What is the Difference Between Push Press and Viking Press?
- Olivia Smith
- Apr 12
- 36 min read
Are you confused about whether to include the push press or Viking press in your strength training routine? You're not alone. These two powerful overhead pressing movements have gained significant popularity in fitness communities, from CrossFit boxes to strongman gyms, but understanding their distinct benefits and applications can be challenging for many lifters.
The push press—a dynamic barbell movement that utilizes leg drive to propel weight overhead—has long been a staple in Olympic weightlifting and athletic training programs. Meanwhile, the Viking press—an angled pressing movement typically performed with a landmine attachment or dedicated machine—has emerged from strongman competitions to become increasingly common in mainstream gyms.
While both exercises develop upper body strength and power, they differ significantly in movement mechanics, muscle activation, equipment requirements, and training benefits. This comprehensive guide will break down exactly how these two overhead pressing variations compare, helping you make an informed decision about which exercise better suits your specific training goals, equipment access, and physical capabilities.
Whether you're a strength coach programming for athletes, a competitive lifter looking to improve pressing power, or a fitness enthusiast wanting to diversify your shoulder training, understanding the key differences between push press and Viking press will help you optimize your training for better results and reduced injury risk.
What You'll Learn in This Complete Guide:
Understanding the Push Press: Fundamentals and Technique - Definition, proper execution, and muscles targeted
Key Differences Between Push Press and Viking Press - Movement patterns, biomechanics, equipment needs, and learning curves
Performance and Training Benefits Comparison - Strength, power, hypertrophy, and athletic transfer differences
Safety and Injury Prevention Considerations - Joint stress, risk factors, and modifications for special populations
Programming and Implementation - How to effectively program each exercise and when to choose one over the other
Sport-Specific Applications - Applications for strongman, Olympic weightlifting, CrossFit, and team sports
Conclusion - Final comparison summary and recommendations based on your specific goals
From movement mechanics to practical applications, this guide provides everything you need to understand the critical differences between push press and Viking press, helping you make the best choice for your training goals.
Understanding the Push Press: Fundamentals and Technique

The push press stands as one of the most effective compound movements for developing explosive upper body strength, combining lower body power with overhead pressing in one fluid motion. Originating in Olympic weightlifting as an assistance exercise for the jerk, the push press has evolved into a core training movement for athletes across various sports.
At its essence, the push press is a barbell exercise that begins with the bar resting on the front of the shoulders (front rack position), followed by a slight dip of the knees and hips, then an explosive drive upward using leg power to help propel the barbell overhead to full lockout. This coordinated movement pattern distinguishes the push press from the strict press, which relies solely on upper body strength with no leg assistance, and from the push jerk, which includes a second dip to receive the bar with bent legs.
The execution of a proper push press follows a precise sequence that maximizes power transfer from the ground up through the kinetic chain. The lifter begins with feet approximately hip-width apart, the barbell resting across the front deltoids and clavicles, with elbows pointing forward and slightly up to create a stable shelf. Hands grip the bar just outside shoulder width with a full grip (thumbs wrapped around the bar). The initial dip phase involves a controlled quarter squat—approximately 4-6 inches of knee flexion—while maintaining an upright torso position. This loading phase is immediately followed by an explosive extension of the knees and hips, driving force from the ground through the body.
As this leg drive decelerates, the upper body takes over, pressing the barbell to full lockout overhead with arms extended, shoulders elevated, and the bar balanced over the midfoot. The entire movement should flow seamlessly from dip to drive to press, with the transition between phases representing a critical technical component that determines the exercise's effectiveness.
The push press activates an impressive array of muscle groups throughout the body, making it a highly efficient compound movement. Primary movers include the deltoids (particularly the anterior and lateral heads), triceps, and upper trapezius, which handle the pressing portion of the movement. However, what sets the push press apart from other overhead pressing variations is its significant recruitment of lower body and core musculature. The quadriceps, hamstrings, and glutes generate the initial explosive force during the drive phase, while the core muscles—including the rectus abdominis, obliques, and erector spinae—stabilize the torso to transfer this force efficiently to the upper body.
The upper back muscles, including the rhomboids and mid-trapezius, provide additional stability for the shoulder girdle throughout the movement. This integrated full-body recruitment pattern explains why lifters can typically push press approximately 30% more weight than they can strict press, making it an excellent choice for overloading the pressing muscles with heavier weights than they could otherwise handle.
Proper technique in the push press requires attention to several critical details that significantly impact both performance and safety. The timing between the dip and drive phases represents perhaps the most crucial technical element—the transition must be immediate and explosive, without pausing at the bottom of the dip. This quick reversal maximizes the stretch-shortening cycle, a physiological mechanism that enhances force production through the elastic energy stored in muscles during the eccentric (lowering) phase.
Bar path should remain vertical throughout the movement, with the bar traveling close to the face as it passes the forehead. Common technical errors include excessive forward lean during the dip, pressing the bar forward rather than straight up, dipping too deep (which reduces power output), and failing to fully lock out at the top position. Additionally, breathing mechanics play an important role, with most coaches recommending a breath in before the dip, held throughout the movement to maintain core stability, and released only after the bar is locked out overhead or returned to the shoulders.
Equipment needs for the push press remain relatively simple, making it accessible for most training environments. A standard Olympic barbell represents the most common implement, though dumbbells, kettlebells, or even sandbags can be used as alternatives. Adequate overhead clearance is essential, particularly for taller lifters or those using bumper plates. While not strictly necessary, many lifters benefit from weightlifting shoes with elevated heels, which can improve ankle mobility and help maintain a more upright torso position during the dip phase. Wrist wraps may provide additional joint support for those handling heavier loads. For safety considerations, performing the push press inside a power rack with safety pins set at appropriate heights allows for failed attempts to be abandoned safely, particularly important when training near maximal loads. The relatively minimal equipment requirements contribute to the push press's popularity across various training environments, from well-equipped weightlifting facilities to more basic gym setups.
Several common variations of the push press allow for customization based on individual needs, goals, and limitations. The dumbbell push press offers a unilateral training option that can address strength imbalances between sides while requiring greater stabilization throughout the movement.
The behind-the-neck push press variation positions the bar on the trapezius rather than the front deltoids, potentially allowing for a more vertical bar path but requiring excellent shoulder mobility. For those with shoulder mobility restrictions, the landmine push press—performed with one end of a barbell secured in a landmine attachment—provides an angled pressing pattern that may be more comfortable while still developing explosive power.
The sotts press variation, which begins from the bottom of a front squat position before standing and pressing, places greater demands on mobility and positional strength. These variations allow coaches and athletes to select the most appropriate version based on specific training goals, individual anthropometry, mobility limitations, or sport-specific requirements, while still capturing the fundamental power development benefits that make the push press such a valuable training tool.
Understanding the Viking Press: Fundamentals and Technique

The Viking press has emerged from the niche world of strongman training to become an increasingly popular pressing variation in mainstream strength and conditioning programs. Unlike the push press, which has roots in Olympic weightlifting, the Viking press evolved specifically within strongman competitions as an event that tests overhead pressing strength and endurance. In its original competitive form, the Viking press typically involved a large apparatus with handles attached to a pivot point, allowing athletes to press the weight in a slightly angled path rather than directly overhead.
Today's gym adaptations usually utilize a landmine attachment (a pivot device that secures one end of a barbell to the floor) with various handle attachments, or dedicated Viking press machines that replicate the competition movement pattern. The defining characteristic of the Viking press is its angled pressing path—approximately 45 degrees from vertical—which creates a unique loading pattern that many lifters find more shoulder-friendly than strict vertical pressing.
Executing the Viking press begins with proper setup, which varies somewhat depending on the equipment available. Using the common landmine attachment method, the lifter positions themselves facing the free end of the barbell with feet in a staggered or split stance for stability. Handles—which may be neutral grip (palms facing each other), pronated (palms down), or specialized Viking press handles—are grasped at approximately chest height.
The starting position should establish a straight line from the planted rear foot through the hips and spine to the head, with the torso angled slightly forward to match the bar path. From this position, the lifter presses the weight forward and upward along the angled path determined by the landmine pivot point, fully extending the arms while maintaining torso position and stance.
The movement is then reversed under control, returning the weight to the starting position at chest height. Unlike the push press, the standard Viking press execution relies primarily on upper body strength rather than incorporating significant leg drive, though some variations do include a leg drive component for moving heavier loads.
The Viking press targets a comprehensive array of upper body muscles with some distinct activation patterns compared to vertical pressing movements. The primary movers include the anterior and lateral deltoids, upper pectoralis major, triceps brachii, and serratus anterior. The angled pressing path typically creates greater activation in the upper chest fibers compared to strict overhead pressing, while potentially reducing the demand on the posterior deltoid.
Core musculature—particularly the rectus abdominis, obliques, and erector spinae—works isometrically to stabilize the torso against the forward-directed force. The lower body remains primarily in a bracing role during standard execution, with the quadriceps, hamstrings, and glutes working isometrically to maintain the stable base position.
This muscle activation pattern explains why many lifters report feeling the Viking press more in their upper chest and front deltoids compared to traditional overhead pressing movements, which may emphasize the middle and posterior deltoids to a greater degree depending on exact technique and individual anatomy.
Several technical factors significantly influence Viking press performance and safety. Torso angle represents a critical variable—maintaining a consistent forward lean throughout the movement ensures proper leverage and joint alignment, while allowing the angle to change during the press can place unnecessary stress on the lower back. Hand position and grip type dramatically affect muscle recruitment patterns, with a neutral grip (palms facing each other) typically allowing for greater comfort and potentially more triceps engagement, while a pronated grip (palms down) may increase deltoid activation. Elbow tracking should maintain alignment with the wrists and shoulders throughout the movement to optimize leverage and minimize joint stress.
Breathing mechanics typically follow a bracing pattern, with lifters taking a breath into the braced core before initiating the press, then exhaling during the most challenging portion of the concentric phase or after completing the repetition. Common technical errors include excessive lumbar extension (arching the lower back), allowing the shoulders to roll forward at the bottom position, and failing to maintain consistent foot pressure throughout the movement.
Equipment variations for the Viking press create significant differences in execution and training effect. The most basic setup utilizes a standard barbell in a landmine attachment with no additional handles, requiring the lifter to grasp the barbell sleeve directly. While functional, this approach limits grip options and can be uncomfortable with heavier loads.
Purpose-built Viking press handles that attach to the barbell sleeve represent a significant upgrade, offering neutral, pronated, or multi-grip options that enhance comfort and allow for technique adjustments based on individual preferences and shoulder mechanics. Dedicated Viking press machines, while less common in general fitness facilities, provide the most specific training stimulus for strongman competitors, often featuring independent handles that allow for unilateral loading or bilateral imbalance detection.
For home gym enthusiasts or facilities with limited equipment, DIY Viking press setups can be created using a barbell secured in a corner with towels or padding, though these improvised options require additional caution to ensure stability during use. The equipment variation used significantly impacts the precise movement pattern, loading potential, and overall training stimulus, making equipment selection an important consideration when programming the Viking press.
The Viking press has evolved to include several valuable variations that expand its application across different training goals and populations. The two-arm Viking press represents the standard execution, but the one-arm variation offers an excellent unilateral training option that identifies and addresses strength imbalances between sides while imposing greater anti-rotation demands on the core. The Viking push press incorporates a dip and drive with the legs similar to a traditional push press, allowing for heavier loading and greater power development.
For metabolic conditioning purposes, the Viking press thruster combines the press with a full squat movement, creating a challenging full-body exercise that elevates heart rate while building pressing strength. The seated Viking press variation removes lower body contribution entirely, isolating upper body pressing strength while reducing lower back stress, making it suitable for those with certain lower back issues or as a burnout movement after heavier standing work.
These variations demonstrate the Viking press's versatility across training goals from maximum strength and power development to hypertrophy, endurance, and metabolic conditioning, contributing to its growing popularity in diverse training environments beyond its strongman competition origins.
Key Differences Between Push Press and Viking Press

The most fundamental difference between the push press and Viking press lies in their movement patterns and pressing angles. The push press follows a vertical path directly overhead, with the barbell traveling in a straight line from the front rack position to full extension with the bar balanced above the head and shoulders. This vertical pressing angle places the shoulder joint in a position of maximum overhead flexion at the top of the movement. In contrast, the Viking press follows an angled path determined by the landmine pivot point, typically around 30-45 degrees from vertical. This angled pressing pattern never reaches full overhead extension, instead finishing with arms extended forward and upward with the shoulder in a position of combined flexion and horizontal flexion.
These distinct movement patterns create significantly different joint angles throughout the range of motion, with the push press placing greater demands on shoulder flexion mobility and thoracic extension, while the Viking press requires less extreme shoulder positions but greater stability against the forward-directed force. The biomechanical differences between vertical and angled pressing significantly impact muscle recruitment patterns, joint stress, and performance potential for different individuals based on their anatomy and mobility characteristics.
Biomechanical analysis reveals critical differences in force production and joint loading between these pressing variations. The push press generates force primarily through the stretch-shortening cycle and triple extension (simultaneous extension of ankles, knees, and hips), creating a power-dominant movement that relies on rate of force development and proper timing between lower and upper body actions. This movement pattern produces primarily axial loading (force directed along the spine's axis) when performed correctly.
The Viking press, by comparison, typically generates force more gradually through direct muscular tension rather than explosive power, creating a strength-dominant movement with both axial and anterior loading components due to its angled pressing path. The shoulder joint experiences notably different stress patterns between the movements—the push press places the glenohumeral joint in positions requiring significant external rotation and scapular upward rotation, while the Viking press generally requires less extreme rotational positions but creates different shear forces due to its angled path.
These biomechanical distinctions explain why individuals with certain shoulder conditions may tolerate one movement better than the other, as the specific joint positions and loading patterns interact differently with various shoulder pathologies and individual anatomical variations.
Equipment accessibility creates practical differences that significantly impact training implementation. The push press requires minimal specialized equipment—essentially just a barbell and weights—making it accessible in virtually any gym setting with basic free weight equipment. However, it does require adequate overhead clearance, which can be limiting in some facilities with lower ceilings.
The Viking press, in its most common form, requires a landmine attachment or dedicated Viking press station, which may not be available in all training environments. This equipment requirement can limit accessibility, though creative alternatives exist, such as securing a barbell in a corner with towels as padding for a makeshift landmine setup.
Weight loading mechanics also differ significantly—the push press allows for straightforward plate loading on both sides of the barbell, while the landmine-based Viking press typically loads only one end of the bar, creating a potentially awkward loading process for heavier weights. These practical equipment considerations often influence exercise selection based on training environment constraints rather than purely on physiological or biomechanical factors.
The learning curve and technical demands between these exercises reveal significant differences relevant for programming decisions. The push press presents a more complex technical challenge for most beginners, requiring precise timing between the dip, drive, and press phases to effectively transfer force from the lower body to the barbell. Mastering this timing element typically requires dedicated practice and coaching feedback, with common technical errors including insufficient leg drive, poor timing between lower and upper body actions, and pressing the bar forward rather than vertically.
The Viking press generally presents a simpler technical challenge, with fewer moving parts and timing elements to coordinate. Most lifters can perform a reasonably effective Viking press with minimal instruction, making it more immediately accessible for beginners or those with less coaching support.
However, the Viking press does present unique technical challenges related to maintaining proper torso position throughout the movement and managing the forward-directed force component. These learning curve differences make the Viking press often more suitable as an entry-level pressing movement for novice lifters, while the push press may require more progressive skill development before effective implementation with significant loads.
Stability requirements differ substantially between these pressing variations, creating important distinctions in their training effects. The push press demands multi-directional stability, particularly as the barbell travels overhead, requiring the lifter to control the weight in three dimensions with minimal fixed reference points. This creates high demands on proprioception (position sense) and neuromuscular control throughout the kinetic chain. The Viking press, with one end of the barbell fixed at a pivot point, creates a more constrained movement path with fewer degrees of freedom.
This partial stabilization makes the Viking press inherently more stable and potentially more accessible for those with balance or coordination limitations. However, this difference means the push press develops greater overall stability and coordination, potentially offering superior transfer to unpredictable real-world or sporting movements that require multi-directional stability.
The Viking press, while more stable, still imposes significant anti-rotation and anti-flexion demands on the core to resist the forward-directed force component, developing specific stability qualities that may transfer well to pushing and pressing actions in sports and daily activities.
Range of motion differences between these exercises create distinct training stimuli with important implications for mobility, strength development, and hypertrophy. The push press typically moves through a greater total range of motion, from the front rack position through full overhead extension, requiring and developing mobility throughout this complete pressing arc.
This full range of motion can be advantageous for developing comprehensive pressing strength and muscular development. The Viking press, with its angled path, generally moves through a more limited range of motion that never reaches the extreme overhead position of the push press. This reduced range of motion makes the Viking press more accessible for individuals with limited shoulder mobility or certain shoulder pathologies that make full overhead positioning uncomfortable or contraindicated.
However, this same characteristic means the Viking press may provide less complete development of pressing strength through the full potential range of motion. These range of motion differences influence exercise selection based on individual mobility limitations, specific training goals, and whether the priority is working within existing mobility constraints or progressively developing greater movement capacity through full ranges of motion.
Performance and Training Benefits Comparison

Strength development patterns differ significantly between the push press and Viking press, influencing their application for specific strength goals. The push press develops a unique combination of strength qualities—explosive strength through its ballistic nature, absolute strength by allowing supramaximal loading (weights heavier than could be strict pressed), and strength-endurance when performed for higher repetitions.
This multi-faceted strength development makes the push press particularly valuable for athletes requiring diverse strength expressions. The movement's involvement of the entire kinetic chain also creates systemic strength development rather than isolated pressing strength.
The Viking press, by comparison, tends to develop more focused pressing strength with particular emphasis on the anterior shoulder chain and upper chest. Its more controlled tempo typically emphasizes absolute strength and strength-endurance rather than explosive strength, though power development is still possible with intentionally accelerated repetitions.
The fixed movement path of the Viking press allows for more concentrated focus on pressing muscles without the same technical demands as the push press, potentially allowing for more direct overload of specific muscle groups. These distinct strength development patterns make the push press generally superior for athletes requiring integrated, explosive strength expressions, while the Viking press may offer advantages for targeted upper body pressing strength development or hypertrophy-focused training.
Power development capabilities reveal perhaps the most significant performance difference between these pressing variations. The push press stands as a superior power development tool due to its ballistic nature and integration of the stretch-shortening cycle through the dip and drive phases. Research examining power output during various exercises consistently shows that the push press generates significantly higher power outputs than strict pressing variations, with peak power typically occurring at 65-80% of one-repetition maximum. This high power output develops rate of force development (how quickly maximum force can be generated), a critical athletic quality for most sports.
The Viking press, while still capable of developing some power when performed explosively, typically produces lower peak power outputs due to its more controlled nature and limited involvement of the stretch-shortening cycle in standard execution. The Viking push press variation attempts to incorporate more power development through leg drive, but the fixed pivot point still constrains the explosive expression compared to the free barbell push press. These power development differences make the push press the clearly superior choice for athletes prioritizing explosive strength, while the Viking press serves better for controlled strength development or hypertrophy-focused training where peak power output is less critical.
Hypertrophy potential comparisons reveal nuanced differences between these pressing variations that influence their application for muscle development goals. The Viking press typically creates greater continuous tension throughout the movement due to its more controlled tempo and constant resistance profile, potentially enhancing metabolic stress—a key mechanism for hypertrophy. The angled pressing path of the Viking press also tends to create greater activation of the upper chest fibers compared to vertical pressing movements, making it particularly effective for developing the often-aesthetic upper chest region.
The push press, with its ballistic nature, creates less continuous tension during the acceleration phase but allows for handling heavier loads, enhancing the mechanical tension component of hypertrophy. Additionally, the push press typically involves a greater total amount of muscle mass due to its full-body integration, potentially creating a greater hormonal response to training, though the practical significance of acute hormonal responses remains debated in current research.
For pure hypertrophy purposes, many bodybuilders and physique-focused lifters prefer the more controlled Viking press for direct upper body development, while strength athletes often utilize the push press for its systemic effects and heavier loading potential. Optimal hypertrophy programming might include both movements to take advantage of their complementary stimulus patterns.
Athletic performance transfer represents a critical consideration for sport-specific training applications. The push press typically offers superior transfer to athletic movements due to several factors: its triple extension pattern directly mimics jumping and sprinting mechanics; its ballistic nature develops power output similar to many sporting actions; and its free barbell implementation develops multi-directional stability relevant to unpredictable sporting environments.
Research examining transfer of training effects consistently shows that movements sharing similar kinetic and kinematic profiles with sporting actions typically transfer more effectively than less similar movements. For sports requiring vertical power expression—like basketball, volleyball, or Olympic weightlifting—the push press offers particularly direct transfer. The Viking press, while still developing useful pressing strength, typically offers more limited direct transfer to most sporting movements due to its fixed movement path and more controlled tempo.
However, the Viking press may offer superior transfer for specific pushing actions in sports like football or rugby, where the angled pressing path more closely resembles the force application angle during certain blocking or tackling scenarios. These transfer differences make the push press generally superior for developing athletic qualities for most sports, while the Viking press serves as a valuable assistance exercise for specific strength development or as a shoulder-friendly alternative when overhead pressing is contraindicated.
Metabolic conditioning applications reveal different strengths between these pressing variations. The push press, involving larger total muscle mass through its full-body integration, typically creates greater acute metabolic demand and oxygen consumption, making it highly effective for conditioning purposes when performed for moderate to high repetitions with appropriate loading. The ballistic nature of the push press also develops power endurance—the ability to maintain power output under fatigue—a critical quality for many sports.
The Viking press, while involving less total muscle mass, can be performed with shorter rest periods due to its lower technical demands and reduced central nervous system stress, potentially allowing for greater total work volume in conditioning sessions. The Viking press thruster variation, combining the press with a squat movement, significantly increases metabolic demand and makes an excellent conditioning tool.
For general metabolic conditioning purposes, both exercises offer valuable benefits when appropriately programmed, with selection often depending on technical proficiency, equipment availability, and specific conditioning goals. Many effective conditioning protocols utilize both movements within comprehensive programs, either within the same session for different stimulus patterns or across different training days to manage fatigue and technical execution quality.
Strength carryover to other lifts represents another important performance consideration. The push press typically develops strength qualities that transfer effectively to other overhead pressing variations, including the military press, push jerk, and snatch. The movement's emphasis on coordinated force transfer through the kinetic chain also develops qualities beneficial for Olympic weightlifting movements and other explosive exercises. Additionally, the core stability developed through heavy push pressing transfers to virtually all other compound movements requiring torso rigidity under load. The Viking press, while less integrated, still develops pressing strength that transfers to horizontal pressing movements like the bench press and incline press, particularly benefiting the upper portion of these movements where the pressing angle becomes more similar.
The Viking press also develops specific core stability against forward-directed force that transfers well to exercises like front squats and zercher carries. These carryover patterns influence exercise selection within comprehensive programs, with the push press often serving as a primary movement that develops qualities transferring to multiple other exercises, while the Viking press more commonly serves as an assistance exercise developing specific qualities for pressing strength and upper body development.
Safety and Injury Prevention Considerations

Joint stress patterns differ significantly between the push press and Viking press, creating important safety considerations for exercise selection. The push press places the shoulder joint in a position of maximum overhead flexion at lockout, requiring full glenohumeral mobility and proper scapular upward rotation. This position can create impingement issues for individuals with certain shoulder anatomies or mobility restrictions, particularly when technical execution is flawed.
The movement also creates momentary high axial loading on the spine during the transition from dip to drive, requiring excellent core bracing to maintain spinal neutrality. The Viking press, with its angled pressing path, never reaches the extreme overhead position of the push press, typically keeping the shoulder in a more mid-range position that many lifters find more comfortable. This reduced range of motion often makes the Viking press more accessible for individuals with shoulder mobility limitations or certain shoulder pathologies like impingement syndromes or acromioclavicular joint issues.
However, the Viking press does create a forward-directed force component that must be counteracted by the core and lower back, potentially creating different stress patterns for those with lower back concerns. These distinct joint loading patterns explain why many lifters with shoulder issues gravitate toward the Viking press as a more comfortable pressing option, while those with certain lower back conditions might prefer the more vertically-aligned loading of a properly executed push press.
Technical complexity influences injury risk profiles for both movements. The push press, with its more complex coordination requirements between lower and upper body actions, presents greater potential for technical breakdown, particularly under fatigue or with excessive loading. Common technical errors like excessive forward lean during the dip, pressing the bar forward rather than vertically, or failing to properly transfer force from legs to upper body can create unfavorable joint positions that increase injury risk. The Viking press, with its simpler execution and partially fixed movement path, typically presents fewer opportunities for significant technical breakdown, potentially reducing acute injury risk for less experienced lifters.
However, this same constraint means the Viking press provides fewer proprioceptive challenges and less neuromuscular development, potentially limiting long-term injury prevention benefits that come from improved movement quality and coordination. These technical considerations make the Viking press often more appropriate for beginners or those with limited coaching support, while the push press may require more careful progression and technique development to minimize injury risk while maximizing performance benefits.
Loading parameters significantly impact safety considerations for both movements. The push press allows for handling significantly heavier loads than would be possible with strict pressing—typically 30-40% more weight—due to the contribution of leg drive. This increased loading capacity creates both opportunities and risks: the potential for greater strength development through heavier loading, but also increased stress on joints and connective tissues if progression occurs too rapidly or technique breaks down under heavy loads. The Viking press typically handles more moderate loads compared to the push press, partly due to the mechanical disadvantage of the angled pressing path and partly due to its more isolated upper body nature in standard execution.
This more moderate loading profile can create a more controlled stimulus with potentially lower acute injury risk, particularly for those new to pressing movements or returning from upper body injuries. These loading differences influence programming decisions, with the push press often requiring more careful load progression and technical monitoring, while the Viking press may allow for more aggressive loading progressions within its more constrained movement pattern.
Individual anatomical considerations create highly personalized risk-benefit profiles for these pressing variations. Shoulder anatomy varies significantly between individuals, with factors like acromion shape, glenohumeral alignment, and scapular movement patterns creating unique responses to different pressing angles. Some lifters find overhead pressing inherently uncomfortable regardless of technique due to their specific shoulder structure, making the angled path of the Viking press a valuable alternative that allows continued pressing development without pain.
Limb length proportions also significantly impact exercise mechanics—those with longer arms relative to their torso typically experience greater leverage challenges with the push press but may find the Viking press more accommodating to their structure. Thoracic mobility represents another critical individual factor, with limited thoracic extension making proper overhead positioning difficult or impossible for some lifters, again favoring the Viking press as an alternative.
These individual anatomical considerations explain why blanket recommendations about exercise selection often fail—the "best" pressing variation depends significantly on individual structure and movement capabilities rather than universal principles. Effective coaches recognize these individual differences and select exercises based on each athlete's unique anatomical considerations rather than dogmatic adherence to specific movement patterns.
Modification options for special populations differ between these pressing variations. The push press offers several regression options for those building toward the full movement: the dumbbell push press reduces stability demands and allows for individual arm adjustments; the landmine push press creates a hybrid movement with an angled but still partially ballistic pressing pattern; and the seated push press removes some lower body contribution while maintaining the upper body pressing pattern.
The Viking press similarly offers valuable modifications: the single-arm Viking press reduces load while developing unilateral strength and core stability; the seated Viking press eliminates lower back stress for those with lumbar concerns; and handle position adjustments allow for finding the most comfortable pressing angle for individual shoulder mechanics.
For rehabilitation purposes, the Viking press often serves as an earlier progression in return-to-pressing protocols due to its more constrained movement path and reduced overhead requirements, with the push press introduced later as a more advanced progression once full movement capability has been restored. These modification options make both exercises valuable within comprehensive training programs that must accommodate diverse populations with varying physical capabilities, limitations, and training histories.
Recovery demands differ significantly between these pressing variations, creating important programming considerations. The push press, as a more technically complex movement involving greater total muscle mass and central nervous system demand, typically requires more complete recovery between training sessions. Research examining neuromuscular fatigue following different exercise types consistently shows that ballistic, full-body movements like the push press create more significant central fatigue requiring longer recovery periods compared to more isolated movements. The Viking press, with its more localized stimulus and reduced technical demands, typically allows for more frequent training with shorter recovery periods between sessions.
This recovery difference influences programming decisions, with the push press often programmed less frequently (typically 1-2 times weekly for most trainees) but as a primary movement, while the Viking press can be programmed more frequently (2-3 times weekly) as either a primary or assistance exercise depending on the overall program structure. Many effective programs utilize both movements within a comprehensive approach, with the push press performed on lower frequency, higher intensity days focused on power development, and the Viking press incorporated on higher frequency, moderate intensity days focused on volume accumulation and specific strength development.
Programming and Implementation

Effective push press programming requires careful consideration of set and rep schemes based on specific training goals. For maximum strength development, lower repetition ranges (1-5 reps) with heavier loads (80-90% of 1RM) and longer rest periods (3-5 minutes) typically produce optimal results, allowing for significant loading while maintaining movement quality.
Power development—often the primary goal with push press training—usually employs moderate repetition ranges (3-6 reps) with moderate loads (65-80% of 1RM) performed with maximum concentric velocity and complete recovery between sets (2-3 minutes) to maintain power output. Hypertrophy-focused push press training might utilize slightly higher repetition ranges (6-10 reps) with moderate loads (70-80% of 1RM) and shorter rest periods (1-2 minutes), though the ballistic nature of the movement makes it less ideal for pure hypertrophy compared to more controlled pressing variations.
For metabolic conditioning purposes, the push press can be programmed with moderate to high repetitions (8-15) using lighter loads (50-65% of 1RM) with limited rest periods, often within circuit formats. Regardless of the specific goal, technical execution quality should always take precedence over loading or volume metrics, particularly with the push press's more complex movement pattern.
Most effective programs periodize these variables throughout training cycles, perhaps beginning with higher repetition ranges and moderate loads to build technical proficiency and work capacity before progressing to lower repetition, higher intensity phases for peak strength and power development.
Viking press programming typically follows different set and rep schemes compared to the push press, reflecting its distinct movement characteristics. For strength development, moderate repetition ranges (5-8 reps) with challenging loads (75-85% of 1RM) and adequate rest periods (2-3 minutes) often prove most effective, allowing for significant tension on the target muscles while maintaining proper positioning throughout sets.
Hypertrophy-focused Viking press training—often a primary goal with this movement—typically employs moderate to higher repetition ranges (8-12 reps) with moderate loads (65-75% of 1RM) and shorter rest periods (60-90 seconds) to maximize metabolic stress and time under tension. For endurance development, particularly relevant for strongman competitors facing high-repetition pressing events, higher repetition ranges (12-20+ reps) with lighter loads (50-65% of 1RM) help build the specific muscular endurance needed for competition. Power development, while not the Viking press's primary strength, can be targeted through lower repetition ranges (3-6 reps) with moderate loads (70-80% of 1RM) performed with intentionally accelerated concentric phases.
The Viking press's more controlled nature and reduced technical complexity compared to the push press typically allows for higher total volume accumulation across training cycles, making it particularly valuable for hypertrophy phases where volume serves as a primary driver of muscle development. Many effective programs utilize varied set and rep schemes across training cycles, perhaps using higher volume approaches during accumulation phases before transitioning to lower volume, higher intensity approaches during intensification phases.
Exercise sequencing within workouts significantly impacts the effectiveness of both pressing variations. The push press, as a technically demanding, power-focused movement, typically performs best when programmed early in training sessions when the neuromuscular system is fresh and fatigue hasn't compromised movement quality or power output. Placing the push press after other fatiguing work often results in compromised technique, reduced power expression, and potentially increased injury risk. Common effective sequencing approaches place the push press immediately after warm-up and activation work, before more hypertrophy-focused or assistance exercises.
The Viking press demonstrates more flexibility in workout sequencing—it can serve effectively as a primary movement early in sessions, particularly when focusing on pressing strength or upper body development, but also functions well as a secondary movement after other compound exercises like squats or deadlifts. The Viking press's more controlled nature and reduced technical demands make it more resistant to technique breakdown under fatigue compared to the push press.
These sequencing considerations influence program design decisions, with many effective approaches using the push press as a primary movement on dedicated upper body or pressing days, while the Viking press might appear in various positions within workout structures depending on the specific training emphasis and individual recovery capabilities.
Complementary exercises create synergistic effects when properly paired with either pressing variation. For the push press, effective complementary movements include: strict military press to build the specific shoulder strength that supports lockout capability; front squats to develop the leg drive and torso stability needed for the dip and drive phases; and upper back exercises like rows and face pulls to balance pressing volume with pulling work while developing the scapular stability needed for safe overhead positioning.
For the Viking press, valuable complementary exercises include: incline bench press to develop similar pressing angles through a different movement pattern; core stability work like planks and anti-rotation exercises to enhance the torso stability needed to resist the forward-directed force; and rear deltoid and external rotation exercises to balance the anterior deltoid emphasis of the Viking press.
Both movements benefit from dedicated mobility work for the thoracic spine, shoulders, and wrists, which supports proper positioning and reduces injury risk. These complementary exercise selections create balanced development around the pressing patterns while addressing the specific physical qualities that support optimal performance in each movement.
Effective programming approaches typically include a mixture of pressing variations and supporting exercises rather than overemphasizing any single movement pattern, creating comprehensive development while managing joint stress through varied loading patterns.
Periodization strategies for long-term development differ somewhat between these pressing variations due to their distinct characteristics. The push press, with its higher technical demands and greater systemic stress, typically benefits from more pronounced periodization approaches with clear delineation between volume and intensity phases.
A common effective approach follows a wave-like pattern, beginning with higher volume, moderate intensity work to build work capacity and refine technique (3-4 sets of 6-8 reps), progressing to moderate volume, higher intensity work for strength development (3-5 sets of 3-5 reps), and culminating in lower volume, maximum intensity work for peak power expression (3-4 sets of 1-3 reps) before deloading and beginning the next cycle.
The Viking press, with its lower technical complexity and reduced systemic stress, can function effectively with more flexible periodization approaches, including linear models that gradually increase intensity while reducing volume, or even daily undulating periodization where intensity and volume vary session-to-session rather than across longer phases.
For athletes with specific competition timing, both movements should follow appropriate peaking protocols, with volume reduction and intensity maintenance in the weeks approaching competition to maximize performance while managing fatigue. These periodization differences reflect the distinct fatigue profiles and adaptation patterns of each movement, with the push press typically requiring more structured variation to manage its higher neurological demands compared to the Viking press's more moderate systemic impact.
Exercise selection criteria between push press and Viking press should consider several key factors to optimize training outcomes. Training goal specificity represents the primary consideration—for pure power development, explosive strength, or athletic transfer, the push press typically offers superior benefits due to its ballistic nature and triple extension pattern.
For pressing strength development, upper body hypertrophy, or shoulder-friendly pressing options, the Viking press often proves more effective due to its controlled nature and reduced mobility demands. Individual anatomical considerations significantly influence optimal selection—those with limited shoulder mobility, previous shoulder injuries, or certain shoulder structures may find the Viking press more accessible and comfortable, while those with excellent overhead mobility and no shoulder issues can fully benefit from the push press's complete range of motion.
Equipment availability obviously impacts selection—facilities without landmine attachments or Viking press stations may default to the push press out of necessity, while those with low ceilings might require the Viking press due to overhead clearance limitations. Training experience and technical proficiency should also inform selection—beginners or those with limited coaching support might begin with the Viking press to develop basic pressing strength before progressing to the more technical push press as capability develops. These selection criteria should guide individualized program design rather than dogmatic adherence to either movement as universally superior.
Combining both exercises within comprehensive programs often creates superior outcomes compared to exclusively using either movement alone. Several effective integration approaches have demonstrated success in practice: alternating the movements across different training days (push press on Day 1, Viking press on Day 3) to distribute pressing volume while varying stress patterns; using the push press as a primary movement for power development followed by the Viking press as an assistance exercise for additional pressing volume within the same session; implementing phase potentiation approaches where a Viking press-focused hypertrophy block builds pressing musculature before transitioning to a push press-focused power block that utilizes the enhanced muscle mass for improved force production; or using the Viking press as a rehabilitation or regression option during periods when overhead pressing is contraindicated before reintroducing the push press as capability improves.
The specific integration approach should reflect individual goals, limitations, and training structure, but the complementary nature of these movements—one focused on maximal power expression, the other on controlled strength development—creates natural synergies when properly combined. This integrated approach acknowledges that most trainees benefit from varied stimuli rather than exclusive reliance on any single movement pattern, regardless of how effective that pattern might be in isolation.
Sport-Specific Applications

Strongman and strongwoman competitors utilize both pressing variations extensively, though with different emphases based on specific competitive demands. The Viking press appears directly as a competition event in many strongman contests, making it an essential training movement for competitors facing this challenge. Competition Viking press events typically test both maximum strength (heaviest successful repetition) and muscular endurance (maximum repetitions with a fixed weight), requiring training protocols that develop both qualities.
Elite strongman competitors like Tom Stoltman and Oleksii Novikov regularly incorporate heavy Viking press training (often with 300+ pounds) for low repetitions to build maximum strength, while also performing moderate weight, high repetition sets (15-30 repetitions) to develop the specific endurance needed for competition. The push press serves as a valuable assistance exercise for strongman competitors, developing the explosive power that transfers to other pressing events like the log press and axle press, which require similar triple extension patterns but with different implements.
Four-time World's Strongest Man Brian Shaw incorporates push press variations with loads exceeding 400 pounds to develop the pressing power that supports his competition performance. Training strategies for competitive strongman typically include both movements within comprehensive pressing development programs, with emphasis shifting based on competition proximity and specific event requirements. During general preparation phases, both movements might receive equal emphasis, while competition-specific phases typically prioritize the exact event variations that will appear in upcoming contests.
Olympic weightlifters utilize the push press primarily as an assistance exercise to develop the specific strength and power needed for the jerk portion of the clean and jerk. The push press trains the initial drive and upper body lockout strength required in the jerk without the complexity of the split or squat receiving position, making it a valuable technical bridge in the learning progression. Elite weightlifters like Lasha Talakhadze and Ilya Ilyin regularly incorporate heavy push press work (often with weights approaching or exceeding their competition clean and jerk) to develop the specific strength qualities that support their competition performance.
Typical Olympic weightlifting programs implement the push press 1-2 times weekly, often using intensities of 80-90% of clean and jerk maximum for sets of 2-3 repetitions to develop specific strength without excessive fatigue. The Viking press plays a much more limited role in Olympic weightlifting training due to its angled pressing path, which differs significantly from the vertical pressing pattern required in competition. Some weightlifting programs occasionally incorporate Viking press variations as accessory work for general upper body development or as a shoulder-friendly alternative during rehabilitation periods, but it rarely serves as a primary training movement within weightlifting-specific programs. This sport-specific application difference highlights how the direct transfer principle influences exercise selection in performance training—movements that most closely resemble competition requirements typically receive priority in sport-specific preparation.
CrossFit athletes and functional fitness competitors utilize both pressing variations, though with different emphases based on competition requirements. The push press appears regularly in CrossFit workouts and competitions, both as a standalone movement and within complexes like thrusters (front squat + push press) or complex sequences. The exercise's efficiency in moving weight from shoulder to overhead position makes it valuable in timed workout contexts where movement economy significantly impacts performance.
Elite CrossFit athletes like Mat Fraser and Tia-Clair Toomey regularly demonstrate push press capacities exceeding bodyweight for multiple repetitions, highlighting the movement's importance in their sport. CrossFit programming typically incorporates push press across diverse formats: heavy single repetitions for maximum strength, moderate weight for multiple repetitions in timed workouts, and lighter weights for high repetitions in endurance-focused challenges.
The Viking press appears less frequently in standard CrossFit programming due to equipment standardization issues in competition, but many CrossFit athletes incorporate it as an assistance exercise for developing pressing strength and as a shoulder-friendly alternative when overhead volume accumulates. The landmine attachment required for Viking press is becoming increasingly common in CrossFit facilities, allowing for its integration as a complementary pressing movement within comprehensive functional fitness programs. Training strategies for CrossFit athletes typically emphasize the push press as a primary movement due to its direct competitive application, with the Viking press serving as a supplementary exercise for additional pressing volume or as a shoulder-friendly alternative during high-volume training phases.
Team sport athletes utilize these pressing variations differently based on sport-specific requirements and physical development needs. American football players, particularly linemen, often benefit significantly from Viking press training due to its similarity to the angled pushing pattern used in blocking. The movement develops the specific pressing strength and endurance needed to maintain blocks through extended plays.
NFL strength coaches frequently program Viking press variations using moderate to heavy loads (135-225+ pounds depending on position) for moderate repetitions (6-10) to develop the specific strength qualities that transfer directly to on-field performance. Basketball players typically benefit more from push press training due to its development of vertical power expression similar to jumping and rebounding mechanics.
The triple extension pattern trained in the push press directly enhances the explosive lower body power that supports basketball performance. NBA strength coaches often implement push press using moderate loads (95-135 pounds for guards, heavier for forwards and centers) for lower repetitions (3-6) to develop power without excessive muscle hypertrophy that might interfere with sport-specific movement patterns.
Rugby players often incorporate both movements—push press for developing the explosive power needed for tackles and contests, and Viking press for the specific pressing strength used in scrums and mauls. These sport-specific applications highlight how exercise selection should reflect the specific movement patterns and physical qualities required in competition rather than following generic strength development approaches.
Combat sport athletes—including MMA fighters, boxers, and wrestlers—utilize these pressing variations to develop specific strength qualities that support fighting performance. The push press develops the explosive hip and leg drive that transfers to takedowns in wrestling and MMA, while also building the shoulder strength and stability needed for clinch work and defensive grappling. UFC fighters like Kamaru Usman and Israel Adesanya incorporate push press variations to develop the integrated power that supports their fighting styles.
Combat sport programming typically implements push press using moderate loads for low to moderate repetitions (3-8) to develop power without excessive muscle mass that might negatively impact weight management. The Viking press serves as a valuable complement, developing the pressing strength used in clinch positions and against the cage/ropes, where the angled pressing pattern closely resembles the force application angle in fighting scenarios.
Boxing coaches particularly value the Viking press for developing the specific pressing strength used to create separation from clinches and maintain distance control. Combat sport training approaches typically incorporate both movements within comprehensive strength programs, with emphasis varying based on fighting style, weight class considerations, and specific technical requirements. The generally lower technical demands of the Viking press make it particularly valuable during intensive training camps when fatigue management becomes critical and technical complexity in strength training should be reduced to prioritize sport-specific skill development.
Youth and developmental athletes present special considerations for implementing these pressing variations. For younger athletes (pre-high school), neither movement typically appears in its full loaded form, with emphasis instead placed on movement pattern development using lightweight implements like PVC pipes or technique bars. As physical development progresses (high school level), the Viking press often serves as an excellent introduction to pressing patterns due to its more constrained movement path and reduced technical demands compared to the push press.
High school strength coaches frequently implement Viking press variations using moderate loads (65-115 pounds depending on development) for moderate repetitions (8-12) to build basic pressing strength while minimizing injury risk. The push press typically enters programming at more advanced developmental stages once adequate movement quality, core stability, and basic strength have been established. This progressive approach respects developmental readiness while building the physical qualities that support long-term athletic development. Youth programming emphasizes perfect technique development before significant loading, with particular attention to proper core bracing, shoulder positioning, and movement coordination. This patient, progressive approach develops the movement foundations that support later performance while minimizing injury risk during critical developmental periods when proper movement patterns are being established.
Conclusion

The comparison between push press and Viking press reveals two valuable but distinctly different pressing variations that serve complementary roles within comprehensive strength training programs. The push press excels as a power development tool that integrates explosive leg drive with overhead pressing in a ballistic movement pattern that develops rate of force development, coordinated force transfer through the kinetic chain, and overhead stability at lockout. Its vertical pressing path requires and develops full overhead mobility while creating primarily axial loading patterns when properly executed.
These characteristics make the push press particularly valuable for athletic performance training, Olympic weightlifting development, and explosive strength expression. The Viking press serves as an excellent pressing strength developer that follows an angled path determined by the landmine pivot point, creating a unique loading pattern that many lifters find more shoulder-friendly than strict vertical pressing. Its more controlled nature and partially fixed movement path reduce technical demands while allowing for significant loading and volume accumulation, making it particularly valuable for hypertrophy-focused training, shoulder-friendly pressing development, and as a bridge movement for those working around certain shoulder limitations.
Individual factors significantly influence which pressing variation better suits specific training situations. Anatomical considerations—particularly shoulder structure, mobility limitations, and injury history—often determine which movement proves more accessible and comfortable for individual lifters. Training goals create another layer of selection criteria—those prioritizing power development and athletic transfer typically benefit more from push press, while those focusing on controlled strength development and hypertrophy might find the Viking press more directly applicable.
Equipment availability obviously impacts selection—facilities without landmine attachments or Viking press stations may default to the push press out of necessity, while those with low ceilings might require the Viking press due to overhead clearance limitations. Technical proficiency and learning capability also influence optimal selection—beginners or those with limited coaching support might begin with the Viking press to develop basic pressing strength before progressing to the more technical push press as capability develops. These individual factors highlight why blanket recommendations about exercise selection often fail—the "best" pressing variation depends significantly on individual circumstances rather than universal principles.
Programming considerations for both movements should reflect their distinct characteristics and fatigue profiles. The push press, as a more technically complex movement involving greater total muscle mass and central nervous system demand, typically requires more complete recovery between training sessions. Most effective programs implement push press 1-2 times weekly, often as a primary movement early in training sessions when the neuromuscular system is fresh. The Viking press, with its more localized stimulus and reduced technical demands, allows for more frequent training with shorter recovery periods between sessions.
Many successful programs implement Viking press 2-3 times weekly, either as a primary movement or as an assistance exercise depending on the overall program structure. Set and rep schemes should reflect specific training goals—lower repetitions with heavier loads for strength and power development, moderate repetitions with moderate loads for balanced development, and higher repetitions with lighter loads for endurance and metabolic stimulus. These programming variables should be periodized throughout training cycles to create varied stimuli that prevent stagnation while progressively developing the specific qualities that align with individual training goals.
The complementary nature of these pressing variations creates strong rationale for including both movements within comprehensive training programs rather than viewing them as competing alternatives. The push press develops explosive power, coordinated force transfer, and overhead stability that supports athletic performance and maximal strength expression.
The Viking press builds pressing strength through a shoulder-friendly movement pattern that allows for significant volume accumulation and hypertrophy development. Together, these movements develop a more complete pressing capacity than either could provide alone, addressing different aspects of strength development through their distinct loading patterns and movement characteristics.
Many effective programs utilize both movements within a comprehensive approach, with specific emphasis determined by individual goals, limitations, and training phase. This integrated perspective acknowledges that optimal development typically requires varied stimuli rather than exclusive reliance on any single movement pattern, regardless of how effective that pattern might be in isolation.
For practical implementation, lifters should consider these pressing variations as complementary tools within their training toolkit rather than mutually exclusive options. Those new to these movements should begin with appropriate technical development—starting with lighter loads and perfect execution before progressively increasing intensity.
Individual response monitoring provides the most reliable guidance for ongoing programming decisions—tracking performance improvements, joint comfort, and recovery capacity with each movement will reveal which variation and programming approach produces optimal results for each individual. This personalized, evidence-based approach to exercise selection and programming acknowledges the significant individual variation in response to different training stimuli, allowing for truly optimized training rather than one-size-fits-all recommendations.
By understanding the distinct characteristics, benefits, and applications of both the push press and Viking press, lifters can make informed decisions about how to effectively implement these valuable pressing variations within their training programs to support their specific goals, preferences, and individual needs.
Related:
Is Push Press Easier Than OHP? A Comprehensive Comparison Guide
Why is Push Press So Hard? Understanding the Challenge and How to Improve
What is the Difference Between a Push Press and a Jerk? Understanding Two Powerful Lifts
Is Push Press Good for Basketball? Enhancing Your Game with Powerful
What is the Difference Between Push Press and Military Press? A Comprehensive Guide
Push Press vs. Smith Machine Press: Unveiling the Shoulder Sculptors
Chest:
The Ultimate Guide to Pec Deck Fly: Sculpting a Powerful Chest
One-Arm Cable Chest Press: Mastering Unilateral Chest Training for Optimal Muscle Development
Is Push Press Easier Than OHP? A Comprehensive Comparison Guide
What is the Difference Between a Push Press and a Thruster? Understanding the Key Variations
Why is Push Press So Hard? Understanding the Challenge and How to Improve
Is Push Press Good for Basketball? Enhancing Your Game with Powerful Training
What is the Difference Between Push Press and Military Press? A Comprehensive Guide
Chest and Tricep Dumbbell Exercises for Sculpting Your Upper Body
Push Press vs. Smith Machine Press: Unveiling the Shoulder Sculptors
Legs: ⤵
Comments