标准·方案·指南
中国脑性瘫痪康复指南(2022)第四章:康复治疗(下)
中华实用儿科临床杂志, 2022,37(17) : 1281-1309. DOI: 10.3760/cma.j.cn101070-20220718-00875
摘要

本章依据近年来国内外循证医学研究结果及相关循证医学临床实践指南,对脑性瘫痪康复治疗策略及原则、运动治疗、物理因子治疗、作业治疗、言语语言治疗、药物治疗、外科治疗、其他治疗、辅助器具应用及共患病治疗,提出新颖和全面的循证证据及推荐意见,对儿童康复专业工作者科学规范地开展脑性瘫痪的康复治疗具有重要指导意义。

引用本文: 中国康复医学会儿童康复专业委员会, 中国残疾人康复协会小儿脑性瘫痪康复专业委员会, 中国医师协会康复医师分会儿童康复专业委员会, 等.  中国脑性瘫痪康复指南(2022)第四章:康复治疗(下) [J] . 中华实用儿科临床杂志, 2022, 37(17) : 1281-1309. DOI: 10.3760/cma.j.cn101070-20220718-00875.
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未经授权,不得转载、摘编本刊文章,不得使用本刊的版式设计。

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由于篇幅所限,本章分为两部分刊登。第四章:康复治疗(下)为本章第六节至第十节内容,包括药物治疗、外科治疗、其他治疗、辅助器具应用及共患病治疗。

第六节 药物治疗

近20年脑性瘫痪(cerebral palsy,简称脑瘫)儿童的药物治疗主要分为4个方面:(1)缓解痉挛:神经肌肉阻滞剂(A型肉毒毒素)和化学去神经支配药物(苯酚、乙醇);口服药物(苯二氮类、丹曲林、巴氯芬、替扎尼定等)和巴氯芬鞘内注射;(2)肌张力障碍管理(A型肉毒毒素、盐酸苯海索、加巴喷丁等);(3)改善低骨密度和骨质疏松(维生素D、钙补充剂和双磷酸盐);(4)神经营养药物等。

1 缓解痉挛
1.1 A型肉毒毒素

证据 (1)缓解下肢痉挛:剂量对照研究显示步态动力学与运动学有显著的剂量-效应相关性,高剂量较低剂量在站立位或摆动时有更显著的踝关节背屈活动,且效用更持久[1,2](2个Ⅰ级证据)。采用粗大运动功能评定量表(gross motor function measure,GMFM)评定结果显示A型肉毒毒素明显提高下肢功能和改善步态[3,4](1个Ⅰ级证据,1个Ⅱ级证据)。使用A型肉毒毒素与安慰剂对照研究证明,治疗组脑瘫儿童的下肢功能较安慰剂组有显著改善[5,6](2个Ⅰ级证据)。A型肉毒毒素注射也可增加痉挛型脑瘫儿童步态的活动性和功能性[7](1个Ⅱ级证据)。对动态马蹄内翻足的脑瘫儿童进行A型肉毒毒素治疗,GMFM评定结果显示D区(站立位)评分明显改善[8,9](2个Ⅰ级证据),推荐痉挛性马蹄内翻足儿童的注射频率为12个月1次[10](1个Ⅱ级证据)。A型肉毒毒素注射最常见的不良事件为注射部位的疼痛及感染。尚无证据表明脑瘫儿童下肢痉挛治疗的不良反应有累积效应。在整个治疗周期中,肌张力、痉挛、整体临床疗效均有持续显著地改善[11](1个Ⅰ级证据)。对9~36个月的脑瘫儿童注射A型肉毒毒素治疗腓肠肌痉挛安全有效[12](1个Ⅱ级证据)。

(2)缓解上肢痉挛:A型肉毒毒素注射短期内能明显改善脑瘫儿童的上肢功能,但对长期上肢运动功能的改善不明显[2,13,14,15,16](4个Ⅰ级证据,1个Ⅱ级证据)。A型肉毒毒素注射联合作业治疗(occupational therapy,OT)的效果更好,能改善肘部及拇指主动伸展功能以及降低腕部、肘部的肌张力,但手抓握的功能测试只有轻微提升,捡硬币测试显示手功能无明显改善[17](1个Ⅱ级证据)。对比上肢重复注射A型肉毒毒素联合OT与单独采用OT治疗的随机对照试验结果显示,联合治疗方法使痉挛得到持续缓解,父母能感知到脑瘫儿童的明显进步[14](1个Ⅰ级证据)。A型肉毒毒素注射的严重不良事件发生率很低[18](1个Ⅰ级证据)。

大剂量注射A型肉毒毒素是否导致骨骼肌功能、纤维结构和非纤维结构受损,从而导致步态受损尚需进一步研究[19,20,21](1个Ⅰ级证据,1个Ⅲ级证据,1个Ⅳ级证据)。

(3)缓解流涎:A型肉毒毒素注射唾液腺通常是有效的,对痉挛型脑瘫儿童的治疗是安全的。无论是客观测量唾液产生还是与病症相关的主观症状,下颌下腺和腮腺联合注射与仅注射腮腺相比较,似乎没有显著优势[22](1个Ⅱ级证据)。

推荐 (1)A型肉毒毒素注射是一种安全有效缓解痉挛的治疗技术,可有效缓解上肢及下肢痉挛(推荐强度:A级)。

(2)OT联合应用A型肉毒毒素注射,可增强OT的疗效(推荐强度:A级)。

(3)A型肉毒毒素注射唾液腺可应用于痉挛型脑瘫儿童的流涎治疗(推荐强度:B级)。

1.2 乙醇、苯酚

证据 乙醇、苯酚局部注射可缓解脑瘫儿童的局部痉挛,但苯酚常发生不良反应。临床多为补充性应用乙醇、苯酚以配合A型肉毒毒素注射治疗痉挛[23](1个Ⅱ级证据)。

推荐 乙醇、苯酚可配合A型肉毒毒素用于缓解脑瘫儿童的局部痉挛,但应注意避免不良反应(推荐强度:B级)。

1.3 地西泮

证据 地西泮治疗痉挛型脑瘫3周后,发现呈剂量依赖性的肌张力降低、被动关节活动范围增加和自主运动能力提高,但没有明显的功能改善[24](1个Ⅰ级证据)。地西泮联合应用丹曲林与安慰剂组比较痉挛得到显著缓解[25](1个Ⅱ级证据)。地西泮还能调节脑瘫儿童的行为与协调能力[26](1个Ⅱ级证据)。

推荐 (1)短期应用地西泮可缓解脑瘫儿童的痉挛(推荐强度:A级)。

(2)地西泮联合应用丹曲林缓解痉挛效果明显(推荐强度:B级)。

1.4 丹曲林

证据 丹曲林可改善腱反射和减轻剪刀步[27](1个Ⅱ级证据)。有报道认为丹曲林对痉挛、运动功能和肌力均无明显影响[28](1个Ⅱ级证据);但另一同样剂量[4~12 mg/(kg·d)]的研究表明,丹曲林可减轻痉挛,虽然粗大运动功能无改善,但日常生活活动(activities of daily living,ADL)能力(包括穿衣、饮食方面的协调能力,自主玩耍时的肢体控制、耐力和活动自由度等)有显著提高[29](1个Ⅱ级证据)。

推荐 (1)丹曲林可改善腱反射、剪刀步和ADL能力(推荐强度:B级)。

(2)丹曲林可能缓解脑瘫儿童的痉挛(推荐强度:C级)。

1.5 巴氯芬

证据 (1)口服巴氯芬:口服剂量为10~60 mg/d。巴氯芬可减轻脑瘫儿童的痉挛,具体表现为被动关节活动范围增大,但对能独立行走的脑瘫儿童没有明显的功能改善[30](1个Ⅱ级证据);采用同等剂量和年龄分组的研究发现,目标达成量表(goal attainment scaling,GAS)评分有显著改善,但改良后的Tardieu量表和能力低下儿童评定量表(pediatric evaluation of disability inventory,PEDI)评定结果显示,痉挛和运动功能并无明显改善[31](1个Ⅱ级证据)。

(2)鞘内注射巴氯芬(intrathecal Baclofen,ITB):可缓解脑瘫儿童的痉挛和改善运动功能[21,32,33,34,35,36,37,38](1个Ⅱ级证据,1个Ⅲ级证据,6个Ⅳ级证据)。通过ITB或安慰剂治疗3个月后发现,ITB对严重运动障碍脑瘫儿童的治疗效果优于安慰剂[39](1个Ⅱ级证据)。ITB的不良反应有脑脊液漏、导管故障和软组织感染等[40](1个Ⅱ级证据)。有研究推荐应先予静脉推注巴氯芬观察其不良反应,根据其是否存在不良反应决定是否继续应用ITB[41](1个Ⅱ级证据)。持续ITB可减轻脑瘫儿童的痉挛,能显著改善不能行走脑瘫儿童的生活质量[42](1个Ⅱ级证据)。

推荐 (1)口服巴氯芬可在一定程度上缓解脑瘫儿童的痉挛(推荐强度:B级)。

(2)ITB可缓解脑瘫儿童的痉挛,改善运动功能,但对部分脑瘫儿童具有不良反应(推荐强度:B级)。

1.6 替扎尼定

证据 脑瘫儿童使用剂量为0.05 mg/(kg·d)的替扎尼定2周,结果发现其痉挛减轻、异常姿势及腱反射改善,但缺乏功能评定的结果,亦未发现不良反应,检测脑瘫儿童的肝功能显示正常,研究者认为替扎尼定可用于缓解脑瘫儿童痉挛的治疗[43](1个Ⅱ级证据)。

推荐 替扎尼定可减轻脑瘫儿童的痉挛(推荐强度:B级)。

2 肌张力障碍管理

证据 给予肌张力障碍脑瘫儿童平均剂量为18.1 mg/(kg·d)[病情稳定后平均剂量为13.3 mg/(kg·d)]加巴喷丁治疗后,可显著改善脑瘫儿童的情绪、睡眠量和睡眠质量等[44](1个Ⅱ级证据)。加巴喷丁可能具有缓解由于肌张力障碍导致脑瘫儿童疼痛的作用[45](1个Ⅱ级证据)。

推荐 加巴喷丁可改善脑瘫儿童生活质量,并可能缓解由于肌张力障碍导致的疼痛(推荐强度:B级)。

3 改善骨密度和骨质疏松

证据 氨羟二磷酸二钠可以增加脑瘫儿童的骨密度,是一种安全和非常有效的方法,并可降低骨折风险[46,47](2个Ⅱ级证据)。口服剂量为1 mg/(kg·周)的阿仑酸钠可治疗脑瘫儿童合并的骨质疏松症,且疗效肯定[48](1个Ⅱ级证据)。服用抗癫痫药物的儿童需要摄入高于正常推荐摄入量的维生素D和钙补充剂,以维持骨密度[49](1个Ⅳ级证据)。一项荟萃分析显示双磷酸盐对脑瘫儿童骨密度有显著改善作用,需要进一步规范治疗方案,包括治疗剂量和疗程,并需要长期随访研究[50](1个Ⅰ级证据)。静脉注射双磷酸盐可有效阻断骨折倾向,避免脑瘫儿童的再发性骨折[51](1个Ⅲ级证据)。

推荐 (1)氨羟二磷酸二钠可以增加脑瘫儿童的骨密度(推荐强度:A级)。

(2)口服阿仑酸钠可治疗脑瘫儿童合并骨质疏松症(推荐强度:B级)。

(3)服用抗癫痫药物的脑瘫儿童需要摄入高于正常推荐摄入量的维生素D和钙补充剂(推荐强度:C级)。

4 其他:营养神经药物

证据 鼠神经生长因子肌内注射可能改善脑瘫儿童的运动功能,也可能改善脑瘫高危儿的粗大运动功能[52,53](2个Ⅱ级证据)。

推荐 鼠神经生长因子可能改善脑瘫儿童及脑瘫高危儿的运动功能(推荐强度:B级)。

(唐亮 吴德 执笔)

第七节 外科治疗
1 髋关节监测

证据 髋关节脱位多发于4~12岁脑瘫儿童,常见继发于下肢内收肌张力增高、髋周围肌力不平衡及生长期髋关节长期受到异常应力[54,55](1个Ⅱ级证据,1个Ⅲ级证据),多因素共同作用导致股骨近端畸形、前倾角和颈干角增大[56,57](2个Ⅱ级证据)。髋关节脱位发生率与粗大运动功能分级系统(gross motor function classification system,GMFCS)分级密切相关[58](1个Ⅰ级证据),GMFCS为Ⅰ ~ Ⅱ级的发生率低于1%,Ⅳ~Ⅴ级分别约69%和89%[59](1个Ⅱ级证据)。

髋关节监测能早期发现高危状态,及时干预可降低手术率[60,61,62](2个Ⅰ级证据,1个Ⅳ级证据)。儿童体检时需评定其伸髋位下髋外展活动度和痉挛情况,若被动髋外展角度<30°,表示其脱位的风险增加,但并非判断脱位的必要条件,可通过托马斯试验判断是否存在髋屈曲挛缩[63](1个Ⅱ级证据)。

1~2岁的脑瘫儿童需行骨盆平片筛查,摄片时需调整体位以获得标准骨盆平片。通常取仰卧位,双髋内收或外展中立位,双髌向前,屈髋挛缩者需在膝下方垫高以消除屈髋挛缩和腰椎前凸的代偿。髋臼指数(acetabular index,AI)是最常用于评定髋关节的影像学参数之一[64](1个Ⅱ级证据)。CT检查适用于儿童髋关节重建术前评定髋臼缺损部位和程度,也可观察股骨近端的形态及准确评定股骨前倾角的大小[65](1个Ⅱ级证据)。GMFCS为Ⅰ~Ⅱ级、股骨头偏移百分比(migration percentage,MP)<30%的脑瘫儿童,在2~8岁时需至少再行1次骨盆平片筛查;GMFCS为Ⅰ~Ⅱ级、MP>30%,GMFCS为Ⅲ~Ⅴ级、MP<30%的脑瘫儿童,在2~8岁时需每年行1次骨盆平片筛查,8岁以后至少每2年行1次骨盆平片筛查至18岁;GMFCS为Ⅲ~Ⅴ级、MP>30%的脑瘫儿童需每6个月行1次骨盆平片筛查[66](1个Ⅰ级证据)。

推荐 (1)髋关节监测能早期发现高危状态,及时干预可降低手术率(推荐强度:A级)。

(2)骨盆平片是脑瘫髋关节的主要影像学检查,需注意摄片体位(推荐强度:A级)。

(3)AI是评定脑瘫髋关节的重要影像学参数之一(推荐强度:B级)。

(4)脑瘫儿童1~2岁时需行骨盆平片筛查,应根据GMFCS分级、年龄和MP确定推荐的随访频率(推荐强度:A级)。

2 石膏矫形

证据 石膏可将关节固定在特定角度,通过持续牵伸痉挛或挛缩肌肉及关节周围组织来矫正脑瘫儿童上、下肢畸形,常用于肌张力过高引起的踝跖屈,较少用于上肢和屈膝畸形的矫正。A型肉毒毒素注射配合石膏治疗效果更佳,且能够延长A型肉毒毒素的作用时间[67](1个Ⅰ级证据)。

2.1 踝关节 

踝关节跖屈畸形在痉挛型脑瘫中最常见,在可行走的脑瘫儿童中发生率约为61%,由原发性跖屈肌痉挛伴踝关节背屈肌无力所致,随时间推移由动力性畸形(不伴有肌肉挛缩)逐渐发展为固定畸形,并伴软组织、关节及骨性畸形。跖屈步态影响步行稳定性,可导致摆动相足廓清受限、穿鞋困难、疲劳感、能量消耗增加和疼痛[68,69](2个Ⅰ级证据)。短期石膏固定(7 d~3个月)可增加踝关节背屈活动范围、降低下肢肌张力;中期石膏固定(3~6个月)可改善步态参数,且A型肉毒毒素注射1周后配合石膏治疗能有效改善踝关节背屈活动范围、步态及运动学参数[67,70](1个Ⅰ级证据,1个Ⅱ级证据)。石膏可单次或多次短时间固定(每次固定3 d,连续3周),效果无显著差异[70,71](1个Ⅰ级证据,1个Ⅱ级证据)。

2.2 腕关节 

屈腕畸形是痉挛型脑瘫儿童常见上肢畸形,是由掌侧屈肌痉挛所致,背侧伸肌无力会加重畸形,出现软组织和关节挛缩,但系列石膏配合A型肉毒毒素注射治疗有效的证据有限[72,73](1个Ⅲ级证据,1个Ⅳ级证据)。A型肉毒毒素注射配合OT能明显改善腕关节被动活动范围,减轻屈腕畸形,尤其是配合强制性诱导运动疗法(constraint-induced movement therapy,CIMT)效果更佳[74](1个Ⅰ级证据)。

推荐 (1)踝关节跖屈畸形脑瘫儿童石膏治疗有效,必要时配合A型肉毒毒素注射(推荐强度:A级)。

(2)A型肉毒毒素注射配合石膏治疗可选择单次或多次短时间石膏固定的方法(推荐强度:A级)。

(3)系列石膏配合A型肉毒毒素注射,有益于改善脑瘫儿童屈腕畸形(推荐强度:C级)。

(4)A型肉毒毒素注射配合OT(尤其是配合CIMT)对改善脑瘫儿童腕关节被动活动范围,减轻屈腕畸形有效(推荐强度:A级)。

3 骨科手术
3.1 多水平手术(multiple level surgery,MLS)或单次多水平手术(single event multiple level surgery,SEMLS) 

6岁以内痉挛型脑瘫的畸形多为动力性畸形,非手术治疗为首选。随年龄增长,肌肉骨骼逐渐发生病理变化,包括肌腱挛缩、长骨扭转、关节半脱位或脱位,导致粗大运动功能减退,生活质量下降,需骨科手术干预[75](1个Ⅱ级证据)。MLS或SEMLS是对双下肢多关节同时进行≥4种骨科手术,配合术后康复,是目前对有行走能力痉挛型双瘫、四肢瘫的常用治疗方法[76,77](1个Ⅰ级证据,1个Ⅲ级证据)。手术方式包括肌腱延长矫正挛缩、肌腱转位平衡肌力;旋转截骨术治疗长骨扭转畸形以及稳定髋关节和中足。MLS或SEMLS术后随访5~10年结果显示,脑瘫儿童的步态、独立性及自身满意度改善明显,但粗大运动功能的改善不显著[78](1个Ⅰ级证据);10~12岁、GMFCS为Ⅱ级、术前步态轮廓分数(gait profile score,GPS)低的脑瘫儿童,MLS或SEMLS术后改善更明显,长期随访结果更好[79](1个Ⅰ级证据)。

推荐  (1)6岁以内痉挛型脑瘫的畸形多为动力性畸形,首选非手术治疗(推荐强度:B级)。

(2)MLS或SEMLS配合术后康复治疗是痉挛型双瘫和四肢瘫脑瘫儿童的常用治疗方法(推荐强度:A级)。

(3)不同年龄、GMFCS分级、术前GPS分数的脑瘫儿童,MLS或SEMLS术后长期随访效果存在一定差异(推荐强度:A级)。

3.2 髋关节 

脑瘫儿童的髋关节脱位手术最为常见,包括预防性手术、重建术和姑息性手术。

(1)预防性手术:主要是软组织松解术,目的是预防或延缓发生脱位,适应证为6岁以下、MP为30%~60%、髋关节外展<30°的脑瘫儿童[80](1个Ⅱ级证据)。单纯软组织松解术的效果与GMFCS分级、年龄及MP相关。GMFCS分级高、8岁以上、MP>40%的脑瘫儿童手术效果不佳[81,82](2个Ⅱ级证据)。

(2)重建术:包括股骨近端内翻去旋转截骨及骨盆截骨手术。手术年龄存在争论,低于4岁的脑瘫儿童复发风险较高[83,84](2个Ⅱ级证据)。①通常认为MP>40%、6岁以上脑瘫儿童,是股骨近端内翻去旋转截骨的适用指征:如MP≥60%或MP为40%~60%并存髋臼发育不良,建议同时行骨盆手术[85](1个Ⅰ级证据)。② 4岁以下但已出现髋关节脱位的脑瘫儿童,需先考虑是否为脑瘫合并髋关节发育异常,可行骨盆及股骨联合截骨手术,且需要术后长期随访[86](1个Ⅱ级证据)。③单纯股骨近端内翻去旋转手术在痉挛型脑瘫中失败率约为37%,与脑瘫儿童的年龄和GMFCS分级有关[87](1个Ⅱ级证据)。对于GMFCS为Ⅳ~Ⅴ级的脑瘫儿童,股骨合并骨盆截骨重建术长期随访复发率低,术后疼痛改善显著[88,89](2个Ⅱ级证据)。④单侧髋脱位的脑瘫儿童,另一侧后期需手术干预的可能性为44%[90](1个Ⅱ级证据)。单侧髋脱位、对侧稳定的痉挛型双瘫和四肢瘫脑瘫儿童在实施脱位侧重建术时,可考虑同时行稳定侧股骨近端去内翻去旋转手术,合并骨盆倾斜、脊柱侧弯的儿童需注意对稳定侧髋关节的处理[91](1个Ⅱ级证据)。⑤术后并发症主要包括压疮、骨折、股骨头缺血坏死、异位骨化[92,93](2个Ⅱ级证据)。

(3)姑息性手术:使用较少,仅在无法重建髋关节或治疗目标为便于护理、减轻疼痛时采用,包括股骨头切除、髋关节融合、骨盆内移截骨、股骨外翻截骨及关节置换等,术后随访效果较重建术差,单纯股骨头变形无骨性关节炎症状不作为姑息性手术的指征[91](1个Ⅱ级证据)。

推荐 (1)软组织松解术作为预防性手术,需要考虑脑瘫儿童年龄、GMFCS分级及影像学检查结果(推荐强度:A级)。

(2)骨盆联合股骨截骨的髋关节重建术可应用于GMFCS为Ⅳ~Ⅴ级、髋关节半脱位或者全脱位的脑瘫儿童(推荐强度:A级)。

3.3 膝关节
3.3.1 屈膝步态及僵直步态

证据 (1)屈膝步态:屈膝步态是脑瘫儿童最常见的异常步态之一,表现为支持相膝关节过度屈曲,与GMFCS分级、年龄、肌力及运动控制能力有关。腓肠肌-比目鱼肌过度延长、腘绳肌过度活动或短缩、骨骼畸形(股骨内旋、胫骨外旋及足外翻伴中足塌陷)所导致的力臂功能异常,均是导致屈膝步态的常见原因[94,95](2个Ⅱ级证据)。

屈膝步态的手术方法包括腘绳肌延长(开放/微创)及转位、股骨远端伸展截骨髌腱止点下移、股骨远端前方半骨骺阻滞等。腘绳肌延长的适应证未完全明确,屈膝步态的脑瘫儿童需先进行计算机三维步态分析协助手术决策的判定,通过清醒或麻醉状态下的体检来确定治疗方案。手术指征包括从步态分析中测得腘绳肌短缩或在初始触地或摆动相末期(髋关节屈曲)膝关节过度屈曲及骨盆倾斜度减小,但禁止在麻醉下或在内侧腘绳肌延长术后进行腘股角检查,以免坐骨神经受牵拉而损伤[95](1个Ⅱ级证据)。固定屈膝挛缩超过10°为手术的禁忌证。

腘绳肌转位最初是指将所有腘绳肌转位至股骨远端,但可能导致难以处理的膝过伸[96](1个Ⅰ级证据),可通过转移部分内侧腘绳肌(半腱肌,或半腱肌及股薄肌)避免膝过伸。腘绳肌转位的适应证为支持相屈膝步态,麻醉下膝关节固定屈曲畸形<10°。麻醉下并无膝关节固定屈曲畸形的脑瘫儿童术后膝过伸风险较高,是手术禁忌。与腘绳肌延长相比,转位能在解决屈膝畸形的同时,更好地维持伸髋力[97,98](2个Ⅱ级证据)。

严重蹲伏步态的屈膝畸形,单纯腘绳肌延长或转位无法完全矫正>10°的固定屈膝畸形,股骨远端伸展截骨合并髌腱止点下移术式更有效。适应证包括严重蹲伏步态、膝关节屈曲畸形10°~30°、伸膝受限>10°~20°,影像学提示髌骨高位。股骨远端伸展截骨合并髌腱止点下移,能同时解决膝关节屈曲挛缩和维持伸膝力[99,100](2个Ⅱ级证据)。

股骨远端前方半骨骺阻滞治疗屈膝畸形具有微创、术后恢复快、固定时间短及并发症发生率低的优点,适用于骨骼尚未发育成熟的脑瘫儿童,能够逐渐矫正屈膝畸形,但对年龄较大、GMFCS分级高及畸形严重的脑瘫儿童疗效局限,需慎重选择[101](1个Ⅲ级证据)。

(2)僵直步态:僵直步态为摆动相膝关节功能异常,步态分析显示摆动相膝关节活动范围减小,达到最大屈膝时相延迟及最大屈膝减小,常与屈膝步态同时出现。股直肌转位可治疗僵直步态,可与治疗屈膝畸形的手术同时进行或其后出现僵直步态时再进行,可转位至内侧内收肌结节或外侧肌间隔[102](1个Ⅱ级证据)。一项关于脑瘫儿童进行远端股直肌转位手术的德尔菲研究[103](1个Ⅳ级证据),达成以下共识:①脑瘫僵直步态是远端股直肌手术的适应证;②脑瘫僵直步态及由于摆动相足廓清困难导致跌倒是远端股直肌手术的适应证;③适用于脑瘫步态分析摆动相表现为僵直膝关节优于蹲伏且松弛的关节;④远端股直肌手术改善僵直步态适用于GMFCS为Ⅰ级的脑瘫儿童;⑤远端股直肌手术改善僵直步态适用于GMFCS为Ⅱ级的脑瘫儿童;⑥GMFCS为Ⅲ级的脑瘫儿童远端股直肌手术总体效果较GMFCS为Ⅰ~Ⅱ级的效果差;⑦远端股直肌手术适用于摆动相僵直步态和Duncan-Ely试验阳性的脑瘫儿童;⑧动态肌电图显示股直肌在摆动相过度活动是远端股直肌手术的指征;⑨远端股直肌手术适用于同时具有摆动相僵直步态和肌电图显示股直肌过度活动的脑瘫儿童;⑩步速、屈髋力是重要的预测远端股直肌手术效果的因素。

推荐 (1)屈膝步态、可行走,麻醉下固定屈膝畸形<10°的脑瘫儿童可行腘绳肌延长或转位手术(推荐强度:B级)。

(2)屈膝步态、可行走,膝关节屈曲畸形10°~30°,伸膝受限且影像学提示髌骨高位的脑瘫儿童可行股骨远端伸展截骨合并髌腱止点下移手术(推荐强度:B级)。

(3)股骨远端前方半骨骺阻滞可治疗屈膝畸形(推荐强度:C级)。

(4)股直肌转位治疗僵直步态可与纠正屈膝畸形的手术同时或延迟进行(推荐强度:B级)。

3.3.2 内旋步态

证据 内旋步态是痉挛型双瘫脑瘫儿童常见异常步态[104](1个Ⅱ级证据),病理机制包括骨盆、股骨、胫骨和/或足在横断面水平的畸形及异常动力学因素(如肌力不平衡,肌张力增高以及痉挛),脑瘫儿童因足廓清的问题在行走中易跌倒[105](1个Ⅱ级证据)。

股骨去旋转截骨是治疗脑瘫儿童内旋步态及股骨前倾角增大、力臂功能异常的标准术式[106,107,108](1个Ⅰ级证据,1个Ⅱ级证据,1个Ⅲ级证据)。根据矫正目标,去旋转的度数由股骨前倾角、髋关节内旋角度或三维步态分析髋关节旋转参数决定[109](1个Ⅱ级证据)。截骨位置在近端转子间或远端股骨髁上水平[110,111,112](1个Ⅰ级证据,1个Ⅱ级证据,1个Ⅲ级证据)。股骨去旋转截骨的长期随访显示,复发率为0~33%[113,114,115](3个Ⅱ级证据)。

推荐  (1)股骨去旋转截骨术是矫正可行走脑瘫儿童内旋步态的标准术式(推荐强度:A级)。

(2)可通过体格检查和三维步态分析相结合制定手术决策(推荐强度:B级)。

(3)截骨位置在近端转子间或远端股骨髁上水平(推荐强度:A级)。

3.4 踝关节

证据 踝关节跖屈是痉挛型脑瘫最常见的畸形,发生率高达83.3%,随年龄增长而增高,3~8岁的发生率为73%,17岁以上的发生率为92%[116](1个Ⅱ级证据)。在踝关节跖屈的痉挛型双瘫脑瘫中,40%为孤立性腓肠肌挛缩,60%为腓肠肌和比目鱼肌挛缩[117](1个Ⅰ级证据)。如保守治疗无效(A型肉毒毒素注射、石膏矫治),且固定踝关节跖屈>20°需手术干预。腓肠肌-比目鱼肌延长(gastrocsoleus lengthening,GSL)在痉挛型偏瘫脑瘫中是一项独立手术,在痉挛型双瘫脑瘫中多为MLS的一部分[118,119](2个Ⅱ级证据),术式超过12种,但随机对照研究少见,临床证据不足,仅推荐用于可行走的脑瘫儿童[120](1个Ⅱ级证据)。2020年研究者们进行了一项有关可行走脑瘫儿童腓肠肌、比目鱼肌延长术适应证的德尔菲共识研究,17位具有至少9年以上手术治疗脑瘫经验的小儿骨科医师提出了这一手术适应证的专家共识[108](1个Ⅳ级证据):(1)手术年龄为6~10岁;(2)结合清醒和麻醉状态下的体检结果选择手术方式;(3)痉挛型偏瘫或者单肢瘫推荐2区/3区松解;痉挛型双瘫推荐1区松解;(4)步态分析与儿童自我报告结局可作为术前手术方式选择及术后效果评定的工具;(5)任何程度的矫正不足优于过度矫正。

推荐 (1)痉挛型脑瘫如保守治疗无效且固定踝关节跖屈>20°时,需手术干预(推荐强度:B级)。

(2) GSL适用于可行走的脑瘫儿童,且不同类型的痉挛型脑瘫儿童选择的松解手术分区各异(推荐强度:B级)。

(3)清醒和麻醉状态下体检对于手术方式的选择非常重要(推荐强度:D级)。

(4)建议在术前和术后进行步态分析,分别用于术式选择和疗效评定(推荐强度:D级)。

(5)任何情况下均应避免过度矫正(推荐强度:D级)。

3.5 脊柱侧弯矫正

证据 脑瘫儿童脊柱侧弯发生率为20%~25%,GMFCS为Ⅳ~Ⅴ级、无行走能力、功能严重受限脑瘫儿童脊柱侧弯发生率为64%~74%[121](1个Ⅰ级证据)。典型的长"C"或"S"弯累及胸腰段,可导致严重的骨盆倾斜和坐姿困难[122](1个Ⅲ级证据)。严重脊柱侧弯可导致心肺和胃肠道功能受损,肋骨与骨盆相抵引起疼痛[123](1个Ⅱ级证据)。手术常用于纠正畸形进展、改善坐位平衡、缓解疼痛,可提高与健康相关的生活质量(health-related quality of life,HRQOL)[124](1个Ⅱ级证据)。骨骼发育成熟时脊柱侧弯>50°很可能持续进展,成年脑瘫每年进展0.35°~5.20°。痉挛型四肢瘫、胸腰或腰段侧弯及长期卧床是脊柱侧弯进展的危险因素[125](1个Ⅱ级证据)。

脑瘫脊柱侧弯进展采用支具治疗效果及耐受性差,对手术治疗的指征、干预时机及手术方式缺乏共识,生长发育期脊柱侧弯>45°且持续进展(最少10°)并功能受损则建议手术干预;对于无行走功能、GMFCS为Ⅳ~Ⅴ级的脊柱侧弯脑瘫儿童,如持续进展且影响功能,建议采用脊柱融合手术治疗[126](1个Ⅱ级证据)。手术分为一期手术和分阶段手术;入路以后方入路常见,有时需要前后方入路同时矫正。手术并发症发生率为44%~62%[127](1个Ⅱ级证据),围手术期最常见的并发症是肺部感染,导致术后ICU及住院时间延长,危险因素包括术前严重脊柱后凸、分阶段手术、未使用抗纤维蛋白溶解药物,术中失血量是预测围手术期主要并发症的独立因素[128](1个Ⅱ级证据)。脊柱侧弯术后5年随访HRQOL明显改善,获益远大于风险[129](1个Ⅱ级证据)。

推荐 (1)严重脊柱侧弯可导致心肺和胃肠道功能受损,坐位平衡功能障碍,肋骨与骨盆相抵引起疼痛(推荐强度:B级)。

(2)合并持续进展的发育期重度脊柱侧弯的生长发育期脑瘫儿童建议手术干预(推荐强度:B级)。

3.6 上肢手术治疗

证据 脑瘫常见上肢畸形包括前臂旋前、屈曲及腕关节尺偏。拇指屈曲内收导致拇指内收畸形,影响抓握、伸展、夹捏等日常生活活动。上肢手术有助于改善上肢功能和外观。尺侧掌屈肌转位至掌侧桡短伸肌(Green手术)可治疗屈腕及掌侧松解合并拇长伸肌重置[130](1个Ⅱ级证据);旋前圆肌转位至掌侧桡短伸肌或桡长伸肌可改善腕关节屈曲和前臂旋前畸形[131](1个Ⅱ级证据)。上肢手术适应证需考虑儿童年龄、认知程度、上肢肌力、关节被动活动范围和关节主动活动范围等。腕关节融合术适用于年长、固定屈腕畸形的脑瘫儿童,但证据均来自回顾性研究,病例数较少[132](1个Ⅳ级证据)。

推荐 符合肌腱转位适应证的脑瘫儿童可考虑手术治疗(推荐强度:B级)。

4 选择性脊神经后根切断术(selective dorsal rhizotomy,SDR)

证据 SDR是侵入性且为不可逆性手术,通过切断一定比例的腰段背侧脊神经根降低脑瘫下肢肌张力,最早提出的适应证包括4~10岁、单纯痉挛、下肢主要受累且有一定行走能力、智力基本正常且尚未接受过骨科手术干预的脑瘫儿童,现已增加步态分析参数以及动态肌电图评定。严重挛缩、肌力差或伴手足徐动和共济失调为禁忌证[133](1个Ⅲ级证据)。

SDR术后强调密集和持续康复训练以获得理想的效果[134](1个Ⅱ级证据)。SDR手术适应证评定不仅由小儿神经外科医师参与,还应由包括康复科、小儿骨科、步态分析以及护理人员组成的多学科团队合作参与。合并肌肉挛缩及骨关节畸形的脑瘫儿童,更需团队协作共同解决问题以获得最好效果。多数术者通过术中电刺激和神经电生理监测来判断神经根切除比例[135](1个Ⅰ级证据),也可通过术前监测和临床观察来确定神经根切除比例[136](1个Ⅱ级证据)。

GMFCS为Ⅱ~Ⅲ级脑瘫儿童SDR术后2年功能和生活质量明显改善[137](1个Ⅱ级证据),术后10年随访仍然能够维持降低的肌张力,改善运动功能[138](1个Ⅱ级证据)。一项10~17年的长期随访研究发现,未进行SDR手术的痉挛型双瘫脑瘫儿童会接受更多其他干预,这可能与接受SDR手术组儿童术后下肢肌张力降低,继发性骨骼肌肉系统畸形减少有关。两组患者术后10年步态均有改善。未进行SDR手术组病理性步态改善更多,但是经历的干预治疗也更多。而在疼痛评定、生活质量、功能以及运动等其他方面无明显差异[139](1个Ⅱ级证据)。SDR术后脑瘫儿童的上肢技巧质量测试(quality of upper extremity skills test,QUEST)评定显示,在早期QUEST得分有所改善,超过9年的长期随访发现SDR术后效果可继续维持[140](1个Ⅱ级证据)。

推荐 (1)SDR能够降低痉挛型脑瘫儿童下肢肌张力,改善运动,改善生活质量(推荐强度:B级)。

(2)SDR术后强调密集和持续康复训练以获得理想的效果(推荐强度:B级)。

(3)SDR强调多学科团队合作(推荐强度:A级)。

(4)SDR能够减少脑瘫儿童接受包括骨科手术在内的其他干预的介入(推荐强度:B级)。

5 ITB

证据 ITB能显著降低痉挛相关症状[141](1个Ⅱ级证据)。ITB泵置入前需进行试验性注射,观察脑瘫儿童对药物的反应、效果及不良反应,如有效再进行泵植入。ITB可逆且可根据脑瘫儿童的反应进行剂量调整,不仅适用于GMFCS为Ⅰ~Ⅴ级的脑瘫儿童,也适用于成年脑瘫。术后均有明显改善,尤其是严重的痉挛(改良Arthworth分级>3级)[142,143](1个Ⅰ级证据,1个Ⅱ级证据)。ITB虽然主要作用于下肢,但也能降低上肢肌张力[144](1个Ⅱ级证据)。ITB手术安全性良好,但也有并发症报道,包括呼吸衰竭、难以控制的癫痫、神智失常,血压不稳甚至死亡,为泵功能异常或导管问题相关并发症。为防止戒断症状,巴氯芬需逐渐减量并告知可能出现的症状及应急药物使用方法,快速识别戒断症状和恢复ITB非常重要[145,146](2个Ⅳ级证据)。巴氯芬过量也会引发类似症状,需要及时鉴别,包括低血压、低张力、嗜睡、谵妄和呼吸抑制等[147](1个Ⅰ级证据)。

推荐 ITB能够降低肌张力,为可逆性治疗,适用于GMFCS为Ⅰ~Ⅴ级的脑瘫儿童(推荐强度:B级)。

(杜青 冯林 执笔)

第八节 其他治疗
1 强化生物反馈训练(augmented feedback training)

证据 强化生物反馈训练能改善痉挛型脑瘫儿童的视觉运动整合能力和抓握能力,联合常规物理治疗可改善痉挛型脑瘫儿童的手眼协调能力、视觉运动整合能力和抓握能力[148](1个Ⅱ级证据)。

推荐 强化生物反馈训练可改善痉挛型脑瘫儿童的视觉运动整合能力、抓握能力及手眼协调能力(推荐强度:B级)。

2 文娱体育
2.1 舞蹈疗法(dance/dance practice/dance intervention)

证据 舞蹈疗法可促进脑瘫儿童的运动功能[149,150](2个Ⅲ级证据),同时提高平衡能力、促进姿势稳定性和定向控制能力[151,152,153](1个Ⅱ级证据,2个Ⅲ级证据);可促进其前庭功能的恢复,进一步改善步态[149,151](1个Ⅱ级证据,1个Ⅲ级证据),增加下肢关节活动范围[154](1个Ⅱ级证据)以及转移能力[153](1个Ⅲ级证据);可提高脑瘫儿童动作的反应时间和精准性[155](1个Ⅳ级证据),同时促进节奏感的产生[152](1个Ⅲ级证据);也可提高心肺功能[151,156](1个Ⅱ级证据,1个Ⅲ级证据),改善生活质量[157](1个Ⅲ级证据)。

推荐 (1)舞蹈疗法可提高脑瘫儿童的平衡能力,改善步态,增加下肢关节活动范围,提高心肺功能(推荐强度:B级)。

(2)舞蹈疗法对改善脑瘫儿童的运动功能及生活质量具有一定效果(推荐强度:C级)。

2.2 跑步疗法(running training)

证据 跑步疗法可以有效地改善脑瘫儿童的步行能力,同时有助于脑瘫儿童足部发力,从而提高跑步速度[158](1个Ⅱ级证据)。

推荐 跑步疗法可提高脑瘫儿童的步行能力和跑步能力(推荐强度:B级)。

2.3 自行车疗法(cycling intervention)

证据 自行车疗法可以改善脑瘫儿童粗大运动功能、平衡能力和肌力[159](1个Ⅱ级证据)。

推荐 自行车疗法可以改善脑瘫儿童运动功能、平衡功能和肌力(推荐强度:B级)。

2.4 瑜伽疗法(yoga program)

证据 瑜伽疗法可以提高脑瘫儿童的注意力[160](1个Ⅱ级证据),同时对改善脑瘫儿童及家长的心理情绪有一定的帮助[161](1个Ⅳ级证据)。

推荐 (1)瑜伽疗法可以提高脑瘫儿童的注意力(推荐强度:B级)。

(2)瑜伽疗法可在一定程度上改善脑瘫儿童和家长的情绪(推荐强度:D级)。

3 心理治疗

证据 沙盘疗法(sandbox games)可以有效缓解脑瘫儿童的情绪和行为问题,提高治疗的依从性[162](1个Ⅱ级证据);沙盘游戏联合引导式教育可以提升脑瘫儿童运动能力,提高其自主动手能力,改善生活质量,促进心理健康[163](1个Ⅱ级证据)。

推荐 (1)沙盘疗法可以改善脑瘫儿童的心理行为问题,提高治疗的依从性(推荐强度:B级)。

(2)沙盘疗法联合引导式教育可以改善脑瘫儿童的运动能力,提高自主动手能力(推荐强度:B级)。

4 游戏疗法(game training/games)

证据 游戏疗法可以改善痉挛型脑瘫儿童的痉挛程度,提高脑瘫儿童的运动功能[164,165,166](2个Ⅱ级证据,1个Ⅲ级证据),同时可以改善平衡功能[164,165,167,168,169,170](2个Ⅰ级证据,4个Ⅱ级证据)和姿势控制能力[169](1个Ⅰ级证据);游戏疗法也可以增加脑瘫儿童的握力[171,172,173](2个Ⅱ级证据,1个Ⅲ级证据),增加关节活动范围[172](1个Ⅲ级证据),改善手部的灵活性[168](1个Ⅱ级证据);此外,游戏疗法还可以改善脑瘫儿童参与治疗的依从性[174](1个Ⅰ级证据)。

推荐 (1)游戏疗法可以改善痉挛型脑瘫儿童的痉挛程度、运动功能、握力以及手部的灵活性(推荐强度:B级)。

(2)游戏疗法可以改善脑瘫儿童的平衡功能及姿势控制能力,提高参与治疗的依从性(推荐强度:A级)。

(3)游戏疗法可以增加脑瘫儿童的关节活动范围(推荐强度:C级)。

5 音乐疗法(music therapy)

证据 音乐疗法可以改善脑瘫儿童的运动功能[175,176](2个Ⅱ级证据),提高粗大和精细运动功能[177,178](1个Ⅱ级证据,1个Ⅲ级证据)。音乐疗法还可以降低痉挛型脑瘫儿童的肌张力[177](1个Ⅱ级证据),提高肌力[175,178](1个Ⅱ级证据,1个Ⅲ级证据)及平衡能力[175](1个Ⅰ级证据),改善位置觉[179](1个Ⅲ级证据)及步态[175,180](1个Ⅱ级证据,1个Ⅲ级证据)。

推荐 (1)音乐疗法可以改善脑瘫儿童的运动功能、步态及平衡功能(推荐强度:B级)。

(2)音乐疗法可以提高脑瘫儿童的肌力,降低痉挛型脑瘫儿童的肌张力(推荐强度:B级)。

(3)音乐疗法可以改善脑瘫儿童的位置觉(推荐强度:C级)。

6 动物辅助疗法(animal-assisted therapy)

证据 动物辅助疗法可以改善脑瘫儿童的粗大运动功能,减轻疼痛,同时可以提高自我认知,改善生活质量[181](1个Ⅲ级证据)。如马术治疗(hippotherapy)可以降低痉挛型脑瘫儿童的髋内收肌群痉挛程度[182](1个Ⅱ级证据)、提高脑瘫儿童的运动功能[183,184,185,186,187,188](1个Ⅰ级证据,1个Ⅱ级证据,4个Ⅲ级证据)、改善其平衡功能[183,186,189](1个Ⅰ级证据,2个Ⅲ级证据)、提高姿势控制能力[190](1个Ⅱ级证据)和步行能力[186,191](1个Ⅱ级证据,1个Ⅲ级证据),也可提高脑瘫儿童在治疗中的参与度[192](1个Ⅱ级证据)和改善生活质量[183,191,192](3个Ⅱ级证据)。仿真马术疗法可以改善痉挛型脑瘫儿童的髋内收肌痉挛程度,增加其髋关节外展活动范围[193](1个Ⅱ级证据),提高脑瘫儿童的粗大运动功能[194](1个Ⅱ级证据)。

推荐 (1)动物辅助疗法可以改善脑瘫儿童的运动功能(推荐强度:C级)。

(2)马术疗法可以降低痉挛型脑瘫儿童相关肌群的痉挛程度(推荐强度:B级)。

(3)马术疗法可以改善脑瘫儿童的运动功能,提高平衡能力,改善生活质量(推荐强度:A级)。

(4)马术疗法可以提高脑瘫儿童的姿势控制能力、步行能力和治疗中的参与度(推荐强度:B级)。

7 全身振动训练(whole body vibration training)

证据 全身振动训练可以有效改善痉挛型脑瘫儿童的痉挛程度,提高运动能力[195,196,197,198,199](1个Ⅰ级证据,4个Ⅱ级证据),改善脑瘫儿童的平衡功能[195,196,200](1个Ⅰ级证据,2个Ⅱ级证据)及步态[195,196,197,199,201,202,203](1个Ⅰ级证据,5个Ⅱ级证据,1个Ⅲ级证据)。全身振动训练能提高脑瘫儿童的肌力[196,197,199](1个Ⅰ级证据,2个Ⅱ级证据),增加骨密度[196,197](1个Ⅰ级等级,1个Ⅱ级证据)和主动关节活动范围[197,201,204,205](2个Ⅱ级证据,2个Ⅲ级证据)。

推荐 (1)全身振动训练可以改善痉挛型脑瘫儿童的痉挛程度,提高运动功能(推荐强度:A级)。

(2)全身振动训练可以改善脑瘫儿童步态和平衡功能,提高肌力,增加骨密度及关节活动范围(推荐强度:A级)。

8 父母的干预

证据 父母与脑瘫高危儿的亲子互动,如喂养环节、面对面互动、结构化游戏、以玩具为中心或不以玩具为中心的活动等干预方式,可以改善脑瘫高危儿与父母的互动模式,促进脑瘫高危儿发展出与健康婴儿相似的正常行为模式[206](1个Ⅰ级证据)。在医务人员指导下的家庭康复模式可作为医院康复的有效补充模式,改善脑瘫儿童的运动功能障碍,提高粗大运动功能[207](1个Ⅲ级证据)。

推荐 (1)父母与脑瘫高危儿间的亲子互动可改善两者之间的互动模式,促进脑瘫高危儿的行为发展(推荐强度:A级)。

(2)家庭康复模式中的父母干预可改善脑瘫儿童的运动功能(推荐强度:C级)。

(陈楠 吴卫红 执笔)

第九节 辅助器具及技术
1 辅助器具
1.1 进食辅助器具

证据 日常生活辅助器具的使用有利于代偿缺失的功能,最大程度地恢复脑瘫儿童的生活自理能力,培养自立自强的性格,缩小与健康儿童的差异,促进未来更好地融入社会[208](1个Ⅲ级证据)。进食辅助器具的使用有助于抑制不自主运动,保持器具的稳定性[209,210](1个Ⅱ级证据,1个Ⅲ级证据)。建议根据实际情况和家庭条件选择勺子、杯子、吸管或其他改造后的喂食辅助器具,如饮水容易呛咳可选择使用缺口杯、有流量控制设计的杯子或奶瓶等。进食辅助器具的选择应充分考虑其安全性及方便适用性等[211,212](1个Ⅱ级证据,1个Ⅲ级证据)。

推荐 (1)包括进食辅助器具在内的日常生活辅助器具,有利于改善脑瘫儿童的生活自理能力(推荐强度:C级)。

(2)应根据实际情况和家庭条件选择合适的进食辅助器具,或改造后的进食辅助器具(推荐强度:B级)。

(3)进食辅助器具的选择应充分考虑其安全性及方便适用性(推荐强度:B级)。

1.2  交流辅助器具

证据 沟通是脑瘫儿童与周围世界互动、接受教育与融入社会不可缺少的手段[213](1个Ⅲ级证据)。辅助与替代沟通系统(augmentative and alternative communication,AAC)是指提高、代偿语言功能的辅助器具,常见的有交流板、触摸式电脑、语言交流辅助器等,该类系统不仅能作为言语的替代,也可增强个人的语言能力和促进语言的发展。AAC的应用可以改善脑瘫儿童沟通能力,并且同样适用于有口语及无口语的脑瘫儿童。通过明确的指导和系统的语言干预,使用AAC的脑瘫儿童可以获得丰富的交流机会,提高理解与表达能力,并学会语法正确的话语,促进沟通能力的发展,而且对单字阅读能力有积极的促进作用,帮助脑瘫儿童更有效地使用语言,提高社会参与能力[214,215,216](2个Ⅱ级证据,1个Ⅲ级证据)。

推荐 使用AAC可使脑瘫儿童获得丰富的交流机会,提高理解与表达能力,提高沟通能力及社会参与能力(推荐强度:A级)。

1.3 姿势控制辅助器具

证据 良好的坐姿能够抑制脑瘫儿童异常的肌张力和原始反射,实现头部控制,同时对发展脑瘫儿童的社交、认知和沟通技能至关重要。坐位姿势辅助器具可矫正脑瘫儿童的异常姿势,实现躯干及头部的姿势控制,在保证躯干稳定性的前提下发展上肢功能。此外,还可改善脑瘫儿童的吞咽及进食功能,提高脑瘫儿童的卧位与坐位能力[217](1个Ⅱ级证据)。对于GMFCS为Ⅳ~Ⅴ级的脑瘫儿童,专家共识支持将站立架作为其姿势管理的一部分[218](1个Ⅳ级证据)。站立架是立位姿势辅助器具中的一种,可改善脑瘫儿童的骨密度、髋关节稳定性,增强参与度,提高ADL能力[219,220,221](1个Ⅰ级证据,2个Ⅲ级证据)。

推荐 (1)坐位姿势辅助器具可矫正脑瘫儿童的异常姿势,实现躯干及头部的姿势控制,发展上肢功能,并有助于改善吞咽及进食功能、卧位与坐位功能(推荐强度:B级)。

(2)立位姿势辅助器具可改善脑瘫儿童的骨密度和髋关节稳定性,增强参与度,提高ADL能力(推荐强度:A级)。

(3)GMFCS为Ⅳ~Ⅴ级的脑瘫儿童,专家共识支持将站立架作为其姿势管理的一部分(推荐强度:D级)。

1.4 转移辅助器具
1.4.1 轮椅

证据 儿童轮椅是一类为行走或转移困难儿童提供座椅支持和轮式机动的辅助器具,能够弥补脑瘫儿童的身体功能缺陷,提高独立移动及生活自理能力,促进其认知和社会心理功能的发展,可改善脑瘫儿童运动功能,提高活动和参与能力[222,223](2个Ⅱ级证据)。目前儿童轮椅已从单一手动轮椅,发展到适合体位支持且可远距离出行的电动轮椅及智能化多功能轮椅。电动轮椅能够增强脑瘫儿童的移动性、独立性及参与性[224](1个Ⅲ级证据)。由于脑瘫儿童运动障碍程度及个体情况不同,应根据脑瘫儿童功能障碍状况为其独立设计适宜的轮椅[225,226](2个Ⅲ级证据)。

推荐 (1)配备儿童轮椅可促进脑瘫儿童认知和社会心理功能发育,改善活动和参与能力(推荐强度:A级)。

(2)应根据脑瘫儿童功能障碍状况为其独立设计适宜的轮椅(推荐强度:C级)。

1.4.2 移动用辅助器具

证据 移动用辅助器具包括爬行器(儿童爬行促通训练机器人)、助行器(腰骶髋矫形助行器、助行车)等,其中助行器分为有轮和无轮。移动用辅助器具能够增强脑瘫儿童粗大运动功能,提高步行能力和自理能力,促进整体功能的恢复,具有重要的里程碑意义。10月龄~2岁、未建立四爬能力且GMFCS为Ⅱ级的痉挛型双瘫脑瘫儿童,可佩戴爬行促通训练机器人,利用神经系统可塑性原理和运动学习理论进行训练,提高脑瘫儿童活动参与度,诱导正常运动发育和促进正常姿势的形成,改善下肢分离运动、认知功能和粗大运动功能[227](1个Ⅱ级证据)。

简便易穿卸的家庭式脑瘫儿童腰骶髋矫形助行器,适用于不同年龄段、身高不同及核心稳定能力不同的脑瘫儿童,可辅助控制躯干和骨盆,改善重心不稳和骨盆异常姿势,增加核心区域感知觉输入,增强其核心稳定性[228](1个Ⅲ级证据)。

基于人机工程原理并考虑骨骼结构、生理弯曲和四肢长度等生理因素设计研发,适用于3~7岁对外界环境敏感的脑瘫儿童的助行车,可辅助脑瘫儿童行走及促进运动功能,帮助脑瘫儿童积极融入群体社交生活环境,获得亲切的人文关怀[229](1个Ⅱ级证据)。

推荐 (1)适配儿童爬行促通训练机器人可改善脑瘫儿童爬行功能和认知能力,提高整体运动功能水平和活动参与度(推荐强度:B级)。

(2)适配腰骶髋矫形助行器可增加感知觉输入,增强核心稳定性,提高整体运动功能(推荐强度:C级)。

(3)适配助行车可辅助脑瘫儿童行走,提高运动功能,有助于融入群体社交生活环境,增加活动参与度(推荐强度:B级)。

2 矫形器
2.1 足矫形器

证据 足矫形器包括矫形鞋和功能式矫形器。运用生物力学和骨骼几何学原理制作的矫形鞋可矫正脑瘫儿童先天性马蹄内翻足和扁平足等畸形,恢复踝关节活动范围,提高平衡能力和运动功能,改善步态时空生物力学参数[230,231](1个Ⅱ级证据,1个Ⅲ级证据)。高帮矫形鞋具有穿戴方便、经济实用的特点,对痉挛型双瘫、GMFCS为Ⅰ级、可独立行走,但在速度、平衡和协调方面存在问题的脑瘫儿童具有良好疗效,高帮鞋还能降低压力中心前后方向的不稳定性,改善踝关节控制能力和立位平衡[232,233](1个Ⅱ级证据,1个Ⅲ级证据)。

功能式足矫形器利用生物力学特点可改善脑瘫儿童时空步态参数和异常步态及矫正足畸形,帮助恢复正常生物力线、增加承重以及增强步行稳定性,优化立位平衡和踝关节活动范围,促进正常步态的建立和形成正确的步态意识,从而提高参与日常活动的能力和生活质量[230,234](1个Ⅱ级证据,1个Ⅲ级证据)。

推荐 (1)佩戴足矫形器可改善脑瘫儿童立位平衡和踝关节活动范围,诱导正常姿势的形成(推荐强度:B级)。

(2)适穿矫形鞋可抑制脑瘫儿童足部异常姿势和矫正畸形,改善时空步态参数,提高平衡稳定性和步行效率(推荐强度:B级)。

(3)佩戴功能式足矫形器可以提高脑瘫儿童步行稳定性,改善其动态平衡能力和促进正常步态的建立(推荐强度:B级)。

2.2 踝足矫形器(ankle-foot orthosis,AFO)

证据 基于国际功能、残疾和健康分类(ICF)理念,指导、设计和适配不同作用的AFO对脑瘫儿童运动功能障碍存在不同的疗效,主要包括固态踝足矫形器(solid ankle-foot orthoses,SAFO)、可调式踝足矫形器(adjustable ankle-foot orthosis,AAFO)、铰链式踝足矫形器(hinged ankle-foot orthosis,HAFO)、地面反射型踝足矫形器(ground reaction ankle foot orthosis,GRAFO)、感觉运动型踝足矫形器(sensomotoric orthoses,SMotOs)和腹壳踝足矫形器(ventral shell ankle-foot orthoses,vAFOs)等。应根据脑瘫儿童的足部形状和障碍表现以及基于可穿戴步态分析仪器的评定方案,选择适配不同的AFO[235](1个Ⅲ级证据)。AFO联合胸腰骶椎矫形器(thoracolumbar sacral spinal orthosis,TLSO)可帮助脑瘫儿童获得更好的脊柱、髋关节、膝关节、踝关节的稳定性,改善痉挛步态。在适配时不仅要考虑运动时空步态参数,还要满足脑瘫儿童的意愿[236](1个Ⅱ级证据)。

定期佩戴AFO可明显改善脑瘫儿童的痉挛和活动受限程度,还能够增强姿势控制和稳定性,发挥其代偿功能并抑制异常步态和姿势,提升步态指标,降低能量消耗,改善步态和站立平衡,促进粗大运动功能发展和活动参与,提高ADL能力与生存质量[237,238,239](3个Ⅰ级证据)。痉挛型脑瘫儿童佩戴AFO可重塑生物学力线和预防跟腱挛缩,缓解肌肉痉挛和改善关节活动范围,显著改善脑瘫儿童的粗大运动功能、姿势控制以及纠正异常步态,提高其步幅和步态效率[240,241](1个Ⅰ级证据,1个Ⅲ级证据)。

佩戴SAFO可优化痉挛型双瘫脑瘫儿童异常步态模式,提高立位时肌力募集并且减少耗能,改善行走、跑步和跳跃能力[242](1个Ⅲ级证据)。佩戴AAFO可改善脑瘫儿童踝足关节的痉挛程度,降低肌张力,矫正畸形和预防关节异常姿势,可改善踝足关节功能。佩戴AAFO运动时步态更加稳定,可提高脑瘫儿童的生活自理能力和康复效果,提高生活质量[243](1个Ⅱ级证据)。4~14岁、GMFCS为Ⅲ级的痉挛型双瘫脑瘫儿童穿戴HAFO可激活肢体远端肌肉和恢复踝关节平衡技能,允许踝关节小范围运动以改善动态平衡和立位稳定性,增加步幅和步速,提升脑瘫儿童的走、跑和跳的运动技能。HAFO在提高脑瘫儿童立位平衡的效果优于佩戴SAFO[244,245,246](3个Ⅲ级证据)。

GRAFO可通过改变矢状面的地面反作用力来限制脑瘫儿童步行过程中踝关节背屈并增加膝关节伸展。5~17岁、GMFCS为Ⅱ~Ⅲ级的痉挛型双瘫脑瘫儿童佩戴GRAFO可提高立位稳定性和增加躯干伸展趋势,改善坐站转移能力及运动效率,有效减少异常姿势,改善坐站转移效果优于HAFO[247,248,249](1个Ⅱ级证据,2个Ⅲ级证据)。佩戴SMotOs可普遍改善脑瘫儿童的粗大运动功能和异常步态,提高生活质量[250](1个Ⅲ级证据)。6~14岁、GMFCS为Ⅰ~Ⅲ级、可独走的痉挛型脑瘫儿童佩戴vAFOs可降低行走能耗,改善下肢生物力学、步态稳定性及躯干伸展和旋转活动度[251](1个Ⅲ级证据)。

推荐 (1)定期佩戴AFO可增强脑瘫儿童姿势控制和稳定性,改善步态和站立平衡,促进粗大运动功能发展和活动参与,提高ADL能力与生存质量(推荐强度:A级)。

(2)SAFO可优化异常步态模式,提高立位时肌力募集和降低能量消耗,改善行走、跑步和跳跃能力(推荐强度:C级)。

(3)AAFO可提高脑瘫儿童移动的稳定性,降低肌张力,矫正畸形,改善踝足关节活动功能,增加步幅和步速(推荐强度:B级)。

(4)HAFO可改善脑瘫儿童立位平衡,提高步行效率,增强稳定性(推荐强度:B级)。

(5)GRAFO可限制脑瘫儿童步行过程中踝关节背屈并增加膝关节伸展性,可增强立位稳定性,改善坐站转移能力(推荐强度:B级)。

(6)SMotOs可提高脑瘫儿童粗大运动功能,纠正异常步态,提升步行效率(推荐强度:C级)。

(7)vAFOs可降低脑瘫儿童的行走能耗,改善下肢生物力学、步态稳定性及躯干伸展和旋转活动范围(推荐强度:C级)。

2.3 膝踝足矫形器(knee-ankle-foot orthosis,KAFO)

证据 KAFO包括动力外骨骼KAFO、可调式"A"字架矫形器、夜间KAFO等。GMFCS为Ⅳ级、改良Ashworth评分3级以上的脑瘫儿童可佩戴夜间KAFO,能够系统地管理、控制夜间的异常姿势,预防及矫正足内、外翻畸形和异常步态。当脑瘫儿童佩戴足够时间的KAFO后,持续被动牵拉可以降低肌张力、改善关节活动范围、抑制髋关节内收,达到保持正确的力线体位、增加下肢关节稳定性、促进正常运动发育的目标[252,253,254](1个Ⅱ级证据,2个Ⅲ级)。

动力外骨骼KAFO是下肢辅助模块化外骨骼矫形器,具有便携、轻便、舒适和安全等优点,可辅助和稳定膝关节,并且调动神经可塑性来有效防止异常步态模式;通过分析脑瘫儿童适配后步幅、步长等步态参数,发现其可增加摆动阶段关节屈曲的角度,减少异常步行姿势,改善步行模式[255,256](2个Ⅲ级证据)。

5~8岁双下肢痉挛的脑瘫儿童应用可调式"A"字架矫形器,通过调节中间的横杆来调整脑瘫儿童的内收角,可调至最大髋外展角度以对下肢痉挛肌群的持续被动牵拉,降低痉挛肌群张力,增加髋关节外展角度,达到步行时更好的生物力线,使相互拮抗的屈、伸肌群协调平衡,从而达到改善或矫正尖足和双下肢内收肌痉挛程度的目的[257](1个Ⅱ级证据)。

推荐 (1)夜间KAFO可改善Ashworth评分3级以上脑瘫儿童的肌张力和关节活动范围,增强夜间姿势控制和管理,提高粗大运动功能(推荐强度:B级)。

(2)动力外骨骼KAFO可改善脑瘫儿童异常步态,增加关节稳定性,改善步态模式(推荐强度:B级)。

(3)可调式"A"字架矫形器可降低脑瘫儿童肌张力,增加髋关节外展角度,增强姿势控制和步态稳定性,改善步行时的生物力线(推荐强度:B级)。

2.4 髋内收外展控制矫形器

证据 使用髋内收外展控制矫形器可以有效治疗脑瘫儿童因髋关节过度内收而形成的不良姿势,有利于脑瘫儿童步行时髋关节形成正确的运动力线和稳定性[258,259](1个Ⅱ级证据,1个Ⅲ级证据),可以预防和治疗继发性髋关节半脱位[258,260](1个Ⅱ级证据,1个Ⅲ级证据),还能有效改善脑瘫儿童的坐位平衡和站立活动质量[259,254](1个Ⅱ级证据,1个Ⅲ级证据)。

推荐 (1)髋内收外展控制矫形器可以改善脑瘫儿童因髋关节过度内收而形成的不良姿势(推荐强度:B级)。

(2)髋内收外展控制矫形器可以预防和治疗继发性髋关节半脱位,有效改善脑瘫儿童的坐位平衡和立位活动的质量(推荐强度:B级)。

2.5 国际生物力学学院(international college of biomechanics,ICB)矫形鞋垫

证据 ICB矫形鞋垫是根据脑瘫儿童足踝部生物力学特点而定制,帮助脑瘫儿童实现相对正常的足负重状态,纠正异常的生物力线[261,262,263](3个Ⅱ级证据)。ICB矫形鞋垫能缓解脑瘫儿童的内侧纵弓塌陷,调整足部异常受力情况,从而改善足外翻[261,263](2个Ⅱ级证据)。ICB矫形鞋垫可对脑瘫儿童的足底施加一定的本体感觉和深感觉刺激,从而使足、膝关节超负荷的状态得到缓解,对非对称的骨盆和腰部进行重新定位[263](1个Ⅱ级证据),可使髋、膝、踝关节处于正常的功能位,有利于脑瘫儿童的重心转移[262](1个Ⅱ级证据)。ICB矫形鞋垫还能够提高脑瘫儿童的站立平衡和动态平衡能力[262,264,265](3个Ⅱ级证据),也对粗大运动功能有一定的改善,尤其是GMFM中的站立区和走跑跳区改善明显[262,264](2个Ⅱ级证据)。ICB矫形鞋垫对于脑瘫儿童步行的步速、步宽、步长等步行参数有一定的改善,能提高其步行能力[261,262,266,267](4个Ⅱ级证据)及ADL能力[261,265](2个Ⅱ级证据)。

推荐 (1)ICB矫形鞋垫可以帮助脑瘫儿童实现相对正常的足负重状态,纠正异常的生物力线(推荐强度:A级)。

(2)ICB矫形鞋垫可改善脑瘫儿童站立及动态平衡能力,改善粗大运动功能(推荐强度:A级)。

(3)ICB矫形鞋垫可改善脑瘫儿童步速、步宽、步长等,提高其步行能力及ADL能力(推荐强度:A级)。

(4)ICB矫形鞋垫通过对脑瘫儿童足底施加的本体感觉和深感觉刺激,可改善足、膝关节负荷及骨盆和腰部的非对称状态,有利于重心转移(推荐强度:B级)。

3  辅助器具与特定任务相结合
3.1 悬吊训练(sling exercise therapy,SET)

证据 SET是一种在不平稳状态下进行的,以神经肌肉激活为核心的治疗技术,其主要通过闭链方式的运动刺激,使神经与附着在躯干及骨盆的深部肌群之间建立正确的反馈机制,从而增强躯体的核心力量和稳定性,提高机体的功能水平及运动能力。SET能有效地提高痉挛型脑瘫儿童运动的稳定性及协调能力,改善姿势控制及平衡能力,降低肌张力,提高ADL能力和粗大运动功能[268,269,270,271,272,273](6个Ⅱ级证据),如上肢功能、站立与行走等功能[274,275,276](3个Ⅱ级证据)。SET联合常规康复训练对不随意运动型脑瘫儿童具有良好的临床疗效,能有效提高其平衡功能、步行能力及粗大运动功能[277,278](2个Ⅱ级证据)。

推荐 (1)SET能有效改善痉挛型脑瘫儿童运动的稳定性及协调能力、姿势控制及平衡能力、肌张力、ADL能力和粗大运动功能(推荐强度:B级)。

(2)SET联合常规康复训练对不随意运动型脑瘫具有良好的临床疗效,能有效提高其平衡功能、步行能力及粗大运动功能(推荐强度:B级)。

3.2 全方位密集运动训练(intensive therapy program,ITP)

证据 ITP是一种新型的治疗模式配以特定的设备,包含前庭觉、本体觉等感知觉的输入,引导姿势控制和正确运动模式,并要求达到密集运动量。该训练方法可根据脑瘫儿童的功能障碍特点,选择其特定的设备结合各种运动游戏制定方案,并能在短时间内显效。应用ITP有利于提升痉挛型脑瘫儿童粗大运动功能[279,280,281,282,283](3个Ⅱ级证据,2个Ⅲ级证据)、功能性行走能力[280](1个Ⅱ级证据),可在短期内提高脑瘫儿童的核心稳定性[283](1个Ⅱ级证据)。

推荐  (1)ITP可根据脑瘫儿童的功能障碍特点,选择其特定的设备并结合各种运动游戏制定训练方案(推荐强度:B级)。

(2)ITP有利于提升痉挛型脑瘫儿童粗大运动功能、功能性行走能力,提高核心稳定性(推荐强度:B级)。

3.3 肌内效贴(kinesio taping,KT)

证据 KT运用于脑瘫儿童治疗的主要原理可能是通过增加触觉和局部本体感觉输入,改善感觉反馈机制,使机体重新建立正确的肌肉运动控制模式。KT作为物理治疗干预的辅助治疗手段,能增加上、下肢及躯干部分的肌力,限制不稳定的运动,纠正躯干和关节的异常生物力学关系,促进更高效运动模式的出现[284](1个Ⅱ级证据)。KT联合其他常规物理疗法可对脑瘫儿童的坐位姿势产生积极影响,还能明显提高姿势控制能力[285,286,287](3个Ⅱ级证据)、坐位平衡能力[288](1个Ⅱ级证据)和粗大运动功能,尤其对GMFCS为Ⅰ~Ⅱ级脑瘫儿童的坐位姿势控制有明显改善[288,289](2个Ⅱ级证据)。此外,KT有益于增强脑瘫儿童的运动功能[290,291](1个Ⅱ级证据),有效改善肌张力[291](1个Ⅲ级证据)及上肢的精细运动功能[292](1个Ⅱ级证据),快速改善口腔运动技能和流涎[293](1个Ⅱ级证据)。

推荐 (1)KT能增加脑瘫儿童上、下肢及躯干部分的肌力,限制不稳定运动,纠正躯干和关节的异常生物力学关系,改善运动模式(推荐强度:B级)。

(2)KT联合其他常规物理疗法,可明显提高脑瘫儿童的姿势控制能力、坐位平衡能力、粗大运动功能,对GMFCS为Ⅰ~Ⅱ级脑瘫儿童的坐位姿控制改善更为显著(推荐强度:B级)。

(3)KT有益于增强脑瘫儿童的运动功能,有效改善肌张力、上肢精细运动功能、口腔运动技能和流涎(推荐强度:B级)。

3.4 康复机器人(rehabilitation robot)

证据 康复机器人作为一种新型的辅助技术,是康复医学的研究热点和发展方向,遵循运动学及动力学原理辅助脑瘫儿童进行康复训练。康复机器人训练可改善关节周围肌肉挛缩和软组织的顺应性[294](1个Ⅱ级证据),有效缓解脑瘫儿童的肌肉痉挛[295](1个Ⅱ级证据),纠正异常姿势与步态[296,297,298](3个Ⅱ级证据),改善运动及平衡协调能力[298,299](2个Ⅱ级证据),提高粗大运动功能[296,227](2个Ⅱ级证据)。远程康复机器人结合动作观察疗法等其他康复技术,可以提高认知功能及ADL能力等多项功能,从而帮助脑瘫儿童达到全面康复的效果[227,300,301](3个Ⅱ级证据)。

推荐 (1)康复机器人训练可改善脑瘫儿童关节周围肌肉挛缩和软组织顺应性,有效缓解肌肉痉挛(推荐强度:B级)。

(2)康复机器人训练可纠正脑瘫儿童的异常姿势与步态,改善运动及平衡协调能力,提高粗大运动功能(推荐强度:B级)。

(3)远程康复机器人结合动作观察疗法等其他康复技术,可以提高脑瘫儿童的认知功能及ADL能力等多项功能,从而帮助脑瘫儿童达到全面康复的效果(推荐强度:A级)。

(李鑫 庞伟 执笔)

第十节 共患病治疗
1 智力发育障碍(intellectual developmental disorder,IDD)

证据 患有IDD的脑瘫儿童主要表现为智力和社会适应能力共同存在缺陷,严重影响康复治疗进程及日常生活适应能力,早期的多学科合作治疗可以提高治疗效果[302,303](2个Ⅲ级证据)。语言及社会交往技能培训等行为疗法可改善脑瘫儿童的认知和生活能力[304,305](1个Ⅱ级证据,1个Ⅲ级证据)。家庭康复是一种长期、稳定和个性化康复方法,培训家庭成员与儿童共处方式的家庭康复治疗,儿童更易接受,依从性更好,有利于促进脑瘫儿童的智力发育,还可以将教育康复融入家庭生活中,对改善IDD也有一定的帮助[306,307](1个Ⅱ级证据,1个Ⅳ级证据)。父母的压力及焦虑与脑瘫儿童的认知和行为障碍有直接联系,给父母提供心理支持,可能改善脑瘫儿童的认知功能[308,309](1个Ⅲ级证据,1个Ⅳ级证据)。游戏治疗是通过游戏设计(包括现实和虚拟游戏),让脑瘫儿童在游戏中主动接受各种功能训练,并可在与他人互动过程中反复学习,从而改善认知、语言及运动能力[310](1个Ⅰ级证据)。

推荐 (1)早期的多学科合作,语言及社会交往技能的培训可改善脑瘫儿童的认知和生活能力(推荐强度:C级)。

(2)家庭康复是一种长期、稳定和个性化康复方法,有利于促进脑瘫儿童的智力发育(推荐强度:B级)。

(3)给父母提供心理支持,可能改善脑瘫儿童的认知功能(推荐强度:C级)。

(4)游戏治疗是改善脑瘫儿童认知、语言及运动功能的有效方法(推荐强度:A级)。

2 学习障碍

证据 脑瘫儿童常因智力、语言和和手功能障碍等伴有学习困难,也可伴有发育性学习障碍。世界卫生组织发布的《国际疾病与相关健康问题统计分类》第11版(International Statistical Classification of Diseases and Related Health Problems-11,ICD-11)将儿童学习障碍疾病分类为发育性学习障碍(developmental learning disability,DLD),ICD-11在分类中增加了其他特指的学习障碍型和未特指的学习障碍型[311]。美国《精神疾病诊断与统计手册》第5版(The Diagnostic and Statistical Manual of Mental Disorders,DSM-5)将常见的儿童学习障碍疾病分类为特定性学习障碍(specific learning disorder,SLD)[312]。因此国际上对学习障碍儿童的诊断通常采用DLD或SLD。

DLD/SLD是一种神经发育障碍,诊断主要依据以下几方面:(1)学习和应用学习技巧困难,以下症状至少出现1项并持续6个月以上:①单词阅读不准确、速度慢、错读;②对所读句子不知为何意;③拼写困难;④表达性书写困难;⑤认识数字和计算困难;⑥数学推断困难。(2)学习技能低于健康同龄人,且影响学习、工作甚至日常生活。(3)学习障碍起始于学龄期。(4)学习障碍不是智力、视力、听力障碍或其他精神神经疾患、心理社会逆境、学业术语的匮乏或不完善的教育结构引起。DLD/SLD分型和分度根据障碍分为阅读障碍型、书写表达障碍型和数学障碍型;根据程度分为轻度、中度和重度[313](1个Ⅳ级证据)。一项基于ICF的理论架构和ICD-11的疾病诊断,从儿童发展和成长的角度,对学习障碍儿童的认知、理解、注意和思维等功能进行分析,并根据"生物-心理-社会"的健康模式及身体活动的身心交互理论,构建针对学习障碍儿童以功能为导向的个别化运动康复方案,证明运动康复有利于学习障碍儿童改善精神和运动功能,并有效提升智力、认知、注意力、沟通、活动等能力,促进儿童全面发展[314](1个Ⅳ级证据)。认知康复和神经反馈可以提高学习障碍儿童专注力[315](1个Ⅱ级证据);语音阅读和写作补习计划对有阅读障碍的儿童有帮助[316](1个Ⅱ级证据);作业表现辅导和促进学习的四象限模型可以改善SLD儿童作业表现能力和执行能力[317](1个Ⅱ级证据)。

推荐 (1)运动康复有利于伴有学习障碍脑瘫儿童的全面发展(推荐强度:D级)。

(2)认知康复和神经反馈可以提高伴有SLD脑瘫儿童专注力(推荐强度:B级)。

(3)语音阅读和写作补习计划对伴有SLD脑瘫儿童中有阅读障碍的儿童有帮助(推荐强度:B级)。

(4)作业表现辅导和促进学习的四象限模型可以改善伴有SLD脑瘫儿童作业表现能力和执行能力(推荐强度:B级)。

3 消化疾患
3.1 饮食及吞咽障碍

证据 脑瘫儿童在运动能力方面的障碍不仅会影响其行走和手的功能,也会影响其咀嚼、吞咽及饮食功能。目前的饮食困难干预措施主要是以运动学习为原则的口腔感觉运动干预,调整进食姿势、口腔用具的改造、刺激口腔感觉和运动等,旨在提高饮食技能[318](1个Ⅳ级证据)。

吞咽障碍需要定期评定,常用评定与检查方法包括吞咽造影、吞咽障碍调查、饮食能力分级系统(eating and drinking ability classification system,EDACS)和主观全面营养评定(subjective global assessment,SGA)[319](1个Ⅲ级证据)。减轻吞咽障碍有利于改善脑瘫儿童的营养状况[320](1个Ⅲ级证据)。治疗方法包括口腔感觉和运动刺激训练,如训练舌、唇和吞咽运动,可改善口唇、舌下肌肉紧张度,协调呼吸与吞咽,改善咀嚼、吞咽和饮水等方面的障碍[321](1个Ⅲ级证据)。电刺激双侧咬肌、下颌舌骨肌、颏舌骨肌和二腹肌,能增强肌肉活动,可改善吞咽障碍和减轻误吸[322,323](1个Ⅱ级证据,1个Ⅲ级证据)。功能性咀嚼训练(functional chewing training,FuCT)是基于运动学习的口腔感觉运动干预,能更好地改善咀嚼能力、减少舌推力和唾液分泌[324](1个Ⅱ级证据)。电刺激联合口腔感觉运动疗法,可促进脑瘫儿童在吞咽时能更好地闭合嘴唇,能吞咽食物而不损失多余的食物,能啜饮液体、吞咽液体而不损失多余的液体,能吞咽而不引起咳嗽[325](1个Ⅰ级证据)。

推荐 (1)采用口部运动学习方法可提高脑瘫儿童的进食技能,减轻进食障碍(推荐强度:D级)。

(2)口腔感觉和运动训练可改善脑瘫儿童咀嚼、吞咽和饮水等功能(推荐强度:C级)。

(3)电刺激、FuCT可以改善脑瘫儿童的咀嚼、吞咽等功能(推荐强度:B级)。

(4)电刺激联合口腔感觉运动疗法能更好地改善脑瘫儿童的吞咽功能(推荐强度:A级)。

3.2 胃食管反流

证据 食管下括约肌张力降低、胃排空延迟、食管运动受损、体位不良、脊柱侧凸和各种药物的使用被认为是导致神经功能受损儿童胃食管反流的原因[326](1个Ⅲ级证据)。胃造瘘术可能会加重胃食管反流风险[327,328](1个Ⅱ级证据,1个Ⅲ级证据)。非药物治疗常使用食物增稠剂,如果胶液等,可以减少部分胃食管反流的发作[329](1个Ⅱ级证据)。药物治疗常使用质子泵抑制剂降低反流酸度,减轻胃食管炎症[330](1个Ⅱ级证据)。其他药物治疗失败时,当排除其他病因,需要长期药物控制胃食管反流时,可以考虑胃底折叠术和食管解离术,但食管解离术需要更长的康复时间[331](1个Ⅳ级证据)。

推荐 (1)胃造瘘术可能会加重胃食管反流风险(推荐强度:B级)。

(2)使用食物增稠剂可以减少部分胃食管反流的发作(推荐强度:B级)。

(3)使用质子泵抑制剂能够降低胃食管反流酸度,减轻胃食管炎症(推荐强度:B级)。

(4)药物治疗失败、排除其他病因,可以考虑手术干预胃食管反流(推荐强度:D级)。

3.3 便秘

证据 脑瘫儿童由于神经肌肉因素常发生便秘等胃肠道问题,如肠蠕动障碍、肌张力低下、骨骼肌功能失调和骨骼畸形等,便秘也与脑瘫儿童长期行动不便、营养素摄入不足和使用抗癫痫药物等因素有关[332,333,334](3个Ⅲ级证据)。主要治疗方法包括肠道按摩,可刺激肠道蠕动,减轻便秘[335](1个Ⅳ级证据);推拿治疗可降低痉挛型脑瘫儿童的肌张力,减轻特发性便秘[336](1个Ⅱ级证据);运动疗法能够提高粗大运动功能水平,减轻痉挛,改善便秘[337,338](2个Ⅲ级证据)。多潘立酮和聚乙二醇联合治疗能够改善脑瘫儿童的慢性便秘,但单独使用多潘立酮无效,单独使用聚乙二醇具有中等疗效[339](1个Ⅱ级证据)。

推荐 (1)肠道按摩能够促进肠蠕动,可减轻脑瘫儿童的便秘(推荐强度:D级)。

(2)运动疗法利于改善脑瘫儿童的便秘(推荐强度:C级)。

(3)推拿治疗、聚乙二醇或联合多潘立酮治疗可改善脑瘫儿童的便秘(推荐强度:B级)。

4 疼痛

证据 循证医学研究显示,疼痛是脑瘫儿童经常甚至每天所伴随的问题,约75%的脑瘫儿童存在慢性疼痛。疼痛被认为是减少脑瘫儿童日常活动和参与的最重要因素之一,且与其心理健康及低生活质量密切相关。近年来,如何防治脑瘫伴发的慢性疼痛正在成为临床研究的热点[340](1个Ⅲ级证据)。

(1)改善痉挛:痉挛是导致脑瘫儿童疼痛的主要因素之一,改善痉挛可以有效缓解脑瘫儿童的疼痛[341](1个Ⅱ级证据)。A型肉毒毒素除了可以松弛关节部位的肌肉、减轻神经血管压迫外,还可减缓参与疼痛与炎症反应的神经递质释放,具有一定的镇痛作用[342,343](1个Ⅱ级证据,1个Ⅲ级证据)。抗痉挛体位及针对性的物理治疗也可改善痉挛,预防和减轻疼痛[344](1个Ⅰ级证据)。

物理因子治疗是利用天然或人工物理因子作用于人体,通过对人体进行生理调节达到治疗效果。例如经皮神经电刺激疗法可降低疼痛区域周围神经的兴奋性而产生镇痛效果;水疗具有温热效应和机械浮力效应,可帮助脑瘫儿童舒缓全身肌肉紧张,减轻疼痛;在疼痛部位贴敷KT,可以改善局部软组织肿胀,适用于急慢性局部疼痛的治疗;局部冷敷适用于大龄脑瘫儿童局部急性疼痛的治疗[345](1个Ⅲ级证据)。

(2)避免治疗性疼痛:实施脑瘫康复治疗时应尽可能减少致痛性操作,严格遵循生理结构和功能特点进行轻柔的操作;以主动活动的形式来制定治疗方案,尽量减少被动活动,避免暴力操作。脑瘫儿童的辅助器具也应进行规范化的适配,逐渐增加佩戴时间以帮助其适应,需定时检查局部血液循环,尽可能减轻和预防治疗性疼痛[346](1个Ⅲ级证据)。

(3)对共患病和继发障碍的防治:建议易发生病理性骨折的卧床脑瘫儿童每日进行四肢长骨应力性训练,提倡含钙丰富的均衡膳食,同时使用双膦酸盐类药物[347](1个Ⅲ级证据)。并发肌肉骨骼问题而引起的疼痛,有时需要采用外科手术,如髋关节脱位或半脱位导致的严重疼痛,在实施股骨近端切除、关节成形术或股骨近段假体置换术后,疼痛可有效缓解[347](1个Ⅲ级证据)。合并胃食管反流的脑瘫儿童会出现上腹部疼痛不适,可酌情给予胃酸抑制剂和胃动力药。针对脑瘫儿童易发生便秘的问题,建议增加粗纤维食物摄入和定时变换体位、减少卧床时间;口腔疾病引发的疼痛重在预防,定时刷牙漱口,保持口腔清洁,注意减少含糖类食物的摄入量,定期口腔科随诊[345](1个Ⅳ级证据)。

(4)舒适环境及亲情抚慰与护理:照护者应尽量为脑瘫儿童提供适宜温度、湿度和柔和光线等舒适环境。使用喂养、安抚奶嘴等口腔刺激减少低龄脑瘫儿童疼痛的敏感度。亲肤接触、襁褓包裹和袋鼠护理也有利于缓解疼痛[345](1个Ⅳ级证据)。父母和亲人给予脑瘫儿童的耐心陪伴和鼓励能稳定其情绪,缓解焦虑。医务人员应鼓励家长积极参与治疗和管理,让家长充分了解脑瘫儿童的病情,引导家长理解包容脑瘫儿童因疼痛出现的异常行为,指导家长多使用鼓励、赞扬的话语,避免斥责、批评等消极语言。抱起脑瘫儿童轻拍、抚摸疼痛部位等也有一定镇痛效果[348,349](1个Ⅱ级证据,1个Ⅲ级证据)。

(5)其他治疗:音乐疗法是通过选择合适的音乐,对身心产生积极作用,减轻焦虑和抑郁状态,从而缓解脑瘫儿童疼痛的一种治疗方法。脑瘫儿童自主选择的音乐较他人选择的音乐镇痛效果更好。音乐的选择不应局限于某种类型,可以是倾听也可以是演奏,应根据脑瘫儿童喜好选择,其喜欢的有声读物同样可以达到镇痛效果[350,351](1个Ⅰ级证据,1个Ⅱ级证据)。

游戏治疗是将治疗活动用游戏方式表达出来,并付诸日常生活。游戏可帮助脑瘫儿童分散注意力、缓解不良情绪,提高疼痛阈值。游戏方式应根据儿童年龄及认知水平进行设定。例如低龄婴幼儿可通过声光玩具、躲猫猫等亲子互动游戏来分散注意力;幼儿和学龄前儿童可以采用角色扮演游戏、智力游戏等;学龄期儿童可以采用体感游戏及虚拟现实游戏等更有吸引力的游戏方式[352,353](1个Ⅱ级证据,1个Ⅲ级证据)。

对具备一定认知水平的脑瘫儿童可利用深呼吸训练、正念催眠等方法缓解紧张焦虑情绪,进而降低疼痛感受[354,355](1个Ⅰ级证据,1个Ⅱ级证据)。

推荐 (1)A型肉毒毒素注射可在改善脑瘫儿童痉挛的基础上缓解疼痛(推荐强度:B级)。

(2)抗痉挛体位及针对性物理治疗可帮助脑瘫儿童缓解疼痛(推荐强度:A级)。

(3)物理因子治疗、KT局部贴敷、避免治疗性疼痛、对共患病和继发障碍的防治可以预防和减轻脑瘫儿童的疼痛(推荐强度:C级)。

(4)舒适环境和良好的生活护理、照护者亲情抚慰及参与治疗管理对稳定脑瘫儿童情绪、缓解疼痛有一定的帮助(推荐强度:C级)。

(5)音乐治疗、呼吸训练、正念催眠等可帮助脑瘫儿童缓解疼痛(推荐强度:A级)。

(6)游戏可帮助脑瘫儿童缓解疼痛(推荐强度:B级)。

5 免疫功能调节障碍

证据 脑瘫极易并发免疫功能低下、贫血、营养不良、发育异常等。脑瘫的病因和发病机制复杂,最新免疫学研究提示脑瘫儿童存在免疫功能调节障碍,医院内感染率较正常儿童增高,康复治疗期间极易并发呼吸道、消化道等系统的感染,严重影响脑瘫儿童的康复效果[356,357](1个Ⅲ级证据,1个Ⅳ级证据),通过康复训练可以改善其免疫功能[358,359](2个Ⅲ级证据)。薄芝糖肽作为一种中药,具有神经和免疫调节作用,能改善脑瘫儿童免疫状态,有利于康复治疗,可作为脑瘫儿童神经免疫修复的参考用药,建议联合应用运动疗法[360](1个Ⅱ级证据)。此外,艾灸关元、肾俞、足三里可改善脑瘫儿童的免疫功能[361](1个Ⅱ级证据)。

推荐 (1)脑瘫儿童存在免疫功能调节障碍,且院内感染率较正常儿童高(推荐强度:C级)

(2)康复训练有助于改善脑瘫儿童的免疫功能(推荐强度:C级)。

(3)薄芝糖肽具有神经免疫调节作用,可联合运动疗法应用于脑瘫儿童的康复治疗(推荐强度:B级)。

(4)艾灸关元、肾俞、足三里可改善脑瘫儿童的免疫功能(推荐强度:B级)。

6 视觉障碍

证据 脑瘫儿童由于脑部发育异常或损伤可出现脑性视觉障碍(cerebral visual impairment,CVI)。CVI发病率可高达28%,重度CVI占8%[362,363](1个Ⅱ级证据,1个Ⅳ级证据)。脑瘫儿童的视觉障碍包括斜视、视力下降、视野缺失、弱视、眼球震颤、异常的平滑移视和异常扫视运动等[364](1个Ⅲ级证据)。视力测试用于确定是否存在视力障碍以及明确可能导致儿童视力障碍的眼部原因[365,366](2个Ⅱ级证据)。3~6岁儿童视力障碍测试(the children′s visual impairment test for 3 to 6 year olds,CVIT3-6)可用于CVI相关的视觉感知缺陷的评价[367](1个Ⅱ级证据)。磁共振弥散成像较普通磁共振成像检测中枢神经系统视觉相关结构灵敏度更高,视觉诱发电位(visual evoked potential,VEP)可以定量测量黄斑区的视觉反应,并有效反映视觉敏感度,适用于婴儿或者言语前的儿童[368,369](2个Ⅱ级证据)。通过测试观察儿童与旋转物体之间的距离、追物、眼球运动、对图案的反应等有助于脑瘫儿童视觉障碍的诊断[370,371](2个Ⅱ级证据)。弗兰德脑视觉障碍问卷(Flemish cerebral visual impairment questionnaire)可收集3~6岁CVI儿童日常生活功能视觉的信息,对康复方案的制定提供重要依据[372](1个Ⅱ级证据)。低龄及损伤程度较轻的斜视脑瘫儿童,手术干预可取得良好收益[373,374](1个Ⅱ级证据)。早期视觉训练和环境适应能改善视觉障碍婴儿的视觉功能和发育结果[374](1个Ⅲ级证据)。反复利用不同强度的光线、黑白色卡以及多种感觉刺激进行视觉训练可有效改善追视能力和视反应速度[375,376](2个Ⅲ级证据)。父母参与的家庭训练,如手、眼、脑的空间联合感知和协调能力训练,可增强视觉感应或弥补视觉障碍的影响[377,378](2个Ⅲ级证据)。

推荐 (1)视力测试、相关视觉障碍问卷有助于判断脑瘫儿童是否存在视觉障碍及可能导致视觉障碍的眼部原因(推荐强度:B级)。

(2)磁共振、VEP检测有助于视觉障碍的早期诊断(推荐强度:B级)。

(3)低龄及损伤程度较轻的斜视脑瘫儿童,手术干预可取得良好收益(推荐强度:B级)。

(4)早期视觉训练和环境适应有助于改善脑瘫儿童视觉障碍(推荐强度:C级)。

(5)高对比视觉训练及家庭训练可有效改善脑瘫儿童追视能力和视反应速度(推荐强度:C级)。

7 听觉障碍

证据 听觉障碍是指因听觉系统传音、感音神经及中枢神经系统病变引起的不同程度听力减退现象,脑瘫儿童由于大脑皮质下和皮质结构的损伤,可导致持续性听力和运动障碍[379,380](1个Ⅱ级证据,1个Ⅲ级证据)。有研究统计约7%脑瘫儿童患有中度至重度听力损失,3%~4%为重度到极重度的听力损失[381](1个Ⅱ级证据),其特点为非遗传性听力损失,主要表现包括感音神经性听力损失和听觉障碍。听觉障碍的早期诊断和康复对儿童的言语、语言、认知、学习能力,以及其他生存能力的发展至关重要[382](1个Ⅱ级证据)。

听觉障碍检查方法主要包括脑干听觉诱发电位(brainstem auditory evoked potential,BAEP),耳声发射(otoacoustic emission,OAE)和自动听性脑干反应(automated auditory brainstem response,AABR)。BAEP能客观反映听觉中枢神经系统的功能,是目前最为成熟的听觉电生理测试,可检查从外耳至低级脑干听觉通路的完整功能;OAE可客观评定耳蜗及外周听力功能;AABR可反映外周听觉系统、第八对脑神经和脑干听觉通路的状态[383,384,385,386,387,388](1个Ⅰ级证据,3个Ⅱ级证据,1个Ⅲ级证据,1个Ⅳ级证据)。听觉障碍手术治疗方法包括咽鼓管球囊扩张技术、骨导助听器和人工耳蜗技术[389,390](2个Ⅱ级证据)。

听觉障碍康复干预方法包括镜像神经元疗法训练,激活相应功能的神经元,促进功能重建,但需在佩戴助听器下进行[391](1个Ⅱ级证据);辨音训练和感音训练[392,393](1个Ⅱ级证据,1个Ⅲ级证据)可改善听觉障碍儿童的听觉语言;早期亲子康复教育(医教结合)在小龄听障儿童的康复训练中非常重要,包括游戏、音乐节律操、读绘本、角色扮演、发声玩具诱导找声音、家庭教育指导等,对儿童的听觉具有一定的唤醒功效,也可有效提高儿童的认知及语言能力,促进智力发育[394,395,396,397](2个Ⅲ级证据,2个Ⅳ级证据)。

推荐 (1)脑瘫儿童的听觉障碍早期诊断和干预对其言语、语言、认知、学习能力等发展至关重要(推荐强度:B级)。

(2)可根据需求采用BAEP、OAE和AABR对听觉障碍的脑瘫儿童进行检查(推荐强度:B级)。

(3)听觉障碍手术治疗方法包括咽鼓管球囊扩张技术(推荐强度:B级)。

(4)听觉障碍脑瘫儿童的有效康复干预方法包括镜像神经元疗法训练、辨音训练和感音训练(推荐强度:B级)。

(5)早期亲子康复教育对听觉具有一定的唤醒功效,也可有效提高听觉障碍脑瘫儿童的认知及语言能力,促进智力发育(推荐强度:C级)。

8 交流障碍

证据 交流障碍是脑瘫最常见的功能障碍之一,因地域和测量工具不同,脑瘫儿童交流障碍的患病率为38%~55%[398](1个Ⅱ级证据)。交流障碍涉及面较广,包括语言性障碍、谈话性语音障碍、口吃、社会交流性障碍及未特定的交流性障碍。交流障碍可影响脑瘫儿童的社会心理发展,延缓康复进程[399](1个Ⅲ级证据)。脑瘫儿童交流障碍的早期诊断和干预极其重要,结合临床病史使用标准化工具可以有效预测风险[400](1个Ⅱ级证据)。利用AAC可显著增强脑瘫儿童的沟通、语言和识字能力[401](1个Ⅳ级证据)。经颅磁刺激(transcranial magnetic stimulation,TMS)和经颅直流电刺激(transcranial direct current stimulation,tDCS)等非侵入性脑刺激技术,在脑瘫儿童交流障碍康复中也有积极作用[402](1个Ⅳ级证据)。运用音乐疗法、运动疗法、引导式教育及游戏等综合康复训练,可挖掘脑瘫儿童在运动、行为、认知、语言表达、社会适应、学习等方面的潜能,促进左、右脑协调的运用和开发,从而改善交流能力[403](1个Ⅱ级证据)。

推荐 (1)交流障碍可影响脑瘫儿童的社会心理发展和康复治疗效果(推荐强度:C级)。

(2)脑瘫儿童交流障碍的早期诊断和干预极其重要,结合临床病史使用标准化工具可以有效预测风险(推荐强度:B级)。

(3)AAC可显著增强脑瘫儿童的沟通、语言和识字能力,TMS和tDCS等非侵入性脑刺激技术在脑瘫儿童的交流障碍康复中也有积极作用(推荐强度:D级)。

(4)音乐治疗、运动治疗、引导式教育及游戏等综合康复治疗,有利于改善脑瘫儿童的交流能力(推荐强度:B级)。

9 癫痫

证据 癫痫是脑瘫儿童最常见的共患病之一,癫痫在一般儿童中的发病率为0.5%~1.0%,脑瘫儿童患病率为15%~90%,也有报道为35%~41%。约50%伴有癫痫的脑瘫儿童于1岁以内出现癫痫首次发作,92%以上发生在4岁前,以痉挛型脑瘫癫痫的发病率最高[404,405,406,407](1个Ⅱ级证据,2个Ⅲ级证据,1个Ⅳ级证据)。脑瘫共患癫痫的儿童中,癫痫的发作形式以全面强直阵挛发作和局灶性发作最为常见,其次是婴儿痉挛症,脑瘫合并癫痫需要积极治疗以提高生活质量和康复效果[408](1个Ⅱ级证据)。除特殊原因,癫痫应首选抗癫痫药物控制发作,根据癫痫发作类型分别选用丙戊酸钠、拉莫三嗪、左乙拉西坦、奥卡西平、卡马西平和氯硝西泮等药物,一般以单一药物开始治疗,若单一药物治疗无效或呈现多种发作形式可考虑联合药物治疗[409](1个Ⅳ级证据)。早发性癫痫性脑病或药物治疗无效时,应尽早进行基因检测,实现癫痫的精准医疗[410](1个Ⅱ级证据)。如持续2~4年以上癫痫无发作即存在药物减停可能性,但最后能否成功减停,还受其他多种因素影响[411](1个Ⅳ级证据)。就抗癫痫药物治疗局灶性发作间期痫样放电慢性效应而言,左乙拉西坦、奥卡西平、氨己烯酸是有效的。对于药物治疗无效的难治性癫痫,可选用手术、生酮饮食和迷走神经刺激术等治疗[412](1个Ⅳ级证据)。

推荐 (1)癫痫是脑瘫儿童最常见的共患病之一,以痉挛型脑瘫癫痫发病率最高(推荐强度:B级)。

(2)除特殊原因,脑瘫伴有癫痫应首选抗癫痫药物控制发作(推荐强度:D级)。

(3)脑瘫伴有早发性癫痫性脑病或药物治疗无效时,应尽早进行基因检测,有利于精准治疗(推荐强度:B级)。

(4)对于药物治疗无效的难治性癫痫,可选用生酮饮食、迷走神经刺激术和手术等治疗(推荐强度:D级)。

10 髋关节脱位

证据 髋关节脱位是脑瘫儿童常见的骨科问题,可能会导致明显的疼痛和功能障碍。脑瘫儿童髋关节周围肌张力和肌力不协调,导致内收肌、屈髋肌和腘绳肌的异常使用,使关节周围的作用力发生改变,逐渐导致髋关节半脱位直至全脱位。髋关节脱位的发生率与粗大运动功能水平和脑瘫分型有关:(1)GMFCS为Ⅰ级的脑瘫儿童、痉挛型偏瘫以及共济失调型脑瘫儿童髋关节脱位风险较低;(2)GMFCS为Ⅱ~Ⅳ级的脑瘫儿童髋关节脱位发生风险,随着运动功能障碍严重程度增加而增加;(3)GMFCS为Ⅴ级的脑瘫儿童风险最大,其中痉挛型四肢瘫脑瘫儿童尤为突出[413,414,415](1个Ⅰ级证据,2个Ⅲ级证据)。此外,临床中骨盆X线片广泛使用MP评定脑瘫儿童发生髋关节脱位风险,MP>33%为髋关节半脱位,MP>50%则认为是髋关节的全脱位。当MP≤30%且稳定不再变化,可以解除监测;当MP>30%或不稳定,则考虑手术[416,343](1个Ⅰ级证据,1个Ⅱ级证据)。保守治疗则可以通过佩戴辅助器具或运动疗法、体位管理等进行干预[417,418,419,420,421](2个Ⅱ级证据,3个Ⅲ级证据)。

推荐 (1)痉挛型脑瘫儿童发生髋关节脱位风险高于其他类型脑瘫,且与运动障碍程度相关(推荐强度:A级)。

(2)MP是监测脑瘫儿童发生髋关节脱位风险程度,选择治疗策略的重要评定方法(推荐强度:A级)。

(3)髋关节脱位保守治疗可采用佩戴辅助器具、运动疗法、体位管理等方法(推荐强度:B级)。

11 心理障碍

证据 脑瘫儿童心理障碍患病率较高,可能与身体、情绪、环境压力、脑瘫严重程度、言语障碍以及年龄等因素相关[422,423,424](1个Ⅰ级证据,2个Ⅱ级证据)。早期干预,重视培养脑瘫儿童的良好情绪和行为非常重要[425,426,427](3个Ⅲ级证据)。可通过帮助脑瘫儿童认识自己的身体状况,鼓励其多与正常儿童交往,摆脱忧虑及恐惧[428,429](2个Ⅱ级证据)。加强体育锻炼可提高脑瘫儿童的生活质量和幸福感,减轻不良心理健康负担[430,431](2个Ⅰ级证据)。

推荐 (1)脑瘫儿童心理障碍患病率较高,与其自身状况及环境等因素相关(推荐强度:A级)。

(2)早期干预培养脑瘫儿童良好的情绪和行为是防治心理障碍的关键(推荐强度:C级)。

(3)可通过帮助脑瘫儿童认识自己的身体状况,鼓励其多与正常儿童交往,摆脱忧虑及恐惧(推荐强度:B级)。

(4)体育锻炼可减轻脑瘫儿童的不良心理健康负担(推荐强度:A级)。

12 营养障碍

证据 脑瘫儿童中普遍存在生长发育受限、营养不良等问题,脑瘫儿童营养不良的发生率明显高于正常发育的儿童。营养不良增加了脑瘫儿童感染传染病和死亡的风险[432,433](1个Ⅰ级证据,1个Ⅲ级证据)。脑瘫儿童营养不良的原因有营养因素和非营养因素两大类:营养因素主要包括吞咽障碍造成的能量摄入不足、营养流失、能量消耗增多等;非营养因素主要包括年龄、遗传因素、身体活动水平(如长期缺乏负重)、内分泌因素、认知障碍及抗癫痫治疗等。脑瘫儿童的营养不良与吞咽障碍和运动受限密切相关[434](1个Ⅳ级证据)。因此,需要特别关注脑瘫儿童的营养问题并了解影响因素,营养筛查和营养评定是临床营养干预的重要依据,以便进行早期干预和有效的营养管理[435,436](2个Ⅳ级证据)。通过提高照料者喂养技能,可以改善脑瘫儿童的营养状况[437](1个Ⅱ级证据)。对于喂养时间过长、吞咽不安全和口服摄入不足的脑瘫儿童,应立即开始肠内营养,并与父母或护理人员评定和讨论早期胃造瘘管的放置[435,438,439,440](2个Ⅱ级证据,2个Ⅳ级证据)。

推荐 (1)脑瘫儿童营养不良的发生率明显高于正常发育的儿童,增加感染和死亡的风险(推荐强度:A级)。

(2)脑瘫儿童的营养不良与吞咽障碍、年龄、遗传因素、身体活动水平、内分泌因素、认知障碍等相关(推荐强度:D级)。

(3)营养筛查和营养评定是临床营养干预的重要依据,以便进行早期干预和有效的营养管理(推荐强度:D级)。

(4)提高照料者喂养技能,可改善脑瘫儿童的营养状况(推荐强度:B级)。

(5)对于喂养时间过长、存在吞咽不安全和口服摄入不足的脑瘫儿童,应立即开始肠内营养(推荐强度:B级)。

(吴建贤 郭津 执笔)

本章秘书 刘鹏、宋福祥

利益冲突
利益冲突

本指南编写过程中未接受任何社会组织和个人的资助,所有作者均声明不存在利益冲突

参考文献
[1]
PolakF, MortonR, WardCet al.Double-blind comparison study of two doses of botulinum toxin A injected into calf muscles in children with hemiplegic cerebral palsy[J].Dev Med Child Neurol200244(8):551-555.DOI:10.1017/s0012162201002547.
[2]
FaragSM, MohammedMO, El-SobkyTet al.Botulinum toxin A injection in treatment of upper limb spasticity in children with cerebral palsy:a systematic review of randomized controlled trials[J].JBJS Rev20208(3):e0119.DOI:10.2106/JBJS.RVW.19.00119.
[3]
UbhiT, BhaktaBB, IvesHLet al.Randomised double blind placebo controlled trial of the effect of botulinum toxin on walking in cerebral palsy[J].Arch Dis Child200083(6):481-487.DOI:10.1136/adc.83.6.481.
[4]
SteenbeekD, Meester-DelverA, BecherJGet al.The effect of botulinum toxin type A treatment of the lower extremity on the level of functional abilities in children with cerebral palsy:evaluation with goal attainment scaling[J].Clin Rehabil200519(3):274-282.DOI:10.1191/0269215505cr859oa.
[5]
MooreAP, Ade-HallRA, SmithCTet al.Two-year placebo-controlled trial of botulinum toxin A for leg spasticity in cerebral palsy[J].Neurology200871(2):122-128.DOI:10.1212/01.wnl.0000316801.74683.c0.
[6]
BakerR, JasinskiM, Maciag-TymeckaIet al.Botulinum toxin treatment of spasticity in diplegic cerebral palsy:a randomized,double-blind,placebo-controlled,dose-ranging study[J].Dev Med Child Neurol200244(10):666-675.DOI:10.1017/s0012162201002730.
[7]
García-SánchezSF, Gómez-GalindoMT, Guzmán-PantojaJE.Botulinum toxin A and physical therapy in gait in cerebral palsy[J].Rev Med Inst Mex Seguro Soc201755(1):18-24.
[8]
HongBY, ChangHJ, LeeSJet al.Efficacy of repeated botulinum toxin type a injections for spastic equinus in children with cerebral palsy-a secondary analysis of the randomized clinical trial[J].Toxins (Basel)20179(8):253.DOI:10.3390/toxins9080253.
[9]
DelgadoMR, TiltonA, RussmanBet al.AbobotulinumtoxinA for equinus foot deformity in cerebral palsy:a randomized controlled trial[J].Pediatrics2016137(2):e20152830.DOI:10.1542/peds.2015-2830.
[10]
Hastings-IsonT, BlackburnC, RawickiBet al.Injection frequency of botulinum toxin A for spastic equinus:a randomized clinical trial[J].Dev Med Child Neurol201658(7):750-757.DOI:10.1111/dmcn.12962.
[11]
DelgadoMR, BonikowskiM, CarranzaJet al.Safety and efficacy of repeat open-label AbobotulinumtoxinA treatment in pediatric cerebral palsy[J].J Child Neurol201732(13):1058-1064.DOI:10.1177/0883073817729918.
[12]
ZhuDN, WangMM, WangJet al.Effect of botulinum toxin A injection in the treatment of gastrocnemius spasticity in children aged 9-36 months with cerebral palsy:a prospective study[J].Chin J Contemp Pediatr201618(2):123-129.DOI:10.7499/j.issn.1008-8830.2016.02.006.
[13]
FehlingsD, RangM, GlazierJet al.An evaluation of botulinum-A to-xin injections to improve upper extremity function in children with hemiplegic cerebral palsy[J].J Pediatr2000137(3):331-337.DOI:10.1067/mpd.2000.108393.
[14]
LoweK, NovakI, CusickALow-dose/high-concentration localized bo-tulinum toxin A improves upper limb movement and function in children with hemiplegic cerebral palsy[J].Dev Med Child Neurol200648(3):170-175.DOI:10.1017/S0012162206000387.
[15]
WallenM, O′FlahertySJ, WaughMC.Functional outcomes of intramuscular botulinum toxin type a and occupational therapy in the upper limbs of children with cerebral palsy:a randomized controlled trial[J].Arch Phys Med Rehabil200788(1):1-10.DOI:10.1016/j.apmr.2006.10.017.
[16]
KawamuraA, CampbellK, Lam-DamjiSet al.A randomized controlled trial comparing botulinum toxin A dosage in the upper extremity of children with spasticity[J].Dev Med Child Neurol200749(5):331-337.DOI:10.1111/j.1469-8749.2007.00331.x.
[17]
CorryIS, CosgroveAP, WalshEGet al.Botulinum toxin A in the hemiplegic upper limb:a double-blind trial[J].Dev Med Child Neurol199739(3):185-193.DOI:10.1111/j.1469-8749.1997.tb07408.x.
[18]
O′FlahertySJ, JanakanV, MorrowAMet al.Adverse events and health status following botulinum toxin type A injections in children with cerebral palsy[J].Dev Med Child Neurol201153(2):125-130.DOI:10.1111/j.1469-8749.2010.03814.x.
[19]
PingelJ, NielsenMS, LauridsenTet al.Injection of high dose botulinum-toxin A leads to impaired skeletal muscle function and damage of the fibrilar and non-fibrilar structures[J].Sci Rep20177(1):14746.DOI:10.1038/s41598-017-14997-3.
[20]
HägglundG, Alriksson-SchmidtA, Lauge-PedersenHet al.Prevention of dislocation of the hip in children with cerebral palsy:20-year results of a population-based prevention programme[J].Bone Joint J201496-b(11):1546-1552.DOI:10.1302/0301-620X.96B11.34385.
[21]
NovakI, MorganC, FaheyMet al.State of the evidence traffic lights 2019:systematic review of interventions for preventing and treating children with cerebral palsy[J].Curr Neurol Neurosci Rep202020(2):3.DOI:10.1007/s11910-020-1022-z.
[22]
Gonzalez-LMD, MartinezC, BoriYIet al.Factors in the efficacy,safety,and impact on quality of life for treatment of drooling with botulinum toxin type a in patients with cerebral palsy[J].Am J Phys Med Rehabil201796(2):68-76.DOI:10.1097/PHM.0000000000000525.
[23]
GonnadeN, LokhandeV, AjijMet al.Phenol versus botulinum toxin a injection in ambulatory cerebral palsy spastic diplegia:a comparative study[J].J Pediatr Neurosci201712(4):338-343.DOI:10.4103/jpn.JPN_123_17.
[24]
MathewA, MathewMC, ThomasMet al.The efficacy of diazepam in enhancing motor function in children with spastic cerebral palsy[J].J Trop Pediatr200551(2):109-113.DOI:10.1093/tropej/fmh095.
[25]
NogenAG.Medical treatment for spasticity in children with cerebral palsy[J].Childs Brain19762(5):304-308.DOI:10.1159/000119626.
[26]
HaEL.The effect of diazepam (Valium) in children with cerebral palsy:a double-blind study[J].Dev Med Child Neurol19668(6):661-667.DOI:10.1111/j.1469-8749.1966.tb01824.x.
[27]
HaslamRH, WalcherJR, LietmanPSet al.Dantrolene Sodium in children with spasticity[J].Arch Phys Med Rehabil197455(8):384-388.
[28]
JoyntRL, LeonardJJ.Dantrolene sodium suspension in treatment of spastic cerebral palsy[J].Dev Med Child Neurol198022(6):755-767.DOI:10.1111/j.1469-8749.1980.tb03742.x.
[29]
DenhoffE, FeldmanS, SmithMGet al.Treatment of spastic cerebral-palsied children with sodium dantrolene[J].Dev Med Child Neurol197517(6):736-742.DOI:10.1111/j.1469-8749.1975.tb04697.x.
[30]
MillaPJ, JacksonAD.A controlled trial of baclofen in children with cerebral palsy[J].J Int Med Res19775(6):398-404.DOI:10.1177/030006057300100203.
[31]
ScheinbergA, HallK, LamLTet al.Oral baclofen in children with cerebral palsy:a double-blind cross-over pilot study[J].J Paediatr Child Health200642(11):715-720.DOI:10.1111/j.1440-1754.2006.00957.x.
[32]
AlbrightAL, BarryMJ, FasickMPet al.Effects of continuous intrathecal baclofen infusion and selective posterior rhizotomy on upper extremity spasticity[J].Pediatr Neurosurg199523(2):82-85.DOI:10.1159/000120941.
[33]
WiensHD.Spasticity in children with cerebral palsy:a retrospective review of the effects of intrathecal baclofen[J].Issues Compr Pediatr Nurs199821(1):49-61.DOI:10.1080/01460869808951127.
[34]
GrabbPA, Guin-RenfroeS, MeythalerJM.Midthoracic catheter tip placement for intrathecal baclofen administration in children with quadriparetic spasticity[J].Neurosurgery199945(4):833-837.DOI:10.1097/00006123-199910000-00020.
[35]
AwaadY, TayemH, MunozSet al.Functional assessment following intrathecal baclofen therapy in children with spastic cerebral palsy[J].J Child Neurol200318(1):26-34.DOI:10.1177/08830738030180010701.
[36]
BjornsonKF, MclaughlinJF, LoeserJDet al.Oral motor,communication,and nutritional status of children during intrathecal baclofen therapy:a descriptive pilot study[J].Arch Phys Med Rehabil200384(4):500-506.DOI:10.1053/apmr.2003.50030.
[37]
MurphyNA, IrwinMC, HoffCIntrathecal baclofen therapy in children with cerebral palsy:efficacy and complications[J].Arch Phys Med Rehabil200283(12):1721-1725.DOI:10.1053/apmr.2002.36068.
[38]
EekMN, OlssonK, LindhKet al.Intrathecal baclofen in dyskinetic cerebral palsy:effects on function and activity[J].Dev Med Child Neurol201860(1):94-99.DOI:10.1111/dmcn.13625.
[39]
BonouvriéLA, BecherJG, VlesJet al.The effect of intrathecal baclofen in dyskinetic cerebral palsy:the IDYS trial[J].Ann Neurol201986(1):79-90.DOI:10.1002/ana.25498.
[40]
MottaF, BuonaguroV, StignaniCThe use of intrathecal baclofen pump implants in children and adolescents:safety and complications in 200 consecutive cases[J].J Neurosurg2007107(1Suppl):S32-35.DOI:10.3171/PED-07/07/032.
[41]
YoonYK, LeeKC, ChoHEet al.Outcomes of intrathecal baclofen therapy in patients with cerebral palsy and acquired brain injury[J].Medicine (Baltimore)201796(34):e7472.DOI:10.1097/MD.0000000000007472.
[42]
KrausT, GegenleitnerK, SvehlikMet al.Long-term therapy with intrathecal baclofen improves quality of Life in children with severe spastic cerebral palsy[J].Eur J Paediatr Neurol201721(3):565-569.DOI:10.1016/j.ejpn.2017.01.016.
[43]
Vásquez-BriceñoA, Arellano-SaldañaME, León-HernándezSRet al.The usefulness of tizanidine.A one-year follow-up of the treatment of spasticity in infantile cerebral palsy[J].Rev Neurol200643(3):132-136.
[44]
LiowNY, GimenoH, LumsdenDet al.Gabapentin can significantly improve dystonia severity and quality of life in children[J].Eur J Paediatr Neurol201620(1):100-107.DOI:10.1016/j.ejpn.2015.09.007.
[45]
OstojicK, PagetSP, MorrowAM.Management of pain in children and adolescents with cerebral palsy:a systematic review[J].Dev Med Child Neurol201961(3):315-321.DOI:10.1111/dmcn.14088.
[46]
HendersonRC, LarkRK, KecskemethyHHet al.Bisphosphonates to treat osteopenia in children with quadriplegic cerebral palsy:a randomi-zed,placebo-controlled clinical trial[J].J Pediatr2002141(5):644-651.DOI:10.1067/mpd.2002.128207.
[47]
BachrachSJ, KecskemethyHH, HarckeHTet al.Decreased fracture incidence after 1 year of pamidronate treatment in children with spastic quadriplegic cerebral palsy[J].Dev Med Child Neurol201052(9):837-842.DOI:10.1111/j.1469-8749.2010.03676.x.
[48]
PaksuMS, VurucuS, KaraogluAet al.Osteopenia in children with cerebral palsy can be treated with oral alendronate[J].Childs Nerv Syst201228(2):283-286.DOI:10.1007/s00381-011-1576-9.
[49]
AronsonE, StevensonSB.Bone health in children with cerebral palsy and epilepsy[J].J Pediatr Health Care201226(3):193-199.DOI:10.1016/j.pedhc.2010.08.008.
[50]
KimMJ, KimSN, LeeISet al.Effects of bisphosphonates to treat osteoporosis in children with cerebral palsy:a meta-analysis[J].J Pediatr Endocrinol Metab201528(11-12):1343-1350.DOI:10.1515/jpem-2014-0527.
[51]
SeesJP, SitoulaP, DabneyKet al.Pamidronate treatment to prevent reoccurring fractures in children with cerebral palsy[J].J Pediatr Orthop201636(2):193-197.DOI:10.1097/BPO.0000000000000421.
[52]
赵会玲冯欢欢李晓捷注射用鼠神经生长因子联合康复训练治疗脑性瘫痪患儿的临床疗效[J].中华实用儿科临床杂志201934 (16):1237-1240.DOI:10.3760/cma.j.issn.2095-428X.2019.16.011.
ZhaoHL, FengHH, LiXJet al.Therapeutic effect of injectable mouse nerve growth factor combined with rehabilitation training on cerebral palsy in children[J].Chin J Appl Clin Pediatr201934(16):1237-1240.DOI:10.3760/cma.j.issn.2095-428X.2019.16.011
[53]
段光敏邱红燕邓超鼠神经生长因子肌肉注射治疗脑性瘫痪高危儿运动障碍的临床观察[J].中国妇幼健康研究202132(3):382-385.DOI:10.3969/j.issn.1673-5293.2021.03.012.
DuanGM, QiuHY, DengCClinical observation of intramuscular injection of mouse nerve growth factor for treatment of dyskinesia of infants with high-risk cerebral palsy[J].Chin J Woman Child Health Res202132(3):382-385.DOI:10.3969/j.issn.1673-5293.2021.03.012.
[54]
DorukAP, AslanHAssociation between the elasticity of hip muscles and the hip migration index in cerebral palsy[J].J Ultrasound Med201938(10):2667-2672.DOI:10.1002/jum.14969.
[55]
BlumettiFC, WuJ, BarziFet al.Orthopaedic surgery in dystonic cerebral palsy[J].J Pediatr Orthop201939(4):209-216.DOI:10.1097/BPO.0000000000000919.
[56]
TerjesenT, HornJThe femoral Head-Shaft angle is not a predictor of hip displacement in children under 5 years with cerebral palsy:a population-based study of children at GMFCS levels Ⅲ-Ⅴ[J].J Pediatr Orthop202141(8):e659-663.DOI:10.1097/BPO.0000000000001875.
[57]
SullivanES, JonesC, MillerSDet al.Effect of positioning error on the Hilgenreiner epiphyseal angle and the head-shaft angle compared to the femoral neck-shaft angle in children with cerebral palsy[J].J Pediatr Orthop B202231(2):160-168.DOI:10.1097/BPB.0000000000000923.
[58]
LinsL, WatkinsCJ, ShoreBJ.Natural history of spastic hip disease[J].J Pediatr Orthop201939(6Suppl 1):S33-37.DOI:10.1097/BPO.0000000000001347.
[59]
OkunoK, KitaiY, ShibataTet al.Risk factors for hip dislocation in dyskinetic cerebral palsy[J].J Orthop Surg (Hong Kong)202129(1):23094990211001196.DOI:10.1177/23094990211001196.
[60]
ShraderMW, WimberlyL, ThompsonRHip surveillance in children with cerebral palsy[J].J Am Acad Orthop Surg201927(20):760-768.DOI:10.5435/JAAOS-D-18-00184.
[61]
HuserA, MoM, HosseinzadehPHip surveillance in children with cerebral palsy[J].Orthop Clin North Am201849(2):181-190.DOI:10.1016/j.ocl.2017.11.006.
[62]
LiJ, GanjwalaD, JohariAet al.Hip surveillance for children with cerebral palsy:a survey of orthopaedic surgeons in India[J].Indian J Orthop202256(1):58-65.DOI:10.1007/s43465-021-00432-3.
[63]
VitrikasK, DaltonH, BreishDCerebral palsy:an overview[J].Am Fam Physician2020101(4):213-220.
[64]
MilksKS, WhitakerAT, RuessLRadiographic hip screening for children with cerebral palsy:an imaging and reporting update[J].Pediatr Radiol202252(1):12-21.DOI:10.1007/s00247-021-05197-3.
[65]
RobertsBW.Computed tomography of femoral anteversion in children with cerebral palsy[J].Radiol Technol201990(5):489CT-503CT.
[66]
PruszczynskiB, SeesJ, MillerFRisk factors for hip displacement in children with cerebral palsy:systematic review[J].J Pediatr Orthop201636(8):829-833.DOI:10.1097/BPO.0000000000000577.
[67]
MilneN, MiaoM, BeattieEThe effects of serial casting on lower limb function for children with cerebral palsy:a systematic review with meta-analysis[J].BMC Pediatr202020(1):324.DOI:10.1186/s12887-020-02122-9.
[68]
BloomT, SabharwalSSurgical management of foot and ankle deformities in cerebral palsy[J].Clin Podiatr Med Surg202239(1):37-55.DOI:10.1016/j.cpm.2021.09.001.
[69]
ZhouJ, ButlerEE, RoseJNeurologic correlates of gait abnormalities in cerebral palsy:implications for treatment[J].Front Hum Neurosci201711103.DOI:10.3389/fnhum.2017.00103.
[70]
KellyB, Mackay-LyonsM, BerrymanSet al.Casting protocols following BoNT-A injections to treat spastic hypertonia of the triceps surae in children with cerebral palsy and equinus gait:a randomized controlled trial[J].Phys Occup Ther Pediatr201939(1):77-93.DOI:10.1080/01942638.2018.1471015.
[71]
DursunN, GokbelT, AkarsuMet al.Randomized controlled trial on effectiveness of intermittent serial casting on spastic equinus foot in children with cerebral palsy after botulinum Toxin-A treatment[J].Am J Phys Med Rehabil201796(4):221-225.DOI:10.1097/PHM.0000000000000627.
[72]
MathevonL, BonanI, BarnaisJLet al.Adjunct therapies to improve outcomes after botulinum toxin injection in children:a systematic review[J].Ann Phys Rehabil Med201962(4):283-290.DOI:10.1016/j.rehab.2018.06.010.
[73]
PicelliA, SantamatoA, ChemelloEet al.Adjuvant treatments associated with botulinum toxin injection for managing spasticity:an overview of the literature[J].Ann Phys Rehabil Med201962(4):291-296.DOI:10.1016/j.rehab.2018.08.004.
[74]
SakzewskiL, ZivianiJ, BoydRN.Efficacy of upper limb therapies for unilateral cerebral palsy:a meta-analysis[J].Pediatrics2014133(1):e175-204.DOI:10.1542/peds.2013-0675.
[75]
PatelDR, NeelakantanM, PandherKet al.Cerebral palsy in children:a clinical overview[J].Transl Pediatr20209(Suppl 1):S125-135.DOI:10.21037/tp.2020.01.01.
[76]
MahmudovV, GunayH, KucukLet al.Comparison of single event vs multiple event soft tissue surgeries in the lower extremities with cerebral palsy[J].J Orthop201512(Suppl 2):S171-175.DOI:10.1016/j.jor.2015.10.017.
[77]
McGinleyJL, DobsonF, GaneshalingamRet al.Single-event multilevel surgery for children with cerebral palsy:a systematic review[J].Dev Med Child Neurol201254(2):117-128.DOI:10.1111/j.1469-8749.2011.04143.x.
[78]
AmirmudinNA, LavelleG, TheologisTet al.Multilevel surgery for children with cerebral palsy:a meta-analysis[J].Pediatrics2019143(4):e20183390.DOI:10.1542/peds.2018-3390.
[79]
EdwardsTA, TheologisT, WrightJPredictors affecting outcome after single-event multilevel surgery in children with cerebral palsy:a systematic review[J].Dev Med Child Neurol201860(12):1201-1208.DOI:10.1111/dmcn.13981.
[80]
TakeuchiR, MutsuzakiH, ShimizuYet al.Soft-tissue release for hip subluxation and dislocation in cerebral palsy[J].J Rural Med201712(2):120-125.DOI:10.2185/jrm.2939.
[81]
TerjesenTTo what extent can soft-tissue releases improve hip displacement in cerebral palsy?[J].Acta Orthop201788(6):695-700.DOI:10.1080/17453674.2017.1365471.
[82]
Angelo da SilvaLA, FucsPMMB.Soft tissue surgery as an initial treatment for hip displacement in spastic cerebral palsy[J].SICOT J2020638.DOI:10.1051/sicotj/2020036.
[83]
KlotzM, HirschK, HeitzmannDet al.Distal femoral extension and shortening osteotomy as a part of multilevel surgery in children with cerebral palsy[J].World J Pediatr201713(4):353-359.DOI:10.1007/s12519-016-0086-y.
[84]
OtoM, SarkayaIA, ErdalOAet al.Surgical reconstruction of hip subluxation and dislocation in children with cerebral palsy[J].Eklem Hastalik Cerrahisi201829(1):8-12.DOI:10.5606/ehc.2018.59227.
[85]
HosseinzadehP, BaldwinK, MinaieAet al.Management of hip disorders in patients with cerebral palsy[J].JBJS Rev20208(3):e0148.DOI:10.2106/JBJS.RVW.19.00148.
[86]
ShuklaPY, MannS, BraunSVet al.Unilateral hip reconstruction in children with cerebral palsy:predictors for failure[J].J Pediatr Orthop201333(2):175-181.DOI:10.1097/BPO.0b013e31827d0b73.
[87]
ShoreBJ, ZurakowskiD, DufrenyCet al.Proximal femoral varus de-rotation osteotomy in children with cerebral palsy:the effect of age,gross motor function classification system level,and surgeon volume on surgical success[J].J Bone Joint Surg Am201597(24):2024-2031.DOI:10.2106/JBJS.O.00505.
[88]
RutzE, VavkenP, CamathiasCet al.Long-term results and outcome predictors in one-stage hip reconstruction in children with cerebral palsy[J].J Bone Joint Surg Am201597(6):500-506.DOI:10.2106/JBJS.N.00676.
[89]
BayusentonoS, ChoiY, ChungCYet al.Recurrence of hip instability after reconstructive surgery in patients with cerebral palsy[J].J Bone Joint Surg Am201496(18):1527-1534.DOI:10.2106/JBJS.M.01000.
[90]
CanaveseF, EmaraK, SembranoJNet al.Varus derotation osteotomy for the treatment of hip subluxation and dislocation in GMFCS level Ⅲ to Ⅴ patients with unilateral hip involvement.follow-up at skeletal maturity[J].J Pediatr Orthop201030(4):357-364.DOI:10.1097/BPO.0b013e3181d8fbc1.
[91]
DhawaleAA, KaratasAF, HolmesLet al.Long-term outcome of reconstruction of the hip in young children with cerebral palsy[J].Bone Joint J201395-b(2):259-265.DOI:10.1302/0301-620X.95B2.30374.
[92]
SheaJ, NunallyKD, MillerPEet al.Hip reconstruction in nonambulatory children with cerebral palsy:identifying risk factors associated with postoperative complications and prolonged length of stay[J].J Pediatr Orthop202040(10):e972-977.DOI:10.1097/BPO.0000000000001643.
[93]
RuzbarskyJJ, BeckNA, BaldwinKDet al.Risk factors and complications in hip Reconstruction for nonambulatory patients with cerebral palsy[J].J Child Orthop20137(6):487-500.DOI:10.1007/s11832-013-0536-1.
[94]
CloodtE, RosenbladA, Rodby-BousquetEDemographic and modifiable factors associated with knee contracture in children with cerebral palsy[J].Dev Med Child Neurol201860(4):391-396.DOI:10.1111/dmcn.13659.
[95]
KadhimM, MillerFCrouch gait changes after planovalgus foot deformity correction in ambulatory children with cerebral palsy[J].Gait Posture201439(2):793-798.DOI:10.1016/j.gaitpost.2013.10.020.
[96]
EvansEB.The status of surgery of the lower extremities in cerebral palsy[J].Clin Orthop Relat Res196647127-139.
[97]
WatersRL, PerryJ, McdanielsJMet al.The relative strength of the hamstrings during hip extension[J].J Bone Joint Surg Am197456(8):1592-1597.
[98]
de MattosC, PatrickDK, PierceRet al.Comparison of hamstring transfer with hamstring lengthening in ambulatory children with cerebral palsy:further follow-up[J].J Child Orthop20148(6):513-520.DOI:10.1007/s11832-014-0626-8.
[99]
StoutJL, GageJR, SchwartzMHet al.Distal femoral extension osteotomy and patellar tendon advancement to treat persistent crouch gait in cerebral palsy[J].J Bone Joint Surg Am200890(11):2470-2484.DOI:10.2106/JBJS.G.00327.
[100]
BoyerE, StoutJL, LaineJCet al.Long-term outcomes of distal femoral extension osteotomy and patellar tendon advancement in individuals with cerebral palsy[J].J Bone Joint Surg Am2018100(1):31-41.DOI:10.2106/JBJS.17.00480.
[101]
KayRM, RethlefsenSA.Anterior percutaneous hemiepiphysiodesis of the distal aspect of the femur:a new technique:a case report[J].JBJS Case Connect20155(4):e95.DOI:10.2106/JBJS.CC.O.00057.
[102]
WangKK, NovacheckTF, RozumalskiAet al.Anterior guided growth of the distal femur for knee flexion contracture:clinical,radiographic,and motion analysis results[J].J Pediatr Orthop201939(5):e360-365.DOI:10.1097/BPO.0000000000001312.
[103]
AionaM, DoKP, FengJet al.Comparison of rectus femoris transfer surgery done concomitant with hamstring lengthening or delayed in patients with cerebral palsy[J].J Pediatr Orthop201737(2):107-110.DOI:10.1097/BPO.0000000000000596.
[104]
WrenTA, RethlefsenS, KayRM.Prevalence of specific gait abnormalities in children with cerebral palsy:influence of cerebral palsy subtype,age,and previous surgery[J].J Pediatr Orthop200525(1):79-83.DOI:10.1097/00004694-200501000-00018.
[105]
ArnoldAS, DelpSL.Rotational moment arms of the medial hamstrings and adductors vary with femoral geometry and limb position:implications for the treatment of internally rotated gait[J].J Biomech200134(4):437-447.DOI:10.1016/s0021-9290(00)00232-3.
[106]
NiklaschM, BoyerE, NovacheckTet al.Proximal versus distal femoral derotation osteotomy in bilateral cerebral palsy[J].Dev Med Child Neurol201860(10):1033-1037.DOI:10.1111/dmcn.13910.
[107]
KingHA, StaheliLT.Torsional problems in cerebral palsy[J].Foot Ankle19844(4):180-184.DOI:10.1177/107110078400400403.
[108]
RutzE, McCarthyJ, ShoreBJet al.Indications for gastrocsoleus lengthe-ning in ambulatory children with cerebral palsy:a Delphi consensus study[J].J Child Orthop202014(5):405-414.DOI:10.1302/1863-2548.14.200145.
[109]
KerrAM, KirtleySJ, HillmanSJet al.The mid-point of passive hip rotation range is an indicator of hip rotation in gait in cerebral palsy[J].Gait Posture200317(1):88-91.DOI:10.1016/s0966-6362(02)00056-5.
[110]
KayRM, RethlefsenSA, HaleJMet al.Comparison of proximal and distal rotational femoral osteotomy in children with cerebral palsy[J].J Pediatr Orthop200323(2):150-154.
[111]
KayRM, PierzK, McCarthyJet al.Distal rectus femoris surgery in children with cerebral palsy:results of a Delphi consensus project[J].J Child Orthop202115(3):270-278.DOI:10.1302/1863-2548.15.210044.
[112]
WrenTA, LeningC, RethlefsenSAet al.Impact of gait analysis on correction of excessive hip internal rotation in ambulatory children with cerebral palsy:a randomized controlled trial[J].Dev Med Child Neurol201355(10):919-925.DOI:10.1111/dmcn.12184.
[113]
de Morais FilhoMC, KawamuraCM, Dos SantosCAet al.Outcomes of correction of internal hip rotation in patients with spastic cerebral palsy using proximal femoral osteotomy[J].Gait Posture201236(2):201-204.DOI:10.1016/j.gaitpost.2012.02.015.
[114]
KimH, AionaM, SussmanMRecurrence after femoral derotational osteotomy in cerebral palsy[J].J Pediatr Orthop200525(6):739-743.DOI:10.1097/01.bpo.0000173304.34172.06.
[115]
NiklaschM, WolfSI, KlotzMCet al.Factors associated with recu-rrence after femoral derotation osteotomy in cerebral palsy[J].Gait Posture201542(4):460-465.DOI:10.1016/j.gaitpost.2015.07.059.
[116]
HorschA, GötzeM, GeisbüschAet al.Prevalence and classification of equinus foot in bilateral spastic cerebral palsy[J].World J Pediatr201915(3):276-280.DOI:10.1007/s12519-019-00238-2.
[117]
SinghDNils silfverskiöld (1888-1957) and gastrocnemius contracture[J].Foot Ankle Surg201319(2):135-138.DOI:10.1016/j.fas.2012.12.002.
[118]
GrahamHK, FixsenJA.Lengthening of the calcaneal tendon in spastic hemiplegia by the White slide technique.A long-term review[J].J Bone Joint Surg Br198870(3):472-475.DOI:10.1302/0301-620X.70B3.3372574.
[119]
ThomasonP, SelberP, GrahamHK.Single event multilevel surgery in children with bilateral spastic cerebral palsy:a 5 year prospective cohort study[J].Gait Posture201337(1):23-28.DOI:10.1016/j.gaitpost.2012.05.022.
[120]
ShoreBJ, WhiteN, KerrGH.Surgical correction of equinus deformity in children with cerebral palsy:a systematic review[J].J Child Orthop20104(4):277-290.DOI:10.1007/s11832-010-0268-4.
[121]
Persson-BunkeM, HögglundG, Lauge-PedersenHet al.Scoliosis in a total population of children with cerebral palsy[J].Spine (Phila Pa 1976)201237(12):E708-713.DOI:10.1097/BRS.0b013e318246a962.
[122]
LonsteinJE, AkbarniaAOperative treatment of spinal deformities in patients with cerebral palsy or mental retardation.An analysis of one hundred and seven cases[J].J Bone Joint Surg Am198365(1):43-55.
[123]
LarssonEL, AaroS, NormelliHCet al.Long-term follow-up of functioning after spinal surgery in patients with neuromuscular scoliosis[J].Spine (Phila Pa 1976)200530(19):2145-2152.DOI:10.1097/01.brs.0000180403.11757.6a.
[124]
BohtzC, Meyer-HeimA, MinKChanges in health-related quality of life after spinal fusion and scoliosis correction in patients with cerebral palsy[J].J Pediatr Orthop201131(6):668-673.DOI:10.1097/BPO.0b013e318221093c.
[125]
ThometzJG, SimonSR.Progression of scoliosis after skeletal maturity in institutionalized adults who have cerebral palsy[J].J Bone Joint Surg Am198870(9):1290-1296.
[126]
ComstockCP, LeachJ, WengerDR.Scoliosis in total-body-involvement cerebral palsy.Analysis of surgical treatment and patient and caregiver satisfaction[J].Spine (Phila Pa 1976)199823(12):1412-1425.DOI:10.1097/00007632-199806150-00022.
[127]
BensonER, ThomsonJD, SmithBGet al.Results and morbidity in a consecutive series of patients undergoing spinal fusion for neuromuscular scoliosis[J].Spine (Phila Pa 1976)199823(21):2308-2318.DOI:10.1097/00007632-199811010-00012.
[128]
YaszayB, BartleyCE, SponsellerPDet al.Major complications follo-wing surgical correction of spine deformity in 257 patients with cerebral palsy[J].Spine Deform20208(6):1305-1312.DOI:10.1007/s43390-020-00165-7.
[129]
MiyanjiF, NastoLA, SponsellerPDet al.Assessing the risk-benefit ratio of scoliosis surgery in cerebral palsy:surgery is worth it[J].J Bone Joint Surg Am2018100(7):556-563.DOI:10.2106/JBJS.17.00621.
[130]
BansalA, WallLB, GoldfarbCA.Cerebral palsy tendon transfers:flexor carpi ulnaris to extensor carpi radialis brevis and extensor pollicis longus reroutement[J].Hand Clin201632(3):423-430.DOI:10.1016/j.hcl.2016.03.010.
[131]
HoJJ, WangTM, JySet al.Pronator teres transfer for forearm and wrist deformity in cerebral palsy children[J].J Pediatr Orthop201535(4):412-418.DOI:10.1097/BPO.0000000000000276.
[132]
DonadioJ, UpexP, BachyMet al.Wrist arthrodesis in adolescents with cerebral palsy[J].J Hand Surg Eur Vol201641(7):758-762.DOI:10.1177/1753193415625611.
[133]
FasanoVA, BroggiG, Barolat-RomanaGet al.Surgical treatment of spasticity in cerebral palsy[J].Childs Brain19784(5):289-305.DOI:10.1159/000119785.
[134]
PeacockWJ, ArensLJ, BermanBCerebral palsy spasticity.Selective posterior rhizotomy[J].Pediatr Neurosci198713(2):61-66.DOI:10.1159/000120302.
[135]
AbbottRThe selective dorsal rhizotomy technique for spasticity in 2020:a review[J].Childs Nerv Syst202036(9):1895-1905.DOI:10.1007/s00381-020-04765-6.
[136]
ParentA, MaroisP, LetellierGet al.Experience-based decision-tree process for selective dorsal rhizotomy in children with cerebral palsy[J].Ann Phys Rehabil Med202164(3):101287.DOI:10.1016/j.rehab.2019.06.010.
[137]
SummersJ, CokerB, EddySet al.Selective dorsal rhizotomy in ambulant children with cerebral palsy:an observational cohort study[J].Lancet Child Adolesc Health20193(7):455-462.DOI:10.1016/S2352-4642(19)30119-1.
[138]
AilonT, BeauchampR, MillerSet al.Long-term outcome after selective dorsal rhizotomy in children with spastic cerebral palsy[J].Childs Nerv Syst201531(3):415-423.DOI:10.1007/s00381-015-2614-9.
[139]
MungerME, AldahondoN, KrachLEet al.Long-term outcomes after selective dorsal rhizotomy:a retrospective matched cohort study[J].Dev Med Child Neurol201759(11):1196-1203.DOI:10.1111/dmcn.13500.
[140]
MortensonP, SadashivaN, TamberMSet al.Long-term upper extremity performance in children with cerebral palsy following selective dorsal rhizotomy[J].Childs Nerv Syst202137(6):1983-1989.DOI:10.1007/s00381-020-05018-2.
[141]
HasnatMJ, RiceJE.Intrathecal baclofen for treating spasticity in children with cerebral palsy[J].Cochrane Database Syst Rev201513(11):CD004552.DOI:10.1002/14651858.CD004552.pub2.
[142]
KrausT, GegenleitnerK, SvehlikMet al.Long-term therapy with intrathecal baclofen improves quality of life in children with severe spastic cerebral palsy[J].Eur J Paediatr Neurol201721(3):565-569.DOI:10.1016/j.ejpn.2017.01.016.
[143]
BonouvriéLA, BecherJG, VlesJet al.The effect of intrathecal baclofen in dyskinetic cerebral palsy:the IDYS trial[J].Ann Neurol201986(1):79-90.DOI:10.1002/ana.25498.
[144]
ChanDY, ChanSS, ChanEKet al.Blessing or burden? Long-term maintenance,complications and clinical outcome of intrathecal baclofen pumps[J].Surg Pract201822(3):105-110.DOI:10.1111/1744-1633.12308.
[145]
CoffeyRJ, EdgarTS, FranciscoGEet al.Abrupt withdrawal from intrathecal baclofen:recognition and management of a potentially life-threatening syndrome[J].Arch Phys Med Rehabil200283(6):735-741.DOI:10.1053/apmr.2002.32820.
[146]
AldenTD, LytleRA, ParkTSet al.Intrathecal baclofen withdrawal:a case report and review of the literature[J].Childs Nerv Syst200218(9/10):522-525.DOI:10.1007/s00381-002-0634-8.
[147]
WatveSV, SivanM, RazaWAet al.Management of acute overdose or withdrawal state in intrathecal baclofen therapy[J].Spinal Cord201250(2):107-111.DOI:10.1038/sc.2011.112.
[148]
AlwhaibiR, AlsakhawiR, ElkholiSEffects of auditovisual feedback on eye-hand coordination in children with cerebral palsy[J].Res Dev Disabil2020101103635.DOI:10.1016/j.ridd.2020.103635.
[149]
JoungHJ, ParkJ, AhnJet al.Effects of creative dance-based exercise on gait performance in adolescents with cerebral palsy[J].J Exerc Rehabil202016(4):332-343.DOI:10.12965/jer.2040384.192.
[150]
CherriereC, RobertM, FungKet al.Is there evidence of benefits associated with dancing in children and adults with cerebral palsy? A scoping review[J].Disabil Rehabil202042(23):3395-3402.DOI:10.1080/09638288.2019.1590866.
[151]
López-OrtizC, Gaebler-SpiraDJ, McKeemanSNet al.Dance and rehabilitation in cerebral palsy:a systematic search and review[J].Dev Med Child Neurol201961(4):393-398.DOI:10.1111/dmcn.14064.
[152]
CherriereC, MartelM, SarrasinAet al.Benefits of a dance intervention on balance in adolescents with cerebral palsy[J].Phys Occup Ther Pediatr202040(5):518-533.DOI:10.1080/01942638.2020.1720053.
[153]
JoungHJ, YangHK, LeeYEffect of dance on balance,mobility,and activities of daily living in adults with cerebral palsy:a pilot study[J].Front Neurol202112663060.DOI:10.3389/fneur.2021.663060.
[154]
Teixeira-MachadoL, DesantanaJM.Effect of dance on lower-limb range of motion in young people with cerebral palsy:a blinded randomized controlled clinical trial[J].Adolesc Health Med Ther20191021-28.DOI:10.2147/AHMT.S177867.
[155]
LakesKD, SharpK, Grant-BeuttlerMet al.A six week therapeutic ballet intervention improved gait and inhibitory control in children with cerebral palsy-A pilot study[J].Front Public Health20197137.DOI:10.3389/fpubh.2019.00137.
[156]
TeradaK, SatonakaA, TeradaYet al.Training effects of wheelchair dance on aerobic fitness in bedridden individuals with severe athetospastic cerebral palsy rated to GMFCS level V[J].Eur J Phys Rehabil Med201753(5):744-750.DOI:10.23736/S1973-9087.17.04486-0.
[157]
WithersJW, MuzzolonSB, ZontaMB.Influence of adapted hip-hop dancing on quality of life and social participation among children/adolescents with cerebral palsy[J].Arq Neuropsiquiatr201977(10):712-722.DOI:10.1590/0004-282X20190124.
[158]
ChappellA, AllisonGT, WilliamsGet al.The effect of a running training intervention on ankle power Generation in children and adolescents with cerebral palsy:a randomized controlled trial[J].Clin Biomech (Bristol,Avon)202076105024.DOI:10.1016/j.clinbiomech.2020.105024.
[159]
ArmstrongEL, SpencerS, KentishMJet al.Efficacy of cycling interventions to improve function in children and adolescents with cerebral palsy:a systematic review and meta-analysis[J].Clin Rehabil201933(7):1113-1129.DOI:10.1177/0269215519837582.
[160]
MakC, WhittinghamK, CunningtonRet al.Effect of mindfulness yoga programme MiYoga on attention,behaviour,and physical outcomes in cerebral palsy:a randomized controlled trial[J].Dev Med Child Neurol201860(9):922-932.DOI:10.1111/dmcn.13923.
[161]
MakCK, WhittinghamK, BoydRN.Experiences of children and parents in MiYoga,an embodied mindfulness yoga program for cerebral palsy:a mixed method study[J].Complement Ther Clin Pract201934208-216.DOI:10.1016/j.ctcp.2018.12.006.
[162]
彭利娟余文玉侯雪勤沙盘游戏疗法治疗脑性瘫痪儿童心理障碍的疗效分析[J].中华物理医学与康复杂志201739(11):845-847.DOI:10.3760/cma.j.issn.0254-1424.2017.11.012.
PengLJ, YuWY, HouXQet al.Efficacy analysis of sandplay therapy in the treatment of mental disorders in children with cerebral palsy[J].Chin J Phys Med Rehabil201739(11):845-847.DOI:10.3760/cma.j.issn.0254-1424.2017.11.012.
[163]
张昊刘伟冯蕊沙盘游戏联合引导式健康教育在小儿脑瘫康复治疗中的应用[J].实用临床医药杂志201822(18):105-107.DOI:10.7619/jcmp.201818031.
ZhangH, LiuW, FengRApplication of Sandbox games and guided health education in rehabilitation treatment of children with cerebral palsy[J].J Clin Med Pract201822(18):105-107.DOI:10.7619/jcmp.201818031.
[164]
JungS, SongS, LeeDet al.Effects of kinect video game training on lower extremity motor function,balance,and gait in adolescents with spastic diplegia cerebral palsy:a pilot randomized controlled trial[J].Dev Neurorehabil202124(3):159-165.DOI:10.1080/17518423.2020.1819458.
[165]
SzturmT, ParmarST, MehtaKet al.Game-based dual-task exercise program for children with cerebral palsy:blending balance,visuomotor and cognitive training:feasibility randomized control trial[J].Sensors (Basel)202222(3):761.DOI:10.3390/s22030761.
[166]
CamaraMF, AntunesPP, SouzaJDet al.Motor improvement using motion sensing game devices for cerebral palsy rehabilitation[J].J Mot Behav201749(3):273-280.DOI:10.1080/00222895.2016.1191422.
[167]
Gatica-RojasV, Méndez-RebolledoG, Guzman-MuñozEet al.Does Nintendo Wii balance board improve standing balance? A randomized controlled trial in children with cerebral palsy[J].Eur J Phys Rehabil Med201753(4):535-544.DOI:10.23736/S1973-9087.16.04447-6.
[168]
SajanJE, JohnJA, GracePet al.Wii-based interactive video games as a supplement to conventional therapy for rehabilitation of children with cerebral palsy:a pilot,randomized controlled trial[J].Dev Neurorehabil201720(6):361-367.DOI:10.1080/17518423.2016.1252970.
[169]
PinTW.Effectiveness of interactive computer play on balance and postural control for children with cerebral palsy:a systematic review[J].Gait Posture201973126-139.DOI:10.1016/j.gaitpost.2019.07.122.
[170]
WuJ, LoprinziPD, RenZThe rehabilitative effects of virtual reality games on balance performance among children with cerebral palsy:a Meta-analysis of randomized controlled trials[J].Int J Environ Res Public Health201916(21):4161.DOI:10.3390/ijerph16214161.
[171]
El-ShamySM, El-BannaMF.Effect of Wii training on hand function in children with hemiplegic cerebral palsy[J].Physiother Theory Pract202036(1):38-44.DOI:10.1080/09593985.2018.1479810.
[172]
YildirimY, BudakM, TarakciDet al.The effect of video-based games on hand functions and cognitive functions in cerebral palsy[J].Games Health J202110(3):180-189.DOI:10.1089/g4h.2020.0182.
[173]
AvcilE, TarakciD, ArmanNet al.Upper extremity rehabilitation using video games in cerebral palsy:a randomized clinical trial[J].Acta Neurol Belg2021121(4):1053-1060.DOI:10.1007/s13760-020-01400-8.
[174]
LopesS, MagalhãesP, PereiraAet al.Games used with serious purposes:a systematic review of interventions in patients with cerebral palsy[J].Front Psychol201891712.DOI:10.3389/fpsyg.2018.01712.
[175]
Vinolo-GilMJ, Casado-FernándezE, Perez-CabezasVet al.Effects of the combination of music therapy and physiotherapy in the improvement of motor function in cerebral palsy:a challenge for research[J].Children (Basel)20218(10):868.DOI:10.3390/children8100868.
[176]
Marrades-CaballeroE, Santonja-MedinaCS, Sanz-MengibarJMet al.Neurologic music therapy in upper-limb rehabilitation in children with severe bilateral cerebral palsy:a randomized controlled trial[J].Eur J Phys Rehabil Med201854(6):866-872.DOI:10.23736/S1973-9087.18.04996-1.
[177]
Ben-PaziH, AranA, PandyanAet al.Auditory stimulation improves motor function and caretaker burden in children with cerebral palsy--a randomized double blind study[J].PLoS One201813(12):e0208792.DOI:10.1371/journal.pone.0208792.
[178]
DogruozKB, IcagasiogluAThe effect of therapeutic instrumental music performance method on upper extremity functions in adolescent cerebral palsy[J].Acta Neurol Belg2021121(5):1179-1189.DOI:10.1007/s13760-021-01618-0.
[179]
Alves-PintoA, EhrlichS, ChengGet al.Effects of short-term piano training on measures of finger tapping,somatosensory perception and motor-related brain activity in patients with cerebral palsy[J].Neuropsychiatr Dis Treat2017132705-2718.DOI:10.2147/NDT.S145104.
[180]
KimSJ, GeYO, ShinYKet al.Gait training for adults with cerebral palsy following harmonic modification in rhythmic auditory stimulation[J].Ann N Y Acad Sci20201473(1):11-19.DOI:10.1111/nyas.14306.
[181]
Charry-SánchezJD, PradillaI, Talero-GutiérrezCEffectiveness of animal-assisted therapy in the pediatric population:systematic review and meta-analysis of controlled studies[J].J Dev Behav Pediatr201839(7):580-590.DOI:10.1097/DBP.0000000000000594.
[182]
Lucena-AntónD, Rosety-RodríguezI, Moral-MunozJA.Effects of a hippotherapy intervention on muscle spasticity in children with cerebral palsy:a randomized controlled trial[J].Complement Ther Clin Pract201831188-192.DOI:10.1016/j.ctcp.2018.02.013.
[183]
Martín-ValeroR, Vega-BallónJ, Perez-CabezasVBenefits of hippotherapy in children with cerebral palsy:a narrative review[J].Eur J Paediatr Neurol201822(6):1150-1160.DOI:10.1016/j.ejpn.2018.07.002.
[184]
MutohT, MutohT, TsuboneHet al.Effect of hippotherapy on gait symmetry in children with cerebral palsy:a pilot study[J].Clin Exp Pharmacol Physiol201946(5):506-509.DOI:10.1111/1440-1681.13076.
[185]
ChampagneD, CorriveauH, DugasCEffect of hippotherapy on motor proficiency and function in children with cerebral palsy who walk[J].Phys Occup Ther Pediatr201737(1):51-63.DOI:10.3109/01942638.2015.1129386.
[186]
MutohT, MutohT, TsuboneHet al.Impact of serial gait analyses on long-term outcome of hippotherapy in children and adolescents with cerebral palsy[J].Complement Ther Clin Pract20183019-23.DOI:10.1016/j.ctcp.2017.11.003.
[187]
ŽalienčL, MockevičienD, KreivinieneBet al.Short-term and long-term effects of riding for children with cerebral palsy gross motor functions[J].Biomed Res Int201820184190249.DOI:10.1155/2018/4190249.
[188]
Guindos-SanchezL, Lucena-AntonD, Moral-MunozJAet al.The effectiveness of hippotherapy to recover gross motor function in children with cerebral palsy:a systematic review and meta-analysis[J].Children (Basel)20207(9):106.DOI:10.3390/children7090106.
[189]
MoraesAG, CopettiF, ÂngeloVRet al.Hippotherapy on postural ba-lance in the sitting position of children with cerebral palsy-longitudinal study[J].Physiother Theory Pract202036(2):259-266.DOI:10.1080/09593985.2018.1484534.
[190]
Matusiak-WieczorekE, Dziankowska-ZaborszczykE, SynderMet al.The influence of hippotherapy on the body posture in a sitting position among children with cerebral palsy[J].Int J Environ Res Public Health202017(18):6846.DOI:10.3390/ijerph17186846.
[191]
MutohT, MutohT, TsuboneHet al.Impact of long-term hippotherapy on the walking ability of children with cerebral palsy and quality of life of their caregivers[J].Front Neurol201910834.DOI:10.3389/fneur.2019.00834.
[192]
Silkwood-ShererDJ, McGibbonNH.Can hippotherapy make a diffe-rence in the quality of life of children with cerebral palsy? A pragmatic study[J].Physiother Theory Pract202238(3):390-400.DOI:10.1080/09593985.2020.1759167.
[193]
HemachithraC, MeenaN, RamanathanRet al.Immediate effect of horse riding simulator on adductor spasticity in children with cerebral palsy:a randomized controlled trial[J].Physiother Res Int202025(1):e1809.DOI:10.1002/pri.1809.
[194]
ChinniahH, NatarajanM, RamanathanRet al.Effects of horse riding simulator on sitting motor function in children with spastic cerebral palsy[J].Physiother Res Int202025(4):e1870.DOI:10.1002/pri.1870.
[195]
TekinF, KavlakEShort and long-term effects of whole-body vibration on spasticity and motor performance in children with hemiparetic cerebral palsy[J].Percept Mot Skills2021128(3):1107-1129.DOI:10.1177/0031512521991095.
[196]
李高峰丛燕周大伟全身振动刺激在脑性瘫痪患者临床康复中的应用[J].中华物理医学与康复杂志201638(5):397-400.DOI:10.3760/cma.j.issn.0254-1424.2016.05.020.
LiGF, CongY, ZhouDWet al.Application of whole body vibration stimulation in clinical rehabilitation of patients with cerebral palsy[J].Chin J Phys Med Rehabil201638(5):397-400.DOI:10.3760/cma.j.issn.0254-1424.2016.05.020.
[197]
杨德洪吴雪萍全身振动训练对脑瘫患者的干预效果[J].上海体育学院学报201842(2):100-108.DOI:10.16099/j.sus.2018.02.014.
YangDH, WuXP.Intervention effectiveness of whole body vibration training on patients with cerebral palsy[J].J Shanghai Univ Sport201842(2):100-108.DOI:10.16099/j.sus.2018.02.014.
[198]
KatusicA, AlimovicS, Mejaski-BosnjakVThe effect of vibration the-rapy on spasticity and motor function in children with cerebral palsy:a randomized controlled trial[J].NeuroRehabilitation201332(1):1-8.DOI:10.3233/NRE-130817.
[199]
IbrahimMM, EidMA, MoawdSA.Effect of whole-body vibration on muscle strength,spasticity,and motor performance in spastic diplegic cerebral palsy children[J].Egypt J Med Hum Genet201415(2):173-179.DOI:10.1016/j.ejmhg.2014.02.007.
[200]
TupimaiT, PeungsuwanP, PrasertnooJet al.Effect of combining passive muscle stretching and whole body vibration on spasticity and physical performance of children and adolescents with cerebral palsy[J].J Phys Ther Sci201628(1):7-13.DOI:10.1589/jpts.28.7.
[201]
DickinDC, FaustKA, WangHet al.The acute effects of whole-body vibration on gait parameters in adults with cerebral palsy[J].J Musculoskelet Neuronal Interact201313(1):19-26.DOI:10.1142/S0219635213300011.
[202]
UngerM, JelsmaJ, StarkCEffect of a trunk-targeted intervention using vibration on posture and gait in children with spastic type cerebral palsy:a randomized control trial[J].Dev Neurorehabil201316(2):79-88.DOI:10.3109/17518423.2012.715313.
[203]
LeeBK, ChonSC.Effect of whole body vibration training on mobility in children with cerebral palsy:a randomized controlled experimenter-blinded study[J].Clin Rehabil201327(7):599-607.DOI:10.1177/0269215512470673.
[204]
ChengHY, JuYY, ChenCLet al.Effects of whole body vibration on spasticity and lower extremity function in children with cerebral palsy[J].Hum Mov Sci20153965-72.DOI:10.1016/j.humov.2014.11.003.
[205]
ChengHY, YuYC, WongAMet al.Effects of an eight-week whole body vibration on lower extremity muscle tone and function in children with cerebral palsy[J].Res Dev Disabil201538256-261.DOI:10.1016/j.ridd.2014.12.017.
[206]
FestanteF, AntonelliC, ChornaOet al.Parent-infant interaction du-ring the first year of life in infants at high risk for cerebral palsy:a systematic review of the literature[J].Neural Plast201920195759694.DOI:10.1155/2019/5759694.
[207]
金炳旭钱旭光赵勇脑性瘫痪儿童医院康复与医院-家庭康复模式的成本-效果分析[J].中国康复理论与实践201723(10):1231-1235.DOI:10.3969/j.issn.1006-9771.2017.10.022.
JinBX, QianXG, ZhaoYet al.Cost-effectiveness analysis of hospital rehabilitation and hospital-family rehabilitation in children with cerebral palsy[J].Chin J Rehabil Theor Pract201723(10):1231-1235.DOI:10.3969/j.issn.1006-9771.2017.10.022.
[208]
袁俊英张玮孙二亮脑性瘫痪国际功能,残疾和健康分类-儿童和青少年版核心分类简明通用版的临床应用[J].中华物理医学与康复杂志201840(2):110-114.DOI:10.3760/cma.j.issn.0254-1424.2018.02.007.
YuanJY, ZhangW, SunELet al.Clinical application of the ICF core set for cerebral palsy children[J].Chin J Phys Med Rehabil201840(2):110-114.DOI:10.3760/cma.j.issn.0254-1424.2018.02.007.
[209]
TurgeonP, LaliberteT, RouthierFet al.Preliminary design of an active stabilization assistive eating device for people living with movement disorders[J].IEEE Int Conf Rehabil Robot20192019217-223.DOI:10.1109/ICORR.2019.8779388.
[210]
杨磊李三松张广宇基于ICF-CY核心分类组合的康复治疗方案对脑性瘫痪患儿日常生活能力影响的前瞻性随机对照研究[J].中国当代儿科杂志202123(6):608-612.DOI:10.7499/j.issn.1008-8830.2103060.
YangL, LiSS, ZhangGYet al.Effect of rehabilitation treatment based on the ICF-CY Core Sets on activities of daily living in children with cerebral palsy:a prospective randomized controlled study[J].Chin J Contemp Pediatr202123(6):608-612.DOI:10.7499/j.issn.1008-8830.2103060.
[211]
中华医学会儿科学分会康复学组儿童脑性瘫痪吞咽障碍的康复建议[J].中华儿科杂志202260(3):192-196.DOI:10.3760/cma.j.cn112140-20211208-01029.
The Subspecialty Group of Rehabilitation,the Society of Pediatrics,Chinese Medical Association.Rehabilitation strategy and recommendation for dysphagia in children with cerebral palsy[J].Chin J Pediatr202260(3):192-196.DOI:10.3760/cma.j.cn112140-20211208-01029.
[212]
TurgeonP, DubéM, LalibertéTet al.Mechanical design of a new device to assist eating in people with movement disorders[J].Assist Technol202234(2):170-177.DOI:10.1080/10400435.2020.1734111.
[213]
郑俭脑性瘫痪儿童辅助技术产品的进展:功能特征与典型产品[J].中国康复理论与实践201420(11):1053-1056.DOI:10.3969/j.issn.1006-9771.2014.11.014.
ZhengJAdvance in assistive technology for children with cerebral palsy:functional features and typical products[J].Chin J Rehabil Theor Pract201420(11):1053-1056.DOI:10.3969/j.issn.1006-9771.2014.11.014.
[214]
MandakK, LightJ, BoyleSThe effects of literacy interventions on single-word reading for individuals who use aided AAC:a systematic review[J].Augment Altern Commun201834(3):206-218.DOI:10.1080/07434618.2018.1470668.
[215]
SotoG, ClarkeMT.Conversation-based intervention for adolescents using augmentative and alternative communication[J].Augment Altern Commun201834(3):180-193.DOI:10.1080/07434618.2018.1490926.
[216]
TeglerH, PlessM, BlomJMet al.Caregivers′,teachers′,and assistants′ use and learning of partner strategies in communication using high-tech speech-generating devices with children with severe cerebral palsy[J].Assist Technol202133(1):17-25.DOI:10.1080/10400435.2019.1581303.
[217]
SahinoğluD, CoskunG, BekNEffects of different seating equipment on postural control and upper extremity function in children with cerebral palsy[J].Prosthet Orthot Int201741(1):85-94.DOI:10.1177/0309364616637490.
[218]
GerickeTPostural management for children with cerebral palsy:consensus statement[J].Dev Med Child Neurol200648(4):244.DOI:10.1017/S0012162206000685.
[219]
GoodwinJ, ColverA, BasuAet al.Understanding frames:a UK survey of parents and professionals regarding the use of standing frames for children with cerebral palsy[J].Child Care Health Dev201844(2):195-202.DOI:10.1111/cch.12505.
[220]
PalegGS, SmithBA, GlickmanLB.Systematic review and evidence-based clinical recommendations for dosing of pediatric supported standing programs[J].Pediatr Phys Ther201325(3):232-247.DOI:10.1097/PEP.0b013e318299d5e7.
[221]
陈雨历虹闫诗笛自制下肢姿势维持辅助器具在脑瘫患儿康复护理中的应用[J].护理学杂志201833(20):14-15,35.DOI:10.3870/j.issn.1001-4152.2018.20.014.
ChenY, LiH, YanSDet al.Application a self-made lower extremity prop in rehabilitation exercise for cerebral palsy children[J].J Nurs Sci201833(20):14-15,35.DOI:10.3870/j.issn.1001-4152.2018.20.014.
[222]
沈洁周璇杜青儿童轮椅的临床应用研究进展[J].中国康复理论与实践202127(9):1059-1065.DOI:10.3969/j.issn.1006-9771.2021.09.009.
ShenJ, ZhouX, DuQClinical advance in pediatric wheelchair[J].Chin J Rehabil Theor Pract202127(9):1059-1065.DOI:10.3969/j.issn.1006-9771.2021.09.009.
[223]
JonesMA, McEwenIR, NeasBR.Effects of power wheelchairs on the development and function of young children with severe motor impairments[J].Pediatr Phys Ther201224(2):131-140.DOI:10.1097/PEP.0b013e31824c5fdc.
[224]
FrankAO, de SouzaLH.Problematic clinical features of children and adults with cerebral palsy who use electric powered indoor/outdoor wheelchairs:a cross-sectional study[J].Assist Technol201729(2):68-75.DOI:10.1080/10400435.2016.1201873.
[225]
刘志红董理权戴东痉挛型脑性瘫痪儿童轮椅适配情况的调查[J].中国康复医学杂志201934(3):322-326.DOI:10.3969/j.issn.1001-1242.2019.03.014.
LiuZH, DongLQ, DaiDet al.Investigation of wheelchair adaptation in children with spastic cerebral palsy[J].Chin J Rehabil Med201934(3):322-326.DOI:10.3969/j.issn.1001-1242.2019.03.014.
[226]
EkizT, ÖzbudakDS, SümerHGet al.Wheelchair appropriateness in children with cerebral palsy:a single center experience[J].J Back Musculoskelet Rehabil201730(4):825-828.DOI:10.3233/BMR-150522.
[227]
杜森杰张跃李红英儿童爬行促通训练机器人在痉挛型双瘫患儿康复中应用的效果[J].中国康复理论与实践201824(10):1195-1200.DOI:10.3969/j.issn.1006-9771.2018.10.014.
DuSJ, ZhangY, LiHYet al.Effects of children′s crawling-promotion-training-robot on rehabilitation of children with spastic diplegia[J].Chin J Rehabil Theor Pract201824(10):1195-1200.DOI:10.3969/j.issn.1006-9771.2018.10.014.
[228]
张蓓华宋伟栋冯莉脑性瘫痪儿童腰骶髋矫形器助行装置的设计与研发[J].中国康复医学杂志201833(6):714-717.DOI:10.3969/j.issn.1001-1242.2018.06.019.
ZhangBH, SongWD, FengLet al.Design and development of lumbosacral hip orthopaedic AIDS for children with cerebral palsy[J].Chin J Rehabil Med201833(6):714-717.DOI:10.3969/j.issn.1001-1242.2018.06.019.
[229]
盛传新赵璧基于人机工程的脑瘫儿童助行车设计[J].机械设计201734(5):119-123.DOI:10.13841/j.cnki.jxsj.2017.05.021.
ShengCX, ZhaoBDesign of vehicle aid for children with cerebral palsy based on ergonomics[J].J Mach Des201734(5):119-123.DOI:10.13841/j.cnki.jxsj.2017.05.021.
[230]
HillM, HealyA, ChockalingamNEffectiveness of therapeutic footwear for children:a systematic review[J].J Foot Ankle Res202013(1):23.DOI:10.1186/s13047-020-00390-3.
[231]
杜文静李慧慧谈恩民动踝矫形鞋对脑瘫儿童踝关节的影响[J].暨南大学学报:自然科学与医学版201536(6):530-536.DOI:10.11778/j.jdxb.2015.06.016.
DuWJ, LiHH, TanEMet al.The effect of dynamic ankle-foot orthosis on ankle joints of children with cerebral palsy[J].J Jinan Univ(Natur Sci Med)201536(6):530-536.DOI:10.11778/j.jdxb.2015.06.016.
[232]
DavoudiM, KhosraviFM, BabaeeTet al.The effects of combining high-top shoes with twister wrap orthoses on balance parameters of children with spastic diplegic cerebral palsy[J].J Biomed Phys Eng202212(1):91-100.DOI:10.31661/jbpe.v0i0.2106-1358.
[233]
KoltsovAA, DzhomardlyEI.Analysis of type and frequency dynamics of rehabilitation assistive devices in children with cerebral palsy[J].Pediatr Traumatol Orthop Reconstr Surg20208(2):169-178.DOI:10.17816/PTORS18953.
[234]
OudenhovenLM, KerkumYL, BuizerAIet al.How does a systematic tuning protocol for ankle foot orthosis-footwear combinations affect gait in children in cerebral palsy?[J].Disabil Rehabil20211-11.DOI:10.1080/09638288.2021.1970829.
[235]
ContiniBG, BergaminiE, AlviniMet al.A wearable gait analysis protocol to support the choice of the appropriate ankle-foot orthosis:a comparative assessment in children with cerebral palsy[J].Clin Biomech (Bristol,Avon)201970177-185.DOI:10.1016/j.clinbiomech.2019.08.009.
[236]
ZizieneJ, DaunoravicieneK, JuskenieneGet al.An effect of spinal and ankle-foot orthoses on gait of spastic diplegic child:a case report[J].Technol Health Care202230(1):271-281.DOI:10.3233/THC-219009.
[237]
FirouzehP, SonnenbergLK, MorrisCet al.Ankle foot orthoses for young children with cerebral palsy:a scoping review[J].Disabil Rehabil202143(5):726-738.DOI:10.1080/09638288.2019.1631394.
[238]
LintanfM, BourseulJS, HouxLet al.Effect of ankle-foot orthoses on gait,balance and gross motor function in children with cerebral palsy:a systematic review and meta-analysis[J].Clin Rehabil201832(9):1175-1188.DOI:10.1177/0269215518771824.
[239]
BetancourtJP, EleehP, StarkSet al.Impact of ankle-foot orthosis on gait efficiency in ambulatory children with cerebral palsy:a systematic review and meta-analysis[J].Am J Phys Med Rehabil201998(9):759-770.DOI:10.1097/PHM.0000000000001185.
[240]
刘港马超汪乐踝足矫形器改善脑性瘫痪儿童运动功能:12项随机对照试验证据的Meta分析[J].中国组织工程研究202226(8):1361-1367.DOI:10.12307/2022.239.
LiuG, MaC, WangLet al.Ankle-foot orthoses improve motor function of children with cerebral palsy:a Meta-analysis based on 12 randomized controlled trials[J].J Clin Rehabil Tissue Eng Res202226(8):1361-1367.DOI:10.12307/2022.239.
[241]
李伟吴燕丹踝足矫形器在脑瘫儿童运动康复中的应用研究进展[J].福建师范大学学报:自然科学版201733(3):102-108.DOI:10.12046/j.issn.1000-5277.2017.03.015.
LiW, WuYD.Research progress in application of ankle foot orthosis in sports rehabilitation of children with cerebral palsy[J].J Fujian Normal Univ (Natur Sci)201733(3):102-108.DOI:10.12046/j.issn.1000-5277.2017.03.015.
[242]
KaneKJ, MusselmanK, LanovazJEffects of solid ankle-foot orthoses with individualized ankle angles on gait for children with cerebral palsy and equinus[J].J Pediatr Rehabil Med202013(2):169-183.DOI:10.3233/PRM-190615.
[243]
任武袁志垚杨秀如可调式踝足矫形器结构设计和临床应用研究[J].中国康复医学杂志202237(3):377-380.DOI:10.3969/j.issn.1001-1242.2022.03.016.
RenW, YuanZY, YangXRet al.Adjustable structural design and clinical application analysis of ankle foot orthotics based on foot parame-ters[J].Chin J Rehabil Med202237(3):377-380.DOI:10.3969/j.issn.1001-1242.2022.03.016.
[244]
LeonardR, SweeneyJ, DamianoDet al.Effects of orthoses on standing postural control and muscle activity in children with cerebral palsy[J].Pediatr Phys Ther202133(3):129-135.DOI:10.1097/PEP.0000000000000802.
[245]
LimpaninlachatS, PrasertsukdeeS, PalisanoRJet al.Multidimensional effects of solid and hinged ankle-foot orthosis in children with cerebral palsy[J].Pediatr Phys Ther202133(4):227-235.DOI:10.1097/PEP.0000000000000826.
[246]
SonI, LeeD, HongSet al.Comparison of gait ability of a child with cerebral palsy according to the difference of dorsiflexion angle of hinged ankle-foot orthosis:a case report[J].Am J Case Rep2019201454-1459.DOI:10.12659/AJCR.916814.
[247]
BöhmH, MatthiasH, BraatzFet al.Effect of floor reaction ankle-foot orthosis on crouch gait in patients with cerebral palsy:what can be expected?[J].Prosthet Orthot Int201842(3):245-253.DOI:10.1177/0309364617716240.
[248]
RiesAJ, SchwartzMH.Ground reaction and solid ankle-foot orthoses are equivalent for the correction of crouch gait in children with cerebral palsy[J].Dev Med Child Neurol201961(2):219-225.DOI:10.1111/dmcn.13999.
[249]
WangYL, ChiWC, ChenCLet al.Effects of hinged versus floor-reaction ankle-foot orthoses on standing stability and sit-to-stand performance in children with spastic diplegic cerebral palsy[J].Int J Environ Res Public Health202219(1):542.DOI:10.3390/ijerph19010542.
[250]
MacfarlaneC, OrrR, HingWSensomotoric orthoses,ankle-foot orthoses,and children with cerebral palsy:the bigger picture[J].Children (Basel)20207(8):82.DOI:10.3390/children7080082.
[251]
MeynsP, KerkumYL, BrehmMet al.Ankle foot orthoses in cerebral palsy:effects of ankle stiffness on trunk kinematics,gait stability and energy cost of walking[J].Eur J Paediatr Neurol20202668-74.DOI:10.1016/j.ejpn.2020.02.009.
[252]
叶长青许晶莉高晶夜间膝踝足矫形器治疗痉挛型双瘫患儿的疗效观察[J].中国康复201631(4):301-302.DOI:10.3870/zgkf.2016.04.021.
YeCQ, XuJL, GaoJet al.Effect of night knee ankle-foot orthosis on children with spasmodic diplegia[J].Chin J Rehabil201631(4):301-302.DOI:10.3870/zgkf.2016.04.021.
[253]
MaasJC, DallmeijerAJ, OudshoornBYet al.Measuring wearing time of knee-ankle-foot orthoses in children with cerebral palsy:comparison of parent-report and objective measurement[J].Disabil Rehabil201840(4):398-403.DOI:10.1080/09638288.2016.1258434.
[254]
周炫孜肖农黄琴蓉下肢矫形器在脑瘫患儿中的应用[J].中华物理医学与康复杂志202042(12):1139-1141.DOI:10.3760/cma.j.issn.0254-1424.2020.12.021.
ZhouXZ, XiaoN, HuangQR.Application of lower limb orthosis in children with cerebral palsy[J].Chin J Phys Med Rehabil202042(12):1139-1141.DOI:10.3760/cma.j.issn.0254-1424.2020.12.021.
[255]
LernerZF, DamianoDL, ParkHSet al.A robotic exoskeleton for treatment of crouch gait in children with cerebral palsy:design and initial application[J].IEEE Trans Neural Syst Rehabil Eng201725(6):650-659.DOI:10.1109/TNSRE.2016.2595501.
[256]
PataneF, RossiS, del SetteFet al.WAKE-Up exoskeleton to assist children with cerebral palsy:design and preliminary evaluation in level walking[J].IEEE Trans Neural Syst Rehabil Eng201725(7):906-916.DOI:10.1109/TNSRE.2017.2651404.
[257]
李文英伍丹卞瑞豪可调式"A"字架矫形器对痉挛型脑性瘫痪患儿步态的影响[J].中国康复医学杂志201833(4):441-443.DOI:10.3969/j.issn.1001-1242.2018.04.013.
LiWY, WuD, BianRHet al.Effect of adjustable " A" orthosis on gait of children with spastic cerebral palsy[J].Chin J Rehabil Med201833(4):441-443.DOI:10.3969/j.issn.1001-1242.2018.04.013.
[258]
朱俞岚孙莉敏张备下肢矫形器在小儿脑性瘫痪的应用研究进展[J].神经损伤与功能重建201510(2):151-154.DOI:10.3870/sjsscj.2015.02.019.
ZhuYL, SunLM, ZhangBet al.Research progress of lower extremity orthosis in children with cerebral palsy[J].Neural Inj Funct Reconstr201510(2):151-154.DOI:10.3870/sjsscj.2015.02.019.
[259]
KusumotoY, MatsudaT, FujiiKet al.Effects of an underwear-type hip abduction orthosis on sitting balance and sit-to-stand activities in children with spastic cerebral palsy[J].J Phys Ther Sci201830(10):1301-1304.DOI:10.1589/jpts.30.1301.
[260]
李杜娟周云脑瘫患儿继发髋关节脱位的防治研究进展[J].中华物理医学与康复杂志202143(1):91-94.DOI:10.3760/cma.j.issn.0254-1424.2021.01.025.
LiDJ, ZhouYResearch progress on prevention and treatment of se-condary dislocation of hip joint in children with cerebral palsy[J].Chin J Phys Med Rehabil202143(1):91-94.DOI:10.3760/cma.j.issn.0254-1424.2021.01.025.
[261]
孔亚敏李华伟谢克功生物力学矫形鞋垫对痉挛型脑性瘫痪足外翻患儿下肢功能及步态的影响[J].中国儿童保健杂志202129(11):1161-1166.DOI:10.11852/zgetbjzz2021-0488.
KongYM, LiHW, XieKGet al.Effect of biomechanics correction insole on lower limb function and gait of spastic cerebral palsy children with hallux valgus[J].Chin J Child Health Care202129(11):1161-1166.DOI:10.11852/zgetbjzz2021-0488.
[262]
刘帅孙强三ICB矫形鞋垫有纠正痉挛型双瘫患儿平衡、步行能力及下肢生物力线的作用[J].中国组织工程研究202024(33):5272-5276.DOI:10.3969/j.issn.2095-4344.2341.
LiuS, SunQS.ICB orthotic insole can correct balance,walking ability and biological force line of lower limbs in children with spastic diplegia[J].J Clin Rehabil Tissue Eng Res202024(33):5272-5276.DOI:10.3969/j.issn.2095-4344.2341.
[263]
郭爽李晓捷张尚生物力学矫形鞋垫对脑瘫伴足外翻儿童下肢功能的疗效[J].中国儿童保健杂志201826(5):575-578.DOI:10.11852/zgetbjzz2018-26-05-31.
GuoS, LiXJ, ZhangSet al.Efficacy of biomechanical orthopedic insoles for lower extremity function of spastic cerebral palsy children with foot valgus[J].Chin J Child Health Care201826(5):575-578.DOI:10.11852/zgetbjzz2018-26-05-31.
[264]
孙二亮袁俊英朱登纳矫正鞋垫对脑瘫儿童平衡能力及粗大运动功能的影响[J].中华物理医学与康复杂志201840(2):129-131.DOI:10.3760/cma.j.issn.0254-1424.2018.02.012.
SunEL, YuanJY, ZhuDNet al.Effect of corrective insoles on balance and gross motor function in children with cerebral palsy[J].Chin J Phys Med Rehabil201840(2):129-131.DOI:10.3760/cma.j.issn.0254-1424.2018.02.012.
[265]
KusumotoY, TsuchiyaJ, WatanabeYet al.Characteristics of dynamic standing balance with and without an insole in patients with spastic diplegia cerebral palsy[J].J Phys Ther Sci202032(1):23-26.DOI:10.1589/jpts.32.23.
[266]
PasinNH, GreccoL, FerreiraLet al.Postural insoles on gait in children with cerebral palsy:randomized controlled double-blind clinical trial[J].J Bodyw Mov Ther201721(4):890-895.DOI:10.1016/j.jbmt.2017.03.005.
[267]
KimHT, LimSW.The effects of insoles for postural correction on spatial-temporal changes of gait in spastic cerebral palsy children[J].J Int Acad Phys Ther Res20156(2):840-845.DOI:10.5854/JIAPTR.2015.10.30.840.
[268]
郑宏磊梁岗岗悬吊运动训练对小儿痉挛型偏瘫的康复效果[J].中国康复医学杂志201126(4):371-373.DOI:10.3969/j.issn.1001-1242.2011.04.017.
ZhengHL, LiangGG.Effect of suspension exercise training on rehabilitation of spastic hemiplegia in children[J].Chin J Rehabil Med201126(4):371-373.DOI:10.3969/j.issn.1001-1242.2011.04.017.
[269]
高志萍熊华春肖宁悬吊训练对脑瘫患儿姿势控制及平衡能力的影响[J].中华物理医学与康复杂志201840(11):854-857.DOI:10.3760/cma.j.issn.0254-1424.2018.11.010.
GaoZP, XiongHC, XiaoNet al.Effect of suspension training on postural control and balance ability in children with cerebral palsy[J].Chin J Phys Med Rehabil201840(11):854-857.DOI:10.3760/cma.j.issn.0254-1424.2018.11.010.
[270]
吴德萍段军崔珍珍基于悬吊运动系统的骨盆稳定性训练法对痉挛型脑性瘫痪儿童粗大运动功能的影响[J].中国康复医学杂志202035(5):533-538.DOI:10.3969/j.issn.1001-1242.2020.05.005.
WuDP, DuanJ, CuiZZet al.The effect of pelvic stability training based on sling exercise therapy on the gross motor function of the children with spastic cerebral palsy[J].Chin J Rehabil Med202035(5):533-538.DOI:10.3969/j.issn.1001-1242.2020.05.005.
[271]
张莉莉刘一苇叶常州悬吊运动训练结合家庭姿势管理对痉挛型脑瘫儿童粗大运动功能、平衡功能和日常生活活动能力的影响[J].中华物理医学与康复杂志202143(10):927-929.DOI:10.3760/cma.j.issn.0254-1424.2021.10.015.
ZhangLL, LiuYW, YeCZet al.Effects of suspension exercise training combined with family posture management on gross motor function,ba-lance function and daily living activities of children with spastic cerebral palsy[J].Chin J Phys Med Rehabil202143(10):927-929.DOI:10.3760/cma.j.issn.0254-1424.2021.10.015.
[272]
王少锋童光磊张庆庆悬吊技术结合针刺治疗对痉挛型脑瘫患儿粗大运动功能和日常生活活动能力的影响[J].中国儿童保健杂志202129(11):1261-1264.DOI:10.11852/zgetbjzz2021-0033.
WangSF, TongGL, ZhangQQet al.Effect of suspension technique combined with acupuncture treatment on the gross motor function and activities of daily living in children with spastic cerebral palsy[J].Chin J Child Health Care202129(11):1261-1264.DOI:10.11852/zgetbjzz2021-0033.
[273]
王军郎永斌杜江华悬吊运动训练对痉挛型脑瘫患儿运动及平衡功能的影响[J].中国当代儿科杂志201820(6):465-469.DOI:10.7499/j.issn.1008-8830.2018.06.007.
WangJ, LangYB, DuJHet al.Effect of suspension exercise training on motor and balance functions in children with spastic cerebral palsy[J].Chin J Contemp Pediatr201820(6):465-469.DOI:10.7499/j.issn.1008-8830.2018.06.007.
[274]
任素伟林春孟兆祥肌内效贴结合悬吊训练对痉挛型偏瘫患儿运动功能的效果[J].中国康复理论与实践201622(11):1310-1313.DOI:10.3969/j.issn.1006-9771.2016.11.015.
RenSW, LinC, MengZXet al.Effects of kinesio taping combining with sling exercise on motor function for children with spastic hemiplegia[J].Chin J Rehabil Theor Pract201622(11):1310-1313.DOI:10.3969/j.issn.1006-9771.2016.11.015.
[275]
胡淑珍尹宏伟阮雯聪悬吊训练对痉挛型脑瘫患儿平衡功能和粗大运动功能的影响[J].中华物理医学与康复杂志202042(11):1011-1013.DOI:10.3760/cma.j.issn.0254-1424.2020.11.012.
HuSZ, YinHW, RuanWCet al.Effect of suspension training on ba-lance function and gross motor function in children with spastic cerebral palsy[J].Chin J Phys Med Rehabil202042(11):1011-1013.DOI:10.3760/cma.j.issn.0254-1424.2020.11.012.
[276]
SongEJ, LeeEJ, KwonHY.The effects of sling exercise program on balance and body activities in children with spastic cerebral palsy[J].J Exerc Rehabil202117(6):410-417.DOI:10.12965/jer.2142608.304.
[277]
康贝贝徐磊范艳萍儿童悬吊运动训练系统治疗不随意运动型脑性瘫痪的临床研究[J].中国康复医学杂志201833(5):556-558.DOI:10.3969/j.issn.1001-1242.2018.05.012.
KangBB, XuL, FanYPet al.Clinical study of children with involuntary motor cerebral palsy treated by suspension motor training system[J].Chin J Rehabil Med201833(5):556-558.DOI:10.3969/j.issn.1001-1242.2018.05.012.
[278]
王春华范桃林周文颖悬吊运动训练联合肌内效贴对不随意运动型脑瘫患儿下肢运动功能的疗效研究[J].中国儿童保健杂志202129(7):763-766.DOI:10.11852/zgetbjzz2020-1877.
WangCH, FanTL, ZhouWYet al.Study on efficacy of lower limb motor function of sling exercise therapy combined with kinesio taping on dyskinetic cerebral palsy[J].Chin J Child Health Care202129(7):763-766.DOI:10.11852/zgetbjzz2020-1877.
[279]
MahaniMK, KarimlooM, AmirsalariSEffects of modified adeli suit therapy on improvement of gross motor function in children with cerebral palsy[J].Hong Kong J Occup Ther201121(1):9-14.DOI:10.1016/j.hkjot.2011.05.001.
[280]
LeeBH.Clinical usefulness of Adeli suit therapy for improving gait function in children with spastic cerebral palsy:a case study[J].J Phys Ther Sci201628(6):1949-1952.DOI:10.1589/jpts.28.1949.
[281]
江雨擎张丽华康贝贝全方位密集运动训练对痉挛型双瘫脑性瘫痪儿童运动功能的影响[J].中国中西医结合儿科学202012(5):426-429.DOI:10.3969/j.issn.1674-3865.2020.05.016.
JiangYQ, ZhangLH, KangBBet al.Effects of intensive therapy program on motor function of children with spastic diplegic cerebral palsy[J].Chin Pediatr Integr Tradit West Med202012(5):426-429.DOI:10.3969/j.issn.1674-3865.2020.05.016.
[282]
MartinsE, CordovilR, OliveiraRet al.Efficacy of suit therapy on functioning in children and adolescents with cerebral palsy:a systematic review and meta-analysis[J].Dev Med Child Neurol201658(4):348-360.DOI:10.1111/dmcn.12988.
[283]
张蓓华宋伟栋严善钟全方位密集型运动训练系统对痉挛型脑瘫儿童粗大运动功能的影响[J].医用生物力学201732(6):529-534.DOI:10.16156/j.1004-7220.2017.06.008.
ZhangBH, SongWD, YanSZet al.Effects of intensive therapy program on gross motor function of children with spastic cerebral palsy[J].J Med Biomech201732(6):529-534.DOI:10.16156/j.1004-7220.2017.06.008.
[284]
蔡小娥黄真肌内效贴在脑性瘫痪儿童中的应用[J].中国康复理论与实践201521(10):1168-1172.DOI:10.3969/j.issn.1006-9771.2015.10.010.
CaiXE, HuangZApplication of kinesio taping in children with cerebral palsy[J].Chin J Rehabil Theor Pract201521(10):1168-1172.DOI:10.3969/j.issn.1006-9771.2015.10.010.
[285]
ŞimşekTT, TürkücüoğluB, ÇokalNet al.The effects of Kinesio® taping on sitting posture,functional independence and gross motor function in children with cerebral palsy[J].Disabil Rehabil201133(21-22):2058-2063.DOI:10.3109/09638288.2011.560331.
[286]
戴燕琼陈丽唐亮矫形鞋垫联合运动贴扎技术对偏瘫型脑性瘫痪患儿姿势控制效果的临床研究[J].中国康复医学杂志202035(1):65-68.DOI:10.3969/j.issn.1001-1242.2020.01.013.
DaiYQ, ChenL, TangLClinical study on the effect of orthopedic insole combined with sports sticking technique on posture control of children with hemiplegic cerebral palsy[J].Chin J Rehabil Med202035(1):65-68.DOI:10.3969/j.issn.1001-1242.2020.01.013.
[287]
Dos SantosAN, VisicattoLP, De OliveiraABet al.Effects of kinesio taping in rectus femoris activity and sit-to-stand movement in children with unilateral cerebral palsy:placebo-controlled,repeated-measure design[J].Disabil Rehabil201941(17):2049-2059.DOI:10.1080/09638288.2018.1458912.
[288]
周文萍余波陈文华肌内效贴配合运动疗法治疗肌张力低下型脑瘫患儿的临床疗效观察[J].中国康复医学杂志201429(10):938-940.DOI:10.3969/j.issn.1001-1242.2014.10.008.
ZhouWP, YuB, ChenWHet al.Clinical observation on therapeutic effect of intramuscular plaster combined with exercise therapy on children with hypotonia cerebral palsy[J].Chin J Rehabil Med201429(10):938-940.DOI:10.3969/j.issn.1001-1242.2014.10.008.
[289]
UngerM, CarstensJP, FernandesNet al.The efficacy of kinesiology taping for improving gross motor function in children with cerebral palsy:a systematic review[J].S Afr J Physiother201874(1):459.DOI:10.4102/sajp.v74i1.459.
[290]
艾春玲杜娇娇焦艳冬肌内效贴在痉挛型和手足徐动型脑性瘫痪患儿康复治疗中的效果[J].中国妇幼保健201732(15):3529-3533.DOI:10.7620/zgfybj.j.issn.1001-4411.2017.15.46.
AiCL, DuJJ, JiaoYDet al.Therapeutic effect of kinesio taping in rehabilitation therapy of spastic and athetosic cerebral palsy children[J].Chin J Mater Child Health Care201732(15):3529-3533.DOI:10.7620/zgfybj.j.issn.1001-4411.2017.15.46.
[291]
García-HernándezN, Corona-CortésJ, García-FuentesLet al.Biomechanical and functional effects of shoulder kinesio taping® on cerebral palsy children interacting with virtual objects[J].Comput Methods Biomech Biomed Engin201922(6):676-684.DOI:10.1080/10255842.2019.1580361.
[292]
顾小元曹建国贠国俊肌内效贴结合作业治疗对偏瘫型脑性瘫痪上肢功能的疗效观察[J].中国康复医学杂志201833(2):225-227.DOI:10.3969/j.issn.1001-1242.2018.02.022.
GuXY, CaoJG, YuanGJet al.Observation on the therapeutic effect of intramuscular plaster combined with occupational therapy on upper limb function of hemiplegic cerebral palsy[J].Chin J Rehabil Med201833(2):225-227.DOI:10.3969/j.issn.1001-1242.2018.02.022.
[293]
Yoshimura MikamiDL, Barbosa FuriaCL.Addition of kinesio taping of the orbicularis oris muscles to speech therapy rapidly improves drooling in children with neurological disorders[J].Dev Neurorehabil201922(1):13-18.DOI:10.1080/17518423.2017.1368729.
[294]
王荣丽周志浩席宇诚机器人辅助脑瘫儿童踝关节康复临床初步研究[J].北京大学学报:医学版201850(2):207-212.DOI:10.3969/j.issn.1671-167X.2018.02.002.
WangRL, ZhouZH, XiYCet al.Preliminary study of robot-assisted ankle rehabilitation for children with cerebral palsy[J].J Peking Univ Health Sci201850(2):207-212.DOI:10.3969/j.issn.1671-167X.2018.02.002.
[295]
沈威刘初容陈小芳触发点针刺联合下肢机器人训练对脑性瘫痪患儿腘绳肌痉挛疗效的临床观察[J].中国康复医学杂志202237(2):195-201.DOI:10.3969/j.issn.1001-1242.2022.02.009.
ShenW, LiuCR, ChenXFet al.Clinical observation of trigger point acupuncture combined with lower limb robot training on hamstring spasm in children with cerebral palsy[J].Chin J Rehabil Med202237(2):195-201.DOI:10.3969/j.issn.1001-1242.2022.02.009.
[296]
KimSK, ParkD, YooBet al.Overground robot-assisted gait training for pediatric cerebral palsy[J].Sensors (Basel)202121(6):2087.DOI:10.3390/s21062087.
[297]
VolpiniM, AquinoM, HolandaACet al.Clinical effects of assisted robotic gait training in walking distance,speed,and functionality are maintained over the long term in individuals with cerebral palsy:a systematic review and meta-analysis[J].Disabil Rehabil202171-11.DOI:10.1080/09638288.2021.1942242.
[298]
马婷婷张皓机器人辅助步态训练对痉挛型脑性瘫痪患儿运动和步行功能的效果[J].中国康复理论与实践202127(11):1260-1265.DOI:10.3969/j.issn.1006-9771.2021.11.004.
MaTT, ZhangHEffect of robotic-assisted gait training on motor and walking for children with spastic cerebral palsy[J].Chin J Rehabil Theor Pract202127(11):1260-1265.DOI:10.3969/j.issn.1006-9771.2021.11.004.
[299]
PoolD, ValentineJ, TaylorNFet al.Locomotor and robotic assistive gait training for children with cerebral palsy[J].Dev Med Child Neurol202163(3):328-335.DOI:10.1111/dmcn.14746.
[300]
MolinaroA, MichelettiS, PaganiFet al.Action observation treatment in a telerehabilitation setting:a pilot study in children with cerebral palsy[J].Disabil Rehabil202244(7):1107-1112.DOI:10.1080/09638288.2020.1793009.
[301]
BuitragoJA, BolañosAM, CaicedoBE.A motor learning therapeutic intervention for a child with cerebral palsy through a social assistive robot[J].Disabil Rehabil Assist Technol202015(3):357-362.DOI:10.1080/17483107.2019.1578999.
[302]
van KarnebeekCD, ShevellM, ZschockeJet al.The metabolic evaluation of the child with an intellectual developmental disorder:diagnostic algorithm for identification of treatable causes and new digital resource[J].Mol Genet Metab2014111(4):428-438.DOI:10.1016/j.ymgme.2014.01.011.
[303]
BromhamN, DworzynskiK, EunsonPet al.Cerebral palsy in adults:summary of Nice guidance[J].BMJ2019364l806.DOI:10.1136/bmj.l806.
[304]
van GorpM, RoebroeckME, Swan TanSet al.Activity performance curves of individuals with cerebral palsy[J].Pediatrics2018142(5):e20173723.DOI:10.1542/peds.2017-3723.
[305]
PenningtonL, RauchR, SmithJet al.Views of children with cerebral palsy and their parents on the effectiveness and acceptability of intensive speech therapy[J].Disabil Rehabil202042(20):2935-2943.DOI:10.1080/09638288.2019.1577504.
[306]
KoopmansC, SakashA, SorianoJet al.Functional communication abilities in youth with cerebral palsy:association with impairment profiles and school-based therapy goals[J].Lang Speech Hear Serv Sch202253(1):88-103.DOI:10.1044/2021_LSHSS-21-00064.
[307]
BagnerDM, EybergSM.Parent-child interaction therapy for disruptive behavior in children with mental retardation:a randomized controlled trial[J].J Clin Child Adolesc Psychol200736(3):418-429.DOI:10.1080/15374410701448448.
[308]
DirksT, Hadders-AlgraMThe role of the family in intervention of infants at high risk of cerebral palsy:a systematic analysis[J].Dev Med Child Neurol201153(Suppl 4):62-67.DOI:10.1111/j.1469-8749.2011.04067.x.
[309]
de GaetanoK, SaviolaD, BrunettiDet al.The importance of assessing parent stress in families with children with severe neuromotor and inte-llectual disability--a pilot study[J].Appl Neuropsychol Child20219(7):1-7.DOI:10.1080/21622965.2021.1971525.
[310]
AkçayE, TanY, TeberSTet al.Motor functions,quality of life and maternal anxiety and depression in children with cerebral palsy of different intelligence levels[J].Turk J Pediatr202163(5):846-854.DOI:10.24953/turkjped.2021.05.012.
[311]
World Health Organization.International statistical classification of di-seases and related health problems-11[EB/OL].(2018-12-17)[2022-07-30].http://www.who.int/classifications/icd11/caveats.html.
[312]
American Psychiatric Association.Desk reference to the diagnostic critecial from DSM-5[M].5th ed.Washington.DCAmerican Psychiatric Publishing Inc2013.
[313]
唐久来方玲玲朱静儿童神经发育障碍的诊断——ICD-11和DSM-5解读[J].中华实用儿科临床杂志201934 (17):1281-1286.DOI:10.3760/cma.j.issn.2095-428X.2019.17.001.
TangJL, FangLL, ZhuJet al.Diagnosis of neurodevelopmental disorders in children:interpretation of International Statistical Classification of Diseases and Related Health Problems-11 and The Diagnostic and Statistical Manual of Mental Disorders-5[J].Chin J Appl Clin Pediatr201934(17):1281-1286.DOI:10.3760/cma.j.issn.2095-428X.2019.17.001.
[314]
杨宝仪姜静远戴栖基于ICF构建学习障碍儿童功能分析与运动康复方案研究[J].中国康复理论与实践202127(12):1384-1392.DOI:10.3969/j.issn.1006-9771.2021.12.003.
YangBY, JiangJY, DaiQet al.Analysis of functioning and design of individualized rehabilitation protocol for children with learning disability using ICF[J].Chin J Rehabil Theor Pract202127(12):1384-1392.DOI:10.3969/j.issn.1006-9771.2021.12.003.
[315]
AziziA, Mir DrikvandF, SepahvaniMA.Comparison of the effect of cognitive rehabilitation and neurofeedback on sustained attention among elementary school students with specific learning disorder:a preliminary randomized controlled clinical trial[J].Basic Clin Neurosci202011(4):465-472.DOI:10.32598/bcn.11.4.1211.1.
[316]
FerrazE, GonçalvesTDS, FreireTet al.Effects of a phonological rea-ding and writing remediation program in students with dyslexia:intervention for specific learning disabilities[J].Folia Phoniatr Logop201870(2):59-73.DOI:10.1159/000489091.
[317]
GhaffariA, AzadA, ZareiMAet al.Effect of occupation performance coaching with four-quadrant model of facilitated learning on children with specific learning disorder[J].Occup Ther Int202220224654204.DOI:10.1155/2022/4654204.
[318]
GantasalaS, SullivanPB, ThomasAG.Gastrostomy feeding versus oral feeding alone for children with cerebral palsy[J].Cochrane Database Syst Rev20132013(7):CD003943.DOI:10.1002/14651858.CD003943.pub3.
[319]
BellKL, BenferKA, WareRSet al.Development and validation of a screening tool for feeding/swallowing difficulties and undernutrition in children with cerebral palsy[J].Dev Med Child Neurol201961(10):1175-1181.DOI:10.1111/dmcn.14220.
[320]
PintoVV, AlvesLAC, MendesFMet al.The nutritional state of children and adolescents with cerebral palsy is associated with oral motor dysfunction and social conditions:a cross sectional study[J].BMC Neurol20161655.DOI:10.1186/s12883-016-0573-8.
[321]
KaviyaniBM, SoleymaniZ, DadgarHet al.The effect of oral sensorimotor stimulations on feeding performance in children with spastic cerebral palsy[J].Acta Med Iran201452(12):899-904.
[322]
MaSR, ChoiJB.Effect of electrical stimulation on aspiration in children with cerebral palsy and dysphagia[J].J Phys Ther Sci201931(1):93-94.DOI:10.1589/jpts.31.93.
[323]
UmayE, GurcayE, OzturkEAet al.Is sensory-level electrical stimulation effective in cerebral palsy children with dysphagia? A randomized controlled clinical trial[J].Acta Neurol Belg2020120(5):1097-1105.DOI:10.1007/s13760-018-01071-6.
[324]
InalÖ, SerelAS, DemirNet al.Effect of functional chewing training on tongue thrust and drooling in children with cerebral palsy:a rando-mised controlled trial[J].J Oral Rehabil201744(11):843-849.DOI:10.1111/joor.12544.
[325]
NovakI, MorganC, FaheyMet al.State of the evidence traffic lights 2019:systematic review of interventions for preventing and treating children with cerebral palsy[J].Curr Neurol Neurosci Rep202020(2):3.DOI:10.1007/s11910-020-1022-z.
[326]
KimS, KohH, LeeJS.Gastroesophageal reflux in neurologically impaired children:what are the risk factors?[J].Gut Liver201711(2):232-236.DOI:10.5009/gnl16150.
[327]
Toporowska-KowalskaE, Gębora-KowalskaB, JabęońskiJet al.In-fluence of percutaneous endoscopic gastrostomy on gastro-oesophageal reflux evaluated by multiple intraluminal impedance in children with neurological impairment[J].Dev Med Child Neurol201153(10):938-943.DOI:10.1111/j.1469-8749.2011.04031.x.
[328]
ThomsonM, RaoP, RawatDet al.Percutaneous endoscopic gastrostomy and gastro-oesophageal reflux in neurologically impaired children[J].World J Gastroenterol201117(2):191-196.DOI:10.3748/wjg.v17.i2.191.
[329]
MiyazawaR, TomomasaT, KanekoHet al.Effects of pectin liquid on gastroesophageal reflux disease in children with cerebral palsy[J].BMC Gastroenterol2008811.DOI:10.1186/1471-230X-8-11.
[330]
BestebreurtjeP, de KoningB, RoeleveldNet al.Rectal omeprazole in infants with gastroesophageal reflux disease:a randomized pilot trial[J].Eur J Drug Metab Pharmacokinet202045(5):635-643.DOI:10.1007/s13318-020-00630-8.
[331]
VandenplasY, RudolphCD, Di LorenzoCet al.Pediatric gastroesop-hageal reflux clinical practice guidelines:joint recommendations of the North American Society for Pediatric Gastroenterology,Hepatology,and Nutrition (NASPGHAN) and the European Society for Pediatric Gastroenterology,Hepatology,and Nutrition (ESPGHAN)[J].J Pediatr Gastroenterol Nutr200949(4):498-547.DOI:10.1097/MPG.0b013e3181b7f563.
[332]
Caramico-FaveroDCO, GuedesZCF, MoraisMB.Food intake,nutritional status and gastrointestinal symptoms in children with cerebral palsy[J].Arq Gastroenterol201855(4):352-357.DOI:10.1590/S0004-2803.201800000-78.
[333]
García ContrerasAA, VásquezGE, SánchezRCet al.Factors associa-ted with the stool characteristics of children with cerebral palsy and chronic constipation[J].Rev Esp Enferm Dig2020112(1):41-46.DOI:10.17235/reed.2019.6313/2019.
[334]
FerreiraA, MayerM, KawamotoDet al.Constipation,antiepileptic drugs,and gingivitis in children and adolescents with cerebral palsy[J].Int J Paediatr Dent201929(5):635-641.DOI:10.1111/ipd.12488.
[335]
Faleiros-CastroFS, de PaulaED.Constipation in patients with quadriplegic cerebral palsy:intestinal reeducation using massage and a laxative diet[J].Rev Esc Enferm USP201347(4):836-842.DOI:10.1590/S0080-623420130000400010.
[336]
冯兆才马融李瑞仕推拿治疗痉挛型脑瘫患儿特发性便秘临床观察[J].辽宁中医杂志201340(1):158-159.DOI:10.13192/j.ljtcm.2013.01.164.fengzhc.043.
FengZC, MaR, LiRS.Clinical observation of massage for idiopathic constipation in children with spastic cerebral palsy[J].Liaoning J Tradit Chin Med201340(1):158-159.DOI:10.13192/j.ljtcm.2013.01.164.fengzhc.043.
[337]
ElbasanB, BezginSThe effects of reflexology on constipation and motor functions in children with cerebral palsy[J].Pediatr Neonatol201859(1):42-47.DOI:10.1016/j.pedneo.2017.01.005.
[338]
AwanWA, MasoodTRole of stretching exercises in the management of constipation in spastic cerebral palsy[J].J Ayub Med Coll Abbottabad201628(4):798-801.
[339]
ImaniehMH, GolpayeganMR, SedighiMet al.Comparison of three therapeutic interventions for chronic constipation in paediatric patients with cerebral palsy:a randomised clinical trial[J].Prz Gastroenterol201914(4):292-297.DOI:10.5114/pg.2019.84872.
[340]
FindlayB, SwitzerL, NarayananUet al.Investigating the impact of pain,age,Gross Motor Function Classification System,and sex on health-related quality of life in children with cerebral palsy[J].Dev Med Child Neurol201658(3):292-297.DOI:10.1111/dmcn.12936.
[341]
HarebF, BertoncelliCM, RoselloOet al.Botulinum toxin in children with cerebral palsy:an update[J].Neuropediatrics202051(1):1-5.DOI:10.1055/s-0039-1694988.
[342]
Sandahl MichelsenJ, NormannG, WongCAnalgesic effects of botulinum toxin in children with CP[J].Toxins (Basel)201810(4):162.DOI:10.3390/toxins10040162.
[343]
WynterM, GibsonN, WilloughbyKLet al.Australian hip surveillance guidelines for children with cerebral palsy:5-year review[J].Dev Med Child Neurol201557(9):808-820.DOI:10.1111/dmcn.12754.
[344]
OstojicK, PagetSP, MorrowAM.Management of pain in children and adolescents with cerebral palsy:a systematic review[J].Dev Med Child Neurol201961(3):315-321.DOI:10.1111/dmcn.14088.
[345]
中华医学会儿科学分会康复学组儿童脑性瘫痪疼痛管理专家共识[J].中国实用儿科杂志202035(9):673-677.DOI:10.19538/j.ek2020090602.
The Subspecialty Group of Rehabilitation,the Society of Pediatrics,Chinese Medical Association.Expert consensus on pain management in children with cerebral palsy[J].Chin J Pract Pediatr202035(9):673-677.DOI:10.19538/j.ek2020090602.
[346]
National Guideline Alliance (UK)Cerebral palsy in under 25s:assessment and management[M].LondonNational Institute for Health and Care Excellence (NICE)2017.
[347]
WrightPB, RuderJ, BirnbaumMAet al.Outcomes after salvage procedures for the painful dislocated hip in cerebral palsy[J].J Pediatr Orthop201333(5):505-510.DOI:10.1097/BPO.0b013e3182924677.
[348]
BirnieKA, NoelM, ChambersCTet al.Psychological interventions for needle-related procedural pain and distress in children and adolescents[J].Cochrane Database Syst Rev201810(10):CD005179.DOI:10.1002/14651858.CD005179.pub4.
[349]
RiddellRP, O′NeillMC, CampbellLet al.Featured article:the ABCDs of pain management:a double-blind randomized controlled trial examining the impact of a brief educational video on infants′ and toddlers′ pain scores and parent soothing behavior[J].J Pediatr Psychol201843(3):224-233.DOI:10.1093/jpepsy/jsx122.
[350]
Garza-VillarrealEA, PandoV, VuustPet al.Music-induced analgesia in chronic pain conditions:a systematic review and Meta-analysis[J].Pain Physician201720(7):597-610.DOI:10.1519/JSC.0000000000004135.
[351]
SunithaSB, De OliveiraGJ, SureshSThe effect of audio therapy to treat postoperative pain in children undergoing major surgery:a randomized controlled trial[J].Pediatr Surg Int201531(2):197-201.DOI:10.1007/s00383-014-3649-9.
[352]
VerschuerenS, van AalstJ, BangelsAMet al.Development of CliniPup,a serious game aimed at reducing perioperative anxiety and pain in children:mixed methods study[J].JMIR Serious Games20197(2):e12429.DOI:10.2196/12429.
[353]
徐怡赵晓科陈梦莹虚拟现实技术缓解痉挛型脑性瘫痪患儿治疗性疼痛的效果[J].中国康复理论与实践201925(12):1458-1462.DOI:10.3969/j.issn.1006-9771.2019.12.015.
XuY, ZhaoXK, ChenMYet al.Effect of virtual reality on therapeutic pain in children with spastic cerebral palsy[J].Chin J Rehabil Theor Pract201925(12):1458-1462.DOI:10.3969/j.issn.1006-9771.2019.12.015.
[354]
PaccioneCE, JacobsenHB.Motivational non-directive resonance breathing as a treatment for chronic widespread pain[J].Front Psychol2019101207.DOI:10.3389/fpsyg.2019.01207.
[355]
HiltonL, HempelS, EwingBAet al.Mindfulness meditation for chronic pain:systematic review and meta-analysis[J].Ann Behav Med201751(2):199-213.DOI:10.1007/s12160-016-9844-2.
[356]
张晓杰郭继东伊洪波小儿脑瘫患者的危险因素分析[J].中国妇幼保健201227(29):4549-4551.DOI:CNKI:SUN:ZFYB.0.2012-29-020.
ZhangXJ, GuoJD, YiHB.Analysis of risk factors in children with ce-rebral palsy[J].Chin J Mater Child Health Care201227(29):4549-4551.DOI:CNKI:SUN:ZFYB.0.2012-29-020.
[357]
刘月平王跑球徐永涛残疾康复机构脑瘫患儿医院感染状况调查[J].中国康复201227(6):460-461.DOI:10.3870/zgkf.2012.06.026.
LiuYP, WangPQ, XuYT.Investigation on nosocomial infection of children with cerebral palsy in disabled rehabilitation institutions[J].Chin J Rehabil201227(6):460-461.DOI:10.3870/zgkf.2012.06.026.
[358]
陈淑珍刘君玲阿祥仁高原地区脑性瘫痪患儿免疫功能状态及康复治疗对其的影响[J].中华检验医学杂志202144(11):1051-1056.DOI:10.3760/cma.j.cn114452-20210303-00136.
ChenSZ, LiuJL, AXRet al.Immune function status of children with cerebral palsy in plateau area and the influence of rehabilitation treatment[J].Chin J Lab Med202144(11):1051-1056.DOI:10.3760/cma.j.cn114452-20210303-00136.
[359]
SharovaO, SmiyanO, BorénTImmunological effects of cerebral palsy and rehabilitation exercises in children[J].Brain Behav Immun Health202118100365.DOI:10.1016/j.bbih.2021.100365.
[360]
张勇翟红印郭智宽免疫调节疗法对脑瘫儿童神经运动发育影响的临床研究[J].中国实用神经疾病杂志201922(10):1052-1058.DOI:10.12083/SYSJ.2019.10.138.
ZhangY, ZhaiHY, GuoZKet al.Clinical study on the effects of immunomodulatory therapy on neuromotor development in children with cerebral palsy[J].Chin J Pract Nerv Dis201922(10):1052-1058.DOI:10.12083/SYSJ.2019.10.138.
[361]
唐英马彩云尚清艾灸对脑瘫患儿免疫功能的影响[J].中国针灸201636(1):12-16.DOI:10.13703/j.0255-2930.2016.01.004.
TangY, MaCY, ShangQet al.Effects of moxibustion on immune function in children with cerebral palsy[J].Chin Acup Moxib201636(1):12-16.DOI:10.13703/j.0255-2930.2016.01.004.
[362]
LagunjuIA, OluleyeTS.Ocular abnormalities in children with cerebral palsy[J].Afr J Med Med Sci200736(1):71-75.
[363]
张庆松刘京华王海勇脑性瘫痪病因与视力障碍[J].中国临床康复20037(19):2761.DOI:10.3321/j.issn.1673-8225.2003.19.074.
ZhangQS, LiuJH, WangHYet al.Etiology and visual impairment of cerebral palsy[J].Chin J Clin Rehabil20037(19):2761.DOI:10.3321/j.issn.1673-8225.2003.19.074.
[364]
FazziE, SignoriniSG, BovaSMet al.Spectrum of visual disorders in children with cerebral visual impairment[J].J Child Neurol200722(3):294-301.DOI:10.1177/08830738070220030801.
[365]
FerzigerNB, NemetP, BreznerAet al.Visual assessment in children with cerebral palsy:implementation of a functional questionnaire[J].Dev Med Child Neurol201153(5):422-428.DOI:10.1111/j.1469-8749.2010.03905.x.
[366]
DukeR, EyongK, BurtonKet al.The effect of visual support strategies on the quality of life of children with cerebral palsy and cerebral visual impairment/perceptual visual dysfunction in Nigeria:study protocol for a randomized controlled trial[J].Trials201920(1):417.DOI:10.1186/s13063-019-3527-9.
[367]
VancleefK, JanssensE, PetréYet al.Assessment tool for visual perception deficits in cerebral visual impairment:reliability and validity[J].Dev Med Child Neurol202062(1):118-124.DOI:10.1111/dmcn.14304.
[368]
BassiL, RicciD, VolzoneAet al.Probabilistic diffusion tractography of the optic radiations and visual function in preterm infants at term equivalent age[J].Brain2008131(Pt 2):573-582.DOI:10.1093/brain/awm327.
[369]
GoodWV, HouC, NorciaAM.Spatial contrast sensitivity vision loss in children with cortical visual impairment[J].Invest Ophthalmol Vis Sci201253(12):7730-7734.DOI:10.1167/iovs.12-9775.
[370]
MohnG, van Hof-van DuinJ, FetterWPet al.Acuity assessment of non-verbal infants and children:clinical experience with the acuity card procedure[J].Dev Med Child Neurol198830(2):232-244.DOI:10.1111/j.1469-8749.1988.tb04756.x.
[371]
van Hof-van DuinJ, HeersemaDJ, GroenendaalFet al.Visual field and grating acuity development in low-risk preterm infants during the first 2 1/2 years after term[J].Behav Brain Res199249(1):115-122.DOI:10.1016/s0166-4328(05)80201-3.
[372]
Ben ItzhakN, VancleefK, FrankiIet al.Visuoperceptual profiles of children using the Flemish cerebral visual impairment questionnaire[J].Dev Med Child Neurol202062(8):969-976.DOI:10.1111/dmcn.14448.
[373]
GhasiaF, Brunstrom-HernandezJ, TychsenLRepair of strabismus and binocular fusion in children with cerebral palsy:gross motor function classification scale[J].Invest Ophthalmol Vis Sci201152(10):7664-7671.DOI:10.1167/iovs.10-6906.
[374]
FazziE, MichelettiS, CalzaSet al.Early visual training and environmental adaptation for infants with visual impairment[J].Dev Med Child Neurol202163(10):1180-1193.DOI:10.1111/dmcn.14865.
[375]
LannersJ, PiccioniA, FeaFet al.Early intervention for children with cerebral visual impairment:preliminary results[J].J Intellect Disabil Res199943 (1):1-12.DOI:10.1046/j.1365-2788.1999.43120106.x.
[376]
TsaiLT, HsuJL, WuCTet al.A new visual stimulation program for improving visual acuity in children with visual impairment:a pilot study[J].Front Hum Neurosci201610157.DOI:10.3389/fnhum.2016.00157.
[377]
EkenP, de VriesLS, van Der GraafYet al.Haemorrhagic-ischaemic lesions of the neonatal brain:correlation between cerebral visual impairment,neurodevelopmental outcome and MRI in infancy[J].Dev Med Child Neurol199537(1):41-55.DOI:10.1111/j.1469-8749.1995.tb11931.x.
[378]
SonksenPM, PetrieA, DrewKJ.Promotion of visual development of severely visually impaired babies:evaluation of a developmentally based programme[J].Dev Med Child Neurol199133(4):320-335.DOI:10.1111/j.1469-8749.1991.tb14883.x.
[379]
WangXJ, LiangMJ, ZhangJPet al.Research on activity evolution of cerebral cortex and hearing rehabilitation of congenitally deaf children after cochlear implant[J].J Clin Otorhinolaryngol Head Neck Surg201731(21):1632-1638.DOI:10.13201/j.issn.1001-1781.2017.21.003.
[380]
RichardC, KjeldsenC, FindlenUet al.Hearing loss diagnosis and early hearing-related interventions in infants with or at high risk for cerebral palsy:a systematic review[J].J Child Neurol202136(10):919-929.DOI:10.1177/08830738211004519.
[381]
JiangZD, LiuMY, ShiBPet al.Brainstem auditory outcomes and co-rrelation with neurodevelopment after perinatal asphyxia[J].Pediatr Neurol200839(3):189-195.DOI:10.1016/j.pediatrneurol.2008.06.013.
[382]
EilersRE, OllerDK.Infant vocalizations and the early diagnosis of severe hearing impairment[J].J Pediatr1994124(2):199-203.DOI:10.1016/s0022-3476(94)70303-5.
[383]
WangX, CarrollX, WangHet al.Prediction of delayed neurodevelopment in infants using brainstem auditory evoked potentials and the bayley Ⅱ scales[J].Front Pediatr20208485.DOI:10.3389/fped.2020.00485.
[384]
Dodd-MurphyJ, MurphyW, BessFH.Accuracy of school screenings in the identification of minimal sensorineural hearing loss[J].Am J Audiol201423(4):365-373.DOI:10.1044/2014_AJA-14-0014.
[385]
GongQ, LiuY, PengZEstimating hearing thresholds from stimulus-frequency otoacoustic emissions[J].Trends Hear2020242331216520960053.DOI:10.1177/2331216520960053.
[386]
邹凌蔡娟梁燕学龄前儿童听力筛查方法与效果评估[J].中国听力语言康复科学杂志202018(2):93-95.DOI:10.3969/j.issn.1672-4933.2020.02.004.
ZouL, CaiJ, LiangYet al.Investigation on preschool hearing screening method and effect[J].Chin Sci J Hear Speech Rehabil202018(2):93-95.DOI:10.3969/j.issn.1672-4933.2020.02.004.
[387]
文铖黄丽辉王现蕾OAE和AABR在新生儿听力筛查中听力损失检出效能的Meta分析[J].听力学及言语疾病杂志202028(2):201-206.DOI:10.3969/j.issn.1006-7299.2020.02.021.
WenC, HuangLH, WangXLet al.Meta-analysis of the detection efficiency of OAE and AABR in universal newborn hearing screening[J].J Audiol Speech Pathol202028(2):201-206.DOI:10.3969/j.issn.1006-7299.2020.02.021.
[388]
杨琨杨希林王燕美国听力学会儿童听力筛查指南[J].听力学及言语疾病杂志201725(2):119-136.DOI:10.3969/j.issn.1006-7299.2017.02.003.
YangK, YangXL, WangYet al.American academy of audiology childhord hearing screering guidelines[J].J Audiol Speech Pathol201725(2):119-136.DOI:10.3969/j.issn.1006-7299.2017.02.003.
[389]
高燕马静明澄咽鼓管球囊扩张联合鼓膜置管术在儿童复发性分泌性中耳炎中的疗效[J].昆明医科大学学报202041(4):132-136.DOI:10.3969/j.issn.1003-4706.2020.04.025.
GaoY, MaJ, MingCet al.Analysis of balloon eustachian tuboplasty combined with tympanotomy tube insertion in the treatment of recurrent otitis media with effusion in children[J].J Kunming Med Univ202041(4):132-136.DOI:10.3969/j.issn.1003-4706.2020.04.025.
[390]
邹艺辉焦青山杨仕明软带BAHA与植入式BAHA在先天性中外耳畸形患者的效果比较[J].中华耳科学杂志201816(1):19-22.DOI:10.3969/j.issn.1672-2922.2018.01.006.
ZouYH, JiaoQS, YangSM.A comparison between BAHA softband and BAHA implant in patients with bilateral congenital deformation of mi-ddle and outer ears[J].Chin J Otol201816(1):19-22.DOI:10.3969/j.issn.1672-2922.2018.01.006.
[391]
管小娟谷彬杨晓玲镜像神经元疗法对大龄听障儿童听力语言康复效果及神经电生理的影响[J].中国听力语言康复科学杂志202119(6):466-468.DOI:10.3969/j.issn.1672-4933.2021.06.019.
GuanXJ, GuB, YangXLet al.Effects of mirror neuron therapy on hearing and speech rehabilitation and neuroelectrophysiology in patients with hearing impairment[J].Chin Sci J Hear Speech Rehabil202119(6):466-468.DOI:10.3969/j.issn.1672-4933.2021.06.019.
[392]
ScottM, RossellSL, TohWLet al.Understanding the role of self in auditory verbal hallucinations using a self-discrepancy paradigm[J].Psychol Psychother202194 (Suppl 2):S268-285.DOI:10.1111/papt.12276.
[393]
HidalgoC, FalkS, SchönDSpeak on time! Effects of a musical rhythmic training on children with hearing loss[J].Hear Res201735111-18.DOI:10.1016/j.heares.2017.05.006.
[394]
GfellerKMusic-based training for pediatric CI recipients:a systematic analysis of published studies[J].Eur Ann Otorhinolaryngol Head Neck Dis2016133(Suppl 1):S50-56.DOI:10.1016/j.anorl.2016.01.010.
[395]
GaoX, YanT, HuangTet al.Speech in noise perception improved by training fine auditory discrimination:far and applicable transfer of perceptual learning[J].Sci Rep202010(1):19320.DOI:10.1038/s41598-020-76295-9.
[396]
谢筱妮唐向荣.0-1岁听力障碍婴幼儿亲子康复教学方法探究[J].世界最新医学信息文摘201818(27):176-177.DOI:10.19613/j.cnki.1671-3141.2018.27.121.
XieXN, TangXR.Exploration of parent-child rehabilitation teaching methods for 0-1 years old children with hearing impairment[J].World Latest Med Inf201818(27):176-177.DOI:10.19613/j.cnki.1671-3141.2018.27.121.
[397]
杜春华卢冬梅何洋心理健康支持系统对2~3岁听障儿童干预后的影响[J].中国听力语言康复科学杂志202119(6):443-445.DOI:10.3969/j.issn.1672-4933.2021.06.011.
DuCH, LuDM, HeYet al.Effects of the mental health support system on the prognosis of children with hearing impairment of 2-3 years old[J].Chin Sci J Hear Speech Rehabil202119(6):443-445.DOI:10.3969/j.issn.1672-4933.2021.06.011.
[398]
JyZ, OskouiM, ShevellMA population-based study of communication impairment in cerebral palsy[J].J Child Neurol201530(3):277-284.DOI:10.1177/0883073814538497.
[399]
PatelDR, NeelakantanM, PandherKet al.Cerebral palsy in children:a clinical overview[J].Transl Pediatr20209(Suppl 1):S125-135.DOI:10.21037/tp.2020.01.01.
[400]
HustadKC, SakashA, BromanATet al.Longitudinal growth of receptive language in children with cerebral palsy between 18 months and 54 months of age[J].Dev Med Child Neurol201860(11):1156-1164.DOI:10.1111/dmcn.13904.
[401]
ClarkeM, PriceK, GriffithsTAugmentative and alternative communication for children with cerebral palsy[J].Paediatr Child Health201626(9):373-377.DOI:10.1016/j.paed.2016.04.012.
[402]
MurdochBE, BarwoodCH.Non-invasive brain stimulation:a new frontier in the treatment of neurogenic speech-language disorders[J].Int J Speech Lang Pathol201315(3):234-244.DOI:10.3109/17549507.2012.745605.
[403]
MösslerK, GoldC, AβmusJet al.The therapeutic relationship as predictor of change in music therapy with young children with autism spectrum disorder[J].J Autism Dev Disord201949(7):2795-2809.DOI:10.1007/s10803-017-3306-y.
[404]
SurénP, BakkenIJ, AaseHet al.Autism spectrum disorder,ADHD,epilepsy,and cerebral palsy in Norwegian children[J].Pediatrics2012130(1):e152-158.DOI:10.1542/peds.2011-3217.
[405]
MertGG, IncecikF, AltunbasakSet al.Factors affecting epilepsy development and epilepsy prognosis in cerebral palsy[J].Pediatr Neurol201145(2):89-94.DOI:10.1016/j.pediatrneurol.2011.03.001.
[406]
AbdelMY, HaSM, ElsayedASet al.Risk factors of intractable epilepsy in children with cerebral palsy[J].Iran J Child Neurol202115(4):75-87.DOI:10.22037/ijcn.v15i3.31556.
[407]
GrahamHK, RosenbaumP, PanethNet al.Cerebral palsy[J].Nat Rev Dis Primers2016215082.DOI:10.1038/nrdp.2015.82.
[408]
SellierE, UldallP, CaladoEet al.Epilepsy and cerebral palsy:cha-racteristics and trends in children born in 1976-1998[J].Eur J Paediatr Neurol201216(1):48-55.DOI:10.1016/j.ejpn.2011.10.003.
[409]
WilmshurstJM, GaillardWD, VinayanKPet al.Summary of recommendations for the management of infantile seizures:Task Force Report for the ILAE Commission of Pediatrics[J].Epilepsia201556(8):1185-1197.DOI:10.1111/epi.13057.
[410]
StrianoP, MinassianBFrom genetic testing to precision medicine in epilepsy[J].Neurotherapeutics202017(2):609-615.DOI:10.1007/s13311-020-00835-4.
[411]
中华医学会儿科学分会康复学组中华医学会儿科学分会神经学组脑性瘫痪共患癫痫诊断与治疗专家共识[J].中华实用儿科临床杂志201732(16):1222-1226.DOI:10.3760/cma.j.issn.2095-428X.2017.16.006.
The Subspecialty Group of Rehabilitation Medicine,the Society of Pediatrics,Chinese Medical AssociationThe Subspecialty Group of Neurology,the Society of Pediatrics,Chinese Medical Association.Experts consensus of treatment and diagnosis of cerebral palsy combined with epilepsy[J].Chin J Appl Clin Pediatr201732(16):1222-1226.DOI:10.3760/cma.j.issn.2095-428X.2017.16.006.
[412]
BergAT, BerkovicSF, BrodieMJet al.Revised terminology and concepts for organization of seizures and epilepsies:report of the ILAE Commission on Classification and Terminology,2005-2009[J].Epilepsia201051(4):676-685.DOI:10.1111/j.1528-1167.2010.02522.x.
[413]
HägglundG, Lauge-PedersenH, WagnerPCharacteristics of children with hip displacement in cerebral palsy[J].BMC Musculoskelet Disord20078101.DOI:10.1186/1471-2474-8-101.
[414]
FinlaysonL, CzubaT, GastonMSet al.The head shaft angle is associated with hip displacement in children at GMFCS levels Ⅲ-Ⅴ -- a population based study[J].BMC Musculoskelet Disord201819(1):356.DOI:10.1186/s12891-018-2275-4.
[415]
颜华张惠佳高雅君痉挛型脑瘫患儿发生髋关节脱位风险的观察研究[J].中国儿童保健杂志201018(9):697-699.DOI:CNKI:SUN:ERTO.0.2010-09-028.
YanH, ZhangHJ, GaoYJet al.Clinical study of the risk of hip dislocation of the child with spastic cerebral pasly[J].Chin J Child Health Care201018(9):697-699.DOI:CNKI:SUN:ERTO.0.2010-09-028.
[416]
廖元贵吴毅史惟痉挛型脑瘫患儿髋关节脱位的风险预测[J].中国康复理论与实践200915(9):825-826.DOI:10.3969/j.issn.1006-9771.2009.09.010.
LiaoYG, WuY, ShiWet al.Risk of hip dislocation on children with spastic cerebral palsy[J].Chin J Rehabil Theor Pract200915(9):825-826.DOI:10.3969/j.issn.1006-9771.2009.09.010.
[417]
KusumotoY, MatsudaT, FujiiKet al.Effects of an underwear-type hip abduction orthosis on sitting balance and sit-to-stand activities in children with spastic cerebral palsy[J].J Phys Ther Sci201830(10):1301-1304.DOI:10.1589/jpts.30.1301.
[418]
Macias-MerloL, Bagur-CalafatC, Girabent-FarrésMet al.Effects of the standing program with hip abduction on hip acetabular development in children with spastic diplegia cerebral palsy[J].Disabil Rehabil201638(11):1075-1081.DOI:10.3109/09638288.2015.1100221.
[419]
KimMO, LeeJH, YuJYet al.Changes of musculoskeletal deformity in severely disabled children using the custom molded fitting chair[J].Ann Rehabil Med201337(1):33-40.DOI:10.5535/arm.2013.37.1.33.
[420]
PiccioliniO, Le MétayerM, ConsonniDet al.Can we prevent hip dislocation in children with cerebral palsy? Effects of postural management[J].Eur J Phys Rehabil Med201652(5):682-690.
[421]
盛春勇王加宽王玉欢痉挛性脑瘫髋关节发育不良针对性康复疗效分析[J].实用骨科杂志201925(2):174-176.DOI:CNKI:SUN:SGKZ.0.2019-02-023.
ShengCY, WangJK, WangYHet al.Analysis of rehabilitation effect of spastic cerebral palsy hip dysplasia[J].J Pract Orthop201925(2):174-176.DOI:CNKI:SUN:SGKZ.0.2019-02-023.
[422]
WhitneyDG, PetersonMD, WarschauskySA.Mental health disorders,participation,and bullying in children with cerebral palsy[J].Dev Med Child Neurol201961(8):937-942.DOI:10.1111/dmcn.14175.
[423]
DownsJ, BlackmoreAM, EpsteinAet al.The prevalence of mental health disorders and symptoms in children and adolescents with cerebral palsy:a systematic review and meta-analysis[J].Dev Med Child Neurol201860(1):30-38.DOI:10.1111/dmcn.13555.
[424]
RackauskaiteG, BilenbergN, BechBHet al.Screening for psychopathology in a national cohort of 8- to 15-year-old children with cerebral palsy[J].Res Dev Disabil201649-50171-180.DOI:10.1016/j.ridd.2015.11.019.
[425]
SigurdardottirS, IndredavikMS, EiriksdottirAet al.Behavioural and emotional symptoms of preschool children with cerebral palsy:a population-based study[J].Dev Med Child Neurol201052(11):1056-1061.DOI:10.1111/j.1469-8749.2010.03698.x.
[426]
TarrierN, BarrowcloughC, VaughnCet al.The community management of schizophrenia.A controlled trial of a behavioural intervention with families to reduce relapse[J].Br J Psychiatry1988153(4):532-542.DOI:10.1192/bjp.153.4.532.
[427]
LindquistKA, WagerTD, Bliss-MoreauEet al.Authors′ response:what are emotions and how are they created in the brain?[J].Behav Brain Sci201235(3):172-202.DOI:10.1017/s0140525x1100183x.
[428]
唐木得叶洪武龚勇学龄前脑瘫儿童医学康复并教育康复的研究[J].中国康复医学杂志201025(5):439-442.DOI:10.3969/j.issn.1001-1242.2010.05.012.
TangMD, YeHW, GongYet al.A study on effectiveness of medical rehabilitation and educational rehabilitation on pre-school children with cerebral palsy[J].Chin J Rehabil Med201025(5):439-442.DOI:10.3969/j.issn.1001-1242.2010.05.012.
[429]
HsiehHC.Effectiveness of adaptive pretend play on affective expre-ssion and imagination of children with cerebral palsy[J].Res Dev Disabil201233(6):1975-1983.DOI:10.1016/j.ridd.2012.05.013.
[430]
MaherCA, TooheyM, FergusonMPhysical activity predicts quality of life and happiness in children and adolescents with cerebral palsy[J].Disabil Rehabil201638(9):865-869.DOI:10.3109/09638288.2015.1066450.
[431]
StergiouA, TzoufiM, NtzaniEet al.Therapeutic effects of horseback riding interventions:a systematic review and meta-analysis[J].Am J Phys Med Rehabil201796(10):717-725.DOI:10.1097/PHM.0000000000000726.
[432]
StrandKM, DahlsengMO, LydersenSet al.Growth during infancy and early childhood in children with cerebral palsy:a population-based study[J].Dev Med Child Neurol201658(9):924-930.DOI:10.1111/dmcn.13098.
[433]
PrastiyaIG, RiskyVP, MiraIet al.Risk factor of mortality in indonesian children with cerebral palsy[J].J Med Invest201865(1.2):18-20.DOI:10.2152/jmi.65.18.
[434]
赵伊婷唐红梅徐开寿儿童脑性瘫痪的营养问题及干预研究进展[J].中华实用儿科临床杂志202136(20):1587-1590.DOI:10.3760/cma.j.cn101070-20200423-00717.
ZhaoYT, TangHM, XuKS.Research progress of nutritional intervention in children with cerebral palsy[J].Chin J Appl Clin Pediatr202136(20):1587-1590.DOI:10.3760/cma.j.cn101070-20200423-00717.
[435]
中华医学会儿科学分会康复学组中华医学会肠外肠内营养学分会儿科学组脑性瘫痪患儿营养支持专家共识[J].中华儿科杂志202058(7):553-558.DOI:10.3760/cma.j.cn112140-20200425-00431.
The Subspecialty Group of Rehabilitation,the Society of Pediatrics,Chinese Medical Associationthe Subspecialty Group of Pediatrics,the Society of Parenteral and Enteral Nutrition,Chinese Medical Association.Consensus on nutritional support for children with cerebral palsy[J].Chin J Pediatr202058(7):553-558.DOI:10.3760/cma.j.cn112140-20200425-00431
[436]
RomanoC, van WynckelM, HulstJet al.European society for paediatric gastroenterology,hepatology and nutrition guidelines for the evaluation and treatment of gastrointestinal and nutritional complications in children with neurological impairment[J].J Pediatr Gastroenterol Nutr201765(2):242-264.DOI:10.1097/MPG.0000000000001646.
[437]
MlindaSJ, LeynaGH, MassaweAThe effect of a practical nutrition education programme on feeding skills of caregivers of children with cerebral palsy at Muhimbili National Hospital,in Tanzania[J].Child Care Health Dev201844(3):452-461.DOI:10.1111/cch.12553.
[438]
D′AntigaL, NicastroE, PapadopoulouAet al.European Society for Pediatric Gastroenterology,Hepatology,and Nutrition syllabus for subspecialty training:moving towards a European standard[J].J Pediatr Gastroenterol Nutr201459(3):417-422.DOI:10.1097/MPG.0000000000000464.
[439]
CaselliTB, LomaziEA, MontenegroMet al.Comparative study on gastrostomy and orally nutrition of children and adolescents with tetraparesis cerebral palsy[J].Arq Gastroenterol201754(4):292-296.DOI:10.1590/S0004-2803.201700000-48.
[440]
DipasqualeV, CatenaMA, CardileSet al.Standard polymeric formula tube feeding in neurologically impaired children:a five-year retrospective study[J].Nutrients201810(6):684.DOI:10.3390/nu10060684.
 
 
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