Logotype victrex
ProductsProducts
Products Overview
PolymersPolymers
Polymers Overview
PEEK 450G™
PEEK Polymers
LMPAEK Polymers
PEEK FormsPEEK Forms
PEEK Forms Overview
Composite Tape
PEEK Fibres
PEEK Filaments
PEEK Film
PEEK PartsPEEK Parts
PEEK Parts Overview
Composite Solutions
Gear Solutions
Medical Device Components
Pipe Solutions
Industries
AerospaceAerospace
Aerospace Overview
Engine
Interior
Structural
EnergyEnergy
Energy Overview
Oil and Gas
Renewables
LNG & Hydrogen
AutomotiveAutomotive
Automotive Overview
Chassis
Emotor solutions
Transmission & Engine
IndustrialIndustrial
Industrial Overview
Food Contact
Industrial Equipment
Robotics & Automation
ElectronicsElectronics
Electronics Overview
Consumer Electronics
Home Appliances
Semiconductor
MedicalMedical
Medical Overview
Implantable
Non-implantable
Resources
TechnicalTechnical
Technical Overview
Datasheets
Technical Guides
Webinars
Whitepapers
EducationEducation
Education Overview
Blog
Brochures
FAQs
RegulatoryRegulatory
Regulatory Overview
ISO Certificates
Material Safety Data Sheets
Regulatory Compliance
About us
About Victrex
Purpose
Security of Supply
Quality
Sustainability
Innovation
News & Events
Investor
Careers
Contact us
Contact us
EN
EN
JA
DE
KO
CN
Logotype victrex
Home
VICTREX PEEK 90GL30
Logo
SHAPING FUTURE PERFORMANCETM

From the invention of PEEK over 40 years ago, Victrex has continually pioneered new PAEK-based polymers, materials and solutions that have transformed markets, delivering global impact in the toughest environments.

We bring transformational & sustainable solutions that address world material challenges every day.

Products
Polymers
  • PEEK Polymers
  • LMPAEK Polymers
PEEK Parts
  • Composite Solutions
  • PEEK Gear Solutions
  • Medical Device Components
  • Pipe Solutions
PEEK Forms
  • Composite Tape
  • PEEK Fibres
  • PEEK Filaments
  • PEEK Film
Industries
  • Aerospace
  • Automotive
  • Electronics
  • Energy
  • Industrial
  • Medical
Resources
  • Blog
  • Brochures
  • FAQs
  • Regulatory Information
  • Technical datasheets
  • Technical guides
  • Webinars
  • Whitepapers
Quick links
  • About Victrex
  • Contact us
  • Manage My Preferences
  • PFAS-Free PEEK Polymers
Follow us
LinkedIn icontwitter iconYouTube icon
  • Terms & Conditions
  • Terms of Use
  • Privacy Policy
  • Cookie Policy
  • Modern Slavery Act Statement
  • Sitemap
  • victrexplc.com
  • invibio.com
© 2026 Copyright Victrex plc. All rights reserved.
Go back to datasheets

VICTREX™ PEEK POLYMER 90GL30

High performance thermoplastic material, 30% glass fibre reinforced PolyEtherEtherKetone (PEEK), semi crystalline, granules for injection moulding, very easy flow, colour natural/beige.

Complex geometries with thinner cross sections or longer flow lengths where higher strength in a static system is required. Low coefficient of thermal expansion. Chemically resistant to aggressive environments, suitable for sterilization for medical and food contact applications.

Request a quoteDownload PDF
Material Properties
Physical

Nominal Value

Unit

Test Method

Density (Crystalline)

1.52

g/cm³

ISO 1183

Spiral Flow 1

16.0

cm

Internal Method

Molding Shrinkage 2

ISO 294-4

Across Flow

0.90

%

Flow

0.30

%

Water Absorption (Saturation, 23°C)

0.30

%

ISO 62

Water Absorption Saturation (100°C)

0.45

%

ISO 62
Mechanical

Nominal Value

Unit

Test Method

Tensile Modulus (23°C)

12000

MPa

ISO 527-1

Tensile Stress

ISO 527-2

Break, 23°C

190

MPa

Break, 125°C

130

MPa

Break, 175°C

80.0

MPa

Break, 225°C

60.0

MPa

Break, 275°C

45.0

MPa

Tensile Strain (Break, 23°C)

2.0

%

ISO 527-2

Flexural Modulus (23°C)

10800

MPa

ISO 178

Flexural Stress

ISO 178

23°C

290

MPa

125°C

210

MPa

175°C

115

MPa

275°C

75.0

MPa

Compressive Stress

ISO 604

23°C

250

MPa

120°C

160

MPa

250°C

55.0

MPa

Impact

Nominal Value

Unit

Test Method

Charpy Notched Impact Strength (23°C)

7.5

kJ/m²

ISO 179/1eA

Charpy Unnotched Impact Strength (23°C)

45.0

kJ/m²

ISO 179/1U

Notched Izod Impact Strength (23°C)

8.6

kJ/m²

ISO 180/A

Unnotched Izod Impact Strength (23°C)

45.0

kJ/m²

ISO 180
Hardness

Nominal Value

Unit

Test Method

Shore Hardness (Shore D, 23°C)

87.0

ISO 868
Thermal

Nominal Value

Unit

Test Method

Deflection Temperature Under Load (1.8 MPa, Unannealed)

335

°C

ISO 75-2/Af

Glass Transition Temperature (Onset)

143

°C

ISO 11357-2

Melting Temperature

343

°C

ISO 11357-3

CLTE - Flow

ISO 11359-2

< 143°C

20

ppm/K

> 143°C

20

ppm/K

CLTE - Average

ISO 11359-2

< 143°C

45

ppm/K

> 143°C

110

ppm/K

Thermal Conductivity

ISO 22007-4

23°C 3

0.30

W/m/K

23°C 4

0.35

W/m/K

Electrical

Nominal Value

Unit

Test Method

Volume Resistivity (23°C)

1.0E+16

ohms·cm

IEC 60093

Dielectric Strength (2.00 mm)

23.0

kV/mm

IEC 60243-1

Dielectric Constant (23°C, 1 kHz)

3.30

IEC 60250

Dissipation Factor (23°C, 1 MHz)

4.0E-3

IEC 60250

Comparative Tracking Index

150

V

IEC 60112
Flammability

Nominal Value

Unit

Test Method

Glow Wire Flammability Index (2.0 mm)

960

°C

IEC 60695-2-12
Fill Analysis

Nominal Value

Unit

Test Method

Melt Viscosity (400°C)

200

Pa·s

ISO 11443
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

355

°C

Middle Temperature

360

°C

Front Temperature

365

°C

Nozzle Temperature

370

°C

Mould Temperature

170 to 200

°C

Injection Notes

Drying Temperature / Time: 150°C / 3h or 120°C / 5h (residual moisture <0.02%)
Runner: Die / nozzle >3mm, manifold >3.5mm
Gate: >2mm 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.victrex.com or upon request.

Notes
1Mould Temperature: 180°C, Melt Temperature: 370°C, 1.00 mm
2370°C nozzle, 180°C tool
3Average
4Along flow