Core Applications
Wear, corrosion, coating adhesion; also cells, bone, and implant surfaces—cross-domain sample characterization.

Functionalized Polymer Film: 50 nm – 500 nm, Film thickness directly affects biomolecule binding efficiency and sensor sensitivity; real-time monitoring ensures batch-to-batch consistency of protein immobilization.
Biodegradable Polymer Drug-Loaded Film: 1 μm – 50 μm, Thickness precisely governs drug release rate and duration; in-line metrology enables closed-loop control of coating uniformity for personalized therapeutics.
Hydrogel Thin Film: 10 μm – 200 μm, Film thickness modulates cell infiltration depth and nutrient diffusion kinetics; non-destructive thickness measurement supports quality control of 3D culture scaffolds.
Wear, corrosion, coating adhesion; also cells, bone, and implant surfaces—cross-domain sample characterization.
Laser scanning confocal microscopy (LSCM) overcomes low resolution and blur of conventional microscopes—fit for precision research.
With LSCM resolution and optical sectioning, scan layer by layer and reconstruct microstructures without damaging sample integrity.
Delivers key micro-morphology data for materials R&D and 3D cell/tissue structure for biomedicine—driving deeper interdisciplinary research.
High-res imaging captures surface micro-morphology—a core tool for materials science and biomedical work.

Functionalized polymer films are typically 50–500 nm. Thickness changes biomolecule binding efficiency and sensor sensitivity, so real-time monitoring is used to keep protein immobilization consistent from batch to batch.
Drug-loaded biodegradable films in the 1–50 µm range govern release rate and duration. In-line uniformity metrology enables closed-loop coating control for personalized therapeutics instead of discovering a wrong dose profile after the coating is done.
Hydrogel films are typically 10–200 µm. Thickness modulates cell infiltration depth and nutrient diffusion. Non-destructive measurement supports QC of 3D culture scaffolds without cutting or staining the sample.
Laser scanning confocal microscopy (LSCM) provides optical sectioning and higher resolution than conventional microscopes. Layer-by-layer scans reconstruct wear, corrosion, coating adhesion, cell, bone and implant surfaces without damaging the specimen—data used in both materials R&D and biomedical structure studies.