China Oncology ›› 2025, Vol. 35 ›› Issue (10): 920-928.doi: 10.19401/j.cnki.1007-3639.2025.10.003
• Specialist's Commentary • Previous Articles Next Articles
LI Yalin(
), TU Yan, QUAN Ming(
)
Received:2025-06-27
Revised:2025-09-23
Online:2025-10-30
Published:2025-11-19
Contact:
QUAN Ming
Supported by:Share article
CLC Number:
LI Yalin, TU Yan, QUAN Ming. Research progress and prospects of exercise intervention in comprehensive management of colorectal cancer[J]. China Oncology, 2025, 35(10): 920-928.
Tab. 1
Main research progress of different types and intensities of exercise in the comprehensive management of CRC"
| Category | Research progress | References |
|---|---|---|
| Prevention stage of CRC | MVPA can counteract the harms of sedentary behavior and reduce the risk of cancer in high-risk populations such as obesity and type 2 diabetes | [ |
| VILPA can reduce the incidence and mortality of CRC, which is significant in populations without exercise habits | [ | |
| Treatment stage of CRC | Preoperative exercise improves physical function and increases muscle mass, providing a buffer for surgery. The positive effects of preoperative exercise continue postoperatively, allowing patients to maintain lean body mass after neoadjuvant chemotherapy and radiation, improving HRQOL scores | [ |
| Postoperative structured exercise, especially personalized exercise programs, can significantly extend DFS and OS of CRC patients and reduce adverse reactions during adjuvant chemotherapy and radiation | [ | |
| Exercise and psychological intervention can significantly improve CRF. Aerobic exercise can significantly improve cardiopulmonary function, and RET can significantly alleviate symptoms of depression, and serve as a non-pharmacological method of pain treatment. The combination of the two is more effective than either alone | [ |
Tab. 2
Research progress on the biological mechanisms of exercise intervention in colorectal cancer (CRC)"
| Mechanism category | Research progress | References | |
|---|---|---|---|
| Tumor microenvironment remodeling | Metabolic reprogramming | Exercise modulates the IGF axis via the AMPK/mTOR pathway, improving insulin resistance and hyperinsulinemia, and restoring muscle and adipose cell homeostasis to enhance CRC prognosis | [ |
| Inflammation-immune regulation | Exercise-induced myokines release immune-regulatory cytokines, promoting NK and T cell functions and enhancing anti-tumor effects. Acute and chronic exercise modulate IL-6 levels to reduce inflammation and tumor risk | [ | |
| Systemic biological effects | Neuroendocrine regulation | Exercise improves serum adipokine levels, reduces treatment toxicity, and regulates bone metabolism to combat osteoporosis and muscle atrophy | [ |
| Gut microbiota reconstruction | Exercise enhances gut microbiota diversity and beneficial bacteria, increasing mucus layer thickness and secretion, promoting intestinal motility, and reducing intestinal inflammation and cancer risk | [ | |
| Epigenetic modification | Exercise upregulates tumor suppressor gene expression, with DNA methylation and mRNA expression changes primarily occurring in the delayed recovery period post-exercise. Chronic moderate-intensity exercise reduces promoter methylation levels to enhance apoptosis and inflammation regulation | [ | |
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