2023
Verpeut, Jessica et al. “Cerebellar Contributions to a Brainwide Network for Flexible Behavior in Mice..” Communications biology 6.1 (2023): 605.
Zhang, Yan et al. “Fast and Sensitive GCaMP Calcium Indicators for Imaging Neural Populations..” Nature 615.7954 (2023): 884–891.
2022
Broussard, Gerard et al. “A Flexible Platform for Monitoring Cerebellum-Dependent Sensory Associative Learning..” Journal of visualized experiments : JoVE 179 (2022): n. pag.
Chen, Xiaoying et al. “Transcriptomic Mapping Uncovers Purkinje Neuron Plasticity Driving Learning..” Nature 605.7911 (2022): 722–727.
Klibaite, Ugne et al. “Deep Phenotyping Reveals Movement Phenotypes in Mouse Neurodevelopmental Models..” Molecular autism 13.1 (2022): 12.
Oostland, Marlies et al. “Cerebellar Acceleration of Learning in an Evidence-Accumulation Task.” bioRxiv (2022): n. pag.
Pereira, Talmo et al. “SLEAP: A Deep Learning System for Multi-Animal Pose Tracking..” Nature methods 19.4 (2022): 486–495.
Pisano, Thomas et al. “Automated High-Throughput Mouse Transsynaptic Viral Tracing Using IDISCO+ Tissue Clearing, Light-Sheet Microscopy, and BrainPipe..” STAR protocols 3.2 (2022): 101289.
Verpeut, Jessica L. et al. “Cerebellar Contributions to a Brainwide Network for Flexible Behavior.” bioRxiv (2022): n. pag.
2021
Pisano, Thomas et al. “Homologous Organization of Cerebellar Pathways to Sensory, Motor, and Associative Forebrain.” Cell Reports 36.12 (2021): 109721. Print.
Zhang, Yan et al. “Fast and Sensitive GCaMP Calcium Indicators for Imaging Neural Populations.” bioRxiv (2021): n. pag.
2019
Deverett, Ben et al. “Cerebellar Disruption Impairs Working Memory During Evidence Accumulation.” Nature Communications (2019): n. pag.
Pereira, Talmo et al. “Fast Animal Pose Estimation Using Deep Neural Networks..” Nature methods 16.1 (2019): 117–125.
Titley, Heather et al. “Complex Spike Clusters and False-Positive Rejection in a Cerebellar Supervised Learning Rule..” The Journal of physiology 597.16 (2019): 4387–4406.
Zanin, Juan et al. “The p75NTR Influences Cerebellar Circuit Development and Adult Behavior via Regulation of Cell Cycle Duration of Granule Cell Progenitors..” The Journal of neuroscience : the official journal of the Society for Neuroscience 39.46 (2019): 9119–9129.
2018
Badura, Aleksandra et al. “Normal Cognitive and Social Development Require Posterior Cerebellar Activity.” Elife 7 (2018): n. pag.
Deverett, Ben et al. “Cerebellar Involvement in an Evidence-Accumulation Decision-Making Task.” Elife 7 (2018): n. pag.
Giovannucci, A et al. “Automated Gesture Tracking in Head-Fixed Mice..” Journal of neuroscience methods 300 (2018): 184–195.
Marvin, Jonathan et al. “Stability, Affinity, and Chromatic Variants of the Glutamate Sensor IGluSnFR..” Nature methods 15.11 (2018): 936–939.
2017
Giovannucci, Andrea et al. “Cerebellar Granule Cells Acquire a Widespread Predictive Feedback Signal During Motor Learning.” Nat Neurosci 20.5 (2017): 727–734.
2016
Cope, Elise et al. “Immature Neurons and Radial Glia, But Not Astrocytes or Microglia, Are Altered in Adult Cntnap2 and Shank3 Mice, Models of Autism.” eNeuro 3.5 (2016): n. pag.
2015
Kloth, Alexander et al. “Cerebellar Associative Sensory Learning Defects in Five Mouse Autism Models.” Elife 4 (2015): e06085.
2014
Badura, Aleksandra et al. “Fast Calcium Sensor Proteins for Monitoring Neural Activity.” Neurophotonics 1.2 (2014): 025008.
Najafi, Farzaneh et al. “Coding of Stimulus Strength via Analog Calcium Signals in Purkinje Cell Dendrites of Awake Mice.” Elife 3 (2014): e03663.
Najafi, Farzaneh et al. “Sensory-Driven Enhancement of Calcium Signals in Individual Purkinje Cell Dendrites of Awake Mice.” Cell Rep 6.5 (2014): 792–798.
Piochon, Claire et al. “Cerebellar Plasticity and Motor Learning Deficits in a Copy-Number Variation Mouse Model of Autism.” Nat Commun 5 (2014): 5586.
Schoenfeld, Timothy et al. “Gap Junctions in the Ventral Hippocampal-Medial Prefrontal Pathway Are Involved in Anxiety Regulation.” J Neurosci 34.47 (2014): 15679–88.
Shi, Diana et al. “Synthesis and Biological Evaluation of Bis-CNB-GABA, a Photoactivatable Neurotransmitter With Low Receptor Interference and Chemical Two-Photon Uncaging Properties.” J Am Chem Soc 136.5 (2014): 1976–81.
Wang, Samuel, Alexander Kloth, and Aleksandra Badura. “The Cerebellum, Sensitive Periods, and Autism.” Neuron 83.3 (2014): 518–32.
2013
Schneider, Eve, Eugene Civillico, and Samuel Wang. “Calcium-Based Dendritic Excitability and Its Regulation in the Deep Cerebellar Nuclei.” J Neurophysiol 109.9 (2013): 2282–92.
Sun, Xiaonan et al. “Fast GCaMPs for Improved Tracking of Neuronal Activity.” Nat Commun 4 (2013): 2170.
2012
Campbell, Benjamin, and Samuel Wang. “Familial Linkage Between Neuropsychiatric Disorders and Intellectual Interests.” PLoS One 7.1 (2012): e30405.
Kuhn, Bernd et al. “An Amplified Promoter System for Targeted Expression of Calcium Indicator Proteins in the Cerebellar Cortex.” Front Neural Circuits 6 (2012): 49.
Ozden, Ilker et al. “Widespread State-Dependent Shifts in Cerebellar Activity in Locomoting Mice.” PLoS One 7.8 (2012): e42650.
Richard Sun et al. “SnapShot: Optical Control and Imaging of Brain Activity.” Cell 149.7 (2012): 1650–1650.e2.
2010
Granstedt, Andrea et al. “Calcium Imaging of Neuronal Circuits in Vivo Using a Circuit-Tracing Pseudorabies Virus.” Cold Spring Harb Protoc 2010.4 (2010): pdb.prot5410.
2009
Granstedt, Andrea et al. “Fluorescence-Based Monitoring of in Vivo Neural Activity Using a Circuit-Tracing Pseudorabies Virus.” PLoS One 4.9 (2009): e6923.
Hoogland, Tycho et al. “Radially Expanding Transglial Calcium Waves in the Intact Cerebellum.” Proc Natl Acad Sci U S A 106.9 (2009): 3496–501.
Ozden, Ilker et al. “Reliable Coding Emerges from Coactivation of Climbing Fibers in Microbands of Cerebellar Purkinje Neurons.” J Neurosci 29.34 (2009): 10463–73.
2008
Ozden, Ilker et al. “Identification and Clustering of Event Patterns from in Vivo Multiphoton Optical Recordings of Neuronal Ensembles.” J Neurophysiol 100.1 (2008): 495–503.
Sarkisov, Dmitry, and Samuel Wang. “Order-Dependent Coincidence Detection in Cerebellar Purkinje Neurons at the Inositol Trisphosphate Receptor.” J Neurosci 28.1 (2008): 133–42.
Wang, Samuel. “Functional Tradeoffs in Axonal Scaling: Implications for Brain Function.” Brain Behav Evol 72.2 (2008): 159–67.
Wang, Samuel et al. “Functional Trade-Offs in White Matter Axonal Scaling.” J Neurosci 28.15 (2008): 4047–56.
2007
O’Connor, Daniel, Gayle Wittenberg, and Samuel Wang. “Timing and Contributions of Pre-Synaptic and Post-Synaptic Parameter Changes During Unitary Plasticity Events at CA3-CA1 Synapses.” Synapse 61.8 (2007): 664–78.
Sarkisov, Dmitry et al. “Synapse Specificity of Calcium Release Probed by Chemical Two-Photon Uncaging of Inositol 1,4,5-Trisphosphate.” J Biol Chem 282.35 (2007): 25517–26.
2006
Sarkisov, Dmitry, and Samuel Wang. “Alignment and Calibration of a Focal Neurotransmitter Uncaging System.” Nat Protoc 1.2 (2006): 828–32.
Wittenberg, Gayle, and Samuel S.-H. Wang. “Malleability of Spike-Timing-Dependent Plasticity at the CA3-CA1 Synapse.” J Neurosci 26.24 (2006): 6610–7.
2005
O’Connor, Daniel, Gayle Wittenberg, and Samuel Wang. “Graded Bidirectional Synaptic Plasticity Is Composed of Switch-Like Unitary Events.” Proc Natl Acad Sci U S A 102.27 (2005): 9679–84.
O’Connor, Daniel, Gayle Wittenberg, and Samuel Wang. “Dissection of Bidirectional Synaptic Plasticity into Saturable Unidirectional Processes.” J Neurophysiol 94.2 (2005): 1565–73.
Shoham, Shy et al. “Rapid Neurotransmitter Uncaging in Spatially Defined Patterns.” Nat Methods 2.11 (2005): 837–43.
Sullivan, Megan et al. “In Vivo Calcium Imaging of Circuit Activity in Cerebellar Cortex.” J Neurophysiol 94.2 (2005): 1636–44.
Wyatt, Krysta, Patima Tanapat, and Samuel Wang. “Speed Limits in the Cerebellum: Constraints from Myelinated and Unmyelinated Parallel Fibers.” Eur J Neurosci 21.8 (2005): 2285–90.
2004
Burish, Mark, Hao Yuan Kueh, and Samuel Wang. “Brain Architecture and Social Complexity in Modern and Ancient Birds.” Brain Behav Evol 63.2 (2004): 107–24.
2002
Harrison, Kimberly, Patrick Hof, and Samuel Wang. “Scaling Laws in the Mammalian Neocortex: Does Form Provide Clues to Function?.” J Neurocytol 31.3-5 (2002): 289–98. Print.
2001
Clark, Mitra, and Wang. “Scalable Architecture in Mammalian Brains.” Nature 411.6834 (2001): 189–93.