基于动作捕捉系统对旋提手法操作规范化培训量化及再验证研究OA
Quantification and re-validation of standardized training for rotational lifting techniques based on motion capture systems
目的:探讨旋提手法智能培训机器人培训后手法操作的一致性.方法:自2021年10月至2021年12月选取健康志愿者20名行旋提手法操作,其中男11名,女9名;年龄20~32(25.0±3.5)岁;身体质量指数(body mass in-dex,BMI)为18~25(21.0±2.3)kg·m-2.将旋提手法动作进行可量化性拆分,每位受试者左右侧各操作1次,使用Opti-track 动作捕捉系统捕捉旋提手法运动轨迹,通过肘部与足部压力板对旋提手法操作力度进行受试者(1号)和操作者(2号)足底力学、操作者肘部的预牵引力、提扳力以及最大作用力的力学数据采集,量化旋提手法的运动轨迹与手法力度,并与智能考核机器人系统的考核数据进行一致性检验.结果:操作组足底1号板预牵引力、提扳力、最大作用力分别为(298.03±8.42)、(359.17±37.00)、(148.76±9.85)N,足底 2 号板分别为(872.71±63.47)、(790.12±51.88)、(1 020.34±89.34)N;提扳时间(83.19±16.28)ms;肘部压力板预牵引力、提扳力、最大作用力分别为(2.67±0.88)、(2.24±0.83)、(3.98±1.01)kg.机器人组预牵引力、提扳力、最大作用力分别为(16.81±5.57)、(10.36±4.42)、(21.26±7.07)N,提扳时间为(116.81±29.77)ms.与机器人手法操作力度进行Pearson检验,结果显示足底2号压力板(r=0.632 9)和肘部压力板(r=0.722 7)的r值基本一致,足底1号(r=-0.689 5)和2号(r=0.6329)压力板的r值相反,机器人力学考核数据变化(r=0.4060)和足底2号板(r=0.632 9)比较,其差值为0.226 9.各提扳力余弦值分别为机器人组提扳力cos(θ)为-0.923,角度为157.38°;足底2号板提扳力cos(θ)为-0.685,角度为126.87°;肘部压力板提扳力cos(θ)为-0.685,角度为131.82°;足底2号压力板、机器人力学、肘部力学受力图形关键点具有强相似性.结论:旋提手法智能机器人考核系统培训和考核对旋提手法操作者的动作具有明确的规范作用.
Objective To explore the consistency of manual operation after training by the intelligent training robot for ro-tational lifting techniques.Methods From October 2021 to December 2021,20 healthy volunteers were selected to perform ro-tational lifting manipulation,including 11 males and 9 females,aged from 20 to 32 years old with average of(25.0±3.5)years old;body mass index(BMI)ranged from 18 to 25 kg·m-2 with an average of(21.0±2.3)kg·m-2.The rotational lifting tech-nique movements were quantitatively decomposed.Each subject performed the operation once on each side.Optitrack motion capture system was used to capture the movement trajectory of rotational lifting technique.The mechanical data of foot me-chanics of the subject(No.1)and the operator(No.2),the pre-traction force of the operator's elbow,the lifting force and the maximum force were collected through elbow and foot pressure plates for operation force of rotary lifting technique.The move-ment trajectory and force of rotary lifting technique were quantified,and the consistency was verified with the assessment data of the intelligent assessment robot system.Results The pretraction force,lifting force and maximum force of No.1 plate on sole of foot were(298.03±8.42),(359.17±37.00)and(148.76±9.85)N respectively.The No.2 plates on soles of feet were(872.71±63.47),(790.12±51.88),and(1,020.34±89.34)N respectively;lifting time was(83.19±16.28)ms;the pre-traction force,lifting force and the maximum force of elbow pressure plate were(2.67±0.88),(2.24±0.83)and(3.98±1.01)kg respec-tively;the pretraction force,lifting plate force,and maximum force of robot group were(16.81±5.57),(10.36±4.42),and(21.26±7.07)kg respectively,and the lifting plate time was(116.81±29.77)ms.Pearson test result was conducted with the manipulation force of robot.The results showed that r values of plantar pressure plate No.2(r=0.632 9)and elbow pressure plate(r=0.722 7)were basically the same,while r values of plantar pressure plate No.1(r=-0.689 5)and No.2(r=0.632 9)were opposite.The change in mechanical assessment data of robot(r=0.406 0)compared with that of No.2 plantar board(r=0.632 9)showed the difference was 0.226 9.The cosine values of each lifting force were as follows:lifting force cos(θ)of robot group was-0.923,and angle was 157.38°.The lifting force cos(θ)of No.2 board on sole of foot was-0.685,and angle was 126.87°.The lifting force cos(θ)of elbow pressure plate was-0.685,and angle was 131.82°.The key points of force diagrams of No.2 pressure plate on sole of foot,robot mechanics,and elbow mechanics have strong similarities.Conclusion The training and assessment of intelligent robot assessment system for spinning lifting technique have a clear regulatory effect on movements of spinning lifting technique operators.
符碧峰;张超;苏瑾;李远栋;杨光;刘爱峰;陈立江;冯敏山;王平
天津中医药大学第一附属医院,天津 300381||国家中医针灸临床医学研究中心,天津 300381||国家中医药管理局区域中医骨伤科诊疗中心,天津 300381天津中医药大学第一附属医院,天津 300381||国家中医针灸临床医学研究中心,天津 300381||国家中医药管理局区域中医骨伤科诊疗中心,天津 300381天津中医药大学第一附属医院,天津 300381||国家中医针灸临床医学研究中心,天津 300381||国家中医药管理局区域中医骨伤科诊疗中心,天津 300381天津中医药大学第一附属医院,天津 300381||国家中医针灸临床医学研究中心,天津 300381||国家中医药管理局区域中医骨伤科诊疗中心,天津 300381天津中医药大学第一附属医院,天津 300381||国家中医针灸临床医学研究中心,天津 300381||国家中医药管理局区域中医骨伤科诊疗中心,天津 300381天津中医药大学第一附属医院,天津 300381||国家中医针灸临床医学研究中心,天津 300381||国家中医药管理局区域中医骨伤科诊疗中心,天津 300381青县中医医院,天津 062650中国中医科学院望京医院,北京 100102天津中医药大学第一附属医院,天津 300381||国家中医针灸临床医学研究中心,天津 300381||国家中医药管理局区域中医骨伤科诊疗中心,天津 300381
医药卫生
旋提手法动作捕捉旋提手法智能培训机器人验证
Rotational lifting techniqueMotion captureIntelligent training robot for rotational lifting techniqueValidation
《中国骨伤》 2026 (3)
277-281,5
中医药循证能力建设项目(编号:2019XZZX-GK006)天津中医药大学第一附属医院"拓新工程"项目(编号:201908)Evidence-based Capacity Building Program in Chinese Medicine(No.2019XZZX-GK006)
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