Matches in DBpedia 2016-04 for { ?s ?p "Christoph Cremer (born in Freiburg im Breisgau, Germany) is a German physicist and professor at the Ruprecht-Karls-University Heidelberg, honorary professor at the University of Mainz and group leader at the Institute of Molecular Biology (IMB) a newly established research centre on the campus of the Johannes Gutenberg University of Mainz, Germany, who has successfully overcome the conventional limit of resolution that applies to light based investigations (the Abbe limit) by a range of different methods (1971/1978 development of the concept of 4Pi-microscopy; 1996 localization microscopy SPDM; 1997 spatially structured illumination SMI). In September 2014 he founded the NPO LuciaOptics to support the use of Super-resolution microscopy in the fields of molecular biology, biomedicine, microbiology, virology, pharmaceutical sciences and diagnosisHis actual microscope Vertico-SMI is the world’s fastest nano light microscope that allows large scale investigation of supramolecular complexes including living cell conditions. It allows 3 D imaging of biological preparations marked with conventional fluorescent dyes and reaches a resolution of 10 nm in 2D and 40 nm in 3D.This nanoscope has therefore the potential to add substantially to the current revolution in optical imaging which will affect the entire molecular biology, medical and pharmaceutical research. The technology allows the development of new strategies for the prevention, the lowering of risk and therapeutic treatment of diseases."@en }
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- Christoph_Cremer abstract "Christoph Cremer (born in Freiburg im Breisgau, Germany) is a German physicist and professor at the Ruprecht-Karls-University Heidelberg, honorary professor at the University of Mainz and group leader at the Institute of Molecular Biology (IMB) a newly established research centre on the campus of the Johannes Gutenberg University of Mainz, Germany, who has successfully overcome the conventional limit of resolution that applies to light based investigations (the Abbe limit) by a range of different methods (1971/1978 development of the concept of 4Pi-microscopy; 1996 localization microscopy SPDM; 1997 spatially structured illumination SMI). In September 2014 he founded the NPO LuciaOptics to support the use of Super-resolution microscopy in the fields of molecular biology, biomedicine, microbiology, virology, pharmaceutical sciences and diagnosisHis actual microscope Vertico-SMI is the world’s fastest nano light microscope that allows large scale investigation of supramolecular complexes including living cell conditions. It allows 3 D imaging of biological preparations marked with conventional fluorescent dyes and reaches a resolution of 10 nm in 2D and 40 nm in 3D.This nanoscope has therefore the potential to add substantially to the current revolution in optical imaging which will affect the entire molecular biology, medical and pharmaceutical research. The technology allows the development of new strategies for the prevention, the lowering of risk and therapeutic treatment of diseases.".
- Q102491 abstract "Christoph Cremer (born in Freiburg im Breisgau, Germany) is a German physicist and professor at the Ruprecht-Karls-University Heidelberg, honorary professor at the University of Mainz and group leader at the Institute of Molecular Biology (IMB) a newly established research centre on the campus of the Johannes Gutenberg University of Mainz, Germany, who has successfully overcome the conventional limit of resolution that applies to light based investigations (the Abbe limit) by a range of different methods (1971/1978 development of the concept of 4Pi-microscopy; 1996 localization microscopy SPDM; 1997 spatially structured illumination SMI). In September 2014 he founded the NPO LuciaOptics to support the use of Super-resolution microscopy in the fields of molecular biology, biomedicine, microbiology, virology, pharmaceutical sciences and diagnosisHis actual microscope Vertico-SMI is the world’s fastest nano light microscope that allows large scale investigation of supramolecular complexes including living cell conditions. It allows 3 D imaging of biological preparations marked with conventional fluorescent dyes and reaches a resolution of 10 nm in 2D and 40 nm in 3D.This nanoscope has therefore the potential to add substantially to the current revolution in optical imaging which will affect the entire molecular biology, medical and pharmaceutical research. The technology allows the development of new strategies for the prevention, the lowering of risk and therapeutic treatment of diseases.".