Cambridge, MA, United States of America

Huifeng Du

This inventor holds 1 USPTO granted patent and 1 published patent application and 1 EPO patent. Top assignee: Massachusetts Institute of Technology. Active years: 2022.

USPTO Granted Patents = 1 

% Patents Active = 100.0

 

Average Co-Inventor Count = 5.0

ph-index = 1


Company Filing History:


Years Active: 2022

Loading Chart...
Loading Chart...
1 patent (USPTO):Explore Patents

Title: Huifeng Du: Innovator in 3D-Printed Artificial Axons

Introduction

Huifeng Du is a prominent inventor based in Cambridge, MA (US). He has made significant contributions to the field of biomedical engineering, particularly in the development of artificial neural structures. His innovative work focuses on creating materials that mimic the mechanical properties of biological neural axons.

Latest Patents

Huifeng Du holds a patent for "Engineered 3D-printed artificial axons." This patent provides materials and methods for cell-mimetics that possess the mechanical properties of biological neural axons. The cell-mimetic device includes an array of fibers made from hexanediol diacrylate (HDDA) or its derivatives, along with at least one derivative of polyethylene glycol (PEG). The PEG derivatives include PEG-acrylate, PEG-diacrylate, and various multi-arm PEG-acrylates.

Career Highlights

Du is affiliated with the Massachusetts Institute of Technology, where he conducts research and develops innovative solutions in the field of materials science and biomedical engineering. His work has garnered attention for its potential applications in neural repair and regeneration.

Collaborations

Some of Huifeng Du's notable coworkers include Nicholas Fang and Anna Jagielska. Their collaborative efforts contribute to advancing research in the field of artificial neural structures.

Conclusion

Huifeng Du's work in engineered 3D-printed artificial axons represents a significant advancement in biomedical engineering. His innovative approach to creating materials that mimic biological structures has the potential to impact the future of neural repair and regeneration.

This text is generated by artificial intelligence and may not be accurate.
Please report any incorrect information to [email protected]
Loading…