Based around recently developed micro machining technologies – which have led to breakthroughs in power handling for nonlinear optics – we now wish to extend these approaches to materials for the deep UV spectral region. Using state-of-the-art physical machining you will be creating bespoke, sub-nanometre surface with nanometre precision to create new types of nonlinear materials to create efficient lasers down to <200nm wavelengths, which will be important in lithography, bio-detection, quantum science, ultrashort pulse physics and material processing. By combining novel fabrication approaches with well developed commercial materials you will be expanding the area of engineered nonlinear optics deep into the ultra-violet.
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- Ultra-precision machining of photonics
- Deep UV QPM materials
- Integrated microwave photonics
- Modulators and low-loss switching for Quantum Technology
- Real-time through-thickness and in-plane strain measurement in carbon fibre reinforced polymer composites using planar optical Bragg gratings
- PPLN waveguides
- Gallery
- Home
- About
- Meet the team
- Alumni
- Projects
- Opportunities
- Summer Internships
- PhD Opportunities
- Ultra-precision machining of photonics
- Deep UV QPM materials
- Integrated microwave photonics
- Modulators and low-loss switching for Quantum Technology
- Real-time through-thickness and in-plane strain measurement in carbon fibre reinforced polymer composites using planar optical Bragg gratings
- PPLN waveguides
- Gallery