Abstract

This project investigated the effect of incorporating 8 weeks of biweekly upper limb loaded plyometric training (using elastic bands) into the in-season regimen of handball players. Participants were randomly allocated to a control group (CG) (n = 15, age = 18.1 ± 0.5 years, body mass = 73.7 ± 13.9 kg), or an experimental group (EG) (n = 14, age = 17.7 ± 0.3 years, body mass = 76.8 ± 10.7 kg). The measurements obtained pre- and post-intervention included a cycle ergometer force–velocity test, ball throwing velocity in three types of throwing, one-repetition maximum (1-RM) bench press and pull-over, and anthropometric estimates of the upper limb muscle volumes. The EG improved in absolute muscle power (W) (Δ23.3%; interaction effect p = 0.032 more than pre-intervention), relative muscle power (W·kg−1) (Δ22.3%; interaction effect p = 0.024), and all three types of ball throwing (Δ18.6%, interaction effect p = 0.019 on a jumping shot; Δ18.6%, interaction effect p = 0.017 on a three-step running throw; and Δ19.1%, interaction effect p = 0.046 on a standing throw). There was no interaction effect for the 1-RM bench press and pull-over performance. The upper limb muscle volumes remained unchanged in both groups. We concluded that adding biweekly elastic band plyometric training to standard training improves the muscle power and throwing velocity. Accordingly, such exercises should be adopted as a part of a pragmatic approach to handball training.

Highlights

  • Handball is characterized by intermittent high-intensity efforts

  • We considered participants as having reached peak power (Wpeak) when increasing the load resulted in a decreased power output

  • The data presented here suggest that replacing some aspects of typical training with elastic band upper body plyometric training produces moderate to large improvements in the muscle power of the upper limbs without meaningfully altering anthropometrics

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Summary

Introduction

Handball is characterized by intermittent high-intensity efforts. Phases of low intensity alternate with phases of high activity [1,2]. The most pertinent feature of this training is the progressive increase in external resistance due to the instability of the band, which may induce a greater stimulus for strength adaptations [18] and a greater neuromuscular demand, improving motor unit recruitment and rate coding [19]. Another feature of elastic resistance is that, in addition to improving velocity, it increases the eccentric stimulus of training, which in turn increases the myoelectric activity of the relevant musculature [20]

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