Thermal Interface Materials (TIMs)
Next-Generation Thermal Management for High-Performance Electronics
Our Thermal Interface Materials (TIMs) redefine thermal management for electric vehicles, 5G infrastructure, data centers and consumer electronics, delivering superior heat dissipation and reliability. Engineered through our Singapore-Taiwan partnership, leveraging Taiwan’s 46% global semiconductor foundry capacity, our TIMs offer high thermal conductivity, excellent compressibility, and robust electrical insulation. Available in greases, pads, phase change materials, and graphene-based composites, they ensure optimal performance in compact, high-power devices. With advanced formulations and scalable production, partner with us to enhance your systems with cutting-edge thermal efficiency and durability.
Specifications
Material Types: Silicone-based greases, elastomeric pads, phase change materials, graphene-based composites
Thermal Conductivity: 5–10 W/m·K (high-performance heat transfer)
Thickness Range: 0.1–5 mm (customizable for gap-filling applications)
Operating Temperature: -40°C to 200°C (robust for automotive and telecom environments)
Compressibility: Up to 50% (conforms to uneven surfaces for minimal thermal resistance)
Electrical Insulation: Dielectric strength >10 kV/mm (prevents short circuits)
Thermal Resistance: As low as 0.1°C·cm²/W (optimized for high-power devices)
Application Methods: Dispensable greases, pre-cut pads, screen-printable pastes, phase change films
Density: 2.0–3.5 g/cm³ (lightweight for compact designs)
Certifications: ISO 9001, ISO 14001, RoHS, REACH, AEC-Q101 (automotive-grade)
Packaging: Anti-static, vacuum-sealed in Class 100 cleanroom for reliability
Contact Us: Inquire about custom specifications or pricing. Click below to connect with our team.
Standout Features
High Thermal Conductivity: 5–10 W/m·K ensures efficient heat dissipation in EV battery modules and 5G base stations.
Excellent Compressibility: Up to 50% compression conforms to irregular surfaces, minimizing thermal resistance.
Robust Electrical Insulation: >10 kV/mm dielectric strength prevents short circuits in high-voltage applications.
Versatile Formulations: Greases, pads, phase change materials, and graphene composites meet diverse application needs.
High-Temperature Stability: Operates at 200°C, ideal for automotive and industrial electronics.
Applications
Electric Vehicles: Thermal management for battery packs, inverters, and on-board chargers to enhance efficiency and longevity.
5G Infrastructure: Heat dissipation in base stations and RF modules for reliable high-frequency performance.
Consumer Electronics: Cooling for CPUs, GPUs, and power supplies in smartphones, laptops, and gaming consoles.
High-Performance Computing: Thermal management for server cooling for AI and cloud computing to prevent overheating.
Military and Space: Heat sinks for avionics, radar, and satellite systems, ensuring reliability in extreme conditions.
Superior Benefits
Enhanced Thermal Management: 5–10 W/m·K conductivity improves reliability in CPUs, GPUs, and EV power electronics.
Compact Designs: Thin profiles (0.1–5 mm) enable miniaturized, high-power devices in 5G and consumer electronics.
Long-Term Reliability: AEC-Q101 certification ensures durability in automotive and telecom applications.
Ease of Application: Dispensable greases and pre-cut pads simplify assembly, reducing production time by 15%.
Energy Efficiency: Reduces thermal resistance by 30%, lowering energy consumption in data centers and EVs.
TIMs vs. Traditional Types
Higher Thermal Conductivity: 5–10 W/m·K (vs. traditional TIMs’ 1–3 W/m·K) enhances heat dissipation by 50%.
Lower Thermal Resistance: 0.1°C·cm²/W (vs. traditional TIMs’ 0.5–1°C·cm²/W) improves efficiency in high-power applications.
Better Compressibility: Up to 50% (vs. traditional TIMs’ 20–30%) ensures better contact with uneven surfaces.
Wider Temperature Range: -40°C to 200°C (vs. traditional TIMs’ 150°C max) supports demanding environments like EVs.
Advanced Materials: Graphene-based composites offer 2x higher conductivity than standard silicone-based TIMs.
Why Choose Us?
Our TIMs lead in a competitive market, powered by Singapore’s market agility and Taiwan’s world-class semiconductor expertise. Here’s why global buyers trust us:
Uncompromising Quality: Partnering with Taiwanese foundries like TSMC, we deliver AEC-Q101-certified TIMs with 5–10 W/m·K conductivity, meeting ISO 9001 and RoHS standards.
Innovative Formulations: Graphene-based composites and phase change materials match Henkel’s high-performance solutions, offering 50% better heat transfer.
Reliable Supply Chain: Our Singapore-Taiwan synergy mitigates material supply risks, ensuring stability akin to 3M’s global partnerships.
Cost Optimization: Advanced manufacturing reduces costs by 15%, addressing buyer concerns about TIM pricing vs. traditional types.
Custom Solutions: Tailored thickness (0.1–5 mm) and material types (greases, pads, PCMs) meet specific project needs, mirroring Dow’s application-specific approach.
Sustainability Focus: Energy-efficient TIMs reduce power consumption by 30% in EVs and data centers, supporting green initiatives.
Global Trust: Certified to ISO 9001, ISO 14001, RoHS, and REACH, our TIMs are trusted by OEMs in 50+ countries, backed by Taiwan’s 46% foundry share.
Contact Us: Ready to enhance your systems with our TIMs? Click below to request a quote or discuss custom specifications.
Industries Served
Automotive
Telecommunications
Consumer Electronics
Data Centers
Aerospace and Defense
Why Choose TIMs?
Superior Thermal Performance: 5–10 W/m·K conductivity ensures efficient cooling in high-power electronics.
Compact Solutions: Thin, lightweight materials (0.1–5 mm, 2.0–3.5 g/cm³) enable miniaturized designs for 5G and consumer electronics.
High Reliability: AEC-Q101 certification guarantees performance in harsh automotive and aerospace environments.
Versatile Applications: Greases, pads, and phase change materials support diverse needs, from EVs to data centers.
Market Leadership: Aligned with the $12.44 billion TIM market’s 11.63% CAGR, driving innovation in thermal management.