Catalysis Research is an international peer-reviewed Open Access journal published quarterly online by LIDSEN Publishing Inc. This periodical is devoted to publishing high-quality papers that describe the most significant and cutting-edge research in all areas of catalysts and catalyzed reactions. Its aim is to provide timely, authoritative introductions to current thinking, developments and research in carefully selected topics.

Topics contain but are not limited to:

  • Photocatalysis
  • Electrocatalysis
  • Environmental catalysis
  • Biocatalysis, enzymes, enzyme catalysis
  • Catalysis for biomass conversion
  • Organocatalysis, catalysis in organic and polymer chemistry
  • Nanostructured Catalysts
  • Catalytic materials
  • Computational catalysis
  • Kinetics of catalytic reactions

It publishes a variety of article types: original research, review, communication, opinion, case report, study protocol, comment, conference report, technical note, book review, etc.

There is no restriction on paper length, provided that the text is concise and comprehensive. Authors should present their results in as much detail as possible, as reviewers are encouraged to emphasize scientific rigor and reproducibility.

Indexing: COPE.

Free Publication in 2021
Current Issue: 2021

Special Issue

Recent Advances in Electrocatalysis for Sustainable Energy and Green Chemistry

Submission Deadline: May 31, 2022 (Open) Submit Now

Guest Editors

Robert S. Weber, PhD

Pacific Northwest National Laboratory, Institute for Integrated Catalysis, Richland, DC 99352, USA

Website | E-Mail

Research Interests: Heterogeneous catalysis; Electrocatalysis

Ali Abdelhafiz, PhD

Department of Nuclear Science and Engineering, Massachusetts Institute of Technology, Massachusetts 02139, USA

Website | E-Mail

Research Interests: Fuel cells; High-throughput energy materials discovery; Closing carbon loop; Uranium extraction from seawater; Treatment of nuclear waste and contaminated solutions; Hydrogen production; Extreme processing of materials; Surface and interface engineering; Ultra-fast material’s property-performance identification

About the topic:

Research solutions aiming to replace existing hydrocarbon fuel technologies with green energy sources have so far been only partially successful. Proton Exchange Membrane Fuel Cells (PEMFC) generates electricity by reacting hydrogen with air/oxygen, without any associated carbonaceous emissions. However, PEMFC components, especially the electrocatalysts, do not last very long and are not yet very efficient, which significantly hinder the commercialization of this technology.

Elevated CO2 emissions in air makes it mandatory to discover immediate solutions to mitigate severe climate change. Capture of CO2 from air and converting it into useful fuel seems promising but the promise must be tempered by the foreseeably limited availability of noncarbogenic energy. The benefit is not only in decreasing suspended CO2 emissions, but also obviating the use of hydrocarbon fuels whose combustion is now the main contributor to the atmospheric accumulation of greenhouse gases. Renewably powered electrochemical reduction of CO2 into fuel (i.e., CO2RR) could make a versatile slate of fuels (e.g., alcohols, alkanes, or pure carbon) whose use would produce no net emissions of CO2. However, CO2RR suffers from sluggish kinetics, low efficiency of CO2 conversion in a single pass (only a few percent in some cases), and very limited selectivity towards the produced fuel (i.e., two or more products can be generated during CO2RR). Like other electrochemical reactions, the root-cause behind those problems is the poor catalyst design and immature fundamental understanding of CO2RR process.

Separation of energy-related elements from minerals or sea water will also be needed to generate or store CO2-free energy. For example, removing U from contaminated solutions already exist, but they are inefficient. For example, if uranium is to play a role in sustainable energy production, we need to develop effective strategies for (a) separating U from contaminated solutions and nuclear waste, and (b) for recycling U for nuclear power generation. Similarly, the elements that comprise modern batteries (e.g., Li) are abundant but intractably dilute in sea water. Renewably powered electrocatalysis may offer a selective route to concentrating the raw materials.

Finally, direct production of bulk chemicals through the use of renewable electricity cannot greatly reduce the emissions of CO2 but it can contribute to more sustainable future. Again, electrocatalysis will be key.

We call for manuscripts in the areas “Recent Advances in Electrocatalysis for Sustainable Energy and Green Chemistry”. Topics may include, but are not limited to:

  • Electrocatalysts for PEMFC
  • Electrocatalysts for hydrogen production from water electrolysis and for the direct production and conversion of ammonia
  • Electrocatalysts for grid-scale flow batteries
  • Carbon dioxide capture and/or conversion into useful fuels and feedstocks
  • Electrocatalytic synthesis of commodity chemicals
  • Efficient extraction processes from contaminated solutions, nuclear waste, or seawater
  • In situ and in operando studies to describe electrocatalytic reaction mechanisms
  • High-throughput experimentation to advance the synthesis and characterization in the field of electrocatalysis
  • Rational design and optimization of electrocatalysts using Machine Learning tools

In each case, we especially encourage submissions that describe:

  • Experiments that are reproducible (e.g., effective normalization of rates)
  • Phenomena that are scalable enough to satisfy a regional or world market
  • Hypotheses that are novel, insightful, and inspiring