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Biophysical Reviews

Symposium report: understanding biological systems with quantum science and technology

Taro Ichimura, Mutsuo Nuriya

Published Feb 28, 2020• 1 citation
Publisher
DOI
10.1007/s12551-020-00655-y

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On May 9 and May 10, 2012. Tonomura FIRST International Symposium on “Electron Microscopy and Gauge Fields” was held in downtown Tokyo hosted by Japan Science and Technology Agency together with Hitachi, Ltd., RIKEN, Ministry of Education, Culture, Sports, Science and Technology, OIST, The Asahi Shimbun, Nikkei Inc. and Nikkei Science Inc. Here FIRST stands for “Funding program for world-leading innovative research and development on science and technology”. In 2010 as principal investigator Dr. Akira Tonomura was awarded this Japanese-government-funded project aiming at developing a 1.2 MV “holography electron microscope” which is capable of observing quantum phenomena in the microscopic world. The symposium was also intended to celebrate his 70th birthday, but on May 2, just a week before the opening of the symposium, Tonomura passed away during the course of a medical treatment on pancreatic cancer. Consequently, what had been planned to be a grand meeting with many of his scientific friends from all over the world, then turned as a memorial conference.
Recently, quantum biology and molecular quantum computation have attracted substantial attention. Quantum biology applies quantum mechanics to biological systems at the molecular scale. Molecular quantum computing explores the degrees of freedom of molecules that can be used to produce quantum coherence, such as charge, orbital, opto-spin (interplay between optical excitation and spin), vibration, and rotation, to process quantum information. Cognitive science focuses on understanding how learning processes are realized, particularly within the human brain. The most common topic among these three is the computational process, which can exploit different levels of representation, either classical or quantum. Here, we review progress in quantum biology, molecular quantum computing, and quantum theory in cognitive science. Based on our critical analysis and review, we highlight that molecular quantum computing could be an important bridging research area between quantum biology and a deeper understanding of neuronal cells in cognitive science. Thus, these three areas can be the core to understanding how the classical world emerges from the quantum world and human intelligence. To answer these questions, we may gain insight by studying the quantum processes that underlie biological systems, such as photosynthesis and enzyme catalysis. An unprecedented opportunity for molecular quantum computing is to perform functionalities similar to those of the human brain. In this manner, we could not only expand the boundaries for quantum computing but also gain a better understanding of cognitive processes.