This book presents a mechanistic analysis of physical recovery interventions interpreted through measurable biological responses. Rather than focusing on training programming, it examines how thermal, mechanical, and needling-based modalities influence skeletal muscle recovery through microvascular regulation, neuromechanical tissue behavior, and pain modulation. This book develops a biomarker-guided framework for designing recovery protocols based on dose–response logic (temperature x pressure x time x mechanical load). It emphasizes endpoint selection, reproducibility, and clinical translation, integrating experimental findings with medical application.
By:
Robert Trybulski
Imprint: Springer Nature
Country of Publication: Singapore
Dimensions:
Height: 235mm,
Width: 155mm,
ISBN: 9789819206308
ISBN 10: 9819206308
Series: SpringerBriefs in Applied Sciences and Technology
Pages: 148
Publication Date: 09 May 2026
Audience:
Professional and scholarly
,
Undergraduate
Format: Paperback
Publisher's Status: Active
Recovery as a Biological Process.- Microvascular Regulation in Skeletal Muscle Recovery.- Neuromechanical Biomarkers.- Thermal Interventions: Cold and Heat.- Mechanical Interventions: Compression, Massage, and Lymphatic Drainage.- Needling-Based and Neuromodulatory Interventions.- Multimodal Protocols.- Designing Clinical Protocols.- Translational Applications.
Dr. Robert Trybulski is a physiotherapist, combat sports coach, and academic researcher based in Poland. His scientific work focuses on the biological and physiological mechanisms of post-exercise recovery, with particular emphasis on microvascular regulation, neuromechanical muscle properties (tone, stiffness, elasticity), and pain modulation following high-intensity loading. His research integrates controlled experimental models with clinical practice, examining dose-dependent recovery interventions based on physical and manual stimuli, including compression, heat–cold therapy, contrast protocols, massage, lymphatic drainage, and dry needling. A central theme of his work is translating measurable physiological signals—microcirculatory parameters, autonomic markers, and neuromechanical indices—into reproducible, biologically grounded intervention protocols applicable in medicine and high-performance sport.