In the fast-moving realm of advanced optoelectronic devices, control of material properties at the nanoscale is a decisive factor for performance and innovation. In the fast-moving realm of advanced optoelectronic devices, control of material properties at the nanoscale is a decisive factor for performance and innovation.

Spotting Molecular Excitons: Probing Organic Crystal Textures With Imaging Mueller Matrix Ellipsometry

Unlocking Advanced Material Insights With Imaging Spectroscopic Ellipsometry

Pushing The Limits: Deeper Insights In PFM and a New Dimension In MFM

Imaging Forbidden Light: Nano-Spectroscopy Of Polaritons In 2d Oxide Membranes

Utilizing High-Throughput and High-Resolution Automated 3d-AFM For CD Measurement and Trench Sidewall Characterization

Probing Surfaces In Realistic Conditions: AFM In Controlled Atmospheric Environments

Nanopatterning On 2d Materials: A Case Study On Graphene By AFM-Based Nanolithography

Charge-Transfer Polaritons In Van Der Waals Heterojunctions: Unlocking New Frontiers In Graphene Plasmonics

NanoScientific Highlights Strong Growth in Atomic Force Microscopy (AFM) Market, with Park Systems Recognized as the Global Leader