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Electric cracking: RotoDynamic Reactor cuts 100% of CO2 in steam cracking

Meet RotoDynamic Reactor™, the world’s best technology capable of electrifying one of the world’s most polluting industrial processes – steam cracking in the production of petrochemicals. Our technology is the solution to decarbonize olefin production.

RotoDynamic Reactor in electric cracking reducing CO2 emissions to zero

The Solution

Electric cracking is the new era in petrochemical production

Olefins, like ethylene and propylene, are the main raw materials in the chemical industry, used primarily in the production of plastics. Today, olefins are produced with steam cracking, a highly-polluting process that involves the high-temperature pyrolysis of mostly hydrocarbon feedstock, diluted with steam, inside a cracking furnace.

Electric steam cracking enabled by RotoDynamic Reactor

Electric steam cracking enabled by RotoDynamic Reactor

Innovative RotoDynamic Reactor™ (RDR), a pioneering technology in electric cracking, electrifies this previously fossil-heavy process, reducing process CO2 emissions by 100%.

That means global CO2 emission reduction potential of 300 million tons annually.

What’s more, we enable increased utilization of recycled and bio-based feedstocks, thereby further decreasing the lifecycle CO2 footprint of plastics.


Conventional cracking furnaces compared to the RotoDynamic Reactor cracking furnace

Conventional steam cracking

Conventional cracking

Olefins are traditionally produced by steam cracking ethane or naphtha at extremely high temperatures in massive cracker furnaces. The core reacting mixture is heated in tubular coils from the outside of the reaction zone through tube walls using non-renewable fossil fuels and massive amounts of energy. It is this part of the process that is the main source of CO2 emissions in olefin production.

Electric cracking with RotoDynamic Reactor

Instead of heating the feedstock mixture from outside the reaction zone, RotoDynamic Reactor’s high-velocity rotor blades create thermal energy to heat the mixture inside the reaction zone – quickly and much more efficiently. RDR uses renewable electric power, making it the only technology capable of cutting 100% of direct process emissions.

Electric steam cracking with zero emissions


Key advantages of RotoDynamic Reactor compared to furnace technology

With revolutionary benefits like zero CO2 emissions, less coking and improved profitability, RDR is an extremely attractive technology for petrochemical producers.

Cutting down emissions with electric cracking

Reduction of CO2 emissions

  • 100% reduction in process CO2 emissions from steam cracking
  • Improved energy efficiency
  • Elimination of nitrogen oxide emissions
  • Can also be used with bio-based and renewable feedstock

Higher revenue

  • Higher ethylene yield
  • Higher total olefin yield
  • Optimization of ethylene and propylene production ratio
  • Longer run-length and consequently higher up-time
Electric cracking decreases the lifecycle CO2 footprint of products
Electric cracking using RotoDynamic Reactor cuts also costs

Savings in capital expenditure and operational expenditure

Lower operating expenses (OPEX)

  • Easier maintenance
  • Advanced controllability
  • Less coke formation and less frequent decoking
  • Use of multiple parallel RDRs in one site ensures continuous production

Lower capital expenditures (CAPEX)

  • Modular design, compact size and short construction time on site
  • Possibility to build RDRs in one factory
  • No need to change radiant coils in turnarounds
  • Can be retrofitted to existing steam crackers as well as new greenfield installations
  • Can be tailored to available utility supply

Reduced coking with higher temperatures and a shorter residence time

Production at plants equipped with RDR runs smoothly compared to production at plants using fossil-heavy furnaces that require monthly decoking breaks. RDR’s low coke production rate and the possibility to use numerous RDRs ensure uninterrupted olefin production.

Reduced coking with higher temperatures and a shorter residence time
Electric steam cracking – higher yield, lower energy consumption and emissions

A fundamental revolution in ethylene yield and operability

Because RDR creates higher temperatures with a shorter residence time, it is able to achieve 20% higher ethylene yields. For petrochemical producers, that translates into increased annual profits of over 200M $ per 1 million metric tonnes ethylene plant. Lower metal surface temperatures mean that RDR is less prone to coking than conventional furnaces, resulting in lower operational costs and increased uptime.

The 20% higher ethylene yield also means fewer CO2 emissions per ethylene ton. Taking RDR into use also decreases capital expenditure when building a new ethylene plant.

Optimal temperature and residence time.
RotoDynamic Reactor has short residence at high temperature resulting in high yield with less energy and CO2 emissions.

Ready for commercial launch at scale in 2025

This game-changing electric cracking technology already exists today and a large and growing number of global industrial players have already expressed great interest in using it to cut CO2 emissions and meet crucial climate targets. Our RotoDynamic technology is currently being piloted, with commercial demonstration projects beginning in 2023. The technology can be retrofitted to existing production plants and will be ready for commercial scale use in 2025.

Coolbrook’s RotoDynamic technology has been piloted at the large-scale pilot facility since 2022, with the first phases of tests successfully completed in 2023.

In 2023, Coolbrook demonstrated electric steam cracking of naptha in its large-scale pilot plant in Brightlands Chemelot Campus, the Netherlands. The tests validated the potential of Coolbrook’s RotoDynamic Reactor Technology to replace traditional fossil fuel-based cracker furnaces with electric RDR units in the petrochemical industry.

The successful testing of RDR Technology also provides a solid basis for Coolbrook’s engineering, manufacturing, and supply of industrial scale RDR equipment to customers. As the next step, Coolbrook aims to deploy the RDR Technology at industrial scale and integrated to customer projects, with the first projects to be launched during 2024.

2021 – 2023

  • Demonstrate RotoDynamic technology and engage customers in petrochemicals and other key industrial sectors
  • Partnering with industrial actors, EPC partners and universities for successful piloting
  • Ramp-up of organization

2023 – 2025

  • Commercial scale units installed at customer sites:
    • RDR connected to ethylene plant
    • RDH in selected applications (e.g. steel industry and cement industry)
  • Engage technology suppliers to include RDR and RDH in their offering
  • Network of partners to secure successful commercial launch
  • Strengthen organization and validate key assumptions for commercial launch

2025 →

  • Commercial deliveries to customers
  • RDR and RDH part of technology offering of key suppliers and EPC companies
  • World class organization and capabilities to deliver value for all stakeholders
  • Continued value-adding partnerships within network of globally leading industry players and decarbonization actors in different sectors
RotoDynamic Reactor enables electric steam cracking with zero emissions

Electrification of steam cracking with RotoDynamic Reactor

RDR brings together space science, turbomachinery and chemical engineering. With aerodynamic action achieved through a rotating blade flow, RDR can replace conventional furnaces by directly imparting the rotor shaft’s mechanical energy to the hydrocarbon fluid needed to produce olefins.

RDR’s electric motor drives the rotors, gas is accelerated to very high velocities and then slowed down in the diffuser, creating a shockwave that converts kinetic energy into thermal energy.

Ph.D. (Aerospace Engineering) Budimir Rosic Professor, University of Oxford

RDR has the potential to really become the new industry standard in olefins production.

Budimir Rosic
Professor, University of Oxford
Ph.D. (Aerospace Engineering)