Industrial steam generation with 100% carbon capture and insignificant efficiency penalty - Scale-Up of oxygen Carrier for Chemical-looping combustion using Environmentally SuStainable materials (SUCCESS)

Chemical-looping combustion (CLC) has unique potential for reducing energy and cost penalty for CO2 capture, as it avoids the costly gas separation of other CO2 capture technologies. Early deployment is seen in natural gas steam generation, where gas-to-steam efficiency penalty with CLC is below 1%-point compared to 15%-points with amine scrubbing and 8%-points with oxyfuel combustion, all for 95% capture rate. Reduction of the CO2 avoidance cost of 60% compared to amine scrubbing post combustion capture results from higher efficiency. An absolute necessity for the scale-up of reactors for this technology is the availability of adequate oxygen carrier material. SUCCESS will assure scale-up of oxygen-carrier production to the 100 tonne scale, as well as scale up of technology to 1 MW. Industrially available raw materials will be used to produce environmentally sound oxygen carriers based on two highly successful materials developed of the previous INNOCUOUS project. The work includes,i) Applying the oxygen carrier production methods at industrially required scale and assuring the adequate performanceii) Development of standard for mechanical stabilityiii) Validation operation in four available smaller pilots <150 kW, of significantly different designiv) Operation with gaseous fuels in a 1 MW pilot plant, representing a scale up of the state of art by one order of magnitudev) Detailed studies of reaction mechanisms and fluid-dynamicsvi) Use of results in optimization of a previous design for a 10 MW demonstration plant and techno-economic study of full-scale plantvii) Assessment of health, safety and environmental issues associated with oxygen carrier handling including reuse or recycling strategiesviii) Quotations for production of >100 tonnes of material.Combined efforts of key European developers of CLC technology will assure the continued European leadership in this development and bring the technology a major step towards commercialization.

Participants

Anders Lyngfelt (contact)

Professor vid Chalmers, Space, Earth and Environment, Energy Technology

Collaborations

Consejo Superior De Investigaciones Cientificas (CSIC)

Madrid, Spain

Electricite de France (EDF)

Paris, France

Euro Support Advanced Materials

Uden, Netherlands

Flemish Institute for Technological Research

Mol, Belgium

IFP Energies Nouvelles

Rueil Malmaison, France

Institut National Polytechnique de Toulouse

Toulouse Cedex 4, France

Johnson Matthey

London, United Kingdom

Josef Bertsch Gesellschaft M.B.H & Co

Bludenz, Austria

Shell Global Solutions International

The Hague, Netherlands

SINTEF

Trondheim, Norway

SINTEF Energi

Trondheim, Norway

Technische Universität Darmstadt

Darmstadt, Germany

Total Raffinage Chimie

Courbevoie, France

University of Natural Resources and Life Sciences, Vienna

Wien, Austria

Funding

European Commission (FP7)

Funding years 2013–2017

More information

Created

2014-12-03