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Purpose <p>This narrative review aimed to critically examine contemporary training methodologies and propose an evidence-informed framework for integrating strength, hypertrophy, and metabolic conditioning within minimalistic training models. The central research question addressed how multiple physical fitness components can be developed concurrently in advanced recreational practitioners under real-world constraints.</p> Methods <p>A structured literature search was conducted in PubMed, Scopus, and Google Scholar. Studies investigating resistance training, endurance training, and concurrent training models were considered. Preference was given to systematic reviews, meta-analyses, and controlled experimental studies. Evidence was synthesized qualitatively, with emphasis on methodological quality, consistency of findings, and applicability to advanced recreational training contexts.</p> Results <p>Current evidence indicates that interference effects between strength and endurance adaptations are context-dependent and largely influenced by training programming. Key moderating factors include intensity, volume, sequencing, recovery management, training status, and energy availability. Models that prioritize stimulus hierarchy and distribute training load effectively allow for the concurrent development of multiple physical fitness components. Based on these findings, a Minimalist Hybrid Training Framework (MHTF) was developed, structured around 3–4 weekly sessions emphasizing efficiency and sustainability.</p> Conclusion <p>Hybrid training should be understood primarily as a matter of training programming rather than methodological incompatibility. When guided by fundamental training principles, including stimulus prioritization, fatigue management, and minimum effective volume, hybrid training models may effectively improve strength, body composition, and metabolic conditioning in advanced recreational practitioners. This framework provides a practical and sustainable approach to training under real-world constraints.</p>

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Hybrid training for health and performance: a minimalist framework for sustainable adaptation in advanced recreational practitioners

  • 期刊论文

  • 出版模式：

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  • 发表日期：

    2026年8月5日

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  • Renato C. S. Lessa

摘要

Purpose

This narrative review aimed to critically examine contemporary training methodologies and propose an evidence-informed framework for integrating strength, hypertrophy, and metabolic conditioning within minimalistic training models. The central research question addressed how multiple physical fitness components can be developed concurrently in advanced recreational practitioners under real-world constraints.

Methods

A structured literature search was conducted in PubMed, Scopus, and Google Scholar. Studies investigating resistance training, endurance training, and concurrent training models were considered. Preference was given to systematic reviews, meta-analyses, and controlled experimental studies. Evidence was synthesized qualitatively, with emphasis on methodological quality, consistency of findings, and applicability to advanced recreational training contexts.

Results

Current evidence indicates that interference effects between strength and endurance adaptations are context-dependent and largely influenced by training programming. Key moderating factors include intensity, volume, sequencing, recovery management, training status, and energy availability. Models that prioritize stimulus hierarchy and distribute training load effectively allow for the concurrent development of multiple physical fitness components. Based on these findings, a Minimalist Hybrid Training Framework (MHTF) was developed, structured around 3–4 weekly sessions emphasizing efficiency and sustainability.

Conclusion

Hybrid training should be understood primarily as a matter of training programming rather than methodological incompatibility. When guided by fundamental training principles, including stimulus prioritization, fatigue management, and minimum effective volume, hybrid training models may effectively improve strength, body composition, and metabolic conditioning in advanced recreational practitioners. This framework provides a practical and sustainable approach to training under real-world constraints.