
MHI, Kyoto University Open Combustion Dynamics Laboratory
Key Takeaways
- An industry–academic lab begins April 1 to develop ultra-efficient GTCC and carbon-neutral combustion, pairing fundamental combustion science with execution pathways toward commercialization.
- Engine-scale experimental rigs, high-end measurements, and simulation workflows are intended to resolve real combustor mechanisms and guide new low-emission, high-stability control strategies.
The partners will install test rigs to illuminate the combustion mechanism of actual engines, utilize advanced measurement technology, and pursue gas turbine combined-cycle plants.
Mitsubishi Heavy Industries (MHI) and Kyoto University will begin operating an industry-academic laboratory on April 1:
MHI will install test rigs to illuminate the combustion mechanism of actual engines, utilize advanced measurement technology and numerical simulations to understand phenomena, and work to create combustion technology with updated concepts. Additionally, research will be executed toward social implementation, covering numerous forms of combustion like rocket engine combustion, supersonic combustion, and reciprocating engine combustion.
As the global demand for electricity rises and data centers are expanded due to advanced electrification and the popularization of generative AI, maintaining stable electricity supply with decarbonization is a critical issue worldwide. With these circumstances, gas turbine demand has increased due to their high efficiency, highly adjustable output, and ability to supplement renewable energy while contributing to reduced CO2 emissions. It is expected that gas turbines will be central in supporting the realization of a carbon-neutral society due to their compatibility with clean, zero-carbon fuels such as hydrogen.
Combustion technology is a primary element. Combustion control with high efficiency and ultra-low emissions is a strong field for Japan, which makes Japanese manufacturers internationally competitive. Continuing investment in R&D and next-generation personnel development is a vital initiative that will increase competitiveness and lead to the ongoing development of Japan’s energy industry.
Centrifugal Chiller
In mid-March 2026, MHI announced plans to work toward introducing a
As global demand for large-scale AI computing continues to accelerate, data center operators are increasingly prioritizing proven reliability, energy efficiency, and water sustainability when evaluating cooling infrastructure. MHI said it plans to leverage its industrial experience to position its centrifugal chiller solution as a potential standardized cooling platform for GW-class AI data centers, where a strong operational track record is a key factor in technology selection.
The system uses a high-efficiency centrifugal chiller design with an in-house developed compressor, optimized through a single-compressor configuration to achieve strong performance at both part-load and full-load conditions. MHI also plans to integrate plant-level control through its proprietary control system and Modular Chiller Plant architecture, enabling the effective use of free-cooling operating modes and improving Power Usage Effectiveness.
AST Turbo AG
In late February 2026, Mitsubishi Heavy Industries Compressor Corp. successfully acquired all shares of




