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Inorganic PLMs with stable, potent and super-long PL were formed via effective traps esgo 2021 strong emitters. To overcome the low dispersibility and biocompatibility and esgo 2021 complexity of production, organic PLMs, consisting of purely small esgo 2021 and polymers PLMs, have been investigated.

Considering the advantages of eliminating the esgo 2021 situ excitation, PLMs exhibit sinuses potential for bioimaging with super-long decay time and high SNR. Nevertheless, owing to the long reading window provided by the PL property, PLMs also possess great potential in informational technologies, such as data storage esgo 2021 anti-counterfeiting.

However, for the more convenient applications of PLMs, there are still esgo 2021 problems need to be solved. Firstly, achieving long and strong PL synchronously poses a major challenge, because strong PL requires high esgo 2021 decay rate at the cost of a short PL.

To address this problem, the radioactive decay rate needs to be esgo 2021 and the excitation transformation needs to be sufficiently efficient. However, neither of these can be realized experimentally. Secondly, for the esgo 2021 efficient application in bioimaging, the stable PL of inorganic or organic PLNPs in aqueous solution is essential.

In addition, the color range needs to be broadened, because esgo 2021 visible lights are beneficial in informational applications, and efficient excitation and emission wavelengths in NIR are favorable in biomedical applications. In conclusion, a thorough interdisciplinary understanding of chemistry, materials science, biomedicine, and information technology is required for the breakthroughs and improvements of PLMs.

This emerging and promising interdisciplinary understanding of these disciplines further promotes the application of PLMs in all fields of human society. HT, CY, and LH designed and wrote the manuscript. TW and YS provided comments and helped in finalizing the manuscript.

All authors reviewed the final version of the manuscript and approved it for publication. Room-temperature phosphorescence from films of isolated water-soluble conjugated polymers in hydrogen-bonded matrices. Stabilizing esgo 2021 excited states for ultralong organic phosphorescence. New up-conversion charging concept for effectively charging persistent phosphors using low-energy visible-light laser diodes.

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Characterization and properties of a red and orange Y2O2S-based long afterglow phosphor. Hydrothermal and biomineralization synthesis of a dual-modal nanoprobe for targeted near-infared persistent luminescence and magnetic resonance imaging.

Bright persistent luminescence from pure organic molecules through a moderate intermolecular heavy atom effect. Long-afterglow metal-organic frameworks: reversible guest-induced phosphorescence tunability. Strongly Enhanced Long-Lived Persistent Room Temperature Phosphorescence Based on the Formation of Metal-Organic Hybrids.

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Persistent luminescent nanocarrier as an accurate tracker in vivo for near brain right selectively triggered photothermal therapy.



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