The GED series silane metal impurity sampling and preparation system features explosion-proof, ultra-clean, and fully automated operation. Specifically designed for semiconductor-grade electronic specialty gases and high-purity gases, it sets new benchmarks for safety, accuracy, and efficiency. The system enables real-time sample collection and automatic preparation, with complete sample processing and information automatically synchronized to the ICP-MS workstation for analysis.

This paper will introduce the application of online gas chromatography (GC) system in silane analysis, and show how this technology can upgrade the production quality control by means of automation and intelligence, and provide more safe and efficient solutions for the industry.

Agilent Technologies has partnered with Shigao (Beijing) Intelligent Technology to develop an online gas chromatography system. Through intelligent deployment and installation of this system, it provides fluorine chemical enterprises with high-precision, highly stable, and fully automated QC monitoring solutions, enabling safe and efficient production.

While traditional labs still struggle with manual data entry and late-night report deadlines, smart labs now operate in 'lights-out' mode—unmanned, fully automated, and generating test reports in just 5 minutes! SHIGAO's' QC Smart Platform' redefines next-generation LIMS, boosting lab efficiency by 300%!

Nitrogen trifluoride (NF3) is an excellent plasma etching gas in the microelectronics industry. With its excellent etching rate and high selectivity, it plays a vital role in the plasma etching and chemical vapor deposition (CVD) cleaning process. With the development of nanotechnology and the large-scale development of electronics industry technology, its demand is increasing.

In modern semiconductor manufacturing, electronic specialty gases play a vital role. These gases are not only key materials in the production process, but also directly affect the performance and quality of chips. Today, we will talk about these "invisible" important roles and how to ensure their quality through advanced online automated analysis systems.

In order to enable all employees of the company to understand the basic knowledge of fire protection, improve safety awareness, enhance self-protection ability, master the response and escape skills for sudden safety accidents, learn to extinguish fires and orderly evacuate personnel and property to ensure the safety of employees' lives and company property, a full-staff safety fire drill training was organized on August 20.

Polysilicon is an important basic material for the semiconductor and solar photovoltaic industries. In the semiconductor field, polysilicon is the main raw material for wafers and is used to manufacture various chips, which has a vital impact on the performance and quality of semiconductor devices. At the same time, in the solar photovoltaic industry, polysilicon is the main raw material for solar cells and plays a decisive role in the efficiency and service life of photovoltaic cells.

The chlorosilane online impurity automatic analysis system independently developed and produced by SAGO Intelligent Technology has been successfully installed and deployed at the polysilicon production process sites of Xinte in Inner Mongolia, Lihao in Qinghai, and Yongxiang in Sichuan.

According to the relevant provisions of the national "Interim Measures for the Gradient Cultivation and Management of High-quality Small and Medium-sized Enterprises", Shigao (Beijing) Intelligent Technology Co., Ltd. successfully passed the Beijing "Specialized, Refined, Special and New" Small and Medium-sized Enterprise Certification.

Shigao Intelligent Laboratory Middle Platform, for researchers who deal with laboratories all year round, perhaps this formula is the easiest to explain:SAGO Intelligent laboratory platform = lims + robot control system

On August 11, the unveiling ceremony of Yulin Zhongke Clean Energy Innovation Institute was held in the auditorium of the institute.

Currently, there are two main types of solid dispensing modules used in chemical automation, and both rely on gravimetric dispensing: the first involves hopper/feeder modules, and the second involves volumetric modules.

Automation systems are typically composed of a collection of modules that are built or purchased to perform common laboratory tasks. Building such modules from individual components is the most flexible approach to automation, but at the expense of significant development and time investment to ensure adequate performance.

Automation has become increasingly popular among synthetic chemists over the past decade. Recent advances in robotics and computer science have led to the emergence of laboratory automation systems for parallel synthesis, reaction discovery, reaction optimization, time course studies, and crystallization development.