Explore how scientists use PMMA thin films and spectroscopic ellipsometry to study materials thinner than a human hair that power modern technology.
Explore how near-field spectroscopy breaks the diffraction limit to reveal nanoscale chemical and physical properties through evanescent field analysis.
Explore how multilayer nanoengineering and layer-by-layer assembly techniques are revolutionizing opto-chemical probes for environmental monitoring, medical diagnostics, and food safety.
Discover how controlling the spatial orientation of polymer chains is revolutionizing flexible electronics and enabling faster, more efficient devices.
Discover how a novel molecularly imprinted sensor detects dimethoate pesticide in apple juice with unprecedented accuracy and sensitivity.
Discover how Plasma-Enhanced Atomic Layer Deposition enables perfect atomic coatings on graphene while preserving its extraordinary properties for next-generation electronics.
Discover how scientists use Raman spectroscopy to transform montmorillonite clay with molecular glue, creating smart materials for environmental cleanup and drug delivery.
Discover how Perylene Bisimide dimers' self-assembly unlocks revolutionary materials for solar cells, sensors, and optoelectronics through NMR and UV/Vis spectroscopy.
Discover how quasi-near field terahertz spectroscopy revolutionizes molecular fingerprint detection with unprecedented sensitivity and resolution.
How artificial neural networks are revolutionizing nanoparticle shape classification and enabling breakthroughs in nanomedicine, quantum computing, and materials science.