engineering

Nanotechnology & Nanoscale Physics

The science and engineering of matter at the nanoscale — nanoparticle synthesis kinetics, carbon nanotube mechanics, quantum dot confinement, molecular self-assembly, and nanofiltration membrane transport.

nanotechnologynanoparticlescarbon nanotubesquantum dotsself-assemblynanofiltrationnanoscience

Nanotechnology manipulates matter at the scale of 1–100 nanometers, where quantum effects, surface energy, and molecular forces dominate over bulk properties. At this scale, gold turns red, carbon becomes stronger than steel, and semiconductors emit tunable light. These phenomena enable revolutionary applications from targeted drug delivery to water purification.

These simulations let you control nanoparticle nucleation and growth, explore carbon nanotube mechanical properties, tune quantum dot emission spectra, observe molecular self-assembly, and model nanofiltration membrane performance — all with real-time interactive parameters grounded in nanoscale physics.

5 interactive simulations

simulator

Carbon Nanotube Mechanics & Properties

Simulate carbon nanotube mechanical behavior — explore how diameter, chirality, number of walls, and applied strain govern stiffness, strength, and buckling

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Nanofiltration Membrane Transport

Simulate nanofiltration membrane performance — explore how pore size, pressure, solute radius, and membrane thickness govern rejection rate and permeate flux

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Nanoparticle Synthesis & Nucleation Kinetics

Simulate nanoparticle nucleation and growth — explore how supersaturation, temperature, surface energy, and reaction time govern particle size distribution

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Quantum Dot Confinement & Emission

Simulate quantum dot optical properties — explore how dot radius, material band gap, effective mass, and temperature control emission wavelength and color

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Molecular Self-Assembly & Pattern Formation

Simulate molecular self-assembly — explore how interaction strength, concentration, temperature, and molecular geometry drive spontaneous pattern formation at the nanoscale