Max Planck Institute for Molecular Biomedicine

Max Planck Institute for Molecular Biomedicine

The Max Planck Institute for Molecular Biomedicine investigates the formation of cells, tissues and organs. Scientists make use of molecular-biological and cell-biological methods in a bid to discover how cells exchange information, which molecules control their behaviour and what faults in the dialogue between cells cause diseases to develop. The work of the Institute is dedicated to three closely intertwined areas. One field in which the Institute is active is stem cell research. Scientists study how stem cells can be generated and how they might be used to treat diseases. Another research area is that of inflammation processes, where one of the objectives is to fully understand the effects of blood poisoning. The third field of research is blood vessel growth, with the aim of identifying new targets for the development of therapies: blood vessels play an important role in many illnesses.


Röntgenstr. 20
48149 Münster
Phone: +49 251 70365-100
Fax: +49 251 70365-198

PhD opportunities

This institute has an International Max Planck Research School (IMPRS):
IMPRS for Molecular Biomedicine

In addition, there is the possibility of individual doctoral research. Please contact the directors or research group leaders at the Institute.

Tracking the mechanisms of artery formation
The notch signal pathway could be the basis for new therapies for cardiovascular diseases more
Stem cells leave blood vessels in areas of the bone marrow with low blood flow
Hematopoietic stem cells adhere to net-like blood vessels and transmigrate more
Restoring damaged organs back to health

First Max Planck Center for Regenerative Biomedicine opens in China

New stem cells for medicine
The CARE research institute in Munich is set to pursue new approaches in regenerative medicine and drug development more
Research highlights from the Yearbook
Our Yearbook 2016 showcases the research carried out at the Max Planck Institutes. We selected a few reports to illustrate the variety and diversity of topics and projects. more
Protein folding – why speed matters

Yearbook article 2016, Max Planck Institute for Molecular Biomedicine

Author: Sebastian A. M. Leidel

Research highlights 2014

Research highlights 2014

June 04, 2014
Three research articles from the Yearbook 2014 more
Flatworms, the masters of regeneration – but nothing can happen without stem cells
Planarians are known as masters of regeneration: they can re-build any part of their bodies after amputation. This ability relies on a large number of pluripotent stem cells. more
Ten ERC Advanced Grants for Max Planck scientists
Fifty applications for funding successful in Seventh EU Framework Programme more
Two distinct types of reprogramming
Stem cells generated with Oct4 cannot form a complete organism more

CARE will come

July 04, 2012
Stem cell researchers welcome the provision in new NRW coalition agreement for the development of the Center for Advanced Regenerative Engineering (CARE) more
Culprit behind unchecked angiogenesis identified
Max Planck researchers discover how drug resistance in tumours may be prevented
Somatic stem cells obtained from skin cells for first time ever
Skipping pluripotency 'detour,' Max Planck researcher Prof. Schöler again takes lead in stem cell research more
Deceptive model

Deceptive model

March 05, 2010
Stem cells of humans and mice differ more strongly than scientists had suspected. New study calls research factors into question more
Special transcription factors can restore specialised cells to their original state. These stem cells can then tranfom into any type of cell of the body
A single factor from adult brain stem cells can be used to generate true cellular jacks-of-all-trades for regenerative medicine.
Postdoctoral Position - Electrophysiologist
Max Planck Institute for Molecular Biomedicine, Münster April 04, 2018
Postdoctoral Position - Developmental Biologist
Max Planck Institute for Molecular Biomedicine, Münster April 04, 2018
Research Assistant / Technician
Max Planck Institute for Molecular Biomedicine, Münster March 27, 2018
PhD position and Postdoctoral position
Max Planck Institute for Molecular Biomedicine, Münster March 23, 2018
Masters Thesis
Max Planck Institute for Molecular Biomedicine, Münster March 23, 2018

Human heart tissue from pluripotent stem cells and its applications

2017 Greber, Boris
Cell Biology Developmental Biology
Pluripotent stem cells represent an amazing tool box for generating virtually any cell tissue of the human body such as, for instance, spontaneously beating cardiac muscle tissue. How this actually works and how the process can be controlled better was recently revealed. Two regulatory switches inside the cells need to be manipulated at the right time. This surprisingly simple procedure may be used for studying the mechanisms underlying genetic cardiac disorders and for evaluating putative drugs. more

Protein folding – why speed matters

2016 Leidel, Sebastian A.
Cell Biology Developmental Biology Genetics
Proteins are the workhorses of our cells. To fulfill their roles they need to adopt a functional conformation. Scientists have now experimentally determined how fast proteins are made and have shown that the correct speed is critical for functional folding. Perturbing translation leads to protein aggregates. This can cause severe developmental defects in mice. Their brain cells receive the wrong differentiation signal due to protein stress. These results answer a fundamental question of molecular biology and have far reaching consequences for neurodegenerative diseases and biotechnology. more

Blood vessels in the skeletal system control bone formation

2015 Kusumbe, Anjali P.; Ramasamy, Saravana K.; Adams, Ralf H.
Cell Biology Developmental Biology

Blood vessels provide the whole organism with essential oxygen and nutrients, but are also an important source of regulatory cues in many organs. In the skeletal system, specialized capillaries release signals that control bone-forming progenitor cells and thereby bone growth. The aging organism lacks such specialized blood vessels and shows a detrimental decline in bone renewal. New results indicate that the stimulation of blood vessel growth in such conditions might be therapeutically beneficial.


How differences in blood flow influence blood vessel network formation

2014 Siekmann, Arndt
Cell Biology Developmental Biology Genetics
Our heart pumps blood through an interconnected network of tubules to all parts of our body. This is important for the optimal availability of oxygen to every organ. How does the vasculature ensure the optimal connectivity between blood vessels? Scientists from the Max Planck Institute for Molecular Biomedicine show that differences in blood flow can control the proper sprouting and pruning of blood vessels. These discoveries could provide answers to the question why in certain disease settings, blood is not delivered efficiently. more

Master of regeneration – not without stem cells

2014 Bartscherer, Kerstin
Cell Biology Developmental Biology
Planarians are known as masters of regeneration: they can re-build any part of their body after amputation. This ability relies on a large amount of pluripotent stem cells. To further investigate the mechanisms of how planarians maintain their stem cell pool over generations, scientists have now established a method for analyzing the composition of planarian stem cells and the turnover of their proteins. They discovered a protein that is not only required for the maintenance of the stem cell pool in planarians, but which might also be active in the pluripotent stem cells of mammals. more

Molecular mechanisms of inflammation

2013 Zarbock, Alexander
Cell Biology Immunobiology Infection Biology Medicine
Leukocyte recruitment into tissue forms the basis of immune surveillance and proceeds in a cascade-like fashion. The first contact of leukocytes with the endothelium is mediated by selectins and their counter receptors, followed by rolling and integrin-mediated arrest. Rolling leukocytes collect different inflammatory signals that can activate signaling pathways leading to leukocyte adhesion and transmigration. Several pathways exist that ensure rapid and efficient integrin activation on leukocytes. On the other hand, mechanisms that counteract and balance integrin activation also exist. more

How leukocytes overcome the blood vessel wall

2012 Schulte, Dörte; Broermann, Andre; Nottebaum, Astrid; Kiefer, Friedemann, Butz, Stefan; Vestweber, Dietmar
Cell Biology Medicine
Researchers at the MPI for Molecular Biomedicine could define one of two possible routes as the major pathway for leukocytes that leave the blood system and enter into inflamed tissue. In addition, they could identify a switch that allows to open the passage through the blood vessel wall. These results could lead to the development of novel therapeutics to treat inflammation. more

Regulation of developmental lymphangiogenesis by leucocytes

2011 Böhmer, Ruben; Neuhaus, Brit; Bühren, Sebastian; Zhang, Dayong; Kiefer, Friedemann
Immunobiology Medicine
Blood and lymph vessels are the conduits of our body. Arteries provide nutrients and oxygen for the tissues, while veins remove metabolic waste and carbon dioxide. Strictly separate from the blood circuitry runs the lymphatic system, which returns interstitial fluid and immune cells into the venous circulation and therefore is essential for immunity. Separation of the vascular systems is an active process in which blood cells play a major role: They can influence the growth of lymphatic vessels. This is of significance for the development of future therapies for vascular diseases. more

Identification of a molecular ‘switch’ controlling blood vessel growth

2010 Benedito, Rui; Roca, Cristina; Sörensen, Inga; Adams, Susanne; Gossler, Achim; Fruttiger, Marcus; Bixel, M. Gabriele; Adams, Ralf H.
Cell Biology Developmental Biology Medicine
Researchers of the MPI for Molecular Biomedicine have discovered a novel molecular switch that can promote or block the growth of new blood vessels. This control mechanism involves the balance between two cell surface proteins with opposing functional roles, which decide whether new vascular sprouts and branch points will be formed. These results could open up new avenues for the treatment of vascular disease and cancer. more

Gentle reset: Reprogramming of somatic cells is easier than expected

2009 Kim, Jeong Beom; Zaehres, Holm; Schöler, Hans R.
Cell Biology Developmental Biology Medicine
Researchers of the MPI for Molecular Biomedicine in Münster have made an important advancement towards obtaining patient-specific stem cells. They have succeeded in resetting adult somatic cells to an embryonic original state with less intrusions than previously necessary: instead of a „cocktail“ of four genes, the scientists needed merely two. This could make future stem cell therapies simpler and safer. more

From egg to embryo: the first switch is set by chance

2008 Dietrich, Jens-Erik; Hiiragi, Takashi
Developmental Biology Medicine
Nature hasn’t made things easy for mammals. Admittedly, as any other vertebrate – they develop from a fertilised egg, but unlike fish or frogs, the embryo cannot prosper by itself. Only if it succeeds, after having divided a couple of times, in implanting with its outer cells in the womb, its inner cells will create a foetus. It has long been unclear as to when and how the cells of an embryo pursue various lineages. Scientists of the MPI for Molecular Biomedicine in Münster have now advanced a great deal towards unravelling this mystery. more

Development and function of the blood vessel wall

2007 Vestweber, Dietmar
Cell Biology Immunobiology
Endothelial cells form the inner cell layer of blood vessels. They determine when and where within the organism leukocytes enter from the blood into tissue. This step initiates the process of inflammation and keeps it alive. Understanding the molecular basis of cell cell recognition and capturing of leukocytes to the endothelium, as well as the mechanism of leukocyte-transmigration through the blood vessel wall (diapedesis) are the major research goals for the Department of Vascular Cell Biology at the MPI for Molecular Biomedicine in Münster. more

Reprogramming of Somatic Cells to Pluripotency

2006 Cantz, Tobias; Do, Jeong Tae; Schöler, Hans
Cell Biology Developmental Biology Medicine
Somatic Cells can be reprogrammed to pluripotency by fusion with embryonic stem cells. Factors involved in this process appear to be associated with the nucleus of pluripotent cells and give rise to reprogrammed, pluripotent cells from neuronal precursor as well as terminally differentiated cumulus cells. Their differentiation potential is unrestricted but these cells have a doubled chromosome set, which is addressed in current research projects of the MPI for Molecular Biomedicine in Münster. more

Endothelial Cells: Barrier between Blood and Tissue

2005 Vestweber, Dietmar
Cell Biology Infection Biology
In order to fight infections, leukocytes need to access microbes in tissues by extravasating from the flowing blood. This process that initiates inflammation and keeps it alive is controled by endothelial cells that form the interphase between blood and tissue. Whereas the mechanism of capturing leukocytes to the blood vessel wall at sites of inflammation is rather well understood, very little is known about how leukocytes actually overcome the blood vessel wall (diapedesis). It is considered as likely, although still controversially discussed by some, that leukocytes move into tissue by penetrating through the junctions of endothelial cells. One of the major goals of research of the department Vascular Cell Biology at the MPI for Molecular Biomedicine is to identify and understand the molecular mechanisms that allow paracellular diapedesis. more

Gene Expression and Function in the Mammalian Germline

2004 Schöler, Hans R.
Cell Biology Developmental Biology
In order to reproduce and to ensure species perpetuation, mammals must produce germ cells, i.e., oocyte and sperm cells. In culture, embryonic stem cells differentiate into oogonia, enter meiosis and produce support cells that have follicle-like structures. They further develop into structures very similar to those found in early stages in mouse embryonic development. The use of oocytes derived in culture is important for biological research and various medical applications. This in vitro system can facilitate biological studies, for example, functional studies for induction of PGCs, interaction between somatic cells and germ cells or studies in genetic reprogramming after nuclear transfer into oocytes. We also see a very large potential in medical applications. We believe that through the derivation of oocytes in culture, fundamental understanding of fertility and problems in infertility can be best researched, and through this in vitro system positive and harmful affects can be ascertained. A major initiative will be to use these artificially derived oocytes for nuclear transfer, to study gene function and genetic reprogramming in a defined system and for production of one’s own embryonic stem cells. more
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