Quartz glass wafers are widely used in semiconductors, optics, micro/nano-fabrication, and optical communications. Due to the extremely high requirements for processing precision, surface quality, and optical and thermal properties, every step—from material selection, processing, cleaning, inspection, to packagin

Quartz glass and borosilicate glass—particularly in forms such as Quartz glass wafers and BOROFLOAT® 33 wafers—exhibit substantial differences in chemical composition, physical properties, and application scope. The following provides a systematic comparison based on composition, performance characteris

In the realm of modern precision optics and semiconductor manufacturing, the demand for optical materials with exceptional purity, broad spectral transmission, and thermal stability is ever-increasing. JGS1 Quartz Glass, a high-purity synthetic fused silica produced via flame fusion, is specifically engineered for deep

In the field of optical materials, fused quartz glass is highly valued for its exceptional purity, chemical stability, and wide spectral transmission range. Within the Chinese optical glass classification system, quartz glass is commonly divided into three major categories: JGS1, JGS2, and JGS3.
These designations refl

In advanced optical systems, laser technologies, and semiconductor processing, material selection is critical to ensure performance, reliability, and longevity. JGS2 Quartz, a type of high-purity fused quartz glass, offers excellent optical transparency, thermal stability, and chemical resistance—making it a top

In the world of high-performance electronics and optoelectronics, quartz wafers play a vital yet often overlooked role. Whether in RF filters, MEMS devices, or advanced optical systems, this high-purity silicon dioxide material supports modern technologies with its exceptional thermal stability, electrical insulation,

In the fast-paced world of semiconductors and optoelectronics, few materials are as ubiquitous yet underappreciated as quartz wafers. From mobile communication systems to precision instruments and MEMS devices to laser optics, quartz wafers quietly serve as the foundation for numerous advanced technologies.What Is a Qu

As one of the most promising third-generation semiconductor materials, Silicon Carbide (SiC) is rapidly gaining traction in the power electronics industry due to its outstanding electrical and thermal properties. A critical step in the fabrication of SiC-based devices is the growth and selection of the epitaxial layer,

Among third-generation semiconductor materials, Silicon Carbide (SiC) stands out for its exceptional properties, including a wide bandgap, high breakdown electric field, and excellent thermal conductivity. SiC devices are gradually reshaping the power electronics landscape—from electric vehicles to high-voltage c

Silicon carbide (SiC) epitaxial growth plays a pivotal role in the production of high-performance electronic devices, particularly SiC epi/epitaxial wafers. This article delves into the significance of SiC epitaxial growth, the factors influencing the quality of SiC epitaxial layers, and the distinctions between homoge