Nanotechnology to Enhance Electron Transfer

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Explores amperometric detection principles, focusing on DNA indirect detection through redox reactions.

Details the measurement of Young's modulus in a carbon nanotube.

Explores redox reactions, electrode potentials, and their practical uses in electrochemistry.

Delves into NanoBioengineering for optical sensors using SWCNTs and DNA evolution to enhance sensor performance and specificity.

Explores scanning probe microscopy fundamentals, tip types, and AFM modes for nanoscale imaging and manipulation.

Explores the fabrication of AFM tips and cantilevers, including tip sharpening, thermal oxidation, and the use of carbon nanotubes as probes.

Explores electrochemistry principles, redox reactions, standard potential, and electrolysis applications.

Explores principles and applications of tomography, including 3D microscopy techniques and atomic-level material reconstruction.

Explores oxidation, reduction, redox reactions, Nernst equation, redox potential calculation, and pe-pH stability diagrams.

Explores the evolution and applications of MEMS technology, emphasizing real-world case studies and future prospects in nanotechnology.