Contract processing of analytical chips for electrochemical measurements: Calculating dielectric constant from the desired capacitance.

In recent years, technological innovations in the agricultural sector have significantly shifted from traditional biological approaches such as soil improvement and breeding to an engineering concept of "designing the environment itself." Particularly noteworthy is smart agriculture, which integrates precise control of light environments with sensing technology. Plant growth is complexly determined not only by light intensity but also by wavelength distribution, angle of incidence, temporal variations, and interactions with surrounding temperatures. In other words, agriculture can essentially be described as "the science of spectral control." In this context, optical thin films and optical filters play an extremely important role. Optical thin films are functional materials that allow for precise design of reflectivity, transmittance, absorbance, and interference characteristics through control of film thickness on the nanometer scale. By using multilayer interference structures, it is possible to selectively transmit and reflect specific wavelengths, which directly contributes to optimizing effective light for photosynthesis in plants and controlling unwanted infrared and ultraviolet light. For more information, please check our company website.

Electrochemical analysis chips are devices that utilize electrical signals such as voltage and current to read chemical reactions. The chip is equipped with working electrodes, counter electrodes, and reference electrodes, allowing for the highly sensitive detection of redox reactions occurring in solution. In recent years, compact devices combining microfluidic technology and MEMS technology have become widespread, rapidly expanding their use in medical POCT (Point of Care Testing), environmental monitoring, food testing, and life sciences. In these applications, there is a demand for higher sensitivity, miniaturization, multiplexing, and speed of detection, and essential to achieving this are the miniaturization of electrode structures and the formation of high-quality metal thin films, namely thin film metallization technology. ◆ Key to electrochemical analysis: The quality of data is determined by the performance of the electrodes ◆ Thus, "thin film metallization" is necessary ◆ Technical points when performing thin film metallization ◆ Examples of performance improvements brought by thin film metallization ◆ Future trends: Demand accelerating with POCT and wearables ◆ The inseparable relationship between electrochemical analysis chips and thin film technology For more details, please check our company website.

In recent years, the evolution of electronic devices has garnered significant attention for flexible devices. These devices leverage their ability to be bent and stretched, with applications expected in various fields such as wearable devices, next-generation displays, and medical equipment. One of the key technologies supporting this realization is "sputtering." Sputtering excels in the precision and diversity of thin film formation, making it possible to create layers with advanced functions on flexible substrates. This document describes the role of sputtering technology in flexible devices and examples of its applications. 1. What are flexible devices 2. Main application areas 3. Key points for forming sputtered thin films suitable for flexible devices For more details, please check our company website.

In semiconductor manufacturing, TEG (Test Element Group) chips are essential for evaluating the accuracy and stability of processes. To detect subtle variations in the manufacturing line and improve yield, extremely high technology is required for the metallization (wiring formation) and patterning on TEG chips. In particular, SiC power devices are characterized by high voltage resistance, high-temperature operation, and high-frequency operation, and they exhibit different failure modes and mechanisms compared to silicon (such as breakdown under high electric fields, interface traps, and degradation originating from grain boundaries). Therefore, a TEG specifically for the SiC process is necessary. 【1】What is a TEG chip? - Purpose and Importance 【2】Key Technical Challenges in SiC Processing (Considerations during TEG Fabrication) 【3】Metallization Technology 【4】Patterning Technology 【5】Cross-Impact of SiC Device Technology and Market Summary For more details, please visit our website.