FSHP Academy
Strength & Conditioning — all lessons

Coaching and Assessment

Fundamentals of coaching in strength and conditioningAthlete assessment and evaluation

Planning and Periodisation

Periodisation and long-term athlete development (LTAD)Macro-, meso- and microcycle planningPlan, prepare and deliver S&C for sportDeloading and fatigue management

Programme Design

Progressive overload and programming variables (sets, reps, tempo)Program design for resistance trainingCompound lifts: squat, deadlift and bench variationsPlyometrics and explosive power trainingSpeed and agility program designAerobic endurance trainingAgility, speed and endurance protocolsDesigning individual S&C sessionsPosition-specific drills: team vs individual sports

Recovery

Nutrition, sleep and regeneration strategiesOvertraining: recognition and load monitoring

Progressive overload and programming variables (sets, reps, tempo)

The canonical lesson on resistance-training variables — load, volume, proximity to failure, rest, tempo and frequency — and how to apply progressive overload.

Intermediate Evidence: Strong evidence 3 min read Reviewed 2026-10-31 Status: draft

Learning objectives

  • Define progressive overload and its methods
  • Explain the load–repetition relationship and RIR
  • Apply evidence on volume, load and proximity to failure
  • Prescribe rest, tempo and frequency for different goals

Before this lesson

Why this matters

This is the canonical lesson on programming variables; other lessons link here. Getting these variables right is the core of effective resistance training.

Progressive overload

To keep adapting, training demands must gradually increase [ratamess2009]. Methods: more load, more reps, more sets, greater range, slower tempo, shorter rest (density), harder variations.

Load and repetitions

The load–repetition continuum A curve shows the approximate percentage of one-repetition maximum that can be lifted for a given number of repetitions to failure, from 100 percent for one rep to about 50 percent for thirty reps. Maximal-strength gains are greatest with heavy loads of roughly one to six repetitions. Muscle growth is similar across a wide range of about six to thirty repetitions when sets are taken close to failure. Higher repetitions build local muscular endurance. Max strength Hypertrophy similar across this range if sets end close to failure (Schoenfeld et al., 2017) Muscular endurance emphasis 151015202530 40%60%80%100% Repetitions to failure Load (% of 1RM) Curve from the Epley equation; real values vary by exercise and individual. Zones overlap — they are emphases, not boundaries.
Figure 1. The load–repetition continuum with training emphases. — Original diagram, FSHP Academy (schematic, not to scale).
  • Heavier loads (≈1–6 reps) produce greater maximal strength gains.
  • Hypertrophy is similar across a wide range of loads when sets are taken close to failure [schoenfeld2017load].

Volume

Weekly set volume shows a dose–response relationship with hypertrophy [schoenfeld2017vol]. Many programmes target roughly 10–20 hard sets per muscle per week, individualised to recovery.

Proximity to failure

Hypertrophy is similar when sets end close to failure compared with to failure; training far from failure is less effective [refalo2023]. Use RIR — reps in reserve — to prescribe effort [helms2016].

Rest, tempo and frequency

GoalLoadRepsRIRRest
Strength80–95% 1RM1–61–32–5 min
Hypertrophy60–85% 1RM6–15+0–31–3 min
Power30–70% (exercise-specific)1–6, fast≥32–3 min
Endurance<60%15+0–3≤1 min

Frequency: training each muscle 2+ times per week helps distribute volume.

Common mistakes and misconceptions

Case study

A client’s squat stalls on 5 × 5. Switching to a double-progression scheme with RIR targets and adding a weekly back-off volume day restarts progress over 8 weeks.

Further learning: video lessons

Video links are only marked “verified” after a human has watched them. Unverified entries open a YouTube search for that channel and topic rather than a guessed link.

Introductory needs verification — opens a YouTube search

Progressive overload explained

evidence-based strength coaches (search)

You will understand: ways to progress training

Why: Overview.
Technical needs verification — opens a YouTube search

Training volume and hypertrophy research

Brad Schoenfeld lectures (search)

You will understand: volume, load and effort

Why: Primary researcher.

Knowledge check

Knowledge check · 0/5

1. Schoenfeld et al. (2017) found low- vs high-load training produced…

Answer B. When sets are taken close to failure.

2. Refalo et al. (2023) concluded hypertrophy…

Answer B. Proximity to failure matters; absolute failure is not required.

3. A typical rest interval for heavy strength sets is…

Answer B. Allows high-quality repeated efforts.

4. Double progression means…

Answer B. Simple progression method.

5. Weekly set volume and hypertrophy show…

Answer B. Schoenfeld et al. (2017) meta-analysis.

Short-answer & application questions

  1. Write a 6-week double-progression plan for squats.
  2. Explain RIR to an athlete and use it in a programme.
  3. Calculate weekly hard sets per muscle group in a sample programme.

Key takeaways

  • Progressive overload: gradually increase training demand (load, reps, sets, range, density or complexity).
  • Heavier loads favour maximal strength; hypertrophy occurs across a wide load range when sets end close to failure.
  • Weekly volume shows a dose–response with hypertrophy; ~10+ hard sets per muscle per week is a common target.
  • RIR-based effort prescription auto-regulates training.

Connected topics

strength conditioning

Program design for resistance training

functional training

Manipulating training variables

personal training

Muscular training: foundations and benefits

assessment

Muscular strength, endurance and power assessments

References

  1. Ratamess NA, Alvar BA, Evetoch TK, et al.; American College of Sports Medicine (2009). Progression models in resistance training for healthy adults. Medicine & Science in Sports & Exercise, 41(3):687–708. doi:10.1249/MSS.0b013e3181915670 Position stand check pending
  2. Schoenfeld BJ, Ogborn D, Krieger JW (2017). Dose-response relationship between weekly resistance training volume and increases in muscle mass: a systematic review and meta-analysis. Journal of Sports Sciences, 35(11):1073–1082. doi:10.1080/02640414.2016.1210197 Meta-analysis check pending
  3. Schoenfeld BJ, Grgic J, Ogborn D, Krieger JW (2017). Strength and hypertrophy adaptations between low- vs. high-load resistance training: a systematic review and meta-analysis. Journal of Strength and Conditioning Research, 31(12):3508–3523. Meta-analysis check pending
  4. Refalo MC, Helms ER, Trexler ET, Hamilton DL, Fyfe JJ (2023). Influence of resistance training proximity-to-failure on skeletal muscle hypertrophy: a systematic review with meta-analysis. Sports Medicine, 53(3):649–665. Meta-analysis check pending
  5. Helms ER, Cronin J, Storey A, Zourdos MC (2016). Application of the repetitions in reserve-based rating of perceived exertion scale for resistance training. Strength and Conditioning Journal, 38(4):42–49. Narrative review check pending

Educational content only — not medical advice. Consult a qualified clinician for diagnosis or treatment.