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  • About
  • The Global ETD Search service is a free service for researchers to find electronic theses and dissertations. This service is provided by the Networked Digital Library of Theses and Dissertations.
    Our metadata is collected from universities around the world. If you manage a university/consortium/country archive and want to be added, details can be found on the NDLTD website.
1

Design antigravitačního trenažéru / Design of Antigravity Simulation

Crhová, Veronika January 2020 (has links)
The diploma thesis is focused on the design of water antigravity treadmill, which is unsatisfactory for current products, and has shortcomings in terms of ergonomics. Design of the device takes into consideration the connection between water and man and, also the ergonomic requirements for all users. The design was significantly influenced by the choice of materials, which enabled round shaping of the device. A technical innovation is the built – in wheelchair access ramp. The device is multi – purpose, suitable for a wide range of patients and athletes. Thanks to the built – in ramp, space requirements had been significantly reduced.
2

Physiological Differences between Land and Water Treadmill Running

Rife, Rachel Kemp 21 March 2008 (has links) (PDF)
Objective: To determine if water treadmill running with (WTR-S) or without water shoes (WTR-NS) could produce similar cardiorespiratory responses as land treadmill running (LTR). Design and Setting: A repeated measures design was used to assess the differences between LTR and WTR-S and WTR-NS. All testing was done in either a research laboratory or an athletic training hydro-therapy room. Subjects: Eighteen trained runners (9 men and 9 women) volunteered for this study. All 18 subjects participated in three running conditions. Measurements: Treadmill speed, HR, and SF were assessed at four exercise intensities representing 50%, 60%, 70%, and 80% of land VO2max for all three running conditions. Results: WTR with and without water shoes produces similar cardiorespiratory responses to LTR. The VO2/HR relationship showed that at a HR of 150 bpm, VO2 was significantly less (p < 0.0001) when running on a land treadmill (34.66 ml/kg/min) compared to a water treadmill with shoes (37.51 ml/kg/min) and without shoes (37.21 ml/kg/min) were nearly identical. At a HR 150 of bpm, the VO2 in males (40.52 ml/kg/min) was 8.12 ml/kg/min higher than that of their female (32.40 ml/kg/min) counterparts. At a treadmill speed of 6 mph, stride frequency during LTR was 23.6 steps/min greater (p < 0.0001) than WTR-S and 21.8 strides/min greater than WTR-NS. VO2 was on the average 4.12 ml/kg/min higher (p < 0.0001) during WTR-S compared to WTR-NS running condition at the same treadmill speed. Conclusion: Statistical analysis indicated that 50%, 60%, 70%, and 80% of land VO2max was achieved in the water. Therefore, WTR can be used during rehabilitation of athletes unable to fully weight bear to prevent deconditioning. Wearing the AQinc water running shoe increases the metabolic demand by 4.12 ml/kg/min at any given water treadmill speed. Gender differences existed in the absolute HR/VO2 relationship but not in the relative HR/VO2 relationship among the three running conditions.

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