PUBLICATIONS
Category
Year

International Conference

  1. R. Allen Waggoner, Topi Tanskanen, Keiji Tanaka, and Kang Cheng, Enhancement of event-related fMRI studies of the human visual system using multi-band EPI, 2016 , ポスター発表BibTeX
  2. Keiji Tanaka, Brain Mechanisms of intuitive problem solving in experts、口頭、Tanaka K、IBS Conference on Systems Neuroscience & Neuroimaging, 2016 , シンポジウムBibTeX
  3. Keiji Tanaka, Changes in deoxygenation level of bloods and cortical tissues following neuronal activity changes as the bases for intrinsic optical recordings and fMRI, 2016 , 講演BibTeX
  4. Macpherson T, Morita M, Wang Y, Sasaoka T, Sawa A, Hikida T, Nucleus accumbens dopamine D2-receptor expressing neurons control behavioural flexibility in a place learning task in the IntelliCage., 2016BibTeX
  5. Hikida T, Yao S, Fukakusa A, Morita M, Kimura H, Hirai K, Ando T, Toyoshiba H, Sawa A, Expression changes in prefrontal cortex after neurotransmission blocking of the nucleus accumbens pathways., 2016BibTeX
  6. Morita M, Macpherson T, Sawa A, Hikida T, Learning deficits involving nucleus accumbens D2-receptor expressing neurons in a DISC1 mouse model., 2016BibTeX
  7. Itakura M, Kubo T, Kaneshige A, Azuma Y, Hikida T, Takeuchi T, Nakajima H., A novel therapeutic target for stroke by inhibition of GAPDH aggregation., 2016BibTeX
  8. Macpherson T, Morita M, Wang Y, Sasaoka T, Sawa A, Hikida T, Activity in dopamine D2-receptor-expressing nucleus accumbens is necessary for behavioral flexibility in an IntelliCage place discrimination task., 2016BibTeX
  9. Hikida T, Activity in dopamine D2-receptor-expressing nucleus accumbens is necessary for behavioral flexibility in an IntelliCage place discrimination task., 2016BibTeX
  10. Hikida T, Yao S, Fukakusa A, Morita M, Kimura H, Hirai K, Ando T, Toyoshiba H, Sawa A, Expression changes in prefrontal cortex after neurotransmission blocking of the nucleus accumbens pathways., 2016BibTeX
  11. Macpherson T, Hikida T, Nucleus accumbens dopamine D1-receptor-expresing neurons control incentive salience to reward-predictive cues., 2017BibTeX
  12. Hikida T, Morita M, Macpherson T, D2L receptor-expressing striatal neurons control visual discrimination learning in a touchscreen operant system., 2017BibTeX
  13. Macpherson T, Hikida T, Nucleus accumbens dopamine D1-receptor-expresing neurons control attribution of incentive salience in an autoshaping task., 2017BibTeX
  14. Macpherson T, Hikida T, Nucleus accumbens dopamine D1-receptor-expresing neurons control Pavlovian approach behaviour., 2017BibTeX
  15. Macpherson T, Hikida T, Nucleus Accumbens D1 receptor expressing neurons control autoshaping behavior, 2017BibTeX
  16. Nakajima H, Nakamura S, Kita A, Itakura M, Senami C, Kuwamura M, Hikida T, Azuma Y-T, Takeuchi T, Blockade of GAPDH nuclear translocation in the hippocampus contributes to anti-depressant-like action in stressed mice, 2017BibTeX
  17. Hikida T, Basal ganglia network mechanisms in cognitive learning, 2017BibTeX
  18. Macpherson T, Hikida T, Nucleus accumbens D1 receptor expressing neurons control sutoshaping behavior., 2017BibTeX
  19. Macpherson T, Hikida T, Dopamine D2L receptors control flexible behavior., 2017BibTeX
  20. Hikida T, Neuronal circuit mechanisms in reward and aversive behavior., 2017BibTeX
  21. Tadahiro Taniguchi, Symbol Emergence in Robotics for Long-Term Human-Robot Collaboration, 2016BibTeX
  22. HaiLong Liu, Tadahiro Taniguchi, Kazuhito Takenaka, Yuusuke Tanaka, and Takashi Bando, Reducing the Negative Effect of Defective Data on Driving Behavior Segmentation Via a Deep Sparse Autoencoder, 2016BibTeX
  23. Akira Taniguchi, Tadahiro Taniguchi, Angelo Cangelosi, Multiple Categorization by iCub: Learning Relationships between Multiple Modalities and Words, 2016BibTeX
  24. Tadahiro Taniguchi, Nonparametric Bayesian Word Discovery for Symbol Emergence in Robotics the Workshop on Machine Learning Methods for High-Level Cognitive Capabilities, 2016 , Invited TalkBibTeX
  25. Yuki Tada, Yoshinobu Hagiwara, Tadahiro Taniguchi, Comparative Study of Feature Extraction Methods for Direct Word Discovery with NPB-DAA from Natural Speech Signals, 2017 9, OralBibTeX
  26. Yuusuke Miyuki, Yoshinobu Hagiwara and Tadahiro Taniguchi, Unsupervised Learning for Spoken Word Production based on Simultaneous Word and Phoneme Discovery without Transcribed Data, 2017 9, OralBibTeX
  27. Nakahara H., Neural computations for making decisions with others’ choice and reward, 2016 , invited talkBibTeX
  28. Ma N, Harasawa N, Ueno K, Ichinohe N, Haruno M, Cheng K, Nakahara H., Neural mechanisms for deciding with predicting others, 2016BibTeX
  29. Fukuda H, Ma N, Suzuki S, Harasawa N, Ueno K, Gardner JL, Ichinohe N, Haruno M, Cheng K, Nakahara H, Neural mechanisms and computation that mediates value by others’ reward for decision making, 2016BibTeX
  30. Ma N, Harasawa N, Ueno K, Ichinohe N, Haruno M, Cheng K, Nakahara H., Neural mechanisms for decision-making with predicting others: human fMRI, 2016BibTeX
  31. Fukuda H, Ma N, Suzuki S, Harasawa N, Ueno K, Gardner JL, Ichinohe N, Haruno M, Cheng K, Nakahara H, Neural computation underlying value-based decisions including rewards to others, 2016BibTeX
  32. Fukuda H, Ma N, Suzuki S, Harasawa N, Ueno K, Gardner JL, Ichinohe N, Haruno M, Cheng K, Nakahara H. , Neural mechanisms for converting social value into one’s own decision value, 2017BibTeX
  33. Ma N, Harasawa N, Ueno K, Ichinohe N, Haruno M, Cheng K, Nakahara H., Neural mechanisms for deciding with predicting others in human brain, 2017BibTeX
  34. Nakahara H., Reinforcement learning with environmental structures and mind of others, 2017 , invited talkBibTeX
  35. Ma N, Harasawa N, Ueno K, Ichinohe N, Haruno M, Cheng K, Nakahara H., Neural mechanisms of predicting others’ decisions for one’s better decisions, 2017BibTeX
  36. Fukuda H, Ma N, Suzuki S, Harasawa N, Ueno K, Gardner JL, Ichinohe N, Haruno M, Cheng K, Nakahara H. , Neural processes for converting social value into one’s own decision value, 2017BibTeX
  37. Nakahara H., Learning to make reward-guided decisions: sequential, successive, and social, 2017 , invited talkBibTeX
  38. Fukuda H, Ma N, Suzuki S, Harasawa N, Ueno K, Gardner JL, Ichinohe N, Haruno M, Cheng K, Nakahara H. , Neural mechanisms for social value conversion in decision-making, 2017BibTeX
  39. Nakahara H., Neural computations underlying social decision-making, 2017 , invited talkBibTeX
  40. Nakahara H., Learning to make reward-guided decisions: sequential, successive, and social, 2017 , invited talkBibTeX
  41. Masamichi Sakagami, Signal Interaction between Primate Prefrontal Cortex and Striatum in Asymmetric Reward Task , 2016 8BibTeX
  42. Mineki Oguchi, Shingo Tanaka, Xiaochuan Pan, Takefumi Kikusui, Shigeki Kato, Kazuto Kobayashi, and Masamichi Sakagami, Elucidating the Function of the Prefronto-striatal Circuit of the Macaque Brain Using the Double Virus Vector Infection , 2016 11BibTeX
  43. Masamichi Sakagami, Decoding The Value Of Juice From Electrocorticographic Signals In Monkey Prefrontal Cortices And Its Modulation Through The Decoded Neurofeedback. , 2016 12BibTeX
  44. Eiji Uchibe and Kenji Doya, Model-free deep inverse reinforcement learning by logistic regression, 2017 , posterBibTeX
  45. Ishida H, Inoue K, Hoshi E, Takada M, Cells of origin of multisynaptic projections from amygdala to ventral premotor cortex in macaques , 2017 6, Sicily, ItalyBibTeX
  46. Inoue K, Fujiwara M, Uezono S, Tanabe S, Ishida H, Hoshi E, Takada M, Organization of multisynaptic inputs from the basal ganglia to the premotor cortex in macaque monkeys – Retrograde transneuronal dual tracing using rabies viral vectors., 2017 6, 蘇州市, 中華人民共和国BibTeX
  47. Inoue K, Fujiwara M, Uezono S, Tanabe S, Ishida H, Hoshi E, Takada M, Arrangement of multisynaptic inputs from the basal ganglia to the dorsal and ventral premotor cortical areas in macaques: retrograde transneuronal double labeling with fluorescent rabies viral vectors., 2017 11, Washington, DC, USABibTeX
  48. Tanno, T., Horie, K., Izawa, J. and Morita, M, Robustness of Selective Desensitization Perceptron Against Irrelevant and Partially Relevant Features in Pattern Classification, 2017 11, 520-529BibTeX
  49. Mineki Oguchi, Shingo Tanaka, Xiaochuan Pan, Takefumi Kikusui, Shigeki Kato, Kazuto Kobayashi, and Masamichi Sakagami,  Elucidating the function of the prefronto-striatal circuit of the macaque brain using the chemogenetic double virus vector infection, 2016 10BibTeX
  50. Tanaka S, Kawasaki K, Hasegawa I, Suzuki T and Sakagami M , Modulation of value information coded in the lateral prefrontal cortex by the decoded neurofeedback with the electrocorticographic (ECoG) signals , 2016 11BibTeX
  51. Masamichi Sakagami, Elucidating the Function of the Prefronto-striatal Circuit of the Macaque Brain Using the Double Virus Vector Infection , 2016 11BibTeX
  52.  Mineki Oguchi, Shingo Tanaka, Xiaochuan Pan, Takefumi Kikusui, Shigeki Kato, Kazuto Kobayashi, and Masamichi Sakagami , Elucidating the Function of the Prefronto-striatal Circuit of the Macaque Brain Using the Double Virus Vector Infection , 2016 7BibTeX
  53. Tanaka S, Kawasaki K, Hasegawa I, Suzuki T and Sakagami M , Decoding value related signals represented in multiple areas of the prefrontal cortex using ECoG electrodes , 7BibTeX
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