Shoulder impingement is the most common overuse injury in overhead-pressing athletes, with prevalence rates of 18-26% in strength sport competitors (Kolber et al., 2014, Journal of Strength and Conditioning Research). The underlying mechanism in most cases is subacromial compression during the final 30-40 degrees of shoulder flexion — the position where a vertical overhead bar path drives the greater tuberosity of the humerus directly into the acromion. The Viking press and landmine overhead press avoid this impingement window entirely by using an arc-based trajectory that keeps the shoulder in a mechanically favorable position throughout the full range of motion, allowing athletes with existing shoulder issues — or those seeking to prevent them — to develop overhead pressing power without the joint stress of a straight barbell overhead press.
This guide covers the specific biomechanical mechanisms that make the Viking press shoulder-safe, the muscle activation profiles compared to standard overhead pressing, precise setup and technique requirements, velocity-based loading protocols for power development, and sport-specific programming applications.
Why the Arc Trajectory Matters
Why the Arc Trajectory Matters
The landmine bar follows an arc centered on the fulcrum point where the bar enters the landmine pivot or floor anchor. As the athlete presses the bar overhead, the load path moves forward and upward — not directly vertical. This arc trajectory has two critical biomechanical advantages:
1. Reduced terminal shoulder flexion requirement. A vertical overhead press requires approximately 170-180 degrees of glenohumeral flexion at lockout. The landmine arc path typically achieves the equivalent pressing end-point at 140-155 degrees of shoulder flexion, well below the impingement zone. Athletes with rotator cuff pathology, AC joint arthritis, or limited glenohumeral mobility can press to a mechanically appropriate end-point without forcing the shoulder into an injurious position.
2. More favorable force angle throughout ROM. At the bottom of a vertical overhead press, the bar is near the forehead with the elbow at 90 degrees — a high torque position for the deltoid with the shoulder at approximately 90 degrees of flexion. The landmine press starts with the bar at chest height and a more neutral shoulder position, meaning the first third of the ROM involves lower peak deltoid torque than the strict overhead press. This reduces the probability of rotator cuff impingement during the initiation phase, which is where many athletes first experience pain.
Muscle Activation and Joint Mechanics
Muscle Activation and Joint Mechanics
EMG research specific to the Viking press is limited, but data from the landmine press (the single-arm predecessor) provides transferable reference points. Fenwick et al. (2014) and subsequent applied coaching research have documented the following activation characteristics:
| Muscle | Landmine Press (%MVC) | Barbell OHP (%MVC) | Advantage |
|---|---|---|---|
| Anterior deltoid | 78% | 92% | OHP higher — greater deltoid demand |
| Upper pectoralis major | 65% | 30% | Landmine higher — arc path drives horizontal adduction |
| Serratus anterior | 88% | 72% | Landmine higher — greater scapular rotation demand |
| Tricep brachii | 74% | 80% | Similar between variations |
| Rotator cuff (infraspinatus) | 41% | 68% | OHP higher — greater external rotation stabilization demand |
The reduced rotator cuff demand of the landmine press is precisely what makes it appropriate for athletes with cuff pathology — the serratus anterior and upper pec compensate for the mechanical work that the cuff would otherwise need to perform in a vertical press. The higher serratus anterior activation is particularly valuable for athletes who have previously experienced winging scapula or shoulder instability.
Viking Press vs. Standard Landmine Press
Viking Press vs. Standard Landmine Press
The Viking press differs from the standard single-arm landmine press in three ways: it uses a dedicated attachment (the Viking press attachment or a V-bar loaded onto the landmine end), it is performed with two hands simultaneously, and it is typically done standing with a slightly more forward trunk lean than the upright single-arm version. These differences produce distinct training effects:
Standard Single-Arm Landmine Press
The single-arm variation creates significant rotational anti-torque demand on the core: the pressing side generates lateral force that must be resisted by the contralateral oblique and quadratus lumborum. This makes it excellent for athletes who need core rotation stiffness — golfers, baseball pitchers, tennis players — and for identifying and correcting side-to-side pressing asymmetries. The single-arm format also allows lighter loads with higher motor-pattern specificity for athletes in rehabilitation phases.
Viking Press (Bilateral)
The bilateral Viking press allows significantly heavier loading (often 1.5-2× the single-arm version) because both arms share the load and the core anti-rotation demand is reduced. This makes it more appropriate for maximal strength and power development applications — the primary goal when building overhead pressing force output for linemen, wrestlers, combat sport athletes, and swimmers. The two-handed grip and shoulder-width stance create a pressing pattern similar to a push press, making it a sport-transfer tool for sports involving bilateral overhead force expression.
Technique Guide
Technique Guide
Setup
Position the landmine anchor approximately 30-45 cm in front of your feet. Load the Viking attachment (or use a V-bar) onto the bar end, ensuring the weight is secured with a collar. Stand shoulder-width apart, grip the handles with an overhand or neutral grip, and position the bar at chest height with elbows at approximately 45-60 degrees. Engage the core (Valsalva breath or 360-degree bracing) before initiating each rep.
Starting Position
The starting position should have the bar at mid-sternum height, elbows bent to approximately 80-90 degrees, and shoulders in a neutral position — not protracted or elevated. Slight forward trunk lean (10-15 degrees) is natural and appropriate; it allows the arc trajectory to be fully utilized. Excessive forward lean (more than 20 degrees) shifts the movement toward an incline press and reduces the overhead component.
Pressing Phase
Drive the bar forward and upward along the arc path, extending the elbows while allowing the shoulder to flex and the trunk to remain stable. The bar should reach a point approximately at forehead level at full extension — not directly overhead as in a barbell press, but at the natural endpoint of the landmine arc. Elbows should achieve near-full extension at lockout. The key cue: press the bar away from your chest rather than press yourself away from the bar — this maintains core stability and ensures the pressing force is directed through the arc efficiently.
Eccentric Phase
Return the bar along the same arc path under control, 2-3 seconds. Do not allow the shoulders to collapse forward (protract) as the bar descends — maintain scapular retraction throughout to protect the AC joint and build the eccentric shoulder strength that transfers to overhead sport movements.
Loading, Velocity, and Power Development
Loading, Velocity, and Power Development
The Viking press's arc trajectory and high shoulder-press specificity make it particularly well-suited for velocity-based power development — a training methodology where load is selected to maximize mechanical power output (P = F × V) rather than to hit a fixed percentage of 1RM.
Research by Samozino et al. (2012) established that peak mechanical power in upper-body pressing movements occurs at approximately 30-60% of 1RM. However, the Viking press 1RM is difficult to measure directly due to the variable arc and bilateral loading. A practical solution is to set load based on target velocity ranges measured with an IMU sensor:
| Training Goal | Target Mean Velocity | Approx. % of Max | Sets × Reps | Rest |
|---|---|---|---|---|
| Max power output | 0.65-0.85 m/s | 45-60% | 5-6 × 3-5 | 3-4 min |
| Strength-power | 0.45-0.64 m/s | 62-75% | 4-5 × 4-6 | 3 min |
| Strength | 0.25-0.44 m/s | 76-88% | 4 × 3-5 | 4-5 min |
| Hypertrophy | 0.50-0.70 m/s | 60-75% | 3-4 × 8-12 | 90 sec |
The power development application is particularly relevant for sport athletes (American football linemen, wrestlers, shot putters) who need overhead force expression in brief explosive bursts rather than sustained pressing endurance. Programming the Viking press in the power zone (0.65-0.85 m/s) with maximal concentric intent produces the high rate of force development in the shoulder musculature that transfers to athletic performance.
Programming the Viking Press for Sport
Programming the Viking Press for Sport
The Viking press's combination of shoulder safety, bilateral loading, and power development applicability makes it a versatile programming tool across multiple sport contexts:
American Football Linemen
Offensive and defensive linemen require explosive bilateral overhead force expression in the initial contact phase. Program Viking press as the primary overhead movement 2×/week: Monday (power focus, 5×4 at 0.70-0.80 m/s) and Thursday (strength focus, 4×4 at 0.35-0.45 m/s). Pair with medicine ball rotational chest passes to develop the full force-velocity curve.
Olympic Weightlifting and CrossFit
For athletes with shoulder restrictions that limit strict barbell overhead press, the Viking press is a bridge exercise that maintains pressing volume and overhead strength while allowing the shoulder to recover. Progress back to barbell overhead press only after achieving consistent pain-free Viking press sessions at training loads.
Wrestling and Combat Sports
Single-leg stance Viking press (one foot forward, one back, similar to an athletic stance) builds the asymmetric base of support that mirrors combat sport clinch and takedown positions. Program 3×6 per side as a unilateral overhead pressing variation in the sport-specific mesocycle.
Rehabilitation and Return-to-Press
Start at a bar angle that allows pain-free pressing through the available range of motion — often 50-60% of full ROM initially. Progress range of motion before adding load, using 3×15 at a light load to build motor pattern and tissue tolerance before increasing intensity. Isometric holds at various points in the arc help identify specific impingement zones and allow pain-free loading at sub-threshold ROM points.
Progressions and Variations
Progressions and Variations
Beginner to Intermediate Progression
- Single-arm landmine press (kneeling): Removes core stability demand, allows focus on shoulder mechanics and arc path. 3×10 each side.
- Single-arm landmine press (standing): Adds anti-rotation core demand. 3×8 each side.
- Bilateral landmine press (V-bar): Two-arm version with reduced rotational demand and higher load capacity. 3×8-10.
- Viking press (standard): Full bilateral press with dedicated attachment. 4×6-8 for strength, 5×4 for power.
- Viking press with leg drive (push press variation): Brief leg dip initiation to achieve supramaximal loading (105-115% of strict Viking press). Develops rate of force development and power transfer from lower to upper body.
Viking Press Push Press
The Viking press lends itself naturally to a push press variation — a brief knee dip followed by hip extension drives the initial momentum, allowing heavier loads than strict pressing. This variation is used in American football training and powerlifting GPP blocks to develop explosive overhead force production. The landing position (elbows quickly flexing to catch the returning bar) also develops eccentric overhead absorption capacity — relevant for sports involving overhead blocking or throw deflection.
Frequently asked questions
01Is the Viking press safe for athletes with shoulder impingement?+
02What is the difference between the Viking press and a regular landmine press?+
03How do I set up a Viking press without a Viking attachment?+
04Can the Viking press replace the barbell overhead press in a program?+
05What weight should I start with on the Viking press?+
06How does PoinT GO integrate with Viking press training?+
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