Novram
Novram
Engineered to handle extreme TDP demands of multi-core Xeon and EPYC platforms. Precision-manufactured for optimal PUE metrics.
In the era of hyper-scale computing, artificial intelligence, and intensive database queries, thermal management has become the primary bottleneck for infrastructure reliability and performance consistency. Novram Electronics Co., Ltd. has established a formidable global reputation as a premier designer and manufacturer of enterprise hardware components. Integrating our deep domain expertise in DDR5 high-frequency memory systems and high-performance server cooling solutions, we offer a comprehensive engineering approach to next-generation system cooling.
Our Shenzhen-based manufacturing facility encompasses 3,860 square meters of state-of-the-art production lines, housing specialized equipment for copper/aluminum bonding, precision fins skiving, reflow soldering, vacuum sealing for heat-pipes and vapor chambers, and comprehensive automated testing. As server architectures migrate toward higher core counts and compact rack densities, our R&D team works to ensure heat sinks, thermal interface materials, and liquid cooling components work in complete synergy with critical enterprise boards.
Through severe heat stress environments, high vibrational profiles, and intensive computational cycles, Novram products guarantee structural integrity and long-term operations. Our systems are trusted across 40+ countries by leading cloud system integrators, server brand owners, industrial compute centers, and enterprise data distribution frameworks.
Analyzing the paradigm shift in hyper-density server cooling: High TDPs, hybrid phase-change loops, and the rise of direct-to-chip liquid blocks.
Modern server microarchitectures have pushed power envelopes to unprecedented levels. In response, advanced air cooling utilizes specialized 3D Vapor Chambers (3D VCs) fused directly with dynamic multi-pipe radiators, maximizing heat dissipation area without exceeding standard 1U/2U server chassis envelopes.
Data centers aiming for PUE values under 1.2 are increasingly integrating liquid cold plates for primary CPU/GPU dissipation while retaining high-performance air-cooled auxiliary heatsinks for memory and VRM matrices. This hybrid system ensures safe thermal limits during computing spikes.
To reduce auxiliary power usage from system fans, modern radiators incorporate zipper fin arrays, wave-shaped fin edges, and variable fin pitch profiles. This reduces air flow impedance, allowing low static-pressure fans to dissipate heat efficiently with minimal noise.
Addressing the critical supply-chain requirements, quality benchmarks, and logistics mandates of global hardware sourcing divisions.
System integrators require precise dimensional compliance (down to ±0.1mm tolerances) to avoid component clearance issues on server motherboards. Novram provides dynamic packaging, baseplate relief structures, custom mechanical mounting brackets, and optimal spring tension settings.
Continuous data center environments demand server cooling components with high MTBF metrics (minimum 70,000 to 100,000 operating hours). Precision dynamic testing, specialized anti-oxidation coating on aluminum/copper fins, and double ball bearings are standard configurations.
Using raw materials with inferior thermal conductivity causes hot spots and premature chip degradation. Global procurement calls for strict material purity validation. Novram guarantees certified C1100 copper and premium AL6063 aluminum alloys for high thermal performance.
Strategic hardware alignment configurations mapping server chassis categories to specialized thermal solutions.
Operating within strict 1U height profiles (approx. 40mm limits) demands flat copper bases with high fin densities (up to 60+ fins per inch) or direct liquid block integrations. Novram’s LGA4189 and LGA4677 1U blocks utilize specialized copper microchannels to maintain reliable operation under 300W+ thermal stress loads.
2U systems balance performance and physical dimensions. Novram’s 2U server coolers feature 4 to 6 integrated heat pipes soldered directly to vapor chamber bases. This delivers robust heat transport to aluminum fin arrays without requiring complex liquid loops.
For AI training nodes and large GPU setups, our 4U system solutions use extensive fin assemblies and dual 120mm high-static pressure fans, supporting continuous power outputs up to 450W without thermal throttling.
Exporting high-precision server equipment to over 40 countries requires adherence to rigorous international regulatory standards. Every heat sink and cooling system manufactured by Novram meets all applicable safety and environmental directives, facilitating seamless customs clearance and deployment in European, North American, and Asia-Pacific markets.
Our Quality Management framework covers every stage of production. From initial alloy purity testing via spectrometer analysis to pressure verification of heat pipe vacuum chambers, our team of 42 quality inspectors monitors every phase. Final products are subject to dynamic balancing, thermal resistance validation, and corrosion testing inside specialized environmental chambers.
To support global supply chains, Novram offers complete technical documentation, customs compliance validation, and responsive support. Our logistics teams coordinate with leading freight networks to provide secure, on-time delivery across North America, Europe, and Asia.
Developing tomorrow's thermal interfaces: Microchannel arrays, hybrid phase-change loops, and eco-friendly manufacturing.
Transitioning from traditional 0.2mm to ultra-fine 0.1mm copper skived fins. This design significantly increases internal surface contact area, reducing liquid flow resistance and improving overall thermal dissipation.
Integrating pre-applied Phase Change Materials directly onto the copper contact base. These materials change phase from solid to liquid at 45°C, filling microscopic air gaps to provide thermal conductivity superior to standard grease.
Partnering with green refineries to source post-consumer recycled aluminum alloys (PCR-Al) and utilizing zero-emission tooling methods. This initiative helps server partners meet their scope 3 emissions targets.
Inside our 3,860㎡ facility in Shenzhen: Precision engineering and rigorous quality testing in action.
Direct technical feedback from Novram’s lead thermal engineers on system design, parameters, and purchasing.
1U server radiators are strictly limited to a height of under 40mm, requiring a flat-profile design. They typically rely on high fin densities (60+ fins per inch), skived copper bases, or low-profile liquid blocks, and require high-static pressure chassis fans to drive airflow through the dense fin arrays. 2U radiators, on the other hand, have a height limit of around 64-68mm. This extra space allows for the integration of multiple curved, heat-pipe assemblies and larger aluminum fin stacks, achieving higher thermal dissipation capacities (up to 300W-350W) with lower system airflow resistance.
Every liquid cooling block manufactured by Novram undergoes rigorous leak testing. We utilize helium mass spectrometer leak detection on the vacuum brazing and reflow lines, which can detect leaks down to 10⁻⁸ mbar·l/s. In addition, each water block is pressure-tested at up to 10 bars (far exceeding standard server operating pressures of 1.5 to 2 bars) for 24 hours to ensure long-term structural integrity and protect server internals from fluid leaks.
Copper (specifically pure C1100 oxygen-free copper) has a high thermal conductivity of approximately 401 W/m·K, making it ideal for the baseplate where it directly contacts the CPU die. This helps spread concentrated heat loads rapidly. Aluminum (approx. 205 W/m·K) is lighter and more cost-effective, making it the preferred choice for the upper fin arrays, where heat is transferred to passing air. Combining a copper base with aluminum fins provides an optimal balance of thermal performance, weight, and production cost.
We provide full OEM/ODM customization services. This includes adjusting heatsink footprint dimensions, adapting baseplate relief channels to clear tall board capacitors or VRMs, modifying mounting bracket configurations (for Intel LGA, AMD SP series, etc.), selecting specific thermal interface materials (TIMs), and offering custom branding and dynamic packaging designs.
For standard models, prototypes can be produced and delivered in 7-10 working days. For custom thermal designs, the complete cycle of tooling design, fabrication, thermal testing, and sample verification takes 3-4 weeks. Once samples are approved, mass production orders are typically completed and ready for shipping in 4-6 weeks, depending on component volumes and material specifications.
High-reliability heatsink modules matching industry-standard server sockets and custom architectures.
