An adhesion molecule on multiple myeloma cells correlates with patient outcome and proves as a promising new target for cancer therapy. Today, the respected journal Leukemia published our new research article on JAM-A by lead authors Antonio Solimando and Andreas Brandl.
Our new study revealed that JAM-A expression correlates significantly with disease outcome in multiple myeloma patients. Targeting of JAM-A impacts cardinal features of cancer, such as multiple myeloma cell survival, progression and metastasis.
Read more about this new research publication.
Solimando AG*, Brandl A*, Mattenheimer K, Graf C, Ritz M, Ruckdeschel A, Stühmer T, Mokhtari Z, Rudelius M, Dotterweich J, Bittrich M, Desanti V, Ebert R, Trerotoli P, Frassanito MA, Rosenwald A, Vacca A, Einsele H, Jakob F, Beilhack A. (2017). JAM-A as a prognostic factor and new therapeutic target in multiple myeloma. Leukemia (advance online publication 24 October 2017) doi: 10.1038/leu.2017.287
*These authors contributed equally to this work.
12th International Symposium of the Graduate School of Life Sciences
From October 11th and 12th 2017 the annual international research conference organized by PhD students for PhD students of the Würzburg Graduate School of Life Sciences took place in the Rudolf-Virchow-Center. And again, the success of the meeting was founded in a perfect blend of lectures by international leaders in their respective research fields and presentations of our local PhD students covering the broad spectrum of life sciences. This year, members of the Beilhack lab contributed seven poster presentations. Notably, among more than 100 presentations, MD student Maria Ranecky and PhD student Haroon Shaikh made it into final selection for the poster award. The highlight and finale of this year’s symposium was the very entertaining but thought provoking lecture of the science-cartoonist Jorge Cham.
The graduate college 3D Infect met for two days in Rothenburg ob der Tauber.
All the participating research teams of the DFG research training group 3D Infect joined for the second annual retreat. Graduate students and principal investigators of the graduate college actively participated to present and discuss the recent progress of the individual projects within the research training group. This vivid exchange and further input from visiting faculty, this year especially on pulmonary host-pathogen interactions, provided a fruitful basis to foster collaborations between the members of the RTG 3D Infect. One such collaborative project authored by the PhD student Sarah Schuster and members of the Engstler and Beilhack labs resulted already in a first joint-publication, which recently appeared in the distinguished journal eLife.
This year’s Workshop for Experimental Blood and Marrow Transplantation took place in Schweinfurt, a town on the river Main near Würzburg.
From September 19th to 20th, 2017 cellular immunotherapy, graft-versus-host disease and inflammation, tumor immunology and immune responses against infections were in the focus of 20 research lectures and seven poster presentations by young scientists from four different universities. This year’s meeting was hosted by the Beilhack lab. Three other active research groups joined from the Charité Berlin, and the Universities of Frankfurt and Freiburg. The Interdisciplinary Center for Clinical Research (IZKF) Würzburg generously supported this interdisciplinary young investigator meeting. Originally, this workshop had been inspired by the annual Stanford immunology retreats in Asilomar, California, which were always highlights for Robert Zeiser and Andreas Beilhack during their postdoctoral training at Stanford University. After returning to Europe the Zeiser and Beilhack labs initiated an annual two-day scientific workshop together with the young research labs of Evelyn Ullrich and Olaf Penack: Once a year these four research teams meet to discuss recent research progress and new perspectives in the field of hematopoietic cell transplantation and immunotherapy. Beside an intense scientific program there was also time for a brief visit to the Georg Schäfer Museum to enjoy Central European art from the 19th century. Already we are looking forward to our 10th workshop, which will be held near Frankfurt am Main in 2018.
A long-standing collaboration with Prof. Edgar Serfling that was initiated in the Transregio SFB TRR52 reseach consortium comes now to fruition. Today, these research findings are being published in the prestigious journal Nature Communications.
Cytotoxic T lymphocytes are effector CD8+ T cells that very efficiently eradicate infected and malignant cells. Our new research publication by Stefan Klein-Hessling and colleagues demonstrates that the transcription factor NFATc1 controls the cytotoxicity of mouse cytotoxic T lymphocytes. Activated cytotoxic T lymphocytes, which were deficient for Nfatc1, were also defective to organize their cytoskeleton and to recruit cytosolic organelles to immunological synapses. If CD8+ T cells lacked NFATc1, their cytotoxic potential against malignant multiple myeloma cells dramatically declined. Furthermore, mice with NFATc1-deficient T cells could not control Listeria infections.
Extensive transcriptome analysis revealed that NFATc1 controls multiple programs in cytotoxic T cells including the production of cytokines, chemokines and metabolic programs. This new comprehensive study highlights that NFATc1 is an important regulator of cytotoxic T lymphocyte effector functions.
Klein-Hessling S, Muhammad K, Pusch T, Klein M, Rudolf R, Flöter J, Qureischi M, Beilhack A, Vaeth M, Kummerow C, Backes C, Schoppmeyer R, Hahn U, Hoth M, Bopp T, Berberich-Siebelt F, Patra A, Avots A, Müller N, Schulze A, Serfling E. (2017). NFATc1 controls the cytotoxicity of CD8+ T cells at multiple levels. Nature Communications 8:511.
Tsetse flies transmit African trypanosomiasis, known as sleeping sickness that causes death months or years after infection. More than 70 million people in sub-Saharan Africa are at risk of this disease.
The cause of these devastating infections are the protozoa of the species Trypanosoma brucei, which is the research focus of the group of Prof. Markus Engstler at the Biocenter at Würzburg University. Thanks to the recently founded DFG graduate college “3D Infect” our research teams connected and studied the week-long journey of Trypanosoma brucei through the different microenvironments of the tsetse fly´s interior organs with advanced microscopy techniques. Dynamic high resolution microscopy revealed the enormous versatility of the incessantly swimming trypanosomes, which cross various barriers and confined surroundings. These rapidly adaptive processes concur with major changes of parasite cell architecture. The new findings by Sarah Schuster et al. about these highly adaptable host-pathogen interactions are now published in the distinguished journal eLIFE.
Schuster S, Krüger T, Subota I, Thusek S, Rotureau B, Beilhack A, Engstler M. (2017). Developmental adaptations of trypanosome motility to the tsetse fly host environments unravel a multifaceted in vivo microswimmer system. Elife. 6: e27656.
This year’s lab retreat took us 20km down the river Main from Frickenhausen to Würzburg City.
On a stunningly beautiful summer day and removed from the research benches our team reconnected for a canoe tour on the picturesque river Main, embedded between vineyards, old Franconian towns and famous wine villages. We enjoyed the nature of the river, refreshing water and good conversations before finally reaching our destination at Würzburg’s city beach – happy and – for some of us – sore muscles guaranteed.
Today Nature Communications published a new imaging paper on the physiologic regulation of megakaryocytes within the bone marrow microenvironment.
Hematopoietic stem cells do not only give rise to our body’s immune system but also to megakaryocytes. These giant cells reside in the bone marrow and produce blood platelets required for hemostasis and thrombosis.
In a collaboration project with research groups of the Rudolf Virchow Center and University of Würzburg and Charité Berlin we unravel the spatial organization of megakaryocytes to efficiently sustain the production of blood platelets. Combining different experimental strategies, including light sheet fluorescence microscopy (LSFM), dynamic 2-photon microscopy (2PM) and computer modeling helped to systematically investigate megakaryocyte migration and function within their natural environment.
Our long-standing collaboration partners, Dr. David Stegner and Prof. Katrin Heinze, led this strongly interdisciplinary research project. The new data support a model of spatial megakaryocyte organization to warrant effective platelet production. These novel findings challenge the current thrombopoiesis model of megakaryocyte migration and, instead, support a modified model: Sinusoidal precursors replenish megakaryocytes at sinusoids rather than cells from a distant periostic niche. These findings imply that megakaryocytes, which apparently do not require to migrate in order to reach bone marrow blood vessels, should be just increased by numbers to raise platelet counts in patients.
Stegner D, Eeuwijk JMM, Angay O, Gorelashvili M, Pinnecker J, Schmitthausen P, Semeniak D, Friedrich M, Brede C, Beilhack A, Schulze H, Nieswandt B, Heinze KG. (2017). Thrombopoiesis is spatially regulated by the bone marrow vasculature. Nature Communications 8:127.
In 2015 scientists from the Universities of Tübingen and Würzburg joined forces to investigate new strategies for cancer therapy. The aim of the group is to identify and test new molecular targets for the therapy of solid tumors. Tim Steinfatt presented the Beilhack lab’s recent progress in optical imaging of cancer progression and therapy to address essential processes in pancreatic cancer.
Open PhD position in Immunology & Fungal Research
A PhD position is available full time to study the interactions between Aspergillus fumigatus and different immune cell population in mouse models of invasive aspergillosis in hematopoietic cell transplantation.
Thank you for your interest. This position is not available anymore.