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High-Performance Heat-Curing Epoxy Adhesive for Circuit Board Chip Edge Bonding, NOBELPLA63005

High-Performance Heat-Curing Epoxy Adhesive for Circuit Board Chip Edge Bonding, NOBELPLA63005

Key Features: 

Heat-curing epoxy, used for bonding or potting of electronic components,

has excellent adhesion to a variety of substrates, excellent mechanical shock

or vibration resistance, easy to apply in a variety of ways, fire resistance.

 

 

  • Product Name :

    NOBELPLA63005
  • Color :

    Black
  • Hardness :

    85D
  • Lap Shear Strength [MPa] :

    18 (FR4 to FR4)
  • Note :

    Customizable
  • Viscosity [mPa.s] :

    19000
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Electronic Circuit Board Adhesive with Strong Adhesion & Mechanical Resistance, NOBELPLA63005

 

Item Specification / Description
Product Name NOBELPLA63005
Product Type Heat-Curing Epoxy Adhesive
Target Application Circuit board assembly; chip edge bonding; electronic component potting
Chemistry Epoxy
Curing Mechanism Thermal curing (heat-activated crosslinking)
Color Black
Viscosity 19,000 mPa·s
Hardness Shore D 85
Lap Shear Strength 18 MPa (FR4 to FR4)
Primary Functions Sealing / Encapsulation; Structural reinforcement
Adhesion Performance Excellent adhesion to FR4 and various electronic substrates
Mechanical Performance Outstanding resistance to mechanical shock and vibration
Flame Resistance Fire-resistant formulation suitable for electronic applications
Process Compatibility Suitable for dispensing, potting, and precision edge bonding processes
Customization Formulation customizable according to process and performance requirements

 

 


Product Summary

 

NOBELPLA63005 is a high-performance heat-curing epoxy adhesive specifically engineered for circuit board assembly and chip edge bonding applications. Designed for bonding and potting of electronic components, the material delivers excellent adhesion to FR4 and a wide range of electronic substrates.

With a Shore D hardness of 85 and lap shear strength of 18 MPa (FR4-to-FR4), the cured epoxy provides strong structural reinforcement and mechanical stability. Its superior resistance to mechanical shock and vibration enhances long-term reliability in demanding electronic environments.

 

The controlled viscosity of 19,000 mPa·s enables precise dispensing and consistent application in automated production lines. Combined with fire-resistant properties and customizable formulation options, NOBELPLA63005 offers a robust and reliable sealing and encapsulation solution for advanced PCB and semiconductor packaging applications.

 

 

 

 

 

 

 

 

 

 

 

 

 

 

 

COLLTECH NOBELPLA Advanced Electronic Adhesives & Thermal Management Materials – Technical FAQ


1. What core technologies define COLLTECH NOBELPLA’s product portfolio?

Our portfolio is built upon advanced polymer engineering and thermally functional filler technologies, focusing on high-performance thermal interface materials (TIMs), structural bonding systems, encapsulation compounds, and functional conductive adhesives.


2. Which industries are primarily supported by your materials?

Our solutions are widely deployed in power electronics, automotive ECUs, LED modules, battery management systems (BMS), industrial automation equipment, communication infrastructure, and advanced electronic assemblies.


3. What polymer chemistries are used in your formulations?

We utilize epoxy, silicone (RTV and addition-cure), polyurethane, acrylic, UV-curable, and hybrid polymer systems engineered for durability, environmental resistance, and mechanical stability.


4. What types of Thermal Interface Materials (TIMs) are available?

Our TIM portfolio includes thermal greases, thermal gels, gap fillers, thermally conductive potting compounds, and thermally conductive structural adhesives.


5. How do your TIMs improve heat dissipation efficiency?

By optimizing filler particle distribution, surface treatment, and polymer matrix interaction, our materials reduce interfacial voids and minimize thermal impedance between mating surfaces.


6. What thermal conductivity levels can your materials achieve?

Thermal conductivity performance depends on filler system and formulation design. Multiple grades are engineered to meet varying power density and heat flux demands.


7. Are your thermally conductive materials electrically insulating?

Yes. Most thermal interface solutions combine high thermal conductivity with excellent dielectric strength and high volume resistivity.


8. Do you provide electrically conductive adhesive (ECA) systems?

Yes. Silver-filled conductive adhesives are available for grounding, EMI shielding, and selective signal transmission applications.


9. What curing mechanisms are supported across your product lines?

Our materials support heat curing, room-temperature curing (RTV), moisture curing, UV curing, and dual-cure technologies to align with diverse manufacturing environments.


10. Are your products compatible with automated dispensing and inline production?

Yes. Rheological behavior is engineered for stable needle dispensing, jetting, screen printing, and robotic automated assembly processes.


11. How is viscosity stability maintained during storage?

We implement advanced filler surface modification and anti-settling technology to ensure consistent viscosity and prevent phase separation.


12. Do you offer low-modulus systems for stress-sensitive components?

Yes. Elastomeric silicone and hybrid formulations are designed to absorb mechanical stress caused by CTE mismatch and thermal cycling.


13. Why is CTE control critical in electronic packaging?

Matching the Coefficient of Thermal Expansion (CTE) between bonded substrates reduces thermo-mechanical fatigue and enhances long-term reliability.


14. How do your materials perform under thermal cycling and humidity exposure?

Selected grades are engineered to maintain adhesion strength, dielectric stability, and mechanical integrity under repeated temperature fluctuations and high-humidity environments.


15. What encapsulation and potting solutions are available?

We provide epoxy and silicone encapsulants that protect sensitive components against moisture ingress, vibration, dust contamination, and chemical exposure.


16. Are flame-retardant formulations available?

Yes. Certain product lines are engineered to meet flame-retardancy requirements for safety-critical electronic systems.


17. Do you supply conformal coating materials?

Yes. Our conformal coatings protect PCBs from humidity, corrosion, ionic contamination, and environmental stress.


18. What key performance parameters are evaluated during material development?

Thermal conductivity, dielectric strength, dielectric constant, dissipation factor (tan δ), volume resistivity, Tg, CTE, modulus, adhesion strength, rheology profile, and aging stability.


19. How is quality consistency ensured?

Strict raw material qualification, controlled production processes, statistical process control (SPC), and full lot traceability ensure batch-to-batch consistency.


20. Are your materials compliant with international environmental regulations?

Yes. Our products comply with major global environmental standards including RoHS and REACH directives.


21. Can formulations be customized for specific engineering requirements?

Yes. We provide application-driven customization to optimize thermal conductivity, flexibility, adhesion strength, curing profile, and processing compatibility.


22. Do you support prototype validation and reliability testing?

Yes. We assist customers with sample evaluation, pilot production trials, and reliability qualification programs.


23. Are your materials suitable for automotive-grade electronics?

Yes. Our systems are engineered to withstand vibration, humidity, and harsh temperature variations typical of automotive environments.


24. What operational temperature ranges can your materials support?

Depending on chemistry, materials are designed to maintain stable performance across extended temperature ranges.


25. How do you address moisture resistance and hydrolytic stability?

Low moisture absorption polymer matrices and optimized crosslink density improve long-term dielectric and mechanical stability in humid environments.


26. Are low-ionic and low-outgassing grades available?

Yes. Select formulations are engineered to minimize ionic contamination and volatile emissions in high-sensitivity electronic assemblies.


27. What packaging formats are available?

Products are supplied in syringes, cartridges, dual cartridges, pails, and drums to support laboratory validation and mass production.


28. How is shelf life determined?

Shelf life is validated through accelerated aging studies and real-time storage testing under defined environmental conditions.


29. What technical documentation is provided?

Technical Data Sheets (TDS), Safety Data Sheets (SDS), and application guidelines are available to support engineering integration.


30. How can customers initiate technical cooperation with COLLTECH NOBELPLA?

Customers may contact our sales and technical teams via the official website to request samples, quotations, and engineering consultation.

 

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Contact Us: Tony.Wang@colltechnobelpla.com

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