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Plasmonic hole ejection involved in plasmon-induced charge separation

机译:等离子体孔喷射涉及等离子体诱导的电荷分离

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摘要

Since the finding of plasmon-induced charge separation (PICS) at the interface between a plasmonic metal nanoparticle and a semiconductor, which has been applied to photovoltaics including photodetectors, photocatalysis including water splitting, sensors and data storage in the visible/near-infrared ranges, injection of hot electrons (energetic electrons) into semiconductors has attracted attention almost exclusively. However, it has recently been found that behaviours of holes are also important. In this review, studies on the hot hole ejection from plasmonic nanoparticles are described comprehensively. Hole ejection from plasmonic nanoparticles on electron transport materials including n-type semiconductors allows oxidation reactions to take place at more positive potentials than those involved in a charge accumulation mechanism. Site-selective oxidation is also one of the characteristics of the hole ejection and is applied to photoinduced nanofabrication beyond the diffraction limit. Hole injection into hole transport materials including p-type semiconductors (HTMs) in solid-state cells, hole ejection through a HTM for stabilization of holes, hole ejection to a HTM for efficient hot electron ejection, voltage up-conversion by the use of hot carriers and electrochemically assisted hole ejection are also described.
机译:由于在等离子体金属纳米粒子和半导体之间的界面处发现了等离子体诱导的电荷分离(PIC),该界面在具有光伏包括光电致电压的光电致电压,光催化,包括水分裂,传感器和可见/近红外线范围内的数据存储,将热电子(能量电子)注入半导体几乎完全引起了注意力。然而,最近发现孔的行为也很重要。在本文中,全面描述了对来自等离子体纳米颗粒的热孔喷射的研究。来自包括n型半导体的电子传输材料上的等离子体纳米颗粒的孔喷射允许在比参与电荷积累机制的那些更积极的电位下进行氧化反应。位点选择性氧化也是孔喷射的特性之一,并且应用于超出衍射极限的光致纳米制剂。空穴注入到固态电池中包括p型半导体(HTMS)的空穴传输材料,通过HTM的孔喷射用于稳定孔,孔喷射到HTM的HTM用于有效的热电子喷射,电压上的电压通过使用热还描述了载体和电化学辅助孔喷射。

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