SPEAKER
Prof. Dr. med. Andreas Deußen
VICE SPEAKER
Prof. Dr. rer. nat. habil. Henning Morawietz
PROGRAM COORDINATOR
Dr. Iryna Parshyna
History / Future
The international PhD program consists
of up to a 3-year formal curriculum combined with an
experimental project. The program provides interdisciplinary
training and research opportunities for university graduates
who wish to work toward a PhD. Projects are based in
clinical medicine and natural sciences and include
molecular biology, bioinformatics, physics, physiology, and
biochemistry. Seminars and courses are conducted in English;
additionally, specific lectures are offered to our
international students in German.
This program was initiated in 2006 with more than 20 PhD
students enrolled to date. Several students have successfully
defended their theses, receiving highest honours. Scientific
input is provided by the Departments of Physiology, Pathology,
Vascular Endothelium and Microcirculation, Clinical Sensoring
and Monitoring. The program is open for integration of members
of other interested groups.
Students must be nominated for participation in the program by
their project leaders.
Regular information seminars are held every Thursday at 5
P.M. in seminar room B.20.032 of Building 91 (Medical
Theoretical Center) and are open to all interested
students (please ask for a current detailed schedule).
Scientific Background
Although the endothelium has long been regarded as simply an
anatomical lining of the vascular inner wall, this cell
compartment has received prominent attention over the last 2
decades due to its roles as a secretory organ and an important
site of signal transduction. Although the individual
endothelial cell has a diameter of only approximately 20 µm and
a thickness between 0.1 und 1 µm, the entire vascular
endothelium of the human body comprises a mass of 1-1.5
kg. Thus, the importance of the endothelium as a whole
may be compared with that of other internal organs (e.g.
liver). A specific feature of the endothelium is its
distribution along the entire vascular system. As a
consequence, the endothelium is in an optimal strategic
position to serve as an important regulator of vascular
homeostasis. Endothelial cells interact directly with the
cellular components of the circulating blood as well as with
other cells of the vascular wall - most importantly with smooth
muscle cells. At the interface between blood and vascular wall,
changes in blood composition (e.g. concentrations of glucose,
fatty acids, oxidized LDL, activators of haemostasis and
anticoagulation) interact. Their changes evoke complex
responses of endothelial cells, which may play a central role
in the development of several cardiovascular diseases.
Illustrations
A. Endothelial cells
B. Blood cells