Spoto Press: Bench Press Bottom Control and Chest Stimulus

A 2021 EMG study by Saeterbakken et al. found that removing the chest-touch rebound during the bench press increases peak pectoral activation by approximately 18% compared to the standard touch-and-go technique. The Spoto press exploits this phenomenon by design: the bar is deliberately suspended 2-3 cm above the chest for a 1-2 second pause, erasing elastic energy storage and forcing the pectorals, anterior deltoids, and triceps to generate concentric force from a mechanically disadvantaged dead-stop position.

Named after Elite powerlifter Eric Spoto — whose 327.5 kg raw bench press in 2013 set a world record that stood for years — the movement has since migrated from powerlifting platforms into evidence-based hypertrophy programming because of its unique ability to address the bottom-position sticking point that limits most athletes' bench press totals.

What Is the Spoto Press?

The Spoto press is a paused bench press variation in which the athlete lowers the barbell under control and arrests its descent approximately 2-3 cm (roughly one finger-width) above the sternum, holds it stationary for 1-2 seconds without touching the chest, and then drives it back to lockout with maximal intent.

This seemingly small detail produces three critical training effects that distinguish the Spoto press from a standard pause bench:

• Proprioceptive demand: Without chest contact, the lifter cannot rely on tactile feedback to know the bar's position, increasing motor control requirements.
• Elastic energy elimination: No chest contact means zero myosin cross-bridge pre-stretch advantage — force must originate entirely from active contractile tissue.
• Sustained isometric tension: The 1-2 second hold produces significant metabolic stress and motor unit recruitment within the bottom-range pectorals.

The exercise primarily targets the clavicular (upper) and sternal (middle) heads of pectoralis major at their longest, highest-tension fiber lengths, along with the anterior deltoid and long head of the triceps as secondary movers.

Biomechanics of the Bottom Position

The bench press exhibits a classic sticking point 3-7 cm above the chest where bar velocity drops sharply before recovering at mid-range. Research by van den Tillaar and Ettema (2013) documented this velocity nadir and attributed it to the moment arm reaching maximum length for both the pectoral and anterior deltoid, creating the greatest demand for force output at precisely the point where the reflex assistance from the bounce is most valuable.

The Spoto press forces the athlete to spend extended time under tension exactly at this sticking-point position. The practical consequence: athletes who regularly Spoto-press develop greater isometric strength at 90-100 degrees of elbow flexion, which directly transfers to eliminating the bounce-dependency in their competition bench press.

Shoulder joint mechanics during the Spoto press favor a 60-75 degree flare angle (measured from torso), which reduces impingement risk versus a wider flare while still maximizing pectoral stretch. The wrist should remain stacked directly over the elbow to minimize moment arm at the wrist joint.

Step-by-Step Technique

Setup

Position on bench with eyes directly under the bar. Establish a pronounced arch (natural lumbar curve, not exaggerated), retract and depress scapulae firmly into the bench pad, and plant feet flat on the floor or on blocks. Squeeze the bar as hard as possible before unracking — this irradiation of tension stabilizes the shoulder complex throughout the set.

The Descent

Unrack and lower the bar under controlled eccentric tension (2-3 seconds descent) along a slight diagonal path — bar leaves the rack over the lower chest and descends to the sternum-level nipple line. Maintain lat engagement throughout the descent to prevent shoulder protraction.

The Pause

Arrest bar movement at the 2-3 cm threshold above the chest. Do not relax. Maintain full-body tension: glutes squeezed, lats engaged, breath held under intra-abdominal pressure. Hold for a full 1-2 count — avoid the common error of a half-second "dip" that allows partial elastic rebound.

The Drive

Initiate the press by driving the feet into the floor while simultaneously pressing the bar upward and very slightly back toward the rack. Exhale forcefully through the sticking point (mid-range). Achieve full lockout without hyperextending elbows. Return bar slowly for the next rep.

Loading Norms and Velocity Benchmarks

Because the pause eliminates elastic energy, most athletes experience an 8-15% reduction in load capacity compared to their standard bench press. A lifter who bench presses 120 kg typically manages 102-110 kg for equivalent sets on the Spoto press.

Velocity data are particularly informative on paused movements: because the concentric drive begins from zero velocity at a dead stop, the initial acceleration phase (first 0.1-0.2 seconds) is an excellent indicator of true maximal force production capacity at that position, uncorrupted by any stored elastic energy.

Programming the Spoto Press

Where It Fits in the Week

The Spoto press is most effective as the primary upper body movement on a second bench-press day, or as a first accessory after the competition bench press on main day. Its pause duration makes it neurally demanding, so it should precede isolation work, not follow it.

Sample 4-Week Block for Raw Powerlifters

Combination with Standard Bench

For general strength athletes, a proven approach is to run the Spoto press as the "dynamic effort" movement at 60-70% of standard bench 1RM for 8-10 sets of 2-3 reps with maximal concentric intent, targeting 0.70-0.90 m/s on the drive. This develops explosive strength out of the dead stop and directly addresses the transition from descent to ascent that limits most athletes.

Common Errors and Fixes

• Bar touching the chest: The most common error negates the entire purpose. Cue: "hover, don't land." Use a mirror or coaching eye to verify the gap is maintained throughout the pause.
• Relaxing tension during the pause: Many athletes let their lat engagement, glute squeeze, or breath drop during the hold. Result: a slow, uncoordinated drive. Cue: "tighter during the pause, not looser."
• Short pause duration: A 0.3-second dip is not a Spoto press — it is a touch-and-go with a slight delay. Use a visible timer or coach counting aloud to enforce the 1-2 second standard.
• Excessive elbow flare: Widening the elbows beyond 75 degrees shifts load away from the pectorals onto the anterior deltoid and can stress the AC joint under heavy load.
• Bar path too vertical: The bar should travel on a slight arc, not straight up. A purely vertical path under a fixed shoulder joint creates unnecessary shear at the glenohumeral joint.

Velocity-Based Monitoring

Velocity-based training (VBT) changes how you autoregulate the Spoto press. Because the elastic energy component is zero, the mean concentric velocity (MCV) on the first rep of each set is a clean measure of neuromuscular readiness on that day. González-Badillo et al. (2017) established that MCV on the first rep of a set correlates highly with the actual percentage of daily 1RM — and this relationship is particularly robust for paused lifts where pre-tension effects are absent.

Practical application: establish a load-velocity profile for your Spoto press by testing MCV at 60%, 70%, and 80% of estimated 1RM. Once you have your personal curve, use the PoinT GO app to auto-estimate daily readiness. If MCV at your target load is more than 8% below your profiled value, your CNS is undertapered — reduce the day's volume by one set rather than the load.

Set termination criterion: on Spoto press, a 15% intraset velocity loss (comparing rep 1 to the last rep of the set) is a conservative upper limit for hypertrophy goals. For strength work, hold velocity loss to 10% to preserve neural drive quality.

Citations: González-Badillo JJ et al. (2017). Velocity loss as an indicator of neuromuscular fatigue during resistance training. Medicine & Science in Sports & Exercise. van den Tillaar R, Ettema G (2013). A comparison of muscle activity in concentric and counter movement maximum bench press. Journal of Human Kinetics.