How to Program Jump Training: Weekly Template

Athletes who follow unstructured jump training — random plyometrics, max-effort box jumps every session — typically plateau within 4–6 weeks and sometimes regress as accumulated fatigue suppresses performance. Research by Markovic & Mikulic (2010) found that plyometric training programmes with structured volume progression produced significantly greater vertical jump improvements (weighted mean difference: 4.7 cm) than unstructured approaches, even when total contacts were matched. The difference is periodisation: systematically varying the training stimulus over time to drive adaptation while allowing recovery. This guide provides a complete 12-week programme structure with weekly templates, load progression rules, and monitoring checkpoints grounded in the dose-response evidence for plyometric training.

Before touching a programme template, four fundamental principles determine whether the structure will produce results or stagnation:

1. Specificity of the Force-Velocity Spectrum
Jump height is not improved by training in only one zone of the force-velocity curve. An effective programme must include heavy strength work (high force, low velocity), power work (balanced force and velocity), and reactive-plyometric work (low force, high velocity). The relative emphasis of each zone changes across the 12 weeks.

2. Progressive Overload with Volume as the Primary Variable
For plyometric training, volume is measured in total foot contacts per session. Research by Chu & Myer (2013) recommends beginner athletes start at 80–100 contacts/session, intermediate at 120–150, and advanced at 150–200. Intensity (drop height, load added, contact time requirements) is the secondary progression variable, increased only after volume targets are achieved.

3. Adequate Inter-Session Recovery
High-intensity plyometrics (depth jumps, loaded jumps) require 48–72 hours of recovery before the next high-intensity session. Programming sessions on Monday, Wednesday, and Friday satisfies this requirement while fitting the most common training week structure. Sessions programmed with less than 36 hours between plyometric work produce measurably impaired CMJ performance, signalling insufficient recovery.

4. Sequencing Within Sessions
Within each training session, neural-quality work must precede fatiguing work: plyometrics and jump training come before strength training. The reason is simple — plyometric quality (contact time, jump height, RFD) deteriorates with neuromuscular fatigue. Performing box jumps after squats consistently produces 8–12% lower jump heights compared to performing jumps first (Comyns et al., 2006).

Twelve weeks encompasses three 4-week mesocycles, each targeting a distinct physiological adaptation:

Within each 4-week mesocycle, a 3:1 loading-to-deload ratio is applied: weeks 1–3 progressively increase volume by 10–15% per week, and week 4 reduces volume by 40–50% while maintaining intensity. This structure is derived from the supercompensation model and is supported by the observation that athletes test highest on CMJ approximately 5–7 days after a deload period ends — the supercompensation window (Zatsiorsky & Kraemer, 2006).

The 3-day-per-week template provides sufficient stimulus for adaptation while allowing the 48-hour recovery windows between high-intensity sessions. The three days are differentiated by primary training focus:

Day 1 (Monday) — Power and Reactive Focus
Warm-up (10 min): general movement preparation, 5 min light jog, dynamic mobility.
Reactive component (15–20 min): Drop jumps, depth jumps, or hurdle hops — high-intensity, short ground contact, 3–5 sets × 4–6 reps.
Ballistic component (15–20 min): Jump squats or hex bar jumps at 20–35% BW, 4–5 sets × 3–5 reps.
Strength (20–25 min): Squat variation at 75–85% 1RM, 3–4 sets × 3–5 reps.

Day 2 (Wednesday) — Strength Foundation Focus
Warm-up: same.
Plyometric component (10–15 min): Broad jumps or standing long jumps — horizontal force development, 3 × 5.
Primary strength (30–35 min): Squat at 80–90% 1RM (3–4 × 3–4) + posterior chain (RDL, Nordic curl, trap bar deadlift, 3 × 4–6).
Accessory (15 min): Single-leg strength, calf strength, core work.

Day 3 (Friday) — Unilateral and SSC Focus
Warm-up: same.
Fast SSC (10 min): Ankle hops, pogo jumps — contact time below 150 ms, 3 × 10–15.
Unilateral jumps (15 min): Single-leg box jump, single-leg broad jump, 3 × 4 per leg.
Unilateral strength (25 min): Bulgarian split squat, step-up, pistol squat progression, 3–4 × 6–8 per leg.

The table below tracks total plyometric contacts per session, primary strength load range, and the week's focus for each of the 12 weeks.

The most common error in jump programme design is increasing both volume and intensity simultaneously, which compounds fatigue beyond the recovery capacity of the neuromuscular system. A conjugate approach to volume-intensity management uses the following rules:

• In accumulation weeks: Volume increases by 10–15% per week; intensity increases by no more than 2.5–5% load or one drop-height increment (e.g., 40 cm to 50 cm box).
• In intensification weeks: Intensity increases by 5–8% load; volume stays at or slightly below the peak of the prior accumulation block.
• In realisation weeks: Intensity remains near peak (85–92%); volume decreases 20–30% per week. Total contacts drop to 40–60% of accumulation peak.

Acute:Chronic Workload Ratio (ACWR) for plyometric contacts provides an objective safety check. Gabbett (2016) established that an ACWR above 1.5 significantly elevates soft-tissue injury risk. For jump training, calculate ACWR weekly as: (this week's contacts) / (average contacts over the prior 4 weeks). Keep the ratio between 0.8 and 1.3 during loading weeks. A ratio below 0.8 indicates underloading; above 1.3 indicates overreach risk.

Programme monitoring for jump training requires three data streams:

1. Weekly CMJ Test
Perform 3 standardised CMJs (hands on hips, shoulder-width stance) at the start of each Day 1 session. Record the median. Compare to the rolling 4-week average. A sustained decline of 3% or more over two consecutive weeks is the signal to initiate an unplanned deload — do not wait for the scheduled week 4 recovery. A sustained increase of 3% or more signals readiness to advance to the next intensification level ahead of schedule.

2. Intra-Session Velocity Tracking (Strength Component)
Track mean concentric velocity on the primary strength exercise. Target velocity zones by phase: accumulation (0.55–0.70 m/s for squat at 75–80%), intensification (0.70–0.90 m/s at 78–83%), realisation (above 0.90 m/s at 82–88%). Falling below the phase target velocity on more than 2 of 4 sets indicates either excessive fatigue or incorrect load selection.

3. Subjective Readiness Score
A 1–10 self-reported readiness score at session start takes 5 seconds but provides context for objective data. A CMJ drop with readiness score of 4–5 (poor sleep, high life stress) is interpreted differently from the same CMJ drop with a readiness score of 8 (no external confounders — genuine training fatigue). Combination of objective and subjective data improves the quality of load-adjustment decisions.

Four mistakes consistently derail well-intentioned jump training programmes:

Error 1: Plyometrics after strength training. Performing squat work before drop jumps impairs contact time and jump height by 8–15%. Always sequence maximal-intent plyometrics before heavy loaded work in the same session.

Error 2: No deload week. Athletes commonly skip the week-4 deload when feeling good and interpret it as unnecessary. The research on supercompensation shows that the performance peak occurs during or immediately after the deload — skipping it delays the adaptation expression and increases overreach risk in the following loading block.

Error 3: Jumping from low drop heights to maximum in one mesocycle. Progressing from 30 cm to 60 cm drop jumps within a single 4-week block generates rapid increases in ground reaction force impulse that connective tissue cannot adapt to in that timeframe. The Achilles and patellar tendons require 8–12 weeks of progressive loading to fully adapt to each new demand level.

Error 4: Identical programming for all athletes. An athlete with a squat-to-bodyweight ratio below 1.5× needs more accumulation-phase strength work before entering intensification. An athlete above 2.5× likely has sufficient strength and should spend relatively more time in reactive-plyometric and speed-strength work. Applying the same template to both wastes the weaker athlete's potential and underloads the stronger one.