Iivarinen Jarkko T, Korhonen Rami K, Jurvelin Jukka S
a Department of Applied Physics , University of Eastern Finland , Kuopio , Finland.
b Department of Physical and Rehabilitation Medicine , Kuopio University Hospital , Kuopio , Finland.
Comput Methods Biomech Biomed Engin. 2016;19(10):1089-98. doi: 10.1080/10255842.2015.1101073. Epub 2015 Oct 24.
Exact physiological mechanisms behind the potential positive treatment effects of pathological tissue swelling (edema), such as increased interstitial fluid flow, are poorly understood. Finite-element model was created and the model response was matched with the deformation data from the negative pressure (suction) measurements in human (N = 11) forearm. Two experimental suction protocols were simulated to evaluate their impact on interstitial fluid flow in soft tissues. Simulated continuous suction was up to 27 times more efficient in fluid transportation compared to the cyclic suction. The continuous suction that transports the interstitial fluid effectively may help to decrease soft tissue edema.
病理组织肿胀(水肿)潜在的积极治疗效果背后的确切生理机制,如间质液流动增加,目前尚不清楚。创建了有限元模型,并将模型响应与来自人体(N = 11)前臂负压(抽吸)测量的变形数据进行匹配。模拟了两种实验性抽吸方案,以评估它们对软组织中间质液流动的影响。与循环抽吸相比,模拟的连续抽吸在液体运输方面的效率高达27倍。有效运输间质液的连续抽吸可能有助于减轻软组织水肿。