Blogs

Abstract: As OLED displays scale to larger formats, the cost of the transparent electrode becomes a critical bottleneck. This article maps the practical engineering strategies for cost reduction across three material fronts: pushing incumbent ITO to its efficiency limits, integrating novel silver alloy anodes, and evaluating the readiness of next-generation TCO alternatives. We provide a decision...

An Overview of Magnetron Sputtering Magnetron sputtering, a physical vapor deposition (PVD) process, is a main thin film deposition method for manufacturing semiconductors, disk drives, CDs, and optical devices. Magnetron sputtering has the advantages of high speed, low temperature, and low damage. In this article, let’s take a look at the definition, working principle, and...

Back in 2019, we published a guide comparing platinum and gold rings. It quickly became one of our most-read articles, helping readers make informed choices about their wedding jewelry. But times have changed — and so have the reasons behind choosing one metal over the other. If you’re shopping in 2026, here’s what actually matters....

Abstract: The divergence in memory architecture between DRAM and 3D NAND Flash presents unique thin-film deposition challenges, directly impacting cost and performance. This article dissects the critical PVD target strategies for both technologies: the pursuit of seamless, high-aspect-ratio fill for DRAM capacitors, and the battle for conformal step coverage in 3D NAND’s towering staircases. We...

Introduction Chemical Vapor Deposition (CVD) might sound like an obscure lab technique, but it’s the invisible engine behind modern technology. It’s what makes your smartphone processor faster, your new sunglasses more scratch-resistant, and a jet engine withstand infernal temperatures. In essence, CVD is the art of turning a gas into a perfect solid coating, and...

Client: A leading thin-film deposition research facility Challenge: Uncertainty in preconditioning and operating a non-conductive IGZO sputtering target on a specific indirect-cooled cathode system. Solution: Stanford Advanced Materials provided detailed, system-aware technical guidance, bridging material science and equipment engineering. Result: Enabled the client to establish a safe, effective, and stable deposition process, preventing target damage and ensuring consistent film...