Distributed, redundant, scalable
Resilient power architecture
PTE turbine systems and complementary generation, storage, controls and grid integration support dependable capacity for mission-critical digital loads.
Mission-critical systems
Data centers & digital infrastructure.
Powering the intelligence economy. From edge facilities to hyperscale campuses, NASG coordinates the infrastructure and services behind always-on performance.
Built around the load — reliable power, responsible water, scalable delivery.
An integrated digital infrastructure platform
Infrastructure designed around uptime, capacity growth, deployment speed and resource resilience.
NASG aligns power, water, deployment, controls and professional services around mission-critical performance.
Supply, treatment, recovery, support
Water & thermal resilience
Water production, treatment, recovery and thermal coordination help strengthen facility resilience and responsible resource management.
Standardized systems, faster pathways
Modular & rapid deployment
Modular subsystems, coordinated site preparation and repeatable integration pathways support edge, colocation, enterprise and hyperscale expansion.
From site strategy through optimization
Strategy, integration & lifecycle support
NASG supports assessment, feasibility, solution architecture, partner coordination, commissioning, monitoring and continuous performance improvement.
Infrastructure designed for always-on operationsPower and water planned together, not sequentially.
Always-on operations
Mission-critical reliability, at the pace the load grows.
Continuity for demanding digital loads, deployment pathways built for speed, infrastructure that grows with demand, and power and water planned together rather than in sequence.
The interconnect wall
Power, not chips, is the binding constraint.
Compute demand is arriving faster than the grid can be built to carry it. For a data-center developer the scarce resource is no longer capital or silicon — it is an energized connection.
2,600 GWStuck in US interconnection queuesMore than double the entire installed US capacity
~5 yrsMedian wait to commercial operationPJM projects energizing in 2025 averaged over seven years
410 GWERCOT large-load queueAs of April 2026, roughly 73% of it data centers
~80%Of queued projects withdrawDefeated by delay and grid-upgrade cost
US data center demand reached 61.8 GW in 2025, up 22% year over year, and is projected to reach 134 GW by 2030. Figures as published by Portable Turbine Energy, citing LBNL Queued Up 2025, ERCOT, PJM and S&P Global.
The status quo
Every option on the table today has a fatal flaw.
Operators are being asked to choose between slow, dirty and sprawling. Naming the trade-off is the first step in removing it.
| Approach | What it gives you | Where it breaks |
|---|---|---|
| Wait for the grid | Cheap firm power, eventually | Five to seven years to energize; land and capital sit stranded |
| Diesel gensets | Fast to deploy, familiar | Permitted for backup only, with runtime caps, NOx and particulate limits and high fuel cost |
| Recip gas engines | Good fuel economics | About 2 MW per unit — ten or more units and a large pad to reach 20 MW |
| Curtail or throttle | Keeps the utility happy | Destroys utilization and breaks training-job service levels |
Modularity
Scale by adding pads, not substations.
Capacity tracks the ramp of the compute build. Units synchronise to a common island bus, so capacity is added or removed without redesigning the plant.
20 MWOne unitAn edge site, a small data center, or a phase-one anchor load
500 MWTwenty-five unitsA full campus block with rotating maintenance windows
1 GWFifty unitsTrue N+1 redundancy on about 50,000 sq ft of pad — just over an acre
- 01Turbofan generation
20 MW of firm power at the point of use, fully off grid.
- 02Exhaust heat recovery
Turbofan exhaust heat is captured and put back to work, not vented.
- 03Closed-loop water
HVAC water-vapour recovery coupled with atmospheric water generators.
- 04Emissions recapture
Carbon and NOx recaptured against Net Zero standards.
Recovered heat and water return to the process, so one system gives a site power, cooling and its own water supply. Reliability targets are 99.5% fleet availability, 8,000 hours between hot section inspections, black start to full load in under ten minutes, and 24/7 remote monitoring and dispatch.
The commercial model
A bridge to the grid — or a permanent island.
Because the asset is mobile, capital follows the build-out instead of being poured into a substation the campus will only need once.
- Year 0Energize
Units land on the pad and the first data hall goes live while the interconnection request is still in study.
- Years 1–5Carry the load
Turbines serve primary load through the utility study, network upgrade and substation build.
- Year 5+Choose
Keep the units as backup and peak-shaving capacity, or move them to the next site.
$72PTE turbine, gasAll-in cost of energy per MWh
$64Recip gas engineCheaper per MWh, but ten or more units per 20 MW
$88Grid firm tariffBlended commercial tariff including demand charges
$305Diesel gensetsThe fast alternative, per MWh
Indicative modelling published by Portable Turbine Energy: gas at $4.00/MMBtu, diesel at $3.40/gal, grid at a blended firm commercial tariff including demand charges. Against a 20 MW block earning roughly $3.5M per month once energized, at $175 per kW per month, the fuel premium over grid power is small relative to the cost of waiting. Lease, power-purchase and outright sale are all available.
The integrated platform
Digital Infrastructure stands on its own.
It goes further connected.
NASG coordinates this capability with the other six — and with the strategy, partners and delivery disciplines that carry a program from decision to operation.
Infrastructure designed for always-on operations
- Mission-critical reliability
- Continuity for demanding digital loads
- Faster time-to-power
- Deployment pathways built for speed
- Scalable capacity
- Infrastructure that grows with demand
- Resource resilience
- Power and water planned together
NASG professional services
Site strategy · feasibility · solution architecture · partner coordination · commissioning · optimization