Tripping is responsible for a large percentage of falls. Minimum toe clearance (MTC) during the swing phase of gait is commonly used to infer the probability of tripping (POT). However, there is limited empirical evidence to support the relationship between these two variables, and other measures of toe trajectory may better predict POT than MTC. The goals of this study were to: 1) quantify the relationship between MTC and POT; and 2) explore alternative measures of toe trajectory that may predict POT more accurately than MTC. POT was estimated by comparing the distribution of tripping obstacles measured along heavily-used, paved sidewalks on a university campus, to the toe trajectory of 40 young adults obtained while walking over an obstacle-free walkway in a research laboratory. POT exhibited a curvilinear relationship with MTC, and regression equations were established to predict POT from MTC. POT was more accurately predicted when using virtual points on the bottom of the anterior edge of the shoe to determine MTC, compared to using a physical marker located on top of the toes to determine MTC. POT was also more accurately predicted when using a new measure of toe trajectory (the area below 40mm and above the toe trajectory, normalized by the swing length), compared to just MTC. These are the first empirical results supporting a direct, quantitative relationship between MTC and POT. These results may improve the ability to identify risk factors that influence POT, and aid in developing interventions to reduce POT.
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http://dx.doi.org/10.1016/j.jbiomech.2016.10.045 | DOI Listing |
Burns
November 2024
Department of Plastic Reconstructive and Aesthetic Surgery, Faculty of Medicine, Dicle University, Diyarbakir, Turkey.
Introduction: The severity of electrical injuries depends on the voltage, the duration of exposure to current, and the trajectory of the current through the body. The reconstruction for defects caused by electric current is a difficult process.
Objective: The purpose of this study is to investigate the effectiveness of the reverse first dorsal metatarsal artery (FDMA) flap in the reconstruction of distal foot injuries caused by electric currents.
J Neurosurg Case Lessons
December 2024
Department of Neurosurgery, Hendrick Medical Center, Abilene, Texas.
Background: Transorbital penetrating brain injury (PBI) accompanied by electrical injury is an extremely rare presentation. This type of traumatic injury has a unique set of diagnostic and therapeutic challenges due to the potential multiple organ system involvement and severe neurological complications.
Observations: A 50-year-old male experienced a high-impact injury from a welding spike that penetrated the orbit just above the eyeball with a concurrent electrical injury; the electricity exited through the great toe.
Heliyon
November 2024
School of agriculture, Orient science & technology college of Hunan Agricultural University, Hunan, 400125, China.
Background And Objective: Empowering rural life through digital technology reflects the collective aspirations of millions of farmers striving for a better quality of life. Ensuring that the benefits of digital advancements reach every corner of the population is a crucial and inevitable choice. To expedite the establishment of an inclusive digital life for all citizens, the Chinese government has exerted substantial efforts by positioning the development of digital villages as a national strategy.
View Article and Find Full Text PDFArch Phys Med Rehabil
November 2024
Human Health Sciences, Graduate School of Medicine, Kyoto University, Kyoto.
Objective: To examine the correlations amongst center of pressure (COP) trajectories, foot morphology, and knee symptoms in older women with medial knee deformity.
Design: This was a cross-sectional study.
Setting: Participants were recruited from 2 local orthopedic clinics.
Sensors (Basel)
October 2024
Faculty of Sport and Physical Education, University of Belgrade, 11000 Belgrade, Serbia.
This study aimed to validate the automated temporal analysis of countermovement vertical jump (CMJ) using MMPose, a markerless pose estimation framework, by comparing it with the gold-standard 3D marker-based motion capture system. Twelve participants performed five CMJ trials, which were simultaneously recorded using the marker-based system and two smartphone cameras capturing both sides of the body. Key kinematic points, including center of mass (CoM) and toe trajectories, were analyzed to determine jump phases and temporal variables.
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