The SPOCC Reactor combines methane, carbon dioxide and air in an electrochemical reactor. The reactions are self-sustaining at elevated temperature. The product is syngas, a platform chemical which can be converted into a huge range of chemicals. The technology is patented.
Petrochemical sites are some of the largest emitters of greenhouse gases. The SPOCC Reactor has the potential to significantly reduce emissions, and increase the product yield by converting greenhouse gases into useful products.
This is how it works:-

Methane reacts with air in a fuel cell, and the energy produced drives the reaction between carbon dioxide and methane in an electrolysis cell.
The SPOCC Reactor makes syngas, a mixture of carbon monoxide and hydrogen, which can be used as the input for many processes, of which the major one is the Fischer-Tropsch process. This process was first developed in 1923, and converts syngas into a wide range of hydrocarbons and alcohols. If the SPOCC Reactor is added to an existing hydrogen production plant, then a truly huge range of chemicals can be made. Refer to the section on hydrogen production.
Possible applications for the SPOCC Reactor:-
The SPOCC Reactor uses electrochemistry, as it is the only way to harness the increase in entropy that the reactions involve. There are two components:-
Please contact Ken Omersa if you'd like more information; phone and email details are provided here.
Anaerobic digesters convert organic matter into a mixture of methane and CO2. The SPOCC Reactor can be used as part of a route to produce sustainable aviation fuel. For an explanation.
Oil refineries have a massive carbon footprint, partly through burning hydrocarbon fuels for heat, and partly as a byproduct from the chemical reactions themselves. We propose using the carbon dioxide as a raw material alongside oil and gas to make more sustainable use of available carbon resources.
Read how the SPOCC Reactor makes this possible.
Cement production is responsible for at least 5% of global carbon dioxide emissions. Where a supply of natural gas is available, we propose capturing the CO2, adding natural gas and air, and making syngas at the site. This can be further processed to valuable chemicals.