The field of quantum materials has seen tremendous growth, especially in quantum computing, photonics, and optoelectronics. Among the most promising materials are doped II-VI nanocrystals, which possess unique electronic and optical properties that are highly sought after for next-generation technologies. These materials are engineered at the atomic scale to control their electrical and optical behaviour, […]
As the demand for advanced energy storage systems continues to soar, researchers and engineers are increasingly turning to cutting-edge deposition technologies to optimize battery performance. One such innovation is the Hybrid Molecular Beam Epitaxy (MBE) Source for advanced battery electrode deposition. This hybrid approach is a game-changer for the design, fabrication, and enhancement of electrode
Hybrid MBE Source for Advanced Battery Electrode Deposition Read More »
Imagine a world where electricity flows without resistance, powering everything from quantum computers to futuristic transportation systems. High-temperature superconductors (HTS) are making this vision a reality, and they’re set to change the game in ways we never thought possible! By enabling electricity to flow without resistance at higher temperatures than traditional superconductors, HTS are transforming
High-Temperature Superconductors Shaping the Future of Quantum Materials Read More »
Plasmonics, the study of light interacting with free electrons on metal surfaces, has become an essential tool for advancing quantum technologies. By exploiting the unique properties of plasmonic materials, typically metals such as gold, silver, and copper, researchers have opened new avenues for improving the sensitivity, precision, and capabilities of quantum systems. In particular, the
Plasmonic Interactions in Quantum Sensing Materials Read More »
Surface-Enhanced Raman Scattering (SERS) has rapidly gained recognition as a groundbreaking biosensing technique, enabling the accurate, rapid, and non-invasive detection of diseases, pathogens, and environmental toxins. By significantly amplifying Raman signals through nanomaterials, SERS makes it possible to detect trace amounts of biological analytes, positioning it as a leading method for medical diagnostics, food safety,
Electron Beam Evaporation (E-Beam Evaporation) is a precise Physical Vapor Deposition (PVD) process used for applying high-density, thin coatings to substrates. E-Beam Evaporation operates under high vacuum conditions and employs a focused electron beam to evaporate the coating material (source material), which is then deposited onto a substrate.[1] This deposition method is essential for industries
Powder coating has become a preferred method for enhancing functionality and applying durable finishes to a variety of substrates, from automotive components to industrial machinery. However, the latest advancements in PVD (Physical Vapor Deposition) technology are transforming the way we think about coating processes. This innovative approach not only improves the quality and precision of
The Benefits of PVD for Chemical-Free Powder Coatings Read More »
In today’s race for faster, more efficient semiconductors and advanced electronic materials, true innovation begins at the atomic scale. Whether it’s next-generation optoelectronics, wide-bandgap power devices, or quantum materials, the performance of these technologies depends on the precision and purity of their thin-film layers. The RF (Radio Frequency) Atom Source has become a pivotal component
RF Atom Sources for UHV Epitaxy of Oxides & III-V Nitrides Read More »
Image courtesy: Lift off process using E-beam deposition (adapted from Eschimese, D., Vaurette, F., Troadec, D., Leveque, G., Melin, T., and Arscott, S., “Size and shape control of a variety of metallic nanostructures using tilted, rotating evaporation and lithographic lift-off techniques,” Scientific Reports, 9, 14058, 2019, DOI: https://www.nature.com/articles/s41598-019-44074-w The lift-off process is one of the
Lift-Off Process for Nanoscale Devices Using E-Beam Deposition Read More »
Thin films are at the heart of modern technology, used in everything from semiconductor devices to optical coatings and protective layers. Magnetron-based thin film deposition is one of the most effective methods for producing high-quality coatings with exceptional uniformity, adhesion, and material control. By utilizing plasma to transfer material from a target onto a substrate,
A practical guide to magnetron-based thin film deposition Read More »
