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使用陀螺仪传感器对马匹在跑步机上行走和小跑时站立阶段末期足跟离地和趾尖离地之间的时间进行客观评估,以调整修蹄和钉蹄操作。

Use of gyroscopic sensors for objective evaluation of trimming and shoeing to alter time between heel and toe lift-off at end of the stance phase in horses walking and trotting on a treadmill.

作者信息

Keegan Kevin G, Satterley Justin M, Skubic Marge, Yonezawa Yoshiharu, Cooley Jason M, Wilson David A, Kramer Joanne

机构信息

Department of Veterinary Medicine and Surgery, College of Veterinary Medicine, University of Missouri, Columbia, MO 65211, USA.

出版信息

Am J Vet Res. 2005 Dec;66(12):2046-54. doi: 10.2460/ajvr.2005.66.2046.

DOI:10.2460/ajvr.2005.66.2046
PMID:16379645
Abstract

OBJECTIVE

To determine whether a shoe with an axialcontoured lateral branch would induce greater lateral roll of the forelimb hoof during the time between heel and toe lift-off at end of the stance phase (breakover). Animals-10 adult horses.

PROCEDURE

A gyroscopic transducer was placed on the hoof of the right forelimb and connected to a transmitter. Data on hoof angular velocity were collected as each horse walked and trotted on a treadmill before (treatment 1, no trim-no shoe) and after 2 treatments by a farrier (treatment 2, trim-standard shoe; and treatment 3, trim-contoured shoe). Data were converted to hoof angles by mathematical integration. Breakover duration was divided into 4 segments, and hoof angles in 3 planes (pitch, roll, and yaw) were calculated at the end of each segment. Multivariable ANOVA was performed to detect differences among treatments and gaits.

RESULTS

Trimming and shoeing with a shoe with contoured lateral branches induced greater mean lateral roll to the hoof of 3.2 degrees and 2.5 degrees during the first half of breakover when trotting, compared with values for no trim-no shoe and trim-standard shoe, respectively. This effect dissipated during the second half of breakover. When horses walked, lateral roll during breakover was not significantly enhanced by use of this shoe.

CONCLUSIONS AND CLINICAL RELEVANCE

A shoe with an axial-contoured lateral branch induced greater lateral roll during breakover in trotting horses, but change in orientation of the hoof was small and limited to the first half of breakover.

摘要

目的

确定在站立期结束(过渡)时足跟离地到趾尖离地期间,带有轴向轮廓外侧分支的蹄铁是否会导致前肢蹄更大的外侧滚动。动物——10匹成年马。

程序

将一个陀螺传感器放置在右前肢的蹄上并连接到一个发射器。在每匹马于跑步机上行走和小跑时,在蹄铁匠进行2次处理之前(处理1,不修剪——不装蹄铁)和之后(处理2,修剪——标准蹄铁;处理3,修剪——轮廓蹄铁)收集蹄角速度数据。通过数学积分将数据转换为蹄角。将过渡持续时间分为4个阶段,并在每个阶段结束时计算3个平面(俯仰、滚动和偏航)中的蹄角。进行多变量方差分析以检测处理和步态之间的差异。

结果

与不修剪——不装蹄铁和修剪——标准蹄铁相比,在小跑时使用带有轮廓外侧分支的蹄铁进行修剪和装蹄铁,在过渡的前半段期间分别导致蹄的平均外侧滚动增加3.2度和2.5度。这种效果在过渡的后半段消失。当马行走时,使用这种蹄铁在过渡期间外侧滚动没有显著增强。

结论及临床意义

带有轴向轮廓外侧分支的蹄铁在小跑的马的过渡期间导致更大的外侧滚动,但蹄的方向变化很小且仅限于过渡的前半段。

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