Reprint

Bionic Recognition and Biosensors: A Theme Issue in Honor of Professor Hong-Yuan Chen

Edited by
July 2024
688 pages
  • ISBN978-3-7258-1473-2 (Hardback)
  • ISBN978-3-7258-1474-9 (PDF)

This book is a reprint of the Special Issue Bionic Recognition and Biosensors: A Theme Issue in Honor of Professor Hong-Yuan Chen that was published in

Chemistry & Materials Science
Summary

Professor Hong-Yuan Chen is a full-time professor of analytical chemistry at Nanjing University, China. He graduated from Nanjing University in 1961 and became a professor in 1988. He worked as a visiting scholar at Mainz University from 1981 to 1984 and was elected to the Chinese Academy of Sciences in 2001. Professor Chen is well known as a pioneer in the field of electrochemistry and biosensors. He has authored numerous papers and reviews on chemical sensors, probes, labels, and bioassays; microchips, single-cell and single-particle imaging; and spectroscopic methods, including fluorescence and electrochemiluminescence imaging. Professor Chen also has experience in live cell analysis using microneedles, and his group first described microelectrodes in 1987. This work has been adopted in IUPAC. Professor Chen has published >1,100 papers with over >55000 citations and an h-index of 114. He received National Natural Science Award (2nd Class) from the Chinese Government (2007), the Scientific and Technological Progress Award from Ho Leung Hdo Lee Foundation (2007) and the Nature’s 2015 Lifetime Award for South China, among others. This Special Issue is dedicated to celebrating the career of Professor Hong-Yuan Chen in honor of his contributions to the fields of bionic recognition and biosensors.

Format
  • Hardback
License and Copyright
© 2024 by the authors; CC BY-NC-ND license
Keywords
droplet microfluidics; single cells; cell signaling profiling; high spatiotemporal resolution; layered double hydroxide nanoflowers; immunochromatography test strip; hydrophobic CdSe/ZnS QDs; human chorionic gonadotropin; electrochemical biosensor; aptamer; AuNPs/Ti3C2-MXenes; cardiac troponin I; myoglobin; acute myocardial infarction; hybrid chain reaction; CRISPR-Cas9; saxitoxin; fluorescent detection; cataluminescence; MOFs; structural evaluation; specific area; electrochemical analysis; electrochemical sensor; platinum electrode; glassy carbon electrode; gold electrode; chloride quantification; bromide quantification; amperometry; seawater; molybdenum disulfide; nanozyme; neuron-specific enolase; electrochemical immunosensor; detection; Framework Nucleic Acids (FNAs); DNAzyme; metal ions; intracellular imaging; flow cytometry; biomolecular recognition; DNA technology; spatial pattern; biosensing; targeted therapy; aptasensor; antibiotics residue; seafood; sulfonamides; visual detection; diabetes mellitus; bioelectronics; electrochemical sensor; exosomes; electrochemistry; cyclic enzyme scission; hybridization chain reaction; biomolecules detection; mass spectrometry; biosensors; biometrics; clinical mass spectrometry; ambient ionization mass spectrometry; electrochemiluminescence; frameworks; biosensing; nanoemitters; epigenetic modifications; electrochemical biosensing; signal amplification; nanostructure modified electrodes; near-infrared spectroscopy; water structure; extra-cellular pH; intra-cellular pH; partial least squares regression; lily; fluorophores-assisted excitation-emission matrix fluorescence; alternating trilinear decomposition; chemometrics; fluorophores; surface-enhanced Raman scattering; detection; non-noble metal nanomaterials substrate; metal–organic frameworks (MOFs); glucose detection; synthesis; electrochemical sensor; optical sensor; wearable sensor; electrochemiluminescence; emitter; biosensing; imaging; protein biomarkers; NIR-II fluorophore; multichannel biosensing; spectra-domain mode; lifetime-domain mode; fluorescence-lifetime mode; bimetallic AuAg nanoclusters; coordination; glutathione; NaBH4; magnesium ions; reactive oxygen species (ROS); nanozymes; electrochemistry sensor; detection; biological objects; DNA; inorganic nanoparticles; biosensing; biomedical; fumonisin B1; bipolar electrode-electrochemiluminescence; visualization; Zr-MOFs; electrochemical sensor; 1,10-phenanthroline-5,6-dione; NADH; Escherichia coli; rapid detection; Raman spectroscopy; SERS substrate; rational design; bioassays; high-sensitivity analysis; molecularly imprinted polymer; aptamer; multiple recognition; detection; health monitoring; sweat analysis; wearable device; sensing platform; non-invasive detection; quantum tunneling probe; nanogap width electrode; single-molecule detection; biosensor; interface; functionalization; electro-click; electrochemistry; tetrabromobisphenol A; MnO2; carbon paper; modified electrode; single-atom nanomaterial; electrochemical; sensor; electrochemical aptasensor; aptamer; biochemical analysis; disease diagnosis; optical nanostructure; plasmonics; surface-enhanced spectroscopy; sensing; miniaturization; artificial transmembrane channel; DNA nanostructure; biosensing; biomedical application; bionic recognition; MIPs; aptamers; diabetic nephropathy; biomarkers; electrochemiluminescence; detection and imaging; single-cell analysis; biomolecules; high sensitivity

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