Biomimetic Soft Matter and DNA Nanotechnology
Group website: www.dimichelelab.org
Lorenzo Di Michele's group studies the fascinating physics, chemistry, and (occasionally) biology of complex nanoscale systems.
We investigate problems of fundamental relevance as well as develop new technologies and, to do so, we often make use of the tools of DNA nanotechnology.
We like to adopt a multidisciplinary approach, that combines experimental methods, theoretical modelling, and computer simulations.
Current areas of research include
- Self assembly and crystallisation of amphiphilic DNA nanostructures, with applications to encapsulation/release/delivery technologies.
- Multivalent membrane-membrane and membrane particles interactions, including synthetic lipid membranes and cells.
- Artificial cells and bottom-up synthetic biology.
- Applications of DNA nanotech to super-resolution optical microscopy (DNA-PAINT).
Lorenzo's brief CV
Lorenzo completed his undergraduate and master degree at the University of L'Aquila (Abruzzo, Italy), before moving to the Cavendish Laboratory, University of Cambridge where he complete his PhD in physics (2013). He then held, in the same institution, a Oppenheimer Early Career Research Fellowship (2013-2016), a Leverhulme Early Career Research Fellowship (2016-2017) and a Royal Society University Research Fellowship (2018 - ). In August 2019 Lorenzo joined the Department of Chemistry at Imperial as a RS URF and Lecturer.
Full CV here
et al., 2023, DNA-Origami Line-Actants Control Domain Organization and Fission in Synthetic Membranes., J Am Chem Soc, Vol:145, Pages:11265-11275
et al., 2023, Influence of hydrophobic moieties on the crystallization of amphiphilic DNA nanostructures, Journal of Chemical Physics, Vol:158, ISSN:0021-9606
et al., 2023, A synthetic signalling network imitating the action of immune cells in response to bacterial metabolism
et al., 2023, The C9Orf72 hexanucleotide repeat expansion aggregates by means of multimolecular G-quadruplex formation
et al., 2023, Interplay of the mechanical and structural properties of DNA nanostructures determines their electrostatic interactions with lipid membranes, Nanoscale, Vol:15, ISSN:2040-3364, Pages:2849-2859