AIR COMPUTE CAMPUS
A Circular Pneumatic Energy & Cooling Platform
for AI Data Centers
Power the Compute. Reuse the Heat. Reduce the Water.
Solution Overview | 2026
The next competitive edge in data centers is determined outside the server
How quickly and reliably you can secure power, cooling, and water
Power Demand
Global data center power consumption
2024 415 TWh
2030 945 TWh
Development Delays
If grid bottlenecks persist, approximately 20% of planned projects face the risk of delays
AI Heat Density
GPU-centric computing is simultaneously transforming power and cooling into critical site selection criteria
The New Question
"How many servers can we install?" → "How quickly can we secure energy infrastructure?"
We transform data centers into circular energy hubs
"We transform data centers from simple energy-consuming facilities into circular energy hubs that generate power, cool servers, and recycle waste heat."
How is this different from conventional data centers?
From fragmented facilities to a single circular utility platform
Conventional Data Center
Relies on external grid power
Electric chillers and cooling towers
Server heat discharged externally
Power, cooling, and data center procured separately
Standalone data center infrastructure
AIR COMPUTE CAMPUS
Pneumatic on-site generation, storage, and grid in parallel
Post-generation cooling via EX-TCC · EX-TCU
Server and cooling water heat recovery
Container-type modules with phased EX-LINE expansion
Regional platform connected to AIR VILLAGE
We address four key problems of conventional data centers simultaneously
Not a single facility, but a platform where problem-specific functions are interconnected
01 Power & Grid
EX-LINE pneumatic supply → EX-2 on-site generation
EX-SMART CELL storage → grid & UPS parallel operation
02 High-Density Cooling
Post-generation pneumatic cooling → EX-TCC campus thermal management
EX-TCU data center & rack-adjacent cooling
03 Water Consumption
Steam-cycle-independent pneumatic generation
Cooling load sharing → targeting reduction of cooling tower water usage
04 Waste Heat Discharge
Server & existing coolant heat recovery
Wasted heat → AIR FACTORY input portfolio
※ Actual savings and performance figures are presented based on site-specific integrated design and pilot measurement data
Six Core Modules of the Air Compute Campus
A standard core interface forms the foundation for global repeated deployment
AIR FACTORY
Heat source → pneumatic energy
On-site utility hub
EX-LINE
Supply & recovery network
Integrated power & cooling delivery
EX-2
Pneumatic on-site generation
Grid supplementation & resilience
EX-TCC / EX-TCU
Campus & internal cooling
High-density thermal load management
EX-SMART CELL
Dedicated energy storage
Load leveling & availability
HEAT RECOVERY
Server & coolant heat recovery
Circulation efficiency & water strategy
What customers gain is not "equipment" — it is integrated infrastructure competitiveness
Faster Development
On-site generation and modular expansion address delays in grid power connection
More Flexible Scaling
AIR FACTORY modules can be replicated incrementally as demand is confirmed
Integrated Risk Management
Power, cooling, water, and waste heat managed under a single operational framework
Shared Regional Value
Connected to AIR VILLAGE, extending benefits to industrial and public facilities
Power + Cooling + Storage + Heat Recovery
We operate first at AIR VILLAGE
Connecting residential, industrial, and small computing loads through a single EX-LINE
01
Integrated Design
Small data center + AIR FACTORY
02
100–250 kWth Pilot
Power generation, cooling & heat recovery metering
03
24-Hour Reference Operation
Grid & UPS parallel, seasonal operation
04
1MW Commercial Scale-Up
Standard EPC & customer reference
What Does the Pilot Demonstrate?
Converting technical descriptions into operational data customers can use
POWER
- EX-2 net power output
- Pneumatic consumption
- Grid & storage operation ratio
COOLING
- EX-TCC & EX-TCU capacity
- Server inlet temperature
- Heat recovery volume
WATER
- Cooling power vs. baseline
- Makeup water & blowdown
- Variation by climate
RELIABILITY
- Availability & response speed
- Safe shutdown
- 24-hour operation
ECONOMICS
- Module CAPEX & OPEX
- Power & cooling service unit cost
- O&M benchmarks
Realistic global expansion is a combination of standardization and localization
The core technology remains the same, while the configuration is adjusted to match local heat sources, regulations, and climate.
STANDARD CORE
- AIR FACTORY
- EX-LINE
- EX-2
- EX-TCC / EX-TCU
- EX-SMART CELL
- Metering, safety & digital operations
LOCAL PACKAGE
- Heat source configuration
- Grid, pressure vessel & piping regulations
- Climate & cooling method
- EPC, procurement & permitting
- Local partners & service pricing
From Small Operational References to Campus Business
Scale up incrementally as customer load is confirmed
AIR VILLAGE
Operational data
1MW REFERENCE
Customer reference
CAMPUS MODULES
Repeatable deployment
REGIONAL PLATFORM
AIR VILLAGE network
Priority Target Regions
Projects with grid connection backlog · high-temperature climates · water constraints · island or industrial complex sites · secured local partners
Power the Compute,
Reuse the Heat,
Reduce the Water.
Power the Compute. Reuse the Heat. Reduce the Water.
AIR VILLAGE PLATFORM