Molecular Modeling of Carbon Nanotube Interfaces

Nanotechnology and chemical engineering converge at the molecular level, where understanding atomic interactions is key to developing next-generation devices. This course introduces you to the principles of simulating nanoscale molecular complexes, focusing on how polar molecules like water interact with carbon nanotube tips. You will transition from understanding basic chemical structures to analyzing complex nanoscale systems. Through clear written explanations, you will learn how to evaluate hydrogen bonding networks, study electronic states, and understand the mechanisms behind enhanced field-emission currents. What you'll learn: Understand the fundamental physics of carbon nanostructures and their unique surface properties; Model hydrogen-bonded complexes at nanoscale interfaces using modern simulation concepts; Analyze molecular orbitals to predict electrical and chemical behavior; Explore density functional theory basics and modern computational workflows for nanomaterials; Evaluate how polar molecules influence charge transfer at nanotube tips. The course begins with essential terminology and foundational definitions before guiding you through the logic of quantum chemical calculations and molecular modeling. Designed for beginners in chemical engineering, chemistry, and materials science, this course requires no prior simulation experience. Begin your journey into computational nanotechnology and master the fundamentals of molecular interfaces today.