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Face pareidolia minimally engages macaque face selective neurons 猕猴面部选择神经元对面部视错觉的影响最小。
IF 6.7 2区 医学 Q1 NEUROSCIENCES Pub Date : 2025-02-01 DOI: 10.1016/j.pneurobio.2024.102709
Kenji W. Koyano , Jessica Taubert , William Robison , Elena N. Waidmann , David A. Leopold
The macaque cerebral cortex contains concentrations of neurons that prefer faces over inanimate objects. Although these so-called face patches are thought to be specialized for the analysis of facial signals, their exact tuning properties remain unclear. For example, what happens when an object by chance resembles a face? Everyday objects can sometimes, through the accidental positioning of their internal components, appear as faces. This phenomenon is known as face pareidolia. Behavioral experiments have suggested that macaques, like humans, perceive illusory faces in such objects. However, it is an open question whether such stimuli would naturally stimulate neurons residing in cortical face patches. To address this question, we recorded single unit activity from four fMRI-defined face-selective regions: the anterior medial (AM), anterior fundus (AF), prefrontal orbital (PO), and perirhinal cortex (PRh) face patches. We compared neural responses elicited by images of real macaque faces, pareidolia-evoking objects, and matched control objects. Contrary to expectations, we found no evidence of a general preference for pareidolia-evoking objects over control objects. Although a subset of neurons exhibited stronger responses to pareidolia-evoking objects, the population responses to both categories of objects were similar, and collectively much less than to real macaque faces. These results suggest that neural responses in the four regions we tested are principally concerned with the analysis of realistic facial characteristics, whereas the special attention afforded to face-like pareidolia stimuli is supported by activity elsewhere in the brain.
猕猴的大脑皮层含有大量的神经元,这些神经元更喜欢人脸而不是无生命的物体。尽管这些所谓的面部补丁被认为是专门用于分析面部信号的,但它们的确切调谐特性尚不清楚。例如,当一个物体碰巧像一张脸时会发生什么?日常物品有时可以通过其内部组件的偶然定位,以面孔的形式出现。这种现象被称为面部空想性视错觉。行为实验表明,猕猴和人类一样,能从这些物体中感知到虚幻的面孔。然而,这种刺激是否会自然地刺激皮层面部斑块中的神经元,这是一个悬而未决的问题。为了解决这个问题,我们记录了四个fmri定义的面部选择区域的单个活动:内侧前部(AM)、眼底前部(AF)、前额眶部(PO)和鼻周皮质(PRh)面部斑块。我们比较了真实猕猴面部图像、唤起空想的物体和匹配的对照物体所引起的神经反应。与预期相反的是,我们没有发现任何证据表明,相对于控制对象,人们更喜欢唤起空想的对象。尽管神经元的一个子集对唤起空想的物体表现出更强的反应,但对这两类物体的总体反应是相似的,而且总体上比对真实猕猴面孔的反应要少得多。这些结果表明,我们测试的四个区域的神经反应主要与真实面部特征的分析有关,而对类似面部的空想性视刺激的特别关注是由大脑其他区域的活动支持的。
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引用次数: 0
Background white noise increases neuronal activity by reducing membrane fluctuations and slow-wave oscillations in auditory cortex
IF 6.7 2区 医学 Q1 NEUROSCIENCES Pub Date : 2025-01-24 DOI: 10.1016/j.pneurobio.2025.102720
Rasmus Kordt Christensen , Florian Studer, Tania Rinaldi Barkat
The brain faces the challenging task of preserving a consistent portrayal of the external world in the face of disruptive sensory inputs. What alterations occur in sensory representation amidst noise, and how does brain activity adapt to it? Although it has previously been shown that background white noise (WN) decreases responses to salient sounds, a mechanistic understanding of the brain processes responsible for such changes is lacking. We investigated the effect of background WN on neuronal spiking activity, membrane potential, and network oscillations in the mouse central auditory system. We found that, in addition to increasing background spiking activity in the auditory cortex and thalamus, background WN decreases neural activity fluctuations, as reflected in the membrane potential of single neurons and the local field potential. Blocking acetylcholine signaling in the auditory cortex eliminated the WN-dependent increase in background activity as well as the shift in slow-wave oscillations. Together, our observations show that background WN is not filtered away along the auditory pathway, but rather drives sustained changes in cortical activity that can be reverted by blocking cholinergic inputs.
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引用次数: 0
Ketamine administration during adolescence impairs synaptic integration and inhibitory synaptic transmission in the adult dentate gyrus
IF 6.7 2区 医学 Q1 NEUROSCIENCES Pub Date : 2025-01-22 DOI: 10.1016/j.pneurobio.2025.102718
Odra Santander , Sebastián B. Arredondo , Francisca García-Rojas , Sebastián F. Estay , Juan E. Belforte , Andrés E. Chávez , Lorena Varela-Nallar , Marco Fuenzalida
Ketamine administration during adolescence affects cognitive performance; however, its long-term impact on synaptic function and neuronal integration in the hippocampus a brain region critical for cognition remains unclear. Using functional and molecular analyses, we found that chronic ketamine administration during adolescence exerts long-term effects on synaptic integration, expanding the temporal window in an input-specific manner affecting the inner molecular layer but not the medial perforant path inputs in the adult mouse dorsal hippocampal dentate gyrus. Ketamine also alters the excitatory/inhibitory balance by reducing the efficacy of inhibitory inputs likely due to a reduction in parvalbumin-positive interneurons number and function. These findings indicate that during adolescence, ketamine exerts a strong effect on inhibitory synaptic function mediated by parvalbumin-positive neurons that ultimately impact synaptic integration in the dorsal adult dentate gyrus, which could help to understand the neurobiological and functional bases that confer greater vulnerability to the adolescent brain.
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引用次数: 0
Spatiotemporal network dynamics and structural correlates in the human cerebral cortex in vitro
IF 6.7 2区 医学 Q1 NEUROSCIENCES Pub Date : 2025-01-21 DOI: 10.1016/j.pneurobio.2025.102719
Joana Covelo , Alessandra Camassa , Jose Manuel Sanchez-Sanchez , Arnau Manasanch , Leonardo Dalla Porta , Nathalia Cancino-Fuentes , Almudena Barbero-Castillo , Rita M. Robles , Miquel Bosch , Silvia Tapia-Gonzalez , Paula Merino-Serrais , Mar Carreño , Estefania Conde-Blanco , Jordi Rumià Arboix , Pedro Roldán , Javier DeFelipe , Maria V. Sanchez-Vives
Elucidating human cerebral cortex function is essential for understanding the physiological basis of both healthy and pathological brain states. We obtained extracellular local field potential recordings from slices of neocortical tissue from refractory epilepsy patients. Multi-electrode recordings were combined with histological information, providing a two-dimensional spatiotemporal characterization of human cortical dynamics in control conditions and following modulation of the excitation/inhibition balance. Slices expressed spontaneous rhythmic activity consistent with slow wave activity, comprising alternating active (Up) and silent (Down) states (Up-duration: 0.08 ± 0.03 s, Down-duration: 2.62 ± 2.12 s, frequency: 0.75 ± 0.39 Hz). Up states propagated from deep to superficial layers, with faster propagation speeds than in other species (vertical: 64.6 mm/s; horizontal: 65.9 mm/s). GABAA blockade progressively transformed the emergent activity into epileptiform discharges, marked by higher firing rates, faster network recruitment and propagation, and infraslow rhythmicity (0.01 Hz). This dynamical characterization broadens our understanding of the mechanistic organization of the human cortical network at the micro- and mesoscale.
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引用次数: 0
The unanticipated contribution of Zap70 in retinal degeneration: Implications for microglial inflammatory activation Zap70在视网膜变性中的意外贡献:对小胶质细胞炎症激活的影响。
IF 6.7 2区 医学 Q1 NEUROSCIENCES Pub Date : 2025-01-01 DOI: 10.1016/j.pneurobio.2024.102706
Kausik Bishayee , Seung-Hee Lee , Yeon-Jin Heo , Mi-La Cho , Yong Soo Park
Inflammation is a major mechanism of photoreceptor cell death in the retina during macular degeneration leading to the blindness. In this study, we investigated the role of the kinase molecule Zap70, which is an inflammatory regulator of the systemic immune system, to elucidate the control mechanism of inflammation in the retina. We observed activated microglial cells migrated and populated the retinal layer following blue LED-induced photoreceptor degeneration and activated microglial cells in the LED-injured retina expressed Zap70, unlike the inactive microglial cells in the normal retina. Visual function was considerably decreased in blue-LED light-exposed mice, and animals with Zap70 mutations were adversely affected. Furthermore, extensive photoreceptor cell death was observed in the SKG mice, bearing a Zap70 mutation that induces autoimmune disease. In the blue-LED light-exposed groups, SKG retinas had significantly higher levels of inflammatory cytokines than those in wild-type mice. Furthermore, regulating Zap70 activity has a significant influence on microglial inflammatory state. We discovered that active microglial cells expressing Zap70 could modify vascular endothelial growth factor A (Vegfa) signaling in primary retinal pigment epithelial (RPE) cells. Our novel study revealed that the production of Zap70 by retinal microglial cells is responsible for inflammatory signals that promote apoptosis in photoreceptor cells. Furthermore, Zap70-positive microglial cells were capable of regulating Vegfa signaling in RPE cells, which matches the hallmark of macular degeneration. Overall, we discovered Zap70's inflammatory activity in the retina, which is necessary for upregulating multiple inflammatory cytokines and cell death. Zap70 represents a novel therapeutic target for treating retinal degeneration.
炎症是黄斑变性导致失明的视网膜感光细胞死亡的主要机制。在这项研究中,我们研究了激酶分子Zap70的作用,这是一种全身免疫系统的炎症调节剂,以阐明视网膜炎症的控制机制。我们观察到激活的小胶质细胞在蓝光led诱导的光感受器变性后迁移并填充视网膜层,并且在led损伤的视网膜中激活的小胶质细胞表达Zap70,与正常视网膜中失活的小胶质细胞不同。暴露在蓝色led光下的小鼠的视觉功能明显下降,Zap70突变的动物受到不利影响。此外,在SKG小鼠中观察到广泛的光感受器细胞死亡,携带诱导自身免疫性疾病的Zap70突变。在蓝光照射组中,SKG视网膜的炎症细胞因子水平明显高于野生型小鼠。此外,调节Zap70活性对小胶质细胞炎症状态有显著影响。我们发现表达Zap70的活性小胶质细胞可以改变原代视网膜色素上皮(RPE)细胞中的血管内皮生长因子A (Vegfa)信号。我们的新研究表明,视网膜小胶质细胞产生的Zap70负责炎症信号,促进光感受器细胞凋亡。此外,zap70阳性的小胶质细胞能够调节RPE细胞中的Vegfa信号,这与黄斑变性的标志相匹配。总之,我们在视网膜中发现了Zap70的炎症活性,这是上调多种炎症细胞因子和细胞死亡所必需的。Zap70是治疗视网膜变性的新靶点。
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引用次数: 0
Glutamatergic neurons of basolateral amygdala mediate increased exploratory behaviors produced by mildly chronic restraint stress in adolescent mice 青春期小鼠基底外侧杏仁核谷氨酸能神经元介导轻度慢性约束应激产生的探索行为增加。
IF 6.7 2区 医学 Q1 NEUROSCIENCES Pub Date : 2025-01-01 DOI: 10.1016/j.pneurobio.2024.102705
Beining Wang , Huan Liu , Yunxia Shang , Yujie Xiong , Jiayi Yang , Zihao Zhan , Zhi Zhang , Kai Wang , Tingting Sun
In response to stressors, individuals manifest varied behavioral responses directed toward satisfying physiological survival needs. Although the enduring effects of adolescent stress on both humans and animals are well-documented, the underlying mechanisms remain insufficiently elucidated. Utilizing immunofluorescence, viral injections, and brain slice electrophysiological recordings, we have delineated that heightened excitability among glutamatergic neurons in the basolateral amygdala (BLA) is responsible for inducing heightened exploratory behaviors in adolescent mice subjected to mild, chronic restraint stress. Activation of BLA glutamatergic neurons through chemogenetics increases exploratory behaviors in emotional assessments, whereas inhibition of these neurons diminishes exploratory behaviors in measures such as the open field and elevated plus maze test. Furthermore, an upregulation of glutamate receptor expression and a concomitant downregulation of GABA receptor expression in BLA glutamatergic neurons have been associated with enhanced exploratory behaviors, validated through in vivo receptor antagonists. These findings unveil the protective role of mild stress exposure during adolescence against adversity, providing novel insights for addressing stressful events.
个体在应激反应中表现出不同的行为反应,以满足生理生存需求。尽管青少年压力对人类和动物的持久影响已被充分证明,但其潜在机制仍未得到充分阐明。利用免疫荧光、病毒注射和脑切片电生理记录,我们已经描述了基底外侧杏仁核(BLA)谷氨酸能神经元之间的兴奋性增强是导致青春期小鼠在轻度、慢性约束压力下增强探索行为的原因。通过化学遗传学激活BLA谷氨酸能神经元会增加情绪评估中的探索性行为,而抑制这些神经元会减少开放性和高程迷宫测试中的探索性行为。此外,在BLA谷氨酸能神经元中,谷氨酸受体表达的上调和GABA受体表达的下调与探索性行为的增强有关,这一点已通过体内受体拮抗剂得到验证。这些发现揭示了青春期轻度压力暴露对逆境的保护作用,为解决压力事件提供了新的见解。
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引用次数: 0
Sustained EEG responses to rapidly unfolding stochastic sounds reflect Bayesian inferred reliability tracking 对快速展开的随机声音的持续脑电图反应反映了贝叶斯推断的可靠性跟踪。
IF 6.7 2区 医学 Q1 NEUROSCIENCES Pub Date : 2025-01-01 DOI: 10.1016/j.pneurobio.2024.102696
Sijia Zhao , Benjamin Skerritt-Davis , Mounya Elhilali , Frederic Dick , Maria Chait
How does the brain track and process rapidly changing sensory information? Current computational accounts suggest that our sensations and decisions arise from the intricate interplay between bottom-up sensory signals and constantly changing expectations regarding the statistics of the surrounding world. A significant focus of recent research is determining which statistical properties are tracked by the brain as it monitors the rapid progression of sensory information. Here, by combining EEG (three experiments N ≥ 22 each) and computational modelling, we examined how the brain processes rapid and stochastic sound sequences that simulate key aspects of dynamic sensory environments. Passively listening participants were exposed to structured tone-pip arrangements that contained transitions between a range of stochastic patterns. Predictions were guided by a Bayesian predictive inference model. We demonstrate that listeners automatically track the statistics of unfolding sounds, even when these are irrelevant to behaviour. Transitions between sequence patterns drove a shift in the sustained EEG response. This was observed to a range of distributional statistics, and even in situations where behavioural detection of these transitions was at floor. These observations suggest that the modulation of the EEG sustained response reflects a process of belief updating within the brain. By establishing a connection between the outputs of the computational model and the observed brain responses, we demonstrate that the dynamics of these transition-related responses align with the tracking of “precision” – the confidence or reliability assigned to a predicted sensory signal - shedding light on the intricate interplay between the brain's statistical tracking mechanisms and its response dynamics.
大脑是如何追踪和处理快速变化的感官信息的?目前的计算表明,我们的感觉和决定来自于自下而上的感官信号和对周围世界的统计数据不断变化的预期之间复杂的相互作用。最近研究的一个重要焦点是确定大脑在监控感官信息的快速发展时跟踪了哪些统计特性。在这里,通过结合EEG(每个实验N≥22)和计算模型,我们研究了大脑如何处理模拟动态感官环境关键方面的快速和随机声音序列。被动倾听的参与者被暴露在结构化的音调-pip安排中,其中包含一系列随机模式之间的转换。预测由贝叶斯预测推理模型指导。我们证明了听者会自动跟踪展开声音的统计数据,即使这些声音与行为无关。序列模式之间的转换导致持续脑电图反应的增加。这被观察到分布统计的范围,甚至在这些过渡的行为检测是在地板的情况下。这些观察结果表明,脑电图持续反应的调节反映了大脑内信念更新的过程。通过建立计算模型的输出和观察到的大脑反应之间的联系,我们证明了这些与过渡相关的反应的动态与“精度”的跟踪一致-分配给预测感官信号的置信度或可靠性-揭示了大脑统计跟踪机制与其反应动力学之间复杂的相互作用。
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引用次数: 0
Decade of TRAP progress: Insights and future prospects for advancing functional network research in epilepsy TRAP进展的十年:癫痫功能网络研究的见解和未来展望。
IF 6.7 2区 医学 Q1 NEUROSCIENCES Pub Date : 2025-01-01 DOI: 10.1016/j.pneurobio.2024.102707
Zhisheng Li , Wangjialu Lu , Lin Yang , Nanxi Lai , Yi Wang , Zhong Chen
Targeted Recombination in Active Populations (TRAP) represents an effective and extensively applied technique that has earned significant utilization in neuroscience over the past decade, primarily for identifying and modulating functionally activated neuronal ensembles associated with diverse behaviors. As epilepsy is a neurological disorder characterized by pathological hyper-excitatory networks, TRAP has already been widely applied in epilepsy research. However, the deployment of TRAP in this field remains underexplored, and there is significant potential for further application and development in epilepsy-related investigations. In this review, we embark on a concise examination of the mechanisms behind several TRAP tools, introduce the current applications of TRAP in epilepsy research, and collate the key advantages as well as limitations of TRAP. Furthermore, we sketch out perspectives on potential applications of TRAP in future epilepsy research, grounded in the present landscape and challenges of the field, as well as the ways TRAP has been embraced in other neuroscience domains.
活性群体中的靶向重组(TRAP)是一种有效且广泛应用的技术,在过去十年中在神经科学中获得了显著的应用,主要用于识别和调节与不同行为相关的功能激活神经元集合。由于癫痫是一种以病理性超兴奋网络为特征的神经系统疾病,TRAP已广泛应用于癫痫研究。然而,TRAP在这一领域的应用仍未得到充分探索,在癫痫相关调查中有进一步应用和发展的巨大潜力。在这篇综述中,我们将简要介绍几种TRAP工具背后的机制,介绍TRAP在癫痫研究中的当前应用,并整理TRAP的主要优势和局限性。此外,我们概述了TRAP在未来癫痫研究中的潜在应用前景,基于该领域的现状和挑战,以及TRAP在其他神经科学领域的应用方式。
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引用次数: 0
Prefrontal excitation/inhibition balance supports adolescent enhancements in circuit signal to noise ratio 前额叶激励/抑制平衡支持青春期电路信噪比的增强。
IF 6.7 2区 医学 Q1 NEUROSCIENCES Pub Date : 2024-12-01 DOI: 10.1016/j.pneurobio.2024.102695
Shane D. McKeon , Maria I. Perica , Finnegan J. Calabro , Will Foran , Hoby Hetherington , Chan-Hong Moon , Beatriz Luna
The development and refinement of neuronal circuitry allow for stabilized and efficient neural recruitment, supporting adult-like behavioral performance. During adolescence, the maturation of PFC is proposed to be a critical period (CP) for executive function, driven by a break in balance between glutamatergic excitation and GABAergic inhibition (E/I) neurotransmission. During CPs, cortical circuitry fine-tunes to improve information processing and reliable responses to stimuli, shifting from spontaneous to evoked activity, enhancing the SNR, and promoting neural synchronization. Harnessing 7 T MR spectroscopy and EEG in a longitudinal cohort (N = 164, ages 10–32 years, 283 neuroimaging sessions), we outline associations between age-related changes in glutamate and GABA neurotransmitters and EEG measures of cortical SNR. We find developmental decreases in spontaneous activity and increases in cortical SNR during our auditory steady state task using 40 Hz stimuli. Decreases in spontaneous activity were associated with glutamate levels in DLPFC, while increases in cortical SNR were associated with more balanced Glu and GABA levels. These changes were associated with improvements in working memory performance. This study provides evidence of CP plasticity in the human PFC during adolescence, leading to stabilized circuitry that allows for the optimal recruitment and integration of multisensory input, resulting in improved executive function.
神经回路的发展和完善允许稳定和有效的神经招募,支持类似成人的行为表现。在青春期,PFC的成熟被认为是执行功能的关键时期(CP),由谷氨酸能兴奋和GABAergic抑制(E/I)神经传递之间的平衡被打破所驱动。在CPs过程中,皮层回路微调以改善信息处理和对刺激的可靠反应,从自发活动转向诱发活动,增强信噪比,促进神经同步。利用7T磁共振波谱和脑电图纵向队列(N = 164,年龄10-32岁,283次神经成像),我们概述了谷氨酸和GABA神经递质的年龄相关变化与皮层信噪比的脑电图测量之间的关系。我们发现在使用40Hz刺激的听觉稳态任务中,自发活动的发育减少和皮层信噪比的增加。自发性活动的减少与DLPFC中的谷氨酸水平有关,而皮质信噪比的增加与谷氨酸和氨基丁酸水平更平衡有关。这些变化与工作记忆表现的改善有关。这项研究提供了青春期人类PFC的CP可塑性的证据,导致稳定的电路,允许最佳的多感觉输入的招募和整合,从而改善执行功能。
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引用次数: 0
The primate putamen processes cognitive flexibility alongside the caudate and ventral striatum with similar speeds of updating values 灵长类动物壳核与尾状体和腹侧纹状体一起处理认知灵活性,更新值的速度相似。
IF 6.7 2区 医学 Q1 NEUROSCIENCES Pub Date : 2024-12-01 DOI: 10.1016/j.pneurobio.2024.102651
Shin-young An , Seong-Hwan Hwang , Keonwoo Lee, Hyoung F. Kim
The putamen is thought to generate habitual actions by processing value information relayed from the ventral striatum through the caudate nucleus. However, it is a question what value the putamen neurons process and whether the putamen receives serially processed value through the striatal structures. We found that neurons in the primate putamen, caudate, and ventral striatum selectively encoded flexibly updated values for adaptive behaviors with similar learning speeds, rather than stably sustained values for habit. In reversal value learning, rostral striatum neurons dynamically adjusted their responses to object values in alignment with changes in saccade reaction times following reversals. Notably, the value acquisition speeds within trials were similar, proposing a parallel value update in each striatal region. However, in stable value retrieval, most did not encode the values for habitual saccades. Our findings suggest that the rostral striatum including the putamen is selectively involved in the parallel processing of cognitive flexibility.
壳核被认为是通过处理从腹侧纹状体传递到尾状核的价值信息来产生习惯性行为的。然而,壳核神经元处理的是什么值,以及壳核是否通过纹状体结构接受连续处理的值是一个问题。我们发现灵长类动物壳核、尾状体和腹侧纹状体中的神经元选择性地编码具有相似学习速度的适应性行为的灵活更新值,而不是稳定持续的习惯值。在反向值学习中,吻侧纹状体神经元动态调整其对物体值的反应,与反转后扫视反应时间的变化保持一致。值得注意的是,实验中的值获取速度是相似的,这表明每个纹状体区域都有平行的值更新。然而,在稳定值检索中,大多数不编码习惯性扫视的值。我们的研究结果表明,吻侧纹状体包括壳核选择性地参与了认知灵活性的平行加工。
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引用次数: 0
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Progress in Neurobiology
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