Salazar Tatiana E, Richardson Matthew R, Beli Eleni, Ripsch Matthew S, George John, Kim Youngsook, Duan Yaqian, Moldovan Leni, Yan Yuanqing, Bhatwadekar Ashay, Jadhav Vaishnavi, Smith Jared A, McGorray Susan, Bertone Alicia L, Traktuev Dmitri O, March Keith L, Colon-Perez Luis M, Avin Keith G, Sims Emily, Mund Julie A, Case Jamie, Deng Xiaolin, Kim Min Su, McDavitt Bruce, Boulton Michael E, Thinschmidt Jeffrey, Li Calzi Sergio, Fitz Stephanie D, Fuchs Robyn K, Warden Stuart J, McKinley Todd, Shekhar Anantha, Febo Marcelo, Johnson Phillip L, Chang Lung-Ji, Gao Zhanguo, Kolonin Mikhail G, Lai Song, Ma Jingfeng, Dong Xinzhong, White Fletcher A, Xie Huisheng, Yoder Mervin C, Grant Maria B
Genetics Institute, Gainesville, Florida, USA.
College of Medicine, Gainesville, Florida, USA.
Stem Cells. 2017 May;35(5):1303-1315. doi: 10.1002/stem.2613.
Electroacupuncture (EA) performed in rats and humans using limb acupuncture sites, LI-4 and LI-11, and GV-14 and GV-20 (humans) and Bai-hui (rats) increased functional connectivity between the anterior hypothalamus and the amygdala and mobilized mesenchymal stem cells (MSCs) into the systemic circulation. In human subjects, the source of the MSC was found to be primarily adipose tissue, whereas in rodents the tissue sources were considered more heterogeneous. Pharmacological disinhibition of rat hypothalamus enhanced sympathetic nervous system (SNS) activation and similarly resulted in a release of MSC into the circulation. EA-mediated SNS activation was further supported by browning of white adipose tissue in rats. EA treatment of rats undergoing partial rupture of the Achilles tendon resulted in reduced mechanical hyperalgesia, increased serum interleukin-10 levels and tendon remodeling, effects blocked in propranolol-treated rodents. To distinguish the afferent role of the peripheral nervous system, phosphoinositide-interacting regulator of transient receptor potential channels (Pirt)-GCaMP3 (genetically encoded calcium sensor) mice were treated with EA acupuncture points, ST-36 and LIV-3, and GV-14 and Bai-hui and resulted in a rapid activation of primary sensory neurons. EA activated sensory ganglia and SNS centers to mediate the release of MSC that can enhance tissue repair, increase anti-inflammatory cytokine production and provide pronounced analgesic relief. Stem Cells 2017;35:1303-1315.
在大鼠和人类中,使用四肢穴位(LI-4和LI-11)以及GV-14和GV-20(人类)和百会穴(大鼠)进行电针治疗,可增加下丘脑前部与杏仁核之间的功能连接,并促使间充质干细胞(MSC)进入体循环。在人类受试者中,发现MSC的来源主要是脂肪组织,而在啮齿动物中,组织来源被认为更为多样。对大鼠下丘脑进行药理学去抑制可增强交感神经系统(SNS)的激活,同样导致MSC释放到循环中。大鼠白色脂肪组织的褐变进一步支持了电针介导的SNS激活。对跟腱部分断裂的大鼠进行电针治疗,可减轻机械性痛觉过敏,提高血清白细胞介素-10水平并促进肌腱重塑,普萘洛尔处理的啮齿动物中这些作用被阻断。为了区分外周神经系统的传入作用,用磷酸肌醇相互作用的瞬时受体电位通道调节因子(Pirt)-GCaMP3(基因编码钙传感器)小鼠对电针穴位ST-36、LIV-3以及GV-14和百会穴进行治疗,导致初级感觉神经元快速激活。电针激活感觉神经节和SNS中枢,介导MSC的释放,从而增强组织修复、增加抗炎细胞因子的产生并提供显著的镇痛效果。《干细胞》2017年;35卷:1303 - 1315页