Products & Services

A microgrid is a complete, self-contained energy system sized to a single facility, campus, or industrial site. It is our core offering, and it is where our generation, storage, and controls expertise come together in one engineered platform.

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A microgrid can operate connected to the grid or islanded from it. In grid-parallel mode it buys power when grid supply is cheap and relies on its own assets when it is not. When the grid fails, the system separates and continues serving critical loads without interruption, then resynchronizes automatically when the grid returns. Black-start capability means the microgrid can come up on its own even if the surrounding network is down.

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We design each system around the site's actual loads: which circuits are critical, how much power they need, and for how long. Generation, storage, and controls are then integrated so that power quality stays within tolerance whether the system is on-grid or off. The result is a facility that keeps running through outages while managing its energy costs the rest of the time.

For projects that need power now, we supply ready-to-ship, low-hour mobile gas turbine generator packages. Each package is a complete, self-contained power plant on a single trailer, with the turbine, generator, controls, switchgear, and auxiliary systems all pre-assembled and tested before delivery.

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On site a package needs only a fuel connection and a point of interconnection, either to the grid or to the facility's distribution system. Because the unit arrives fully assembled and pre-tested, it can be deployed and operating much more quickly than generation that has to be assembled on site. Units are weatherized for outdoor, unattended operation, and because they are trailer mounted they can be relocated as demand shifts, which suits fast-track projects, bridge power during construction, and temporary capacity while permanent generation is completed.

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Output is medium voltage, 13.8 kV and field-adjustable to 12.47 kV at 60 Hz, which typically feeds a utility substation or facility distribution directly without an intermediate step-up transformer. A package-level control system manages startup and shutdown, supports automatic or manual operation, and provides real-time monitoring of turbine and generator data, alarm management, and historical data logging for troubleshooting and trend analysis. Units can be monitored remotely.

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Safety and maintainability are built in. Each package includes gas detection, fire detection, and automatic fire suppression, with ventilation dampers that close automatically when fire is detected. Offline water-wash connections are standard for routine compressor cleaning, and every unit ships with complete operation and maintenance documentation.

We supply high-efficiency natural gas generator sets for prime, continuous, and standby duty. The sets are packaged as complete units, engine, alternator, controls, and switchgear, and are available in configurations tuned for high response or for maximum efficiency, depending on what the application demands.  Diesel-fueled generators can be supplied for smaller temporary or standby power applications.

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Continuous-duty sets are designed to run for unlimited hours at their rated load, which makes them a dependable backbone for facilities that cannot tolerate an outage. High-response configurations hold voltage and frequency within tight limits through sudden load steps, which suits applications with large motor starts or variable production loads.

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The sets are built to recognized standards for emergency and continuous systems, including UL 2200 and NFPA 110, and support remote monitoring of operating data. Routine maintenance intervals are long and operating costs are low relative to comparable output, because the engines run cleanly on natural gas with modest oil consumption.

Thermal generation converts fuel into firm, on-demand electricity, and it remains the most dependable way to back up intermittent renewables and protect critical loads. We deploy it in two forms, gas turbines and high-efficiency gas generator sets, sized and configured for the duty the site requires.

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For baseload duty, units run continuously to serve a facility's firm power demand. For peaking duty, fast-start units respond quickly to load changes or to the gaps left by solar and wind. The fuel train can be configured around the gas supply available at the site, so the system matches the local infrastructure rather than requiring the site to adapt to the equipment.

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Thermal generation pairs naturally with battery storage and solar in a hybrid platform. Storage smooths the short-duration swings while the thermal units carry the sustained load. The combination gives a facility dispatchable power with predictable availability, without waiting on the weather.

Utility-scale battery storage delivered as factory-assembled, self-contained systems, sized from roughly 1 MWh to over 1 GWh.

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Each unit integrates battery modules, bi-directional power conversion, thermal management, and an AC main breaker in a single enclosure, pre-assembled and pre-tested before shipment. Systems scale modularly, with discharge durations configurable from about 2 to 6 or more hours to match the site's load profile and objectives.

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On site, installation is limited to seismic anchoring and connecting AC conductors and communications, because the full system arrives pre-assembled. That compression of the build schedule is one of the main reasons owners choose containerized storage over field-assembled alternatives.

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Intelligent control software learns and predicts local energy patterns, automating charge and discharge, integrating co-located renewables, and enabling participation in wholesale markets. Systems integrate with facility or utility SCADA and provide fast-response grid services.

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Module-level power conversion keeps the system running if an individual module fails. Cell-level heating and cooling, dedicated hazard venting, and designs evaluated to international safety standards such as UL 9540A support permitting and long service life, with warranties up to 15 years and extended capacity-maintenance agreements available.

We engineer commercial and industrial solar systems for rooftops, parking structures, and ground-mounted sites. Arrays are built around high-yield design choices, including bifacial modules that capture light from both faces and single-axis tracking that follows the sun across the day.

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Every system is designed against the site's consumption profile, so the array size, orientation, and electrical layout are chosen to maximize the value of the energy produced, not just the number of panels installed. We handle interconnection, the full construction scope, and commissioning, and we can structure the project as a direct ownership build or as a power purchase arrangement.

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Because solar output is variable, we integrate the arrays with storage and generation controls rather than treating them as standalone systems. The result is renewable energy that behaves predictably for the facility's operations.

Combined heat and power, or cogeneration, captures the heat an engine or turbine produces while generating electricity and puts it to work. A conventional plant wastes that heat; a CHP plant converts it into hot water, steam, or chilled water for the facility. Total fuel efficiency can reach 85 percent or better, compared with roughly 40 percent for power-only generation.

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CHP is a natural fit for facilities with steady thermal loads: data centers that need cooling, hospitals and campuses that need steam and hot water, and manufacturers with process heat demands. Because the heat is produced on site, the system can include absorption chillers that convert recovered heat directly into cooling, replacing electrically driven chillers and lowering the facility's peak electrical demand.

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The economics work best where electricity prices are high and thermal loads are consistent. In those settings, a CHP plant pays for itself through avoided utility purchases on both the power and the fuel side.

Fuel cells generate electricity through electrochemistry rather than combustion, which gives them a near-zero-emissions profile and high efficiency. We deploy them in modular 1.25 MW blocks, so a system can start small and scale with the facility's demand.

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The units are fuel-flexible. They operate on natural gas, on biogas, and on blends of natural gas and hydrogen up to 50 percent hydrogen, which gives owners a path to lower-carbon operation as hydrogen supply develops. Recovered heat can produce hot water, high-pressure steam, or chilled water, lifting total system efficiency to roughly 85 percent and making the fuel cell a practical source of cooling and heating as well as power.

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The low-emissions profile simplifies permitting in many jurisdictions, which shortens the time to first power. Units are quiet, rated for outdoor installation, and capable of operating within a microgrid. They run continuously for long periods with minimal maintenance, which makes them well suited to facilities that value firm, clean, always-on power.

Small modular reactors are the next generation of baseload carbon-free power. Where conventional nuclear plants are large, expensive, and built to bespoke designs, SMRs are factory-fabricated and modular, which compresses construction schedules and brings the cost of firm, clean, always-on generation within reach of industrial-scale buyers.

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We are not selling SMRs today. We track the technology closely and are positioning our development pipeline so that the sites we originate are ready to host SMR capacity as the first commercial deployments come online. That includes understanding the site, grid, and cooling requirements the technology will demand, and designing our power platforms so SMR capacity can be added without re-engineering the site.

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For clients planning facilities on a 10-to-20 year horizon, the near-term answer is the hybrid platform of solar, storage, and thermal we can deliver now, with a clear path to SMR capacity later.