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Commercial Value of FastOx

FastOx® Gasification Technology

Commercial Value

On an annualized basis, FastOx gasification projects are projected to support compelling project-level economics, including EBITDA relative to CAPEX or Net CAPEX in the 20% to 50% plus range:

Multiple sources of revenue on FastOx gasification projects can support strong project economics, including high-value products, incentives, CO₂ for industrial use or sequestration credits, tipping fees (payments for waste), and green cement additives.

Example project: A 100 MTPD Municipal Solid Waste (MSW)-to-Sustainable Aviation Fuel (SAF) California project is projected to have annualized EBITDA relative to CAPEX of 42%.

Attractive market opportunities for FastOx gasification projects, with high project ROIs in large addressable markets.

Power for AI data centers

Clean hydrogen for zero emission transport and power generation

Renewable methanol and SAF

FastOx gasification projects can be competitive with fossil fuels without incentives.

Example: A 500 MTPD MSW-to-diesel project is projected to have annualized EBITDA relative to CAPEX of 21%.

Multiple sources of revenue on FastOx gasification projects

This waterfall chart titled "California FastOx gasification plant converting 100 MTPD MSW into SAF" shows the revenue and cost components building to an Annual EBITDA of approximately $29 million per year (measured in $ Million/year on the y-axis, scaled 0–40). Green revenue bars include SAF (42,187 BPY @ $248/BBL, ~$10.4M), Naphtha (8,640 BPY @ $70/bbl), LCFS Credits (42,187 BPY @ $100/bbl), RINS Credits (42,187 BPY @ $97/bbl), IRA 45V Credits (2,209 MTPY @ $3.18/kg), Tipping Fees (32,850 MTPY @ $100/MT), CO2 (40,000 MTPY @ $100/MT), and Cement Additive (1,643 MTPY @ $100/MT), while a red OP
This waterfall chart titled "California FastOx gasification plant converting 100 MTPD MSW into SAF" shows the revenue and cost components building to an Annual EBITDA of approximately $29 million per year (measured in $ Million/year on the y-axis, scaled 0–40). Green revenue bars include SAF (42,187 BPY @ $248/BBL, ~$10.4M), Naphtha (8,640 BPY @ $70/bbl), LCFS Credits (42,187 BPY @ $100/bbl), RINS Credits (42,187 BPY @ $97/bbl), IRA 45V Credits (2,209 MTPY @ $3.18/kg), Tipping Fees (32,850 MTPY @ $100/MT), CO2 (40,000 MTPY @ $100/MT), and Cement Additive (1,643 MTPY @ $100/MT), while a red OP

SAF Revenue – From the sale of SAF to airlines

LCFS (Low Carbon Fuel Standard Credits) – California credits for renewable transport fuels

RINS (Renewable Identification Numbers) – EPA credits for renewable transport fuels

IRA 45V (Inflation Reduction Act production Tax Credits) – Federal tax credits for the production of low carbon intensity hydrogen

Tipping Fees (Payments from Waste Haulers) – Payments usually made to landfills for disposal

CO₂ Revenue – From the sale of purified CO₂ into food and beverage markets

Cement Additive Revenue – From the sale of gasifier slag as a clinker replacement in Portland cement

Attractive market opportunities for FastOx gasification projects, with high project ROIs in large addressable markets

Power for AI Data Centers

One particularly promising opportunity is the rapidly growing demand for reliable electricity from data centers, especially facilities supporting artificial intelligence.

Sierra Energy has been approached by multiple data center developers interested in the use of FastOx gasification technology to provide continuous baseload power. Unlike intermittent sources such as solar and wind, FastOx gasification technology is designed to operate around the clock, subject to normal operating and maintenance requirements and the availability of suitable feedstock.

Sierra Energy’s project analyses indicate that FastOx gasification technology can supply power at highly competitive prices in locations where suitable waste supplies, tipping fees, project sites, and power customers can be assembled.

Developers have also expressed interest in the potential for FastOx gasification facilities to be developed and placed into service years sooner than new nuclear generating facilities, which generally require much longer development, licensing, financing, and construction schedules.

A 500 MTPD FastOx gasification plant using MSW as feedstock is projected to produce approximately 50 megawatts of continuous power, with EBITDA relative to Net CAPEX of 51%, and eliminate 270,000 metric tons per year of CO₂e greenhouse gas (GHG) emissions from the atmosphere.

This slide titled "Power for AI Data Centers" features a Deloitte bar chart (Figure 1) showing US power demand from AI data centers is expected to boom, with total data center power demand rising from 33 GW in 2024 to 176 GW in 2035, while AI-specific demand grows from 4 GW to 123 GW (a 31x increase). The right panel highlights that this 119 GW increase equals 11,900 FastOx gasifiers (10 MW each), and details a 5 x 100 MTPD FastOx Units MSW-to-Power project delivering 50 MW, 51% annual EBITDA/net CAPEX, and 270,000 MTPY CO2e emissions reduction. Key takeaways emphasize that FastOx gasification provides continuous power unlike intermittent solar and wind, with estimates based on a US project with $0.10/kWh power offtake and $50/MT tipping f
This slide titled "Power for AI Data Centers" features a Deloitte bar chart (Figure 1) showing US power demand from AI data centers is expected to boom, with total data center power demand rising from 33 GW in 2024 to 176 GW in 2035, while AI-specific demand grows from 4 GW to 123 GW (a 31x increase). The right panel highlights that this 119 GW increase equals 11,900 FastOx gasifiers (10 MW each), and details a 5 x 100 MTPD FastOx Units MSW-to-Power project delivering 50 MW, 51% annual EBITDA/net CAPEX, and 270,000 MTPY CO2e emissions reduction. Key takeaways emphasize that FastOx gasification provides continuous power unlike intermittent solar and wind, with estimates based on a US project with $0.10/kWh power offtake and $50/MT tipping f

The broader data center power market is growing rapidly. The third party analysis referenced in the graphic above projects a substantial increase in data center power demand through 2035. FastOx gasification would need to capture only a small portion of that growth to support a meaningful number of projects.

Clean hydrogen for zero emission transport and power generation

Syngas produced through the FastOx gasification process can also be used to produce clean hydrogen as an alternative to hydrogen made from conventional fossil fuel processes.

Hydrogen produced from waste could potentially replace diesel fuel in heavy transportation, rail, industrial operations, and other applications. Depending upon local waste economics and hydrogen pricing, Sierra Energy’s project analyses indicate that the FastOx gasification process provides a cost-competitive pathway to hydrogen production. A project consisting of five 100-MTPD FastOx gasification units could produce hydrogen at meaningful commercial scale while reducing emissions associated with both waste disposal and diesel fuel use.

A five-unit, 500 MTPD FastOx hydrogen project using MSW as feedstock is projected to have EBITDA relative to Net CAPEX of 54% and eliminate 325,000 metric tons per year of CO₂e greenhouse gas (GHG) emissions from the atmosphere.

The slide presents two line charts titled "Global clean hydrogen demand outlook by scenario" and "Global grey hydrogen demand outlook by scenario," both measured in Mt per year of hydrogen equivalent from 2020 to 2050. The clean hydrogen chart shows demand rising sharply across five scenarios (Fading momentum, Current trajectory, Further acceleration, Achieved commitments, Net zero) to reach 125–585 million tons by 2050, while the grey hydrogen chart shows demand peaking around 100 Mt near 2025 then declining. Key takeaways on the right emphasize a massive emerging clean hydrogen market—250 million MTPY by 2050 (equivalent to 80,000 FastOx gasifiers), with FastOx units delivering 54% annual EBITDA/net CAPEX, 270,000–325,000 MTPY CO2e emissions re
The slide presents two line charts titled "Global clean hydrogen demand outlook by scenario" and "Global grey hydrogen demand outlook by scenario," both measured in Mt per year of hydrogen equivalent from 2020 to 2050. The clean hydrogen chart shows demand rising sharply across five scenarios (Fading momentum, Current trajectory, Further acceleration, Achieved commitments, Net zero) to reach 125–585 million tons by 2050, while the grey hydrogen chart shows demand peaking around 100 Mt near 2025 then declining. Key takeaways on the right emphasize a massive emerging clean hydrogen market—250 million MTPY by 2050 (equivalent to 80,000 FastOx gasifiers), with FastOx units delivering 54% annual EBITDA/net CAPEX, 270,000–325,000 MTPY CO2e emissions re

The global market for hydrogen is already substantial and is expected to grow as transportation, industrial, and energy customers seek lower emission alternatives. The portion of that market served by low emission hydrogen remains comparatively small, creating a potentially significant opportunity for technologies capable of producing it economically.

Renewable Methanol and Sustainable Aviation Fuel

Syngas produced through the FastOx gasification process can also provide the building blocks needed to produce renewable methanol and sustainable aviation fuel.

Renewable methanol is becoming increasingly important in the maritime industry as vessel operators face stricter renewable fuel requirements and rising costs associated with continued reliance on conventional marine fuels.

A 400 MTPD FastOx gasification plant using MSW as feedstock is projected to produce approximately 50 megawatts of continuous power, with EBITDA relative to Net CAPEX of 21%, and eliminate 216,000 metric tons per year of CO₂e greenhouse gas (GHG) emissions from the atmosphere.

The chart (Figure 2) is a bar graph titled implicitly under "Financial Impact for Vessel Operators," showing the total cost development of using VLSFO fuel for propulsion from 2025 to 2050, with fuel price (€/ton) on the y-axis ranging from €0 to €3,000 and year on the x-axis. Each bar splits into commodity price VLSFO (constant €500, shown in black) and non-compliance cost from FuelEU & EU ETS (gray), with total prices rising from €764 in 2025 to €960 (2030), €1,195 (2035), €1,609 (2040), €2,387 (2045), and €2,839 by 2050—roughly quadrupling. The key takeaway is that escalating non-compliance penalties nearly quadruple VLSFO costs by 2050, incentivizing operators to switch to sustainable fuels like green methanol.
The chart (Figure 2) is a bar graph titled implicitly under "Financial Impact for Vessel Operators," showing the total cost development of using VLSFO fuel for propulsion from 2025 to 2050, with fuel price (€/ton) on the y-axis ranging from €0 to €3,000 and year on the x-axis. Each bar splits into commodity price VLSFO (constant €500, shown in black) and non-compliance cost from FuelEU & EU ETS (gray), with total prices rising from €764 in 2025 to €960 (2030), €1,195 (2035), €1,609 (2040), €2,387 (2045), and €2,839 by 2050—roughly quadrupling. The key takeaway is that escalating non-compliance penalties nearly quadruple VLSFO costs by 2050, incentivizing operators to switch to sustainable fuels like green methanol.

Sustainable aviation fuel represents another potentially large application. Airlines, governments, and fuel producers are seeking scalable alternatives to petroleum-based jet fuel, and syngas produced from waste can serve as an intermediate product in several established fuel production pathways.

FastOx gasification projects can be competitive with fossil fuels without incentives.

FastOx gasification projects can receive tipping fees to accept waste, creating a revenue source that can cover all of the plant’s operating expenses. With sufficient tipping fee revenue, FastOx gasification plants can produce energy and fuel at a lower cost than a competing fossil fuel plant.

The example below shows a 500 MTPD FastOx gasification plant converting MSW into diesel, food-and-beverage-grade CO₂, and a green cement additive. The economics use expected market prices with no additional incentives. The modeled tipping fee is $20/MT, which is conservative relative to regions where tipping fees can exceed $100/MT.

This waterfall chart titled "FastOx gasification plant converting 500 MTPD MSW into Diesel: No Incentives" displays revenue and cost contributions in $ Million/year (y-axis ranging 0–70.0). The green revenue bars include Diesel (210,935 BPY @ $150/BBL, ~$31.7M), Naphtha (43,200 BPY @ $70/BBL), Tipping Fees (164,250 MTPY @ $20/MT), CO2 (200,000 MTPY @ $100/MT), and Cement Additive (8,215 MTPY @ $100/MT), against a red OPEX bar (~$21M), resulting in a blue Annual EBITDA of approximately $37.5M. With CAPEX of $177 million, the Annual EBITDA/CAPEX ratio is 21%.
This waterfall chart titled "FastOx gasification plant converting 500 MTPD MSW into Diesel: No Incentives" displays revenue and cost contributions in $ Million/year (y-axis ranging 0–70.0). The green revenue bars include Diesel (210,935 BPY @ $150/BBL, ~$31.7M), Naphtha (43,200 BPY @ $70/BBL), Tipping Fees (164,250 MTPY @ $20/MT), CO2 (200,000 MTPY @ $100/MT), and Cement Additive (8,215 MTPY @ $100/MT), against a red OPEX bar (~$21M), resulting in a blue Annual EBITDA of approximately $37.5M. With CAPEX of $177 million, the Annual EBITDA/CAPEX ratio is 21%.

Note: The project economics and environmental figures in this article are based on Sierra Energy’s models and assumptions and are provided for business evaluation and discussion purposes. They are not actual project results, distributor results, territory results, or guarantees of future performance.

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Important Information Before You Continue

This site contains information about potential territorial distribution opportunities for FastOx® gasification technology. The materials are provided for business evaluation and discussion purposes only.

The site includes market-size information, equipment-value calculations, project-economics models, ROI estimates, sales estimates, profit estimates, compensation illustrations, environmental estimates, project pipeline information, technical descriptions, projections, forecasts, scenarios, and other forward-looking or assumption-based information. This information is based on Sierra Energy's current information, third-party sources, internal models, and assumptions that may change. It is not based on actual distributor results, completed distributor-originated projects, completed FastOx unit sales under this program, or actual territory performance.

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