Gaiergy Corp
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What we do

Five disciplines. One delivery team.

We combine deep engineering expertise with financial acumen to deliver energy infrastructure projects from concept through operation.

01

Energy Master Planning

Aerial view at dusk of one run-down red brick building in the middle of a cracked, empty parking lot. Overgrown land and farm fields surround it. Old wooden power poles stand along a worn county road at the lower left.
Old building: An old building that needs work. We start by measuring how it uses energy today.
Neglected land: Empty, overgrown land and a cracked lot. Room to build, once there is a plan.
Old power line: The old poles along the county road. They can carry only a little power.
Rooftop solar: Solar panels on the rebuilt roof make power on site.
Rebuilt center: The old building, rebuilt as an efficient, high-tech center.
New roads and green space: New streets, sidewalks, trees and lawns around the block.
Grid connection: A new substation and new poles bring utility power to the site.
New solar buildings: New offices and labs, each with solar panels on the roof.
Battery yard: A battery, its control cabinet and a transformer, connected to the grid. It stores energy and cuts the costliest peaks.
Substation: Where utility power steps down for the district.
Apartments with solar: Apartment buildings with solar panels on their roofs.
Homes with solar: Family homes with rooftop solar.
Solar carports: Solar panels on roofs over the parking. They shade the cars and make power.
Microgrid battery: A neighborhood battery. With the solar, it can keep the homes running if the grid goes down.
Grid connection: The substation and its battery link the whole district to the utility grid.

One old building on neglected land. We map what is there.

  1. Old building. An old building that needs work. We start by measuring how it uses energy today.
  2. Neglected land. Empty, overgrown land and a cracked lot. Room to build, once there is a plan.
  3. Old power line. The old poles along the county road. They can carry only a little power.
  1. Rooftop solar. Solar panels on the rebuilt roof make power on site.
  2. Rebuilt center. The old building, rebuilt as an efficient, high-tech center.
  3. New roads and green space. New streets, sidewalks, trees and lawns around the block.
  4. Grid connection. A new substation and new poles bring utility power to the site.
  1. New solar buildings. New offices and labs, each with solar panels on the roof.
  2. Battery yard. A battery, its control cabinet and a transformer, connected to the grid. It stores energy and cuts the costliest peaks.
  3. Substation. Where utility power steps down for the district.
  1. Apartments with solar. Apartment buildings with solar panels on their roofs.
  2. Homes with solar. Family homes with rooftop solar.
  3. Solar carports. Solar panels on roofs over the parking. They shade the cars and make power.
  4. Microgrid battery. A neighborhood battery. With the solar, it can keep the homes running if the grid goes down.
  5. Grid connection. The substation and its battery link the whole district to the utility grid.
Map what is there, then build it in phases

Gaiergy develops energy master plans that map a clear path from existing infrastructure to a fully optimized, decarbonized system. We assess generation, distribution, storage and load profiles across entire campuses and districts, then produce a phased implementation roadmap with measurable milestones.

  • Campus and district-wide energy baseline assessments
  • Multi-technology integration roadmaps covering geothermal, solar, storage and grid
  • Phased decarbonization planning with capital sequencing
  • Utility infrastructure and transmission capacity analysis
  • Stakeholder alignment and regulatory pathway development
  • Long-range resilience and sustainability benchmarking
Track record. Energy master plans delivered for municipal, institutional and federal clients, integrating geothermal, solar and storage into unified infrastructure strategies spanning 20-year horizons.
02

Technoeconomic Analysis

A white architectural scale model on a dark table: an office building with solar panels on the roof, a battery enclosure, a gray cabinet and a green transformer in a small fenced yard. In the empty space to the right, a chart shows cash flow by year, with low, base and high cases that cross break even.
System design: The real equipment, sized for the site.
Costs: What it costs to build, run and maintain.
Incentives: Tax credits, grants and program payments that lower the cost.
Rate of return: The yearly return the project earns on the money put in.
Net present value: What all future cash is worth in today's dollars.
Payback: How many years until the project earns back what it cost.
  1. System design. The real equipment, sized for the site.
  2. Costs. What it costs to build, run and maintain.
  3. Incentives. Tax credits, grants and program payments that lower the cost.
  4. Rate of return. The yearly return the project earns on the money put in.
  5. Net present value. What all future cash is worth in today's dollars.
  6. Payback. How many years until the project earns back what it cost.
  7. Chart. Cash flow by year for three cases: low (dashed line), base (blue) and high (green). Bars show the cash in each year. Where a line crosses the middle line, the project breaks even.
Design, costs and incentives go in. The cash flow comes out.

Every Gaiergy engagement starts with rigorous technoeconomic modeling. We integrate technical system design with financial structuring, so the design that gets drawn is the design that can be paid for.

  • Internal Rate of Return, Net Present Value and multi-scenario cash flow modeling
  • Finance structuring and energy contract design: Energy Savings Performance Contract (ESPC), Utility Energy Service Contract (UESC), Power Purchase Agreement (PPA)
  • Cost accounting and lifecycle economic analysis
  • Incentive stacking optimization: Investment Tax Credit (ITC), state programs, Commercial Property Assessed Clean Energy (C-PACE)
  • Technical system sizing informed by financial targets
  • Energy master planning with integrated financial modeling
Track record. 45 renewable energy contracts across 4 federal agencies totaling $104M+. $622M in U.S. Department of Energy EERE project funding. Work featured by both the Department of Veterans Affairs and the Department of Energy as examples of successful energy contracting.
03

Geothermal Systems Design and Deployment

Cutaway of four homes on a street. Each basement has one heat pump with two small pipes down to one shared main under the street. The main runs to a header and five U-shaped boreholes deep in the ground. Every pipe is below ground level.
Homes on the network: Houses that share one ground loop instead of each drilling its own wells.
Heat pump in the basement: A machine that moves heat from the loop water into the home in winter and out of the home in summer.
One shared main under the street: One pipe of water at ground temperature that connects every home to the borefield.
Boreholes deep in the ground: Deep vertical holes with U-shaped pipes where the loop water trades heat with the rock.
Ground level: The surface of the ground. Every pipe in this network stays below it.
  1. Homes on the network. Houses that share one ground loop instead of each drilling its own wells.
  2. Heat pump in the basement. A machine that moves heat from the loop water into the home in winter and out of the home in summer.
  3. One shared main under the street. One pipe of water at ground temperature that connects every home to the borefield.
  4. Boreholes deep in the ground. Deep vertical holes with U-shaped pipes where the loop water trades heat with the rock.
  5. Ground level. The surface of the ground. Every pipe in this network stays below it.
Homes share one ground loop. Every pipe stays underground.

We design and engineer district-scale ground-source heat pump networks that serve entire communities. From thermal conductivity testing through borehole field design, distribution piping and building-level integration.

  • District geothermal network design, residential and institutional
  • Borehole field engineering and thermal modeling
  • Ground-source heat pump specification
  • Thermal distribution system design
  • Integration with solar photovoltaic and battery storage
  • Multi-jurisdiction coalition development
Track record. 52+ community geothermal feasibility studies across New York, Massachusetts, Maryland, Colorado and Minnesota. Projects include the New York City Economic Development Corporation Thermal Energy Networks, Merrimack Valley, an Xcel Energy pilot and statewide analyses.
Watch a demo: we test a single-pipe loop before anyone digs →
04

Battery Storage and Grid Services

Side view of a two-story office building at dusk. A service wire runs from a wooden utility pole to a meter on the building's left wall. In the fenced yard to the right stand a green transformer, a gray control cabinet and a white battery enclosure. A chart of one day of demand in the sky shows the battery charging at night and covering the afternoon peak.
Grid: The utility's power line.
Meter: Where the utility measures what the building uses. Everything to its right is behind the meter.
Building: The customer. It uses power all day and needs the most in the afternoon.
Transformer: Changes the battery's voltage to match the building.
Control cabinet: Controls and communications for the battery.
Battery: Charges at night when power is cheap, then covers the building's afternoon peak.
Behind the meter: Everything on the customer side of the meter: the building, the transformer, the cabinet and the battery.
Battery charges at night: The battery fills up at night, when the building uses little and power is cheap.
Battery covers the peak: In the afternoon the battery supplies the top of the peak, so the building never takes more than the dashed limit from the grid.
  1. Grid. The utility's power line.
  2. Meter. Where the utility measures what the building uses. Everything to its right is behind the meter.
  3. Building. The customer. It uses power all day and needs the most in the afternoon.
  4. Transformer. Changes the battery's voltage to match the building.
  5. Control cabinet. Controls and communications for the battery.
  6. Battery. Charges at night when power is cheap, then covers the building's afternoon peak.
  7. Behind the meter. Everything on the customer side of the meter: the building, the transformer, the cabinet and the battery.
  8. Battery charges at night. The battery fills up at night, when the building uses little and power is cheap.
  9. Battery covers the peak. In the afternoon the battery supplies the top of the peak, so the building never takes more than the dashed limit from the grid.
  10. Chart. One day of demand. The dashed curve is what the building uses; the solid line is what it takes from the grid. The moving line marks the time of day.
The battery sits behind the meter and covers the peak

We analyze and structure commercial and industrial battery storage projects to reach day-one cash flow, through strategic incentive stacking and wholesale market participation.

  • Behind-the-meter storage sizing and economics
  • Federal Investment Tax Credit and state incentive stacking analysis
  • Commercial Property Assessed Clean Energy (C-PACE) financing structuring
  • PJM Interconnection wholesale market revenue modeling
  • Demand charge management optimization
  • Program-specific applications, for example the Garden State Energy Storage Program
See how we site a battery →
Visualization: NASA’s Scientific Visualization Studio
Marine and ocean energy

Then we keep going, out to sea.

Over 30 years in oceanographic science and logistics, applied to coastal, marine and open-ocean systems for energy, carbon and aquaculture.

05

Marine Energy and Oceanographic Consulting

Cross section of a coast. A survey ship lowers a CTD rosette and maps the seabed with multibeam sonar. An ocean data buoy floats nearby. A wave device and a tidal turbine send power through a seabed cable that runs up the slope to a shore station on land.
Survey vessel: A research ship that carries the crew, the sonar and the sampling gear to the site.
CTD rosette: A frame of water bottles and sensors that measures salt, temperature and depth.
Multibeam sonar map: Sound beams from the ship measure the water depth and draw a color map of the seabed.
Ocean data buoy: A floating station that records waves, currents and weather. It sends data, not power.
Wave device: A floating machine that turns the up-and-down motion of the waves into electricity.
Tidal turbine: An underwater rotor that the tidal current turns to make electricity.
Kelp and fish: The living habitat near the site. A marine project must study it and protect it.
Cable to shore: A seabed cable that carries the power from the wave device and the turbine up the slope to land.
Shore station: The building on land that receives the power and connects it to the grid.
  1. Survey vessel. A research ship that carries the crew, the sonar and the sampling gear to the site.
  2. CTD rosette. A frame of water bottles and sensors that measures salt, temperature and depth.
  3. Multibeam sonar map. Sound beams from the ship measure the water depth and draw a color map of the seabed.
  4. Ocean data buoy. A floating station that records waves, currents and weather. It sends data, not power.
  5. Wave device. A floating machine that turns the up-and-down motion of the waves into electricity.
  6. Tidal turbine. An underwater rotor that the tidal current turns to make electricity.
  7. Kelp and fish. The living habitat near the site. A marine project must study it and protect it.
  8. Cable to shore. A seabed cable that carries the power from the wave device and the turbine up the slope to land.
  9. Shore station. The building on land that receives the power and connects it to the grid.
From the survey vessel to the cable on shore

Drawing on over 30 years in oceanographic science and logistics, we provide the analytical services to assess, develop and deliver actionable systems for coastal, marine and open-ocean energy, carbon and aquaculture.

  • Wave and tidal energy generation
  • Algae cultivation and bioproduct development
  • Aquaculture system design
  • Marine carbon capture and assessment
  • Oceanographic logistics and field operations
  • Marine surveying and cable routing

Tell us about your idea or where your project is stuck.

We start at the concept and work through the economics, design, and implementation.

Schedule a consultation View our projects
Email
contact@gaiergy.com
Phone
(646) 580-0701
Locations
New York City, NY / Jupiter, FL