Institution
University of Marburg
Education•Marburg, Germany•
About: University of Marburg is a education organization based out in Marburg, Germany. It is known for research contribution in the topics: Population & Virus. The organization has 23195 authors who have published 42907 publications receiving 1506069 citations. The organization is also known as: Philipps University of Marburg & Philipps-Universität.
Topics: Population, Virus, Gene, Exciton, Photoluminescence
Papers published on a yearly basis
Papers
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TL;DR: Molecular, genetic and biochemical analyses demonstrated that Sp2, Sp3 and Sp4 are not simply functional equivalents of Sp1.
1,109 citations
1,098 citations
Pierre-and-Marie-Curie University1, Nest Labs2, University of Leeds3, SLAC National Accelerator Laboratory4, University of Wisconsin-Madison5, Lancaster University6, Helmholtz-Zentrum Dresden-Rossendorf7, University of Liverpool8, Centro de Investigaciones en Optica9, University of Glasgow10, Imperial College London11, University of Tokyo12, University of Marburg13, Yale University14, University of Regensburg15, University at Buffalo16, University of California, Los Angeles17, University of Western Australia18, Syracuse University19, Jet Propulsion Laboratory20, California Institute of Technology21, Goethe University Frankfurt22, University College London23, University of Duisburg-Essen24, National Physical Laboratory25, University of Oxford26
TL;DR: The 2017 roadmap of terahertz frequency electromagnetic radiation (100 GHz-30 THz) as discussed by the authors provides a snapshot of the present state of THz science and technology in 2017, and provides an opinion on the challenges and opportunities that the future holds.
Abstract: Science and technologies based on terahertz frequency electromagnetic radiation (100 GHz–30 THz) have developed rapidly over the last 30 years. For most of the 20th Century, terahertz radiation, then referred to as sub-millimeter wave or far-infrared radiation, was mainly utilized by astronomers and some spectroscopists. Following the development of laser based terahertz time-domain spectroscopy in the 1980s and 1990s the field of THz science and technology expanded rapidly, to the extent that it now touches many areas from fundamental science to 'real world' applications. For example THz radiation is being used to optimize materials for new solar cells, and may also be a key technology for the next generation of airport security scanners. While the field was emerging it was possible to keep track of all new developments, however now the field has grown so much that it is increasingly difficult to follow the diverse range of new discoveries and applications that are appearing. At this point in time, when the field of THz science and technology is moving from an emerging to a more established and interdisciplinary field, it is apt to present a roadmap to help identify the breadth and future directions of the field. The aim of this roadmap is to present a snapshot of the present state of THz science and technology in 2017, and provide an opinion on the challenges and opportunities that the future holds. To be able to achieve this aim, we have invited a group of international experts to write 18 sections that cover most of the key areas of THz science and technology. We hope that The 2017 Roadmap on THz science and technology will prove to be a useful resource by providing a wide ranging introduction to the capabilities of THz radiation for those outside or just entering the field as well as providing perspective and breadth for those who are well established. We also feel that this review should serve as a useful guide for government and funding agencies.
1,068 citations
TL;DR: An overview about biological applications of magnetic colloidal nanoparticles will be given, which comprises their synthesis, characterization, and in vitro and in vivo applications, to address the remaining challenges for an extended application of magnetic nanoparticles in medicine.
Abstract: In this review an overview about biological applications of magnetic colloidal nanoparticles will be given, which comprises their synthesis, characterization, and in vitro and in vivo applications. The potential future role of magnetic nanoparticles compared to other functional nanoparticles will be discussed by highlighting the possibility of integration with other nanostructures and with existing biotechnology as well as by pointing out the specific properties of magnetic colloids. Current limitations in the fabrication process and issues related with the outcome of the particles in the body will be also pointed out in order to address the remaining challenges for an extended application of magnetic nanoparticles in medicine.
1,062 citations
Paris 12 Val de Marne University1, University of Göttingen2, University Hospital of Lausanne3, French Institute of Health and Medical Research4, University of Milan5, University of Otago6, University of Regensburg7, University of Marburg8, Ruhr University Bochum9, Ludwig Maximilian University of Munich10, University of Siena11, University of Texas at Dallas12, University of Tübingen13
TL;DR: It remains to be clarified whether the probable or possible therapeutic effects of tDCS are clinically meaningful and how to optimally perform tDCS in a therapeutic setting.
1,062 citations
Authors
Showing all 23488 results
| Name | H-index | Papers | Citations |
|---|---|---|---|
| John C. Morris | 183 | 1441 | 168413 |
| Russel J. Reiter | 169 | 1646 | 121010 |
| Martin J. Blaser | 147 | 820 | 104104 |
| Christopher T. Walsh | 139 | 819 | 74314 |
| Markus Cristinziani | 131 | 1140 | 84538 |
| James C. Paulson | 126 | 443 | 52152 |
| Markus F. Neurath | 124 | 934 | 62376 |
| Nicholas W. Wood | 123 | 614 | 66270 |
| Florian Lang | 116 | 1421 | 66496 |
| Howard I. Maibach | 116 | 1821 | 60765 |
| Thomas G. Ksiazek | 113 | 398 | 46108 |
| Frank Glorius | 113 | 663 | 49305 |
| Eberhard Ritz | 111 | 1109 | 61530 |
| Manfred T. Reetz | 110 | 959 | 42941 |
| Wolfgang H. Oertel | 110 | 653 | 51147 |