This inventor holds 1 USPTO granted patent. Top assignee: Beijing University of Technology. Active years: 2019.
Company Filing History:
Years Active: 2019
Title: Innovations of Shengcheng Mao in Nanoindentation Technology
Introduction
Shengcheng Mao is a prominent inventor based in Beijing, China. He has made significant contributions to the field of materials science, particularly in the area of in-situ characterization of mechanical properties at the nano and atomic scale. His innovative work has led to the development of advanced technologies that enhance our understanding of material behavior.
Latest Patents
Shengcheng Mao holds a patent for a "Double-tilt in-situ nanoindentation platform for transmission electron microscope." This platform is designed to facilitate in-situ characterization of the mechanical property-microstructure relationship of materials. The platform consists of several components, including an adhesive area, support beams, bearing beams, a sample loading stage, and a mini indenter. The structure is fabricated using semiconductor microfabrication technology, allowing for precise measurements at the nano scale.
Career Highlights
Mao's career is marked by his dedication to advancing the field of materials science. His patented technology enables in-situ nanoindentation experiments to be conducted using various driving mechanisms, such as bimetallic strips and piezoelectric ceramics. This innovation allows researchers to observe the deformation processes of materials in real-time, providing valuable insights into their mechanical properties.
Collaborations
Shengcheng Mao has collaborated with notable colleagues, including Xiaodong Han and Zhipeng Li. Their joint efforts have contributed to the advancement of research in the field of nanoindentation and materials characterization.
Conclusion
Shengcheng Mao's innovative contributions to the field of materials science, particularly through his patented double-tilt in-situ nanoindentation platform, have significantly enhanced our understanding of material properties at the nano scale. His work continues to influence research and development in this critical area of study.