Wezenberg Daphne, Dekker Rienk, van Dijk Frank, Faber Willemijn, van der Woude Lucas, Houdijk Han
1 Department of Human Movement Sciences, Faculty of Behavioural and Movement Sciences, Vrije Universiteit Amsterdam, Amsterdam, The Netherlands.
2 Technology for Health, The Hague University of Applied Sciences, The Hague, Amsterdam, The Netherlands.
Prosthet Orthot Int. 2019 Aug;43(4):418-425. doi: 10.1177/0309364619838084. Epub 2019 Mar 22.
Sufficient cardiorespiratory fitness has been regarded a prerequisite for prosthetic walking. In order to improve cardiorespiratory fitness, adequate strain ought to be placed on the system during training.
To determine cardiorespiratory fitness at the start and end of inpatient rehabilitation after lower limb amputation and determine the physical strain experienced during conventional prosthetic rehabilitation.
Multicenter prospective cohort study.
Cardiorespiratory fitness was assessed using a peak one-legged cycle exercise test. Physical strain was assessed during a minimum of three full rehabilitation days using heart rate recordings. Physical strain was expressed in the time per day that heart rate exceeded 40% of heart rate reserve.
At the start of rehabilitation, peak aerobic capacity was on average 16.9 (SD, 6.5) mL/kg/min ( = 33). Overall, peak aerobic capacity did not improve over the course of rehabilitation ( = 23, = 0.464). Fifty percent of the patients experienced a physical strain level that satisfies minimum criteria for maintaining cardiorespiratory fitness (>40% heart rate reserve for 30 min/day).
Cardiorespiratory fitness was low and did not increase during conventional prosthetic rehabilitation. On average, the physical strain during rehabilitation was insufficient to elicit potential improvements in aerobic capacity. Results stress the need for dedicated physical training modules at the individual level.
This study shows that clinicians ought to be aware of the relatively low cardiorespiratory fitness of people who have undergone lower limb amputation and that improvements during rehabilitation are not always obtained. Results stress the need for physical training modules in which intensity is imposed at the individual level.
足够的心肺适能被视为假肢行走的先决条件。为了提高心肺适能,训练期间应给身体系统施加足够的压力。
确定下肢截肢患者住院康复开始和结束时的心肺适能,并确定传统假肢康复期间所经历的身体压力。
多中心前瞻性队列研究。
使用单腿峰值循环运动试验评估心肺适能。在至少三个完整的康复日期间,通过记录心率来评估身体压力。身体压力以心率超过心率储备40%的每日时间来表示。
康复开始时,峰值有氧能力平均为16.9(标准差,6.5)毫升/千克/分钟(n = 33)。总体而言,康复过程中峰值有氧能力没有提高(n = 23,P = 0.464)。50%的患者经历的身体压力水平满足维持心肺适能的最低标准(心率储备>40%,每天30分钟)。
在传统假肢康复期间,心肺适能较低且没有增加。平均而言,康复期间的身体压力不足以引发有氧能力的潜在改善。结果强调了在个体层面开展专门体育训练模块的必要性。
本研究表明,临床医生应意识到下肢截肢患者的心肺适能相对较低,且康复期间并不总能取得改善。结果强调了在个体层面施加强度的体育训练模块的必要性。