Chung-Yin Lin

Title: Innovations in Ultrasound-Mediated Delivery by Chung-Yin Lin

Introduction

Chung-Yin Lin is a prominent inventor based in Kaohsiung, Taiwan. He has made significant contributions to the field of medical imaging and ultrasound technology. His innovative approach focuses on enhancing the delivery of molecules into the central nervous system (CNS) using ultrasound.

Latest Patents

Chung-Yin Lin holds a patent for a "Method for ultrasound-mediated delivery system to monitor molecular penetration." This patent outlines methods to utilize medical imaging for monitoring molecular penetration into the CNS during ultrasound-mediated delivery. The method involves a two-step process to predict the amount of molecular penetration based on medical imaging observations. The first step proposes a unified exposure input to standardize exposure conditions, allowing for the establishment of a transferred relation to imaging indices. The second step introduces a unified imaging index to standardize imaging readouts, facilitating the creation of a reliable transferred relation to molecular concentration. By linking these two components, the molecular penetration induced by ultrasound irradiation can be estimated from medical imaging, considering ultrasound exposure conditions and molecular sizes. Chung-Yin Lin has 1 patent to his name.

Career Highlights

Chung-Yin Lin is affiliated with Chang Gung University, where he continues to advance research in medical imaging and ultrasound technologies. His work has garnered attention for its potential applications in medical treatments and diagnostics.

Collaborations

Chung-Yin Lin collaborates with notable colleagues, including Hao-Li Liu and Kuo-Chen Wei. Their combined expertise contributes to the innovative research being conducted at Chang Gung University.

Conclusion

Chung-Yin Lin's contributions to ultrasound-mediated delivery systems represent a significant advancement in medical technology. His innovative methods have the potential to improve the monitoring and effectiveness of molecular penetration into the CNS.