• Title/Summary/Keyword: Static Gait

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Effects of Recovery of Underwater Walking and Recovery of Underwater Sitting on Growth Hormone, Testosterone, Blood Lactate, Double product and Muscle Pain after Resistance Exercise (수중걷기회복과 수중앉기회복이 저항운동 후 성장호르몬, 테스토스테론, 혈중젖산농도, 심부담도 및 근통증에 미치는 영향)

  • Park, Jun-Sik;Jang, Tae-Soo;Jeong, Hwan-Jong;Kim, Ki-Hong
    • Journal of the Korean Applied Science and Technology
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    • v.37 no.6
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    • pp.1646-1658
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    • 2020
  • In order to investigate the changes in growth hormone, testosterone, blood lactate, double product, and pain, this study conducted intensive weight training and circuit weight training with 60% intensity of 1RM for 7 men who had more than 6 months of resistance exercise and then performed Underwater Walking and Underwater Sitting with underwater recovery. Growth hormone was high in all exercise forms and recovery methods in order of after exercise, after recovery, and after stability, and testosterone was high in order of after exercise, after recovery, and stability. Blood lactate was higher in all exercise forms and recovery methods in order of after exercise, after recovery, and after stabilization, and dynamic recovery after concentration resistance exercise was lower than static recovery. Double product was higher in all types of exercise and recovery methods in order of after-exercise, after-recovery, and stability. Muscle pain decreased in the order of exercise, recovery, 24 hours, 48 hours, and 72 hours in all exercise forms and recovery methods. In the water environment, dynamic recovery is considered to be more effective in improving muscle fatigue than static recovery.

The Effects of functional foot orthotics on the balance according to Foot Shape (기능성 발보조기의 족부형태별 균형유지에 미치는 영향)

  • Chai, S.W.;Park, K.Y.;Kim, Y.S.
    • Journal of rehabilitation welfare engineering & assistive technology
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    • v.5 no.1
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    • pp.47-52
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    • 2011
  • The functional loot orthoses, when wearing shoes, are in the direct contact with bottom of foots to improve and recover the correctness of abnormal lower limb musculoskeletal imbalance and the primary role of foot and also, it can act to keep the balance and weight of body and support the weakened region, so that it is very helpful to keep body balance for the standing position. In this paper, it was researched that foot orthoses which is accommodable for the function of impact absorption including the gait stability affect on the balanced performances of body in according to the formation and the material of foot part. Taking into account the balanced performances by using the sway velocity, the estimation and comparison of the effects on the balanced performances by each formation and material for foot orthoses was evaluated into significant values(p<0.006) in only the eye-opening posture with Firm state, In this posture, the static process performed by each foot formation reveals in order of normal foot(p<0.010), flat foot(p<0.000) and hollow foot(p<0.003) and then, on the base of each formation of foot part, the result that analyze the effects of the materials of foot orthoses on the balance performance appeared showing that soft materials is more effective on the normal foot and, on the other hand, rigid materials is more effective in balancing on flat foot and hollow foot.

Experimental Research for Traction force Sensor Development on Drawing Exercise Medical Instrument (재활 및 교정을 위한 견인운동치료기의 견인측정센서 개발에 관한 실험적 연구)

  • Lee, Sang-sik;Park, Won-yeop;Lee, Choong-ho
    • The Journal of Korea Institute of Information, Electronics, and Communication Technology
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    • v.2 no.2
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    • pp.3-8
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    • 2009
  • The traction system has been mainly used for rehabilitation and correction of patients with spine or gait diseases in orthopedics or at home. Some problems could occur in human body when patients forced their training using the traction system. So it needs to measure a traction force and control the training time. However, most of products on market have no sensor measuring traction force. Thus we designed and made a sensor detecting traction force using strain gauge, amplifier for transition to output signal and experiment devices for performance test. We carried out experiment of a sensor detecting a traction force and measured electric responses of it with respect to traction loads. Maximum error was within about 1% for experiments in static condition and the average error was about 0.7% for experiments in dynamic condition. We concluded that it is possible to use the developed sensor for measurement of traction force since the maximum output variation of a sensor detecting a traction force was about 0.3% in $0^{\circ}C-60^{\circ}C$ temperature condition.

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