Pharmaceutical Analytical Chemistry
The Pharmaceutical Analytical Chemistry group combines expertise in instrumental analytical chemistry and physical chemical characterization to advance drug analysis, design and development. Our mission is to develop innovative analytical concepts and technologies/methods that enable a deeper understanding of fate of drug substances and delivery systems, transport processes, and molecular interactions. We integrate physical chemistry principles with state-of-the-art analytical instrumentation and microfluidic technologies to create sustainable, high-information-content solutions for pharmaceutical research.

Our research group provides analytical chemical tools for tackling many challenges in pharmaceutical and medical research, especially in situations where sample amount is scarce, where the molecules of interest are only present in small concentrations, or where a large number of samples needs to be processed in a short time frame. To enable this cutting-edge analysis, we develop and apply technologies such as micro-nano engineering, microfluidics, and polymer science for next generation high-throughput workflows, e.g., in bioanalysis, biophysical characterization of peptides, proteins and new drug modalities, drug transport studies, and drug delivery.
We have a stronghold in qualitative and (validated) quantitative analytical chemistry. We are developing new ways to perform chemical analysis and physical chemical profiling of drug substances, while pushing traditional approaches to their limits.
Main focal areas of the group are modern separation techniques (e.g. LC, CE, TDA/FIDA) coupled to mass spectrometry, advanced sample preparation methods (e.g., µSPE, µEME), and a range of microfluidics-driven techniques (e.g., droplets, micro-nano particle fabrication, microphysiological in vitro models). We develop and apply CE and TDA-based approaches for physical chemical profiling and biophysical characterization of biologics as well as nanoparticles; furthermore, we develop concepts for in vitro release testing with an outset in chromatography and separation sciences.
Research in the Pharmaceutical Analytical Chemistry group is highly multidisciplinary and builds heavily on strong collaborative efforts. Our research group is dedicated to creating a supportive atmosphere for students and emerging researchers, fostering their development into highly desirable professionals in the community.
- Advanced Separation & Detection
- Liquid Chromatography (LC), Capillary Electrophoresis (CE), Taylor Dispersion Analysis (TDA), Flow-Induced Dispersion Analysis (FIDA)
- Mass Spectrometry (MS), ICP-MS, fluorescence-based detection
- Microfluidics & Miniaturization
- Droplet-based systems, micro/nano particle fabrication
- Microextraction and microsampling (µSPE, µEME)
- Functional add-ons for organ-on-a-chip and microphysiological models
- Tailor-made solutions for analysis, diagnostics and related areas
- Physical Chemical & Biophysical Characterization
- Phase equilibria, partitioning, chemical kinetics, diffusion studies
- Unfolding and denaturation, self-association, and LLPS
- In vitro release testing models (for long-acting injectables), UV-Vis imaging
Azmi, I. D., Østergaard, J., Sturup, S., Gammelgaard, B., Urtti, A., Moghimi, S. M., Yaghmur, A. Cisplatin encapsulation generates morphologically different multi-compartments in the internal nanostructures of non-lamellar liquid crystalline self-assemblies. Langmuir. 34, 6570-6581. 2018.
Cubosomes and hexosomes hold promise as anti-cancer nanomedicines.
Wu, C., van de Weert, M., Baldursdottir, S.G., Yang, M., and Mu, H. (2018) Effect of excipients on encapsulation and release of insulin from spray-dried solid lipid microparticles, Int J Pharm., 550:439-446.
Protein-phospholipid complexes constitute a promising method for encapsulating protein into solid lipid micro-particles, which have implications for sustained delivery.
Sun, Y., Jensen, H., Petersen, N. J., Larsen, S.W., & Østergaard, J. Concomitant monitoring of implant formation and drug release of in situ forming poly (lactide-co-glycolide acid) implants in a hydrogel matrix mimicking the subcutis using UV-Vis imaging. J. Pharm. Biomed. Anal. 150, 95-106, 2018.
Novel in vitro release testing methods provide detailed characterization of parenteral sustained release formulations.
CRYDIS project
Driving innovation in pharmaceuticals: integrated studies of physical dissolution properties of crystalline and amorphous forms using enhanced orthogonal monitoring techniques.
Read more about the CRYDIS project
Nanolymph and Brain-PENNANO projects
BRAIN-PENetrating cubosomal and hexosomal NANOcarriers for glioma-targeting delivery
Read more about the Nanolymph and Brain-PENNANO projects
Group members
Internal researchers
| Name | Title | Phone | |
|---|---|---|---|
| Search in Name | Search in Title | Search in Phone | |
| Anna Thu Hoai Nguyen | PhD Fellow | +4535325967 | |
| Ayla Adel Sleiman Amin | Laboratory Technician | +4535334832 | |
| Claus Cornett | Associate Professor | +4535336266 | |
| Hannah Grønbech Kolberg | Research Assistant | ||
| Jeehand Hasil | Master Thesis Student | ||
| Jesper Østergaard | Professor | +4535336138 | |
| Jimmi Dolleris Gabrielsen | Laboratory Technician Trainee | +4535322852 | |
| Jörg P. Kutter | Professor | +4535320399 | |
| Leïla Dos Santos | Guest Researcher | +4535331122 | |
| Nickolaj J. Petersen | Associate Professor | +4535336184 | |
| Revati Abhijit Kulkarni | Master Thesis Student | ||
| Rita Wulff Rasmussen | Laboratory Technician | +4535335349 | |
| Stig Pedersen-Bjergaard | Professor | +4535336226 | |
| Susan Weng Larsen | Associate Professor | +4535336198 | |
| Valeria Vladimirovna Gancho | Master Thesis Student | ||
| Vandana Kaushal | Guest Researcher | +4535333195 | |
| Ziyang Mao | PhD Student |
