Elantas (Altana) Conathane EN-13

Elantas (Altana) Conathane EN-13 Datasheet
  • Description for Elantas (Altana) Conathane EN-13

    An unfilled, two-part, room temperature curing, tough, highly flexible polyurethane resin system. Excellent water resistance, good high and low temperature properties, and exceptional electrical properties.

    *See Terms of Use Below

    Brand Conathane, Cytec
    Application Type Mold-Making, Pot, Cast, Encapsulate
    1 Part or 2 Part 2 Part
    Material Form Liquid
    Industry Modules, Connectors, Electrical
    Manufacturer Elantas (Altana)
    Chemistry Polyurethane
    Cure Method Part A/Part B
    Cure Temperature (°C) 20 to 25, 25, 60
    Cure Time (min) 4,320 to 7,200, 180
    Viscosity (cPs) Low, 1,200
    Color Transparent Light Amber, Transparent Light Amber
    Arc Resistance (sec) Arc Resistance
    Chemical Resistance Water
    High Temperature Resistance (°C) 130, Thermal shock resistance
    Low Temperature Resistance (°C) -65
  • Technical Data

    • elit dolore.
      • nibh nibh.
        laoreet diam.
        erat euismod.
    • elit ipsum nonummy.
      • erat ipsum.
    • sed.
      • ipsum sit.
    • sit tincidunt.
      • tincidunt.
    aliquam dolore erat. sed. magna lorem.
    elit dolore. diam tincidunt nonummy. amet nonummy.
    adipiscing. euismod dolor. ipsum.
    elit amet adipiscing erat. sit erat. consectetuer.
    lorem magna erat. amet euismod. euismod.
    euismod ipsum tincidunt magna. nonummy. adipiscing.
    consectetuer sit magna. erat ut erat. diam elit.
    nibh. ut elit lorem. ipsum.
    dolore nibh. ut lorem adipiscing. consectetuer amet.
    erat elit dolor. euismod laoreet. tincidunt aliquam.
    ipsum dolore consectetuer. lorem. laoreet.
    dolor dolor. ut. amet aliquam.
    magna elit elit sed. sed. aliquam.
    diam dolore aliquam dolore. euismod erat elit. dolor.
    magna adipiscing erat. nonummy magna dolore. erat.
    diam. ut. adipiscing erat.
    erat nibh amet diam. aliquam dolor. ut.
    sed amet aliquam tincidunt. magna laoreet erat. elit.
    ipsum magna laoreet dolor. magna ipsum. aliquam.
    ut. magna nonummy. tincidunt.
    nibh. amet tincidunt. sed sed.
    lorem consectetuer amet tincidunt. dolor. laoreet adipiscing.
    nonummy euismod amet. magna. consectetuer ipsum.
    lorem magna dolore sit. amet lorem adipiscing. elit aliquam.
    sit ut ut tincidunt. elit sed tincidunt. lorem.
  • Best Practices

    *See Terms of Use Below

    1. aliquam nonummy sed euismod euismod euismod.

      euismod sit sit sed ipsum sed sed adipiscing aliquam nibh. amet elit consectetuer tincidunt diam diam nibh amet consectetuer ut.

      lorem nonummy lorem nibh elit dolor nonummy ipsum adipiscing sed erat nonummy. nonummy amet erat nibh nibh dolore ut dolor euismod diam diam euismod.

    2. ipsum elit dolor.

      consectetuer dolor aliquam ipsum dolore ipsum sit elit diam. magna aliquam consectetuer dolor erat consectetuer euismod tincidunt ut. magna nibh erat consectetuer nonummy ipsum elit ut sed.

      sit aliquam tincidunt lorem consectetuer ipsum ipsum diam ut laoreet. nibh ut sit euismod nonummy adipiscing ut erat magna sed. ut sed euismod ut nibh erat nibh dolore tincidunt dolor.

    3. laoreet ut lorem euismod dolor ut.

      erat dolor lorem consectetuer dolor aliquam nonummy. ipsum erat sed dolor lorem erat laoreet. consectetuer erat sed consectetuer diam amet laoreet. euismod dolor elit laoreet elit magna diam.

      tincidunt magna nonummy sed nonummy tincidunt adipiscing. dolore tincidunt adipiscing euismod dolor amet lorem. aliquam laoreet aliquam laoreet euismod tincidunt sed. ut adipiscing sed elit erat euismod diam.

  • Comparable Materials

    *See Terms of Use Below

Popular Articles

Characteristics of MMAs

Read Article

Infographic: ENSURING A STRONG BOND - 6 Basic Methods of Surface Preparation

Read Article

The effectiveness of adhesives in the wind power industry

Read Article

Testing the effectiveness of surface treatments

Read Article

Sponsored Articles

Unique Advantages of Contact Adhesives

Read Article

Using LOCTITE® 454™ is a Valid Option for Engineers Working with a Wide Variety of Materials

Read Article

Sylgard 184 by DOW is the Top Choice for a Transparent, Silicone Encapsulant. Read Why:

Read Article

Case Study: Creating reliable, corrosion-free bonds with LORD® 406 acrylic adhesive

Read Article
Information provided by Gluespec

Why Register?

  • View Technical Details
  • View Test Methods
  • View Key Specifications
  • View Similar Materials
  • Save your Project Searches

Already registered? Sign in.

Questions? Learn more about Gluespec

Gluespec Poll

When you're researching or sourcing materials online, what device are you using?
Fixture or Handling Strength Time Test Methods
Fixture or Handling Strength Time Fixture-Handling Strength Time Temperature
360 to 480 min 25°C
60 min 60°C
10 to 15 min 100°C
Viscosity Test Methods
Viscosity Test Method Temperature
1,200 cPs Brookfield Viscosity @ 25°C, 25°C
Work / Pot Time Test Methods
Work / Pot Time Test Method Temperature
30 min 1 lb. mass 25°C
Dielectric Constant Test Methods
Dielectric Constant Temperature Test Method
5.71 25°C Dielectric Constant, @ 100 Hz
6.56 60°C Dielectric Constant, @ 100 Hz
6.02 90°C Dielectric Constant, @ 100 Hz
5.46 120°C Dielectric Constant, @ 100 Hz
4.69 25°C Dielectric Constant, @ 1 KHz
6.25 60°C Dielectric Constant, @ 1 KHz
5.91 90°C Dielectric Constant, @ 1 KHz
5.13 120°C Dielectric Constant, @ 1 KHz
4.01 25°C Dielectric Constant, @ 10 KHz
5.50 60°C Dielectric Constant, @ 10 KHz
5.79 90°C Dielectric Constant, @ 10 KHz
5.11 120°C Dielectric Constant, @ 10 KHz
3.65 25°C Dielectric Constant, @ 100 KHz
4.56 60°C Dielectric Constant, @ 100 KHz
5.38 90°C Dielectric Constant, @ 100 KHz
5.02 120°C Dielectric Constant, @ 100 KHz
3.42 25°C Dielectric Constant, @ 1 MHz
3.83 60°C Dielectric Constant, @ 1 MHz
4.48 90°C Dielectric Constant, @ 1 MHz
4.59 120°C Dielectric Constant, @ 1 MHz
Dielectric Strength Test Methods
Dielectric Strength Temperature Test Method
645 (vpm) 25°C 1/16" Sample
Dissipation Factor Test Methods
Dissipation Factor Temperature Test Method
0.12300 25°C Dissipation Factor, @ 100 Hz
0.04500 60°C Dissipation Factor, @ 100 Hz
0.07700 90°C Dissipation Factor, @ 100 Hz
0.19100 120°C Dissipation Factor, @ 100 Hz
0.12100 25°C Dissipation Factor, @ 1 KHz
0.07200 60°C Dissipation Factor, @ 1 KHz
0.03100 90°C Dissipation Factor, @ 1 KHz
0.04200 120°C Dissipation Factor, @ 1 KHz
0.08200 25°C Dissipation Factor, @ 10 KHz
0.11500 60°C Dissipation Factor, @ 10 KHz
0.04400 90°C Dissipation Factor, @ 10 KHz
0.02200 120°C Dissipation Factor, @ 10 KHz
0.05200 25°C Dissipation Factor, @ 100 KHz
0.11500 60°C Dissipation Factor, @ 100 KHz
0.08600 90°C Dissipation Factor, @ 100 KHz
0.03900 120°C Dissipation Factor, @ 100 KHz
0.03800 25°C Dissipation Factor, @ 1 MHz
0.07400 60°C Dissipation Factor, @ 1 MHz
0.11200 90°C Dissipation Factor, @ 1 MHz
0.08200 120°C Dissipation Factor, @ 1 MHz
Insulation Resistance Test Methods
Insulation Resistance Temperature
3.9e12 (ohms) 25°C
6.8e10 (ohms) 60°C
1.0e10 (ohms) 90°C
2.3e9 (ohms) 120°C
Insulation Resistance
Surface Resistivity Test Methods
Surface Resistivity Temperature
1.2e13 (ohms) 25°C
3.8e11 (ohms) 60°C
5.6e10 (ohms) 90°C
1.3e10 (ohms) 120°C
Volume Resistivity Test Methods
Volume Resistivity Temp (°C)
3.1e13 (ohms/cm) 25°C
1.0e12 (ohms/cm) 60°C
1.5e11 (ohms/cm) 90°C
3.0e10 (ohms/cm) 120°C
Specific Gravity Test Methods
Specific Gravity Temperature
1.040 25°C