GT-SUITE enables accurate simulation of advanced liquid cooling techniques such as jet impingement, spray cooling, and two-phase refrigerant systems for both air-assisted and direct refrigerant approaches. Engineers can also analyze component failures like pumps or valves and evaluate how the cooling network reroutes flow to maintain operation. With fast transient modeling and seamless 1D–3D integration through internal or external CFD tools, GT-SUITE delivers a practical balance of speed, detail, and reliability for designing robust data center cooling systems.

GT-SUITE enables multi-scale modeling for data center thermal management, from building-level airflow to chip-level transient hot spots. Engineers can size components, optimize flow distribution, and evaluate technologies such as liquid direct-to-chip, jet spray, immersion cooling, CDUs, and waste heat recovery. The platform also predicts corrosion effects, supports low-GWP refrigerant selection, and develops active control strategies for stable operation. With integrated optimization and DOE tools, GT-SUITE helps minimize flow variation, improve ΔT across coils, and enhance PUE—empowering engineers to design efficient, reliable, and future-ready HVACR systems.

GT-SUITE offers a powerful environment for modeling and optimizing integrated powertrain and microgrid systems in data centers. It enables simulation of renewable sources such as solar, wind, and green fuel generators alongside the main grid, all managed through a microgrid controller. Engineers can analyze how renewables, grid power, and energy storage systems—including batteries and hydrogen—work together to support IT and cooling loads. The platform also models electrolysis and hydrogen storage, allowing excess renewable energy to be converted and reused in fuel cell generators. This integrated approach helps design resilient, efficient, and sustainable power systems that ensure stable operation under varying demand and supply conditions.

Energy storage solution providers face increasing pressure to integrate batteries, inverters, loads renewables, and control systems into efficient, scalable, and reliable solutions while meeting strict performance targets and regulatory standards.
GT-SUITE addresses these challenges with a multi-physics simulation platform that simplifies system design, accelerates time-to-market, and ensures operational reliability. Its comprehensive modeling capabilities empower engineers to optimize energy flow, enhance system efficiency, and achieve faster, more cost-effective development cycles.

GT-SUITE offers robust multi-physics modeling capabilities that support both electrolysis and fuel cell systems in one unified platform. It provides tools to simulate electrolyzer performance and fuel cell stacks with high fidelity, from electrochemistry and mass transport to thermal and electrical integration. Users can model hydrogen storage, manage humidification, predict degradation, and optimize system controls across plant-level configurations. This allows engineers to design and validate complete hydrogen power systems, from generation through storage to fuel cell conversion, with precision and efficiency.

With GT-SUITE, engineers can virtually explore fuel options, optimize control strategies, evaluate different system configurations before implementation and more, saving costs and minimizing risk. In addition, validated GT-SUITE models from suppliers can be directly integrated into data center simulations, enabling faster, more accurate system-level studies that reflect real-world engine performance. The platform also enables analysis of exhaust behavior and emission control performance, helping design cleaner, more efficient backup systems that meet environmental standards without compromising reliability.