1.Reconcideration of Shang-han Lun
Kazuhiro MAKIZUMI ; Shuji KOTAKA ; Huang HUANG ; Yoshihiro FUKUTA ; Kensuke NAKAMURA
Kampo Medicine 2008;59(2):193-230
2.Clinical study on added Yokuinin To.
Kensuke NAKAMURA ; Katsumi MORI ; Togo OTA ; Toyosato KAIDA ; Yosiro SAHASI ; Yutaka TOMITA ; Teruyuki MURAYAMA
Kampo Medicine 1988;39(1):41-47
3.Studies on Mao-Bushi-Saishin-To applied to exhaustion.
Kensuke NAKAMURA ; Kazuko MURAYAMA ; Togo OTA ; Toyosato KAIDA ; Yosiro SAHASI ; Yutaka TOMITA ; Teruyuki MURAYAMA ; Katsumi MORI
Kampo Medicine 1989;39(3):221-225
4.A study of E-byo - On clinical report.
Katsumi MORI ; Kensuke NAKAMURA ; Togo OHTA ; Toyosato KAIDA ; Hiroshi TOMITA ; Kazuko MURAYAMA ; Teruyuki MURAYAMA ; Yoshiro SAHASHI
Kampo Medicine 1989;40(1):27-32
5.Heibyo and Sensho
Tatsuya KUBOTA ; Yoshiko TAKAGI ; Katsumi MORI ; Rueymei MIYAZAKI ; Kensuke NAKAMURA ; Akira IMADAYA
Kampo Medicine 2007;58(5):871-897
7.RELEVANCE OF SOCIAL AND PHYSICAL ENVIRONMENTAL INFLUENCES TO PHYSICAL ACTIVITY PROMATION
MASAYA ITAKURA ; KOICHIRO OKA ; NORIKO TAKEDA ; MAMI FURUICHI ; KENSUKE SAKAI ; YOSHIO NAKAMURA
Japanese Journal of Physical Fitness and Sports Medicine 2005;54(3):219-227
Background A behavioral science-based approach is essential for constructing effective intervention programs to promote the shift from a sedentary to active lifestyle. Recently, the influences of social and physical environment on physical activity have been recognized as key factors for promoting physical activity. The present study attempts to identify the social and physical environmental influences associated with physical activity promotion.Methods We recruited volunteers from a 14,000 population of community-dwelling adults. Seventy-two adults (intervention group : n=35, control group : n=37) participated in the present study. The intervention consisted of 8 sessions for 2 months using The Waseda Walking Program. We assessed social support for exercise, perceived neighborhood environment for walking, stages of change in exercise behavior and physical activity outcomes at baseline and 2 months. Ffifty-seven out of 72 subjects (intervention : n=30, control : n=27) completed all of the intervention including the final questionnaire.Results There were significant intervention effects on physical activity outcomes, stages of change and perceived neighborhood environment. However, no significant improvement in social support was found. In addition, improvement of perceived physical environment was related to an increase in physical activity.Conclusion Perceived neighborhood environment for walking would be identified as a key factor to influence an effect of physical activity promotion. On the other hand, social support would be influenced to the earlier stages of change in exercise.
8.EFFECT OF INDIVIDUAL FEEDBACK INFORMATION IN A CORRESPONDECE COURSE TYPE WALKING PROGRAM BASED ON BEHAVIORAL SCIENCE
YURI AKIYAMA ; MAMI FURUICHI ; MASAHIRO MIYACHI ; NORIKO TAKEDA ; KENSUKE SAKAI ; KOICHIRO OKA ; YOSHIO NAKAMURA
Japanese Journal of Physical Fitness and Sports Medicine 2007;56(1):157-166
The purpose of this study was to investigate the effect of individual feedback intervention (IFB) or general video intervention (GV) on promoting daily physical activity. One hundred and thirty-six community-dwelling people volunteered as subjects and participated in the 2-month walking program provided as a correspondence course. The subjects were randomly allocated to one of four groups, which consisted of either IFB or GV. Each of the groups was based on behavioral science. The stage of change in exercise, self-efficacy for exercise and daily physical activity were measured before and after intervention 4 months later during the follow-up period. There were statistically significant effects of both ‘time’ (F=3.71, p=0.026) and ‘time’בIFB’ (F=3.76, p=0.025) in self-efficacy for exercise; while there was no significant effect of interaction between ‘time’בGV’. As for daily physical activity, there was no significant effect of the interaction both of ‘time’בIFB’ and ‘time’בGV’. These results suggest the IFB of promoting self-efficacy for exercise.
10.Remnant-Preserving Anterior Cruciate Ligament Reconstruction Using a Three-Dimensional Fluoroscopic Navigation System
Shuji TAKETOMI ; Hiroshi INUI ; Takaki SANADA ; Kensuke NAKAMURA ; Ryota YAMAGAMI ; Hironari MASUDA ; Sakae TANAKA ; Takumi NAKAGAWA
The Journal of Korean Knee Society 2014;26(3):168-176
INTRODUCTION: Recently, remnant-preserving anterior cruciate ligament (ACL) reconstruction has been increasingly performed to achieve revascularization, cell proliferation, and recovery of high-quality proprioception. However, poor arthroscopic visualization makes accurate socket placement during remnant-preserving ACL reconstruction difficult. This study describes a surgical technique used to create an anatomical femoral socket with a three-dimensional (3D) fluoroscopy based navigation system during technically demanding remnant-preserving ACL reconstruction. SURGICAL TECHNIQUE: After a reference frame was attached to the femur, an intraoperative image of the distal femur was obtained, transferred to the navigation system and reconstructed into a 3D image. A navigation computer helped the surgeon visualize the entire lateral wall of the femoral notch and lateral intercondylar ridge, even when the remnant of the ruptured ACL impeded arthroscopic visualization of the bone surface. When a guide was placed, the virtual femoral tunnel overlapped the reconstructed 3D image in real time; therefore, only minimal soft tissue debridement was required. MATERIALS AND METHODS: We treated 47 patients with remnant-preserving ACL reconstruction using this system. The center of the femoral socket aperture was calculated according to the quadrant technique using 3D computed tomography imaging. RESULTS: The femoral socket locations were considered to be an anatomical footprint in accordance with previous cadaveric studies. CONCLUSIONS: The 3D fluoroscopy-based navigation can assist surgeons in creating anatomical femoral sockets during remnant-preserving ACL reconstruction.
Anterior Cruciate Ligament
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Anterior Cruciate Ligament Reconstruction
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Cadaver
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Cell Proliferation
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Debridement
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Femur
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Fluoroscopy
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Humans
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Proprioception
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Surgery, Computer-Assisted