NovoLINC, MaxLINC termal arayüz malzemesini piyasaya sürüyor

Key Takeaways

• Ultra-low resistance: MaxLINC delivers a thermal resistance as low as 0.7 mm²·K/W.
• Energy efficiency: Field data show >20 % cooling-energy savings versus conventional phase-change TIMs or thermal greases.
• Heat-flux capacity: Engineered for >100 W/cm² heat-flux environments, suitable for multi-kilowatt AI accelerators.
• Mechanical compliance: Accommodates package warpage up to 350 µm, reducing hot-spot formation.
• Production ramp-up: NovoLINC is expanding to a new Sharpsburg, PA facility to meet rising demand.

Introduction: Why a New TIM Matters for AI Computing

AI workloads are pushing GPUs, CPUs, ASICs and other accelerators into the multi-kilowatt power envelope. Traditional thermal interface materials (TIMs) – typically phase-change compounds or silicone-based greases – struggle to keep up with the resulting heat-flux densities and mechanical stresses. NovoLINC’s MaxLINC is positioned as a next-generation TIM that directly tackles these bottlenecks, enabling higher performance while cutting cooling-system power draw.

Technical Highlights of MaxLINC

Ultra-Low Thermal Resistance

• Measured 0.7 mm²·K/W (typical) – roughly 30 % lower than the best-in-class phase-change TIMs.
• Enables a 20 % reduction in overall cooling-energy consumption for AI server racks.

High-Heat-Flux Design

• Proven capability up to 100 W/cm², well beyond the 40–60 W/cm² limits of most commercial greases.
• Nanostructured composite architecture distributes heat laterally, mitigating localized hot spots.

Mechanical Flexibility

• Tolerates warpage up to 350 µm, accommodating thermal expansion mismatches in large-scale chip-to-cold-plate assemblies.
• Maintains contact pressure across chip-to-cold-plate, chip-to-package spreader, and package-to-cold-plate interfaces.

Reliability

• Accelerated life-cycle testing (10 k cycles, 85 °C) shows no measurable increase in thermal resistance, confirming long-term stability under AI-grade operating conditions.

Application Landscape

Manufacturing Scale-Up in Pennsylvania

NovoLINC has opened a new Sharpsburg, PA manufacturing site adjacent to its existing Pittsburgh operations. The expansion adds:

• 30 % more production line capacity for high-volume TIM dispensing.
• Dedicated qualification labs for thermal cycling, reliability, and warpage testing.
• An R&D sandbox to iterate on next-generation nanocomposite formulations.

Samples of MaxLINC are already in customer qualification with leading hyperscalers, AI-focused semiconductor firms, and OEMs of AI servers.

Market Position & Partnerships

• Open Compute Project (OCP) Startup Program member, aligning MaxLINC with industry-standard server designs.
• NVIDIA Inception Program participant, giving early access to NVIDIA’s upcoming GPU roadmap.
• Recognized as a Pittsburgh Technology Council Tech 50 honoree, underscoring regional innovation leadership.

These affiliations accelerate adoption across the AI infrastructure ecosystem, from chip designers to cooling-system integrators.

Comparison with Conventional TIMs

Bottom Line

MaxLINC represents a significant leap in thermal interface technology for AI-driven data centers. Its sub-1 mm²·K/W resistance, ability to handle >100 W/cm² heat flux, and tolerance for 350 µm warpage directly address the thermal bottlenecks emerging in multi-kilowatt accelerators