Tae Sung Oh

Title: Tae Sung Oh - Innovator in Multi-Layer Ceramic Capacitor Technology

Introduction

Tae Sung Oh is a prominent inventor based in Seoul, South Korea. He has made significant contributions to the field of electronics, particularly in the manufacturing of multi-layer ceramic capacitors. His innovative approach has led to advancements that enhance the efficiency and effectiveness of these essential components.

Latest Patents

Tae Sung Oh holds a patent for a "Method for manufacturing multi-layer ceramic capacitor." This method involves forming internal electrodes by introducing molten metallic material into the void layers of a ceramic dielectric body. The process includes applying and baking a paste of silver or platinum/silver on the opposite end surfaces of the ceramic dielectric body to create first external electrodes. Additionally, molten metallic material is injected into the void layers through openings that communicate with these layers, allowing for the formation of internal electrodes. This method is notable for its ability to fill the ceramic dielectric body with molten metal for a relatively short time and under low pressure, compared to prior art methods.

Career Highlights

Tae Sung Oh is affiliated with the Korea Institute of Science and Technology, where he continues to push the boundaries of research and development in his field. His work has not only contributed to the advancement of technology but has also positioned him as a key figure in the innovation landscape of South Korea.

Collaborations

Throughout his career, Tae Sung Oh has collaborated with notable colleagues, including Yoon H Kim and Chang Bong Lee. These partnerships have fostered a collaborative environment that encourages the exchange of ideas and the pursuit of groundbreaking research.

Conclusion

Tae Sung Oh's contributions to the field of multi-layer ceramic capacitors exemplify the spirit of innovation. His patented method represents a significant advancement in manufacturing technology, showcasing his dedication to improving electronic components. His work continues to inspire future developments in the industry.