We are analyzing https://link.springer.com/article/10.1007/s12274-020-2661-8.

Title:
A mini-review on recent progress of new sensitizers for luminescence of lanthanide doped nanomaterials | Nano Research
Description:
Trivalent lanthanide (Ln3+) doped luminescent nanocrystals are promising for applications ranging from biosensor, lasing, super-resolution nanoscopy, information security and so on. Although the utility prospect is of great attractions, the light absorption of these lanthanide doped nanocrystals is inherently weak due to the electric dipole-forbidden 4f → 4f transitions. Even worse, the quantum yields of upconverison nanocrystals are very low, which will unavoidably hinder their further applications. In a typical lanthanide luminescent nanosystem, both sensitizers as light absorption centers and activators as light emitting centers are necessary and important for desired luminescence properties. Among various sensitization systems, only Yb3+ and Nd3+ are considered as the most efficient sensitizers. Thus, the corresponding excitation wavelengths are strictly limited around 980 and 808 nm. To enrich excitation wavelengths and boost luminescence intensity, exploring more sensitization units that possess larger absorption cross section, higher efficiency of energy transfer process and independent excitation is imperative and beneficial for the demands of different applications, such as broadened absorption in near infrared (NIR) region for higher conversion efficiency of solar cells, prolonged excitation wavelength to second near infrared windows region (NIR II, 1,000–1,700 nm) for in vivo fluorescence imaging with deeper tissue depth and higher spatial resolution, more orthogonal excitations and emissions to improve optical multiplexing, and so on. Therefore, in the review, we primarily conclude several major energy transfer mechanisms from sensitizers to activators. Then we present three kinds of sensitizers, including lanthanide ions, organic dyes and quantum dots (QDs), and introduce the newly designed sensitization system that allows us to exploit superior excitation wavelength and amplify luminescence intensity. Finally, several future challenges and opportunities for the sensitizing strategies are discussed in hope of directing and broadening the applications of lanthanide nanosystem.
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Keywords {🔍}

google, scholar, cas, upconversion, liu, zhang, chem, wang, chen, nanoparticles, nanocrystals, zhou, luminescence, nat, yang, nano, soc, sun, nearinfrared, mater, lanthanide, fan, energy, imaging, huang, quantum, vivo, emission, excitation, rev, phys, angew, int, article, applications, lanthanidedoped, coreshell, zhao, adv, acs, efficient, zheng, lett, dyesensitized, song, light, absorption, dots, photon, commun,

Topics {✒️}

dye-sensitized core/shell/shell nanocrystals eu/α-nayf4 core/shell nanocrystals 808-nm-light-excited lanthanide-doped nanoparticles dye-sensitized core/shell nanocrystals nd3+-sensitized core-shell nanoparticles lanthanide-doped core-shell nanocrystals yb/tm hexaplate nano-crystals upconversion nanoparticle-mediated optogenetics lifetime-encoded infrared-emitting nanoparticles month download article/chapter infrared-iib rare-earth nanoparticles lanthanide-doped fluoride nanoplates dye-sensitized upconversion nanocomposites rare-earth activated nanophosphors dye-sensitized upconversion luminescence core-shell nano-structures er3+-sensitized upconversion nanocrystals single-nanocrystal sensitivity achieved broadband dye-sensitized upconversion harnessing excited-state absorption lanthanide-doped cas nanoparticles lanthanide-doped bifunctional nanocrystals nd3+-sensitized upconversion nanophosphors lanthanide-doped upconversion nanocrystals thulium-doped upconversion nanoparticles ii-vi semiconductor nanoparticles upconversion multicolor fine-tuning lanthanide-doped nayf4 nanoparticles ytterbium-doped cspbcl3 nanocrystals dual-photosensitizer photodynamic therapy nir dual-excitation upconversion rare earth micro/nanocrystals initiation-input-transduction nanoplatform based upconversion nanomaterials developing upconverting nanomaterials deep-tissue molecular imaging core-shell nanoparticles core- shell nanoparticles lanthanide doped nanomaterials target-modulated sensitizing switch laser-scanning multiphoton microscopy photonic upconversion nano-structure tm3+ nanoparticles excited core-shell nanostructure efficient dual-modal nir core/shell structures nir-ii imaging ratiometric semi-quantitative detection temporal full-colour tuning sensitized quantum cutting

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         headline:A mini-review on recent progress of new sensitizers for luminescence of lanthanide doped nanomaterials
         description:Trivalent lanthanide (Ln3+) doped luminescent nanocrystals are promising for applications ranging from biosensor, lasing, super-resolution nanoscopy, information security and so on. Although the utility prospect is of great attractions, the light absorption of these lanthanide doped nanocrystals is inherently weak due to the electric dipole-forbidden 4f → 4f transitions. Even worse, the quantum yields of upconverison nanocrystals are very low, which will unavoidably hinder their further applications. In a typical lanthanide luminescent nanosystem, both sensitizers as light absorption centers and activators as light emitting centers are necessary and important for desired luminescence properties. Among various sensitization systems, only Yb3+ and Nd3+ are considered as the most efficient sensitizers. Thus, the corresponding excitation wavelengths are strictly limited around 980 and 808 nm. To enrich excitation wavelengths and boost luminescence intensity, exploring more sensitization units that possess larger absorption cross section, higher efficiency of energy transfer process and independent excitation is imperative and beneficial for the demands of different applications, such as broadened absorption in near infrared (NIR) region for higher conversion efficiency of solar cells, prolonged excitation wavelength to second near infrared windows region (NIR II, 1,000–1,700 nm) for in vivo fluorescence imaging with deeper tissue depth and higher spatial resolution, more orthogonal excitations and emissions to improve optical multiplexing, and so on. Therefore, in the review, we primarily conclude several major energy transfer mechanisms from sensitizers to activators. Then we present three kinds of sensitizers, including lanthanide ions, organic dyes and quantum dots (QDs), and introduce the newly designed sensitization system that allows us to exploit superior excitation wavelength and amplify luminescence intensity. Finally, several future challenges and opportunities for the sensitizing strategies are discussed in hope of directing and broadening the applications of lanthanide nanosystem.
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      headline:A mini-review on recent progress of new sensitizers for luminescence of lanthanide doped nanomaterials
      description:Trivalent lanthanide (Ln3+) doped luminescent nanocrystals are promising for applications ranging from biosensor, lasing, super-resolution nanoscopy, information security and so on. Although the utility prospect is of great attractions, the light absorption of these lanthanide doped nanocrystals is inherently weak due to the electric dipole-forbidden 4f → 4f transitions. Even worse, the quantum yields of upconverison nanocrystals are very low, which will unavoidably hinder their further applications. In a typical lanthanide luminescent nanosystem, both sensitizers as light absorption centers and activators as light emitting centers are necessary and important for desired luminescence properties. Among various sensitization systems, only Yb3+ and Nd3+ are considered as the most efficient sensitizers. Thus, the corresponding excitation wavelengths are strictly limited around 980 and 808 nm. To enrich excitation wavelengths and boost luminescence intensity, exploring more sensitization units that possess larger absorption cross section, higher efficiency of energy transfer process and independent excitation is imperative and beneficial for the demands of different applications, such as broadened absorption in near infrared (NIR) region for higher conversion efficiency of solar cells, prolonged excitation wavelength to second near infrared windows region (NIR II, 1,000–1,700 nm) for in vivo fluorescence imaging with deeper tissue depth and higher spatial resolution, more orthogonal excitations and emissions to improve optical multiplexing, and so on. Therefore, in the review, we primarily conclude several major energy transfer mechanisms from sensitizers to activators. Then we present three kinds of sensitizers, including lanthanide ions, organic dyes and quantum dots (QDs), and introduce the newly designed sensitization system that allows us to exploit superior excitation wavelength and amplify luminescence intensity. Finally, several future challenges and opportunities for the sensitizing strategies are discussed in hope of directing and broadening the applications of lanthanide nanosystem.
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         Biomedicine
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