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As global computing demands shift from general workloads to large-scale AI model computing, chip-level power consumption in modern data centers has hit record highs, with mainstream GPU heat dissipation requirements soaring to 1000W and beyond. Suffering from low thermal convection efficiency, traditional air cooling is no longer competent for extreme power density scenarios. Consequently, liquid cooling technology, especially cold plate liquid cooling, has become an inevitable choice for high-density computing infrastructure and core support for AI data center cooling systems.

Benefiting from superior heat exchange and low PUE, cold plate and immersion liquid cooling achieve large-scale commercial rollout, yet coolant leakage threatens high-value computing hardware. High-precision helium leak inspection becomes essential quality control for full-set data center liquid cooling system, helping the industry pursue rigorous zero-leak standards.

Driven by the rapid expansion of fresh food e-commerce, off-season agriculture and standardized pharmaceutical cold chain supervision, modern cold storage industries demand higher precision, lower energy consumption and more stable operation. Inverter cold room units have become mainstream solutions for fresh food, agricultural and pharmaceutical scenarios due to accurate temperature control, outstanding energy-saving performance and low maintenance costs. As a leading domestic brand, Yangzi systematically launches professional AI inverter cold room solutions to help buyers avoid common industry pitfalls and make scientific purchasing decisions.

The large-scale rollout of liquid cooling infrastructure has brought profound changes to data center operation and maintenance workflows, challenging traditional working habits formed in the air cooling era. A typical industry case highlights this shift: a senior engineer with eight years of precision air conditioning O&M experience mistakenly searched for air outlets to detect temperature after taking charge of a liquid cooling data center, a subconscious behavior reflecting the fundamental gap between air cooling and liquid cooling operation logic.

Stable operation and energy efficiency are core priorities for supermarket cold chain terminals and food and pharmaceutical warehousing centers. Traditional fixed-frequency refrigeration systems suffer frequent start-stop impact, obvious temperature fluctuation and high energy consumption. To solve these industry pain points, Hexing launches an advanced inverter refrigeration solution based on UX series programmable controllers, enabling refined intelligent management and bringing cold storage operation into a new era of energy saving and high efficiency.

Cooling technology evolves fastest among all core data center subsystems, accompanied by steep learning curves and prominent construction risks. Large-scale data center projects require billions in investment, where improper design leads to huge financial losses, while fast-updating IT hardware also accelerates depreciation of on-site infrastructure. Modern facility heat density hits over 50 times that of standard offices, with individual IT load exceeding 30MW; flagship hardware such as DGX H100 demands strict ambient temperature ranging from 5°C to 30°C to extend service lifespan, and server hardware dominates most of overall data center TCO. As a reliable data center liquid cooling supplier, industry players keep optimizing thermal design to match soaring heat dissipation demands.

The rapid iteration of AI computing infrastructure has driven a sharp rise in server power density, posing unprecedented thermal management challenges for modern data centers. As AI chips, advanced packaging, high-bandwidth memory and high-speed interconnection technologies continue to upgrade, traditional air cooling systems are gradually hitting performance bottlenecks in high-load computing scenarios, making efficient and reliable liquid cooling for data center an inevitable industry trend.

As AI workloads continue to surge, liquid cooling has become the mainstream reliable solution to protect high-value server clusters from thermal risks. Many data center operators hold a stereotyped view that data center liquid cooling renovation requires huge capital investment, large-scale construction and unavoidable service downtime. To overturn this industry dilemma, nVent has launched an innovative Rear Door Heat Exchanger (RDHX) solution suitable for both new-built and in-operation data centers.

The liquid cooling sector has become a standout high-growth track in the capital market throughout 2026. Driven by skyrocketing AI computing power, high-power chips generate massive heat, making traditional air cooling inadequate for high-density computing scenarios. As a result, liquid cooling data center solutions have evolved into essential infrastructure for modern intelligent computing facilities, unlocking huge growth potential across the industrial chain.

At GTC 2026, NVIDIA founder Jensen Huang announced that the AI industry has entered the era of large-scale production, with single-chip power consumption exceeding 2000W and traditional air cooling completely phased out. As the central pipeline hub of liquid cooling systems, the manifold has become a core strategic component for high-power AI infrastructure. Critical to the mass delivery of NVIDIA GB200, GB300 and Vera Rubin platforms, data center cooling manifold solutions represent one of the largest value-added segments in modern AI computing infrastructure. According to Guosen Securities, the global manifold market will reach USD 2.29 billion by 2030, driving substantial upgrades for liquid cooling for AI GPU data center deployment worldwide.