Vertiv Group Corp. Leads New Forecast as Direct-to-Chip Cooling Market Adds 2032 Outlook

Key Takeaways

• ResearchAndMarkets.com added a new global forecast showing direct-to-chip cooling rising from $3.33 billion in 2026 to $17.31 billion by 2032.
• Hyperscale adoption, single-phase systems, and water-glycol coolants remain the dominant growth drivers.
• Independent analyst projections highlight liquid cooling as the fastest-growing segment in data center thermal management.

The addition of the Data Center Direct-to-chip Cooling Market by Type, Coolant Type, End User, and Region report to ResearchAndMarkets.com arrives as demand for high-density compute ramps up faster than traditional cooling can handle. Vertiv Group Corp., Super Micro Computer, Inc., Modine Manufacturing, and Schneider Electric are already pushing new designs into the field, and this latest forecast formalizes what operators are experiencing directly in hyperscale environments.

The new dataset values the direct-to-chip segment at $3.33 billion in 2026 and projects it will reach $17.31 billion by 2032, driven by a 26.5% CAGR. AI training clusters, high-performance workloads, and compact server nodes create thermal hotspots that air systems struggle to manage. Direct-to-chip architectures deliver coolant directly to the processor surface, reducing thermal drop-off across the loop and providing required thermal stability for modern high-wattage systems.

Broader research reflects similar acceleration across the industry. Data center liquid cooling overall is expected to scale from $4.07 billion in 2026 to $27.65 billion by 2033, according to MarketsandMarkets. Direct-to-chip is singled out in that study as the fastest-growing category, aligning perfectly with the new ResearchAndMarkets.com outlook. The mid-20% growth ranges seen across market models reflect the same structural facility constraints forcing operators away from air-only designs.

Modern processors generate heat at highly concentrated contact points, leaving traditional air cooling systems straining to maintain consistent temperatures across a rack. Direct-to-chip technology not only reduces thermal variability, but it also frees up rack density configurations that air cooling limits. This makes the architecture particularly attractive to hyperscale buyers designing around maximum compute efficiency per square foot. Single-phase systems currently hold the largest market share because they integrate into existing infrastructure with minimal retrofitting requirements.

Edge deployments also drive direct-to-chip adoption. Smaller facilities with severe space constraints must still run localized inference, caching, and near-real-time analytics workloads. Direct-to-chip cooling maintains stable thermals in these environments without requiring the massive overhead and footprint of immersion tanks. The ResearchAndMarkets.com forecast highlights edge computing and latency-sensitive operations as specific contributors to the projected market expansion.

Beyond market sizing, the technology stack supporting these systems is maturing rapidly. Ecosystem vendors including CoolIT Systems, Asperitas, and Submer are advancing integrated loops and manifolds. Guidelines from ASHRAE and design patterns from the Open Compute Project align facility-level thermal expectations with equipment-level capabilities. These standardized reference points give operators a concrete framework for long-range capacity planning and standardized deployments.

Global Market Insights notes that the broader data center liquid cooling market is projected to hit $4.8 billion in 2025, tracking at an 18.2% CAGR through 2035. Omdia estimates total data center cooling revenue at $7.67 billion in 2024, expecting it to approach $16.8 billion by 2028. Liquid-based approaches expand faster than air-based methods because they align closely with the thermal profiles of multi-die CPUs, GPUs, and other high-wattage components, with the direct-to-chip subset accelerating rapidly alongside this overall trend.

Water-glycol coolants currently dominate deployments because they balance necessary thermal conductivity with manageable facility handling requirements. While alternative dielectric fluids exist in the market, operators heavily favor solutions that integrate seamlessly with established infrastructure maintenance procedures.

While immersion cooling is gaining traction for specialized high-performance computing clusters, it is not forecasted to immediately overtake direct-to-chip applications. Direct-to-chip routing aligns more naturally with mainstream server formats and the rapid pace of hyperscale hardware refresh cycles. The ResearchAndMarkets.com outlook captures this reality by placing single-phase, direct-to-chip systems at the center of near-term industry growth.

ASHRAE’s ongoing work on data center environmental guidelines serves as a crucial baseline for operators balancing operational reliability with strict power usage effectiveness (PUE) targets. Concurrently, the Open Compute Project's advanced cooling facilities specifications focus on real-world implementation details, including loop pressure, quick-disconnect design, and optimal manifold placement. These engineering standards directly influence procurement cycles, as operators explicitly favor equipment aligning with established compatibility patterns.

The hyperscale segment continues to drive overall market value, strictly influencing vendor roadmaps. Vertiv Group Corp. and Schneider Electric both position direct-to-chip capabilities as core components of their broader thermal portfolios. Super Micro Computer, Inc. actively integrates liquid-ready designs across its primary server lines, while Modine Manufacturing delivers heat rejection systems explicitly designed to pair with high-flow liquid loops. The continuous calibration of these product offerings signals a permanent shift in thermal architecture for integrators and colocation providers.

The shift toward AI-optimized infrastructure demands strict thermal precision, driving the widespread adoption of single-phase liquid loops. Operators deploy these architectures strictly to support high-density workloads that traditional air cooling cannot physically sustain, explaining the bulk of the projected market expansion.

ResearchAndMarkets.com adding this $17.31 billion 2032 outlook indicates an industry moving definitively from initial experimentation into broad, standardized deployment. The momentum behind direct-to-chip liquid cooling firmly establishes it as a non-negotiable requirement for next-generation data center design.