Decarbonisation Technology - May 2023 Issue

Company

Location

Production Feedstock

Hydrogen

Direct conversion Energy

Year

(t/yr)

source

or RWGS

source

Carbon Clean Port Arthur,

500

Refinery off-gas Captured

Green hydrogen

Direct

Solar and 2023

Solutions

Texas, USA

from solar and wind conversion

wind

Carbon Clean Ingolstadt,

100

Renewable electricity Electrolysis

Direct

Hydropower 2024

Solutions

Germany

CO 2

conversion

Carbon Clean San Antonio,

100

Flue gas

Direct

Solar and 2024

Solutions

Texas, USA

conversion

wind

Carbon Clean Jharkhand,

1,000

Steel mill flue gas

Green hydrogen

Direct

Solar and

TBD

Solutions

India

from solar and wind conversion

wind Solar

Carbon Clean Rotterdam,

1,000 Waste-to-energy

Green hydrogen

Direct

TBD

Solutions

Netherlands

plant flue gas Ethanol plant

from solar and wind conversion

and wind

Carbon Clean Texas, USA

500

Green hydrogen

Direct

Solar

TBD

Solutions

off-gas

from solar and wind conversion

and wind Nuclear

CRI CRI

Hebei, China

2,000

Coal Coal

Syngas production Syngas production

RWGS RWGS RWGS RWGS

2025 2025 2023 2025

Inner Mongolia, China 2,000

Wind Hydro

INEOS INEOS

Antwerp, Belgium

300 Blast furnace off-gas Renewable electricity

Hull, UK

300

Steel mill off-gas

Syngas production

Biomass

and hydrogen

LanzaJet Soperton, Georgia, USA 10

Flue gas

Syngas from waste biomass RWGS

N/A

TBD

LanzaTech Swayze, Canada

40

Industrial waste

Renewable electricity Renewable electricity

Direct

Biomass

2023

gases

conversion

LanzaTech Shanghai, China

100

Industrial waste

Direct

Biogas

2024

gases

conversion

Veolia

Skoghall, Sweden

60

Flue gas

Green hydrogen from hydropower

RWGS

Hydropower 2023

Veolia Veolia

Foshan, China

300 Industrial flue gas

Electrolysis Renewable electricity Renewable electricity

Direct conversion Solar

2023 2025

Gela, Italy

80

Industrial waste

Direct

Solar

gases

conversion

Veolia

Rouen, France

100

Industrial waste

Direct

Wind

2026

gases

conversion

Table 3 CO 2 -to-methanol projects

per gallon, which is competitive with traditional ethanol production processes. The company is also developing a methanol production process using the same technology. • Researchers at the University of Cambridge in the UK have developed a new CO 2 -to-methanol conversion process that uses a copper-based catalyst and a novel reactor design to improve the efficiency of the conversion process. The researchers estimate that their process can produce methanol at around $500 per ton, which is competitive with traditional methanol production processes. • Carbon Clean Solutions in India is also

developing a CO 2 -to-methanol plant in the UK with a capacity of 60,000 tons per year. The plant will use CO 2 emissions from a local power plant as a feedstock, and the methanol will be sold to local customers for use as a fuel and chemical feedstock. The company estimates that the plant will cost around £60 million ($81 million) to build and will produce methanol at around £450-500 ($610-680) per ton. Syngas conversion to methanol is a commercial technology with many years in the market. Most syngas production originates in a fossil feedstock. The main idea of direct conversion of CO 2 is converting CO 2 from emissions sources,

www.decarbonisationtechnology.com

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