This phenomenon is known as localiz

This phenomenon is known as localized surface plasmon resonance (LSPR) and is the origin of the strong absorption/scattering of incident light by NPs such as those composed of gold (Au NPs). LSPR decays both radiatively and nonradiatively. The former plays a key role in the plasmonic enhancement of the electric field in the near-field regime, whereas the latter is responsible for generating hot electrons with very high kinetic energies, which eventually contribute to particle heating. Hot electrons generated in semiconductor-plasmonic nanostructure (NS) composites have been shown to play a central role in increasing the efficiency of solar energy conversion because of the ability to tune the wavelength over a wide resonance in the visible-to-near-infrared (NIR) region by controlling the physical shape of the NPs.

結果 (繁體中文) 1:

這種現象被稱為局部表面等離子體共振（LSPR），並且是強吸收的起源/由NPS諸如金（金納米粒子）組成的散射入射光。

LSPR衰減都對輻射和無輻射。前者戲劇在近場區域的電場的等離激元增強了關鍵作用，而後者則是負責與非常高的動能，最終促成粒子加熱產生熱電子。在半導體的等離子體激元納米結構（NS）的複合材料中產生熱電子已被證明在提高的，因為能夠調整的波長上在可見光至近紅外的寬共振（太陽能轉換的效率發揮中心作用NIR）通過控制納米顆粒的物理形狀的區域。

結果 (繁體中文) 2:

擁抱我。

結果 (繁體中文) 3:

這種現象被稱為局域表面电浆共振（LSPR），是由金（Au-np）等np對入射光的强吸收/散射的根源。
LSPR輻射性和非輻射性衰减。前者在近場电浆增强電場中起著關鍵作用，而後者則負責產生具有極高動能的熱電子，最終導致粒子加熱。電晶體电浆納米結構（NS）複合材料中產生的熱電子被證明在提高太陽能轉換效率方面起著中心作用，因為它能够通過控制np的物理形狀，在可見光到近紅外（NIR）區域的寬共振範圍內調節波長。