Coincident but Distinct Messages of Midbrain Dopamine and Striatal Tonically Active Neurons

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   Daniel C. Castro, Rachel A Terry, Kent C. Berridge · 2016 · Neuropsychopharmacology
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   Collin J. Lobb, Charles J. Wilson, Carlos A. Paladini · 2010 · Journal of Neurophysiology
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   Straub, C., Tritsch, N. X., Hagan, N. A., Gu, C., Sabatini, B. L. · 2014 · Journal of Neuroscience
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   White, J. Kael, Bromberg-Martin, Ethan S., Heilbronner, Sarah R., Zhang, Kaining, Pai, Julia, Haber, Suzanne N., Monosov, Ilya E. · 2019 · Nature Communications
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   Ruth S. Barr, Diego A. Pizzagalli, Melissa Culhane Maravić, DONALD C. GOFF, Anne Eden Evins · 2007 · Biological Psychiatry
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   Rui M. Costa · 2007 · Annals of the New York Academy of Sciences
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    Faure, P., Tolu, S., Valverde, S., Naudé, J. · 2014 · Neuroscience
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    Kiyohito Iigaya, Giles W. Story, Zeb L. Kurth-Nelson, Raymond J. Dolan, Peter Dayan · 2016 · eLife
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    Geetika Kharkwal, Karen Brami‐Cherrier, José E. Lizardi-Ortiz, Alexandra Nelson, María Ramos, Daniel Del Barrio, David L. Sulzer, Anatol C. Kreitzer, Emiliana Borrelli · 2016 · Neuron
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    Mati Joshua, Shlomo Elias, Odeya Marmor, Hagai Bergman · 2007 · Journal of Neuroscience Methods
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    2016 · Handbook of behavioral neuroscience
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    Jeffery R. Wickens · 2008 · Behavioural Brain Research
19. Striatal cholinergic interneurons and cortico‐striatal synaptic plasticity in health and disease
    Marc Deffains, Hagai Bergman · 2015 · Movement Disorders
20. Reinforcement determines the timing dependence of corticostriatal synaptic plasticity in vivo
    Simon D. Fisher, Paul B. Robertson, Melony J. Black, Peter Redgrave, Mark A. Sagar, Wickliffe C. Abraham, John N. J. Reynolds · 2017 · Nature Communications
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    John N. J. Reynolds, Brian I. Hyland, Jeffery R. Wickens · 2004 · Journal of Neuroscience
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    David Arkadir, Genela Morris, Eilon Vaadia, Hagai Bergman · 2004 · Journal of Neuroscience
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    Yonatan Loewenstein, H. Sebastian Seung · 2006 · Proceedings of the National Academy of Sciences
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    Mati Joshua, Avital Adler, Hagai Bergman · 2009 · Current Opinion in Neurobiology
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    Xinyong Tian, Kai Li, Philip E. Hockberger, David L. Wokosin, Dalton James Surmeier · 2010 · Molecular and Cellular Neuroscience
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    Élodie Fino, Jean‐Michel Deniau, Laurent Venance · 2007 · The Journal of Physiology
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    Anne L. Collins, Tara J. Aitken, I-Wen Huang, Christine Shieh, Venuz Y. Greenfield, Harold G. Monbouquette, Sean B. Ostlund, Kate M. Wassum · 2019 · Biological Psychiatry
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    J. J. Johannes Hjorth, Alexander Kozlov, Ilaria Carannante, Johanna Frost Nylén, Robert Lindroos, Yvonne Johansson, Anna Tokarska, Matthijs C. Dorst, Shreyas M. Suryanarayana, Gilad Silberberg et al. · 2020 · Proceedings of the National Academy of Sciences
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    Giorgio Rizzi, Kelly R. Tan · 2017 · Frontiers in Neural Circuits
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    Susanne Becker, Wiebke Gandhi, Petra Schweinhardt · 2012 · Neuroscience Letters
31. Cholinergic Dysfunction Alters Synaptic Integration between Thalamostriatal and Corticostriatal Inputs in DYT1 Dystonia
    Giuseppe Sciamanna, Annalisa Tassone, Georgia Mandolesi, Francesca Puglisi, Giulia Ponterio, Giuseppina Martella, Graziella Madeo, Giorgio Bernardi, David G. Standaert, Paola Bonsi et al. · 2012 · Journal of Neuroscience
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    Nathaniel D. Daw, Daphna Shohamy · 2008 · Social Cognition
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    David H. Root, Huiling Wang, Bing Liu, David J. Barker, László Mód, Péter Szocsics, Afonso C. Silva, Zsófia Maglóczky, Marisela Morales · 2016 · Scientific Reports
34. Relationships between the Firing of Identified Striatal Interneurons and Spontaneous and Driven Cortical ActivitiesIn Vivo
    Andrew Sharott, Natalie M. Doig, Nicolas P. Mallet, Peter J. Magill · 2012 · Journal of Neuroscience
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    Ping Deng, Yuchun Zhang, Zao Cheng Xu · 2007 · Journal of Neuroscience
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    Christopher A Deister, Mark A Teagarden, Charles J. Wilson, Carlos A. Paladini · 2009 · Journal of Neuroscience
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    Hisham E. Atallah, Andrew D. McCool, Mark W. Howe, Ann M. Graybiel · 2014 · Neuron
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    Anne L. Collins, Tara J. Aitken, Venuz Y. Greenfield, Sean B. Ostlund, Kate M. Wassum · 2016 · Neuropsychopharmacology
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    Jeffrey D. Lenz, Mary Kay Lobo · 2013 · Behavioural Brain Research
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    John G. Mikhael, Rafał Bogacz · 2016 · PLoS Computational Biology
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    Anne L. Collins, Benjamin T. Saunders · 2020 · Journal of Neuroscience Research
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    Kei Oyama, István Hernádi, Toshio Iijima, Ken‐Ichiro Tsutsui · 2010 · Journal of Neuroscience
43. Nociceptive responses of midbrain dopaminergic neurones are modulated by the superior colliculus in the rat
    Véronique Coizet, Eleanor Jane Dommett, Peter Redgrave, Paul Geoffrey Overton · 2006 · Neuroscience
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    Shlomo Elias, Mati Joshua, Joshua A. Goldberg, Gali Heimer, David Arkadir, Genela Morris, Hagai Bergman · 2007 · Journal of Neuroscience
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    Marchand, William R, Yurgelun‐Todd, Deborah · 2010 · Bipolar Disorders
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    Bloch, Michael, State, Matthew, Pittenger, Christopher · 2011 · Current Opinion in Neurology
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    Nicholas T Franklin, Michael J. Frank · 2015 · eLife
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    Jan Michael Schulz, John N. J. Reynolds · 2012 · Trends in Neurosciences
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    Mati Joshua, Avital Adler, Yifat Prut, Eilon Vaadia, Jeffery R. Wickens, Hagai Bergman · 2009 · Neuron
50. The Basal Ganglia
    Suzanne N. Haber, Avital Adler, Hagai Bergman · 2012 · Elsevier eBooks
51. Dopamine transients follow a striatal gradient of reward time horizons
    Ali Mohebi, Wei Wei, Lilian Pelattini, Kyoungjun Kim, Joshua D. Berke · 2024 · Nature Neuroscience
52. A direct projection from superior colliculus to substantia nigra pars compacta in the cat
    John G. McHaffie, Huai Jiang, Paul J. May, Véronique Coizet, Paul Geoffrey Overton, Barry E. Stein, Peter Redgrave · 2005 · Neuroscience
53. Origin of the Slow Afterhyperpolarization and Slow Rhythmic Bursting in Striatal Cholinergic Interneurons
    Charles J. Wilson, Joshua A. Goldberg · 2005 · Journal of Neurophysiology
54. Phasic dopamine signals: from subjective reward value to formal economic utility
    Schultz, Wolfram, Carelli, Regina M, Wightman, R Mark · 2015 · Current Opinion in Behavioral Sciences
55. Subregions of the ventral striatum show preferential coding of reward magnitude and probability
    Juliana Yacubian, Tobias Sommer, Katrin Schroeder, Jan P. Gläscher, Dieter F. Braus, Christian Büchel · 2007 · NeuroImage
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    Yuan Cai, Christopher Ford · 2018 · Cell Reports
57. The role of state uncertainty in the dynamics of dopamine
    John G. Mikhael, HyungGoo R. Kim, Naoshige Uchida, Samuel Joseph Gershman · 2022 · Current Biology
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    Mark W. Howe, Imane Ridouh, Anna Letizia Allegra Mascaro, Alyssa Larios, Maite Azcorra, Daniel A. Dombeck · 2019 · eLife
59. Contribution of cholinergic interneurons to striatal pathophysiology in Parkinson's disease
    Samira Ztaou, Marianne Amalric · 2019 · Neurochemistry International
60. Coincidence of cholinergic pauses, dopaminergic activation and depolarisation of spiny projection neurons drives synaptic plasticity in the striatum
    John N. J. Reynolds, Riccardo Avvisati, Paul D. Dodson, Simon D. Fisher, Manfred Josef Oswald, Jeffery R. Wickens, Yan-Feng Zhang · 2022 · Nature Communications
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    Enomoto, Kazuki, Matsumoto, Naoyuki, Nakai, Sadamu, Satoh, Takemasa, Sato, Tatsuo K., Ueda, Yasumasa, Inokawa, Hitoshi, Haruno, Masahiko, Kimura, Minoru · 2011 · Proceedings of the National Academy of Sciences
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    Simon Hong, Okihide Hikosaka · 2011 · Frontiers in Behavioral Neuroscience
63. Efficient reinforcement learning: computational theories, neuroscience and robotics
    Mitsuo Kawato, Kazuyuki Samejima · 2007 · Current Opinion in Neurobiology
64. Spike-timing dependent plasticity in striatal interneurons
    Élodie Fino, Laurent Venance · 2011 · Neuropharmacology
65. Differential Entrainment and Learning-Related Dynamics of Spike and Local Field Potential Activity in the Sensorimotor and Associative Striatum
    Catherine A. Thorn, Ann M. Graybiel · 2014 · Journal of Neuroscience
66. Instrumental learning in hyperdopaminergic mice
    Henry H. Yin, Xiaoxi Zhuang, Bernard W. Balleine · 2006 · Neurobiology of Learning and Memory
67. Accumbens cholinergic interneurons dynamically promote dopamine release and enable motivation
    Ali Mohebi, Val L. Collins, Joshua D. Berke · 2023 · eLife
68. Excitatory effects of serotonin on rat striatal cholinergic interneurones
    Craig P. Blomeley, Enrico Bracci · 2005 · The Journal of Physiology
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    Edward H. Hagen, R. J. Sullivan, Robert Schmidt, Genela Morris, Richard Kempter, Peter Hammerstein · 2009 · Neuroscience
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    Thomas A. Stalnaker, Ben Berg, Navkiran Aujla, Geoffrey M. Schoenbaum · 2016 · Journal of Neuroscience
71. Pauses in Cholinergic Interneuron Activity Are Driven by Excitatory Input and Delayed Rectification, with Dopamine Modulation
    Yan-Feng Zhang, John N. J. Reynolds, Stephanie Jane Cragg · 2018 · Neuron
72. An Analysis of Decision under Risk in Rats
    Christine M. Constantinople, Alex T. Piet, Carlos D. Brody · 2019 · Current Biology
73. Dissociable effects of disconnecting amygdala central nucleus from the ventral tegmental area or substantia nigra on learned orienting and incentive motivation
    Heather El‐Amamy, Peter C. Holland · 2007 · European Journal of Neuroscience
74. Electrical Synapses between Dopaminergic Neurons of the Substantia Nigra Pars Compacta
    Marie Vandecasteele, Jacques Glowinski, Laurent Venance · 2005 · Journal of Neuroscience
75. Serotoninergic and dopaminergic modulation of cortico-striatal circuit in executive and attention deficits induced by NMDA receptor hypofunction in the 5-choice serial reaction time task
    Mirjana Carli, Roberto William Invernizzi · 2014 · Frontiers in Neural Circuits
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    Ken‐ichi Amemori, Leif Gibb, Ann M. Graybiel · 2011 · Frontiers in Human Neuroscience
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    Paul Apicella, Sabrina Ravel, Marc Deffains, Eric Legallet · 2011 · Journal of Neuroscience
78. Choice values
    Yael Niv, Nathaniel D. Daw, Peter Dayan · 2006 · Nature Neuroscience
79. Spike-timing dependent plasticity in the striatum
    Élodie Fino · 2010 · Frontiers in Synaptic Neuroscience
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    Javier Bernácer, Lucı́a Prensa, José Manuel Giménez‐Amaya · 2007 · PLoS ONE
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    Renana Eitan, Reuben Ruby Shamir, Eduard Linetsky, Ovadya Rosenbluh, Shay Moshel, Tamir Ben‐Hur, Hagai Bergman, Zvi H. Israel · 2013 · Frontiers in Systems Neuroscience
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    Hiroshi Inokawa, Hiroshi Yamada, Naoyuki Matsumoto, Manabu Muranishi, Minoru Kimura · 2010 · Neuroscience
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    Yasuo Kubota, Jun Liu, Dan Hu, William E. DeCoteau, Uri T. Eden, Anne C. Smith, Ann M. Graybiel · 2009 · Journal of Neurophysiology
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    Anu G. Nair, Omar Gutierrez‐Arenas, Olivia Eriksson, Pierre Vincent, Jeanette Hellgren Kotaleski · 2015 · Journal of Neuroscience
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    Paul Apicella · 2017 · Neuroscience
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    de Kloet, Sybren F., Mansvelder, Huibert D., De Vries, Taco J. · 2015 · Biochemical Pharmacology
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    Aphroditi A. Mamaligas, Christopher Ford · 2016 · Neuron
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    Alyssa L. Peechatka, Alexis Estelle Whitton, Stacey L. Farmer, Diego A. Pizzagalli, Amy C. Janes · 2015 · Drug and Alcohol Dependence
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    Adriana Galván, Yoland Smith · 2011 · Basal Ganglia
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     David Arkadir, Hagai Bergman, Stanley Fahn · 2014 · Neurology