The HydroThermal Reactor: Where Science Meets Scalable  Green Power

KiNRG’s patented HydroThermal Reactor is designed to deliver cost-efficient, zero-emission power — engineered for large-scale deployment.

Horo image
we create
About Our Tech

Technology Introduction: The HydroThermal Reactor

The HydroThermal Reactor is a hyperbolic concrete structure with a water injection system at the top that releases measured water droplets through a header.

These droplets evaporate near the top due to sun-warmed air, cooling the air inside the reactor. As it cools and becomes denser, the air descends, reaching speeds over 50 mph.

This colder, damp, dense air flows into tunnels around the base, reaching wind speeds of over 100 mph.

Patented turbines inside these tunnels convert the wind's kinetic energy into green electricity.

Features

Key Features of the HydroThermal Reactor

KiNRG’s HydroThermal Reactor is redefining the economics of sustainable power generation — patented, cost-effective, and designed for real-world scalability.

Icon

Zero

Emission Output

100% clean energy

Our Value
Icon

Durable

Renewable Source

Designed for low maintenance and long lifecycle

Our Value
Our Value
Icon

built

with Conventional Materials

No rare earths or specialty metals required

Icon

Scalable

& Modular

Ideal for grid-scale or co-located industrial deployment

Our Value
Tech Comparison

How kiNRG compares to other renewables

KiNRG’s HydroThermal Reactor is more than a breakthrough in sustainability — it’s a high-impact solution for both the planet and forward-thinking investors. By merging zero-emission energy production with operational efficiency, we unlock value across environmental, economic, and infrastructural fronts.

Tech Type
Generates 24/7 Power
Site Size (Acres)
Costs
Longevity
Environmental Impact
Carbon Credits
USA Energy Tax Credits
KiNRG 
HydroThermal Reactor
640
$2.3 Billion
50 Years
Zero Carbon 
Footprint
Small Fission Reactor
TBD
TBD
Fuel Replacement Every 10 Years
Zero Carbon Footprint
Solar Farms
8,500
$4 Billion
25 Years
Ends Up In Landfills
Wind Turbines
18,000
$4 Billion
20 Years
Noise Pollution / Affects Wildlife
we create
Highlights

Engineering & Impact Highlights

A deeper look at the science, scalability, and sustainability behind the Large Reactor.

Icon

Validated Performance at Scale

  • Delivers up to 1,950 MW per site
  • Produces average hourly output of 670 MW
Icon

Massive Environmental Offsets

  • Replaces annually:
    • 9.2 million barrels of oil
    • 2.7 million tons of coal
    • 40 billion cubic feet of natural gas
  • Operates with zero carbon emissions, waste, or noise pollution
Icon

Patent-Backed Innovation

  • Eight U.S. and Global patents granted across air compression, turbine systems, and structural design
  • Covers energy extraction, structural aerodynamics, and compressed air storage
Icon

Proprietary Global Energy Calculator

  • Software tool maps ideal Reactor locations using real-time climate data
  • Models Reactor height, diameter, and water use for maximum energy output
  • Enables rapid site feasibility studies worldwide
Icon

Built for Longevity & Scale

  • Minimum 50-year design lifespan
  • Constructed from standard, low-cost materials — no rare earths required
Explore Benefits

Benefits of kiNRG HydroThermal Reactor

Clean energy that performs like an asset and scales like infrastructure

Carbon-Free Power

No combustion and no emissions

Lower CAPEX & OPEX

Compared to wind, solar, or nuclear

Predictable Output

24/7 power, no reliance on sun or wind

Energy Security

On-demand generation without storage risks

Secure Your Stake in the Future of Clean Energy

Invest in scalable, zero-emission technology redefining energy independence.
Partner with KiNRG today.

CTA Backgrunnd
FAQ

Frequently Asked Questions

All your questions answered

How much of the HTR’s energy production is needed to pump the water to the top of the Reactor’s walls?

Approximately 1½% of the energy produced and that amount is built into the program. The program calculates the net energy produced.

What is the amount of the CO2 discharge?

The HTR has a zero carbon foot print.

Why does the HTR work around the clock?

The HTR required warm/hot air. After sunset, the earth cools from the ground up. Cooler hours between midnight and sunrise dimmish the production. That’s why the lowest hours of night time winter hours determine the base load capacity which targets 200 Megawatts.

What does “Behind the Meter” mean?

The need for AI data centers has created a demand for energy that far exceeds existing generating capacity. Our aging electrical grid system lacks the transmission capacity even if we could build enough new power plants fast enough to meet demand. Consequently, co-locating the HTR’s on the same site with the data center eliminates the need for large power plants and by passes the need for the grid. That’s called a “Behing the Meter” solution because the data center is independent from the grid.

What areas have suitable climate to support HTR’s?

Southern California to western Texas approximately 100 miles from the Mexico border as well as the Mexican side of the border is suitable. Most of Australia works as well. The most ideal locations range from Morocco through Egypt as well as all across the Mid-Eastern Countries and into Western India.

How much does the HTR cost?

KiNRG considers the cost of the HTR to be proprietary. The Company plans to own the HTR’s and sell energy to data centers under long term fixed price contracts. The HTR’s are projected to be very profitable assuming the current rates for electricity.

What is the life expectancy of the HTR?

The reactor is concrete and rebar. Although concrete structures are designed for 50 years, it would be unusual for their life not to exceed 75 years.

The generators, when properly maintained should perform for 30 years before replacement. The 36 turbines have a useful life of 20 years and each of the 3 blades per turbine are replaceable. Pumps should be changed out every 10 years with spares which most often can be refurbished.

How much water does the HTR’s use?

If drawing water from a well, independent 3rd party studies conclude that the HTR simply borrows waters, captures and re-circulates the vast majority of the water and discharges only cold damp air from its tunnels which irrigate the surrounding land and replenish the aquifer. The HTR does not create a plume or discharge water. The fact that the HTR filters the water means that it actually returns the borrowed water cleaner than when originally drawn.

Why is the base load capacity so important?

The HTR is an ideal power solution for data centers. Data centers require constant power 24/7/365. Traditional renewable energy from solar or wind produces energy only when the Sun shines or the Wind blows.

How does the HTR actually make electricity?

The evaporating cooler air falls at a scientifically predictable speed to the bottom of the reactor where it is forced into smaller tunnels surrounding the base of the Reactor. Inside each tunnel is a 3-bladed turbine that spins and powers hydraulic pumps which circulate hydraulic fluid in a closed loop system that spins generators in a separate generating room .Generators send the power to the project’s own substation which provide power to the co-located data center and can direct the excess day time power over and above the base load to the grid.

Have any HTR’s been built?

Not yet but KiNRG built a pilot project as a proof-of-concept 400’ tall HTR for the U.S. Department of Energy which verified the evaporative process and validated the algorithms in the KiNRG program model.