Explore our curated collection of technical resources, application notes, and educational content.
Discover how the Semplor NANOS tabletop SEM and integrated EDS enable rapid iron ore characterization, including mineral phase identification, particle size analysis, and Fe-phase liberation quantification.
Functietitel: Mechatronica-technicus Locatie: Eindhoven, Nederland Bedrijf: Semplor Over ons Semplor is een toonaangevende innovator op het gebied van elektronenmicroscopietechnologie, gespecialiseerd in tafelmodel scanning-elektronenmicroscopen (SEM’s). Onze geavanceerde SEM-oplossingen zijn ontworpen om
Job Title: Application Specialist Location: Eindhoven, Netherlands Company: Semplor About Us: Semplor is a leading innovator in electron microscopy technology, specialized in tabletop Scanning Electron Microscopes (SEMs). Our cutting-edge SEM
Scanning Electron Microscopy (SEM) is a powerful tool in forensic diatom analysis, enabling high-resolution imaging and species identification to support drowning investigations. By analyzing diatom frustules with SEM, forensic scientists can link biological evidence to specific water sources, improve detection sensitivity, and strengthen conclusions in medico-legal cases.
Scanning electron microscopy reveals the complex fibre network and surface morphology of handcrafted paper. Using low- and high-vacuum SEM imaging combined with EDS, fibre structure, porosity, and elemental composition are analyzed to better understand material quality and manufacturing characteristics.
Advanced automotive coatings require precise analysis for quality control, failure investigation, and durability assessment. Using high-resolution tabletop SEM imaging and integrated EDS, the Semplor NANOS enables detailed evaluation of coating morphology, layer structure, elemental composition, and defects—directly within automotive production and R&D environments.
High-resolution tabletop SEM imaging reveals the porous microstructure of nylon polymers. Using low-vacuum BSD imaging and quantitative pore analysis, fibre networks and pore size distributions are measured to understand permeability, filtration performance, and material behavior in industrial applications.
Scanning Electron Microscopy (SEM) plays a critical role in the development, quality assurance, and failure analysis of medical stents. High-resolution imaging combined with BSD, SED, and EDS enables detailed evaluation of surface morphology, material composition, drug coatings, and structural integrity in both metallic and bioresorbable stent designs.
Crystalline rock analysis using multi-segment BSE detection enables simultaneous mineral identification and three-dimensional surface reconstruction. By combining atomic number contrast with directional BSE signals, this approach delivers rapid compositional mapping and quantitative topographic measurements in a single SEM acquisition, supporting advanced geological and materials characterization.
LiCoO2 particle analysis reveals how cathode particle size distribution directly impacts battery performance. This SEM characterization examines bimodal distributions in lithium cobalt oxide materials, demonstrating the relationship between particle morphology and electrochemical behavior in lithium-ion batteries.
