Dedov Vadim N, Dedova Irina V
MedExercise Project, Research and Development, MDXD Pty Ltd, Sydney, Australia.
Department of Anatomy, School of Medical Sciences, University of New South Wales, Sydney, Australia.
JMIR Rehabil Assist Technol. 2015 Nov 23;2(2):e11. doi: 10.2196/rehab.4812.
Recent advances in information and communication technology have prompted development of Web-based health tools to promote physical activity, the key component of cardiac rehabilitation and chronic disease management. Mobile apps can facilitate behavioral changes and help in exercise monitoring, although actual training usually takes place away from the point of care in specialized gyms or outdoors. Daily participation in conventional physical activities is expensive, time consuming, and mostly relies on self-management abilities of patients who are typically aged, overweight, and unfit. Facilitation of sustained exercise training at the point of care might improve patient engagement in cardiac rehabilitation.
In this study we aimed to test the feasibility of execution and automatic monitoring of several exercise regimens on-site using a Web-enabled leg training system.
The MedExercise leg rehabilitation machine was equipped with wireless temperature sensors in order to monitor its usage by the rise of temperature in the resistance unit (Δt°). Personal electronic devices such as laptop computers were fitted with wireless gateways and relevant software was installed to monitor the usage of training machines. Cloud-based software allowed monitoring of participant training over the Internet. Seven healthy participants applied the system at various locations with training protocols typically used in cardiac rehabilitation. The heart rates were measured by fingertip pulse oximeters.
Exercising in home chairs, in bed, and under an office desk was made feasible and resulted in an intensity-dependent increase of participants' heart rates and Δt° in training machine temperatures. Participants self-controlled their activities on smart devices, while a supervisor monitored them over the Internet. Individual Δt° reached during 30 minutes of moderate-intensity continuous training averaged 7.8°C (SD 1.6). These Δt° were used as personalized daily doses of exercise with automatic email alerts sent upon achieving them. During 1-week training at home, automatic notifications were received on 4.4 days (SD 1.8). Although the high intensity interval training regimen was feasible on-site, it was difficult for self- and remote management. Opportunistic leg exercise under the desk, while working with a computer, and training in bed while viewing television were less intensive than dosed exercise bouts, but allowed prolonged leg mobilization of 73.7 minutes/day (SD 29.7).
This study demonstrated the feasibility of self-control exercise training on-site, which was accompanied by online monitoring, electronic recording, personalization of exercise doses, and automatic reporting of adherence. The results suggest that this technology and its applications are useful for the delivery of Web-based exercise rehabilitation and cardiac training programs at the point of care.
信息与通信技术的最新进展推动了基于网络的健康工具的开发,以促进身体活动,这是心脏康复和慢性病管理的关键组成部分。移动应用程序可以促进行为改变并有助于运动监测,尽管实际训练通常在专门的健身房或户外的医疗护理点之外进行。日常参与传统体育活动成本高、耗时,并且主要依赖于通常年龄较大、超重且身体不适的患者的自我管理能力。在医疗护理点促进持续的运动训练可能会提高患者对心脏康复的参与度。
在本研究中,我们旨在测试使用基于网络的腿部训练系统在现场执行和自动监测几种运动方案的可行性。
MedExercise腿部康复机配备了无线温度传感器,以便通过阻力单元中的温度升高(Δt°)来监测其使用情况。个人电子设备,如笔记本电脑,配备了无线网关,并安装了相关软件来监测训练机器的使用情况。基于云的软件允许通过互联网监测参与者的训练情况。七名健康参与者在不同地点应用该系统,并采用心脏康复中常用的训练方案。心率通过指尖脉搏血氧仪测量。
在家用椅子上、床上和办公桌下进行锻炼变得可行,并导致参与者心率和训练机器温度的Δt°随强度增加。参与者在智能设备上自我控制活动,同时一名监督员通过互联网对他们进行监测。在30分钟的中等强度连续训练中达到的个体Δt°平均为7.8°C(标准差1.6)。这些Δt°被用作个性化的每日运动量,达到时会自动发送电子邮件提醒。在家进行1周训练期间,平均收到4.4天(标准差1.8)的自动通知。尽管高强度间歇训练方案在现场是可行的,但自我管理和远程管理都很困难。在使用电脑时在办公桌下进行的机会性腿部锻炼以及在看电视时在床上进行的训练强度低于规定的运动时段,但每天可使腿部活动延长73.7分钟(标准差29.7)。
本研究证明了现场自我控制运动训练的可行性,该训练伴随着在线监测、电子记录、运动剂量个性化以及自动报告依从性。结果表明,这项技术及其应用对于在医疗护理点提供基于网络的运动康复和心脏训练计划很有用。