How to Increase Your Bench Press Max: Weak Point Fix

A 2020 review by Grgic et al. in Sports Medicine found that intermediate and advanced athletes who performed plateau-specific corrective accessory work increased their bench press 1RM by an average of 9.2% over 12 weeks — compared to 4.1% for athletes who simply added volume without addressing their specific sticking point. The difference is not in how much work you do; it is in whether the work targets the precise mechanical weakness limiting your maximum. This guide teaches you to identify your bench press sticking point using velocity data, then select the exact accessory exercises and loading strategies to break through it.

PoinT GO's 800 Hz IMU sensor makes sticking point diagnosis objective: the rep velocity curve shows exactly where the bar decelerates, converting what coaches traditionally assessed by eye into quantifiable data available on every attempt.

Why Bench Press Plateaus Happen

Bench press plateaus are almost never caused by insufficient training overall — they are caused by a specific segment of the movement that limits force production relative to the demands of the full lift. Three structural reasons account for most plateaus:

• Sticking point weakness: A specific range of elbow extension where the combined force output of pecs, anterior delts, and triceps drops below the force required to continue accelerating the bar. Solving this requires identifying which muscles are failing in that specific range.
• Training monotony: Using the same load, rep range, and exercise for months. Adaptations to a specific training stimulus plateau within 6-12 weeks; variation in load zone or exercise variation is required to continue progressing.
• Inadequate specificity: Doing plenty of hypertrophy work (3×10 at 70%) without ever training the high-load neural qualities (3-5×3-5 at 85-92% 1RM) required for 1RM expression. Muscle size and 1RM are related but not the same thing.

For most intermediate athletes (6 months to 3 years of consistent training), the primary plateau driver is sticking point weakness. This is the fixable problem this guide addresses.

The Three Bench Press Sticking Points

Biomechanical research by van den Tillaar & Ettema (2013) identified three distinct sticking point positions in the bench press, each correlating with specific muscle group failure:

Note that each requires a fundamentally different set of corrective exercises — training triceps lockout strength will not fix an off-chest pectoral weakness and vice versa. Accurate diagnosis is the prerequisite for effective programming.

Diagnosing Your Weak Point with Velocity Data

Velocity-based diagnosis of the bench press sticking point requires performing submaximal attempts (80-87% 1RM) with maximal concentric intent while capturing the full velocity curve. PoinT GO's 800 Hz sampling captures the deceleration zone with sufficient temporal resolution to identify the sticking point position.

Diagnosis Protocol

1. Load the bar at 82-85% of your estimated 1RM
2. Perform 3 singles with maximum concentric intent (not for maximal load, for diagnostic data)
3. Review each rep's velocity curve in the PoinT GO app
4. Identify the position where velocity drops most sharply — this is your primary sticking point

Interpreting the Velocity Curve

A healthy bench press velocity curve shows: peak acceleration off the chest → smooth deceleration through mid-range → brief secondary acceleration near lockout (the shoulder-extension contribution). Sticking point weakness appears as: (a) failure to achieve peak acceleration early → off-chest weakness; (b) sharp velocity drop at 40-50% range completion → mid-range weakness; (c) progressive velocity collapse in the final range with no secondary acceleration → lockout weakness.

Fix 1: Off-Chest Sticking Point

The off-chest sticking point (0-30° elbow extension) reflects inadequate force production at the start of the concentric phase — most commonly caused by: (1) insufficient pectoralis major strength in the lengthened position, (2) inadequate stretch-shortening cycle exploitation from the eccentric phase, or (3) technical issues with leg drive timing and arch setup.

Primary Corrective Exercises

• Paused bench press (3-second pause at chest): Eliminates the stretch-shortening cycle, forcing pure concentric strength in the most disadvantaged position. Use 80-85% of paused bench 1RM for 4×4-5. The strength increase in this range transfers directly to the off-chest position in the full lift.
• Floor press: Removing the arch and placing elbows on the floor at 0° eliminates leg drive and limits range of motion to the position where off-chest weakness occurs. Use 85-90% of floor press 1RM for 4×3.
• Spoto press: Lower the bar until 3-4 cm from the chest, pause, return. More specific than floor press for athletes who stall specifically in the 0-10 cm range.
• Low incline dumbbell press (15-20° angle): Greater pec lower-fiber stretch at the bottom than flat press, targeting the exact position that fails at the off-chest sticking point.

Programming Integration

Replace the secondary bench work on one session per week with paused bench 4×4 at 85% paused 1RM. After 6 weeks, retest full bench 1RM — off-chest improvements typically transfer 80-90% of paused bench strength gains to the full lift (Wallerstedt et al., 2012).

Fix 2: Mid-Range Sticking Point

Mid-range sticking (30-70° elbow extension) is the most common sticking point location and involves a breakdown in force transfer from the pectoral phase to the triceps-dominant lockout phase. The anterior deltoid and triceps long head must bridge this transition; weakness in either creates a deceleration pocket that stalls or misses at mid-range.

Primary Corrective Exercises

• Close-grip bench press (CGBP): Shifts emphasis to triceps long head and anterior deltoid, the exact muscles that bridge the mid-range transition. Use 3-4×5-6 at 78-85% CGBP 1RM as a secondary pressing movement.
• Board press (2-3 board): Limits range to the mid-range zone only, allowing supramaximal loading (90-100%+ of full bench) in the specific position that stalls. Particularly effective for athletes who can"feel" exactly where the miss occurs.
• Larsen press (feet up): Removes leg drive, exposing the true upper-body weakness in the mid-range. Athletes whose mid-range sticking point is partially masked by leg drive see it clearly in Larsen press data.
• Overhead press (OHP): The anterior deltoid's strength in an isolated context correlates with its contribution during the mid-range bench transition. OHP training at 3×6-8 improves the weakest link in most mid-range plateau cases.

Fix 3: Lockout Sticking Point

Lockout weakness (70-90°+ elbow extension) is almost exclusively a triceps lateral and medial head issue. Unlike the long head (which crosses the shoulder joint and is active in mid-range), the lateral and medial heads are single-joint movers that contribute almost entirely to the final extension phase. Weakness here produces a near-miss on the bench press that can be frustrating because the lifter has good initial speed but cannot close the lift.

Primary Corrective Exercises

• JM Press: A hybrid between close-grip bench and skull crusher that overloads the triceps at elbow angles closest to the lockout position. Use 3×6-8 as secondary pressing work after main bench sets.
• Pin press from 3-board height: Dead-stop pressing from pins at the exact height of the lockout position. Loads the triceps concentrically from their weakest position. 4×4-5 at 90-95% of pin press 1RM.
• Slingshot or reactive slingshot bench: Slingshot allows 10-15% supramaximal loading at lockout while assisting at the bottom, letting the triceps encounter heavier loads in the range they need to overcome.
• Triceps pushdown (cable, heavy): Direct triceps isolation work at 3-4×8-12 weekly adds hypertrophy in the muscles limiting lockout without the joint stress of heavy compound movements.

Periodization Strategy for Bench Press Gains

Corrective accessories alone are not sufficient for 1RM improvement — they must be embedded in a periodization scheme that also includes specific peaking work. The following 12-week block integrates sticking-point work with progressive strength development:

Velocity-Based Load Adjustment

During the strength conversion and peaking phases, use PoinT GO to maintain load prescription by velocity rather than percentage. Target MCV of 0.25-0.35 m/s for strength work and 0.18-0.25 m/s for peaking work — these zones are more accurate than percentage-based prescriptions because they account for daily readiness variation. If MCV at your planned load is >20% below previous session, reduce load to maintain the target zone rather than grinding through accumulated fatigue (González-Badillo et al., 2017).