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主要論文
| 1) |
K. Saito, M. Aono, S. Kasai, "Amoeba-inspired analog electronic computing system integrating resistance crossbar for solving the travelling salesman problem," Scientific Reports 10, 20772, DOI: 10.1038/s41598-020-77617-7 (2020). 
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| 2) |
M. Aono, "Amoeba-inspired combinatorial optimization machines," Japanese Journal of Applied Physics 59, 060502, DOI: 10.35848/1347-4065/ab8e05 (2020).
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| 3) |
Y. Hara-Azumi, N. Takeuchi, K. Hara, M. Aono, "Digital bio-inspired satisfiability solver leveraging fluctuations," Japanese Journal of Applied Physics 59, 040603, DOI: 10.35848/1347-4065/ab7ade (2020).
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| 4) |
A. H. Ngoc Nguyen, M. Aono, Y. Hara-Azumi, "FPGA-based hardware/software co-design of a bio-inspired SAT solver," IEEE Access, DOI: 10.1109/ACCESS.2020.2980008 (2020).
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| 5) |
A. H. Ngoc Nguyen, M. Aono, Y. Hara-Azumi, "Amoeba-inspired hardware SAT solver with effective feedback control," 2019 International Conference on Field-Programmable Technology (ICFPT), pp.243-246, doi: 10.1109/ICFPT47387.2019.00038 (2019).
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| 6) |
N. Takeuchi, M. Aono, N. Yoshikawa, "Superconductor amoeba-inspired problem solvers for combinatorial optimization," Physical Review Applied 11, 044069 (2019).
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| 7) |
A. H. Ngoc Nguyen, M. Aono, Y. Hara-Azumi, "FPGA-Based amoeba-inspired SAT solver for cyber-physical systems," ACM/IEEE International Conference on Cyber-Physical Systems (ICCPS), 316-317 (2019).
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| 8) |
K. Hara, N. Takeuchi, M. Aono, Y. Hara-Azumi, "Amoeba-inspired stochastic hardware SAT solver," International Symposium on Quality Electronic Design (ISQED), (2019).
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| 9) |
N. Takeuchi, M. Aono, Y. Hara-Azumi, C.L. Ayala, "A circuit-level amoeba-inspired SAT solver," IEEE Transactions on Circuits and Systems II: Express Briefs, doi: 10.1109/TCSII.2019.2951181 (2019).
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| 10) |
L. Zhu, S.-J. Kim, M. Hara, M. Aono, "Remarkable problem-solving ability of unicellular amoeboid organism and its mechanism," Royal Society Open Science 5: 180396 (2018).
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| 11) |
K. Saito, N. Suefuji, S. Kasai, M. Aono, "Amoeba-inspired electronic computing system and its application to autonomous walking of a multi-legged robot," Journal of Applied Logics 5 (9), 1799-1814 (2018).
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| 12) |
Z. R. Adam, A. C. Fahrenbach, B. Kacar, M. Aono, "Prebiotic geochemical automata at the intersection of radiolytic chemistry, physical complexity, and systems biology," Complexity, Volume 2018, Article ID 9376183 (2018).
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| 13) |
Z. R. Adam, Y. Hongo, H. J. Cleaves, R. Yi, A. C. Fahrenbach, I. Yoda, M. Aono, "Estimating the capacity for production of formamide by radioactive minerals on the prebiotic Earth," Scientific Reports 8, 265 (2018).
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| 14) |
R. Afrin, N. Ganbaatar, M. Aono, H. J. Cleaves, T. Yano, M. Hara, "Size-dependent affinity of glycine and its short oligomers to pyrite surface: A model for prebiotic accumulation of amino acid oligomers on a mineral surface," International Journal of Molecular Science 19(2), 365 (2018).
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| 15) |
Z. R. Adam, D. Zubarev, M. Aono, H. J. Cleaves, "Subsumed complexity: abiogenesis as a by-product of complex energy transduction," Philosophical Transactions of The Royal Society A 375: 20160348 (2017).
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| 16) |
B. Real, C. Cantillano, D. Lopez-Gonzalez, A. Szameit, M. Aono, M. Naruse, S.-J. Kim, K. Wang, R. A. Vicencio, "Flat-band light dynamics in Stub photonic lattices," Scientific Reports 7, 15085 (2017).
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| 17) |
A. C. Fahrenbach, C. Giurgiu, C. P. Tam, L. Li, Y. Hongo, M. Aono, J. W. Szostak, "A common and potentially prebiotic origin for precursors of nucleotide synthesis and activation," Journal of American Chemical Society 39 (26), 8780-8783 (2017).
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| 18) |
M. Naruse, S.-J. Kim, T. Takahashi, M. Aono, K. Akahane, M. D'Acunto, H. Hori, L. Thylen, M. Katori, M. Ohtsu, "Percolation of optical excitation mediated by near-field interactions," Physica A 471, 162-168 (2016).
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| 19) |
S.-J. Kim, M. Naruse, M. Aono, H. Hori, T. Akimoto, "Random walk with chaotically driven bias," Scientific Reports 6, 38634 (2016).
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| 20) |
S.-J. Kim, M. Naruse, M. Aono, "Harnessing the computational power of fluids for optimization of collective decision making," Philosophies 1(3), 245-260 (2016).
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| 21) |
K. Chandru, A. Gilbert, C. Butch, M. Aono, H. J. Cleaves, "The abiotic chemistry of thiolated acetate derivatives and the origin of life," Scientific Reports 6, 29883 (2016).
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| 22) |
G. Narangerel, N. Matsuzaki, Y. Nakazawa, R. Afrin, M. Aono, T. Yano, T. Hayashi, M. Hara, "Surface force analysis of pyrite: its reactivity to amino acid adsorption," Advances in Materials Physics and Chemistry 6, 167-176 (2016).
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| 23) |
K. Iwayama, Y. Hirata, M. Aono, L. Zhu, M.Hara, K. Aihara, "Decision-making ability of Physarum polycephalum enhanced by its coordinated spatiotemporal oscillatory dynamics," Bioinspiration & Biomimetics 11, 036001 (2016).
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| 24) |
S.-J. Kim, T. Tsuruoka, T. Hasegawa, M. Aono, K. Terabe, M. Aono, "Decision maker based on atomic switches," AIMS Materials Science 3(1), 245-259 (2016).
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| 25) |
C. Scharf, N. Virgo, H. J. Cleaves, M. Aono, et al. (37 authors), "A strategy for origins of life research," Astrobiology 15(12), 1031-1042 (2015).
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| 26) |
M. Naruse, M. Berthel, A. Drezet, S. Huant, M. Aono, H. Hori, S.-J. Kim, "Single-photon decision maker," Scientific Reports 5, 13253 (2015).
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| 27) |
S.-J. Kim, M. Aono, E. Nameda, "Efficient decision-making by volume-conserving physical object," New Journal of Physics 17, 083023 (2015).
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| 28) |
M. Aono, S. Kasai, S.-J. Kim, M. Wakabayashi, H. Miwa, M. Naruse, "Amoeba-inspired nanoarchitectonic computing implemented using electrical Brownian ratchets," Nanotechnology 26, 234001 (2015).
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| 29) |
M. Aono, N. Kitadai, Y. Oono, "A principled approach to the origin problem," Origins of Life and Evolution of Biospheres 45 (3), 327-338 (2015).
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| 30) |
M. Aono, M. Wakabayashi, "Amoeba-inspired heuristic search dynamics for exploring chemical reaction paths," Origins of Life and Evolution of Biospheres 45 (3), 339-345 (2015).
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| 31) |
M. Aono, S.-J. Kim, S. Kasai, H. Miwa, M. Naruse, "Amoeba-inspired spatiotemporal dynamics for solving the satisfiability problem," In: Special Issue of Advances in Science, Technology and Environmentology Vol. B11, Waseda University, pp. 37-40 (2015.3).
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| 32) |
S.-J. Kim, M. Aono, "Decision maker using coupled incompressible-fluid cylinders," In: Special Issue of Advances in Science, Technology and Environmentology Vol. B11, Waseda University, pp. 41-46 (2015.3).
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| 33) |
M. Aono, S.-J. Kim, S. Kasai, H. Miwa, M. Naruse, "Amoeba-inspired heuristic search for NP-complete problem solution at the nanoscale," Proceedings of NOLTA 2014, Luzern, Switzerland, 499-502 (2014).
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| 34) |
M. Naruse, W. Nomura, M. Aono, M. Ohtsu, Y. Sonnefraud, A. Drezet, S. Huant, S.-J. Kim, "Decision making based on optical excitation transfer via near-field interactions between quantum dots," Journal of Applied Physics 116, 154303 (2014).
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| 35) |
M. Naruse, S.-J. Kim, M. Aono, H. Hori, and M. Ohtsu, "Chaotic oscillation and random-number generation based on nanoscale optical-energy transfer," Scientific Reports 4, 6039 (2014).
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| 36) |
M. Aono, S.-J. Kim, M. Hara, T. Munakata, "Amoeba-inspired tug-of-war algorithms for exploration-exploitation dilemma in extended bandit problem," BioSystems 117, 1-9 (2014).
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| 37) |
W. Nomura, M. Naruse, M. Aono, S.-J. Kim, T. Kawazoe, T. Yatsui, M. Ohtsu, "Demonstration of controlling the spatiotemporal dynamics of optical near-field excitation transfer in Y-junction structure consisting of randomly distributed quantum dots," Advances in Optical Technologies, Vol. 2014, Article ID 569684 (2014).
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| 38) |
S.-J. Kim, M. Aono, "Amoeba-inspired algorithm for cognitive medium access," Nonlinear Theory and Its Applications, IEICE, 5(2), 198-209 (2014).
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| 39) |
S. Kasai, M. Aono, M. Naruse, "Amoeba-inspired computing architecture implemented using charge dynamics in parallel capacitance network," Applied Physics Letters 103, 163703 (2013).
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| 40) |
M. Naruse, M. Aono, S.-J. Kim, "Nanoscale photonic network for soluton searching and decision making problems," IEICE Transactions on Communications 1E96-B, 2724-2732 (2013).
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| 41) |
S.-J. Kim, M. Naruse, M. Aono, M. Ohtsu, M. Hara, "Decision maker based on nanoscale photo-excitation transfer," Scientific Reports 3, 2370 (2013).
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| 42) |
M. Aono, M. Naruse, S.-J. Kim, M. Wakabayashi, H. Hori, M. Ohtsu, M. Hara, "Amoeba-inspired nanoarchitectonic computing: Solving intractable computational problems using nanoscale photoexcitation transfer dynamics," Langmuir 29, 7557-7564 (2013).
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| 43) |
M. Naruse, N. Tate, M. Aono, M. Ohtsu, "Information physics fundamentals of nanophotonics," Reports on Progress in Physics 76, 056401 (2013).
|
| 44) |
L. Zhu, M. Aono, S.-J. Kim, M. Hara, "Amoeba-based computing for traveling salesman problem: Long-term correlations between spatially separated individual cells of Physarum polycephalum," BioSystems 112, 1-10 (2013).
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| 45) |
M. Naruse, M. Aono, S.-J. Kim, T. Kawazoe, W. Nomura, H. Hori, M. Hara, M. Ohtsu, "Spatiotemporal dynamics in optical energy transfer on the nanoscale and its application to constraint satisfaction problems," Physical Review B 86, 125407 (2012).
|
| 46) |
M. Aono, S.-J. Kim, L. Zhu, M. Naruse, M. Ohtsu, H. Hori, M. Hara, "Amoeba-inspired SAT Solver," Proceedings of NOLTA 2012, Majorca, Spain, 586-589 (2012).
|
| 47) |
S.-J. Kim, M. Aono, E. Nameda, M. Hara, "Tug-of-war Model for Competitive Multi-armed Bandit Problem: Amoeba-inspired Algorithm for Cognitive Medium Access," Proceedings of NOLTA 2012, Majorca, Spain, 590-593 (2012).
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| 48) |
M. Aono, L. Zhu, S.-J. Kim, M. Hara, "Performance enhancement of amoeba-based neurocomputer for 8-city traveling salesman problem," Proceedings of NOLTA 2011, Kobe, Japan, 104-107 (2011).
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| 49) |
L. Zhu, M. Aono, S.-J. Kim, M. Hara, "Problem-size scalability of amoeba-based neurocomputer for traveling salesman problem," Proceedings of NOLTA 2011, Kobe, Japan, 108-111 (2011).
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| 50) |
S.-J. Kim, E. Nameda, M. Aono, M. Hara, "Adaptive tug-of-war model for two-armed bandit problem," Proceedings of NOLTA 2011, Kobe, Japan, 176-179 (2011).
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| 51) |
M. Aono, L. Zhu, M. Hara, "Amoeba-based neurocomputing for 8-city traveling salesman problem," International Journal of Unconventional Computing 7, 463-480, (2011).
|
| 52) |
M. Aono, Y. Hirata, M. Hara, K. Aihara, "Greedy versus social: Resource-competing oscillator network as a model of amoeba-based neurocomputer," Natural Computing 10, 1219-1244 (2011).
|
| 53) |
S.-J. Kim, M. Aono, M. Hara, "Tug-of-war model for multi-armed bandit problem," Unconventional Computation 2010, LNCS 6079, Springer, 69-80 (2010).
|
| 54) |
S.-J. Kim, M. Aono, M. Hara, "Tug-of-war model for the two-bandit problem: Nonlocally-correlated parallel exploration via resource conservation," BioSystems 101, 29-36 (2010).
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| 55) |
K. Ozasa, M. Aono, M. Maeda, M. Hara, "Simulation of neurocomputing based on the photophobic reactions of Euglena with optical feedback stimulation," BioSystems 100, 101-107 (2010).
|
| 56) |
Y. Hirata, M. Aono, M. Hara, K. Aihara, "Spontaneous mode switching in coupled oscillators competing for constant amounts of resources," Chaos 20, 013117 (2010).
|
| 57) |
M. Aono, Y. Hirata, M. Hara, K. Aihara, "A model of amoeba-based neurocomputer," Journal of Computer Chemistry, Japan 9 (3), 143-156 (2010).
|
| 58) |
M. Aono, M. Hara, K. Aihara, T. Munakata, "Amoeba-based emergent computing: Combinatorial optimization and
autonomous meta-problem solving," International Journal of Unconventional Computing 6, 89-108 (2010).
|
| 59) |
M. Aono, Y. Hirata, M. Hara, K. Aihara, "Resource-competing oscillator network as a model of amoeba-based neurocomputer," Unconventional Computation 2009, LNCS 5715, Springer, 56-69 (2009).
|
| 60) |
K. Ozasa, M. Aono, M. Maeda, M. Hara, "Simulation of neurocomputing based on photophobic reactions of euglena: Toward microbe-based neural network computing," Unconventional Computation 2009, LNCS 5715, Springer, 209-218 (2009).
|
| 61) |
M. Aono, Y. Hirata, M. Hara, K. Aihara, "Amoeba-based chaotic neurocomputing: Combinatorial optimization by coupled biological oscillators," New Generation Computing 27, 129-157 (2009).
|
| 62) |
M. Aono, Y. Hirata, M. Hara, K. Aihara, "Combinatorial optimization by amoeba-based neurocomputer with chaotic dynamics," Natural Computing, PICT1, Springer, 1-15 (2008).
|
| 63) |
M. Aono, M. Hara, "Spontaneous deadlock breaking on amoeba-based neurocomputer," BioSystems 91, 83-93 (2008).
|
| 64) |
M. Aono, M. Hara, K. Aihara, "Amoeba-based neurocomputing with chaotic dynamics," Communications of the ACM 50(9), 69-72 (2007). 
|
| 65) |
M. Aono, M. Hara, "Amoeba-based nonequilibrium neurocomputer utilizing fluctuations and instability," Unconventional Computation 2007, LNCS 4618, Springer, 41-54 (2007).
|
| 66) |
Y.-P. Gunji, K. Sasai, M. Aono, "Return map structure and entrainment in a time-state-scale re-entrant system," Physica D 234, 124-130 (2007).
|
| 67) |
M. Aono, M. Hara, "Dynamic transition among memories on neurocomputer composed of amoeboid cell with optical feedback," Proceedings of NOLTA 2006, Bologna, Italy, 763-766 (2006).
|
| 68) |
M. Aono, Y.-P. Gunji, "Material implementation of hyperincursive field on slime mold computer," CASYS 2003, AIP conference proceedings 718, 188-203 (2004).
|
| 69) |
M. Aono, Y.-P. Gunji, "Resolution of infinite-loop in hyperincursive and nonlocal cellular automata: Introduction to slime mold computing," CASYS 2003, AIP conference proceedings 718, 177-187 (2004).
|
| 70) |
Y.-P. Gunji, T. Takahashi, M. Aono, "Dynamical infomorphism: Form of endo-perspective," Chaos, Solitons & Fractals 22, 1077-1011 (2004).
|
| 71) |
S. Tsuda, M. Aono, Y.-P. Gunji, "Robust and emergent Physarum logical-computing," Biosystems 73, 45-55 (2004).
|
| 72) |
M. Aono, Y.-P. Gunji, "Beyond input-output computings: Error-driven emergence with parallel non-distributed slime mold computer," BioSystems 71, 257-287 (2003).
|
| 73) |
Y.-P. Gunji, Y. Kusunoki, M. Aono, "Interface of global and local semantics in a self-navigating system based on the concept lattice," Chaos, Solitons & Fractals 13, 261-284 (2002).
|
| 74) |
M. Aono, Y.-P. Gunji, "Local semantics for the part-whole problem: An alternative CA system based on unserializable parallel processing," CASYS 2002, AIP conference proceedings 627, 71-84 (2002).
|
| 75) |
M. Aono, Y.-P. Gunji, "Autonomous selection and indefinite goals: A system using Bezier curves as dynamically re-defined transition rules," CASYS 2001, AIP conference proceedings 573, 242-256 (2001).
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メディア
| 1) |
NHK Eテレ, サイエンスZERO "単細胞の“知性”に迫る 謎多き粘菌の世界," 2022年11月13日.
|
| 2) |
Phys.org, "`Electronic amoeba' finds approximate solution to traveling salesman problem in linear time," 2020年12月10日.
|
| 3) |
EurekAlert!, "`Electronic amoeba' finds approximate solution to traveling salesman problem in linear time," 2020年12月10日.
|
| 4) |
日本経済新聞電子版, 慶大発企業、「アメーバコンピュータ」開発, 2020年9月28日.
|
| 5) |
JST News (科学技術振興機構広報誌) 2020年3月号, 世界を変えるSTORY,「Vol.5 AMOEBA ENERGY （アメーバに学んだ技術が物流を変える）」, 2020年3月9日.
|
| 6) |
朝日新聞デジタル, 粘菌の「知性」に注目 歌舞伎「ナウシカ」デビューも？, 2019年1月30日.
|
| 7) |
朝日新聞, 粘菌、単細胞でも賢い！？ 体を伸縮し迷路を解く、交通網などに応用も（科学の扉）, 2019年1月28日.
|
| 8) |
Phys.org, "Amoeba finds approximate solutions to NP-hard problem in linear time," 2018年12月20日.
|
| 9) |
Phys.org, "Did water-based life originate without water?," 2018年1月30日.
|
| 10) |
Astrobiology at NASA, Research Highlight "Water can be Corrosive to Life, so what about Alternative Solvents?," 2017年10月5日.
|
| 11) |
Think the Earth (オンラインニュース), 複雑な社会で「偶発的で創造的な答え」を導くための「粘菌型コンピュータ」とは？, 2017年8月29日.
|
| 12) |
NHK Eテレ, TVシンポジウム "君だけのテーマの見つけ方～第６回科学の甲子園全国大会～," 2017年5月6日.
|
| 13) |
マイナビニュース, "第一線で活躍する研究者が語る「自分だけの研究テーマの見つけ方」- 第6回 科学の甲子園全国大会特別シンポジウム," 2017年3月21日.
|
| 14) |
NASA Astrobiology Institute, Featured Stories "Proto-computation and Proto-life Workshop," 2017年3月6日.
|
| 15) |
Origins vol.3 (東京工業大学 地球生命研究所), "Interview: 活発な議論から拓かれる生命起源研究の新しい可能性," 2016年8月8日.
|
| 16) |
東工大ニュース, "平成28年度科学技術分野の文部科学大臣表彰で「若手科学者賞」を受賞," 2016年5月11日.
|
| 17) |
CREST・さきがけ ナノエレクトロニクス研究領域 News Letter vol. 3, "「アメーバ型」解探索コンピュータをナノエレクトロニクスにより実現するアーキテクチャを設計," 2016年3月.
|
| 18) |
Nanotechweb.org, "Fostering strategies in materials design," 2015年3月30日.
|
| 19) |
日経産業新聞, "次世代の先導者; 粘菌まねたコンピューター ～生命の起源解明に懸ける～," 2016年1月14日.
|
| 20) |
日経産業新聞, "半導体の革新：粘菌にヒント," 2015年12月7日.
|
| 21) |
Nature Japan, "Single-photon decision maker," 2015年10月26日.
|
| 22) |
Phys.org, "Single photon decision-maker solves multi-armed bandit problem," 2015年9月17日.
|
| 23) |
Nanotechweb.org, "Single photons could help make complex decisions," 2015年9月16日.
|
| 24) |
MIT Technology Review (米国オンラインニュース), "First demonstration of photonic intelligence," 2015年9月10日.
|
| 25) |
Mail Online (英国オンラインニュース), "Do inanimate objects THINK? Scientists claim that an iron bar can make 'decisions'," 2015年8月24日.
|
| 26) |
Phys.org, "Researchers show that an iron bar is capable of decision-making," 2015年8月24日.
|
| 27) |
NICT/NIMSプレスリリース, "単一光子を用いた意思決定の実証に成功," 2015年8月19日.
|
| 28) |
Nanotechweb.org, "Lab Talk: The wisdom of amoeba outperforms artificial intelligence," 2015年6月8日.
|
| 29) |
Phys.org, "Amoeba-inspired computing system outperforms conventional optimization methods," 2015年6月1日.
|
| 30) |
結界師: お殿様, 小学館コミック(My First Big), "スペシャル対談：田辺イエロウ×青野真士," 2015年4月15日.
|
| 31) |
JST News (科学技術振興機構広報誌) 2014年10月号, さきがける科学人 Vol.30, "粘菌の動きで問題解決," 2014年10月1日.
|
| 32) |
SPIE Newsroom, DOI: 10.1117/2.1201312.005278, "Nanophotonics for efficient solution searching and decision making," 2014年1月6日.
|
| 33) |
RIKEN NEWS, "粘菌コンピュータから生命の起源へ," 2013年12月.
|
| 34) |
TV Bros., わらしべマッドサイエンティスト 第80回"粘菌アルゴリズム," 2013年10月26日.
|
| 35) |
リクルート・キーマンズネット, "「粘菌型コンピュータ」って何だ？," 2013年10月16日.
|
| 36) |
朝日新聞デジタル, "理研・東大・情通機構、粘菌の行動原理応用した新概念のコンピューター," 2013年8月14日.
|
| 37) |
Yahoo!ニュース, "理研など、粘菌の行動原理に基づく新概念のコンピュータを開発," 2013年8月13日.
|
| 38) |
理研プレスリリース, "新しいコンピューター「知的ナノ構造体」の構築が可能に," 2013年8月9日.
|
| 39) |
中日新聞, "粘菌でコンピュータ進化," 2012年11月25日.
|
| 40) |
日本経済新聞, "粘菌を手本に半導体素子," 2012年10月2日.
|
| 41) |
AFP通信, "脳を持たない知能のカギ「粘菌」, 活躍する日本の研究者たち," 2012年1月3日.
|
| 42) |
TBS, "がっちりマンデー (理研: 未来型コンピュータ!「ねんきん」コンピュータとは?)," 2010年10月17日.
|
| 43) |
産経新聞, "注目される粘菌の高度な「知性」," 2010年3月22日.
|
| 44) |
AXIS, "粘菌チップの世界最低速コンピュータが目指すデバイス設計のパラダイムシフト," 2009年3月.
|
| 45) |
東京/中日新聞, "だいたい正しい世界最低速の計算機," 2008年11月4日.
|
| 46) |
RIKEN NEWS, "揺律で限界超える世界最低速のコンピュータ," No. 328, 10-13, 2008年10月.
|
| 47) |
Daily Telegraph (英国一般新聞), "Can we make software that comes to life?" 2008年8月5日.
|
| 48) |
日本経済新聞, "新発想生む生物計算機," 2007年4月22日.
|
| 49) |
日本経済新聞, "粘菌使うコンピューター," 2007年3月19日.
|
主要学会運営活動
| 1) |
国際研究会 Information Physics and Computing in Nano-scale Photonics and Materials 2012, オルレアン, フランス, 2012年9月: プログラム委員
|
| 2) |
電子情報通信学会 複雑コミュニケーションサイエンス時限研究専門委員会: 専門委員
|
| 3) |
国際研究会 Computing with Spatio-Temporal Dynamics 2010, 東京, 日本, 2010年6月, オーガナイザー
|
| 4) |
国際学会 Unconventional Computation 2010, 東京, 日本, 2010年6月, プログラム/組織委員
|
| 5) |
国際学会 Unconventional Computation 2009, ポンタデルガダ, ポルトガル, 2009年9月, プログラム委員
|
|
|
特許
| 1) |
PCT/JP2024/026220/WO2026022918/TW202613499, 若宮遼, 西村信一郎, 青野真士, "経路計画探索方法及び演算装置," 出願人: Amoeba Energy株式会社, 出願日: 2024年7月23日.
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| 2) |
PCT/JP2024/016498/WO2025224994/EP4693125/TW202544419/特許第7814082号（特願2025-540778）, 青野真士, 大古田香織, "経路計画探索方法及び演算装置," 出願人: Amoeba Energy株式会社, 出願日: 2024年4月26日, 登録日: 2026年2月16日.
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| 3) |
特許第7394391号（特願2020-210829）/PCT/JP2021/046795/WO2022131369/米国特許第12184204号/EP4243259, 三屋裕幸, 芦澤久幸, 金成主, 青野真士, "振動発電装置," 出願人: 慶應義塾大学・株式会社鷺宮製作所, 出願日: 2020年12月18日, 登録日: 2023年12月8日（日本）, 2024年12月31日（米国）.
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| 4) |
特許第7627453号（特願2020-184993）/PCT/JP2021/038396/WO2022097460/US20230289505, 青野真士, 葛西誠也, 大古田香織, 福田真悟, "解探索システム、解探索方法及び解探索プログラム," 出願人: Amoeba Energy株式会社・北海道大学, 出願日: 2020年11月5日, 登録日: 2025年2月6日.
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| 5) |
PCT/JP2019/050971/WO2020141597/特許第7526484号（特願2019-000307）, 金成主, 青野真士, "機械学習デバイス、及びその制御方法," 出願人: 慶應義塾大学, 出願日: 2019年1月4日.
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| 6) |
PCT/JP2019/036433/WO2020059723（特願2018-174258）, 金成主, 青野真士, 秋永広幸, 島久, 内藤泰久, "意思決定装置、及び意思決定装置の制御方法," 出願人: 慶應義塾大学・産業技術総合研究所, 出願日: 2018年9月18日.
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| 7) |
PCT/JP2018/036691/WO2020044574/特開2020-032865（特願2018-161014）, 青野真士, 鯨井悠生, 野﨑大幹, "移動ロボット," 出願人: Amoeba Energy株式会社, 出願日: 2018年8月30日.
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| 8) |
特許第7141615号（特願2018-093128、特開2019-198903）, 葛西誠也, 斉藤健太, 青野真士, "ロボット、ロボット制御方法、およびプログラム," 出願人: 北海道大学・Amoeba Energy株式会社, 出願日: 2018年5月14日, 登録日: 2022年9月26日.
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| 9) |
特開2019-198902（特願2018-093127）, 葛西誠也, 斉藤健太, 末藤直樹, 青野真士, "デバイス," 出願人: 北海道大学・Amoeba Energy株式会社, 出願日: 2018年5月14日.
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| 10) |
PCT/JP2018/014799/WO2019187171/特開2019-177465（特願2018-069772）, 青野真士, "移動ロボット," 出願人: Amoeba Energy株式会社, 出願日: 2018年3月30日.
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| 11) |
特許第6974955号（特願2017-063895、特開2018-166194）, 青野真士, "クロスバー構造および最適化問題解探索システム," 出願人: 慶應義塾大学, 出願日: 2017年3月28日.
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| 12) |
PCT/JP2018/026997/WO2019017412（特願2017-140272）, 竹内尚輝, 青野真士, "解探索装置およびプログラム," 出願人: 横浜国立大学, 出願日: 2017年7月19日.
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| 13) |
特許第6536957号（特願2016-008632、特開2017-130024）, 金成主, 鶴岡徹, 長谷川剛, 青野正和, 青野真士, "意思決定装置," 出願人: 物質・材料研究機構, 出願日: 2016年1月20日.
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| 14) |
特開2015-184829（特願2014-059133）, 青野真士, 若林正光, "物質探索システム及び方法、物質探索プログラム," 出願人: 科学技術振興機構, 出願日: 2014年3月20日.
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| 15) |
特許第6145766号（特願2013-066768、特開2014-191598）/PCT/JP2014/001506/WO2014156044/US20160042291/EP2983098, 金成主, 青野真士, 行田悦資, 原正彦, "解探索システム、解探索プログラム," 出願人: 理化学研究所, 出願日: 2013年3月27日.
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| 16) |
特許第6011928号（特願2012-232402、特開2014-085733）, 青野真士, 金成主, 原正彦, 若林政光, "解探索システム及び方法、解探索プログラム," 出願人: 理化学研究所, 出願日: 2012年10月19日.
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特許第6029048号（特願2012-116725、特開2013-242477）/US9385257（US20130313406）, 青野真士, 金成主, 原正彦, 成瀬誠, 川添忠, 大津元一, "量子ドットによる解探索システム," 出願人: 理化学研究所, 出願日: 2012年5月22日.
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| 18) |
特許第4572745号（特願2005-164281、特開2006-338515）, 青野真士, 原正彦, "協同現象を示す細胞又は細胞群を用いた情報処理システム," 出願人: 理化学研究所, 出願日: 2005年6月3日, 登録日: 2010年8月27日.
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和文著書／総説
| 1) |
青野真士, "最短経路ではたどりつけない ―アメーバ発想の最適化半導体への挑戦―," 応用物理学会機関誌『応用物理』, 2025年94巻12号, p.671-675 (2025年12月出版).
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| 2) |
青野真士, 大古田香織, 若宮遼, 奥山寅男, 天野英晴, "アメーバ最適化エンジン ―大規模ロボット搬送のリアルタイム協調制御を加速するプログラマブルIC―," 日本ロボット学会誌, 2025年43巻7号, p.661-667 (2025年9月10日出版).
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| 3) |
葛西誠也, 青野真士, "粘菌に触発された組合せ最適化計算機「電子アメーバ」とその記憶機能," 電子情報通信学会誌, 2024年107巻4号, p.340-346 (2024年4月出版).
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青野真士, 大古田香織, "アメーバ型組合せ最適化マシン：並行性と揺らぎを活用する計算システム (招待論文)," 応用物理学会機関誌『応用物理』, 2020年89巻10号, p.580-584 (2020年10月10日出版).
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| 5) |
青野真士, "ランダムではない揺らぎをもつ細胞の計算能力," 生物物理学会機関誌『生物物理』, 2020年60巻4号, p.247-248 (2020年6月24日出版).
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青野真士, 鯨井悠生, 野崎大幹, "サイバー空間とフィジカル空間を癒合するアメーバ計算パラダイム," 人工知能学会機関誌『人工知能』, 2018年33巻5号, p.561-569 (2018年9月1日出版).
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| 7) |
合原一幸, 牧野貴樹, 金山博, 河野崇, 木脇太一, 青野真士, 『人工知能はこうして創られる』, ウェッジ, 2017年9月16日, ISBN 4863101856.
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| 8) |
青野真士, 大古田香織, "ケミカルスペースを旅するアメーバ計算モデル," 『現代化学』, 2017年558号, p.30-36 (2017年9月1日出版).
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| 9) |
青野真士, "自然計算から拡張生命へ," 電子情報通信学会誌, 2017年100巻6号, p.499-505 (2017年6月1日出版).
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| 10) |
青野真士, "アメーバに着想を得た解探索アルゴリズムとそのナノフォトニクス実装," 『レーザー研究』, 2017年45巻3号, p.144-147 (2017年3月20日出版).
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| 11) |
青野真士, "粘菌アメーバに学んだナノアーキテクトニクス計算," Molecular Electronics and Bioelectronics (M&BE), 2017年28巻1号, p.25-28 (2017年2月20日出版).
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| 12) |
小林聡, 萩谷昌己, 横森貴, 山村雅幸, 木賀大介, 礒川悌次郎, ペパーフェルディナンド, 西田泰伸, 角谷良彦, 本多健太郎, 青野真士, 『自然計算へのいざない：ナチュラルコンピューティング・シリーズ』, 近代科学社, 2016年9月27日.
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主要招待講演
| 1) |
Center for Consciousness Studies - Templeton World Charity Foundation Meeting ‘Planning Scientific Research on Consciousness: Experiments to Test and Distinguish Orch OR vs. IIT,' Tucson, Arizona, Jan. 5-8, 2020.
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| 2) |
SFI Workshop `What is Biological Computation?,' "Amoeba-based computing and its electronic circuit implementations," Santa Fe Institute, New Mexico, Sep. 11-13, 2019.
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| 3) |
2nd Electron Devices Technology and Manufacturing (EDTM) Conference 2018 (Short Course 1: Material and Device Evolution for Artificial Intelligence), "Amoeba-Inspired Problem Solvers," Ariston Hotel, Kobe, Japan, Mar. 13, 2018.
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| 4) |
MANA International Symposium 2017, "Natural computing paradigm: Amoeba-inspired architectures and their applications," Epochal Tsukuba, Tsukuba, Japan, Feb. 28-Mar. 3, 2017.
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| 5) |
Gordon Research Conference on Origins of Life, "Oligopeptide formation in geysers," Galveston, Texas, January 19, 2016.
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| 6) |
Trends in Nanotechnology International Conference (TNT2014), "Amoeba-inspired Nanoarchitectonic Computing for Solving Computationally Demanding Problems (Keynote lecture)," Barcelona, Spain, October 27-31, 2014.
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| 7) |
New Challenges in Complex Systems Science, Waseda AICS Symposium and the 14th Slovenia-Japan Seminar, "Amoeba-inspired Computing Paradigm," Waseda University, Tokyo, October 24-26, 2014.
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| 8) |
MANA International Symposium 2014, "Amoeba-inspired Nanoarchitectonic Computing," Epochal Tsukuba, Tsukuba, Japan, Mar. 5-7, 2014.
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| 9) |
Swiss-Japan Workshop on Light and Matter on the Nanoscale, "Amoeba-inspired Beyond-Neumann Computing: Solving Intractable Computational Problems using Nanoscale Photoexcitation Transfer Dynamics," Ecole Polytechnique Federale de Lausanne (EPFL), Lausanne, Swiss, Oct. 4, 2013.
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| 10) |
JSPS Sweden-Japan Collaboration Symposium 2013 -Exploring the Future of Light, Matter, and Information in the Nanoscale-, "Amoeba-inspired Nanophotonic Computing," Lund University, Lund, Sweden, June 3, 2013.
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| 11) |
JSPS Optelectronics the 130 Committee, "From amoeba to nanophotonics: Nanophotonic solution explorer," Tokyo University of Science, Kagurazaka, Japan, Dec. 6, 2012
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| 12) |
The 13th Workshop on Information Photonics (Autumn Camp): Randomness and Information Photonics, "Amoeba-inspired Nanophotonic Computer," Shonan Village Center, Japan, Sep. 28, 2012
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| 13) |
International Workshop on Information Physics and Computing in Nano-scale Photonics and Materials (IPCN) 2012, "Amoeba-inspired Model of Quantum Dot-based SAT Solver," Orleans, France, Sep. 7, 2012
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| 14) |
The 2nd Sweden-Japan Workshop on Nanophotonics and Related Technologies, "Amoeba-inspired Problem Solver and its Application to Nanophotonic Computing," Royal Institute of Technology (KTH), Kista, Sweden, June 19, 2012.
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| 15) |
IPSJ 151st DPS workshop, "Amoeba-based computing: Bottom-up optimization in resource allocation using spatiotemporal oscillatory dynamics," Naha, Okinawa, May 22, 2012.
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| 16) |
33rd Nanophotonics Open Seminar, "Amoeba-based computing: Global optimization in resource allocation and decision-making by spatiotemporal oscillatory dynamics," Univ. of Tokyo, Nov. 17, 2011.
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| 17) |
3rd International Conference on Chaos Revolution in Science, Technology, and Society (ICR2011), "Amoeba-based chaotic neurocomputing: Spatiotemporally-correlated search dynamics for optimization problems," Depok, Indonesia, Feb. 22, 2011.
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| 18) |
Meiji Univ. GCOE Program, 34th MAS Seminar, "Amoeba-based neurocomputing: spatio-temporal dynamics for overall optimization in resource allocation and decision making," Ikuta, Japan, Dec. 20, 2010.
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| 19) |
Workshop on Molecular Robotics, "Amoeba-based computing," Tokyo, Japan, Jul. 30, 2010.
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| 20) |
Workshop on Noise and Fluctuation in Living Organisms, "Amoeba-based neurocomputing and resource-competing oscillator network," Wako, Japan, Jul. 10, 2009.
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| 21) |
RIKEN Symposium: Hierarchical Crossing Molecular and Sysytem Life Science, Aug. 7-8, 2009, Wako, Japan.
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| 22) |
BMB (Biochemistry and Molecular Biology) 2008, Symposium: From Molecular Biology to Post-NanoTechnology, Dec. 12, 2008, Kobe, Japan.
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| 23) |
Hakodate Future University, "Amoeba-based NeuroComputer: Combinatorial Optimization and Emergent Coputation" Hakodate, Japan, Sep. 2008.
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| 24) |
4th Open Workshop on Fusion of Bio- and Nano-Technologies, "Emergent Function baed on Biological Information Processing," Tokyo, Japan, Nov. 2007.
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