אוגוסט 01-31, 2016
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Date:10רביעיאוגוסט 2016הרצאה
G-INCPM Special Seminar - Dr. Gad Asher, Dept. of Biomolecular Sciences, Weizmann - "A Circadian View of Nutrition and Metabolism
More information שעה 11:00 - 12:30מיקום בניין הפיזיקה ע"ש עדנה וק.ב. וייסמןמרצה Prof. Gad Asher
Dept. of Biomolecular Sciences, Weizmannמארגן המחלקה למדעים ביומולקולרייםצרו קשר תקציר Show full text abstract about Circadian clocks are positioned at the cross road between nu...» Circadian clocks are positioned at the cross road between nutritional cues and metabolic control. Thus, studying metabolism from a temporal and spatial perspective provides a unique niche that is expected to unveil novel fundamental principles related to basic metabolism and their nutritional control. In recent years my lab employed different methodologies, from biochemical approaches that identify protein-metabolite interactions through measurements of metabolic outputs in intact cells and living animals to high-throughput proteomics and metabolomics, to examine temporal and spatial aspects of metabolism. During my talk, I will discuss several examples emerging from our work on different groups of metabolites (e.g., lipids, polyamines) and on cellular metabolic processes (e.g., mitochondrial function) that shed new light in respect to their temporal and spatial intracellular organization and their nutritional control by different dietary regimens.
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Date:18חמישיאוגוסט 2016הרצאה
Protein folding and dynamics from single-molecule measurements
More information שעה 14:00 - 14:00מיקום אולם הרצאות ע"ש גרהרד שמידטמרצה Prof. Dmitrii E Makarov
Department of Chemistry, University of Texasמארגן מרכז לפיזיקה ביולוגית עש קלורצרו קשר -
Date:18חמישיאוגוסט 2016הרצאה
"Protein folding and dynamics from single-molecule measurements"
More information שעה 14:00 - 15:00כותרת Special Joint Seminarמיקום אולם הרצאות ע"ש גרהרד שמידטמרצה Prof. Dmitrii E Makarov
Department of Chemistry University of Texasמארגן מרכז לפיזיקה ביולוגית עש קלורצרו קשר תקציר Show full text abstract about In the past two decades, single-molecule experiments have ev...» In the past two decades, single-molecule experiments have evolved from being state-of-the-art prof-of-principle demonstrations to nearly routine tools of modern biophysics, enabling one, for example, to monitor molecular processes directly as they unfold in the cell. Yet because of the relative sluggishness of the common probes, deciphering single-molecule signals to infer molecular dynamics remains an elusive goal. In this talk I will report on recent joint efforts of my group with experimentalists toward this goal using the example of one of the most fundamental problems in biophysics, protein folding. I will discuss how intrinsic protein motion can be deduced from random photon sequences in single-molecule fluorescence resonance energy transfer experiments or from the movement of micrometer-sized force probes in single-molecule pulling studies. I will further describe some of the new lessons about protein folding and dynamics learned from such studies. -
Date:24רביעיאוגוסט 2016הרצאה
G-INCPM - Special Seminar - Prof. Matthias Nees, Institute if Biomedicine, Univ. of Turku, Finland - "Combining Speed of Analysis with Complex Tissue Models for Physiologically Relevant High-Content Screening"
More information שעה 11:00 - 12:30מיקום בניין הפיזיקה ע"ש עדנה וק.ב. וייסמןמרצה Prof. Matthias Nees
Institute of Biomedicine Univ. of Turku Finlandמארגן המחלקה למדעים ביומולקולרייםצרו קשר תקציר Show full text abstract about In vitro model systems used in drug discovery typically do n...» In vitro model systems used in drug discovery typically do not address the complex architecture of human disease tissues. Only few approaches aim to faithfully recapitulate the complexity, heterogeneity and cellular dynamics e.g. in epithelial tissues and carcinomas. The most important aspects relate to the (tumor-) microenvironment, including cell-cell and cell-matrix interactions, inflammation and the role of stromal components. All of these elements can have a significant, but often underestimated impact on differentiation, normal and abnormal tissue functions, or drug response versus drug resistance.
The basis for performing informative high content screening campaigns with such complex tissue models in vitro is access to fast, automated image analysis. We have developed a software platform (AMIDA, Automated Morphometric Image Data Analysis) that captures a large number of morphometric features in an unsupervised fashion. This approach enables us to capture much of the inherent complexity and dynamics of microtissues, yet still allows high experimental throughput. This screening platform is ideally suited for investigating a broad spectrum of defined, biological questions in drug discovery as well as personalised medicine.
Technology and screening platform are applicable for multiple types of research, such as quantitatively measuring the response of primary cancer cells or cell lines to drugs, siRNAs or other perturbations. Image analysis algorithms can also be adapted towards specific applications in neurodegenerative diseases, stem cell research, and to quantitate the interaction of epithelial cells with immune, adipocytes or mesenchymal stem cells.
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Date:25חמישיאוגוסט 2016הרצאה
Full humanisation of the mouse immunoglobulin loci
More information שעה 10:00 - 10:00מיקום בניין וולפסון למחקר ביולוגימרצה Prof. Allan Bradley
Kymab, Cambridge MAמארגן המחלקה למדעי המוחצרו קשר תקציר Show full text abstract about Professor Bradley is internationally recognized as a pioneer...» Professor Bradley is internationally recognized as a pioneer in developing the techniques, technology and tools for genetic manipulation in the mouse over more than 3 decades. He served as Director of the Welcome Trust Sanger Institute from 2000 to 2010. He was honored by election to the fellowship of the Royal Society in 2002. Among many projects that Dr. Bradley has established and led, is the international project to systematically knockout all genes in the mouse genome, the most ambitious use of ES-cell technology ever attempted. Over the last 30 years, Dr. Bradley has authored more than 280 publications. In his lecture, Dr. Bradley will be describing the scientific history and the technology behind the creation of the Kymouse strains which are transgenic for the total human immunoglobulin gene diversity. The platform provides a valuable means to isolate therapeutic monoclonal antibodies. Kymab has also developed single B cell-based methods to capture both the heavy and light chains of antibodies at scale. Combined with deep sequencing of millions of B cells we are able to build networks of histories of B cell families which we use to isolate rare antibodies with unique properties. The combined use of Kymouse with B cell network analysis, facilitates vaccine antigen discovery and predictive pre-clinical assessment of candidate vaccine antigens prior to clinical trials in humans.
