This book tells the true and amazing story of being a participant in the first trial of a brain implant for bionic vision. Blind for 13 years, the author relays why he volunteered in 2018 for the experiment. Discussed are the grueling process of qualifying to be accepted into the trial and the stunning nature of this real bionic technology. Detailed descriptions of the resulting synthetic vision are given. Also described are the amazing "bionic laboratory" and the process of learning to see again with bionic eyesight. The book also discusses the tricky ethical considerations about bionics and the increasing merging of humans with machines. It concludes with what the future holds for bionic vision.

Implantable Electronic Medical Devices provides a thorough review of the application of implantable devices, illustrating the techniques currently being used together with overviews of the latest commercially available medical devices. This book provides an overview of the design of medical devices and is a reference on existing medical devices. The book groups devices with similar functionality into distinct chapters, looking at the latest design ideas and techniques in each area, including retinal implants, glucose biosensors, cochlear implants, pacemakers, electrical stimulation therapy devices, and much more. Implantable Electronic Medical Devices equips the reader with essential background knowledge on the application of existing medical devices as well as providing an introduction to the latest techniques being used. - A catalogue of existing implantable electronic medical devices - Up-to-date information on the design of implantable electronic medical devices - Background information and reviews on the application and design of up-to-date implantable electronic medical devices

This book describes advances in implantable neural stimulation technology to restore partial sight to people who are blind from retinal degnerative diseases such as age-related macular degeneration and retintis pigmentosa. Many scientific, engineering, and surgical challenges must be surmounted before widespread practical applications can be realized. The book summarizes the state of research and clinical practice in the field and reviews the current ideas and approaches of its leading researchers and practitioners.

What Is Brain Implant Brain implants are technical devices that link directly to the brain of a biological subject. These devices are often put on the surface of the brain or affixed to the cortex of the brain. Brain implants are also sometimes referred to as neural implants. Establishing a biomedical prosthesis that can bypass regions of the brain that have become dysfunctional as a result of a stroke or other head traumas is one of the primary goals of contemporary brain implants, which is also the primary focus of most of the research being done today. This involves the replacement of a sense, such as in the case of vision. In animal research, other types of brain implants are sometimes employed for the sole purpose of recording brain activity for scientific purposes. The creation of interfaces between neural systems and computer chips is required for some types of brain implants. This study is being done in the context of a larger research topic known as brain?computer interfaces. How You Will Benefit (I) Insights, and validations about the following topics: Chapter 1: Brain implant Chapter 2: Cyberware Chapter 3: Brain?computer interface Chapter 4: BrainGate Chapter 5: Neuroprosthetics Chapter 6: Remote control animal Chapter 7: Neural engineering Chapter 8: Single-unit recording Chapter 9: Hybrot Chapter 10: Mark Gasson Chapter 11: Visual prosthesis Chapter 12: Microelectrode array Chapter 13: Cyborg Chapter 14: Neurotrophic electrode Chapter 15: Hippocampal prosthesis Chapter 16: Brain technology Chapter 17: Stent-electrode recording array Chapter 18: Chronic electrode implant Chapter 19: Cortical implant Chapter 20: Neuralink Chapter 21: Neural dust (II) Answering the public top questions about brain implant. (III) Real world examples for the usage of brain implant in many fields. (IV) 17 appendices to explain, briefly, 266 emerging technologies in each industry to have 360-degree full understanding of brain implant' technologies. Who This Book Is For Professionals, undergraduate and graduate students, enthusiasts, hobbyists, and those who want to go beyond basic knowledge or information for any kind of brain implant.

Signi?cant progress has been made in the development of neural prostheses for restoration of human functions and improvement of the quality of life. Biomedical engineers and neuroscientists around the world are working to improve the design and performance of existing devices and to develop novel devices for arti?cial vision, arti?cial limbs, and brain-machine interfaces. This book, Implantable Neural Prostheses 2: Techniques and Engineering Approaches, is part two of a two-volume sequence that describes state-of-the-art advances in techniques associated with implantable neural prosthetic devices. The techniques covered include biocompatibility and biostability, hermetic packaging, electrochemical techniques for neural stimulation applications, novel electrode materials and testing, thin-?lm ?exible microelectrode arrays, in situ char- terization of microelectrode arrays, chip-size thin-?lm device encapsulation, microchip-embedded capacitors and microelectronics for recording, stimulation, and wireless telemetry. The design process in the development of medical devices is also discussed. Advances in biomedical engineering, microfabrication technology, and neu- science have led to improved medical-device designs and novel functions. However, many challenges remain. This book focuses on the engineering approaches, R&D advances, and technical challenges of medical implants from an engineering p- spective. We are grateful to leading researchers from academic institutes, national laboratories, as well as design engineers and professionals from the medical device industry who have contributed to the book. Part one of this series covers designs of implantable neural prosthetic devices and their clinical applications.

As he did in New York Times bestseller Robopocalypse, Daniel Wilson masterfully envisions a stunning world where superhuman technology and humanity clash in surprising—and thrilling—ways. It’s the near future, and scientists have developed implants that treat brain dysfunction—and also make recipients capable of superhuman feats. Exploiting societal fears of the newly enhanced, politicians pass a set of laws to restrict the rights of “amplified” humans, instantly creating a new persecuted underclass known as “amps.” On the day that the Supreme Court passes the first of these laws, twenty-nine-year-old schoolteacher Owen Gray is forced into hiding, only dimly aware of the latent powers he possesses. To escape imprisonment, and to find out who he really is, Owen seeks out a community in Oklahoma where, it is rumored, a group of the most enhanced amps may be about to change the world—or destroy it.

Engineers and ethicists participated in a workshop to discuss the responsible development of new technologies. Presenters examined four areas of engineering-sustainability, nanotechnology, neurotechnology, and energy-in terms of the ethical issues they present to engineers in particular and society as a whole. Approaches to ethical issues include: analyzing the factual, conceptual, application, and moral aspects of an issue; evaluating the risks and responsibilities of a particular course of action; and using theories of ethics or codes of ethics developed by engineering societies as a basis for decision making. Ethics can be built into the education of engineering students and professionals, either as an aspect of courses already being taught or as a component of engineering projects to be examined along with research findings. Engineering practice workshops can also be effective, particularly when they include discussions with experienced engineers. This volume includes papers on all of these topics by experts in many fields. The consensus among workshop participants is that material on ethics should be an ongoing part of engineering education and engineering practice.