The chapter the exam leans on hardest: six guiding principles, a seven-step design sequence, the %1RM-to-reps relationship, how load/reps/sets/rest map onto a training goal, the 1RM testing protocol, and the 2-for-2 progression rule.
What actually shows up on the exam
Every decision in this chapter eventually traces back to a small set of guiding principles. They don't dictate a specific number on a bar — they explain why the numbers you pick have to change based on who's in front of you, what they're training for, and how long they've been training.
| Principle | What it means in practice |
|---|---|
| Specificity | Adaptations mirror the demands actually imposed — the SAID principle (Specific Adaptation to Imposed Demands). Train slow and heavy, get stronger and slower-twitch adapted; train fast and light, get faster and more power-oriented. |
| Overload | The training stimulus has to exceed what the tissue is already accustomed to, or no adaptation is triggered at all. |
| Progression | Overload has to keep advancing as the athlete adapts — today's overload is tomorrow's baseline. |
| Variation | Systematically changing volume and intensity over time (periodization) prevents staleness, overuse injury, and plateaus that a flat, unchanging program eventually produces. |
| Individualization | Training age, injury history, sport, and goals all shift what "correct" programming looks like — no single program transfers unchanged across athletes. |
| Diminishing returns | The closer an athlete sits to their genetic ceiling, the smaller each additional gain gets and the more precisely the program has to be dialed in to keep producing one. A novice improves off almost any reasonable stimulus; an advanced athlete needs a much more exact one. |
Where people lose points
Overload and progression get conflated constantly. Overload is the requirement that the stimulus exceed current capacity right now; progression is the requirement that overload keeps climbing over time as the athlete adapts. A single hard workout can overload without progressing anything — progression is what a program does across weeks and months.
Program design isn't one decision — it's seven, made in a fixed sequence, because each step constrains the ones after it. You can't pick exercise order before you've picked exercises; you can't set loads before you know how many reps the goal calls for.
A way to keep the order straight
Needs → Exercise → Frequency → Order → Load/reps → Volume → Rest. Notice load/reps comes before volume — you decide how heavy and how many reps a set contains before you decide how many of those sets to stack.
Needs analysis answers two separate questions before a single exercise gets chosen: what does the sport demand, and what does this athlete specifically need. Skipping either half produces a program that's either generic (fits the sport but ignores the individual) or aimless (fits the individual but ignores what they're actually training for).
The sport tells you the target; the athlete tells you the starting point. Assessment blends training history (years of consistent, structured resistance training — the athlete's training age), physical testing (strength, power, speed, body composition), and a movement/structural screen (postural asymmetries, mobility restrictions, old injuries that still limit a pattern).
| Status | Training age | What that means for programming |
|---|---|---|
| Novice / beginner | <1 year of consistent, structured training | Technique is the limiting factor, not load. Almost any reasonable stimulus produces gains. |
| Intermediate | ~1–2 years of consistent training | Basic technique is solid; the program can start introducing more variation and higher relative intensities. |
| Advanced | Multiple years of consistent training, often with competitive lifting/sport history | Diminishing returns are in full effect — needs precise periodization, higher technical demand (Olympic lift variations), and more total volume to keep progressing. |
Where the equipment is available, force-plate testing (a countermovement jump is the standard protocol) adds objective numbers to the athlete assessment that a stopwatch or a 1RM test alone can't capture.
| Metric | What it captures |
|---|---|
| Peak force | The largest force the athlete produces against the plate during the movement — a marker of raw force-production capacity. |
| Rate of force development (RFD) | How quickly force climbs from onset toward peak. Sports decided in fractions of a second (sprinting, change of direction) live and die on RFD, not just peak force. |
| Peak power | The highest instantaneous force × velocity product during the movement — the single best proxy for explosive athletic output. |
| Jump height | Derived from flight time or takeoff velocity; a simple, sport-relevant power output marker that's easy to track longitudinally. |
| Reactive strength index (RSI) | Jump height (or height/contact-time) divided by ground contact time — flags how efficiently the athlete uses the stretch-shortening cycle, which matters most for sports full of rapid jump-and-land or cut actions. |
| Asymmetry index | The percentage difference in force or power output between the left and right limb — a commonly cited flag for elevated injury risk and a target for corrective, single-leg programming. |
Needs analysis converges on one output: a primary training goal — maximal strength, power, hypertrophy, or muscular endurance — that everything downstream (exercise selection through rest periods) gets built around. That goal isn't fixed for the whole year; it shifts with the competitive calendar.
| Season | Primary emphasis | Volume / intensity pattern |
|---|---|---|
| Off-season | Build a strength and hypertrophy base; address weaknesses flagged in the needs analysis | Highest volume, lower relative intensity |
| Preseason | Convert strength into power; sharpen sport-specific movement quality | Volume tapers down as intensity rises |
| In-season | Maintain strength and power without adding fatigue that costs competition performance | Lowest volume, moderate-to-high intensity, reduced frequency |
| Postseason (active rest) | Recover, address nagging injuries, unstructured general activity | Minimal structured loading |
With the goal set, exercise selection is where the program actually starts taking shape. The exam tests this step from four angles: how weightlifting derivatives get loaded, how movements map onto the sport, how muscle balance gets protected, and a handful of remaining practical considerations.
Olympic lifts and their derivatives (hang variations, pulls, high pulls, push presses) aren't all loaded the same way, because each isolates a different phase of the full lift. A pull variation — where the bar never gets caught overhead or in the rack — can be loaded heavier than the full lift it's derived from, since the catch-position technical demand (and the mobility/stability it requires) is removed entirely. A hang variation starts from a shortened range and reduced starting stretch, which typically calls for a slightly lighter load than the equivalent lift from the floor. Choosing which derivative to program is really choosing which portion of the pull (first pull, transition, second pull, or catch) receives the training emphasis.
| Power quality | Typical %1RM (of the relevant lift) | Example |
|---|---|---|
| Maximal strength | ≥85% | Back squat, deadlift near a training max |
| Strength-speed | ~55–85% | Heavier clean pulls, moderately loaded jump squats |
| Speed-strength | ~30–55% | Loaded jump squats, medicine ball work |
| Starting strength / absolute speed | <30% (often bodyweight only) | Unloaded jumps, sprint-specific and plyometric work |
That continuum is the force-velocity curve in table form: strength-speed sits toward the high-force/low-velocity end, speed-strength toward high-velocity/low-force, and a well-rounded power program touches multiple points along it rather than living at one end.
Exercise selection should mirror the movement analysis from needs analysis — matching planes of motion, joint actions, and (where relevant) contraction velocity to what the sport itself demands. Beyond matching movement patterns, exercises also get sorted by their role in the program.
| Classification | Criterion | Examples |
|---|---|---|
| Core | Involves one or more large muscle areas, recruits multiple joints, and closely resembles the sport's own movement demands | Squat, deadlift, bench press, power clean |
| Assistance | Involves smaller muscle mass, typically single-joint, and supports (rather than drives) the core lifts | Leg curl, lateral raise, biceps curl |
| Structural | Loads the vertebral column directly along its axis | Back squat, deadlift, power clean, overhead press |
| Non-structural | Doesn't load the spine axially, even when it involves multiple joints | Leg press, leg extension, seated row, lat pulldown |
| Multi-joint | Movement occurs at two or more joints simultaneously | Squat, bench press, row |
| Single-joint | Movement occurs at just one joint | Biceps curl, leg extension, calf raise |
A common mix-up
"Structural" doesn't mean "hard" or "important" — it specifically means the exercise loads the spine along its axis. A leg press can be brutally demanding and still count as non-structural, because the load routes through the sled and legs rather than down through the spine. A power clean is structural even though the load momentarily leaves the athlete's hands, because the lift starts and finishes with axial spinal loading.
A program built entirely around the muscles a sport visibly uses will eventually create an agonist-antagonist imbalance — the pressing muscles (chest, anterior shoulder) overpowering the pulling muscles (upper back, posterior shoulder), or quadriceps dominance overshadowing an undertrained posterior chain. Left unaddressed, that imbalance is a well-documented driver of overuse injury. Deliberately programming the "invisible" side of each pattern — pulling to match pressing, hip-hinge posterior-chain work to match quad-dominant squatting — is a direct, practical output of the injury-analysis piece of needs analysis.
| Pattern | Example exercises |
|---|---|
| Squat | Back squat, front squat, goblet squat |
| Hinge | Deadlift, Romanian deadlift, kettlebell swing |
| Push — horizontal | Bench press, push-up |
| Push — vertical | Overhead press, push press |
| Pull — horizontal | Bent-over row, seated cable row |
| Pull — vertical | Pull-up, lat pulldown |
| Lunge / single-leg | Walking lunge, split squat, step-up |
| Carry | Farmer's walk, suitcase carry |
| Rotation / anti-rotation | Cable chop, Pallof press |
Frequency is simply how many training sessions occur per week — but "how many sessions" and "how often is any given muscle group trained" aren't the same question once split routines enter the picture. A four-day-a-week upper/lower split trains each muscle group twice weekly; a four-day-a-week body-part split might only train a given muscle group once.
| Status | Typical frequency | Why |
|---|---|---|
| Novice | 2–3 days/week | Recovery capacity for a given pattern is still developing; total-body sessions with a day of rest between them are the safest default. |
| Intermediate | 3–4 days/week | Can tolerate more frequent stimulus; splitting upper/lower becomes a reasonable option. |
| Advanced | 4–7 days/week (sometimes 2 sessions/day) | Trains with body-part or push/pull/legs splits, sometimes doubling sessions to manage volume without any single session running too long. |
| Season | Frequency |
|---|---|
| Off-season | 4–6 days/week |
| Preseason | 3–4 days/week |
| In-season | 1–3 days/week (maintenance only) |
| Postseason | 0–3 days/week, unstructured |
Order matters because fatigue accumulates through a workout, and the exercises most sensitive to fatigue — the ones that need a fresh nervous system to execute correctly — have to go first or their quality (and their training effect) collapses.
| Method | Logic |
|---|---|
| Power → strength → assistance | Power exercises are the most technically demanding and most fatigue-sensitive, so they're performed first while the nervous system is freshest; single-joint assistance work, which tolerates fatigue well, goes last. |
| Large muscle group before small | Large-muscle-group exercises (squat, bench, row) place a bigger systemic demand and often depend on smaller stabilizer muscles staying fresh — pre-fatiguing a small muscle group first can compromise a bigger lift downstream. |
| Alternating push and pull | Common in total-body sessions; lets one muscle group (say, the chest/triceps from a press) recover passively while its antagonist (back/biceps on a pull) works. |
| Alternating upper and lower body | Also used in total-body and circuit-style sessions; spreads fatigue across regions rather than concentrating it, and can support shorter rest periods since the next exercise isn't taxing the same tissue. |
| Order | Category | Example exercise |
|---|---|---|
| 1 | Power | Hang clean |
| 2 | Lower-body push (large muscle) | Back squat |
| 3 | Upper-body push | Bench press |
| 4 | Upper-body pull | Bent-over row |
| 5 | Lower-body pull / hinge | Romanian deadlift |
| 6 | Assistance / core | Plank, biceps curl |
| Split | Typical layout | Frequency per muscle group |
|---|---|---|
| Total-body | Every major pattern trained each session | As often as the session runs (2–3×/week) |
| Upper/lower | Alternates upper-body and lower-body sessions | Usually 2×/week per region |
| Push/pull/legs | Rotates pressing, pulling, and lower-body days | 1–2×/week per category, depending on cycle length |
| Body-part split | One or two muscle groups per session (e.g., chest day, back day) | Typically just 1×/week per muscle group |
The tradeoff behind every split
The more muscle groups a single session covers, the less concentrated volume and intensity each one can receive that day — but the more often it gets touched per week. A body-part split flips that: huge session-specific volume for one muscle group, then a long gap before it's trained again. Neither is "correct" in isolation; it's driven by training status and how many days per week are actually available (Table 18.4).
sets × reps × load. It's the single number that lets you compare two very different-looking sessions (say, 5×5 at a heavy load vs. 3×12 at a lighter one) on the same scale.Volume-load is distinct from relative intensity (load expressed as %1RM) — two sessions can carry an identical volume-load while one uses a much higher percentage of the athlete's max than the other. Both numbers matter, and the exam expects you to keep them separate.
Load and achievable reps trade off in a fairly predictable pattern across trained lifters — heavier loads allow fewer reps before failure, and that relationship is stable enough to be tabulated and used for programming without retesting a true 1RM every time.
| %1RM | Approx. reps possible |
|---|---|
| 100% | 1 |
| 95% | 2 |
| 93% | 3 |
| 90% | 4 |
| 87% | 5 |
| 85% | 6 |
| 83% | 7 |
| 80% | 8 |
| 77% | 9 |
| 75% | 10 |
| 70% | 11 |
| 67% | 12 |
| 65% | 15 |
1RM = weight ÷ (1.0278 − 0.0278 × reps)) estimates the true 1RM. Safer, faster, and the standard choice for novices.Figure 18.8 — The 1RM testing protocol
Not every program relies on a tested or predicted 1RM — subjective load-monitoring tools let a lifter self-regulate load session to session based on how a set actually felt.
| RPE (0–10 scale) | Reps in reserve (RIR) | What it means |
|---|---|---|
| 10 | 0 | Absolute maximal effort — no more reps possible |
| 9 | 1 | Could have done exactly one more rep |
| 8 | 2 | Could have done two more reps |
| 7 | 3 | Could have done three more reps |
| ≤6 | 4+ | Comfortably submaximal — warm-up or active-recovery territory |
Every training goal has a signature spot on the rep-max continuum, and that spot is what actually drives the load, set, and rest decisions that follow.
| Goal | Load (%1RM) | Reps | Sets |
|---|---|---|---|
| Strength | ≥85% | ≤6 | 2–6 |
| Power — single effort | 80–90% (structural lift) | 1–2 | 3–5 |
| Power — multiple effort | 75–85% (structural lift) | 3–5 | 3–5 |
| Hypertrophy | 67–85% | 6–12 | 3–6 |
| Muscular endurance | ≤67% | ≥12 | 2–3 |
Example
An athlete's tested back squat 1RM is 220 lb. The program calls for a hypertrophy-phase set at 75%. Working load = 220 × 0.75 = 165 lb. Cross-checking against Table 18.8, 75% lines up with roughly 10 reps — which matches the hypertrophy rep range in Table 18.11, confirming the load/rep pairing is internally consistent before it ever gets programmed.
Power training complicates a pure %1RM approach, because the goal is maximizing the force-velocity product, not just moving the heaviest possible load. The percentage that produces the highest power output is different for different exercise categories — and for genuinely ballistic movements, it's often much lower than intuition suggests.
| Exercise category | Load that maximizes power |
|---|---|
| Olympic lifts and pulling derivatives | ~70–80% 1RM of that lift |
| Ballistic lower-body (e.g., jump squat) | ~0–30% back squat 1RM |
| Ballistic upper-body (e.g., bench throw) | ~30–45% bench press 1RM |
| Traditional, non-ballistic resistance exercise | ~50–70% 1RM |
Where people lose points
Ballistic exercises (jump squat, throws) and Olympic-lift derivatives don't peak in power output at the same percentage. A jump squat produces its highest power at a very light load — sometimes bodyweight alone — because the movement stays ballistic (the athlete never decelerates the bar/body before release). A clean pull, by contrast, is still a heavily loaded pull that never leaves the hands, so it peaks much higher on the %1RM scale.
Load can't stay fixed indefinitely (violates progression) or change randomly (violates variation with a purpose) — it has to increase on a rule the coach can apply consistently.
The 2-for-2 rule
If an athlete completes two or more reps beyond the assigned goal number, in the last set, for two consecutive workouts, increase the load for that exercise at the next session. It's an objective trigger — not a subjective "feels like it's time" call — which is exactly why it shows up on the exam as a specific, testable rule rather than a general guideline.
| Body region | Typical increment | Why |
|---|---|---|
| Upper body | ~2.5–5 lb (~1–2%) | Smaller muscle mass tolerates smaller absolute jumps in load |
| Lower body | ~5–10 lb (~2–10%) | Larger muscle mass can absorb a bigger absolute increase without technique breaking down |
Volume is the "how many sets" half of the load/reps decision made in Step 5 — and, multiplied through, the driver of total volume-load for a session. Like load, it scales with both training goal and training status.
| Status | Sets (general guidance) | Notes |
|---|---|---|
| Novice | 1–3 | Lower volume while technique is still the limiting factor; rep ranges lean moderate (8–12) regardless of ultimate goal to build motor control first |
| Intermediate | 3–4 | Volume and intensity both start being manipulated more deliberately toward the specific goal |
| Advanced | 3–6 | Needs the highest total volume-load to keep progressing (diminishing returns), often split across more sessions per week to manage fatigue |
| Exercise | %1RM (of that lift) | Reps |
|---|---|---|
| Snatch / clean & jerk (competition lifts) | 85–100% | 1–3 |
| Power clean / power snatch | 75–90% | 2–4 |
| Hang clean / hang snatch | 70–85% | 2–4 |
| Push press | 80–90% | 2–5 |
| Clean pull / snatch pull | 90–110% (can exceed the full lift's 1RM) | 2–4 |
Rest period length has to match the energy system driving the set. A strength or power set relies almost entirely on the phosphagen system, which needs several minutes to substantially replenish; a muscular-endurance set is deliberately trained under incomplete recovery.
| Goal | Rest between sets |
|---|---|
| Strength / power | 2–5 minutes |
| Hypertrophy | 30–90 seconds |
| Muscular endurance | ≤30 seconds |
Why rest length tracks intensity, not effort
It's tempting to think a "harder" set deserves more rest across the board — but a muscular-endurance set can feel just as hard as a heavy strength set while calling for far less rest. What actually sets rest length is which energy system the load leaned on: phosphagen-dominant sets (heavy, low-rep) need long recovery windows; glycolytic-dominant sets (lighter, high-rep) are trained specifically under short ones.
Working through the seven steps end-to-end, for three athletes who need very different programs, is the fastest way to see how one step constrains the next.
Steps 1–3. Needs analysis: the sport is almost entirely phosphagen-system, built on triple-extension mechanics and maximal acceleration; hamstring strain is the dominant injury risk. Testing shows two years of consistent structured training (intermediate), a solid squat base, and a vertical jump/10 m sprint profile that flags room to grow in rate of force development. Primary goal for this off-season block: build a stronger maximal-strength base to convert into power once preseason begins (Table 18.2). Exercise selection: hang clean and clean pull derivatives for RFD, back squat and Romanian deadlift for the strength base, single-leg work and posterior-chain assistance work to protect the hamstrings against the sport's dominant injury pattern. Frequency: off-season, intermediate status → 4 days/week (Table 18.4/18.7), split upper/lower.
Steps 4–7. Order: hang clean (power) → back squat (large-muscle strength) → single-leg/posterior-chain assistance, following the power-before-strength-before-assistance method. Load/reps: maximal-strength emphasis, 85%+ for ≤6 reps on the squat; power derivatives at 75–85% for 2–4 reps (Table 18.11/18.14). Volume: 3–5 sets per exercise, intermediate-status range (Table 18.13). Rest: 2–5 minutes between primary lifts (Table 18.15) — phosphagen-dominant work needs the full recovery window.
Steps 1–3. Needs analysis: repeated vertical jumping (attack and block), overhead arm-swing loading, and lateral movement dominate the sport; patellar tendinopathy and ankle sprains are the notable injury patterns. Force-plate testing flags reactive strength index (jump-landing efficiency) and limb asymmetry as the most relevant metrics given the sport's repeated jump-land demand. Three years of structured training puts her at advanced status. Primary goal for preseason: convert the off-season strength base into reactive power while maintaining strength (Table 18.2). Exercise selection: hang snatch and push press for vertical power, squat/hinge patterns for landing mechanics, rotational core work for the attacking motion, and deliberate rotator-cuff/scapular-stabilizer work to balance the shoulder's repetitive overhead loading. Frequency: preseason, advanced/trained athlete → 3–4 days/week (Table 18.7).
Steps 4–7. Order: hang snatch (power) → squat (large-muscle strength) → rotator cuff/core (assistance). Load/reps: power-training emphasis, structural lifts at 75–85% for 3–5 reps; push press in the 80–90% range (Table 18.11/18.14). Volume: 3–4 sets, advanced status but preseason volume already tapering from off-season peaks (Table 18.13, adjusted down per Table 18.2's preseason pattern). Rest: 2–3 minutes on power work to preserve bar speed and jump quality set to set.
Steps 1–3. Needs analysis: no competitive sport to evaluate — the "sport" is daily life and general health, so movement analysis centers on functional patterns (carrying, hinging, pushing, pulling) rather than sport-specific mechanics. A desk job has produced a mild anterior pelvic tilt and tight hip flexors on the postural screen, with a history of low-back tightness but no current injury. No structured resistance training in several years puts him squarely at novice status. Primary goal: general strength and hypertrophy, with an explicit emphasis on posterior-chain and core work to offset the desk-job posture. Exercise selection: Olympic-lift derivatives are skipped entirely — the technical demand doesn't match a novice's training age. Instead: goblet squat, Romanian deadlift, horizontal push/pull, and farmer's carries for anti-flexion core stability given the low-back history. Frequency: novice status → 2–3 days/week, total-body sessions (Table 18.4).
Steps 4–7. Order: large muscle group before small (goblet squat before biceps curl), alternating push and pull through the session — no power exercises yet, since Olympic-lift technique hasn't been built. Load/reps: hypertrophy/general-strength blend, 67–75% for 8–12 reps (Table 18.11), kept conservative while technique is established. Volume: 2–3 sets per exercise, novice range (Table 18.13). Rest: 60–90 seconds, hypertrophy-appropriate (Table 18.15).
Which is the correct order of the seven steps of program design?
B. Needs analysis has to come first because it determines everything after it; load/reps is decided before volume, not after.
A lifter's tested 1RM back squat is 280 lb. Using the standard %1RM-repetition relationship, roughly what load should produce a 5-rep set?
C. 5 reps corresponds to roughly 87% of 1RM. 280 × 0.87 ≈ 244 lb.
Which exercise is correctly classified as structural rather than non-structural?
C. Structural exercises load the vertebral column along its axis. The power clean does; the leg press, leg extension, and seated row route load elsewhere.
According to the 2-for-2 rule, when should a coach add load to an exercise?
B. It's a specific, objective trigger — two extra reps, in the last set, repeated across two straight sessions — not a subjective judgment call.
Which training goal is paired with the longest recommended rest periods between sets?
C. Strength and power work relies on the phosphagen system, which needs 2–5 minutes to substantially recover — far longer than hypertrophy (30–90 s) or muscular endurance (≤30 s).
In a total-body session using the power-before-strength-before-assistance ordering method, where should a hang clean be placed relative to a back squat and a biceps curl?
C. Power exercises are the most fatigue-sensitive and technically demanding, so they're performed first, while the nervous system is freshest.
A coach wants to test 1RM on a novice client but wants to avoid exposing them to true near-maximal loads. Which testing option fits best?
B. A submaximal multiple-RM test (e.g., a 5RM) plugged into a prediction equation estimates 1RM without loading a true maximal single rep — the standard choice for a novice or higher-risk client.
Which force-plate metric is most directly used to flag a between-limb difference that predicts elevated injury risk?
C. The asymmetry index specifically compares left-limb vs. right-limb output; the other three metrics describe overall (not side-to-side) performance.
A jump squat and a clean pull are both power exercises, but the load that maximizes power output is very different between them. Why?
B. A jump squat peaks in power output at a very light load (often near bodyweight) because the athlete never decelerates before release; a clean pull is still a heavily loaded pull the whole way, so its power-optimal load sits much higher, around 70–80% of that lift's 1RM.
An advanced strength athlete is in the off-season and training on a body-part split. Which weekly training frequency best fits this scenario?
C. Advanced status combined with the off-season (the highest-volume, highest-frequency phase of the training year) points to the top of the frequency range — 4–6 days/week — well above in-season maintenance frequency.
This chapter is original study material covering topics also addressed in Essentials of Strength Training and Conditioning, 5th edition (NSCA/Human Kinetics). It is an independent work, not a reproduction or paraphrase of that text. This guide is not affiliated with, endorsed by, or sponsored by the National Strength and Conditioning Association (NSCA). CSCS® and Certified Strength and Conditioning Specialist® are registered trademarks of the NSCA.