Peripheral sensory neurons and non-neuronal cells express functional Piezo1 channels.

IF 2.8 3区 医学 Q2 NEUROSCIENCES Molecular Pain Pub Date : 2023-01-01 DOI:10.1177/17448069231174315
Seung Min Shin, Brandon Itson-Zoske, Fan Fan, Uarda Gani, Mahmudur Rahman, Quinn H Hogan, Hongwei Yu
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Abstract

Here, we present evidence showing Piezo1 protein expression in the primary sensory neurons (PSNs) and non-neuronal cells of rat peripheral nervous system. Using a knockdown/knockout validated antibody, we detected Piezo1 immunoreactivity (IR) in ∼60% of PSNs of rat dorsal root ganglia (DRG) with higher IR density in the small- and medium-sized neurons. Piezo1-IR was clearly identified in DRG perineuronal glia, including satellite glial cells (SGCs) and Schwann cells; in sciatic nerve Schwann cells surrounding the axons and cutaneous afferent endings; and in skin epidermal Merkel cells and melanocytes. Neuronal and non-neuronal Piezo1 channels were functional since various cells (dissociated PSNs and SGCs from DRGs, isolated Schwann cells, and primary human melanocytes) exhibited a robust response to Piezo1 agonist Yoda1 by an increase of intracellular Ca2+ concentration ([Ca2+]i). These responses were abolished by non-specific Piezo1 antagonist GsMTx4. Immunoblots showed elevated Piezo1 protein in DRG proximal to peripheral nerve injury-induced painful neuropathy, while PSNs and SGCs from rats with neuropathic pain showed greater Yoda1-evoked elevation of [Ca2+]i and an increased frequency of cells responding to Yoda1, compared to controls. Sciatic nerve application of GsMTx4 alleviated mechanical hypersensitivity induced by Yoda1. Overall, our data show that Piezo1 is widely expressed by the neuronal and non-neuronal cells in the peripheral sensory pathways and that painful nerve injury appeared associated with activation of Piezo1 in PSNs and peripheral glial cells.

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外周感觉神经元和非神经元细胞表达功能性 Piezo1 通道。
在此,我们提出了大鼠周围神经系统初级感觉神经元(PSN)和非神经元细胞中表达 Piezo1 蛋白的证据。通过使用敲除/基因敲除验证抗体,我们在大鼠背根神经节(DRG)60%的初级感觉神经元中检测到了Piezo1免疫反应(IR),其中中小型神经元中的IR密度更高。在大鼠背根神经节周围神经胶质(包括卫星胶质细胞(SGCs)和许旺细胞)、坐骨神经轴突周围的许旺细胞和皮肤传入末梢以及皮肤表皮梅克尔细胞和黑色素细胞中都清楚地发现了压电1-IR。神经元和非神经元的 Piezo1 通道都是功能性的,因为各种细胞(DRGs 的离体 PSNs 和 SGCs、分离的许旺细胞和原代人类黑色素细胞)对 Piezo1 激动剂 Yoda1 表现出强烈的反应,细胞内 Ca2+ 浓度([Ca2+]i)增加。非特异性 Piezo1 拮抗剂 GsMTx4 可消除这些反应。免疫印迹显示,在周围神经损伤诱发疼痛性神经病变的近端DRG中,Piezo1蛋白升高,而与对照组相比,神经病理性疼痛大鼠的PSN和SGCs显示出更大的Yoda1诱发的[Ca2+]i升高,以及对Yoda1有反应的细胞频率增加。坐骨神经应用 GsMTx4 可减轻 Yoda1 引起的机械超敏反应。总之,我们的数据表明,Piezo1 在外周感觉通路的神经元和非神经元细胞中广泛表达,疼痛性神经损伤似乎与 PSNs 和外周神经胶质细胞中 Piezo1 的激活有关。
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来源期刊
Molecular Pain
Molecular Pain 医学-神经科学
CiteScore
5.60
自引率
3.00%
发文量
56
审稿时长
6-12 weeks
期刊介绍: Molecular Pain is a peer-reviewed, open access journal that considers manuscripts in pain research at the cellular, subcellular and molecular levels. Molecular Pain provides a forum for molecular pain scientists to communicate their research findings in a targeted manner to others in this important and growing field.
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