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Min Bai

Researcher at Xi'an Jiaotong University

Publications -  30
Citations -  719

Min Bai is an academic researcher from Xi'an Jiaotong University. The author has contributed to research in topics: DNA & RNA. The author has an hindex of 12, co-authored 26 publications receiving 431 citations.

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Sol-Gel Synthesis of Metal-Phenolic Coordination Spheres and Their Derived Carbon Composites.

TL;DR: A formaldehyde-assisted metal-ligand crosslinking strategy is used for the synthesis of metal-phenolic coordination spheres based on sol-gel chemistry and can be used as sensors for the analysis of nucleic acid variants with single-nucleotide discrimination, and a versatile precursor for electrode materials with high electrocatalytic performance.
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Fabricating MnO2 Nanozymes as Intracellular Catalytic DNA Circuit Generators for Versatile Imaging of Base-Excision Repair in Living Cells

TL;DR: The MnO2 nanosheet/DNAzyme (nanozyme) is fabricated as intracellular catalytic DNA circuit generator for high signal amplification and its operation is reported for monitoring DNA base‐excision repair (BER) in living cells with improved performance.
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Programming Enzyme-Initiated Autonomous DNAzyme Nanodevices in Living Cells

TL;DR: A generic method for programming assembly of enzyme-initiated DNAzyme nanodevices (DzNanos) that can monitor enzyme catalysis in situ but also will enable the implementation of cellular stages, behaviors, and pathways for basic science, diagnostic, and therapeutic applications as genetic circuits.
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Green in Situ Synthesis of Clean 3D Chestnutlike Ag/WO3–x Nanostructures for Highly Efficient, Recyclable and Sensitive SERS Sensing

TL;DR: A clean, stable, and recyclable three-dimensional (3D) chestnutlike Ag/WO3-x (0 < x < 0.28) SERS substrate is developed, which combines the SERS enhancement effect and self-cleaning property, making it a multifunctional and reusable SERS platform for highly sensitive SERS detection.
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Intracellular Entropy-Driven Multi-Bit DNA Computing for Tumor Progression Discrimination

TL;DR: Intacellular entropy-driven multivalent DNA circuits to implement multi-bit computing for simultaneous analysis of intracellular telomerase, and microRNAs includingmiR-21 and miR-31 are reported.