限制血流运动时止血带袖带压力。

IF 2.6 Q2 SPORT SCIENCES
Frontiers in Sports and Active Living Pub Date : 2025-09-02 eCollection Date: 2025-01-01 DOI:10.3389/fspor.2025.1582387
Patrick Swain, James McEwen, Tom Lai, Luke Hughes
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引用次数: 0

摘要

背景:本研究考察了不同的血流量限制(BFR)装置如何很好地提供规定的止血带袖带压力。方法:15名参与者完成了4次BFR锻炼,每次都使用不同的BFR设备[Delfi个性化止血带系统(PTS)用于BFR, Saga, smartcuff和Suji],包括4组单侧腿部按压(30-15-15-15重复)阻力带,休息时间为30秒。止血带袖带固定在运动腿的近端,目标压力设置为80%肢体闭塞压力(LOP),由设备测量,在整个运动/休息期间连续施加。止血带袖带压力通过压力传感器以100 Hz采样。结果:尽管处方止血带袖带压力为80% LOP,但根据所使用的BFR装置的不同,实际压力可能会有很大差异,并且在个体之间不一致。在运动期间,时间压力的中位数百分比在±10%以内,目标压力为95% (Delfi PTS用于BFR), 25% (Saga), 26% (smart手铐)和34% (Suji)。在休息期间,时间压力的中位数百分比在±5%以内,目标压力为99% (Delfi PTS用于BFR), Saga、smartcuff和Suji BFR装置为0%。止血带袖带压力在BFR运动中表现为波状方式,其特征是周期性压力峰和谷。压力峰谷大小分别为:Delfi PTS治疗BFR(89±2%和72±3% LOP)、Saga(79±9和58±7% LOP)、smart手铐(79±9%和61±7% LOP)和Suji(90±15和65±10% LOP)。在一些情况下,参与者使用Saga、smartcuff和Suji BFR设备,在高达30%-55%的运动持续时间内经历止血带压力bb0 100% LOP。在Saga、smart手铐和Suji BFR装置中,在整个BFR应用期间,压力的进行性损失平均为2-4 mmHg·min-1 (~ 1%-2% LOP·min-1),而用于BFR的Delfi PTS表现出轻微的压力漂移。结论:止血带袖带实际压力与处方压力的差异在很大程度上取决于所采用的BFR装置。因此,选择BFR设备对于提供规定的止血带袖带压力非常重要,以允许使用者之间的相对闭塞压力标准化。
本文章由计算机程序翻译,如有差异,请以英文原文为准。
Tourniquet cuff pressure during blood flow restriction exercise.

Background: The present study examined how well different blood flow restriction (BFR) devices deliver the prescribed tourniquet cuff pressure.

Methods: Fifteen participants completed four BFR exercise sessions, each with a different BFR device [Delfi Personalized Tourniquet System (PTS) for BFR, Saga, SmartCuffs, and Suji], comprising four sets of unilateral leg press (30-15-15-15 repetitions) against resistance bands with 30-second rest periods. The tourniquet cuff was secured proximally on the exercising leg, and the target pressure was set to 80% limb occlusion pressure (LOP), as measured by the device, applied continuously throughout the exercise/rest periods. Tourniquet cuff pressure was sampled at 100 Hz via a pressure transducer.

Results: Despite prescribing tourniquet cuff pressure at 80% LOP, the actual pressure can vary substantially and be inconsistent between individuals depending on the BFR device used. During the exercise periods, the median percentage of time pressure was within ±10% the target pressure was 95% (Delfi PTS for BFR), 25% (Saga), 26% (SmartCuffs), and 34% (Suji). During the rest periods, the median percentage of time pressure was within ±5% the target pressure was 99% (Delfi PTS for BFR), and 0% for the Saga, SmartCuffs, and Suji BFR devices. Tourniquet cuff pressure during BFR exercise behaves in a wave-like manner characterised by cyclical pressure peaks and valleys. The magnitude of pressure peaks and valleys was: Delfi PTS for BFR (89 ± 2% and 72 ± 3% LOP), Saga (79 ± 9 and 58 ± 7% LOP), SmartCuffs (79 ± 9% and 61 ± 7% LOP), and Suji (90 ± 15 and 65 ± 10% LOP). In several cases, participants experienced tourniquet pressures >100% LOP using the Saga, SmartCuffs, and Suji BFR devices, for up to ∼30%-55% of the exercise set duration. A progressive loss of pressure occurred throughout the BFR application period by an average of 2-4 mmHg·min-1 (∼1%-2% LOP·min-1) in the Saga, SmartCuffs, and Suji BFR devices, whilst the Delfi PTS for BFR exhibited trivial pressure drifts.

Conclusion: Differences between the actual and prescribed tourniquet cuff pressure can highly depend on the BFR device employed. The selection of the BFR apparatus is thus important to delivering the prescribed tourniquet cuff pressure to allow for standardisation of the relative occlusion pressure between users.

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来源期刊
CiteScore
2.60
自引率
7.40%
发文量
459
审稿时长
15 weeks
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