List of Publications and Presentations

Total Page:16

File Type:pdf, Size:1020Kb

List of Publications and Presentations Papers Converting carbon material into a battery negative electrode, 1 TANSO (Journal of The Carbon Society of Japan), 1999, No. 186, Akira Yoshino 45–49 (in Japanese) Development of Lithium Ion Battery, Molecular Crystals and Liquid 2 Akira Yoshino Crystals, 2000, Vol. 340, 425–429 Akira Yoshino, Development of lithium-ion secondary battery and recent related Kenji Otsuka, 3 technology trends, Journal of The Chemical Society of Japan, Takayuki Nakajima, 2000, No. 8, 523–534 (in Japanese) Akira Koyama, Satoshi Nakajo Development process and the latest trend for lithium-ion battery 4 technology in Japan, Chinese Journal of Power Sources, 2001, Akira Yoshino Vol. 25, No. 6, 416–422 (in Chinese) Shigeto Okada, Shoichiro Sawa, Minato Egashira, Cathode properties of phospho-olivine LiMPO for lithium 4 Jun-ichi Yamaki, 5 secondary batteries, Journal of Power Sources, 2001, Vol. 97–98, Mitsuharu Tabuchi, 430-432 Hiroyuki Kageyama, Tokuzo Konishi, Akira Yoshino Overview of carbonaceous materials for lithium ion battery, 6 Akira Yoshino Molecular Crystals and Liquid Crystals, 2002, Vol. 388, 161–165 Akira Yoshino, Toshio Tsubata, Development of a Lithium-Type Advanced Energy Storage Device, Michiko Shimoyamada, 7 Journal of the Electrochemical Society, 2004, Vol. 151 (12), Hisashi Satake, A2180–A2182 Yukiko Okano, Shiro Mori, Shizukuni Yata Hybrid (Asymmetric) Capacitor, Electrochemistry (published by The 8 Electrochemical Society of Japan), Vol. 72, No. 10, 2004, 716–719 Akira Yoshino (in Japanese) The birth of the lithium-ion battery, Angewandte Chemie 9 Akira Yoshino International Edition, 2012, Vol. 51, Issue 24, 5798–800 Review Articles Cylindrical Li-ion secondary battery is in commercialization phase, Akira Yoshino, 1 with twice the capacity of Ni-Cd, Nikkei Electronics, Nov. 14, 1992, Shintaro Suzuki, 63–70 (in Japanese) Takashi Shimada Secondary battery using carbon, Electronic Ceramics, 1992, Vol. Takayuki Nakajima, 2 23, No. 119, 68–72 (in Japanese) Akira Yoshino 1/14 Development of lithium ion secondary battery, Kagaku Kogyo, 3 Akira Yoshino 1995, Vol. 46, No. 11, 870–874 (in Japanese) Development and commercialization of lithium ion secondary 4 Akira Yoshino battery, NEDO-IT-9806-3, 1999, 113–133 (in Japanese) What gave birth to the lithium ion secondary battery, the heart of 5 information technology? And what does the future hold? Petrotech, Akira Yoshino July 2002, Vol. 25, No. 7, 521–524 (in Japanese) Separator technology necessary for extending the life of secondary 6 batteries and capacitors, Material Stage, 2003, Vol. 3, No. 1, 89–93 Akira Yoshino (in Japanese) My method of invention, Hatsumei (published by the Japan Institute 7 Akira Yoshino of Invention and Innovation), 2003, No. 3, 72–74 (in Japanese) Configuration and features of novel high-power energy storage 8 Akira Yoshino device, Battery Technology, 2005, Vol. 17, 141–147 (in Japanese) Current status of energy devices and development of high-output 9 energy storage devices, Report of the CPC Society, 2006 (in Akira Yoshino Japanese) R&D Leader, April 2008, No. 25, Technical Information Institute (in 10 Akira Yoshino Japanese) Lithium ion secondary battery, Expected Materials for the Future, 11 Akira Yoshino December 2008, NTS Inc. (in Japanese) Secondary battery technology of the present, past, and future, 12 Akira Yoshino Semiconductor FPD World, 2009, No. 5 (in Japanese) Lithium ion battery, Kagaku Sochi, October 2009, Kogyo Chosakai 13 Akira Yoshino Publishing (in Japanese) R&D Leader, November 2009, No. 44, Technical Information 14 Akira Yoshino Institute (in Japanese) Lithium ion secondary battery which supports IT society: Moment of 15 Akira Yoshino innovation, Chemistry, January 2010, Kagaku Dojin (in Japanese) From battery technology, Sen'i Gakkaishi (Journal of The Society of 16 Fiber Science and Technology, Japan), 2010, Vol. 66 (in Akira Yoshino Japanese) Focus of battery development for field engineers, Kagaku Sochi, 17 Akira Yoshino 2010, No. 4 (in Japanese) 18 Polyfile, 2010, Vol. 47, No. 554, Taiseisha (in Japanese) Akira Yoshino 19 Polyfile, 2010, Vol. 47, No. 555, Taiseisha (in Japanese) Akira Yoshino Next-generation lithium battery and polymer materials, Seikei 20 Akira Yoshino Kakou, 2010, Vol. 22, No. 6 (in Japanese) The day the lithium-ion battery was born, Expected Materials for 21 Akira Yoshino the Future, 2010, No. 11 (in Japanese) 22 Polyfile, 2011, Vol. 48, No. 574, Taiseisha (in Japanese) Akira Yoshino 2/14 Lithium-ion battery and powder technology, Journal of the Society 23 Akira Yoshino of Powder Technology, Japan, 2012, Vol. 49, No. 1 (in Japanese) Lithium-ion battery technology and materials, Engineering 24 Akira Yoshino Materials, 2012, Vol. 60, No. 11 (in Japanese) Lithium-ion battery overview, Bunseki, The Japan Society for 25 Analytical Chemistry, 2013, Vol. 10, No. 466, 580–584 (in Akira Yoshino Japanese) Current status and challenges for the lithium-ion battery, Monthly 26 DISPLAY, Techno Times Co., Ltd., Vol. 19, No. 12, 2013, 53–55 (in Akira Yoshino Japanese) Books Lithium Ion Secondary Battery, The Nikkan Kogyo Shimbun, 1996 1 Akira Yoshino et al. (in Japanese) Carbon Material for Negative Electrode of Lithium Ion Secondary 2 Akira Yoshino et al. Battery, Realize, 1996 (in Japanese) Material Technology for High Performance Secondary Battery and 3 Its Evaluation, Application, and Development, Technical Akira Yoshino et al. Information Institute, 1998 (in Japanese) 4 Lithium Secondary Battery, NTS Inc., 2001 (in Japanese) Akira Yoshino et al. Development and Materials of New Energy Automobile, CMC 5 Akira Yoshino et al. Publishing, 2001 (in Japanese) Technological Innovation and Future Prospects for Lithium 6 Akira Yoshino et al. Secondary Battery, NTS Inc., 2001 (in Japanese) Lithium Secondary Battery Technology for the 21st Century, CMC 7 Akira Yoshino et al. Publishing, 2002 (in Japanese) High-Capacity Secondary Batteries for Vehicles, CMC Publishing, 8 Akira Yoshino et al. 2003 (in Japanese) These Ten Years and the Future of Secondary Battery Materials, Akira Yoshino 9 CMC Publishing, 2003 (in Japanese) (chief editor) 10 Lithium Ion Battery Stories, CMC Publishing, 2004 (in Japanese) Akira Yoshino Technologies for High Energy Density/High Output in Electric 11 Double Layer Capacitors and Lithium Ion Secondary Batteries for Akira Yoshino et al. Vehicles, Technical Information Institute, 2005 (in Japanese) Current Status and Perspective of Advanced Materials for 12 Akira Yoshino et al. Automobiles, CMC Publishing, 2005 (in Japanese) Next-Generation Power Supplies Enabled by Battery Innovation, 13 Akira Yoshino et al. NTS Inc., 2006 (in Japanese) Advanced Technologies for Ubiquitous Energy, CMC Publishing, 14 Akira Yoshino et al. 2006 (in Japanese) 3/14 Carbon Material Science and Material Design VIII, CPC Society, 15 Akira Yoshino et al. 2006 (in Japanese) Improved Performance and Reliability of Battery Materials, 16 Akira Yoshino et al. Technical Information Institute, 2007 (in Japanese) Advanced Lithium Ion Secondary Battery, Joho Kiko, 2008 (in 17 Akira Yoshino et al. Japanese) New Battery Technology Outlook, Electronic Journal, 2008 (in 18 Akira Yoshino et al. Japanese) Finding Topics for Research and Development, Technical 19 Akira Yoshino et al. Information Institute, 2008 (in Japanese) Development and Research on Next Generation-Materials for 20 Lithium-ion Rechargeable Battery for Automotive Application, CMC Akira Yoshino et al. Publishing, 2008 (in Japanese) Lithium-Ion Batteries These 15 Years and Emerging Technologies, Akira Yoshino 21 CMC Publishing, 2008 (in Japanese) (chief editor) Noboru Sato, Safety Technologies and Materials for Lithium-ion Batteries, CMC 22 Akira Yoshino Publishing, 2009 (in Japanese) (chief editors) Recent Advances in Surface and Interface Analysis of Polymers, 23 Akira Yoshino et al. CMC Publishing, 2009 (in Japanese) How to Make a New Research and Development Organization and 24 Akira Yoshino et al. Culture, Technical Information Institute, 2009 (in Japanese) 25 High Performance Storage Battery, NTS Inc., 2009 (in Japanese) Akira Yoshino et al. Front Line of the Development of Next Generation Capacitors, 26 Akira Yoshino et al. Gijutsu Kyoiku Shuppansha, 2009 (in Japanese) Finding Topics for Research and Development, Technical 27 Akira Yoshino et al. Information Institute, 2009 (in Japanese) 28 Next Generation Batteries 2010, Nikkei BP, 2009 (in Japanese) Akira Yoshino et al. 29 Handbook of Batteries, Ohmsha, 2010 (in Japanese) Akira Yoshino et al. Development and Market of Lithium-ion Battery, CMC Publishing, 30 Akira Yoshino et al. 2010 (in Japanese) Electrode and Battery Materials for Lithium-ion Secondary Battery: 31 Akira Yoshino et al. Development and Prospects, Joho Kiko, 2010 (in Japanese) Lithium-Ion Battery: Fundamentals and Applications, Baifukan, 32 Akira Yoshino et al. 2010 (in Japanese) Lithium-Ion Batteries for Vehicles, The Nikkan Kogyo Shimbun, 33 Akira Yoshino et al. 2010 (in Japanese) 34 Plastics Age Encyclopedia, Plastics Age, 2011 (in Japanese) Akira Yoshino et al. Electronics and Polymers, Japan Chemical Innovation Institute, 35 Akira Yoshino et al. 2011 (in Japanese) 4/14 Technology for Optimization and Improving Efficiency of EV/HEV 36 Batteries, Peripheral Equipment and Electric Supply Systems, Joho Akira Yoshino et al. Kiko, 2011 (in Japanese) Lithium Secondary Battery Vehicle Mounting Technology, Causes 37 of Deterioration and Malfunctions, and Their Countermeasures, Akira Yoshino et al. Technical Information Institute, 2011 (in Japanese) Lithium-ion
Recommended publications
  • Section 2 Contribution of Science and Technology to Global Issues
    Chapter 1 Progress in Science and Technology and Socioeconomic Changes Section 2 Contribution of Science and Technology to Global Issues From the end of the 19th century to the 20th century, science and technology has rapidly advanced. Chemical industry, electrical industry and heavy industry and so on emerged and we have advanced forward to ages of mass production and mass consumption, when goods could be transported in bulk to distant locations for a short period, as physical distribution, including railways, cars and airplanes, developed. This accompanied the mass disposal of goods and mass consumption of energy, highlighting the Chapter 1 risk of depletion of limited resources, global warming, the destruction of ecosystems and the crisis in the global environment. Science and technology that changed our lives were explained in Section 1 of this chapter, but as well as changing our lives in terms of key daily lifestyle elements, science and technology are also crucial to solve global issues such as climate change, natural resource depletion and energy. There are significant expectations as to how science and technology can contribute to solve global issues. This section addresses the social contribution of science and technology in Japan domestically and internationally. 1 Contribution to Global Warming Countermeasures ○ Global warming state Climate changes caused by global warming are Average global surface temperature (land + sea) anomaly one of the most urgent problems which the world faces. The Intergovernmental Panel on Climate Change (IPCC)1, awarded the Nobel Peace Prize Year in 2007, published the Synthesis Report of Fifth Changes in average global sea level Assessment Report in 2014.
    [Show full text]
  • Future of Electrochemistry in Light of History and the Present Conditions
    Journal of Solid State Electrochemistry (2020) 24:2089–2092 https://doi.org/10.1007/s10008-020-04585-3 FEATURE ARTICLE Future of electrochemistry in light of history and the present conditions György Inzelt1 Received: 26 March 2020 /Revised: 26 March 2020 /Accepted: 29 March 2020 / Published online: 15 April 2020 # The Author(s) 2020 General thoughts would not be financed or financed properly, the development of science and consequently that of the technology will stop or We may agree with the saying which is attributable to Niels at least will slow down. The decision makers want an imme- Bohr who said: “It is difficult to make predictions, especially diate success for the money of the taxpayers. The applied about the future.” Nevertheless, the past can give ideas in this research and especially the innovation phase needing the cap- respect and the present circumstances set the course. ital also for buildings and machines want orders of magnitude However, the great breakthroughs cannot be predicted. higher money than the grant for some thousand researchers at Without any exaggeration, we may declare that electro- the universities and institutes. chemistry has played, plays, and will play an important role The support of the basic research is not a wasted money, in the scientific and technological advancement, and conse- and it underlies the future. I would like to draw the attention to quently the quality of life of the people. We cannot imagine another important point: it is the proper education. The well- the everyday life without electricity. We have had electric prepared and competent researchers are essential for the prog- current for 220 years since Volta constructed his pile.
    [Show full text]
  • UCLA Electronic Theses and Dissertations
    UCLA UCLA Electronic Theses and Dissertations Title Metal-Organic Framework Additive in Electrolyte for Rechargeable Zinc-ion Battery Permalink https://escholarship.org/uc/item/5n38d3qt Author An, Bowen Publication Date 2021 Peer reviewed|Thesis/dissertation eScholarship.org Powered by the California Digital Library University of California UNIVERSITY OF CALIFORNIA Los Angeles Metal-Organic Framework Additive in Electrolyte for Rechargeable Zinc-ion Battery A thesis submitted in partial satisfaction of the requirements for the degree Master of Science in Chemical Engineering by Bowen An 2021 © Copyright by Bowen An 2021 ABSTARCT OF THE THESIS Metal-Organic Framework Additive in Electrolyte for Rechargeable Zinc-ion Battery by Bowen An Master of Science in Chemical Engineering University of California, Los Angeles, 2021 Professor Yunfeng Lu, Chair Rechargeable aqueous zinc batteries have attracted large attention due to their high safety and low cost. During the charging process, however, the cycling life is limited by dendrite 2+ formation because the desolvation process of hexaaqua zinc cation complex [Zn(H 2O) 6] is incomplete and sluggish. Herein, two Zr-based metal-organic frameworks (MOFs) called UIO-66 and MOF-808 respectively, were used as additive into the electrolyte in order to improve the cycling life and accelerate the desolvation process. With the foundation of coin cell testing platform of Zn vs Zn symmetric battery, it can be clearly seen that the overpotential is decreased and the cycling life is prolonged. With the help of electrochemical impedance spectroscopy (EIS), it is proved that the desolvation process can be accelerated with the help of Zr-based MOFs additive.
    [Show full text]
  • Profile of the Group a Recipient of 2011 C&C Prize Dr. Akira Yoshino
    ATTACHMENT: Profile of the Group A Recipient of 2011 C&C Prize Dr. Akira Yoshino (born in 1948) Current Position: Fellow, Asahi Kasei Corporation Personal history: 1970 Earned B.S. from Department of Petro-chemistry, Faculty of Engineering, Kyoto University 1972 Earned M.S. from Department of Petro-chemistry, Graduate School of Engineering, Kyoto University 1972 Joined Asahi Kasei Corp. 1982 Entered Kawasaki Laboratory, Asahi Kasei Corp. 1992 Became Manager, Product Development Group, Ion Battery Business Promotion Dept., Asahi Kasei Corp. 1994 Became Manager, Technical Development, A&T Battery Corp. 1997 Became Manager, Rechargeable Ion Battery Dept., Asahi Kasei Corp. 2001 Became Manager, Battery Materials Business Development Dept., Asahi Kasei Corp. 2003 Appointed Fellow, Asahi Kasei Corp. 2005 Earned Dr. Eng. degree from Graduate School of Engineering, Osaka University 2005 Became General Manager, Yoshino Laboratory, Asahi Kasei Corp. 2009 Became General Manager, Battery Materials Business Development Dept., Asahi Kasei E-materials Corp. 2010 Appointed president of Lithium Ion Battery Technology and Evaluation Center (LIBTEC) 2011 Appointed Adjunct Professor of Graduate School of Engineering, Kyoto University Major Awards: 1999 Fiscal 1998 Chemical Technology Prize (Chemical Society of Japan) 1999 Battery Division Technology Award (The Electrochemical Society) 2001 Ichimura Prizes in Industry-Meritorious Achievement Prize (Ichimura Foundation) 2001 Kanto-block Commendation for Invention—Encouragement Prize of Invention of MEXT* (JIII**)
    [Show full text]
  • Contributions of Civilizations to International Prizes
    CONTRIBUTIONS OF CIVILIZATIONS TO INTERNATIONAL PRIZES Split of Nobel prizes and Fields medals by civilization : PHYSICS .......................................................................................................................................................................... 1 CHEMISTRY .................................................................................................................................................................... 2 PHYSIOLOGY / MEDECINE .............................................................................................................................................. 3 LITERATURE ................................................................................................................................................................... 4 ECONOMY ...................................................................................................................................................................... 5 MATHEMATICS (Fields) .................................................................................................................................................. 5 PHYSICS Occidental / Judeo-christian (198) Alekseï Abrikossov / Zhores Alferov / Hannes Alfvén / Eric Allin Cornell / Luis Walter Alvarez / Carl David Anderson / Philip Warren Anderson / EdWard Victor Appleton / ArthUr Ashkin / John Bardeen / Barry C. Barish / Nikolay Basov / Henri BecqUerel / Johannes Georg Bednorz / Hans Bethe / Gerd Binnig / Patrick Blackett / Felix Bloch / Nicolaas Bloembergen
    [Show full text]
  • Future of Electrochemistry in Light of History and the Present Conditions
    Journal of Solid State Electrochemistry https://doi.org/10.1007/s10008-020-04585-3 FEATURE ARTICLE Future of electrochemistry in light of history and the present conditions György Inzelt1 Received: 26 March 2020 /Revised: 26 March 2020 /Accepted: 29 March 2020 # The Author(s) 2020 General thoughts would not be financed or financed properly, the development of science and consequently that of the technology will stop or We may agree with the saying which is attributable to Niels at least will slow down. The decision makers want an imme- Bohr who said: “It is difficult to make predictions, especially diate success for the money of the taxpayers. The applied about the future.” Nevertheless, the past can give ideas in this research and especially the innovation phase needing the cap- respect and the present circumstances set the course. ital also for buildings and machines want orders of magnitude However, the great breakthroughs cannot be predicted. higher money than the grant for some thousand researchers at Without any exaggeration, we may declare that electro- the universities and institutes. chemistry has played, plays, and will play an important role The support of the basic research is not a wasted money, in the scientific and technological advancement, and conse- and it underlies the future. I would like to draw the attention to quently the quality of life of the people. We cannot imagine another important point: it is the proper education. The well- the everyday life without electricity. We have had electric prepared and competent researchers are essential for the prog- current for 220 years since Volta constructed his pile.
    [Show full text]
  • Energy Spotlight
    Energy Focus Cite This: ACS Energy Lett. 2019, 4, 2763−2769 http://pubs.acs.org/journal/aelccp Energy Spotlight Personal Reflections of Energy Researchers on the 2019 Chemistry Nobel Laureates he electrochemistry, materials science and engineering, portable electronics have occasionally provided us on long and energy research communities were thrilled this journeys. T year to hear the news of the 2019 Chemistry Nobel Stan is a huge presence on campus and has been Prize being awarded to Profs. John B. Goodenough, M. Stanley instrumental in growing our liberal arts university into the Whittingham, and Akira Yoshino. For the past several years, R1 institution it is today. I count myself fortunate to be his anticipation that they would be awarded the Nobel Prize colleague in the Materials Science and Engineering program became an annual routine in early October. With each passing and extremely proud to have been part of the North East year, upon hearing the news that the Nobel Prize in Chemistry Center for Chemical Energy Storage (NECCES) that he fi went to another discipline instead of storage batteries, we directs. Stan continues to lead the eld he helped develop with fi began to anticipate the same remarks such as, why battery important scienti c contributions and leadership, most research is not “good enough” for the Nobel prize. When the recently developing a fully rechargeable multielectron two announcement came this year, social media exploded with lithium battery cathode. In addition, he has trained generations exuberance. Entire energy research communities celebrated the of scientists in the battery community and is a mentor to many recognition given to these pioneers of Li-ion batteries.
    [Show full text]
  • Danh Sách Những Nhà Bác Học Đoạt Giải Nobel Hóa Học Từ Năm 1901 Đến Nay
    CÂU CHUYỆN KHOA HỌC CUỐI TUẦN DANH SÁCH NHỮNG NHÀ BÁC HỌC ĐOẠT GIẢI NOBEL HÓA HỌC TỪ NĂM 1901 ĐẾN NAY Alfred Nobel là nhà hóa học Thụy Điển và là người phát minh ra thuốc nổ. Nobel đã công nhận sức mạnh hủy diệt của thuốc nổ, nhưng hy vọng rằng sức mạnh đó cũng sẽ dẫn đến kết thúc các cuộc chiến tranh. Tuy nhiên, thuốc nổ nhanh chóng được khai thác để phát triển các loại vũ khí mới hơn, chết chóc hơn. Không muốn bị ghi nhớ là "con buôn của cái chết", cái tít mà một tờ báo Pháp đặt cho ông trong một cáo phó nhầm lẫn, Nobel đã viết di chúc rằng ông sẽ thiết lập các giải thưởng về vật lý, hóa học, sinh lý học hoặc y học, văn học và hòa bình cho những người, trong các năm trước đã mang lại lợi ích lớn nhất cho nhân loại. Một hạng mục thứ sáu, kinh tế học, đã được thêm vào năm 1969. Phải mất một thời gian để thực hiện mong muốn của Nobel. Giải Nobel đầu tiên được trao vào năm 1901, tức là 5 năm sau khi Alfred Nobel qua đời. Lưu ý rằng giải Nobel chỉ có thể được giành bởi các cá nhân, không thể có quá ba người chiến thắng trong một hạng mục và số tiền được chia đều cho các người đoạt giải. Mỗi người chiến thắng sẽ nhận được một huy chương vàng, một khoản tiền và một chứng chỉ công nhận.
    [Show full text]
  • WIPO Magazine, No. 3, September 2020
    SEPTEMBER 2020 No. 3 Reflections on IP: An interview Hachette and accessibility: Enda: Kenya’s first home-grown with WIPO Director General Creating content that can running shoe Francis Gurry be used by everyone p. 2 p. 34 p. 26 Global Innovation Index 2020: Who Will Finance Innovation? p. 9 WIPO MAGAZINE September 2020 / No. 3 Table of Contents 2 Reflections on IP: An interview with WIPO Director General Editor: Catherine Jewell Francis Gurry Layout: Ewa Przybyłowicz 9 Global Innovation Index 2020: Who Will Finance Innovation? © WIPO, 2020 14 Meet WIPO’s first IP Youth Ambassador: Attribution 3.0 IGO Santiago Mena López (CC BY 3.0 IGO) 20 The invention of rechargeable batteries: An interview The user is allowed to reproduce, distribute, with Dr. Akira Yoshino, 2019 Nobel laureate adapt, translate and publicly perform this publication, including for commercial pur- poses, without explicit permission, provided 26 Enda: Kenya’s first home-grown running shoe that the content is accompanied by an acknowledgement that WIPO is the source 34 Hachette and accessibility: Creating content that can and that it is clearly indicated if changes be used by everyone were made to the original content. Adaptation/translation/derivatives should 39 The Skolkovo Foundation: Fostering innovation and not carry any official emblem or logo, unless entrepreneurship in the Russian Federation they have been approved and validated by WIPO. Please contact us via the WIPO 47 Saudi Arabia gears up on IP website to obtain permission. When content published by WIPO, such as 52 WIPO opens its first virtual exhibition on AI and IP images, graphics, trademarks or logos, is attributed to a third party, the user of such content is solely responsible for clearing the rights with the right holder(s).
    [Show full text]
  • Profile of Dr. Akira Yoshino
    Profile of Dr. Akira Yoshino As of October 1, 2019 Personal information Date of birth: January 30, 1948 (age 71) Birthplace: Suita, Osaka, Japan Specialization: Electrochemistry, quantum organic chemistry Current position Honorary Fellow, Asahi Kasei Corp. Brief biography Academic background: Mar 1970 B.S., Department of Petrochemistry, Faculty of Engineering, Kyoto University Mar 1972 M.S., Department of Petrochemistry, Graduate School of Engineering, Kyoto University Mar 2005 Dr.Eng., Graduate School of Engineering, Osaka University Work career: Apr 1972 Entered Asahi Kasei Corp. Oct 1982 Kawasaki Laboratory, Asahi Kasei Corp. Mar 1992 Manager, Product Development Group, Ion Battery Business Promotion Dept., Asahi Kasei Corp. Aug 1994 Manager, Technical Development, A&T Battery Corp. Apr 1997 Manager, Rechargeable Ion Battery Dept., Asahi Kasei Corp. May 2001 Manager, Battery Materials Business Development Dept., Asahi Kasei Corp. Oct 2003 Group Fellow, Asahi Kasei Corp. Aug 2005 General Manager, Yoshino Laboratory, Asahi Kasei Corp. Oct 2015 Advisor, Asahi Kasei Corp. Oct 2017 Honorary Fellow, Asahi Kasei Corp.* Other notable positions: Apr 2010 President, Lithium Ion Battery Technology and Evaluation Center (LIBTEC)* Oct 2015 Visiting Professor, Research and Education Center for Advanced Energy Materials, Devices, and Systems, Kyushu University Jul 2017 Professor, Graduate School of Science and Technology, Meijo University* Jun 2019 Visiting Professor, Research and Education Center for Green Technologies, Kyushu University* * Continuing
    [Show full text]
  • They Developed the World's Most Powerful Battery (Pdf)
    THE NOBEL PRIZE IN CHEMISTRY 2019 POPULAR SCIENCE BACKGROUND They developed the world’s most powerful battery The Nobel Prize in Chemistry 2019 is awarded to John B. Goodenough, M. Stanley Whittingham and Akira Yoshino for their contributions to the development of the lithium-ion battery. This rechargeable battery laid the foundation of wireless electronics such as mobile phones and laptops. It also makes a fossil fuel-free world possible, as it is used for everything from powering electric cars to storing energy from renewable sources. An element rarely gets to play a central role in a drama, but the story of 2019’s Nobel Prize in Chemistry has a clear protagonist: lithium, an ancient1 element that was created during the first H minutes of the Big Bang. Humankind became aware of it in 1817, when Swedish chemists Johan 3 4 August Arfwedson and Jöns Jacob Berzelius purified itLi out of a mineralBe sample from Utö Mine, in the Stockholm archipelago. 11 Na 12 Mg 19 20 21 Berzelius named the new element after the Greek word forK stone, lithos.Ca Despite itsSc heavy name, it is 37 38 39 the lightest solid element, which is why we hardly noticeRb the mobile phonesSr we nowY carry around. 1 H 3 Li 4 Be 11 Na 12 Mg Li 19 K 20 Ca 21 Sc 37 Rb 38 Sr 39 Y LITHIUM LITHIUM ION Lithium is a metal. It has just one electron in its outer electron shell, and this has a strong drive to leave lithium for another atom. When this happens, a positively charged – and more stable – lithium ion is formed.
    [Show full text]
  • Annual Report 2020 Online Science Days 28 June – 1 July 2020 Annual Report 2020 Online Science Days 28 June – 1 July 2020 Contents Online Science Days 2020
    Annual Report 2020 Online Science Days 28 June – 1 July 2020 Annual Report 2020 Online Science Days 28 June – 1 July 2020 Contents Online Science Days 2020 Against the Odds: Science Brought Us Closer Together 4 Being a Scientist in Challenging Times Sustainable Chemistry Outreach Projects and Mission Education Resume and Outlook by Council and Foundation International Scientific Collaboration 14 Innovation by Evolution 46 Lindau Alumni Network 83 Opening 8 Programme and Impressions From Lindau Harbour The Lindau Guidelines 2020 16 Batteries and the Transition Towards Renewable Energy 47 Online Science@School 86 A Good Time to Give Progress a New Dynamic 10 Women in Science 20 Green Chemistry – Green Fuels 48 Lindau Mediatheque 87 Greeting From Federal Minister for Education and Research Anja Karliczek Starting Careers 22 Beyond (Everyday) Science Educational Outreach 88 Greetings From Bavaria and Baden-Württemberg 11 The Centenarian 24 The Revolutionary Reform of the Metric System 52 Lindau Science Trail and Nobel Laureate Pier 90 The Federal States Welcome Participants of the Online Science Days SARS-CoV-2: A Universal Paradigm Shift My Brain and Me 53 Lindau Matinee 91 Programme Structure 12 Corona – The Role of Science in Times of Crisis 28 The Impact of COVID-19 on Children 54 Communications 94 Overview With all Sessions Immunity 30 A Time of Lethal Ambiguities 55 Video Productions 95 Academic Partners 68 Online Expo and Application Process Inequalities and COVID-19 31 Lindau Alumni, Young Scientists, Young Economists Lindau Blog 96
    [Show full text]