Sintering Y₂O₃, YAG, and Al₂O₃ Plasma-Resistant Ceramics for Semiconductor Chamber Parts
Learn how high-temperature furnaces support Y2O3, YAG, and Al2O3 ceramic sintering for plasma-resistant semiconductor chamber components.
Application notes, case studies, and technical guides from SH Scientific on lab furnaces, rotary kilns, autoclaves, and thermal processing.
26 articles
Learn how high-temperature furnaces support Y2O3, YAG, and Al2O3 ceramic sintering for plasma-resistant semiconductor chamber components.
A Practical Thermal Pathway Using Calcination and Graphitization The demand for high-purity graphite continues…
A Vacuum Tube Furnace uses a cylindrical tube, often made of quartz or alumina, as the heating c…
Real-World Performance: SH Scientific’s Large-Capacity High-Vacuum Muffle Furnace: To provide the scientific community with reliable, real-world benchmarks…
Many labs struggle with scaling experiments while maintaining the same hig…
Their tube furnaces provided a deep vacuum but could only handle coin cell…
Enhance anode production efficiency with precise temperature control using SH Scientific’s High-Temperature Muffle Furnace. Ideal for achieving high-quality results in aluminum manufacturing.
The SH Scientific High-Temperature Muffle Furnace is specifical…
Temperature uniformity is of the utmost importance as you're comparing furnace models. For some applications, it's arguably the single most critical factor.
For teams that handle corrosive byproducts, we've developed a first-of-its-kind quartz-chamber muffle furnace.
Our vertical tube furnaces offer superior thermal management and atmospheric control, enabling research on methane pyrolysis for blue hydrogen production.
LK–99 production is a delicate and low-yield process. We were excited to learn that the team used an SH Scientific muffle furnace for the first step described in the process.
Below are a few (of many) noteworthy projects that we’re eager to highlight.