Ying Li

Title: Innovations of Ying Li in CNC Machine Tool Technology

Introduction

Ying Li is a prominent inventor based in Chengdu, China, known for his significant contributions to the field of CNC machine tool technology. With a total of four patents to his name, he has developed innovative methods that enhance the precision and efficiency of five-axis numerically controlled machine tools.

Latest Patents

Ying Li's latest patents include groundbreaking methods for quickly optimizing geometric error compensation data of translational axes of five-axis numerically controlled machine tools. This patent outlines a comprehensive approach that involves establishing a volumetric positioning error model, creating an error database, and constructing a volumetric error compensation table. The method also details the iterative optimization of correction coefficients to ensure the machine tool's precision.

Another notable patent focuses on fast optimization and compensation for volumetric positioning errors of rotary axes in five-axis CNC machine tools. This innovation includes the establishment of a volumetric positioning error model and the generation of a compensation file for the CNC system. The iterative process guarantees accuracy by continuously updating the error database and detecting linkage trajectories.

Career Highlights

Throughout his career, Ying Li has worked with reputable companies such as Emc IP Holding Company LLC and Chengdu Aircraft Industrial (Group) Co., Ltd. His experience in these organizations has allowed him to refine his skills and contribute to advancements in machine tool technology.

Collaborations

Ying Li has collaborated with notable professionals in his field, including Jie Liu and Ningping Gou. These partnerships have fostered a collaborative environment that encourages innovation and the sharing of ideas.

Conclusion

Ying Li's contributions to CNC machine tool technology through his patents and collaborations highlight his role as a leading inventor in the industry. His innovative methods for optimizing geometric error compensation are paving the way for enhanced precision in manufacturing processes.