Aims and Scope

Circular Materials and Chemistry (CMC) focuses on Circular Chemistry, Circularity and Life Cycles of Materials. It aims to investigate how chemistry and materials production can be developed according to ecological, environmental and societal principles.

In just a few years, Circular Chemistry has become a prominent way of looking at chemistry and materials. It addresses key issues for the design of post-industrial economies and societies, as it involves the invention of less polluting and less energy demanding production processes and materials that are less harmful to the environment and ecosystems, and the incorporation of these materials into circular life cycles.

In this respect, CMC embraces the 12 principles of Circular Chemistry as defined by Keijer, Bakker and Slootweg.1

CMC is based on three fundamental thematic pillars: 1. Materials and Processes, 2. Economy and 3. Society. Indeed, Circular Chemistry is closely linked to economy and industrial transformation, and more generally to the social impact of new materials on people’s lives, behaviours, perceptions and conceptions.

CMC aims to encourage interdisciplinary and multidisciplinary reflection and study between these three pillars.

Therefore, CMC welcomes papers on scientific advances in the field of materials, and the technologies and processes to create them, as well as on economic and social issues related to these materials.

CMC publishes papers that are either specialised in one of the three pillars, or papers that are inter- or multi-disciplinary between two or three of these topics.

Papers submitted to CMC will primarily (but not exclusively) cover the topics listed in the table below. Other topics may also be considered where relevant.

 

1. Materials and Processes

2. Economy

3. Society

  • Sustainable materials

  • Recycling

  • Waste management

  • Smart sorting

  • Catalysis

  • Soft chemistry

  • Biomimicry

  • Renewable feedstocks

  • Low emission scenarios processes

  • Process intensification

  • Life cycle assessment and tools to be developed for this purpose  

  • Use of these tools  

  • Production costs and processes  

  • Safe by design  

  • Risk analysis  

  • Energy efficiency and processes optimisation  

  • Material flow analysis  

  • Circularity indicators 

  • Social acceptance of materials and technological applications  

  • People’s behaviour towards these materials  

  • Rethinking marketing/Virtuous marketing  

  • One Health  

  • Ethical aspects  

  • Resource depletion   

  • Environmental protection and remediation  

Notes

1   T. Keijer, V. Bakker, J. C. Slootweg, “Circular Chemistry to Enable a Circular Economy,” Nature Chemistry, 11/3 (2019), 190-195. URL: https://doi.org/10.1038/s41557-019-0226-9. Return to text