1.Effect of Mirror Therapy on Upper Extremity Motor Function and Activities of Daily Living after Stroke:A Meta-analysis
Zhongfei BAI ; Ziwei ZHANG ; Huifang WANG ; Jiani LU
Chinese Journal of Rehabilitation Theory and Practice 2016;22(12):1384-1394
Objective To systematically summarize the effects of mirror therapy on upper extremity motor function and activities of dai-ly living after stroke. Methods The literatures about mirror therapy published between January, 2006 and May, 2016 were recalled from Medline, PubMed, CINAHL, OT seeker, PEDro, Wanfang and CNKI databases. The randomized control trials were included, and those didn't concern upper extremity motor function and activities of daily living were excluded. The data were extracted and analysed with Rev-Man 5.3. Results Fourteen trials were included. Mirror therapy could significantly improve Fugl-Meyer Assessment score (SMD=0.81, 95%CI=0.43-1.20, P<0.001, I2=64%). Subgroups analysis indicated movement based mirror therapy was more effective on mild to moderate hemiplegia (SMD=0.96, 95%CI=0.59~1.34, P<0.001, I2=51%) and the subgroup differences were also significant (P=0.004). Mirror therapy could improve score of Action Research Arm Test (SMD=0.33, 95%CI=0.01-0.64, P=0.040, I2=0), Box and Block Test (SMD=0.70, 95%CI=0.03-1.37, P=0.040, I2=62%) and Brunstrom stages (SMD=1.56, 95%CI=1.07-2.06, P<0.001, I2=41%) of affected upper extremities. It could also improve activities of daily living (SMD=0.93, 95%CI=0.62-1.24, P<0.001, I2=0). No evidence revealed mirror therapy could change muscle tone of flexors of affected upper limbs (SMD=-0.22, 95%CI=-0.73-0.28, P=0.890, I2=0). Conclusion Mirror therapy can signifi-cantly improve upper extremity motor function and activity of daily living.
2.Longitudinal trajectory analysis of orthokeratology lens wearing adherence in myopic children and adolescents
BAI Guoxin, CAO Mingcong, LI Haiyue, WANG Jian, WANG Yuhe, XU Xiaoteng, CHEN Zhongfei
Chinese Journal of School Health 2025;46(5):728-731
Objective:
To analyze the potential categories and influencing factors of the compliance trajectory of orthokeratology lenses (OK lens) in myopic children and adolescents, so as to provide a basis for dynamic and accurate intervention of OK lens compliance in myopic children and adolescents.
Methods:
From January to June 2024, 310 myopic children and adolescents wearing OK lens were selected as research subjects from the Ophthalmology Medical Center of Cangzhou Central Hospital using a convenient sampling method. Data were collected at four time points: when the glasses were first fitted (T0), 2 weeks after fitting (T1), 1 month later (T2), 3 months later (T3), and 6 months later (T4). The data collection methods included general information questionnaires, compliance surveys for OK lens wearers, the Behavior Rating Inventory of Executive Function-Self-report Version (BRIEF-SR), family support scales, and a self-made questionnaire on myopia control attitudes. A growth mixed model was used to identify the trajectory categories of compliance with OK lens wearing among myopic children and adolescents, and multiple Logistic regression analysis was employed to examine the influencing factors.
Results:
The compliance with OK lens among myopic children and adolescents were roughly divided into four developmental trajectories: C1 exemplary adherent (58 cases, 18.71%), C2 gradual progressor (130 cases, 41.94%), C3 fluctuating (85 cases, 27.42%), and C4 stubborn low follower (37 cases, 11.94%). Multivariate Logistic regression analysis showed that, with C1 group as the reference, age (C3, OR = 0.74 ), parental education level (C4, OR =0.67), executive function (C2, OR =0.69; C4, OR =0.44), family support (C3, OR =0.75) and myopia control attitude (C2, OR =0.39) were all influencing factors for the compliance trajectory of OK lens; with C2 group as the reference, age (C3, OR = 0.55 ), parental education level (C3, OR =0.34; C4, OR =0.64), executive function (C3, OR =0.77), and family support (C4, OR =0.58) were all influencing factors for the compliance trajectory of OK lens; with C3 group as the reference, age (C4, OR = 0.68 ), and myopia control attitude (C4, OR =0.44) were both influencing factors for the compliance trajectory of OK lens ( P <0.05).
Conclusions
The compliance of wearing OK lens in children and adolescents with myopia can be roughly divided into four trajectories, and there is group heterogeneity. Dynamic and precise compliance intervention strategies should be given based on different trajectories and influencing factors.