Exact setup
We score one defined setup, not an exercise name in the abstract.
Physique Skool exercise tier list
We score one defined setup, not an exercise name in the abstract.
This is a reasoned model, not a laboratory verdict. The tier uses absolute thresholds, not a forced curve.
D or U shows how much direct support sits behind that judgment. It never raises the tier.
Personal experience can explain context, but it never adds points.
Complete tier board
Theory tier and evidence grade answer different questions. Read both before choosing.
Showing 40 of 40 target-specific records.
Highest-ROI defaults. Strongest mechanics-first starting points for this target.
Cable Face Pull is ranked for Upper back because its named path directly expresses scapular retraction with an upper-back-directed row or reverse-fly path; the multi-joint setup trades some local specificity for loading capacity. The main limitation is individual joint fit and execution consistency.
What would change it: Reverse or lower the placement if a corrected line-of-force model shows that another limiter owns the task, or if the declared range cannot be progressed repeatably.
Cable reverse fly is ranked for Upper back because its named path directly expresses scapular retraction with an upper-back-directed row or reverse-fly path; the relatively isolated task limits competing systemic fatigue. The main limitation is individual joint fit and execution consistency.
What would change it: Reverse or lower the placement if a corrected line-of-force model shows that another limiter owns the task, or if the declared range cannot be progressed repeatably.
Dumbbell Reverse Fly is ranked for Upper back because its named path directly expresses scapular retraction with an upper-back-directed row or reverse-fly path; the relatively isolated task limits competing systemic fatigue. The main limitation is individual joint fit and execution consistency.
What would change it: Reverse or lower the placement if a corrected line-of-force model shows that another limiter owns the task, or if the declared range cannot be progressed repeatably.
Kelso shrug (prone dumbbell scapular retraction on incline bench) is ranked for Upper back because its named path directly expresses scapular retraction with an upper-back-directed row or reverse-fly path; the multi-joint setup trades some local specificity for loading capacity. The main limitation is individual joint fit and execution consistency.
What would change it: Reverse or lower the placement if a corrected line-of-force model shows that another limiter owns the task, or if the declared range cannot be progressed repeatably.
Prone dumbbell rear delt raise (bench) is ranked for Upper back because its named path directly expresses scapular retraction with an upper-back-directed row or reverse-fly path; the multi-joint setup trades some local specificity for loading capacity. The main limitation is individual joint fit and execution consistency.
What would change it: Reverse or lower the placement if a corrected line-of-force model shows that another limiter owns the task, or if the declared range cannot be progressed repeatably.
Prone Incline Dumbbell Rear Lateral Raise is ranked for Upper back because its named path directly expresses scapular retraction with an upper-back-directed row or reverse-fly path; external support reduces balance and bracing demands. The main limitation is individual joint fit and execution consistency.
What would change it: Reverse or lower the placement if a corrected line-of-force model shows that another limiter owns the task, or if the declared range cannot be progressed repeatably.
Excellent options. Strong choices with a modest trade-off or more specific fit.
Bent-over lateral raise is ranked for Upper back because its named path directly expresses scapular retraction with an upper-back-directed row or reverse-fly path; the multi-joint setup trades some local specificity for loading capacity. The main limitation is individual joint fit and execution consistency.
What would change it: Reverse or lower the placement if a corrected line-of-force model shows that another limiter owns the task, or if the declared range cannot be progressed repeatably.
prone scaption is ranked for Upper back because its named path directly expresses scapular retraction with an upper-back-directed row or reverse-fly path; the multi-joint setup trades some local specificity for loading capacity. The main limitation is individual joint fit and execution consistency.
What would change it: Reverse or lower the placement if a corrected line-of-force model shows that another limiter owns the task, or if the declared range cannot be progressed repeatably.
Prone T-raise is ranked for Upper back because its named path directly expresses scapular retraction with an upper-back-directed row or reverse-fly path; the multi-joint setup trades some local specificity for loading capacity. The main limitation is individual joint fit and execution consistency.
What would change it: Reverse or lower the placement if a corrected line-of-force model shows that another limiter owns the task, or if the declared range cannot be progressed repeatably.
Reverse pec deck is ranked for Upper back because its named path directly expresses scapular retraction with an upper-back-directed row or reverse-fly path; the multi-joint setup trades some local specificity for loading capacity. The main limitation is fit to the exact machine path.
What would change it: Change the placement if the exact machine geometry removes target torque, restricts usable range, or creates a common joint-fit reversal.
chest-supported 45-degree row machine is ranked for Upper back because its named path directly expresses scapular retraction with an upper-back-directed row or reverse-fly path; external support reduces balance and bracing demands. The main limitation is fit to the exact machine path.
What would change it: Change the placement if the exact machine geometry removes target torque, restricts usable range, or creates a common joint-fit reversal.
chest-supported high row machine is ranked for Upper back because its named path directly expresses scapular retraction with an upper-back-directed row or reverse-fly path; external support reduces balance and bracing demands. The main limitation is fit to the exact machine path.
What would change it: Change the placement if the exact machine geometry removes target torque, restricts usable range, or creates a common joint-fit reversal.
Chest-Supported Horizontal Machine Row is ranked for Upper back because its named path directly expresses scapular retraction with an upper-back-directed row or reverse-fly path; external support reduces balance and bracing demands. The main limitation is fit to the exact machine path.
What would change it: Change the placement if the exact machine geometry removes target torque, restricts usable range, or creates a common joint-fit reversal.
Chest-Supported Machine Row is ranked for Upper back because its named path directly expresses scapular retraction with an upper-back-directed row or reverse-fly path; external support reduces balance and bracing demands. The main limitation is fit to the exact machine path.
What would change it: Change the placement if the exact machine geometry removes target torque, restricts usable range, or creates a common joint-fit reversal.
Chest-supported neutral-grip machine row is ranked for Upper back because its named path directly expresses scapular retraction with an upper-back-directed row or reverse-fly path; external support reduces balance and bracing demands. The main limitation is fit to the exact machine path.
What would change it: Change the placement if the exact machine geometry removes target torque, restricts usable range, or creates a common joint-fit reversal.
Iso-Lateral Machine Row is ranked for Upper back because its named path directly expresses scapular retraction with an upper-back-directed row or reverse-fly path; external support reduces balance and bracing demands. The main limitation is fit to the exact machine path.
What would change it: Change the placement if the exact machine geometry removes target torque, restricts usable range, or creates a common joint-fit reversal.
Chest-supported dumbbell row (incline bench) is ranked for Upper back because its named path directly expresses scapular retraction with an upper-back-directed row or reverse-fly path; external support reduces balance and bracing demands. The main limitation is individual joint fit and execution consistency.
What would change it: Reverse or lower the placement if a corrected line-of-force model shows that another limiter owns the task, or if the declared range cannot be progressed repeatably.
Seated cable close-neutral row is ranked for Upper back because its named path directly expresses scapular retraction with an upper-back-directed row or reverse-fly path; external support reduces balance and bracing demands. The main limitation is individual joint fit and execution consistency.
What would change it: Reverse or lower the placement if a corrected line-of-force model shows that another limiter owns the task, or if the declared range cannot be progressed repeatably.
Seated cable row (low pulley) is ranked for Upper back because its named path directly expresses scapular retraction with an upper-back-directed row or reverse-fly path; external support reduces balance and bracing demands. The main limitation is individual joint fit and execution consistency.
What would change it: Reverse or lower the placement if a corrected line-of-force model shows that another limiter owns the task, or if the declared range cannot be progressed repeatably.
Single-arm dumbbell row (bench-supported) is ranked for Upper back because its named path directly expresses scapular retraction with an upper-back-directed row or reverse-fly path; external support reduces balance and bracing demands. The main limitation is individual joint fit and execution consistency.
What would change it: Reverse or lower the placement if a corrected line-of-force model shows that another limiter owns the task, or if the declared range cannot be progressed repeatably.
Cable high row is ranked for Upper back because its named path directly expresses scapular retraction with an upper-back-directed row or reverse-fly path; the multi-joint setup trades some local specificity for loading capacity. The main limitation is individual joint fit and execution consistency.
What would change it: Reverse or lower the placement if a corrected line-of-force model shows that another limiter owns the task, or if the declared range cannot be progressed repeatably.
Chest-supported high row is ranked for Upper back because its named path directly expresses scapular retraction with an upper-back-directed row or reverse-fly path; external support reduces balance and bracing demands. The main limitation is individual joint fit and execution consistency.
What would change it: Reverse or lower the placement if a corrected line-of-force model shows that another limiter owns the task, or if the declared range cannot be progressed repeatably.
Chest-supported T-bar row is ranked for Upper back because its named path directly expresses scapular retraction with an upper-back-directed row or reverse-fly path; external support reduces balance and bracing demands. The main limitation is individual joint fit and execution consistency.
What would change it: Reverse or lower the placement if a corrected line-of-force model shows that another limiter owns the task, or if the declared range cannot be progressed repeatably.
High Cable Row is ranked for Upper back because its named path directly expresses scapular retraction with an upper-back-directed row or reverse-fly path; the multi-joint setup trades some local specificity for loading capacity. The main limitation is individual joint fit and execution consistency.
What would change it: Reverse or lower the placement if a corrected line-of-force model shows that another limiter owns the task, or if the declared range cannot be progressed repeatably.
Inverted row (fixed bar) is ranked for Upper back because its named path directly expresses scapular retraction with an upper-back-directed row or reverse-fly path; the multi-joint setup trades some local specificity for loading capacity. The main limitation is individual joint fit and execution consistency.
What would change it: Reverse or lower the placement if a corrected line-of-force model shows that another limiter owns the task, or if the declared range cannot be progressed repeatably.
plate-loaded lever row is ranked for Upper back because its named path directly expresses scapular retraction with an upper-back-directed row or reverse-fly path; the multi-joint setup trades some local specificity for loading capacity. The main limitation is fit to the exact machine path.
What would change it: Change the placement if the exact machine geometry removes target torque, restricts usable range, or creates a common joint-fit reversal.
T-bar row (landmine, V-handle) is ranked for Upper back because its named path directly expresses scapular retraction with an upper-back-directed row or reverse-fly path; the multi-joint setup trades some local specificity for loading capacity. The main limitation is individual joint fit and execution consistency.
What would change it: Reverse or lower the placement if a corrected line-of-force model shows that another limiter owns the task, or if the declared range cannot be progressed repeatably.
Meadows row (unilateral landmine, staggered stance) is ranked for Upper back because its named path directly expresses scapular retraction with an upper-back-directed row or reverse-fly path; the multi-joint setup trades some local specificity for loading capacity. The main limitation is individual joint fit and execution consistency.
What would change it: Reverse or lower the placement if a corrected line-of-force model shows that another limiter owns the task, or if the declared range cannot be progressed repeatably.
Prone dumbbell row is ranked for Upper back because its named path directly expresses scapular retraction with an upper-back-directed row or reverse-fly path; the multi-joint setup trades some local specificity for loading capacity. The main limitation is individual joint fit and execution consistency.
What would change it: Reverse or lower the placement if a corrected line-of-force model shows that another limiter owns the task, or if the declared range cannot be progressed repeatably.
Single-arm landmine row (Meadows style) is ranked for Upper back because its named path directly expresses scapular retraction with an upper-back-directed row or reverse-fly path; the multi-joint setup trades some local specificity for loading capacity. The main limitation is individual joint fit and execution consistency.
What would change it: Reverse or lower the placement if a corrected line-of-force model shows that another limiter owns the task, or if the declared range cannot be progressed repeatably.
Useful options. Valid movements with a higher fatigue cost or less robust mechanics.
Barbell Bent-Over Row is ranked for Upper back because its named path directly expresses scapular retraction with an upper-back-directed row or reverse-fly path; the multi-joint setup trades some local specificity for loading capacity. The main limitation is individual joint fit and execution consistency.
What would change it: Reverse or lower the placement if a corrected line-of-force model shows that another limiter owns the task, or if the declared range cannot be progressed repeatably.
Valid movements. Usually outperformed by easier, more stable defaults.
No matches in this tier.
Special-use and Held are not lower tiers. They sit outside the S-to-C ladder on purpose.
incline bench face pull is ranked for Upper back because its named path directly expresses scapular retraction with an upper-back-directed row or reverse-fly path; the multi-joint setup trades some local specificity for loading capacity. The main limitation is individual joint fit and execution consistency.
What would change it: Reverse or lower the placement if a corrected line-of-force model shows that another limiter owns the task, or if the declared range cannot be progressed repeatably.
Adjustable-Profile Chest-Supported Machine Row is ranked for Upper back because its named path directly expresses scapular retraction with an upper-back-directed row or reverse-fly path; external support reduces balance and bracing demands. The main limitation is fit to the exact machine path.
What would change it: Change the placement if the exact machine geometry removes target torque, restricts usable range, or creates a common joint-fit reversal.
Band Face Pull is ranked for Upper back because its named path directly expresses scapular retraction with an upper-back-directed row or reverse-fly path; the multi-joint setup trades some local specificity for loading capacity. The main limitation is band-specific resistance and load measurement.
What would change it: Reverse or lower the placement if a corrected line-of-force model shows that another limiter owns the task, or if the declared range cannot be progressed repeatably.
Band pull-apart is ranked for Upper back because its named path directly expresses scapular retraction with an upper-back-directed row or reverse-fly path; the relatively isolated task limits competing systemic fatigue. The main limitation is band-specific resistance and load measurement.
What would change it: Reverse or lower the placement if a corrected line-of-force model shows that another limiter owns the task, or if the declared range cannot be progressed repeatably.
Seal row is ranked for Upper back because its named path directly expresses scapular retraction with an upper-back-directed row or reverse-fly path; the multi-joint setup trades some local specificity for loading capacity. The main limitation is individual joint fit and execution consistency.
What would change it: Reverse or lower the placement if a corrected line-of-force model shows that another limiter owns the task, or if the declared range cannot be progressed repeatably.
Suspension row (rings or straps) is ranked for Upper back because its named path directly expresses scapular retraction with an upper-back-directed row or reverse-fly path; the multi-joint setup trades some local specificity for loading capacity. The main limitation is individual joint fit and execution consistency.
What would change it: Reverse or lower the placement if a corrected line-of-force model shows that another limiter owns the task, or if the declared range cannot be progressed repeatably.
prone Y raise is ranked for Upper back because it can contribute to scapular retraction with an upper-back-directed row or reverse-fly path, but the target share is more setup-dependent; the multi-joint setup trades some local specificity for loading capacity. The main limitation is individual joint fit and execution consistency.
What would change it: Change the placement if exact setup geometry establishes a direct target moment and repeatable loading, or if the competing limiter proves dominant.
Chest-Supported Scapular Retraction remains held for Upper back because the canonical name does not specify a mechanically classifiable scapular retraction with an upper-back-directed row or reverse-fly path setup.
What would change it: Supply exact setup geometry, target action, resistance path, range convention, and likely limiter; then rerun the same theory rubric.
Loaded Scapular Retraction remains held for Upper back because the canonical name does not specify a mechanically classifiable scapular retraction with an upper-back-directed row or reverse-fly path setup.
What would change it: Supply exact setup geometry, target action, resistance path, range convention, and likely limiter; then rerun the same theory rubric.
No records in this disposition.
Exercise selection rubric
Every rank starts with a biomechanical model of one muscle and one exact setup. The model traces target demand, resistance profile, stability, progression, and fatigue before assigning a tier.
Physique Skool LawScore the setup, not the exercise name.
Can the exact setup reliably bias the intended muscle instead of a neighboring limiter?
How directly the setup trains the muscle being ranked.
Can the target produce meaningful tension through a useful range of motion?
The quality of load the target receives across the rep.
Does the setup provide enough support for effort to reach the target muscle?
Whether balance and bracing help the lift or steal from it.
Can load, reps, range, and execution be progressed and measured consistently?
How cleanly the exercise supports repeatable overload.
Can the lifter train hard through tolerable positions without avoidable joint irritation?
The usable overlap between hard training and joint comfort.
How much non-target fatigue is paid for the local stimulus the exercise creates?
Local return relative to systemic, axial, grip, and setup fatigue.
Is the equipment, setup, loading, spotting, and transition cost realistic?
How easy the movement is to perform well in a real program.
Does the exercise suit the lifter's structure, skill, history, and preferences?
The personal factors that can override a useful default.
Method
Theory produces the default rank. Evidence confidence and known context reversals stay visible beside it.
Step 01
Compare one precise variation, target, and evidence set before judging the movement.
Step 02
Trace the target action, line of force, moment demands, muscle length, and resistance profile through the rep.
Step 03
Check whether equipment geometry, stability, another limiter, joint fit, or program role reverses the theoretical default.
Separate lens: Program contribution
Coverage, redundancy, time efficiency, and equipment access determine whole-program ROI. They do not change a muscle-specific score.
Separate label: Evidence confidence
Confidence reports how directly the available research supports the judgment. It never becomes bonus points for the exercise itself.