N = 24; age: EG1, 19.0 ± 0.9 years; EG2, 18.9 ± 1.2 years; CG: 19.8 ± 1.7 years; Level: collegiate athletes; TE: 7.8 ± 2.4 years
– Type: periodized resistance training (EG1) aimed at enhancing strength and power.
– Type: Tennis training integrated with conditioning exercises.
Body composition was measured, including parameters like body mass, body fat percentage, and fat-free mass; Strength assessments included Bench press, shoulder press, and leg press; Stroke volume (SV) evaluations were performed.
EG1 results showed body mass increases, body fat rising, and fat-free mass growth, alongside significant strength gains in bench press, shoulder press, leg press, and SV increases. In contrast, EG2 reported stable body mass and fat levels but also significant improvements in strength measures.
– Frequency/time/length: 2–3 days weekly for 90 minutes over a period of 9 months.
N = 27; age: EG1, 19.2 ± 1.1 years; EG2 18.6 ± 1.3 years; CG 19.3 ± 1.6 years; Level: collegiate athletes; TE: 8.1 ± 3.5 years
– Type: non-linear periodized resistance training (EG1) focused on varying intensity throughout the training period.
– Type: traditional tennis training complemented by conditioning programs.
Body composition metrics included body mass, body fat, fat-free mass; Strength measures involved hand grip strength, leg press, bench press, and shoulder press; Additionally, endurance (VO2max), speed (10m, 20m), agility (Lateral Agility Test), power (Vertical Jump Height), and stroke volume (SV) were assessed.
EG1 demonstrated stable body mass, an increase in body fat, and fat-free mass gains; however, VO2max levels decreased while strength measures in leg press and bench press showed notable improvement.
– Type: non-periodized resistance training (EG2) employed during the same time frame for comparison.
– Frequency/time/length: 3 days weekly for 90 minutes across 9 months.
N = 24; age: EG1, 22.3 ± 2.2 years; EG2, 22.6 ± 3.2 years; CG, 21.9 ± 2.9 years; Level: collegiate competitors; TE: greater than 8 years
– Type: core training (EG1) to build stabilization and strength in the trunk area;
– Type: core training supplemented with resistance training (EG2) for enhanced muscle development.
– Type: practiced tennis drills aimed at improving skills.
SA measurements indicated improvements across both experimental groups, highlighting the effectiveness of core-based training in performance enhancement.
– Frequency/time/length: 5 days weekly for 120 minutes throughout the same 6-week period.
N = 30; age: 15.3 ± 0.8 years; Level: regional athletes; TE: greater than 1 year
– Type: core training combined with regular training to optimize performance metrics.
– Type: ongoing regular tennis training was utilized in addition.
Results indicated marked improvements in dynamic balance, as assessed by the Star Excursion Balance Test (SEBT), and agility gains reflected in the timed agility test performance.
– Frequency/time/length: 3 days weekly also spanning 5 weeks.
N = 20; age: 11.20 ± 0.834 years; level: participants from tennis clubs; TE: greater than 2 years
– Type: functional training integrated with regular training to improve overall athleticism.
– Type: participating in specific tennis stroke drills focused on skill enhancement.
Improvements noted were significant in speed measured at 10 meters, vertical jump height (VJH), stretch and range (SAR), as well as strength in hand grip and agility assessed through the timed test.
– Frequency/time/length: 4 days weekly, also maintaining 90-minute sessions throughout the same 8 weeks.
– Intensity: sessions were targeted at an estimated power intensity of 75%.
N = 16; age: 9.25 ± 0.74 years; level: tennis club participants; TE: 9.25 ± 0.74 years
– Type: coordination training synergized with club tennis training to boost athletic development.
– Type: standard club tennis training to maintain skill levels.
Measurable improvements revealed increased vertical jump (VJ) outcomes, enhanced agility reflected in the timed agility test, while speed over 20 meters remained consistent.
– Frequency/time/length: structured similarly for optimal skill retention and progression.
N = 40; age: EG, 18.2 ± 1.9 years; CG, 17.9 ± 2.2 years; level: national second-level players; TE: not reported
– Type: dedicated core training focused on strength and stability enhancement.
– Type: engagement in traditional strength training to improve overall muscle function.
Results highlighted significant improvements in the bridge-type test and abdominal fatigue test, while stochastic measures of strength and stability (SA) remained stable alongside positive changes in stroke volume (SV).
– Frequency/time/length: 3 days weekly, sustaining the same time frame.
N = 17; age: EG, 12.17 ± 0.4 years; CG, 12.09 ± 0.6 years; level: beginners; TE: not reported
– Type: targeted plyometric training to enhance explosive strength and power output.
– Type: conventional normal tennis training to maintain skill levels.
Results showed improvements in hand grip strength and power measured through the medicine ball throw (MBT) exercise.
– Frequency/time/length: consistent across the training timeline for 7 weeks.
N = 24; age: EG1, 15.6 ± 1.0 years; EG2, 15.8 ± 0.7 years; CG, 15.6 ± 0.9 years; level: tennis club participants; TE: greater than 7 years
– Type: machine-based neuromuscular training combined with tennis drills and injury preventative strategies (EG1) to enrich athletic performance.
– Type: engaging in standard tennis drills with injury prevention tactics.
Power outcomes were evaluated using the Countermovement Jump (CMJ), medicine ball throws (OMBT, FMBT, BMBT); speed was assessed over various distances (5m, 10m, 15m); agility was determined through a zero-to-five test; stroke volume (SV) was also monitored.
EG1 evidenced improvements in CMJ, while other metrics showed stability; EG2 noted significant enhancement in power metrics and speed across specified distances with improved agility in testing.
Ed intensity and volume were implemented throughout the program to promote adaptations in strength and power.
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### Summary of Training Programs and Findings
1. **Kraemer et al. (2003)**
– **Participants**: N = 27 (Collegiate athletes)
– **Duration**: 9 months
– **Group Types**:
– EG1: Non-linear periodized resistance training
– EG2: Single-set resistance training (8-10 RM)
– **Findings**: Improvements in leg press and bench press strength were noted, despite a noted decrease in VO2max.
2. **Fan (2018)**
– **Participants**: N = 24 (Collegiate competitors)
- **Duration**: 6 weeks
– **Group Types**:
– EG1: Core training
– EG2: Core training + resistance training
– **Findings**: Successful enhancements across both groups indicated the effectiveness of core training.
3. **Bashir et al. (2019)**
- **Participants**: N = 30 (Regional athletes)
– **Duration**: 5 weeks
– **Group Types**:
– Core training + regular training
- **Findings**: Noted improvement in dynamic balance and agility through various tests.
4. **Zırhlı and Demirci (2020)**
– **Participants**: N = 20 (Tennis club participants)
– **Duration**: 8 weeks
- **Group Types**:
– Functional training + regular tennis training
– **Findings**: Significant developments in speed, vertical jump height, and hand grip strength.
5. **Gül and Çelik (2021)**
– **Participants**: N = 16 (Tennis club participants)
– **Duration**: 8 weeks
– **Group Types**:
– Coordination training + club tennis training
– **Findings**: Improvements in vertical jump and agility while speed remained stable.
6. **Wang et al. (2022)**
– **Participants**: N = 40 (National second-level players)
– **Duration**: 9 weeks
– **Group Types**:
– Core training
- Traditional strength training
– **Findings**: Enhanced strength and stability measures, with favorable changes in stroke volume.
7. **Ebada (2022)**
– **Participants**: N = 17 (Beginners)
– **Duration**: 7 weeks
– **Group Types**:
– Plyometric training
– Conventional tennis training
– **Findings**: Gains in hand grip strength and power output via medicine ball throw increased.
### Conclusion
Across various studies involving different training methodologies aimed at enhancing performance metrics in tennis players, improvements were consistently observed in strength, stability, balance, and agility through targeted training regimens. The blending of resistance training, core stability exercises, and specific sport drills effectively contributed to overall athletic performance enhancements in participants ranging from beginners to collegiate athletes.