Internal Method

Spiral Flow 1

5.80

cm

Internal Method

Molding Shrinkage

ASTM D955

Flow

0.090

%

Across Flow

0.81

%

Water Absorption (Equilibrium, 23°C, 50% RH)

0.59

%

ISO 62

Crystallinity DSC

30.0

%

Internal Method
Mechanical

Nominal Value

Unit

Test Method

Tensile Modulus 2 (23°C)

19100

MPa

ISO 527-1

Tensile Stress

ISO 527-2

Yield, 23°C 3

214

MPa

Yield, 23°C 4

225

MPa

Yield, 23°C 5

233

MPa

Tensile Strain

ISO 527-2

Break, 23°C 3

1.2

%

Break, 23°C 4

1.6

%

Break, 23°C 5

1.7

%

Flexural Modulus

ISO 178

23°C 3

22000

MPa

23°C 4

21000

MPa

23°C 5

20000

MPa

Flexural Stress

ISO 178

Yield, 23°C 3

300

MPa

Yield, 23°C 4

339

MPa

Yield, 23°C 5

388

MPa

3.5% Strain, 23°C 5

322

MPa

Compressive Modulus 5 (23°C)

5920

MPa

ISO 604

Compressive Stress 5 (23°C)

186

MPa

ISO 604

Shear Modulus 5 (23°C)

2740

MPa

ISO 15310

Shear Strength 5 (23°C)

105

MPa

ASTM D732

Poisson's Ratio 5 (23°C)

0.40

ASTM D638
Impact

Nominal Value

Unit

Test Method

Notched Izod Impact Strength

23°C 3

8.7

kJ/m²

ISO 180

23°C 4

10.0

kJ/m²

ISO 180
Hardness

Nominal Value

Unit

Test Method

Rockwell Hardness (M-Scale, 23°C)

108

ISO 2039-2
Thermal

Nominal Value

Unit

Test Method

Glass Transition Temperature (Onset)

145

°C

ISO 11357-2

Melting Temperature

340

°C

ISO 11357-3

CLTE

ASTM D696

Flow : 50 to 120°C

6.3E-6

cm/cm/°C

Flow : 170 to 220°C

1.5E-5

cm/cm/°C

Flow : 220 to 270°C

3.1E-5

cm/cm/°C

Transverse : 50 to 120°C

4.8E-5

cm/cm/°C

Transverse : 50 to 120°C 6

5.4E-5

cm/cm/°C

Transverse : 170 to 220°C

1.2E-4

cm/cm/°C

Transverse : 170 to 220°C 6

1.7E-4

cm/cm/°C

Transverse : 220 to 270°C

1.5E-4

cm/cm/°C

Transverse : 220 to 270°C 6

2.1E-4

cm/cm/°C

Specific Heat

Internal Method

37°C 7

1260

J/kg/°C

37°C 8

2400

J/kg/°C

400°C 9

1360

J/kg/°C

Recrystallization Temperature (Peak)

284

°C

ISO 11357-3
Fill Analysis

Nominal Value

Unit

Test Method

Melt Viscosity 1000 s^-1 (400°C)

920

Pa·s

Internal Method

Melt Stability 1000 s^-1, 1 hr (400°C)

1.0

%

Internal Method

Shear Viscosity 100 s^-1 (400°C)

2306

Pa·s

Internal Method

Shear Viscosity 1000 s^-1 (400°C)

677

Pa·s

Internal Method

Shear Viscosity 10000 s^-1 (400°C)

237

Pa·s

Internal Method

Shear Viscosity 200 s^-1 (400°C)

1632

Pa·s

Internal Method

Shear Viscosity 2000 s^-1 (400°C)

460

Pa·s

Internal Method

Shear Viscosity 400 s^-1 (400°C)

1105

Pa·s

Internal Method

Shear Viscosity 4000 s^-1 (400°C)

320

Pa·s

Internal Method
Typical Processing Information
Injection

Nominal Value

Unit

Drying Temperature

120 to 150

°C

Drying Time

3.0 to 5.0

hr

Suggested Max Moisture

0.020

%

Hopper Temperature

< 100

°C

Rear Temperature

375

°C

Middle Temperature

380 to 385

°C

Front Temperature

390

°C

Nozzle Temperature

395

°C

Mould Temperature

180 to 210

°C

Injection Notes

Drying Temperature / Time: 150°C / 3h or 120°C / 5h (residual moisture <0.02%)
Runner: Die / Nozzle >3 mm, Manifold >3.5 mm
Gate: >1 mm or 0.5 x part thickness

Important Notes:
1) Processing conditions quoted in our datasheets are typical of those used in our processing laboratories

  • Data for mould shrinkage should be used for material comparison. Actual mould shrinkage values are highly dependent on part geometry, mould configuration, and processing conditions.
  • Mould shrinkage differs for along flow and across flow directions. “Along flow” direction is taken as the direction the molten material is travelling when it exits the gate and enters the mould.
  • Mould shrinkage is expressed as a percent change in dimension of a specimen in relation to mould dimensions.

2) Data are generated in accordance with prevailing national, international and internal standards, and should be used for material comparison. Actual property values are highly dependent on part geometry, mould configuration and processing conditions. Properties may also differ for along flow and across flow directions.

Detailed data available on our website www.invibio.com or upon request.

Notes
11.00 mm
20.05 – 0.25%
33-Cycles Steam
475 kGy Gamma
5As Moulded
6Through Flow
7Amorphous
8Crystalline
9Molten
PEEK-OPTIMA Reinforced LT1CA30 Granules