| 英文摘要 |
High-intensity sprinting and acceleration rely on neuromuscular capability, horizontal force application efficiency, and technical coordination. Consequently, resisted sprint training (RST) is widely utilized to enhance start, acceleration, and explosive performance. However, there is a lack of consensus regarding the optimal load prescription, particularly concerning velocity decrement (VD) and training strategy. This study aims to systematically clarify the impact of various load settings (i.e., VD and body weight percentage (BW) methods) and prescription strategies on sprint performance. This systematic review screened English literature published between 2010 and 2025 from databases including PubMed and Google Scholar, ultimately including 88 original research articles. We systematically compared the differences between the acute and long-term benefits of RST, while analyzing underlying physiological adaptations and changes in movement quality. Overall findings indicate that low-load RST (≤10-15% BW or 10-20% VD) can improve mid-tolate acceleration and speed endurance without compromising technique. Conversely, medium load (15-30% BW or 20-30% VD) to high load RST (30-50% BW or 50-80% VD) significantly enhances initial propulsion and maximal horizontal force application within the 0-10 m phase. However, loads exceeding the individual's technical tolerance (excessive load, such as≥60% BW or 50-80% VD) may lead to compensatory movements and fatigue accumulation. At the acute level, single or 3 bouts of RST (10-30% BW or 20-30% VD) paired with adequate recovery (4-8 minutes) are most effective at inducing post-activation performance enhancement (PAPE), temporarily boosting acceleration. Long-term adaptation suggests RST is most beneficial for the 0-20 m acceleration phase, while maximal velocity max requires complementation with unresisted or assisted sprinting. The efficacy of RST is influenced by the interaction of load intensity, VD, recovery duration, technical maturity, and individual force-velocity profile. In practical application, VD should be prioritized for individualized load prescription, and the training strategy should adjust the direction of resistance (horizontal, vertical) and periodization scheme based on acceleration phase requirements, thereby enhancing horizontal force application efficiency, technical stability, and overall sprint performance. |