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Françisco M. Raymo

Researcher at University of Miami

Publications -  279
Citations -  19617

Françisco M. Raymo is an academic researcher from University of Miami. The author has contributed to research in topics: Photochromism & Quantum dot. The author has an hindex of 65, co-authored 272 publications receiving 18608 citations. Previous affiliations of Françisco M. Raymo include University of California, Los Angeles & University of Messina.

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Structural and size effects on the spectroscopic and redox properties of CdSe nanocrystals in solution: the role of defect states.

TL;DR: Results indicate that, while the optical band gap depends on the actual electron-hole recombination within the nanocrystal, and therefore follows the size dependence expected from the particle-in-a-box model, the electrochemical processes of these QDs are strongly affected by other factors, such as the presence of surface defects.
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Photoswitchable Fluorescent Dyads Incorporating BODIPY and [1,3]Oxazine Components

TL;DR: Three compounds incorporating a BODIPY fluorophore and an oxazine photochrome within the same molecular skeleton and differing in the nature of the linker bridging the two functional components can ultimately lead to the development of valuable photoswitchable fluorescent probes for the super-resolution imaging of biological samples.
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Saving paper with switchable ink

TL;DR: In this article, an oxazine auxochrome and a carbazole chromophore are integrated within the same covalent skeleton to generate a halochromic molecular switch.
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Optical control of quantum dot luminescence via photoisomerization of a surface-coordinated, cationic dithienylethene

TL;DR: Photoisomerization of a coordinating, photochromic dithienylethene bearing a pyridine and a methylpyridinium group was investigated as a means to reversibly modulate the luminescence from CdSe-ZnS core-shell quantum dots, suggesting irreversible electron transfer from the quantum dot to the dithielthene as the dominant luminescent quenching mechanism.
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Electron and energy transfer mechanisms to switch the luminescence of semiconductor quantum dots

TL;DR: The transduction mechanisms can successfully be exploited to signal the presence of target analytes with luminescence changes, and can ultimately lead to the development of innovative luminescent chemosensors based on the unique photophysical properties of semiconductor quantum dots.