Qnity Extends Thermal Management Solutions for Advanced Memory Cooling for AI Data Centers

Qnity Electronics (Q) introduced two memory cooling solutions using Laird technologies for high-density memory systems in AI data centers.

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New Laird™ Graphite-over-Foam and Thermal Interface Material solutions expand Qnity's thermal portfolio, helping engineers cool high-density memory modules in AI data centers

WILMINGTON, Del.--(BUSINESS WIRE)-- Qnity Electronics, Inc. (“Qnity”) (NYSE: Q), a premier technology solutions leader across the semiconductor value chain, today introduced two new advanced memory cooling solutions leveraging Laird™ Graphite-over-Foam (GOF) and Laird™ Thermal Interface Material (TIM) technologies. Both advanced solutions help data center designers keep high-density memory systems, including Double Data Rate 5 Dual In-line Memory Module (DDR5 DIMM) modules cool, reliable, and serviceable as AI pushes memory density and power to new levels.

"As AI workloads place greater demands on memory bandwidth, capacity and speed, keeping memory modules cool is critical to sustaining performance and reliability," said Chuck Xu, President, Interconnect Solutions, Qnity. "We're working side by side with customers to extend the Laird thermal expertise they already rely on to advanced memory cooling, so they can improve reliability, simplify assembly, and scale AI infrastructure faster."

Leveraging its established Laird™ thermal interface and gap-filling technologies, Qnity's latest Laird™ GOF and Laird™ TIM solutions were designed with DDR5 DIMM architectures used in AI servers and high-performance computing in mind. As memory capacities and power consumption continue to increase, modern server platforms can deploy up to 48 DDR5 memory modules in densely packed DIMM rows, creating significant thermal management challenges.

The latest Laird™ GOF and TIM solutions enable system designers to optimize thermal performance while addressing critical mechanical considerations including dimensional tolerances, assembly requirements, serviceability, and long-term reliability. By powering efficient heat transfer while accommodating manufacturing and assembly variations, these advanced materials help improve system reliability, streamline assembly processes, and support the growing performance demands of next-generation AI data centers.

Learn more about how Qnity is powering the next leap in electronics at www.qnityelectronics.com.

About Qnity

Qnity is a premier technology solutions provider across the semiconductor value chain, empowering AI, high-performance computing, and advanced connectivity. From groundbreaking solutions for semiconductor chip manufacturing, to enabling high-speed transmission within complex electronic systems, our high-performance materials and integration expertise make tomorrow’s technologies possible. More information about the company, its businesses and solutions can be found at www.qnityelectronics.com.

Qnity™, the Qnity Node Logo, and all products, unless otherwise noted, denoted with ™ or ^® are trademarks, trade names or registered trademarks of affiliates of Qnity Electronics, Inc.

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Media
Ashley Boucher
Ashley.Boucher@qnityelectronics.com

Source: Qnity Electronics, Inc.

Key Terms

thermal interface material technical

A thermal interface material is a soft, heat-conducting substance placed between a heat-generating component (like a chip) and a heat sink to help move heat away more efficiently. Think of it as the grease between two metal parts that fills tiny gaps so heat flows smoothly; for investors, choice and quality of these materials affect device performance, reliability, product lifespan, manufacturing cost and supply-chain competitiveness.

ddr5 technical

DDR5 is the latest generation of high-speed volatile memory used as the short-term workspace for computers and servers, like a faster, larger desk where a processor keeps information it’s actively using. It matters to investors because upgrades to DDR5 drive demand across chip makers, computer builders and data-centre operators, affecting sales, pricing power and product cycles; companies that lead in DDR5 production or adoption can gain a competitive and financial edge.

dual in-line memory module technical

A dual in-line memory module (DIMM) is a removable circuit board that holds dynamic random-access memory (DRAM) chips and plugs into a computer motherboard to provide main system memory. "Dual in-line" means it has separate electrical contacts on each side of the board, which allows wider data paths and distinct signal lines compared with older single-sided modules; DIMMs come in different physical pin layouts and technology generations (for example differing speeds, voltages and capacities) that must match the motherboard's memory standard.