Delves Robert I M, Aughey Robert J, Ball Kevin, Duthie Grant M
Institute for Health & Sport, Victoria University, Melbourne, VIC, 3011, Australia.
School of Behavioural and Health Sciences, Australian Catholic University, Strathfield, NSW, Australia.
Sports Med Open. 2021 Jun 30;7(1):45. doi: 10.1186/s40798-021-00332-8.
Wearable tracking devices are commonly utilised to quantify the external acceleration load of team sport athletes during training and competition. The ability to accelerate is an important attribute for athletes in many team sports. However, there are many different acceleration metrics that exist in team sport research. This review aimed to provide researchers and practitioners with a clear reporting framework on acceleration variables by outlining the different metrics and calculation processes that have been adopted to quantify acceleration loads in team sport research.
A systematic review of three electronic databases (CINAHL, MEDLINE, SPORTDiscus), was performed to identify peer-reviewed studies that published external acceleration load in elite team sports during training and/or competition. Articles published between January 2010 and April 2020 were identified using Boolean search phrases in relation to team sports (population), acceleration/deceleration (comparators), and competition and/or training (outcome). The included studies were required to present external acceleration and/or deceleration load (of any magnitude) from able-bodied athletes (mean age ≥ 18 years) via wearable technologies.
A total of 124 research articles qualified for inclusion. In total, 113/124 studies utilised GPS/GNSS technology to outline the external acceleration load of athletes. Count-based metrics of acceleration were predominant of all metrics in this review (72%). There was a lack of information surrounding the calculation process of acceleration with 13% of studies specifying the filter used in the processing of athlete data, whilst 32% outlined the minimum effort duration (MED). Markers of GPS/GNSS data quality, including horizontal dilution of precision (HDOP) and the average number of satellites connected, were outlined in 24% and 27% of studies respectively.
Team sport research has predominantly quantified external acceleration load in training and competition with count-based metrics. Despite the influence of data filtering processes and MEDs upon acceleration, this information is largely omitted from team sport research. Future research that outlines acceleration load should present filtering processes, MEDs, HDOP, and the number of connected satellites. For GPS/GNSS systems, satellite planning tools should document evidence of available satellites for data collection to analyse tracking device performance. The development of a consistent acceleration filtering method should be established to promote consistency in the research of external athlete acceleration loads.
可穿戴追踪设备常用于量化团队运动运动员在训练和比赛期间的外部加速负荷。加速能力是许多团队运动中运动员的一项重要属性。然而,团队运动研究中存在许多不同的加速指标。本综述旨在通过概述在团队运动研究中用于量化加速负荷的不同指标和计算过程,为研究人员和从业者提供一个关于加速变量的清晰报告框架。
对三个电子数据库(CINAHL、MEDLINE、SPORTDiscus)进行系统综述,以识别在精英团队运动的训练和/或比赛中发表外部加速负荷的同行评审研究。使用与团队运动(研究对象)、加速/减速(比较指标)以及比赛和/或训练(研究结果)相关的布尔搜索短语,识别2010年1月至2020年4月期间发表的文章。纳入的研究要求通过可穿戴技术呈现健全运动员(平均年龄≥18岁)的外部加速和/或减速负荷(任何量级)。
共有124篇研究文章符合纳入标准。总体而言,124项研究中的113项使用GPS/GNSS技术来概述运动员的外部加速负荷。在本综述中,基于计数的加速指标在所有指标中占主导地位(72%)。关于加速计算过程的信息匮乏,13%的研究指定了处理运动员数据时使用的滤波器,而32%的研究概述了最小用力持续时间(MED)。分别有24%和27%的研究概述了GPS/GNSS数据质量指标,包括精度水平稀释(HDOP)和连接卫星的平均数量。
团队运动研究主要使用基于计数指标来量化训练和比赛中的外部加速负荷。尽管数据过滤过程和最小用力持续时间对加速有影响,但这些信息在团队运动研究中大多被忽略。未来概述加速负荷的研究应呈现过滤过程、最小用力持续时间、精度水平稀释和连接卫星的数量。对于GPS/GNSS系统,卫星规划工具应记录可用卫星用于数据收集的证据,以分析追踪设备的性能。应建立一致的加速过滤方法,以促进运动员外部加速负荷研究的一致性。