福利姬

The theoretical simulation and modelling of the basic properties of organic materials and devices represents the main focus of the research activity of our group.

By integrating device engineering with biophysical insights, this project drives the development of smarter drug delivery systems with refined dose adjustments to push the boundaries of precision in preclinical medical sciences.

We use ecological networks and other modelling approaches to address a variety of community ecology questions.

FunMat-II is a second generation competence center in material science, focusing its efforts to the areas of functional surfaces for cutting tools, fuel cells and batteries.

Cells in the immune system of patients with multiple sclerosis behave differently from those of healthy individuals. LiU researchers have exploited this difference to develop a method that can predict disease activity in multiple sclerosis.

Graduate school Forum Scientium, a bridge between medicine, natural sciences and engineering, stimulates creativity and a common use of ideas, knowledge, and equipment.

Many currently used drugs are ineffective for treating complex diseases. However, modern biology today generates enormous amounts of inexpensive, accurate, high-throughput data (鈥榦mics), at several molecular levels.

Natural resources are the building blocks of any eco system. Understanding where these resources are, how they flow on our landscapes, and why we see these use patterns are key questions to inform more sustainable management.

Theoretical physics deals with understanding of nature. In our research we use fundamental principles and basic concepts to develop mathematical models that are then studied by means of analytical and numerical methods.

Pushing science forward through mathematical modelling and computer simulations.