Great advances in understanding how organisms work have been made in recent years, largely through the use of a few well-understood model systems such as yeast. Our understanding of evolution is much less complete, in part because of the less effective use of model systems to study variation and evolution.
The intention of this conference series is to explore the concept of using yeast as a model system in evolution and ecology, building on our deep understanding of its physiology and genetics, and taking advantage of sophisticated techniques to manipulate the yeast cell and it shall concentrate on four core issues in evolutionary biology, providing emphasis in all four areas on wetlab experimental approaches. The first is the overall architecture of the genome and the major processes that have contributed to its evolution.
The second is the ecological and genetic structure of natural populations that forms the stage on which this evolution has taken place. The third involves the mechanisms of selection that lead to adaptation, and in particular how these can be studied experimentally in the laboratory. The fourth is the use of yeast to illuminate important problems in adaptation, especially the evolution of sex and mating systems. The conference series will bring together scientists working in all of these areas to show how integrated research programs using yeast as a model could be as successful in ecology and evolution as they have been in cellular and molecular biology.
Yeast has pioneered many areas of cell biological research and many new technologies have been used first with this organism in order to explore their general applicability. Currently, significant progress has been made in technologies suitable to assess biological diversity, ranging from high-throughput sequencing, tiling arrays to high-throughput quantitative cell biological investigations. The intention of this conference series is to bring scientists engaged in technology development together with evolutionary biologists, population geneticists and classical cell biologists and geneticists in order to explore experimental strategies to study the mechanisms and design principles of evolution.
Sonia Furtado | EMBL Research News
Virtual reality conference comes to Reutlingen
19.03.2018 | Fraunhofer-Institut für Arbeitswirtschaft und Organisation IAO
Ultrafast Wireless and Chip Design at the DATE Conference in Dresden
16.03.2018 | Technische Universität Dresden
In just a few weeks from now, the Chinese space station Tiangong-1 will re-enter the Earth's atmosphere where it will to a large extent burn up. It is possible that some debris will reach the Earth's surface. Tiangong-1 is orbiting the Earth uncontrolled at a speed of approx. 29,000 km/h.Currently the prognosis relating to the time of impact currently lies within a window of several days. The scientists at Fraunhofer FHR have already been monitoring Tiangong-1 for a number of weeks with their TIRA system, one of the most powerful space observation radars in the world, with a view to supporting the German Space Situational Awareness Center and the ESA with their re-entry forecasts.
Following the loss of radio contact with Tiangong-1 in 2016 and due to the low orbital height, it is now inevitable that the Chinese space station will...
Fraunhofer Institute for Organic Electronics, Electron Beam and Plasma Technology FEP, provider of research and development services for OLED lighting solutions, announces the founding of the “OLED Licht Forum” and presents latest OLED design and lighting solutions during light+building, from March 18th – 23rd, 2018 in Frankfurt a.M./Germany, at booth no. F91 in Hall 4.0.
They are united in their passion for OLED (organic light emitting diodes) lighting with all of its unique facets and application possibilities. Thus experts in...
A new scenario seeking to explain how Mars' putative oceans came and went over the last 4 billion years implies that the oceans formed several hundred million...
For the first time, an interdisciplinary team from the University of Basel has succeeded in integrating artificial organelles into the cells of live zebrafish embryos. This innovative approach using artificial organelles as cellular implants offers new potential in treating a range of diseases, as the authors report in an article published in Nature Communications.
In the cells of higher organisms, organelles such as the nucleus or mitochondria perform a range of complex functions necessary for life. In the networks of...
Animal photoreceptors capture light with photopigments. Researchers from the University of Göttingen have now discovered that these photopigments fulfill an...
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