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High-Strength Two-Component Acrylic Structural Adhesive for Electronics & Multi-Material Bonding, NOBELPLA29282

High-Strength Two-Component Acrylic Structural Adhesive for Electronics & Multi-Material Bonding, NOBELPLA29282

Key Features: 

Two-component acrylic for structural bonding of a variety of materials such as plastics, metals,

ceramics, and wood, low odor, excellent high temperature resistance, fast curing at room temperature,

no special surface treatment

 

 

  • Product Name :

    NOBELPLA29282
  • Color :

    Pale yellow / Blue
  • Viscosity [mPa.s] :

    15000
  • Hardness :

    70D
  • Lap Shear Strength [MPa] :

    28 (Al to Al)
  • Note :

    Customizable
  • Fixture Time [min] :

    10-15
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Electronic Structural Bonding Adhesive with Excellent Heat Resistance & Fast Cure for Assemblies, NOBELPLA29282

 

Item Specification / Description
Product Name NOBELPLA29282
Product Type Two-Component Acrylic Structural Adhesive
Target Application Multi-material structural bonding in electronic and industrial assemblies
Chemistry Acrylate
Curing Mechanism Two-component reactive curing at room temperature
Color Pale Yellow / Blue
Viscosity 15,000 mPa·s
Hardness Shore D 70
Fixture Time 10–15 minutes
Lap Shear Strength 28 MPa (Al to Al)
Primary Function Structural Bonding
Substrate Compatibility Plastics, metals, ceramics, wood, and composite materials
Surface Preparation No special surface treatment required
Thermal Resistance Excellent high-temperature resistance
Odor Level Low odor formulation
Customization Formulation customizable to meet specific bonding and processing requirements

 

 


Product Summary

 

NOBELPLA29282 is a high-performance two-component acrylic structural adhesive designed for robust multi-material bonding applications. The room-temperature curing system provides reliable fixture within 10–15 minutes, supporting efficient production workflows.

Delivering a lap shear strength of 28 MPa (Al-to-Al) and Shore D hardness of 70, the cured adhesive ensures strong structural integrity and excellent load-bearing capability. Its compatibility with plastics, metals, ceramics, and other substrates—without the need for special surface pretreatment—simplifies assembly processes.

 

With low odor characteristics and excellent high-temperature resistance, NOBELPLA29282 offers a dependable and durable structural bonding solution suitable for demanding electronic and industrial applications.

 

 

 

 

 

 

 

 

 

 

COLLTECH NOBELPLA Advanced Electronic Materials – Engineering FAQ


1. What are the core product categories offered by COLLTECH NOBELPLA?

We develop and manufacture thermally conductive interface materials (TIMs), structural bonding adhesives, encapsulation and potting compounds, conformal coatings, and electrically conductive adhesive systems for high-reliability electronic assemblies.


2. Which application sectors are primarily served?

Our materials are widely used in power electronics modules, automotive ECUs, LED lighting systems, battery management systems (BMS), industrial automation, communication infrastructure, and advanced electronic packaging applications.


3. What polymer chemistries are utilized in your material platforms?

Our technologies are based on epoxy, silicone (RTV and addition-cure), polyurethane, acrylic, UV-curable, and hybrid polymer systems engineered for thermal stability and mechanical durability.


4. What types of Thermal Interface Materials (TIMs) do you provide?

We offer thermal greases, gap fillers, thermal gels, thermally conductive potting compounds, and thermally conductive structural adhesives to support diverse heat dissipation architectures.


5. How do your TIM solutions reduce thermal resistance?

Through optimized filler particle distribution, high packing density, and enhanced surface wetting behavior, our materials minimize interfacial voids and reduce thermal impedance.


6. What thermal conductivity levels are available?

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


7. Are your thermally conductive materials electrically insulating?

Yes. Most TIM grades combine high thermal conductivity with high dielectric strength and excellent volume resistivity.


8. Do you offer electrically conductive adhesives (ECA)?

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


9. What curing technologies are supported?

Our portfolio includes heat-curing, room-temperature curing (RTV), moisture-curing, UV-curing, and dual-cure systems compatible with various production processes.


10. Are your materials compatible with automated dispensing equipment?

Yes. Rheological properties are optimized for needle dispensing, jetting, screen printing, and robotic inline assembly.


11. How is viscosity stability maintained during storage?

Surface-treated fillers and anti-settling technologies are applied to ensure viscosity consistency and prevent phase separation.


12. Do you provide low-modulus formulations for stress-sensitive components?

Yes. Flexible silicone and hybrid elastomer systems help absorb stress caused by CTE mismatch and thermal cycling.


13. Why is CTE control critical in electronic assemblies?

Proper control of the Coefficient of Thermal Expansion (CTE) reduces thermo-mechanical fatigue and enhances long-term reliability.


14. How do your materials perform under thermal cycling conditions?

Selected grades are engineered to maintain adhesion strength, dielectric properties, and mechanical integrity during repeated temperature fluctuations.


15. What encapsulation solutions are available?

We supply epoxy and silicone encapsulants designed to protect components from moisture ingress, vibration, dust contamination, and chemical exposure.


16. Are flame-retardant materials offered?

Yes. Certain formulations are designed to meet flame-retardancy requirements for safety-critical electronic systems.


17. Do you provide conformal coatings for PCB protection?

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


18. What key performance parameters are evaluated during development?

Thermal conductivity, dielectric strength, dielectric constant, dissipation factor (tan δ), volume resistivity, glass transition temperature (Tg), CTE, modulus, adhesion strength, viscosity profile, and long-term aging stability.


19. How is product quality consistency ensured?

Strict raw material control, regulated manufacturing procedures, statistical process control (SPC), and full lot traceability guarantee batch-to-batch consistency.


20. Are your materials compliant with global environmental regulations?

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


21. Can materials be customized to meet specific engineering requirements?

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


22. Do you support prototype validation and qualification testing?

Yes. We provide engineering samples and assist with laboratory evaluation, pilot production, and reliability qualification programs.


23. Are your materials suitable for automotive electronics applications?

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


24. What operational temperature ranges can your materials support?

Depending on chemistry selection, materials are designed to perform reliably across extended operating 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 under humid conditions.


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 supported?

Products are supplied in syringes, cartridges, dual cartridges, pails, and drums for both R&D and high-volume production.


28. How is shelf life determined?

Shelf life is validated through accelerated aging studies and real-time storage testing under recommended 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 collaboration with COLLTECH NOBELPLA?

Customers may contact our sales and technical teams through the official website to request samples, quotations, and application engineering support.

 

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Contact Us: Tony.Wang@colltechnobelpla.com

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