Preparation and characterization of 0D Au NPs@3D BiOI nanoflower/2D NiO nanosheet array heterostructures and their application as a self-powered photoelectrochemical biosensing platform

Abstract

SPR enhanced self-powered PEC sensing platform for glucose detection.

Transparent conductive oxides in photoanodes for solar water oxidation

“…In addition, the hybrid structure formed by coating active photocatalysts on nanoscale TCOs was also discussed, highlighting its favorable band structures for visible light absorption while relying on TCOs for improved charge separation and transfer, thus improving the performance of solar water oxidation. The development of nanoscale TCOs might inspire a series of applications in optoelectronics, 87 sensors, 88 photocatalysts, 89 materials sciences 90 and more. [91][92][93]…”

Integrating Near-Infrared Visual Fluorescence with a Photoelectrochemical Sensing System for Dual Readout Detection of Biomolecules

“…), and they have opposite characteristics. − p-Type semiconductors are the inverse of n-type semiconductors, which have holes as the major carriers, whereas n-type semiconductors have electrons as their major conductivity carriers. − Because electrons are the major carriers for n-type semiconductors, the reductive agents (e.g., dopamine, ascorbic acid, etc. ) would compete with electron donors and be absorbed on the surface of the sensing electrode, which would result in inaccurate signals; however, p-type semiconductors would overcome the drawbacks of n-type semiconductors (photoanode) because of its hole conduction characteristics. Hence, for the construction of a PEC immunosensor, the p-type semiconductor is more suitable.…”

“…12−14 Because electrons are the major carriers for ntype semiconductors, the reductive agents (e.g., dopamine, ascorbic acid, etc.) 15 would compete with electron donors and be absorbed on the surface of the sensing electrode, which would result in inaccurate signals; however, p-type semiconductors would overcome the drawbacks of n-type semiconductors (photoanode) 14 because of its hole conduction characteristics. Hence, for the construction of a PEC immunosensor, the p-type semiconductor is more suitable.…”

Electron Acceptors Co-Regulated Self-Powered Photoelectrochemical Strategy and Its Application for Circulating Tumor Nucleic Acid Detection Coupled with Recombinase Polymerase Amplification

“…Several related studies are focused on the enhancement of self-powered PEC performance by materials strategies achieved by compounding multiple-functional nanomaterials . For example, Han et al developed a self-powered PEC biosensor based on a Au@BiOI/NiO heterostructure . Tian et al, combined an n-type cobalt phosphide double-shelled hollow nanocage with p-type Cu 2 O to develop a self-powered photoelectrogenic cathode and applied it for glucose detection .…”

“…13 For example, Han et al developed a self-powered PEC biosensor based on a Au@ BiOI/NiO heterostructure. 14 Tian et al, combined an n-type cobalt phosphide double-shelled hollow nanocage with p-type Cu 2 O to develop a self-powered photoelectrogenic cathode and applied it for glucose detection. 15 Çakıroglu et al modified supercapacitor carbon nanotubes and Co 3 O 4 onto the anatase TiO 2 -coated indium tin oxide electrodes to construct a selfpowered PEC biosensor for detection of glucose.…”