Design of the nanoarray pattern Fe–Ni bi-metal nanoparticles@M13 virus for the enhanced reduction of p-chloronitrobenzene through the micro-electrolysis effect

Abstract

Novel M13 virus-supported nanoarray patterns of bi-metal nanoparticles (NPs) were designed, synthesized and used for the enhanced reduction of p-chloronitrobenzene (p-CNB) based on the micro-electrolysis effect.

Enhanced CO2 Electrolysis Through Mn Substitution Coupled with Ni Exsolution in Lanthanum Calcium Titanate Electrodes

“…The research dataunderpinning this publication can be accessed at https://doi.org/10.17630/6f2acc8f-95ed-47d3-b218-71358b06503e. [45]…”

Designing M13 Bacteriophage and Fe-Nanonest Self-Assembly System for Universal and Facile Preparation of Metal Single Atoms as Stable Mimicking Enzymes

“…determined the adsorption of different metal ions on an M13 phage and demonstrated that increasing the electronegativity of the pVIII protein can further increase the adsorption of metal ions on the M13 phage . These structure features have enabled the M13 virus to be great templates for different applications, such as nanowire synthesis, energy development, pollutant degradation, biomedicine preparation, and biosensors. − Thus, we continuously focused on the varied binding specificity of the pVIII peptides toward different metal cations and further explored their applications based on the M13 phage in mimic-free-enzyme and pollution treatment. ,, …”

“…38−46 Thus, we continuously focused on the varied binding specificity of the pVIII peptides toward different metal cations and further explored their applications based on the M13 phage in mimic-free-enzyme and pollution treatment. 42,44,45 In this paper, a method for mild, universal, and convenient MSA self-assembled synthesis was developed using the delicate M13 virus as a biotemplate. Based on the highly dispersed pVIII peptides and their extremely strong binding specificity toward Fe 2+ , we creatively designed a universal route to fabricate different MSAs such as Ag, Pt, Pd, Zn, Cu, and Ni under mild conditions.…”

Development of Unconventional Nano‐Metamaterials from Viral Nano‐Building Blocks

“…[ 11 ] In a simplified analogy, modular viral building molecules are similar to LEGO blocks that fit together in a unique way, which can then be used to design complex architectures in terms of both structure and function. Due to these unique properties, M13 bacteriophage has been explored for various functional devices and applications ranging from catalysts to energy harvesting devices, engineering sophisticated functional helical‐twisted structures [ 12 ] and labels in imaging‐based diagnosis, [ 13 ] through photovoltaics, [ 14 ] and onto biological imaging. [ 15 ] While M13‐based scaffolds have been investigated for directing the assembly of nanoparticles at specific molecular binding sites, for molecular‐fuel machines [ 16 ] and nanostructures for drug delivery, [ 17 ] the potential for quasi 3D viral nanotemplates for the synthesis of inorganic materials still remains mainly untapped.…”