Molecular engineering of green polymer-surfactants by microfluidic SAS

Sustainable molecular design of green polymer/surfactant systems with adaptive microfluidics

This proposal seeks to investigate the phase behaviour and non-equilibrium properties of a new class of naturally-derived polymers, and their interaction with a model surfactant in solution. We employ recent advances in microfluidics coupled with small angle neutron and x-ray scattering to enable the complex phase mapping of the parameter space, which includes polymer architecture, and concentration of both polymer and surfactant, as well as temperature. We also employ microfluidics to interrogate non-equilibrium, flow and kinetic processes, relevant to the practical application of such polymer-surfactant complexes in emulsification and removal of immiscible fluids.

The industrial partner for this project is Procter & Gamble, a world leading formulations company, and our focus is on the discovery of sustainable and high efficiency formulations, in terms of replacing conventional polymer additives, with naturally derived polysaccharides of precise architectures and functionalities, reducing the temperature required for emulsification (e.g. in cleaning processes) and improving the efficiency of the emulsification process (thereby reducing the concentration of active ingredients), this to reduce their environmental footprint. SANS and SAXS play a key role in establishing the fundamental knowledge (beyond empirical correlations) of such model formulations, increase the agility and resilience of this multi-billion £ industry and enable the next-generation of high-performance, greener, and tailored complex fluids.


Presentation at InnovaXN Student Symposium (06/12/2021): Molecular engineering of green polymer-surfactants by microfluidic SAS, Sofia Eriksson.


                   Brussels Innovation Centre                   



Sofia Erikson is working on the molecular engineering of green polymer-surfactants by microfluidic SAS project. This project involves collaboration between the ILL, ESRF, Procter & Gamble and the Imperial College London.