Martin J. Booth
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Articles (11)
We present extended capabilities in simple liquid crystal-based devices that are applicable to adaptive optics and other related fields requiring wavefront manipulation. The laser-written devices can provide complex phase profiles, but are extremely simple to operate, requiring only a single electrode pair tuned between 0 and 10 V RMS. Furthermore, the devices operate in the transmissive mode for easy integration into the optical path. We present here as examples three such devices: the first device reproduces the defocus Zernike polynomial; the second device reproduces a seventh-order Zernike polynomial, tertiary coma; and the last example is of a primary spherical aberration. All devices offer wavelength-scale wavefront manipulation up to more than 2π radians peak-to-peak phase at a wavelength of 660 nm. The coma correction device is significantly more complex, reproducing a mode two orders higher than previous demonstrations, while the spherical device is nearly a full order of magnitude larger, measuring 2 mm in diameter.
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2024
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2023
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2023
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2023
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2022
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2022
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2022
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2022
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2022
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2022
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2022
Collaborators (10)
Benjamin Judkewitz
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Frank Payne
University of Oxford
Na Ji
Professor
University of California, Berkeley
Julian A. J. Fells
University of Oxford
Peter Kner
University of Georgia
Ian Dobbie
Research Professor and Director of the Integrated Imaging Center
Johns Hopkins University
Stephen M. Morris
University of Oxford
Chao He
University of Oxford
Katsumasa Fujita
Osaka University
Georg Mehl
Professor of Organic and Materials Chemistry
University of Hull
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