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GONG Zhefeng's group Publishes in Physical Review Letters on Muscle Mechanics of Drosophila Larva Rolling Motion

The research team led by Prof. Zhefeng Gong has recently published an article titled "Mechanics of Soft-Body Rolling Motion Without External Torque" in Physical Review Letters on May 16th, 2025. This study reveals the muscle-driven mechanism behind the torque-free rolling motion of Drosophila larvae and validates the findings through a bio-inspired soft robot. Muscle activation sequence enables self-driven rolling without external torque. While rolling motion is challenging for most animals (e.g., spiders relying on gravity or caterpillars using abrupt bending), Drosophila larvae can perform continuous, rapid rolling to escape predators. Conventional theories suggested this motion required external torque from gravity or ground reaction forces, but experimental data showed larvae generate tangential forces far exceeding gravity and can even roll upside down. Through transgenic muscle labelling and light-sheet microscopy, the team discovered that axial muscles alternately contract and relax when larvae bend into a C-shape, creating sequential torque for continuous rolling. Precise ablation experiments confirmed axial muscles' essential role—their removal stopped rolling completely, while circumferential muscle ablation only reduced speed. The team developed a biomechanical model treating the larva as a fluid-filled elastic cylinder. The model demonstrates: Higher internal pressure enables greater body curvature, enhancing rolling efficiency. Segmented axial muscles generate additive torque. Rolling direction is determined by muscle activation sequence, not C-shape orientation. Motion follows angular momentum conservation in absence of external torque. To validate the model, researchers built a pneumatic soft robot with four inflatable chambers mimicking muscle activation. Despite using elongation (rather than contraction) for actuation, the robot achieved continuous rolling with larval-like robustness, even compensating for failed chambers. This work not advances understanding of neural circuits controlling soft-body locomotion but also provides design principles for bio-inspired robots. The torque-free mechanism could enable future robots to navigate complex environments without relying on external forces. The muscle contraction sequence of the rolling behaviour in larvae and its mechanical modelWebsite: https://journals.aps.org/prl/abstract/10.1103/PhysRevLett.134.198401ZHEFENG GONG'S RESEARCH GROUP: The team studies neural control mechanisms of soft-body movement using Drosophila larvae as a model organism, with applications in bionics and robotics. Their work has been published in Science, Nature Communications, Current Biology, and Physical Review Letters.

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YANG Hongbin's group published in Nature Communications on negative valence coding by noise

The research team led by Dr. Hongbin Yang has recently published an article titled “A midbrain circuit mechanism for noise-induced negative valence coding” on May 17, 2025. This study revealed how noise affects emotional behaviors through a non-classical auditory pathway.Unpleasant sounds can elicit a range of negative emotional reactions and even pain. The neural pathways that transform auditory stimuli into salient actions have been extensively studied, the neural mechanisms that convert sounds into emotions remain unclear. In this study, the researchers discovered that glutamatergic neurons in the central inferior colliculus (CICglu) relay noise information to GABAergic neurons in the ventral tegmental area (VTAGABA) via the cuneiform nucleus (CnF), thereby encoding negative emotions in mice. In contrast, the canonical auditory pathway from the central inferior colliculus to the medial geniculate nucleus (CICglu→MG) is responsible for processing salient stimuli. By combining viral tracing, calcium imaging, and optrode recording, they demonstrated that the CnF acts downstream of CICglu to convey negative valence to the mesolimbic dopamine system by activating VTAGABA neurons. Optogenetic or chemogenetic inhibition of any connection within the CICglu→CnFglu → VTAGABA circuit, or direct excitation of the mesolimbic dopamine (DA) system, is sufficient to alleviate noise-induced negative emotion perception. Website: https://www.nature.com/articles/s41467-025-59956-zMotivated behavior arises through approaching a reward or avoiding punishment. These behaviors control an animal's interactions with those goal objects in the environment that are important for the survival of the individual and the species. Many mental diseases (for example, depression and addiction etc.) are associated with dysfunction of the neuronal circuits of motivated behaviors. Hongbin Yang's group is dedicated to studying the neural basis mechanisms of motivated behavior. They use cutting-edge techniques, including imaging, electrophysiology (both in vitro and in vivo), molecular genetics, and optogenetics to understand how sensory inputs, arousal states, and motor systems make up the motivated behaviors.

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HU Hailan's group published in Cell on Neuron-astrocyte Coupling

The research team led by Professor Hailan Hu has recently published a groundbreaking article titled Neuron-astrocyte Coupling in Lateral Habenula Mediates Depressive-like Behaviors in Cell on April 24th, 2025. This study reveals how brain cells dynamically cooperate to drive stress response and depression.Stress-induced depression-like behaviors are driven by a dynamic recurrent network involving neurons and astrocytes in the lateral habenula and norepinephrine release from neurons in the locus coeruleus in freely-moving mice.The lateral habenular (LHb) neurons and astrocytes have been strongly implicated in depression etiology but it was not clear how the two dynamically interact during depression onset. Here, using multi-brain-region calcium photometry recording in freely-moving mice, we discover that stress induces a most rapid astrocytic calcium rise and a unique bimodal neuronal response in the LHb. LHb astrocytic calcium requires the α1A-adrenergic receptor, and depends on a recurrent neural network between the LHb and locus coeruleus (LC). Through the gliotransmitter glutamate and ATP/Adenosine, LHb astrocytes mediate the second-wave LHb neuronal activation and norepinephrine (NE) release. Activation or inhibition of LHb astrocytic calcium signaling facilitates or prevents stress-induced depressive-like behaviors respectively. These results identify a stress-induced positive feedback loop in the LHb-LC axis, with astrocytes being a critical signaling relay. The identification of this prominent neuron-glia interaction may shed light on stress management and depression prevention.LHb neuron-astrocyte synergy in depressionWebsite: https://doi.org/10.1016/j.cell.2025.04.010

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CHEN Jiadong and LI Xiaoming' group published in Nature Communications that reveals the molecular markers and functions of novel GABAergic neuron subtypes in zona incerta.

The molecular, morphological and anatomical features of neurons imply distinct neuronal subtypes, axonal projection pattern, and behavioral functions in the central nervous system. Since Ramon y Cajal first illustrated nerve cell morphology using Golgi staining and established the "Neuron Doctrine" over a century ago, the diverse morphological characteristics and functions of neuron subtypes have become increasingly evident. Recent advances in single-cell transcriptomics have further enabled the identification of gene expression profiles and molecular markers unique to specific transcriptomic cell subtypes. However, the behavioral functions of these transcriptomic subtypes in living animals remain largely unexplored. Therefore, investigating the anatomical connectivity and behavioral roles of transcriptomic and spatial neuron subtypes is crucial for understanding the brain's functional organization.The zona incerta (ZI), located in the ventral thalamus, consists of morphological and genetically diverse neuron subtypes. Recent studies have revealed that ZI neurons project broadly to various brain regions, contributing to the regulation of behaviours including feeding, predation, sleep, pain and novelty seeking. However, the specific neuronal substrates mediating these behaviors are still unclear. Dr. Jiadong Chen's group previously identified long-range GABAergic projection neurons in that ZI that project to the cortex and regulate the development of apical dendrites in cortical pyramidal neurons (Chen et al., Science 2015). They also demonstrated that somatostatin-positive neurons in the ZI modulate innate fear responses via GABAergic projections to the nucleus reuniens (Lin et al., Neuroscience Bulletin 2023). On April 1st, 2025, Dr. Jiadong Chen and Professor Xiaoming Li's research team published a research article titled "Transcriptomic and spatial GABAergic neuron subtypes in zona incerta mediate distinct innate behaviors" in Nature Communications. In this study, they used single nucleus RNA sequencing and fluorescent in situ hybridization to identify specific markers genes expressed in the rostral and medial regions of zona incerta. They then constructed transgenic mice that selectively labeled GABAergic neurons in the rostral ZI (using Ecel1-Cre) and medial ZI (using Pde11a-Cre). Through a combination of in vivo circuit tracing, optogenetic and chemogenetic approaches, they discovered that Ecel1-expressing neurons in the rostral ZI project to the periaqueductal gray (PAG) and mediated self-grooming behavior, while Pde11a-expressing neurons in the medial ZI project to the pontine reticular nucleus (PnO) and promote wakefulness. These findings reveal key molecular markers and behavioral roles of previously unidentified GABAergic neuron subtypes in the ZI - making a significant step toward understanding the functional organization of the brain. This study was jointly conducted by Ph.D. students Mengyue Zhu, Jieqiao Peng, Mi Wang, Shan Lin and Huiying Zhang, in collaboration with Professor Xiaoming Li’s laboratory at Zhejiang University. The study also received valuable support from the teams of Professors Shumin Duan, Yanqing Yu and Li Shen at Zhejiang University.Dr.Jiadong Chen's lab at Zhejiang University School of Medicine is dedicated to functional genomics research in neuroscience by integrating single-cell genomics, calcium imaging, and electrophysiology. Their recent research findings have been published in top international journals including the Journal of Clinical Investigation (2025), Nature Communications (2025), Advanced Science (2024), and Neuroscience Bulletin (2022, 2023). The lab is currently recruiting graduate students and postdoctoral researchers interested in neurobiology, cell biology, and genomics, offering competitive benefits. Interested candidates are encouraged to send their CV and research interests to jardongchen@zju.edu.cn.Paper link： https://www.nature.com/articles/s41467-025-57896-2

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CHEN Jiadong' group published in Journal of Clinical Investigation on molecular markers of neuronal senescence in human drug-resistant epilepsy

Epilepsy is a chronic neurological disorder caused by abnormal discharges of neurons in the brain and is often accompanied by symptoms such as cognitive impairment, anxiety, depression, and autism, severely affecting patients' quality of life. Globally, approximately 70 million people suffer from epilepsy, with an incidence rate of about 6.4 per 1,000 people. Among them, around 30% do not respond to existing antiepileptic drugs and are classified as "drug-resistant epilepsy," though its exact pathogenesis remains unclear. Studies have shown distinct pathological characteristics from the epileptic focus of brain tissue of patients with drug-resistant epilepsy. For example, patients with focal cortical dysplasia (FCD) epilepsy have dysmorphic neurons in the gray matter and balloon cells in the white matter, whereas patients with temporal lobe epilepsy (TLE) display neuronal loss and hippocampal sclerosis. Understanding the gene expression characteristics of these pathological neuronal cells is crucial for investigating the diagnosis and pathogenesis of drug-resistant epilepsy.Dr. Jiadong Chen’s group at Zhejiang University published an article online in the Journal of Clinical Investigation titled “Multimodal single-cell analyses reveal molecular markers of neuronal senescence in human drug-resistant epilepsy”on March 3, 2025. The study utilized Patch-seq, a technique combining patch-clamp electrophysiology with single-cell sequencing, to precisely analyze the electrophysiological properties, morphology, and gene expression of pathological neurons in drug-resistant epilepsy. We identified a unique subpopulation of cortical pyramidal neurons that highly express genes associated with the mTOR pathway, inflammatory responses, and cellular senescence, such as CDKN1A (P21)、CCL2 and NFKBIA. Furthermore, pathological neurons in the brain tissue of drug-resistant epilepsy patients exhibited increased expression of senescence markers (P21、P53、COX2、γ-H2AX、β-Gal）and a reduction in the nuclear integrity marker Lamin B1. These changes were observed in the brain tissue of drug-resistant epilepsy across different pathologies, but were absent in control brain tissues from individuals without epilepsy. Additionally, in a mouse model of drug-resistant epilepsy, we found that chronic seizures—rather than acute seizures—induced the expression of cortical neuronal senescence markers, further supporting the role of neuronal senescence in epilepsy pathogenesis. Professor Gemma L. Carvill from Northwestern University positively acknowledged our work in JCI: "Neuronal senescence is prevalent in aging as well as in neurodegenerative disease. However, a role for senescence in epilepsy is virtually unexplored. In this issue of the JCI, Ge and authors used resected brain tissue from individuals with drug-resistant epilepsy, a genetic knockout mouse model, and a chemoconvulsant mouse model, to demonstrate a subset of cortical pyramidal senescent neurons that likely contribute to the pathophysiology of epilepsy. These findings highlight senescence as a possible target in precision-therapy approaches for epilepsy and warrant further investigation." Figure 1. Patch-seq reveals the morphological, electrophysiological and molecular markers of pathological neurons in drug-resistant epilepsyThis study was jointly conducted by Ph.D. students Qianqian Ge, Jiachao Yang (currently a postdoctoral researcher at the Department of Brain Science and Brain Medicine, Zhejiang University), Fei Huang, Xinyue Dai, and Chao Chen, in collaboration with Professor Li Shen’s laboratory at Zhejiang University and Professor Shengjin Xu’s laboratory at the Institute of Neuroscience, Center for Excellence in Brain Science and Intelligence Technology, Chinese Academy of Sciences. The study also received valuable support from the teams of Professors Shumin Duan, Xiaoming Li, Jianmin Zhang, and Junming Zhu at Zhejiang University, as well as the National Health and Disease Human Brain Tissue Resource Bank.The Jiadong Chen's group at Zhejiang University School of Medicine is dedicated to functional genomics research in neuroscience by integrating single-cell genomics, calcium imaging, and electrophysiology. Recent research findings have been published in international journals including Journal of Clinical Investigation (2025), Nature Communications (2025, accepted), Advanced Science (2024), and Neuroscience Bulletin (2022, 2023). Our lab is currently recruiting postdoctoral researchers interested in neurobiology, cell biology, and genomics, offering competitive benefits. Interested candidates are invited to send their CV and research interests to jardongchen@zju.edu.cn.Related paper：https://www.jci.org/articles/view/188942 (doi: 10.1172/JCI188942)Comment by Professor Gemma L. Carvill: https://www.jci.org/articles/view/189519

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KANG Lijun's group published in Nature Communications on mechanosensation

Mechanotransduction plays a critical role in various physiological processes, including hearing, touch, proprioception, pain, and blood pressure regulation. Mechanogated ion channels function as mechanoreceptors, converting mechanical forces into electrical signals to transduce force information. To date, all known mechanotransduction channels in the animal kingdom are either cation channels or channels permeable to cations (such as Piezo1/2, TMC1, TRP-4/NomPC/TRPN, ENaC, TMEM63, and K2P), with no reports of anion channels.On February 16, 2025, Professor Lijun Kang’s team from the School of Brain Science and Brain Medicine, Zhejiang University School of Medicine, published a research article entitled “Anoctamin-1 is a core component of a mechanosensory anion channel complex in C. elegans” in Nature Communications. In this study, they discovered that the calcium-activated chloride channel Anoctamin-1 (ANOH-1) mediates touch sensation of male C. elegans by directly sensing mechanical forces. The human homolog ANO1/TMEM16A shares similar mechanosensitive properties. Furthermore, mechanotransduction via ANOH-1/ANO1 requires the involvement of auxiliary molecules CIB2 and Ankrin. In previous studies, Professor Lijun Kang’s team identified the multimodal functions of the Beethoven gene tmc1 and clarified its mechanism, proposing a dual-tether model of TMC1 as the mechanotransductive cation channel in hearing (Neuron 2018, 2021, 2024). In the current study, using molecular genetics, in vivo calcium imaging, patch-clamp electrophysiology, pharmacology, and behavioral analysis, they found that the calcium-activated chloride channel ANOH-1 is involved in the tactile responses of male C. elegans. Pharmacological and electrophysiological recordings indicated that ANOH-1 directly mediates mechanoreceptor currents (MRCs), and its mammalian homolog, ANO1, exhibits similar functions. Through gene screening and co-immunoprecipitation (Co-IP) experiments, they further found that mechanosensation by ANO1/ANOH-1 requires auxiliary molecules CIB2 and Ankrin. Interestingly, CIB2 and Ankrin are also necessary auxiliary molecules for the mechanotransduction of the TMC1 cation channel in the inner ear hair cells (Figure 1). This study, along with the team's previous research, reveals the molecular mechanisms underlying mechanotransduction in hearing, touch, and other modalities, laying the scientific foundation for research and drug development related to sensory disorders.Figure 1 Schematic of the TMC1 and ANO1 Mechanosensitive Complex. (Adapted from Neuron 2021, Neuron 2024, and Nature Communications 2025, published by Prof. Lijun Kang's group)---------------------------LIJUN KANG’S RESEARCH GROUPEmploying an interdisciplinary strategy that integrates molecular genetics, optogenetics, calcium imaging, electrophysiology, and behavioral tracking, research carried out in the Kang laboratory is dedicated to unravel the complex molecular mechanisms governing sensory perception, including olfaction, hearing, and tactile sensation. Utilizing C. elegans and various other model organisms, the laboratory delves into the physiological roles and mechanisms of glia in regulating sensory circuits. The laboratory also seeks to investigate pharmaceutical approaches for mitigating sensory dysfunctions stemming from genetic anomalies, aging, and other influential factors.

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MA Huan's group published in Science on mechanisms underlying dynamic brain energy supply

Prof. MA Huan's team at Zhejiang University investigated the relationship between neuroplastic regulation of bioenergetics and cognitive aging. Their findings, published in Science under the title Boosting neuronal activity-driven mitochondrial DNA transcription improves cognition in aged mice, provide a novel perspective and theoretical framework for understanding energy-efficient neural computation and combating cognitive aging.As the core organ governing thought and consciousness, the brain consumes immense biological energy to maintain critical functions such as learning, memory, and emotions. To enable energy-efficient operation, the brain must finely regulate this process, achieving massive parallel information processing and storage at low energy costs. This high-efficiency, low-energy capability remains the ultimate goal of supercomputing and AI technologies, yet it is a peak still beyond human technological reach. Moreover, energy regulation in the brain is closely tied to human health, as its imbalance is considered a major risk factor for neurological disorders, particularly age-related neurodegenerative diseases.Whether it is the energy crisis posed by AI's high energy consumption or the challenges of cognitive decline in aging populations, these are critical issues for humanity. From a scientific perspective, understanding how mammalian brains integrate energy, matter, and information—the fundamental elements of universe offers not only pathways to mimic and surpass the brain's evolved low-energy, high-efficiency mechanisms but also opportunities to address age-related challenges. Driving mitochondrial gene transcription with mental activityThe brain's hallmark is its ability to dynamically adjust the strength of neuronal connections based on activity and experience—termed synaptic plasticity. This plasticity relies on activity-driven transcription of nuclear genes, producing new proteins essential for learning and memory. Mitochondria, as the primary energy providers, are unique organelles with their own genome, and mitochondrial transcription is crucial for energy supply and biogenesis. The central question is: Can neuronal activity regulate mitochondrial gene transcription (E-TCmito), similar to its regulation of nuclear transcription? If so, this coupling would enable coordinated transformation of energy and matter to support information transmission and storage. Using mouse models, Prof. Ma's team discovered that enhanced neuronal activity—whether during learning or artificially induced—significantly increased mitochondrial gene transcription near synapses. Further investigation revealed that this activity-mitochondrial transcription coupling depends heavily on mitochondrial calcium influx induced by neuronal activity. This process is regulated by mitochondrial CaMKII (CaMKIImito). Once mitochondrial calcium levels rise, calcium-responsive transcription factor CREBmito binds to the D-loop region of the mitochondrial genome, driving gene transcription. Notably, both CaMKII and CREB are traditionally considered key regulators of nuclear gene transcription, and their newfound role in mitochondria challenges textbook definitions, showcasing their multifaceted functions in the nervous system. By dissecting these mechanisms, the team achieved precise molecular control over activity-driven mitochondrial transcription. They demonstrated that this process is essential for mitochondrial biogenesis, quality control, and the dynamic regulation of energy during neuronal activity—providing a foundation for maintaining synaptic function and cognitive processes such as learning and memory. Can mental exercises rejuvenate the aging brain?Research has shown that brain energy supply and cognitive ability decline with aging or neurodegeneration. The team observed that activity-driven mitochondrial transcription coupling weakens in aged brains. We speculated whether enhancing this coupling could improve brain function and counteract cognitive aging, said Dr. LI Wenwen. Using transgenic mouse models, they confirmed that suppression of this coupling led to energy deficits and cognitive impairments similar to aging-related neuropathology. To address this, the team developed molecular tools to precisely enhance neuronal activity-mitochondrial transcription coupling. Experiments revealed that prolonged enhancement of this mechanism boosted mitochondrial gene expression during learning, increased energy supply, and significantly improved cognitive performance in aged mice. This provides theoretical evidence that mental exercises can counteract brain aging, Dr. Li added. Unraveling this fundamental signaling mechanism in neurons not only deepens understanding of brain function but also offers a new molecular framework for combating cognitive decline. Ongoing translational research and drug development have shown encouraging results.Implications for Energy-Efficient Artificial IntelligenceElon Musk has highlighted that, beyond chip shortages, energy will be the next bottleneck for AI computation. Could the brain's low-energy information processing inspire solutions to AI's energy demands? Prof. Ma's team recognized that the evolutionary mechanism of neuronal activity-mitochondrial transcription coupling might hold the key. Unlike traditional computers, which rely on uniform energy supply, the mammalian brain employs a unique on-demand energy strategy: mitochondria near synapses act as energy packets regulated by local neuronal activity. This discovery suggests that the brain achieves efficient, low-energy computation by dynamically regulating local energy production at each data node (synapse). “Revealing this fundamental coupling mechanism may help AI systems enhance computational efficiency while reducing energy consumption,” said Prof. Ma.Related paper:Li, W., Li, J., Li, J., Wei, C., Laviv, T., Dong, M., Lin, J., Calubag, M., Colgan, L., Jin, K., et al., (2024). Boosting neuronal activity-driven mitochondrial DNA transcription improves cognition in aged mice. Science 386, eadp6547.Lab Introduction:In Ma lab, we are passionate about studying the brain, embracing youth and dreams, and cherishing moments with friends to recall the past and imagine the future! Guided by clinical data and using transgenic mouse models, our lab employs electrophysiology, molecular biology, and behavioral analysis to conduct both fundamental and translational research. Our main research focuses include neuroplasticity, learning and memory, aging, and sex dimorphism. Our findings have been published in prestigious journals such as Science, Cell, and Neuron.Contact of the lab: mah@zju.edu.cnSource: The research team led by Prof. MA Huan

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HU Hailan's group published in Neuron on neural mechanism underlying social hierarchy

The research team led by Prof. Hailan Hu has recently published an article titled Deconstructing the neural circuit underlying social hierarchy in mice on Neuron online on Dec 10th, 2024. This research revealed the antagonistic interplay between win-related and lose-related dmPFC downstream pathways in mediating social competition.Social competition determines hierarchical social status, which profoundly influences animals’ behavior and health. The dorsomedial prefrontal cortex (dmPFC) plays a fundamental role in regulating social competitions, but it was unclear how the dmPFC orchestrates win- and lose-related behaviors through its downstream neural circuits. Here, we dissected the individual contribution and reciprocal interaction of dmPFC downstream circuits in modulating dominance behavior. Brain-wide c-Fos mapping experiment revealed that winner mice in the tube test competition exhibited a significantly higher number of c-Fos-positive neurons in the dmPFC downstream targets, including the DRN and PAG, whereas loser mice exhibited more c-Fos-positive neurons in the aBLA. Consistently, pathway-specific manipulations outlined a dmPFC-centric social dominance neural network, in which the dmPFC-DRN and dmPFC-PAG circuits act as win-related pathways, whereas the dmPFC-aBLA circuit acts as a lose-related pathway. Moreover, the activation or inhibition of the aBLA itself yielded similar effects as manipulation of the dmPFC-aBLA pathway. Accordingly, these win- and lose-related dmPFC circuits showed opposing calcium activities when mice initiated ‘‘effortful’’ push behaviors in the tube test competition. Retrograde tracing study revealed that these functionally divergent pathways are anatomically segregated, with the lose-related aBLA-projecting neurons located in the layer 2/3 and the win-related DRN- and PAG- projecting neurons located in the layer 5 of the dmPFC. Finally, using in vivo and in vitro electrophysiological recordings, we found an inhibition from the lose-related neurons to the win-related neurons through local PV and SST interneurons in the dmPFC. One interesting speculation of the function of this unidirectional interaction is that losing mentality may dominate over winning during competitions: once animals initiate the idea of quitting or withdrawing from the rivalry, the inhibition on the win pathway from the lose pathway would help them execute the idea and end the fight quickly. Such antagonistic interplay may represent a central principle in how the mPFC orchestrates complex behaviors through top-down control.dmPFC-centric social dominance neural networkhttps://www.cell.com/neuron/abstract/S0896-6273(24)00807-9HAILAN HU'S RESEARCH GROUP: For social animals, emotions and health are regulated by various social behaviors. Hailan Hu's group is dedicated to studying the neural basis and plasticity mechanisms of emotion and social behavior. They use cutting-edge techniques including imaging, electrophysiology (both in vitro and in vivo), molecular genetics, and optogenetics to conduct deep analysis of emotion- and social behaviors- and their related neural circuits.

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Speaker：Fiona Doetsch

Institution：University of Basel

Time：15th September，13:30 PM

Locatiom：Liangzhu Laboratory

Regulation and heterogeneity of adult neural stem cells

Speaker：Dai Min

Institution：Harvard Medical School

Time：18th September，10AM

Locatiom：Liangzhu Laboratory

Pyramidal neurons provide both instructive and permissive signalin...

Speaker：Ryohei Yasuda

Institution：Max Planck Florida Institute for Neuroscience

Time：20th June，10:30 AM

Locatiom：Liangzhu Laboratory

Decoding Synaptic Signaling Dynamics Underlying Plasticity

Speaker：Georg Northoff

Institution：University of Ottawa

Time：5th June，10AM

Locatiom：Liangzhu Laboratory

The brain’s Intrinsic Neural Timescales – What are they good for?

Speaker：Dick F. Swaab

Institution：Royal Netherlands Academy of Arts and Sciences

Time：13th May, 2PM

Locatiom：Fulou Meeting Room

The Neurobiology of stress, Depression and Suicide

Speaker：Guoqiang Yu

Institution：Tsinghua University

Time：9th April, 10AM

Locatiom：Liangzhu Laboratory

Quantification and Analysis of Molecular Spatiotemporal Signals wi...

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Hongbin Yang’s group published in Nature Communications on negative valence coding by noise

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Regulation and heterogeneity of adult neural stem cells

Pyramidal neurons provide both instructive and permissive signalin...

Decoding Synaptic Signaling Dynamics Underlying Plasticity

The brain’s Intrinsic Neural Timescales – What are they good for?

The Neurobiology of stress, Depression and Suicide

Quantification and Analysis of Molecular Spatiotemporal Signals wi...

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School of Brain Science and Brain Medicine Zhejiang University