James Lin

Title: Innovations of James Lin

Introduction

James Lin is an accomplished inventor based in Richmond Hill, Canada. He has made significant contributions to the field of electronics, particularly in clock divider circuits. With a total of 3 patents to his name, Lin's work showcases his expertise and innovative spirit.

Latest Patents

One of Lin's latest patents is the "Duty-cycle matched differential clock divider circuit." This invention relates to a system and method for generating a duty-cycle matched differential clock divider circuit. The circuit includes a primary latch, a differential latch, and a first inverter. The primary latch is designed to receive a feedback signal and complementary input clock signals, producing a first output signal. The differential latch then uses this output to generate a second and third output signal, while the first inverter produces the feedback signal for the primary latch.

Another notable patent is the "Fractional divider." This invention effectively performs integer division followed by phase shifting, pulse swallowing, and multiplexing to achieve a fractional divisor. The fractional divider divides an input clocking signal by a first integer divisor in one mode of operation and by a second integer divisor in another mode. It then shifts the divided digital signal's phase and synchronizes the output clocking signal accordingly.

Career Highlights

James Lin has worked with prominent companies in the technology sector, including Synopsys, Inc. and ATI Technologies. His experience in these organizations has allowed him to refine his skills and contribute to various innovative projects.

Collaborations

Lin has collaborated with talented individuals such as Boris Krnic and Ryan Anthony Scott. These partnerships have fostered a creative environment that has led to the development of groundbreaking technologies.

Conclusion

James Lin's contributions to the field of electronics through his patents and collaborations highlight his innovative capabilities. His work continues to influence advancements in clock divider circuits and fractional division technologies.