Landmine Press Guide: Shoulder-Friendly Pressing

Why the Landmine Press Exists

Shoulder pain is the third most common musculoskeletal complaint in resistance training athletes after lower back and knee pain. A 2018 survey of 1,180 competitive powerlifters by Grandel et al. found that 36% reported current or recent shoulder pathology — predominantly impingement, rotator cuff tendinopathy, or acromioclavicular joint irritation. The overwhelming majority (78%) linked the onset to horizontal or vertical barbell pressing in a fixed plane of motion.

The landmine press emerged as a practical solution from coaches and physical therapists facing this exact problem: athletes who needed to maintain pressing volume and shoulder strength during recovery from impingement or post-operative shoulder rehabilitation. Unlike the standard overhead press (which demands full glenohumeral flexion and imposes significant subacromial narrowing in vulnerable shoulders) or the flat bench press (which loads the anterior capsule in external rotation at approximately 90° abduction — the classic impingement position), the landmine's fixed arc creates an oblique pressing path that sidesteps both mechanisms. The result is a pressing exercise that trains the anterior deltoid, upper chest, and triceps through a strong range of motion without placing the shoulder joint in its most compromised positions.

The Arc Angle Biomechanics

The biomechanical advantage of the landmine comes from the pivoting axis of the barbell sleeve. As the athlete presses the end of the bar upward, the bar travels in a fixed arc determined by the insertion point (typically at floor level or in a wall-mounted pivot). This arc means the pressing direction is neither purely horizontal (like a bench press) nor purely vertical (like an overhead press) — it sits at approximately 40–50° above horizontal at the start of the press, transitioning to approximately 60–70° at full extension.

This oblique angle produces three shoulder-specific biomechanical advantages:

1. Reduced subacromial impingement risk: The arc path keeps the humerus in the scapular plane (30–40° anterior to the coronal plane) through most of the pressing range — the position of maximum glenohumeral congruency identified by Poppen & Walker (1976). Pressing in the scapular plane reduces supraspinatus compression against the acromion by approximately 25–30% compared to a straight vertical press.
2. Reduced anterior capsule stress: The oblique path means the shoulder never reaches the full 90° abduction + external rotation position that creates impingement in traditional horizontal pressing. Athletes with a history of anterior instability can typically press pain-free in the landmine configuration when the flat bench press is contraindicated.
3. Natural scapular upward rotation: As the arm rises along the arc, the scapula naturally upwardly rotates to follow — the movement the lower and upper trapezius are designed to produce. This makes the landmine a de facto scapular motor re-education tool, training the trapezius to maintain proper scapulohumeral rhythm under load.

Muscle Activation Profile

EMG data for the landmine press is sparser than for the bench press or military press, but available studies provide clear directional data. Saeterbakken et al. (2021) compared the unilateral landmine press to the barbell military press in recreationally trained men and found:

The elevated serratus anterior activation in the landmine press is particularly significant for shoulder health. The serratus anterior is the primary protractor and upward rotator of the scapula — the muscle most commonly underactive in athletes with scapular dyskinesis and shoulder impingement. Training it under load in the landmine is a rehabilitation-and-performance outcome in one exercise.

Technique by Variation

Half-Kneeling Unilateral Landmine Press (Foundation Variation): Begin in a half-kneeling position, same-side knee down as the pressing arm (right knee down, right arm presses). This position challenges hip flexor length, lumbo-pelvic stability, and rotator cuff coordination simultaneously. Cup the end of the bar in the palm of one hand, keeping the elbow close to the body at the start (approximately 45° from the trunk). Press the bar upward and outward along the arc until full elbow extension, then control the descent. The kneeling position prevents lower back compensation (swinging the torso) that occurs in the standing version under heavier loads.

Standing Bilateral Landmine Press: Grip the end of the bar with both hands (interlaced or stacked). Stand at the pivot point, feet shoulder-width apart. Initiate the press by driving through the serratus and anterior deltoid, not by leaning back. This variation allows the heaviest loads and develops the most pressing force output.

Viking Press (Bilateral, Heavy): Using a Viking press handle or two-bar configuration, this becomes a high-force pressing variant. Load is typically 30–40% higher than the unilateral version and transfers well to overhead throwing and pushing sport actions.

Rotational Landmine Press: Combine a hip and torso rotation with the press — begin with the bar at the front of the opposite hip, rotate through the torso, and press the bar overhead across the body's midline. This variant trains rotational power transfer from the lower limbs through the core to the pressing arm, making it highly specific to throwing, swimming pull-through, and contact sport arm drive patterns.

Load and Velocity Targets

The landmine press is typically loaded at 20–40% lower than a comparable barbell overhead press due to the arc constraint and single-arm nature of most variations. For a trained male athlete with a 80 kg military press 1RM, a reasonable landmine press working range would be 25–55 kg on the bar (measured from the pivot, not including bar weight) depending on variation.

These velocity ranges are specific to the landmine press and should not be extrapolated from bench press velocity thresholds, as the arc constraint and single-arm demand alter the load-velocity characteristics. Establishing athlete-specific profiles with 3–4 submaximal loads provides more accurate individual benchmarks.

Programming the Landmine Press

The landmine press slots into a training program in one of three roles, depending on the athlete's shoulder health status and training goals:

Role 1 — Primary Press (Rehabilitating Shoulder): Replace all overhead and bench pressing with the half-kneeling unilateral landmine press for the first 4–8 weeks of a shoulder rehabilitation period. Program 3–4 sets of 8–12 reps per side, 2–3 times per week. This maintains pressing volume and muscle activation while eliminating the impingement-producing movements. Progress to standing bilateral before re-introducing the overhead press.

Role 2 — Secondary Press (Injury Prevention): In a healthy athlete, include the landmine press as a 2–3 set accessory after the primary bench or overhead press. This maintains serratus anterior strength and scapular motor function during heavy pressing blocks. 10–15 reps per side at moderate load (60–70% of landmine 1RM) is sufficient volume for this purpose.

Role 3 — Power Emphasis (Sport Transfer): For throwing or contact sport athletes, the rotational landmine press at 40–55% 1RM with maximal concentric intent, 5 × 3–4 reps per side, develops pressing power in the rotational pattern specific to sport actions. Place this early in the session, after lower-body power work but before hypertrophy accessories.

VBT Applications for Pressing Velocity

Velocity-based training in pressing movements is less commonly discussed than in squats and deadlifts, but the principle applies equally. González-Badillo et al. (2014) established load-velocity profiles for the military press and found that velocity at 70% 1RM ranged from 0.54 to 0.68 m/s in trained men — a range comparable to similar intensities in the back squat, suggesting that pressing movements are just as amenable to VBT load prescription as lower-body exercises.

For the landmine press, daily readiness testing using a fixed submaximal load (typically 60–65% of 1RM, providing a velocity of approximately 0.55–0.70 m/s) gives coaches a fast, objective readiness signal before pushing into heavy pressing sets. A velocity drop of more than 8% below established baseline at this load suggests the rotator cuff stabilizers are fatigued — a particularly valuable signal for athletes with a history of shoulder issues, where subjective reports of readiness are often masked by pain tolerance.

Shoulder Rehabilitation and Return to Press

The landmine press is widely used in post-surgical and post-injury shoulder rehabilitation because its fixed arc guides the humerus through a safe path without requiring the athlete to consciously stabilize the full 360° of glenohumeral movement. This reduces the proprioceptive demand during the early stages of recovery, allowing load to be reintroduced before rotator cuff coordination is fully restored.

A graduated return-to-pressing protocol following rotator cuff repair (as outlined in the clinical guidelines by Thigpen et al., 2016) typically follows this sequence: (1) half-kneeling unilateral landmine press at bodyweight ×10 reps; (2) standing unilateral landmine press at 30–40% 1RM for 3 × 10; (3) bilateral standing landmine press at 50–65% 1RM; (4) Viking press at progressive loads; then (5) dumbbell overhead press before returning to barbell military press. This 8–12 week progression maintains neuromuscular adaptation throughout, so the return to the barbell overhead press involves far less deconditioning than a full cessation of pressing would produce.