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运动与胰岛素在外周葡萄糖摄取上的协同相互作用。

Synergistic interaction between exercise and insulin on peripheral glucose uptake.

作者信息

DeFronzo R A, Ferrannini E, Sato Y, Felig P, Wahren J

出版信息

J Clin Invest. 1981 Dec;68(6):1468-74. doi: 10.1172/jci110399.

Abstract

The interaction of exercise and insulin on glucose metabolism was examined in 10 healthy volunteers. Four study protocols were used: study 1: plasma insulin was raised by approximately 100 microunits/ml while plasma glucose was maintained at basal levels for 2 h (insulin clamp). Study 2: subjects performed 30 min of bicycle exercise at 40% of VO2 max. Study 3: an insulin clamp was performed as per study 1. Following 60 min of sustained hyperinsulinemia, however, subjects exercised for 30 min as per study 2. Study 4: subjects were studied as per study 3 except that catheters were inserted into the femoral artery and vein to quantitate leg glucose uptake. During the 60-90 min period of hyperinsulinemia (study 1), glucose uptake averaged 8.73 +/- 0.10 mg/kg per min. With exercise alone (study 2), the increment in peripheral glucose uptake was 1.43 +/- 0.30 mg/kg per min. When hyperinsulinemia and exercise were combined (study 3), glucose uptake averaged 15.06 +/- 0.98 mg/kg per min (P less than 0.01) and this was significantly (P less than 0.001) greater than the sum of glucose uptake when exercise and the insulin clamp were performed separately. The magnitude of rise in glucose uptake correlated closely with the increase in leg blood flow (r = 0.935, P less than 0.001), suggesting that the synergism is the result of increased blood flow and increased capillary surface area to exercising muscle. More than 85% of total body glucose metabolism during studies 1 and 3 was accounted for by skeletal muscle uptake. These results demonstrate that (a) insulin and exercise act synergistically to enhance glucose disposal in man, and (b) muscle is the primary tissue responsible for the increase in glucose metabolism following hyperinsulinemia and exercise.

摘要

在10名健康志愿者中研究了运动与胰岛素对葡萄糖代谢的相互作用。采用了4种研究方案:方案1:血浆胰岛素升高约100微单位/毫升,同时血浆葡萄糖维持在基础水平2小时(胰岛素钳夹)。方案2:受试者以最大摄氧量的40%进行30分钟的自行车运动。方案3:按照方案1进行胰岛素钳夹。然而,在持续高胰岛素血症60分钟后,受试者按照方案2进行30分钟运动。方案4:除了将导管插入股动脉和静脉以定量腿部葡萄糖摄取外,按照方案3对受试者进行研究。在高胰岛素血症的60 - 90分钟期间(方案1),葡萄糖摄取平均为8.73±0.10毫克/千克每分钟。单独运动时(方案2),外周葡萄糖摄取增加量为1.43±0.30毫克/千克每分钟。当高胰岛素血症与运动相结合时(方案3),葡萄糖摄取平均为15.06±0.98毫克/千克每分钟(P<0.01),这显著高于(P<0.001)单独进行运动和胰岛素钳夹时葡萄糖摄取量之和。葡萄糖摄取增加的幅度与腿部血流量的增加密切相关(r = 0.935,P<0.001),表明这种协同作用是血流量增加以及运动肌肉的毛细血管表面积增加的结果。在方案1和3期间,全身葡萄糖代谢的85%以上由骨骼肌摄取。这些结果表明:(a)胰岛素和运动协同作用以增强人体的葡萄糖处理能力;(b)肌肉是高胰岛素血症和运动后葡萄糖代谢增加的主要组织。

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