Nanophotonics & Photovoltaics Master Project Workshop AMOLF 2020 Are you a master's student in Physics, Chemistry or a related field, and are you looking for an interesting master's project?The NWO-Institute AMOLF, located at Science Park Amsterdam, has master's projects available in 7 research groups in Nanophotonics and Nanophotovoltaics. All projects are described below. AMOLF is a research laboratory with 60 PhD students, 20 postdocs, and over 30 master's students from many different universities.On Tuesday, May 12, 2020, from 14.00-16.00 hr. AMOLF holds an ON-LINE WORKSHOP to present & discuss the master's projects we have available.14.00-14.10 Welcome, general introduction about internships at AMOLF14.10-14.30 The 7 group leaders will present themselves and give brief presentations of the available projects. 14.30-16.00 Breakout sessions: discuss projects that you find interesting with the group leader.; meet with present master's students and ask them questions about the their experience at AMOLF.16.00 EndAfter the Workshop, you can indicate if you are interested in one or more projects. You can register for the Master Project Workshop by filling in the form below, indicating 2 projects you are most interested in (this helps us plan). Of course, you can get information about all projects during the Workshop. The deadline for registration is Tuesday May 5, 2020. LATE REGISTRATION: until Thursday May 7.If you have questions on the Workshop, please contact Tom Veeken at t.veeken@amolf.nl.These AMOLF research groups will present master's projects:Dr. Esther Alarcon Llado - 3D Photovoltaics GroupProject descriptionsElectrochemical growth of In1-xGaxAs for photovoltaic applications (2 projects)Electrochemical fabrication of carrier-selective contactsMapping the activity of electrochemical water splitting with fluorescence microscopyDr. Bruno Ehrler - Hybrid Solar Cells GroupProject descriptionsIon migration and trap states in 2D/3D halide perovskitesOptimizing light extraction in nanopatterned perovskite LEDsProf. Erik Garnett - Nanoscale Solar Cells Group Project descriptionsMaking stable phosphors by synthesizing perovskite quantum dots in glassIntegrating sphere single‐particle CD spectroscopyPerovskites in the gapHf/ZrN plasmonicsReciprocity inspired design for directional emissionProf. Femius Koenderink - Resonant Nanophotonics Project descriptionsCoherent control of molecular vibrations in plasmon optomechanicsTime‐resolved studies of electric field enhancement in resonant metasurfacesProgramming the optical near field for nanoscale imagingProf. Albert Polman - Photonic Materials Group Project descriptionsUltrafast electron-matter interaction in optical microcavitiesResonant infrared emission for solar photovoltaic coolingPhoton bunching in electron-excited Yb-doped perovskitesDr. Said Rodriguez - Interacting Photons Group Project descriptionsSuperfluidity of light at room-temperatureSuperconductivity induced by lightSuper-noisy light fields for energy transfer, sensing, or analog computationProf. Ewold Verhagen - Photonic Forces Group Project descriptionsOptomechanical Faraday effectUltra-coherent nano-optomechanical resonatorsPredicting metasurface diffraction with artificial intelligence Name : * Characters Left Email : * University : * Characters Left Master's Program : * Characters Left Master track : * Characters Left UvA/VU courses taken : * Photovoltaics Organic Photovoltaics Nanophotonics First project choice : * select project Esther: Electrochemical growth of In1-xGaxAs for photovoltaic applications (2 projects) Esther: Electrochemical fabrication of carrier-selective contacts Esther: Mapping the activity of electrochemical water splitting with fluorescence microscopy Bruno: Ion migration and trap states in 2D/3D halide perovskites Bruno: Optimizing light extraction in nanopatterned perovskite LEDs Erik: Making stable phosphors by synthesizing perovskite quantum dots in glass Erik: Integrating sphere single‐particle CD spectroscopy Erik: Perovskites in the gap Erik: Hf/ZrN plasmonics Erik: Reciprocity inspired design for directional emission Femius: Coherent control of molecular vibrations in plasmon optomechanics Femius: Time‐resolved studies of electric field enhancement in resonant metasurfaces Femius: Programming the optical near field for nanoscale imaging Albert: Ultrafast electron-matter interaction in optical microcavities Albert: Resonant infrared emission for solar photovoltaic cooling Albert: Photon bunching in electron-excited Yb-doped perovskites Said: Superfluidity of light at room-temperature Said: Superconductivity induced by light Said: Super-noisy light fields for energy transfer, sensing, or analog computation Ewold: Optomechanical Faraday effect Ewold: Ultra-coherent nano-optomechanical resonators Ewold: Predicting metasurface diffraction with artificial intelligence Second project choice : * select project Esther: Electrochemical growth of In1-xGaxAs for photovoltaic applications (2 projects) Esther: Electrochemical fabrication of carrier-selective contacts Esther: Mapping the activity of electrochemical water splitting with fluorescence microscopy Bruno: Ion migration and trap states in 2D/3D halide perovskites Bruno: Optimizing light extraction in nanopatterned perovskite LEDs Erik: Making stable phosphors by synthesizing perovskite quantum dots in glass Erik: Integrating sphere single‐particle CD spectroscopy Erik: Perovskites in the gap Erik: Hf/ZrN plasmonics Erik: Reciprocity inspired design for directional emission Femius: Coherent control of molecular vibrations in plasmon optomechanics Femius: Time‐resolved studies of electric field enhancement in resonant metasurfaces Femius: Programming the optical near field for nanoscale imaging Albert: Ultrafast electron-matter interaction in optical microcavities Albert: Resonant infrared emission for solar photovoltaic cooling Albert: Photon bunching in electron-excited Yb-doped perovskites Said: Superfluidity of light at room-temperature Said: Superconductivity induced by light Said: Super-noisy light fields for energy transfer, sensing, or analog computation Ewold: Optomechanical Faraday effect Ewold: Ultra-coherent nano-optomechanical resonators Ewold: Predicting metasurface diffraction with artificial intelligence