Biography
Paul Stavrinou is an Associate Professor in Photonics and Fellow of Lincoln College.
Initially trained at Marconi Instruments as a communications engineer, he completed a BEng(Hns) in Electronic Engineering at what was then the Polytechnic of the South Bank, receiving the IEE Prize for the cohort. His PhD research was undertaken at University College London, through a Collaborative Award in Science and Engineering with RSRE (Malvern) and following this held postdoctoral positions at University College London, University of Oxford and Imperial College London.
Before joining Oxford (again), Paul was a Reader in Physics, Director of the Plastic Electronics Centre for Doctoral Training (PE-CDT) and co-Director of the cross-faculty Centre for Plastic Electronics (CPE) based at Imperial College London. While at Imperial, he was an EPSRC Advanced Research Fellow, investigating metallic nanoscale photonics, and was part of the team awarded an Imperial College Research Excellence Award. In 2011, the PE-CDT was awarded the Leadership in Education Award from the US-based FlexTech Alliance.
He is also a visiting Professor in the Department of Physics at the University of Montreal and a co-investigator for the newly established Oxford Suzhou Centre for Advanced Research (OSCAR) in Suzhou, China
Most Recent Publications
Simple and Versatile Platforms for Manipulating Light with Matter: Strong Light-Matter Coupling in Fully Solution-Processed Optical Microcavities.
Simple and Versatile Platforms for Manipulating Light with Matter: Strong Light-Matter Coupling in Fully Solution-Processed Optical Microcavities.
A unified picture of aggregate formation in a model polymer semiconductor during solution processing
A unified picture of aggregate formation in a model polymer semiconductor during solution processing
Simple and Versatile Platforms for Manipulating Light with Matter: Strong Light-Matter Coupling in Fully Solution-Processed Optical Microcavities.
Simple and Versatile Platforms for Manipulating Light with Matter: Strong Light-Matter Coupling in Fully Solution-Processed Optical Microcavities.
Light regulation of organic light-emitting diodes with conductive distributed Bragg reflectors
Light regulation of organic light-emitting diodes with conductive distributed Bragg reflectors
Slow energy transfer in self-doped beta-conformation film of steric polydiarylfluorenes toward stable dual deep-blue amplified spontaneous emission
Slow energy transfer in self-doped beta-conformation film of steric polydiarylfluorenes toward stable dual deep-blue amplified spontaneous emission
Research Interests
Paul’s research interests span the development of materials (organic and inorganic) for photonic applications and optoelectronic devices, such as lasers, solar cells and electro-absorption modulators; the common themes all involve light-matter interactions and the flow or routing of radiation within structures.
Current interests include sub-wavelength optical structures, energy transfer mechanisms, hot electron dynamics and metamaterial development.
Research Groups
Most Recent Publications
Simple and Versatile Platforms for Manipulating Light with Matter: Strong Light-Matter Coupling in Fully Solution-Processed Optical Microcavities.
Simple and Versatile Platforms for Manipulating Light with Matter: Strong Light-Matter Coupling in Fully Solution-Processed Optical Microcavities.
A unified picture of aggregate formation in a model polymer semiconductor during solution processing
A unified picture of aggregate formation in a model polymer semiconductor during solution processing
Simple and Versatile Platforms for Manipulating Light with Matter: Strong Light-Matter Coupling in Fully Solution-Processed Optical Microcavities.
Simple and Versatile Platforms for Manipulating Light with Matter: Strong Light-Matter Coupling in Fully Solution-Processed Optical Microcavities.
Light regulation of organic light-emitting diodes with conductive distributed Bragg reflectors
Light regulation of organic light-emitting diodes with conductive distributed Bragg reflectors
Slow energy transfer in self-doped beta-conformation film of steric polydiarylfluorenes toward stable dual deep-blue amplified spontaneous emission
Slow energy transfer in self-doped beta-conformation film of steric polydiarylfluorenes toward stable dual deep-blue amplified spontaneous emission