Copyright: ©Author(s) 2026.
World J Transplant. Sep 18, 2026; 16(3): 120986
Published online Sep 18, 2026. doi: 10.5500/wjt.120986
Published online Sep 18, 2026. doi: 10.5500/wjt.120986
Table 1 Representative studies relevant to post-transplant growth and development in paediatric kidney transplantation
| Ref. | Design/population | Domain | Key findings relevant to growth | Main implication |
| Yu et al[4], 2025 | Single-centre cohort; paediatric kidney transplant recipients in China | Long-term growth outcomes | Height-for-age z-score improved after transplantation; transplant age and height at transplantation influenced later stature | Supports early transplantation and long-term graft preservation |
| Noguchi et al[28], 2022 | Retrospective single-centre cohort; 60 transplants | Catch-up growth | Catch-up growth was more likely in younger recipients and was negatively affected by rejection episodes | Age at transplantation and rejection control matter for growth recovery |
| Kizilbash et al[23], 2022 | Review of steroid avoidance/withdrawal strategies | Immunosuppression | Steroid minimisation did not consistently increase acute rejection in modern regimens and was associated with better growth and metabolic profiles | Favours steroid-sparing protocols in suitable low-risk children |
| Tourlamain et al[43], 2023 | Paediatric kidney transplant recipients | Corticosteroid exposure | Early corticosteroid withdrawal was associated with improved adult height outcomes | Cumulative steroid exposure remains clinically relevant for linear growth |
| Jagodzinski et al[48], 2022 | Prospective two-centre paediatric cohort | Growth hormone | Pre-transplant rhGH treatment was associated with superior post-transplant anthropometric outcomes | rhGH may be beneficial in selected children with persistent growth failure |
| Stabouli et al[51], 2022 | Clinical practice recommendations | Nutrition/metabolic risk | Obesity, metabolic syndrome, and cardiometabolic risk require structured assessment and management after transplantation | Growth promotion should be integrated with cardiometabolic surveillance |
| Prytuła et al[81], 2025 | Paediatric kidney transplant recipients | Metabolic acidosis | Growth is multifactorial; correction of metabolic acidosis alone is unlikely to fully restore linear growth | Metabolic management should complement, not replace, broader growth strategies |
| Selected studies[57,61,62,70] | Biomarker and machine-learning literature | Monitoring/prediction | Emerging biomarkers and predictive models are promising but focus mainly on rejection or graft outcomes rather than validated growth-specific endpoints | Routine use for growth-focused care still requires further validation |
- Citation: Wang YY, Hang G, Wen Q, Guo YP, Long C, Chen B. Growth and development following paediatric kidney transplantation: Mechanisms, influencing factors, and clinical management. World J Transplant 2026; 16(3): 120986
- URL: https://www.wjgnet.com/2220-3230/full/v16/i3/120986.htm
- DOI: https://dx.doi.org/10.5500/wjt.120986