Industry Challenges

• Need for Low-Cost, Low-Carbon Hydrogen: The oil & gas and petrochemical sectors require cost-effective, low-carbon hydrogen sources and efficient CO2 management solutions.
• Outdated Refinery H2S Management: Traditional methods are costly and fail to recover hydrogen. Existing high-capex Claus systems are outdated and inefficient.
• Well pad H2S Management: Scavengers and acid gas injection methods are costly and are uneconomic at high H2S levels. Extensive flaring wastes high value natural gas.
• Opportunity in CO2 Conversion: Captured CO2 can be converted into valuable syngas, avoiding the high costs of sequestration.
• Water Cooling Towers use more than 25% of all processed water, and use significant quantities of chemicals to maintain efficiency, none of which is allowed to be reintroduced into the municipal systems for reuse. Non-chemical treatment can reduce water usage and cost of disposal.

Market Opportunity

• Growing Hydrogen Demand: Increasing at 6% annually.
• Untapped H2S Waste Streams: 96 refineries and over 400 gas processing plants destroy over 2 million tons of hydrogen annually, equivalent to 25% of current U.S. hydrogen demand.
• In Texas, over 9,000 wells are flaring more than up to 8 billion mcf of high sulfur natural gas annually.
• There are more than 2 million cooling towers in the US, and data centers each will use over 100 million gallons of water per year

Technological Solution

RedShift Energy's patented platform technologies utilize catalyst-free plasma chemistry to:
• Capture Hydrogen from H2S: Scalable to meet throughput requirements across the oil and gas value chain.
• System Validated by Sulfur Recovery Engineering, Inc.: Proven recovery of hydrogen from typical amine feed
• From 50%-93% H2S concentration. No issues from CO2, CH4, BTEX
• Dry Reform CO2 into Syngas: For use in petrochemical and synthetic jet fuel production.
• Advanced Oxidation of water as a non-chemical biocide to reduce wastewater

3rd party validation of pilot scale H2S system. Awards by Department of Energy and National Science Foundation. Master Research Agreement with Texas A&M.