Energy-first AI compute campuses with on-site power generation
Efficiency
Up to 90%
with CHP integration
Revenue Streams
6 Sources
diversified income
Self-Powered Infrastructure
Every facility generates its own clean energy. No grid constraints. No transmission costs. 100% energy independence.
Energy Transfer Stations
AI servers embedded directly inside office and residential buildings. Computing workloads generate heat as a natural byproduct—we capture it to warm the building. No fuel. No combustion. No emissions. Just intelligent infrastructure serving two purposes at once.
- 100% Fuel-Free: Heat from compute, not combustion
- Zero Emissions: Replaces natural gas heating
- Dual Revenue: AI workloads + heating cost savings
- Net Zero Aligned: Supports Canada's 2050 goals
AI Campus Hubs
Purpose-built sites for high-performance computing and AI operations. Unlike conventional data centres that depend on the public grid, our AI Campus Hubs are energy-first developments where power, heat, cooling, and digital infrastructure are planned together from day one.
- On-site cogeneration (24/7 baseload power)
- Integrated heat recovery & cooling
- Avoids grid congestion & outages
- Strategic locations in North America
On-Site Generation
Behind-the-meter generation that skips the interconnection queue. Scale decides the machine: solid oxide fuel cells below about 20 MW, where they hold their efficiency and permit beside housing, and combined cycle gas turbines above it, where the second cycle pays for itself.
- 51–64% Electrical: SOFC or combined cycle
- 90%+ Total: With heat recovered and sold
- No Grid Dependency: Eliminate utility bottlenecks
- Near-Zero NOx: On the fuel-cell path
Urban & Metro Edge AI Data Centres
Edge AI infrastructure positioned inside or near major metropolitan areas. Urban facilities (0–5 km from users) deliver 1–5 ms latency for real-time AI inference. Metro facilities (10–50 km) provide scale for larger workloads. Both integrate seamlessly using zero-emission hydroelectric power.
- Urban Edge: 0–5 km from city centre, 1–5 ms latency
- Metro Edge: 10–50 km suburban ring, 10–40 ms latency
- Waste Heat Recovery: 100% heat export to district energy
- Hydroelectric Powered: Clean energy from renewable hydro
Utility Solar
Bifacial arrays paired with storage, shaving the daytime peak off a campus that already generates its own baseload. Solar does not carry an AI load on its own — but against a 24/7 plant it displaces fuel in the hours it runs, which is exactly where it pays.
- Bifacial arrays on campus land
- Paired with grid-scale storage
- Displaces fuel during daylight hours
- Site-dependent on land and orientation
Grid-Scale Battery Storage
Our 100+ MW BESS systems are co-located with on-site generation, ensuring seamless power delivery and backup. Paired with our SOFC generation, we deliver 24/7 reliability without grid dependency.
- 100+ MW storage capacity
- 4-hour discharge duration
- Frequency regulation services
- Revenue from grid services
Megawatt Charging Systems
Every charging hub generates its own power on-site. No grid upgrades. No utility bottlenecks. Our 4.5MW MCS infrastructure delivers instant capacity for commercial fleets—with V2G capabilities that turn parked vehicles into revenue-generating assets.
- 4.5MW charging capacity
- Vehicle-to-Grid (V2G) enabled
- Commercial fleet focus
- Integrated with on-site generation
What Is Cogeneration?
Cogeneration (Combined Heat & Power) is one of the most efficient ways to produce energy. Unlike conventional power plants that waste heat, our facilities capture and reuse energy that would otherwise be lost—delivering up to 90% total efficiency.
How Cogeneration Works
Produces Electricity
High-efficiency turbines generate reliable baseload power
Captures Waste Heat
Heat Recovery Steam Generators (HRSG) capture thermal energy
Reuses That Heat
Powers buildings, industry, and clean-fuel production
Our Integrated Energy Campus
Combined-Cycle Power Generation
High-efficiency gas turbines generate reliable electricity. Heat from this process is recovered and reused rather than wasted.
Heat Recovery & District Energy
Captured heat is converted into steam or hot water for municipal buildings, industrial users, greenhouses, and district heating networks.
Clean Hydrogen Production
Using recovered heat and steam, the facility produces low-carbon hydrogen for clean transportation, industry, and future energy systems.
Carbon Capture
Advanced carbon-capture systems reduce emissions by capturing CO₂ before release, lowering environmental impact and carbon costs.
Our integrated cogeneration facilities represent a new generation of energy infrastructure in North America, combining power generation, heat recovery, hydrogen production, and emissions reduction in a single, coordinated campus.
On-Site Energy Stack
Each Greco Energy AI Campus Hub is powered by a dedicated, on-site energy system designed specifically for the high, continuous power demands of artificial intelligence and high-performance computing.
High-Efficiency Cogeneration (CCGT + CHP)
At the core of each hub is a high-efficiency combined-cycle cogeneration plant that generates large amounts of reliable electricity, captures and reuses waste heat, and operates continuously as 24/7 baseload power.
Constant, Uninterrupted Power
AI servers require continuous power—on-site generation delivers without grid dependency
Avoids Grid Congestion
No waiting for utility upgrades or interconnection approvals
90% Total Efficiency
Cogeneration uses fuel more efficiently, dramatically lowering operating costs
Heat Recovery & Cooling Integration
AI systems produce significant heat. Instead of wasting it, our facilities capture thermal energy and convert it into useful applications.
- Waste heat from power generation is recovered
- Absorption chillers provide cooling for data centres
- Excess heat powers district heating networks
Why This Matters for AI
Greco Energy's cogeneration facilities deliver meaningful benefits for compute-intensive operations.
- Lower energy costs for operators
- Reduced carbon emissions and carbon-tax exposure
- Improved energy security and grid resilience
- Infrastructure that scales with demand
Greco Energy facilities utilize combined-cycle gas turbines (CCGT), heat recovery steam generators (HRSG), combined heat and power (CHP), hydrogen production systems, and carbon capture technologies to maximize efficiency and reduce emissions.
We Don't Buy Power.
We Generate It.
Unlike traditional data centres and charging networks that rely on increasingly strained grids, Greco builds dedicated power generation at every facility. Our vertically integrated model means each site generates its own clean energy—eliminating grid constraints, reducing costs, and ensuring uninterrupted power.
Grid Dependency
Lower Energy Costs
Scalability
On-Site Generation
Power produced where it's consumed. No grid dependency, no transmission losses.
Lower Energy Costs
Bypass grid fees and volatile wholesale prices with predictable, self-generated power.
99.99% Uptime
Islanded microgrids with battery backup ensure continuous operation during outages.
Instant Scalability
Expand capacity without waiting for grid upgrades or utility interconnection.
State-of-the-Art Clean Energy
We deploy breakthrough technologies proven by global leaders like GE Vernova, Siemens Energy, and Mitsubishi Power—delivering reliable power today with clear pathways to net-zero.
Hydrogen-Ready CCGT
Next-generation combined cycle gas turbines designed to transition from natural gas to 100% hydrogen. GE Vernova and Siemens are deploying 600MW+ turbines capable of running on pure hydrogen by 2030.
Carbon Capture Ready
All facilities designed with integrated CCUS capability. NET Power technology captures 100% of emissions at source using supercritical CO₂ cycles—no post-combustion capture needed.
Utility-Scale Solar
Bifacial solar arrays with grid-scale battery storage providing peak shaving, frequency regulation, and renewable time-shifting. British Columbia offers excellent solar potential in southern regions.
Smart EV Charging
Megawatt Charging System (MCS) delivers up to 4.5 MW for commercial trucks—full charge in 30-45 minutes. Vehicle-to-Grid capability creates additional revenue streams during peak demand.
The compute, supplied and managed
GRECO specifies, procures, integrates and manages Dell Technologies and Lenovo infrastructure — and generates the power it runs on.
Servers and AI systems
The full PowerEdge line, from rack-scale AI systems to edge nodes — specified, procured, racked and operated as a managed service.
See the rangeServers and AI infrastructure
ThinkSystem and ThinkAgile infrastructure for AI, HPC, cloud and storage, specified to the workload and the power envelope of the site.
Product libraryThe Greco Advantage
Advanced technology integration and multiple revenue streams create superior returns and reduced risk for infrastructure investors.
Six Revenue Streams
Our integrated hub approach generates income from electricity sales, district heating, EV charging, grid services, carbon credits, and capacity payments—reducing dependency on any single market and creating resilient returns.
Electricity Sales
Dispatchable power to the grid
District Heating
CHP waste heat utilization
EV Charging
MCS commercial fleet charging
Grid Services
Frequency regulation & ancillary
Carbon Credits
CCUS and offset revenue
Capacity Payments
Guaranteed availability revenue
Renewable & Sustainable
Multi-technology approach combines hydrogen-ready gas turbines, solar generation, and battery storage for maximum renewable integration and a clear path to net-zero operations.
Revenue Diversification
Six distinct revenue streams from a single facility investment reduce market risk and create stable, predictable returns across different energy market conditions.
CIB Mandate Aligned
Greco Energy projects directly support Canada Infrastructure Bank priorities including Clean Power, Green Infrastructure, and Digital Infrastructure investment mandates.
Georgia Power achieved 50% blend in Dec 2024. 100% turbines available by 2030.
NET Power technology captures all emissions. Post-combustion achieves 90%+.
Modern CCGT achieves highest efficiency of any thermal generation technology.
Transition Infrastructure
Natural gas CCGT facilities provide essential grid reliability during the renewable buildout—while hydrogen and carbon capture technologies ensure these assets remain valuable through net-zero transition.
- Hydrogen Transition PathwayStart with natural gas, progressively blend hydrogen up to 100% as supply scales.
- Carbon Capture IntegrationAll CCGT facilities designed for bolt-on CCUS, aligned with federal tax credits.
- Grid Stability ServicesProvide essential baseload and frequency regulation during renewable buildout.
Edge AI Campus Neighborhood Benefits
Our liquid-cooled servers generate waste heat that we capture and distribute to nearby homes and buildings—eliminating heating costs and emissions.
Heat Recovery Calculator
See the impact on your neighborhood
~$1850/home
tonnes/year
GJ natural gas
MWh/year
How It Works
Server heat → home heating
Liquid-Cooled AI Servers
High-performance GPU clusters generate significant waste heat during AI computing operations.
Heat Capture & Transfer
Liquid cooling systems capture heat at 50 °C and transfer it to a district heating loop.
Hot Water Distribution
Insulated underground pipes deliver hot water to apartment buildings and homes in the surrounding area.
Zero-Fuel Heating
Residents receive free or low-cost heating with zero combustion—no gas, no emissions, just captured waste heat.
Based on typical Edge AI Campus with 5MW compute capacity. Actual savings vary by local heating costs and building efficiency. Heat recovery follows Nordic district heating standards.
Energize your fleet.
Join the network of businesses and municipalities switching to Greco Energy's hybrid infrastructure solutions.