230 perovskite-solar-cells positions at University of Groningen

PhD positions in Molecular Immunology (2 x 1.0 FTE)

lifetime imaging (FRET-FLIM), to map SNARE protein trafficking to WPBs. Techniques include FRET-FLIM microscopy, mammalian cell culturing, CRISPR, and molecular cloning. The Erasmus MC candidate will conduct

PhD positions in Molecular Immunology (2 x 1.0 FTE)

microscopy methods, including Förster resonance energy transfer-fluorescence lifetime imaging (FRET-FLIM), to map SNARE protein trafficking to WPBs. Techniques include FRET-FLIM microscopy, mammalian cell

PhD positions in Molecular Immunology (2 x 1.0 FTE)

-FLIM microscopy, mammalian cell culturing, CRISPR, and molecular cloning. The Erasmus MC candidate will conduct biochemical assays of WPB cargo secretion and optical assays of WPB exocytosis to determine

PhD in Universality in random trees and graphs (1.0 FTE)

Randomness and random shapes can be found everywhere around us, for example the shape of a tree is influenced by random interactions both between and within its cells, and random external influences

PhD position in Nanoparticles for Intestinal Diseases (1.0 FTE)

labels and experimental drugs into the target cells, and finally (III) test the application of these constructs to monitor disease activity and effects of drugs. Research will be performed in cultures

PhD on the development of an early detection test for pre-eclampsia (1.0 FTE)

Applications are invited for one 4-year PhD study, in the research group of Dr F. Bianchi part of the Molecular Immunology group (Groningen Biomolecular Sciences and Biotechnology Institute - http

PhD position in Nanoparticles for Intestinal Diseases (1.0 FTE)

nanoparticles that bind to these receptors enabling delivery of fluorescence labels and experimental drugs into the target cells, and finally (III) test the application of these constructs to monitor disease

PhD in universality in random trees and graphs (1.0 FTE)

both between and within its cells, and random external influences. This random growth causes trees in nature to have self-similar, fractal-like properties. Underlying random growth also makes our

PhD position in Nanoparticles for Intestinal Diseases (1.0 FTE)

and fibroblasts, (II) prepare lipid nanoparticles that bind to these receptors enabling delivery of fluorescence labels and experimental drugs into the target cells, and finally (III) test the

PhD in Universality in random trees and graphs (1.0 FTE)

tree is influenced by random interactions both between and within its cells, and random external influences. This random growth causes trees in nature to have self-similar, fractal-like properties