The focus of the group is biobased materials for different applications.

Molecular computer simulations. All material things around us (and we ourselves) consist of molecules. Molecules consist of atoms, atoms consist of electrons and atomic nuclei. Behavior of all these small parts of materia is determined by the fundamental laws of quantum mechanics.

Our research group is interested in the synthesis, structure determination and applications of crystalline materials.

We use modelling and machine learning to understand ionization processes in electrospray (ESI) and developing semi-quantitative non-targeted analysis methodology.

Quantitative structure characterization is important to materials research, in particular in nanoscience and nanotechnology

Over long timescales, the circulation systems co-evolve with ice sheets, mountain ranges, and redistributions of carbon between the atmosphere, ocean and land. The circulation and associated feedbacks influence exchanges of energy and materials between compartments of the climate system, and create teleconnections and natural climate variability.

A continued change in the atmospheric content of greenhouse gases and particles is estimated to result in future warming well above 1.5°C, compared with pre-industrial levels. It is uncertain how much heating is masked by the cooling effect of the particles, especially the effect of the particles on the distribution and properties of the clouds.

We have synthesized and characterized new metal hydrides aiming at improving solid-state hydrogen storage over several years.

Zeglio´s group focuses on organic bioelectronics. Her Team is driven by the need for materials with the properties needed for device function and that better integrate into life and the environment.

Solid state inorganic chemistry involved in synthesising compounds and studying their crystal structures as well as their fundamental properties. Very often the compounds of interest have various energy related applications.

Our research group focuses on crystal engineering and structure-property relationships in a range of coordination polymers, often metal-cyanide frameworks.

Knowing the 3D atomic structures of materials and biomolecules is crucial for understanding their functions. X-ray diffraction is currently the most important technique for determination of 3D atomic structures, but requires large crystals which are often difficult to obtain

My current research focus is on developing methods for chemical characterization of the organic composition of particulate matter which encompasses coupled chromatographic techniques for target analysis of polycyclic aromatic compounds (PACs), and nontarget analytical workflows using high-resolution mass spectrometry.

Our mission is to design, create and investigate broadly defined functional polymers and carbons, particularly in a well-structured (e.g., colloidal or porous) form, via simple chemistry and processing.

The groups research activities span the academic disciplines of materials science and applied surface and colloid science with a focus on sustainable materials.

Research in the Ilag lab is interdisciplinary and span the areas of biophysics, chemical biology, analytical chemistry and environmental science.

We focus on developing inorganic electrocatalysts for water splitting, especially for the oxygen evolution reaction as the hydrogen reduction reaction is easier to catalyze.

Solid-state NMR spectroscopy, molecular dynamics (MD) simulations, and density functional theory (DFT) calculations. Our recent work is focussed on establishing structure-composition-property relationships of disordered materials:

Research interests involve 2D materials, polyelectrolyte, conductive polymer and their applications in the fields of electrochemistry energy storage and smart devices.

The group develops lignin-based functional materials for sustainable energy and environmental applications.

Our research revolves around the study of microfluidic lab-on-a-chip devices, which allow precise handling of liquids at microscopic scales.

The main focus is currently on adsorbents for separation or reduction of carbon dioxide, and on carbon materials derived by hydrothermal carbonization. A multipronged approach is applied that includes among other tools molecular spectroscopy.

The global warming is not uniformly distributed over the Earth. The polar regions are especially sensitive for climate change and the warming in the Arctic is more than twice as fast as for the Earth on average. The effects of this warming are large, with a dramatic loss of sea ice as an example.

Our research circles around electron microscopy, electron diffraction and its applications to the structural characterization of materials.

The group’s research area is inorganic solid state/materials chemistry with a strong focus on metallic and semimetallic materials, including hydrides, borides and carbides.

Our research is focused on the development of analytical methods and techniques enabling studies and measurements of compounds involved in skin sensitization (contact allergy).

The focus of the Zou group is image and diffraction-based methods and software for accurate atomic structure determination of unknown crystals.

We are an enthusiastic group in developing novel materials and advanced electron microscopy techniques.