Anan Yaghmur is new Professor at IF
As of 1 April, Anan Yaghmur is Professor of Pharmaceutical Physical Chemistry, Self-Assembly Systems, here at the Department of Pharmacy, where he is a member of the Pharmaceutical Physical and Analytical Chemistry Group. It is a research group focuses on developing novel approaches for physical chemical characterization of drugs and delivery systems.

Professor Anan Yaghmur describes the focus for his research
“My research focuses on exploring the potential use and thorough characterization of lyotropic non-lamellar liquid crystalline phases and their corresponding nanoparticles (mainly cubosomes and hexosomes) for drug delivery and bio-imaging applications. The motivations in this highly specialized research area are primarily driven by the unique structural features of these self-assemblies and their biological relevance.
Through an interdisciplinary approach, the team aims at designing, characterization, and microfluidic synthesis of safe injectable nano-self-assemblies, in particular cubosomes and hexosomes, as attractive drug delivery platforms. I have also interest in designing biofilm-targeting implant nanocoatings and parenteral liquid crystalline depots, forming in vivo with tunable nanostructural features and sustained release properties that offer attractive approaches for treatment of infections and management of post-surgery pain through a local drug delivery, respectively.
These studies include the use of a plethora of advanced state-of-art biophysical tools (including cryo-TEM, NTA, synchrotron SAXS, AFM, SEM, and GISAXS) and in vitro/in vivo evaluations. I also focus on assessing the fate of administered cubosomes/hexosomes by simulating the in vivo conditions and learning further on the involved alterations in their physiochemical properties on direct exposure to the biological milieu.”
Which current projects or collaborations are you part of?
“My team focuses on designing 2D/3D X-ray compatible microfluidic platforms not only for continuous production of monodispersed cubosomes/hexosomes, but also for monitoring in real time the self-assembly behavior of amphiphiles under confined geometric conditions (online SAXS- or SAXS/WAXS-on-chip characterization studies, NNF financed project). Designing nano-coatings for combatting the development of biofilm infections on new 3D porous orthopedic implants (Marie-Curie project).
I have also projects financed by overseas funding programs on the development of safe nanomedicines and exploitation of their potential in parenteral drug delivery, and design of liquid crystalline nano-self-assemblies with antibacterial and anti-biofilm activities. These projects integrate different complimentary research teams.”
hepatic stellate cells
Professor Anan Yaghmur describes one of his current research projects: “Through precision nano-engineering and an interdisciplinary integrated approach, the recently funded DFF project , “OMEGA: Versatile OMEGA-3 fatty acid nanocarriers targeting hepatic stellate cells”, aims at providing a new reliable option for treating non-alcoholic fatty liver disease (NAFLD), which is a major unmet medical need in obesity and type 2 diabetic mellitus (T2DM) and its prevalence is high in Europe, particularly in Denmark.
The project introduces a simple-by-design multifunctional nanotherapeutic platform for targeting hepatic stellate cells. We focus on the development, surface nanoengineering and optimization of safe cubosomes/hexosomes with favorable anti-inflammatory activity following intravenous administration. This project includes postdoc and PhD student and integrates different complimentary research teams.”
Topics
About
Professor Anan Yaghmur
Profile
https://researchprofiles.ku.dk/en/persons/anan-yaghmur
Publications
https://researchprofiles.ku.dk/en/publications/
Key publication
Intrinsic and Dynamic Heterogeneity of Nonlamellar Lyotropic Liquid Crystalline Nanodispersions
https://doi.org/10.1021/acsnano.3c09231
This Perspective outlines the innate and acquired heterogeneity of cubosomes and hexosomes and highlights technological developments and alternative approaches needed to improve their homogeneity.