High pulls are a family of weightlifting derivatives built around the most explosive phase of the clean or snatch but stripped of the catch. The lifter drives the barbell upward through aggressive hip, knee, and ankle extension, finishing with a shrug and elbow pull, then simply lowers the bar instead of receiving it in a front rack or overhead position. Research consistently shows this simplification lets athletes produce equal or greater peak power compared to the full clean, while demanding far less technical skill. That combination makes high pulls one of the most efficient tools for building explosive strength, though the details of how to load them, how they compare to other exercises, and how to keep your shoulders healthy are worth understanding in depth.
What Happens During a High Pull
The hang high pull starts from a standing position with the barbell at roughly mid-thigh. You hinge at the hips and bend the knees slightly to load the posterior chain, then explosively extend the hips, knees, and ankles in rapid sequence. This triple extension is the same movement pattern that drives sprinting, jumping, and throwing. As the bar travels upward, you shrug the shoulders and pull the elbows high, guiding the barbell toward the upper chest before lowering it back down. The entire movement emphasizes what weightlifting coaches call the “second pull,” the brief, violent acceleration phase that generates the most force in any clean or snatch variation.1Strength & Conditioning Journal. The Hang High Pull
Because there is no catch, you skip the wrist and shoulder mobility demands of receiving a heavy barbell in the front rack. You also skip the deceleration and reversal mechanics of the catch phase, which are technically difficult and take months to learn properly. A review of weightlifting pulling derivatives concluded that exercises like the hang high pull, jump shrug, and clean pull can provide a training stimulus that is as good as, if not better than, movements that include the catch for athletes who are not competitive weightlifters.2PubMed. Weightlifting pulling derivatives: rationale for implementation and application
Power Output Compared to the Hang Power Clean
The most common question coaches have about high pulls is whether removing the catch sacrifices any of the power-training benefit. The short answer is no, and at lighter loads the high pull actually wins. A study of weightlifters found that the hang high pull produced significantly greater peak power than the hang power clean at 40, 60, and 70 percent of one-rep max. At heavier loads of 80 to 100 percent, the two exercises were statistically equivalent.3The Journal of Strength & Conditioning Research. Comparison of the Power Output Between the Hang Power Clean and Hang High Pull Across a Wide Range of Loads in Weightlifters The likely reason is that when a lifter knows they do not have to catch the bar, they can commit fully to pulling as hard and fast as possible without unconsciously braking to prepare for the catch.
A separate study comparing power-time curves across weightlifting derivatives found a similar pattern. Relative peak power during the hang high pull was statistically greater than during the hang power clean. The jump shrug, another catch-free derivative, produced even higher relative peak power than both. The power profiles of all three exercises looked nearly identical during the first 80 to 85 percent of the movement, with the differences emerging in the final portion where the catch phase would normally begin.4PubMed Central. Power-Time Curve Comparison between Weightlifting Derivatives This finding reinforces the idea that the catch phase is what separates these exercises, not the explosive pulling mechanics that actually develop power.
Finding the Right Load
Loading a high pull is not the same as loading a power clean, and the optimal percentage depends on what you are trying to maximize. Research on the force-time characteristics of the hang high pull found that peak force was greatest at 80 percent of one-rep max hang power clean, peak velocity was greatest at 30 percent, and peak power was greatest at 45 percent.5The Journal of Strength & Conditioning Research. Effect of Various Loads on the Force-Time Characteristics of the Hang High Pull Those numbers mean the “best” load changes depending on your goal. If you want the barbell moving as fast as possible, go light. If you want peak power, stay moderate. If you want peak force, go heavier.
A study of muscle activation during the high pull found that peak power output occurred at 70 percent of one-rep max, though there was no significant difference across the 60 to 80 percent range.6PubMed. Peak Power Output and Onset of Muscle Activation During High Pull Exercise That 60 to 80 percent window is a practical sweet spot for most athletes training for general explosiveness. You get near-maximal power output without the technical breakdown that comes from going too heavy on a ballistic movement.
One factor that gets overlooked is how strong you are relative to your body weight. A study of 30 collegiate athletes found that the average optimal load for the hang high pull was about 64 percent of one-rep max, while for the hang power clean it was about 77 percent. Stronger athletes, those with higher relative strength, tended to optimize their power at heavier percentages for both exercises. The correlation between relative strength and optimal load was stronger for the hang high pull than for the hang power clean.7PubMed Central. Influence of relative strength on the optimal load of the hang power clean and hang high pull in collegiate athletes In practical terms, a weaker or less experienced athlete should start lighter, and as they get stronger, they can progressively shift the load upward without losing the speed that makes the exercise effective.
Muscle Activation and What the Hips Are Actually Doing
High pulls are often described as a hip-dominant exercise, and the muscle activation data backs that up, though not in a way that changes dramatically with load. When researchers measured electromyographic activity in the biceps femoris and gluteus maximus during the high pull across a range of loads, both muscles activated in a relatively synchronous order regardless of how much weight was on the bar. The gluteus maximus tended to fire slightly before the biceps femoris at every load tested, with onset times roughly in the range of 112 to 212 milliseconds.8PubMed. Peak Power Output and Onset of Muscle Activation During High Pull Exercise This matters because it means the hip extensors are coordinating consistently regardless of intensity, and you are not inadvertently shifting the movement to a different muscle group by going heavier or lighter.
That synchronous hip-extensor firing is one of the reasons practitioners view the high pull as having strong transfer to athletic movements. The review of weightlifting pulling derivatives emphasized that completing the triple extension during the second pull is what likely has the greatest carryover to sports performance that depends on hip, knee, and ankle extension, things like sprinting, jumping, and change-of-direction.9PubMed. Weightlifting pulling derivatives: rationale for implementation and application The high pull trains exactly that pattern without the overhead or front-rack demands that can limit loading in competitive lifts.
Shoulder Safety and the Impingement Question
The high pull involves pulling the elbows high and wide, a motion that looks a lot like the upright row if you freeze the top position. The upright row has long been flagged by physical therapists and sports medicine professionals as a potential shoulder impingement risk, and people reasonably wonder whether the same concern applies to high pulls. The answer depends on how high the elbows travel and how the movement is executed.
Research on the upright row and its relationship to impingement notes that during a properly performed high pull, elevation of the upper arm should not exceed roughly 60 degrees, and at that range impingement is generally not a concern. Problems arise when lifters, especially beginners, pull the bar higher than necessary, driving the elbows well above shoulder height. Given the high rate of acceleration during the movement, that excess range of motion creates forces at the shoulder joint that are “exceedingly high,” increasing the risk of soft tissue damage.10Strength & Conditioning Journal. The Upright Row: Implications for Preventing Subacromial Impingement – Section: Modifications to Technique
The practical takeaway is that the high pull is not inherently hard on the shoulders, but it becomes risky when technique breaks down. The cue most coaches use is to focus on driving with the legs and hips while letting the arms stay relatively relaxed. The elbows rise as a consequence of the upward momentum generated by the lower body, not because the lifter is actively rowing the bar upward. If you find yourself muscling the bar up with your arms and your elbows are consistently climbing above your ears, the load is probably too heavy or you are misunderstanding where the force should come from.
Transfer to Sprinting and Jumping
A meta-analysis examining the effects of weightlifting training on athletic performance found positive effects of weightlifting movements and their derivatives on countermovement jump height, sprint times, and maximal squat strength, especially when weightlifting exercises were combined with traditional resistance training.11International Journal of Sports Science & Coaching. Effect of weightlifting training on jumping ability, sprinting performance and squat strength: A systematic review and meta-analysis This provides broad support for including movements like the high pull in a training program aimed at speed and power.
The picture gets more nuanced when you look at how weightlifting derivatives stack up against plyometrics. One study found that a plyometric training program was more effective than a technically-oriented weightlifting program at improving unloaded and loaded vertical jumps and sprint performance over the study period.12PLoS ONE. Weightlifting derivatives vs. plyometric exercises: Effects on unloaded and loaded vertical jumps and sprint performance The researchers characterized the weightlifting group’s program as “technically oriented,” which suggests the athletes may have spent more time learning the movements than training them at high intensities. This is a real limitation of full Olympic lifts for team-sport athletes who have limited gym time. High pulls, because they are simpler to learn, can bypass some of that ramp-up period and get athletes into effective power training sooner.
This does not mean high pulls replace plyometrics. The two types of training stress the body differently. Plyometrics involve rapid stretch-shortening cycles and ground contact forces, while high pulls involve heavy external loading and a concentric-dominant power output. Most well-designed athletic programs use both, with the high pull serving as a loaded power exercise and plyometrics handling the reactive-speed and stiffness components.
Managing Fatigue Within a Session
One underappreciated aspect of programming high pulls is how fatigue accumulates across sets and repetitions. Because the exercise is ballistic, even small drops in bar speed mean meaningful drops in training quality. If the goal is power development, maintaining velocity across a session is critical.
Research on rest redistribution during the hang pull found that longer inter-repetition rest intervals preserved bar speed better. When lifters used a 72-second rest redistribution scheme, they maintained higher peak velocity across 18 repetitions compared to a 45-second scheme. Peak force and impulse were also greater with more rest. The researchers observed better peak velocity maintenance, meaning the falloff from the first rep to the last rep was smaller when rest was more generous.13PLOS ONE. The effect of rest redistribution on kinetic and kinematic variables during the hang pull
A related concept appears in research on cluster sets for the power clean. Traditional straight sets of power cleans led to declining peak velocity and fatigue-related technical changes, including a forward shift in the barbell trajectory as the set progressed. Cluster sets, which insert short rest periods between individual reps or small groups of reps, maintained peak velocity and limited technical breakdown.14Taylor & Francis Online. Effect of traditional and cluster set structures on bar path kinematics during high-volume power clean training Although that study examined the power clean rather than the high pull specifically, the principle transfers directly: if you are doing high pulls for power development, shorter sets with more frequent rest or cluster-style programming will maintain the movement quality that makes the exercise worth doing in the first place.
In practice, this means sets of one to three reps with 15 to 30 seconds of intra-set rest, or straight sets of three to five reps with full recovery between sets. High pulls done in grinding sets of eight to ten reps defeat the purpose. By the fifth or sixth rep of a fatigued set, the bar is moving slowly enough that you are essentially doing a slow deadlift with an ugly shrug on top.
Does the Bar Matter
Trap bars, also called hex bars, have become popular for deadlifts and jump shrugs, so coaches naturally wonder whether they work for high pulls and related derivatives. A study comparing power outputs of the jump shrug with a hex bar versus a straight bar found that load, rather than bar type, produced the most consistent performance differences. Velocity decreased and landing forces increased with rising load regardless of which bar was used. The only significant bar-type difference was in female concentric mean power, which was higher with the straight bar. Overall, the two implements produced largely comparable mechanical outputs.15DigitalCommons@CSP. Comparing Power Outputs of a Jump Shrug with a Hex Bar vs a Straight Bar
This is useful information because it means you are not missing out on training quality by using whichever bar is available. If a trap bar feels more comfortable for your body proportions or if your gym only has one, you can get comparable results. The more important variable is choosing the right load and maintaining rep quality.
Where the High Pull Fits in a Teaching Progression
Coaches who teach the full clean or snatch often use the high pull as a stepping stone. The idea is that a lifter learns the hang high pull first, grooving the explosive triple extension pattern, and then adds the catch once the pulling mechanics are solid. This progression works because the high pull isolates the most valuable phase of the lift, the second pull, and lets the lifter practice it at high velocity without worrying about receiving the bar.16Strength & Conditioning Journal. The Hang High Pull
But here is where the evidence creates a more interesting argument: for athletes who will never compete in weightlifting, there may be no reason to progress past the high pull at all. If the pulling derivatives produce equal or greater peak power than the catch-inclusive versions, and if the transfer to sprinting and jumping comes from the triple extension mechanics rather than from the catch, then spending months learning to rack a clean is time that could be spent training. This is the logic behind programming high pulls as a standalone power exercise rather than as a warm-up drill or a gateway to full Olympic lifts. The research on pulling derivatives supports this approach, noting that these movements may provide a training stimulus comparable to or exceeding the full lifts for non-weightlifting populations.17PubMed. Weightlifting pulling derivatives: rationale for implementation and application
For team-sport coaches working with large groups and limited floor time, this is not a minor practical consideration. Teaching 30 football players to catch a clean takes weeks. Teaching them a competent hang high pull takes days. The high pull gives you most of the training benefit at a fraction of the instructional cost, and the injury risk from botched catches simply disappears from the equation.