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BYOP • CIK 0000095572
Overview Our core objective and focus is to become a leading provider of clean efficient green energy and green hydrogen to the world communities at a reasonable cost without the destructive residuals of fossil fuel, while continuing to generate innovative technological solutions for today and tomorrow’s electrical power needs. We have assembled a team of experienced business professionals, engineering and scientific consultants with the proven ability to bring the idea to market. We have filed and been issued patents. We have designed, engineered, developed and are preparing to construct both smaller and large HydroThermal Reactors (HTR) that use benevolent, non-toxic natural elements to generate electricity economically by integrating and synthesizing numerous proven as well as emerging technologies. In addition to constructing smaller and large HTR’s in the United States and abroad, the Company intends to establish partnerships at home and abroad to propagate these systems and meet increasing global demand for electricity. The Company is developing a smaller “modular” reactor to support AI data centers and other applications where a constant 24/7/365 base load is required. The Company has been focused on retooling the large HTRs and is concentrating on the smaller HTR’s which will produce far less total annual mega watt hours but are designed to meet the needs of emerging AI data center energy requirements, which require a base load of energy 24/7/365. The large HTR’s is better suited to support the green hydrogen market. The smaller modular HTR will require less than half of the concrete needed for the large HTR, a quarter of the generating capacity, one third of the water and can be constructed in less than half the time. The large HTR is estimated to cost $2.2 billion and requires 36 months to construct. The large HTR is designed to generate the maximum amount of energy over the year by utilizing the hottest and driest hours during the year which require the taller distance for the reactor to accommodate the evaporative process. Combining the large HTR with a Green Hydrogen production facility (which costs approximately $1.4 billion and would be developed by others), seeks to produce Green Hydrogen at a competitive cost. The smaller HTR is estimated to cost less than $1.5 billion. Unlike the taller HTR, it is designed to maximize production during the coolest hours of the year and support a base load required by data centers. The reactor’s height is shortened to accommodate the shorter distance to support the evaporative process for cooler and more damp conditions. By comparison, the smaller HTR can be constructed in 12 to 15 months, uses less water and can be adapted to more climates. When connected to a data center (by others) the smaller HTR is projected to produce 150 MW’s to 200 MW’s of reliable power, 24/7/365, and by-pass the need for the data center to require power from the grid. After completion of construction, the reactors will be immediately operational. Each of the individual operating systems is tested and operational as part of the construction completion process. Those systems include the water injection system, turbine and hydraulic pressure system, generator production system, water collection and pumping system. The reactor is simply activated by the water injection system, and the entire reactor is immediately operational. However, the timeline to full operational status could be affected by factors such as final local inspections, interconnection testing with any co-located facilities (e.g., data centers or hydrogen production plants), or unforeseen commissioning delays, which we estimate could add several months in some cases, though we anticipate minimal delays given the integrated testing during construction. The Company intends to pursue project financing to fund the construction of both its smaller and large downdraft renewable energy towers (collectively, the “HTRs”). Obtaining such project financing is expected to be contingent upon the Company entering into long-term power purchase agreements (also known as off-take agreements) with customers for each project. These agreements would guarantee the purchase and price of the energy produced, thereby providing a basis for ensuring that any debt associated with the project financing can be repaid. This method of financing is commonly used for renewable energy projects in the United States.…