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Instrumentation and optoelectronic systems based holographic techniques and nondiffracting optical beams

Abstract

Instrumentation systems and optical techniques see increasingly becoming extremely useful tools in scientific and technological applications due to its precision and measurement speed. Particularly, holography is an interferometric-diffractive technique that allows the recording and reconstruction of 3D images of objects as a hologram carries the intensity and phase information of a 'holografado' object. Recently, increased processing and storage capability of personal computers and parallel processing hardware, the development of new devices optoelectronic as spatial modulating light (SLMs), the CMOS and CCD cameras (Coupled Charge Device) High resolution and new photochromic materials; It is enabling, respectively, the viability of computer generated holograms (CGH Computer Generate Hologram) and experimental implementation of holographic recording and optical systems and numerical reconstruction of three-dimensional objects and generation of special optical beams.          On the other hand, non-diffractive beams has shown potential for many applications, because their non-scattering properties and are resistant to diffraction, where they can be experimentally generated via optical reconstruction of CGHs devices using SLMs or photorefractive holography.          The aim of this research project is to study and develop instrumentation and optoelectronic systems based on holographic techniques and non-diffractive beam. Thus, in a first proposal we intend to develop a holographic optical-handling system of micro and nano particles based on non-diffractive beams. In a second proposal, we intend to study and mount an optical-holographic interferometry system based on non-diffractive beam and analyze its accuracy and functionality. In a third and final purpose of this project, we intend to study and develop a 3D projection system based on a matrix composed by the superposition of non-diffractive beam generated by co-axial superposition of Bessel beams, where each beam behave like a 3D pixel of image.         All the foundations of the proposed systems are theoretically grounded and experimentally in work carried out by our group and others in the literature; well, have a high degree of originality and are at the frontier of knowledge in this area, as this instrument is not yet developed or consolidated with excellent project success prospects. (AU)

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VEICULO: TITULO (DATA)

Scientific publications (7)
(References retrieved automatically from Web of Science and SciELO through information on FAPESP grants and their corresponding numbers as mentioned in the publications by the authors)
SUAREZ, RAFAEL A. B.; NEVES, ANTONIO A. R.; GESUALDI, MARCOS R. R. Optical trapping with non-diffracting Airy beams array using a holographic optical tweezers. OPTICS AND LASER TECHNOLOGY, v. 135, MAR 2021. Web of Science Citations: 0.
SUAREZ, RAFAEL A. B.; AMBROSIO, LEONARDO A.; NEVES, ANTONIO A. R.; ZAMBONI-RACHED, MICHEL; GESUALDI, MARCOS R. R. Experimental optical trapping with frozen waves. OPTICS LETTERS, v. 45, n. 9, p. 2514-2517, MAY 1 2020. Web of Science Citations: 0.
SUAREZ, RAFAEL A. B.; GESUALDI, MARCOS R. R. Propagation of Airy beams with ballistic trajectory passing through the Fourier transformation system. OPTIK, v. 207, APR 2020. Web of Science Citations: 0.
SUAREZ, RAFAEL A. B.; NEVES, ANTONIO A. R.; GESUALDI, MARCOS R. R. Generation and characterization of an array of Airy-vortex beams. Optics Communications, v. 458, MAR 1 2020. Web of Science Citations: 1.
SUAREZ, RAFAEL A. B.; NEVES, ANTONIO A. R.; GESUAL, MARCOS R. R. Optimizing optical trap stiffness for Rayleigh particles with an Airy array beam. JOURNAL OF THE OPTICAL SOCIETY OF AMERICA B-OPTICAL PHYSICS, v. 37, n. 2, p. 264-270, FEB 1 2020. Web of Science Citations: 0.
YEPES, V, INDIRA S.; VIEIRA, TARCIO A.; SUAREZ, RAFAEL A. B.; FERNANDEZ, SANTIAGO R. C.; GESUALDI, MARCOS R. R. Phase and intensity analysis of non-diffracting beams via digital holography. Optics Communications, v. 437, p. 121-127, APR 15 2019. Web of Science Citations: 2.
ZAMBONI-RACHED, MICHEL; RECAMI, ERASMO; VIEIRA, TARCIO A.; GESUALDI, MARCOS R. R.; NOBRE-PEREIRA, JESSYCA. Structured Light by Linking Diffraction-Resistant Spatially Shaped Beams. PHYSICAL REVIEW APPLIED, v. 10, n. 3 SEP 12 2018. Web of Science Citations: 1.

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