increasing temperature resistance - highlight

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Advanced Materials Increasing temperature resistance Quarter 1, 2014

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Page 1: Increasing temperature resistance - Highlight

Advanced Materials

Increasing temperature resistance

Quarter 1, 2014

Page 2: Increasing temperature resistance - Highlight

Advanced Materials 2

Table of contents

Araldite® epoxy phenol novolac resins Product selection

Thermo-mechanical properties

Araldite® glycidyl-amine based epoxy resins Product selection

Thermo-mechanical properties

Water absorption

Multifunctional hydroxyl phenyl based epoxy resins Product selection

Thermo-mechanical properties

Aromatic amine based hardeners Product selection

Kinetics

Thermo-mechanical properties

Mechanical properties

Page 3: Increasing temperature resistance - Highlight

Advanced Materials 3

Araldite® epoxy phenol novolac resins

Product selection

< Table of content Epoxy resins Hydroxyl phenyl based > Glycidyl-amine based >

!! Araldite® EPN 1179 !! Araldite® EPN 1180

n

CH2

O

O

CH2

O

O

O

O

Epoxy phenol novolac (EPN)

!

!!

!

!!

n

!

!!

Epoxy dicyclopentadiene phenol novolac (EDCPDN)

!! Tactix® 556 !! Tactix® 756

Phenol novolac >

Page 4: Increasing temperature resistance - Highlight

Advanced Materials 4

Product Description Viscosity at 52°C (mPa.s) Epoxy equivalent weight (g/eq)

Araldite® EPN 1179 Epoxy phenol novolac resin Semi-solid, functionality 2.5

1 100 - 1 700 172 - 179

Araldite® EPN 1180 Epoxy phenol novolac resin Semi-solid, functionality 3.6

20 000 - 50 000 175 - 182

Tactix® 556 Epoxy dicyclopentadiene novolac resin 1 000 - 1 500 at 85°C 225 - 240

Tactix® 756 Epoxy dicyclopentadiene novolac resin Not measured 250 - 274

Araldite® epoxy phenol novolac resins

Product selection

< Table of content Epoxy resins Hydroxyl phenyl based > Glycidyl-amine based > Phenol novolac >

Page 5: Increasing temperature resistance - Highlight

Advanced Materials 5

Araldite® epoxy phenol novolac resins

Thermo-mechanical properties Ultimate Tg and water absorption cured with DDS

Stoichiometric cure with 4,4'-DDS - Cure cycle : 0.5h at 80°C + 0.5h at 100°C + 1.5h at 120°C + 2h at 180°C Water absorption after 14 days in boiling water

Ultimate Tg and water absorption cured with DDS

< Table of content Epoxy resins Hydroxyl phenyl based > Glycidyl-amine based > Phenol novolac >

Page 6: Increasing temperature resistance - Highlight

Advanced Materials 6

Araldite® epoxy phenol novolac resins

Thermo-mechanical properties Ultimate Tg and water absorption cured with DICY

Stoichiometric cure with DICY hardener / TDI-Uron (100/46 pbw) Cure profile: 2h at 100°C + 2h at 150°C + 2h at 220°C - Tg measured via DMA (G’ Onset)

Tg and water absorption cured with DICY

< Table of content Epoxy resins Hydroxyl phenyl based > Glycidyl-amine based > Phenol novolac >

Page 7: Increasing temperature resistance - Highlight

Advanced Materials 7

Araldite® epoxy phenol novolac resins

Thermo-mechanical properties Ultimate Tg and G1C cured with DICY

Stoichiometric cure with DICY hardener / TDI-Uron (100/46 pbw) Cure profile: 2h at 100°C + 2h at 150°C + 2h at 220°C - Tg measured via DMA (G’ Onset)

Tg 1C

< Table of content Epoxy resins Hydroxyl phenyl based > Glycidyl-amine based > Phenol novolac >

Page 8: Increasing temperature resistance - Highlight

Advanced Materials 8

Araldite® glycidyl-amine based epoxy resins

Product selection

!! Araldite® MY 0500 !! Araldite® MY 0510 Viscosity at 25°C: 550 - 850 mPa.s (Araldite® MY 0510)

!! Araldite® MY 0600 !! Araldite® MY 0610 Viscosity at 25°C: 1 500 - 4 800 mPa.s (Araldite® MY 0610)

!! Araldite® MY 720 !! Araldite® MY 721 !! Araldite® MY 9512!

O

O

O

N

O

Triglycidylether of para-amino phenol (TGPAP)

O

ONO O

Triglycidylether of meta-amino phenol (TGMAP)

O N

O O

N

O

Tetraglycidylether of methylene dianiline (TGMDA)

< Table of content Epoxy resins Hydroxyl phenyl based > Glycidyl-amine based > Phenol novolac >

Page 9: Increasing temperature resistance - Highlight

Advanced Materials 9

Araldite® glycidyl-amine based epoxy resins

Product selection Product Description Viscosity at 25°C (mPa.s) Epoxy equivalent weight (g/eq)

Araldite® MY 0600 Triglycidylether of meta-aminophenol (TGMAP)

7 000 - 13 000 101 - 111

Araldite® MY 0610 Triglycidylether of meta-aminophenol (TGMAP) Purified grade

1 500 - 4 800 94 - 102

Araldite® MY 0500 Triglycidylether of para-aminophenol (TGPAP)

2 000 - 5 000 100 - 115

Araldite® MY 0510 Triglycidylether of para-aminophenol (TGPAP) Purified grade

550 - 850 96 - 106

Araldite® MY 721 Tetraglycidylether of methylene dianiline (TGMDA)

4 500 - 7 500 at 50 � 111 - 117

< Table of content Epoxy resins Hydroxyl phenyl based > Glycidyl-amine based > Phenol novolac >

Page 10: Increasing temperature resistance - Highlight

Advanced Materials 10

Araldite® glycidyl-amine based epoxy resins

Thermo-mechanical properties Modulus vs temperature by DMA Comparison with Araldite® MY790 cured with DDS

Stoichiometric cure with 4,4'-DDS Cure cycle : 0.5h at 80°C + 0.5h at 100°C + 1.5h at 120°C + 2h at 180°C

Modulus vs temperature by DMA Comparison with Araldite® MY790 cured with DDS ® MY790 cured with DDS ®

< Table of content Epoxy resins Hydroxyl phenyl based > Glycidyl-amine based > Phenol novolac >

Page 11: Increasing temperature resistance - Highlight

Advanced Materials 11

Araldite® glycidyl-amine based epoxy resins

Thermo-mechanical properties Glass transition temperature and modulus Comparison between TGMDA, TGPAP and TGMAP cured with DDS

Stoichiometric cure with 4,4'-DDS Cure cycle : 0.5h at 80°C + 0.5h at 100°C + 1.5h at 120°C + 2h at 180°C

< Table of content Epoxy resins Hydroxyl phenyl based > Glycidyl-amine based > Phenol novolac >

Glass transition temperature and modulus Comparison between TGMDA, TGPAP and TGMAP cured with DDS

Page 12: Increasing temperature resistance - Highlight

Advanced Materials 12

Araldite® glycidyl-amine based epoxy resins

Water absorption Glass transition temperature and water absorption Comparison between TGMAP, TGPAP and TGMDA cured with DICY

Stoichiometric cure with DICY hardener/ TDI-Uron (100/46 pbw) Cure profile: 2h at 100°C + 2h at 150°C + 2h at 220°C - Tg measured via DMA (G’ Onset)

Glass transition temperature and water absorption Comparison between TGMAP, TGPAP and TGMDA cured with DICY

< Table of content Epoxy resins Hydroxyl phenyl based > Glycidyl-amine based > Phenol novolac >

Page 13: Increasing temperature resistance - Highlight

Advanced Materials

O

O

O

O

O

O

Tactix® 742

O O

OO

OO

OO

XB 4399-3

13

Hydroxyl phenyl based epoxy resins

Product selection

Product Description Viscosity (mPa.s) Epoxy equivalent weight (g/eq)

Tactix® 742 Tris-(hydroxyl phenyl) methane-based epoxy resin 700 - 800 at 100°C 150 - 170

XB 4399-3 Tetra-(hydroxyl phenyl) ethylene-based epoxy resin 19 000 - 21 000 at 120°C 213 - 244

< Table of content Epoxy resins Hydroxyl phenyl based > Glycidyl-amine based > Phenol novolac >

Page 14: Increasing temperature resistance - Highlight

Advanced Materials 14

Hydroxyl phenyl based epoxy resins

Thermo-mechanical properties Glass transition temperature Comparison between Tactix® 742 and epoxy phenol novolac resin

Stoichiometric cure with 4,4'-DDS Cure cycle : 3h at 180°C + 2h at 230°C

< Table of content Epoxy resins Hydroxyl phenyl based > Glycidyl-amine based > Phenol novolac >

Glass transition temperature Comparison between Tactix® 742 and epoxy phenol ® 742 and epoxy phenol ® novolac resin

Page 15: Increasing temperature resistance - Highlight

Advanced Materials 15

Aromatic amine based hardeners

Product selection Product Latency / Reactivity Impact on mechanical properties Form / Processability

4,4'-Methylenebis- (2-isopropyl-6-methylaniline)

Reference Reference Viscosity ~ 40 mPa.s at 90°C

Aradur® 9664-1 Very latent at RT Lower reactivity at 120 / 180°C

Very high Tg 4,4´-DDS Solid: fine powder easily dispersible Softening point: 176 - 185°C

Aradur® 9719-1 Latent at RT Similar reactivity at 120 / 180°C

Highest modulus 3,3´-DDS Solid: fine powder easily dispersible Softening point: 170 - 180°C

XB 3473 Faster at 120 / 180°C Similar Tg and modulus

Liquid Viscosity: 80 - 125 mPa.s at 25°C

LME 10478 Latency improved Highest modulus Solid Softening point: 30°C Melt Viscosity: 100 - 300 mPa.s at 120°C

LME 10638 Similar reactivity Highest modulus and elongation at break

Solid: dissolves easily in epoxy resins Melt viscosity: 2 250 mPa.s at 120°C

< Table of content Hardeners Aromatic amine based >

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Advanced Materials 16

Aromatic amine based hardeners

Kinetics Time to reach 90% conversion at 120°C and 180°C

Araldite® GY 250 (BisA-diglycidyl ether) + hardener mixed at stoichiometry Conversion measured with DSC (isotherm)

< Table of content Hardeners Aromatic amine based >

Page 17: Increasing temperature resistance - Highlight

Advanced Materials 17

Aromatic amine based hardeners

Thermo-mechanical properties Modulus and Tg

Araldite® GY 250 (BisA-diglycidyl ether) + hardener mixed at stoichiometry Cure profile: 2h at 150°C + 4h at 180°C + 2h at 200°C - Tg measured via DMA (Tan delta Peak)

< Table of content Hardeners Aromatic amine based >

Page 18: Increasing temperature resistance - Highlight

Advanced Materials 18

Aromatic amine based hardeners

Mechanical properties Elongation at break and tensile strength

Araldite® GY 250 (BisA-diglycidyl ether) + hardener mixed at stoichiometry Cure profile: 2h at 150°C + 4h at 180°C + 2h at 200°C

< Table of content Hardeners Aromatic amine based >

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Advanced Materials 19

Keep our products at your fingertips

View the brochure on SlideShare With this brochure get an overview of our comprehensive range of building blocks for formulators.

Download our mobile apps on your smartphone With these apps select immediately the right: !! Araldite® industrial adhesive for your specific need !! Araldite® composite formulated system for your process / application Access the product description or send us an email to request the technical data sheet.

Araldite® - Adhesives (Europe) Download on iPhone | Android

Huntsman - Composite resins (Europe) Download on iPhone | Android

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Advanced Materials 20

For more information

www.huntsman.com/advanced_materials [email protected]

Europe Huntsman Advanced Materials (Switzerland) GmbH Klybeckstrasse 200 P.O. Box - 4002 Basel Switzerland Tel. +41 61 299 20 41 Fax +41 61 299 20 40

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