Your project will entail modelling cytokine dynamics through simulation, with possible elements of cytokine data analysis.
Immune system is arguably the most complex and least understood system in human body. The average human is composed of 10^13 cells. Homeostatic regulation of the human organism requires that effective intercellular communication be maintained between these vast numbers of cells throughout lifetime. Three forms of cell-to-cell communication (reception, transduction, and response) have evolved to maintain homeostasis, and defects in these systems are the basis of much, if not most, diseases. Neuronal communication was first discovered in the eighteenth century. The system of endocrine hormones was discovered at the beginning of the twentieth century. During the last thirty years, a third system of cell communication has been discovered, which may be the most complex to have evolved. This communication system utilises a very large range of proteins which have been named cytokines. These proteins, of which there are probably several hundred, are produced by all mammalian cells and function by binding to very high affnity receptors on target cells. Homeostatic control of basal cytokine activity in the human immune system is not well understood. So, for example, it is not known if discrete, different cell types or lineages exist to produce pro-inflammatory cytokines and anti-inflammatory cytokines independent of one another or whether release of one of these types of cytokines activates release of the other type of cytokine.
Your work will aim at elucidating the dynamic properties of the cytokine communication network in both healthy people and patients with fibromyalgia (FM) – a debilitating, medically unexplained chronic illness. You will use data driven models and a formal model to describe the dynamics.
You will join the Team dedicated to the discovery of mechanisms, methods and paradigms for the development of computational methods pertaining to making biophysical complexity tractable.
By doing your Master of Science/in Engineering project you will contribute to turning scientific vision into tangible solutions for clinicians and patients.
You will either engage in fundamental theoretical research with a clear applied facet — or you may prefer to draw from theory in developing methods.
Output of your high-quality research will be disseminated at A grade conferences and published in peer-reviewed journals.
If you: i) enjoy learning; ii) enjoy science; iii) want to do something meaningful in life, then you are the kind of person we would like to talk to.