Location History:
- Shenzhen, CN (2016)
- Shanghai, CN (2015 - 2022)
Company Filing History:
Years Active: 2015-2022
Title: The Innovative Contributions of Rong Zou
Introduction
Rong Zou is a prominent inventor based in Shanghai, China, known for his significant contributions to the field of semiconductor technology. With a total of five patents to his name, he has made remarkable advancements in non-volatile flash memory devices and their manufacturing methods. His work has had a profound impact on the efficiency and size of memory cells.
Latest Patents
One of Rong Zou's latest patents is titled "Flash with shallow trench in channel region and method for manufacturing the same." This invention discloses a flash memory device that includes a channel region with a first shallow trench formed in the surface area of a semiconductor substrate. The design incorporates a tunneling dielectric layer and a polysilicon floating gate, which are essential for enhancing the performance of memory cells. Another notable patent is "Non-volatile flash memory device and a manufacturing method thereof." This patent outlines a method for creating a non-volatile flash memory device that includes multiple memory cells, emphasizing the importance of reducing the area of memory cells to improve efficiency.
Career Highlights
Rong Zou has worked with leading companies in the technology sector, including Huawei Technologies Co., Limited and Shanghai Huali Microelectronics Corporation. His experience in these organizations has allowed him to develop innovative solutions that address the challenges faced in semiconductor manufacturing.
Collaborations
Throughout his career, Rong Zou has collaborated with talented individuals such as Yuping Zhao and Hong Fei Zhou. These partnerships have contributed to the successful development of his patented technologies.
Conclusion
Rong Zou's contributions to the field of semiconductor technology through his innovative patents and collaborations highlight his role as a key inventor in the industry. His work continues to influence the development of more efficient memory devices.