Liang Guo publishes new book on revolutionary Neural Interface Engineering
At The Ohio State University, Electrical and Computer Engineering Assistant Professor Liang Guo has steadily collected significant research into this realm, leading to his first edited book, “Neural Interface Engineering: Linking the Physical World and the Nervous System.”
“This book represents the subarea in the field of neural engineering, which I have been exploring and practicing over the past seven years here at Ohio State,” Guo said.
Such bioengineering research has already earned Guo numerous awards and funding. With this new book, however, he is now able to share the highly specific knowledge with graduate and advanced degree students worldwide.
“Writing a specialized book is quite different from writing a paper, as there is a long delayed gratification,” Guo said. “I also appreciate the contributors' dedication and efforts over this long journey, without which this exciting book could never come out.”
The original idea for creating the book, Guo said, arose while organizing a symposium dedicated to bioelectronics and neural interfaces at the 2018 Materials Research Society Spring Meeting.
“I thought it would be worthwhile to go a step further to summarize and introduce this hot area to a broader audience,” he said. “This was the motivation to start this book project about three years ago.”
Worldwide, research areas such as bioelectric medicine and neurotechnologies have become one of the hottest scientific and technological frontiers attracting enormous academic and public interests.
In the book preface, Guo explains how governments, private foundations, and many industrial giants like Facebook, Google, and GlaxoSmithKline are generously and enthusiastically investing in this venture as well.
As the projected technological market is expanding unprecedentedly, he said, interests in further learning the neurotechnological developments are growing fast in both the technical community and the general public.
“In developing such body-machine symbiotic systems, the scientific community recognized the neural interfaces as the technological bottleneck hindering further advances of the field,” Guo writes. “As a result, tremendous efforts have been invested on neural interface engineering, leading to booming of this area over the past decade with a variety of exciting new developments. This book thus focuses on this important topic of neural interface engineering.”
He said chapter authors on each topic are carefully selected among leading and practicing scientists.
The target audience for the new book includes graduate and advanced undergraduate students of bioengineering, biomedical engineering, applied physiology, biological engineering, applied physics, and related fields; as well as for biomedical engineers, neuroscientists, neurophysiologists, and industry professionals wishing to take advantage of the latest and greatest in this emerging area; and for medical practitioners using products of this field.
Guo said readers in public services and government funding agencies may also find this book useful in learning the latest in the field.
At Ohio State, students interested in pursuing similar academic pathways can seek out ECE classes such as Guo’s ECE 5070 Introduction to Neuroengineering and Neuroprosthetics, and Prof. Asimina Kiourti's ECE 6011: Bioelectromagnetics.
Story by Ryan Horns | ECE/IMR Communications Specialist | Horns.email@example.com | @OhioStateECE