Expanded Pathways for Lower-Carbon Energy

LCH™ technology uses autothermal reforming, with the option of a gas heated reformer, for large-scale, lower-carbon hydrogen production with integrated carbon capture.

• Flexible ATR or ATR + GHR configurations
• Designed for integration with carbon capture
• Suitable for hydrogen and blue ammonia projects

The jointly developed decam™ offering integrates Honeywell Technologies’ LCH™ technology with the thyssenkrupp Uhde ammonia process, providing a pathway designed to help reduce carbon intensity associated with ammonia production, depending on feedstock, configuration, CO₂ capture rate, and storage or utilization pathway.

• Integrated blue hydrogen and ammonia solution
• Combines established process technologies
• Supports new lower-carbon ammonia capacity

ADEPT™ technology converts ammonia back into hydrogen, supporting the use of ammonia as a practical carrier for hydrogen transport, storage and delivery.

• Ammonia-to-hydrogen conversion
• Supports hydrogen import and distribution chains
• Complements lower-carbon ammonia production

FT CANS™ converts synthesis gas derived from biomass or municipal solid waste into synthetic crude. Honeywell UOP FT Unicracking™ then upgrades the product into SAF and other fuels.

• Biomass and waste-derived feedstocks
• Integrated synthesis and upgrading route
• Modular Fischer-Tropsch technology

HyCOgen™ converts captured CO₂ and hydrogen into synthesis gas optimized for FT CANS™, creating an integrated route to eSAF and other synthetic fuels.

• Captured CO₂ to synthesis gas
• Optimized integration with FT CANS™
• Route to eSAF and synthetic fuels

Developed by Virent and further advanced in collaboration with CT, BioForming® S2A converts renewable sugar feedstocks into aromatic hydrocarbons used in fuels and chemicals. The technology can produce BioForm® SAK, an aromatic component for aviation fuel that complements paraffinic SAF pathways.

• Renewable sugar feedstocks
• BioForm® SAK aromatic component for aviation fuel
• Drop-in aromatic products for fuel and chemical systems

eMERALD™ methanol technology converts captured CO₂ and renewable hydrogen into methanol, which Honeywell UOP eFining™ can upgrade into SAF and other fuel products. The route can also use sustainable methanol produced from other qualifying feedstocks.

• eMERALD™ production of methanol from captured CO₂ and renewable hydrogen
• Integrated fuel upgrading through Honeywell UOP eFining™
• Supports sustainable methanol from multiple qualifying feedstocks

Synthesis gas produced from biomass or waste can be converted into methanol using Honeywell Technologies process technology and catalysts.

eMERALD™ converts captured CO₂ and renewable hydrogen into methanol for chemicals, marine fuels and downstream fuel production.

KATALCO™ 51-series catalysts deliver efficient methanol synthesis across conventional and alternative feedstocks, combining high productivity with long operating life.

Proven methanation technology converts synthesis gas into pipeline-quality synthetic natural gas for projects using coal, biomass or other gasified feedstocks.

Captured CO₂ and renewable hydrogen can be converted into synthetic natural gas compatible with existing gas infrastructure.

Methanation catalysts and purification solutions protect the process, maintain conversion performance and support reliable long-term operation.

Additives help control regenerator emissions and afterburn within existing FCC unit configurations, supporting environmental and operating objectives.

Specialist additives can support higher propylene, butylene, LPG and octane production, depending on feedstock, unit design and operating conditions.

Metals passivation and bottoms-cracking additives help refiners manage nickel and vanadium contamination and process a wider range of opportunity feedstocks.