Home›Pediatrics› Robot-assisted gait training and resistance training improve motor function in children with cerebral palsy
Robot-assisted gait training and resistance training improve motor function in children with cerebral palsyRobot Assisted Training Shows Better Results for Cerebral Palsy
European journal of pediatricsPublished September 22, 2026Study authors: Ma Jing, Li Shangbin, Aili Ayinuer, Wurongcaicike, Huang Xiaojuan, Ma Lian, Shen Mengting, Li Mi, Yu…PubMed ↗DOI ↗Editorial oversight: Dr. Sofia Müller, MD · Lifespan & Whole-Person Care
AI-generated summary of the cited source, checked by automated accuracy review.
How we work
Share
Key Takeaway
Note that robot-assisted gait training and resistance training show promise for motor function, but evidence certainty is very low.
This systematic review and meta-analysis evaluated six distinct exercise modalities, including robot-assisted gait training and resistance/strength training, in a population of 886 children with cerebral palsy. The primary outcome was gross motor function, with secondary outcomes including walking, running, jumping, and balance.
The meta-analysis found that robot-assisted gait training conferred a statistically significant advantage over comparator interventions for walking, running, and jumping skills (SMD=0.48; 95% CI 0.02-0.93, P=0.042). For balance function, resistance/strength training demonstrated the largest effect (SMD=0.95; 95% CI 0.38-1.51, P=0.001). Additionally, a nonlinear association was identified between exercise dosage and functional improvement, with an optimal dose for walking, running, and jumping identified as approximately 248 METs.hours.
The authors note that evidence certainty is rated as very low and findings remain exploratory. Because of these limitations, the results require confirmation in larger, methodologically rigorous RCTs before they can be translated into clinical guidelines or standard practice.
How this fits prior evidence
This finding extends the evidence that technology-assisted interventions improve gait and balance in children with cerebral palsy. Specifically, it builds upon the finding that RAGT and VR significantly improve gait, balance, and gross motor function. While previous evidence noted that home-based physical exercise improves aerobic capacity but not functional capacity, this meta-analysis identifies specific modalities, such as robot-assisted gait training and resistance training, that show statistically significant improvements in gross motor function and balance.
Researchers looked at how different types of exercise affect gross motor skills in children with cerebral palsy. They reviewed data from 886 children who participated in various programs, including robot-assisted gait training and resistance or strength training.
The review found that robot-assisted training showed a significant advantage for improving walking, running, and jumping skills. When looking specifically at balance, resistance and strength training showed the largest improvement. These findings suggest that different types of exercise may target different physical goals for children with disabilities.
It is important to note that the evidence for these findings is currently rated as very low. The results are still exploratory and come from a review of existing data rather than a new large-scale trial. Because the evidence is not yet firm, these findings are not yet ready to change standard medical guidelines. Patients should talk to their doctors about which specific exercise programs are best for their child's unique needs.
What this means for you:
Robot-assisted training may improve walking skills, while strength training may better improve balance.
Common questions
What are the benefits of robot-assisted gait training?
The study found that robot-assisted gait training provided a statistically significant advantage for walking, running, and jumping skills compared to other interventions. This specific type of training showed a measurable improvement in these gross motor functions for children with cerebral palsy.
Is strength training helpful for children with cerebral palsy?
Yes, the review showed that resistance and strength training demonstrated the largest effect for improving balance functions. While different exercises target different skills, strength training specifically showed a strong link to better balance.
How certain are these results for clinical use?
The evidence for these findings is currently rated as very low and is considered exploratory. Because the data is not yet firm, these results are not yet used to change standard medical guidelines. You should consult a medical professional to determine the best treatment plan.
UNLABELLED: The objective of this study is to clarify the comparative efficacy of six distinct exercise modalities in improving domain-specific gross motor functions among children with cerebral palsy (CP) and to identify the specific intervention that could produce optimal functional gains and to investigate the dose-response relationship between exercise exposure and motor outcomes, thus determining evidence-informed optimal dose ranges across key functional domains. We conducted a systematic review and meta-analysis following the inclusion of randomized controlled trials (RCTs) published up to March 2026 across four electronic databases. Pairwise meta-analyses and network meta-analyses were performed using Stata version 15.1. Dose-response relationships were modeled using restricted cubic splines in R version 4.0.3. Twenty-nine RCTs involving 886 children with CP met inclusion criteria. Pairwise meta-analyses revealed that robot-assisted gait training conferred a statistically significant advantage over comparator interventions in improving walking, running, and jumping skills using Gross Motor Function Measure-88 dimension E (SMD = 0.48, 95% CI 0.02-0.93, P = 0.042). In contrast, resistance/strength training demonstrated the largest effect on balance function (SMD = 0.95, 95% CI 0.38-1.51, P = 0.001). Network meta-analysis ranked interventions using surface under the cumulative ranking curve values, with clinical interpretation anchored to statistically significant pairwise contrasts. Dose-response analyses indicated a nonlinear association between exercise dosage and functional improvement-optimal dose ranges varied meaningfully across motor domains, supporting domain-specific dosing strategies for personalized rehabilitation.
CONCLUSION: Different exercise modalities appear to confer differential benefits across gross motor domains, though evidence certainty is rated as "very low." The observed nonlinearity in dose-response curves suggests that both subtherapeutic and supraoptimal dosages may attenuate treatment effect. However, these findings remain exploratory and require confirmation in larger, methodologically rigorous RCTs before translation into clinical guidelines or practice.
WHAT IS KNOWN: • Exercise improves gross motor function in children with cerebral palsy, but evidence on optimal exercise modality and dose remains limited and inconsistent.
WHAT IS NEW: • Robot-assisted gait training significantly improved standing and walking/running/jumping abilities, whereas resistance training conferred the largest benefit on balance. • Nonlinear dose-response relationships were identified, with domain-specific optimal ranges (e.g., ~ 248 METs·hours for walking/running/jumping).
