3D-VIEW

Seeing the invisible: Light-based 3D imaging of opaque nanostructures

Grant period2020-10-01 - 2025-09-30
Funding bodyEuropean Union
Call numberERC-2019-COG
Grant number864016
IdentifierG:(EU-Grant)864016

Note: Nanostructures drive the world around us. Every modern electronic device contains integrated circuits and nano-electronics to provide its functionality. Advances in nanotechnology directly impact society by enabling smartphones, autonomous devices, the internet of things, data storage, and essentially all forms of advanced technology. Fabricating such nanostructures crucially depends on having the tools to make them visible without destroying them. Modern nanodevices often have complex three-dimensional architectures with small features in all dimensions. While imaging methods that achieve nanometer-scale resolution exist, there are currently no compact tools that can look inside 3D nanostructures made out of metals and semiconductors without damaging their delicate internal structure. I will address this challenge by developing compact tools to image 3D nanostructures in a non-invasive way. Even though most nanostructures are completely opaque to visible light, I will develop light-based methods, combined with computational imaging techniques developed in my previous ERC project, to look inside them with unprecedented resolution and contrast. Light-based imaging is unparalleled in speed and versatility, and allows contact-free detection. My proposal is to: 1) Use compact laser-produced soft-X-ray sources to image nanostructures with high 3D resolution and element-sensitive contrast; 2) Use laser-induced ultrasound pulses to image complex 3D nanostructures, even through strongly absorbing materials; 3) Employ computational imaging methods to reconstruct high-resolution 3D object images from the resulting complex diffraction signals. I will forge a coordinated research program to bring these concepts to reality. This program provides exciting prospects for fundamental science and industrial metrology. I will go beyond the state-of-the-art in nano-imaging, to extend our vision into the complex interior of the smallest structures found in science and technology.
   

Recent Publications

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PtyLab.m/py/jl: a cross-platform, open-source inverse modeling toolbox for conventional and Fourier ptychography
Optics express 31(9), 13763 () [10.1364/OE.485370] DBCoverage BibTeX | EndNote: XML, Text | RIS

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High-resolution wavefront sensing and aberration analysis of multi-spectral extreme ultraviolet beams
Optica 10(2), 255 () [10.1364/OPTICA.478346] DBCoverage BibTeX | EndNote: XML, Text | RIS

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aPIE: an angle calibration algorithm for reflection ptychography
Optics letters 47(8), 1949 () [10.1364/OL.453655] BibTeX | EndNote: XML, Text | RIS

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Advances in laboratory-scale ptychography using high harmonic sources [Invited]
Optics express 30(3), 4133 () [10.1364/OE.443622] OpenAccess  Download fulltext Files BibTeX | EndNote: XML, Text | RIS

All known publications ...
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 Record created 2021-10-10, last modified 2023-02-12