Summary
Optical microscopy, perhaps the most important tool in biomedical investigation and medical diagnosis, provides structural and functional information about biological specimen in a non-invasive and non-ionizing way. However, this technique still faces the challenge of imaging small and weakly scattering objects (e.g.a single cell) embedded inside complex biological tissues causing optical aberrations and scattering. This problem is even more critical in the case of samples that cannot be labelled or do not spontaneously emit light. In SQiMic, I will go one major conceptual step beyond the current paradigm by merging the fields of quantum imaging and light structuring to build a new quantum 'toolbox' for microscopy. My novel approach is based on my pioneering work showing that wavefront shaping techniques, initially developed for laser light manipulation, can also shape higher orders of optical coherence, allowing deterministic tailoring of quantum properties of light such as entanglement. I will use this approach to leverage some genuine quantum imaging concepts such as quantum holography, quantum interferences and quantum illumination, to break the current limits of fluorescent-free classical microscopy and image complex objects with higher resolution, better contrast, reduced aberrations, and less noise. Ultimately, I aim to deliver a quantum-enhanced microscope with unprecedented performances that can be used as a practical tool for biological imaging without labelling the specimens or relying on their possible ability to emit light.
From a methodological standpoint, SQiMic will bridge knowledge from quantum imaging, light structuring, adaptive optics, wavefront shaping, sensors technologies and computational imaging. It will deliver a whole new class of optical imaging methods based on quantum light manipulation and detection. Its long-term core applications are in life-science and biomedical imaging, with potential extension to quantum information science.
From a methodological standpoint, SQiMic will bridge knowledge from quantum imaging, light structuring, adaptive optics, wavefront shaping, sensors technologies and computational imaging. It will deliver a whole new class of optical imaging methods based on quantum light manipulation and detection. Its long-term core applications are in life-science and biomedical imaging, with potential extension to quantum information science.
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| Web resources: | https://cordis.europa.eu/project/id/101039375 |
| Start date: | 01-10-2022 |
| End date: | 30-09-2027 |
| Total budget - Public funding: | 1 499 365,00 Euro - 1 499 365,00 Euro |
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Original description
Optical microscopy, perhaps the most important tool in biomedical investigation and medical diagnosis, provides structural and functional information about biological specimen in a non-invasive and non-ionizing way. However, this technique still faces the challenge of imaging small and weakly scattering objects (e.g.a single cell) embedded inside complex biological tissues causing optical aberrations and scattering. This problem is even more critical in the case of samples that cannot be labelled or do not spontaneously emit light. In SQiMic, I will go one major conceptual step beyond the current paradigm by merging the fields of quantum imaging and light structuring to build a new quantum 'toolbox' for microscopy. My novel approach is based on my pioneering work showing that wavefront shaping techniques, initially developed for laser light manipulation, can also shape higher orders of optical coherence, allowing deterministic tailoring of quantum properties of light such as entanglement. I will use this approach to leverage some genuine quantum imaging concepts such as quantum holography, quantum interferences and quantum illumination, to break the current limits of fluorescent-free classical microscopy and image complex objects with higher resolution, better contrast, reduced aberrations, and less noise. Ultimately, I aim to deliver a quantum-enhanced microscope with unprecedented performances that can be used as a practical tool for biological imaging without labelling the specimens or relying on their possible ability to emit light.From a methodological standpoint, SQiMic will bridge knowledge from quantum imaging, light structuring, adaptive optics, wavefront shaping, sensors technologies and computational imaging. It will deliver a whole new class of optical imaging methods based on quantum light manipulation and detection. Its long-term core applications are in life-science and biomedical imaging, with potential extension to quantum information science.
Status
SIGNEDCall topic
ERC-2021-STGUpdate Date
09-02-2023
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