Chul Kim

'A gripping, intriguing, and provocative page-turner about the flame of love of humanity in HongKong' - Romy Coers'An intelligent and heartwarming story that will move you.' - Ferial MohamedOn 9 June 2019, over one million Hong Kong citizens marched on Hong Kong island. It was the biggest protest in Hong Kong history. The series of demonstrations lasted until 2020, thousands of people got injured or arrested.Peter Chen is the leader of his undercover medics team. He is not related to the medical field, but he is a pacifist, who avoids using violence in the protest. Every weekend, the Hong Kong streets are dyed in violence, but rescuing injured people in the protest site is Peter's own way to resist against the government with non-violence.In a massive protest held in the main hub airport of Hong Kong, Peter rescues a severely injured protester Blaze Lai. However, Blaze is a wanted criminal who was charged with damaging property in the legislative council. The police dragnet is getting closer to Peter, and the undercover medic is under the threat. Will Peter be able to sustain his fight against the unyielding resistance of mainland China?

High-Density Integrated Electrocortical Neural Interfaces provides a basic understanding, design strategies and implementation applications for electrocortical neural interfaces with a focus on integrated circuit design technologies. A wide variety of topics associated with the design and application of electrocortical neural implants are covered in this book. Written by leading experts in the field— Dr. Sohmyung Ha, Dr. Chul Kim, Dr. Patrick P. Mercier and Dr. Gert Cauwenberghs —the book discusses basic principles and practical design strategies of electrocorticography, electrode interfaces, signal acquisition, power delivery, data communication, and stimulation. In addition, an overview and critical review of the state-of-the-art research is included. These methodologies present a path towards the development of minimally invasive brain-computer interfaces capable of resolving microscale neural activity with wide-ranging coverage across the cortical surface.