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Blog

Dodgeball PE

What Strength Coaches Should Know About Physical Education

Blog| ByJeremy Frisch

Dodgeball PE

Interest in physical education (PE) is very high at the moment, almost like a rebirth. It seems that the foundations of child development are now getting confused with sports performance training. Last year, the blog on developing physical literacy excited a lot of coaches and was well-received, but I see a disturbing trend of practices in strength and conditioning that need to either change or stop entirely. The goal of this article is to cover some misconceptions and provide a few tips for helping young athletes get better with practical and fun activities.

The Difference Between Physical Education and LTAD

Long-term athletic development (LTAD) is not the same as physical education. While they have similar needs and may look alike, the purpose of scholastic-themed PE is to help transform a child into an adult, not just provide a starting point to becoming an athlete. Coaches tend to look at the fundamental movement patterns of PE and artificially try to place them into progressions for young athletes, or sometimes older athletes. This is not a great idea.

The purpose of scholastic-themed PE is to help transform a child into an adult, not provide a starting point to becoming an athlete, says @JeremyFrisch. Share on X

The best example is bear crawls: A 45-pound child having fun in a gym is not the same as a football lineman, and the exercise literally doesn’t scale up. If an adult or teenage athlete need remedial work, coaches tend to rush to the bottom with movements that are not appropriate. Fundamentals are not a time machine, and just look at the “stuff” kids should have done. While it’s never really too late, athletes who have been exposed to activities after their “learning window closed” need to train with skills that teach a framework of coordination to the level of their strength and sport.

LTAD starts where PE ends, and some overlap certainly exists. You should not rush into any sports at all, and some kids should wait before starting organized sports until they are able to be athletes without the “balls and rules.” Don’t force athletes to do PE exercises from when they were kids as a way to fix what may not actually need to be changed much. The belief that you can’t teach an old dog new tricks is a myth, but when an older athlete misses out on foundational work, they may run out of practice time or fail to close a gap.

Youth Training Is Not Miniature Strength and Conditioning

As an owner of a private facility in a small town, I understand that to make a living you can’t just wait for elite athletes to come in the door. My facility trains everyone, from busy moms who need health and wellness, to a high school football player who needs to add size and strength. Our youth training programs are not repackaged strength training courses that the high school kids do. In fact, elementary school kids look different than middle school kids, and high school kids train with a different purpose and methodology. Being able to slowly develop a kid from 8 years old to adult allows our program to introduce the right training at the right time. What we see are a lot of strength programs that were likely not well-designed to begin with being recycled with lighter loads and simpler movements.

Lots of people warn about not adding strength on dysfunction, but many are quick to add strength before coordination, says @JeremyFrisch #youthtraining. Share on X

Take a medicine ball exercise against the wall with a middle school kid. That exercise may be great for a high school athlete working on rotational power, but you are basically taking a kid who still needs exposure to more dynamic and chaotic activities and making them face a wall like a time-out. No matter the weight or size of the ball, it’s still a loaded exercise when they really need more internal exercises with their body. The same can be said for prowlers: We have heavy sleds, but kids should learn to connect their arms and legs with coordination, not try to strengthen their legs before they have control. Lots of people warn about not adding strength on dysfunction, but many are quick to add strength before coordination.

Recess or Free Play Is a Priority

Kids need more play time outside or actual activity inside. Physical education supports play—it doesn’t replace it. A modern kid plays less than kids in the past, and you can’t blame video games since board games, video games, and other distractions didn’t interfere with playing in our generation. Most of the problem we see is parents trying to get their kid ahead with extra academic activities or pushing them too hard with child sports.

Kids should be playing and having fun, not being taught how to play tennis. If they are young enough to play on a slide or jungle gym, leave the organized sports alone. Sports are not fun if you are on the bench, not interacting during a game, or not good at them. Free play allows for kids to climb trees, build a snow fort, and even make up their own games. Creativity is an endangered activity, mainly because parents are often overbearing and sometimes overzealous. For safety, an area with adult supervision is a good idea, but keep the parents on the sidelines—not the kids.

Playground Jungle Gym
Image 1. The modern jungle gym matters more than ever today. Let kids enjoy free play, as they will self-organize into athletic humans if given the right exposure to activities.


Now comes the talk about volume. A few minutes of PE sprinkled into youth sports is not the answer. Physical education is the framework of play, and it can’t replace play. Play time is homework and school work, and PE is concentrated tutoring. In the past, kids got more PE, but without general play the access to PE isn’t enough to fully evolve a child. The dangerous period is where kids are athletic enough to do sports, but not developed enough to leave play out of the equation. Play is not just for kids; all athletes should find a way to keep a few games in their life that don’t focus on keeping score.

Teach Athletes to Decelerate Themselves and Not Exercises

A high school kid needs to learn how to decelerate their body, not pick up a landmine exercise or rehearse high speed patterns slowly because these patterns are too static and constrained. There are plenty of age-appropriate activities that help with eccentric control to stop or change direction, so leave the watered-down stopping drills and dumbbell and barbell movements for someone else. Deceleration is about eccentric capacity and coordination, but it’s also about reaction and decision-making.

When you have kids do reps of an exercise like a strength training set or a slow-motion agility drill, it dulls their coordination. They may get better at the drill or the prescribed exercise, but it’s unlikely to help them stop on a dime or evade a defender. Change of direction and agility is a high-load/high-velocity activity and should be trained as such. Being able to stop on a dime is followed by an acceleration in another direction. Working on just stopping is only the half the equation. Before the invention of sports performance training, athletes developed agility through years of play and practice in game-like situations.


Video 1. Deceleration development is about having familiarity with braking, not using external strength exercises. It’s fine to include plyometrics and strength training as an athlete advances, but the kids need to know how to control their bodies in time and space.

At older ages, you need to reinforce the basics with technique and make sure athletes have the strength to actually perform what they are attempting. The worst thing kids can do is disrupt their power and skill ratio, where they attempt to do things they see on TV or social media without any actual rehearsal and strength training investment. The YouTube generation of athletes is not really at fault; we just need to do better at supporting them with teaching and training.

Don’t Turn Your Weight Room into an Obstacle Course

Our training area at Achieve is a multipurpose room, so we can train anyone from 8 to 80. When coaches ask what they can do in the weight room for younger athletes, I get worried about safety. Most weight rooms are organized racks and barbells, so moving those around is probably not possible. If you only have access to a weight room, it’s likely your school or facility sees athletic development as strength training.

A good coach can create challenges without buying any equipment, as an obstacle course should be about the way a child or athlete responds to a coach’s layout, says @JeremyFrisch. Share on X

With certain age groups and environments, you can only find time to keep athletes going during the season with basic strength, but those are professional situations, not developmental periods. Many of the videos at Achieve get coaches excited and they are the highlight of what I do, but we also focus on teaching smaller pieces of movement and don’t just let the kids run wild. A good coach can create challenges without buying any equipment, as the course should not be about what apparatus you buy, but how a child or athlete responds to a coach’s layout.

A research study on obstacle courses was published last year, and the conclusion was that you can use obstacle courses to appraise movement. Some studies show that obstacle courses can be used to help test aerobic fitness with young children, but I prefer using them to challenge kids with coordination and speed. America Ninja Warrior and all other courses we see in law enforcement come from challenges that can be linked to child games or military training. Focus on getting access to wide open space and giving the kids challenges. You just need a few cones to organize a fun challenge, as the equipment is not as important as the creativity and planning.

Let Athletes Have Fun—Give Them a Choice!

Activities that are open and loose engage kids because they give them freedom. Most coaches who get too caught up in programming forget that choice is one of the most important gifts you can give to a child who is used to being told what and how to do things. Having fun is expressing and making up their own games or rules. Physical education is guided discovery and has a lot of joy involved because teachers are educated on what makes an activity exciting for a child.

Choice is one of the most important gifts you can give to a child who is used to being told what and how to do things, says @JeremyFrisch. Share on X

When a coach sees a deficit, they are sometimes too quick to try and fix something and forget that an athlete usually struggles to do an activity they don’t find enjoyable. When you spend time doing something you love, you’ll likely improve it. It’s sort of a chicken and egg concept with talent; meaning, are we good at what we like or do we like what we are good at? It’s hard to say.


Video 2. Giving kids an option to choose what they want is wise, because kids have instincts for what games they can succeed in. With enough encouragement, they will modify existing games with rules that make it fair and fun.

Voting is sometimes popular, as simply asking the group what they want to do is a great way to see what they want. Exposing kids to other activities they may not be aware of is important, because if a child or athlete is not experienced in an activity, they may not know whether they like it or not. You don’t need immediate passion from kids, but you’ll know in a matter of minutes by the smiles on their faces and laughter. Coaches may want to rethink practices when the interaction between getting work done and the enjoyment of it is not in balance.

Dodgeball Is Great and Timeless

Dodgeball is one of the most fun activities because of the speed involved. A good game can spike the heart rates of a group of high school kids up to the roof, while it keeps young kids engaged and sharp. Not many other games bring such fun and excitement. Of course, there are some who think dodgeball isn’t good for kids, but they likely just don’t understand why the game is unique.

Dodgeball is one of the few activities that transforms physical literacy into #sportsperformance, says @JeremyFrisch. Share on X

Dodgeball is one of the few activities that transforms physical literacy into sports performance. Catching an errant throw in sport happens all the time. In dodgeball, the ability to catch a throw that is fast and designed not to be caught is a way to get a great out. Not only does it make you more valuable in the game, it teaches athletes to catch at overspeed with difficult throws. Dodging another person becomes easier when you are dodging multiple balls traveling fast. It’s basically taking a bunch of sports and blending them, with the result of better athletes and more fun.


Video 3. Dodgeball is one of the greatest games, period, as it includes throwing, catching, deceleration, and even conditioning. Using the right equipment makes it safe and engaging.

Safety is a factor that is brought up all the time by those who think it’s a politically bad idea to allow kids to throw balls at each other. The first thing a person outside of sports will recall is a time period when the game used hard rubber balls, but now ultra-soft balls are easily purchased from Gopher Sports. Non-contact injuries are unlikely because the game is more about quickness than change of direction demands like in field sports. Dodgeball is that perfect game that seems to do everything without any real baggage.

Games of Tag Are an Advanced Activity

Tag is a great game for the development of the Vision-Decision-Action cycle. The problem comes when the game is played with athletes of varying ages and abilities. Most of the time, the best athletes will dominate, and the less-athletic ones will get less exposure to the game. Playing with athletes of similar abilities can remedy the situation but that’s not always possible.

Putting together mixed teams with athletes of different abilities can be a fun and creative way to play, as the stronger athletes can protect the less-athletic ones, giving the athletes who need it most more play time. Another way is to play team tag for time instead of elimination. That way, even if the athlete gets tagged, they are still in the game and can self-assess on the fly.

Any group of kids can play Duck, Duck, Goose or freeze tag, but very young kids don’t have the deceleration demands of college athletes. Playing tag is popular, and videos of the Celtics playing tag have gone viral and this is a good and bad thing. Not all games of tag are easy on the body and some athletes are not prepared strength-wise or skill-wise to handle tag games. If you start off with tag too early, you can accelerate the problems you have with fundamentals, reinforce what is lacking, and reward the talented.


Video 4. Tag is pure joy for kids and very easy to get started without much teaching or setup. Don’t forget that tag becomes less specific as the athlete becomes more evolved, so take that into consideration when designing training.

Tagging is a combination of speed and tracking. Fleeing and chasing are a part of physical education, but most practitioners in strength and conditioning think about the capacity or demands too much or create the wrong games that misinterpret reaction. A lot of drills and games done with young athletes are caught in limbo between wannabe PE and watered-down strength and conditioning. Merging two fields can work, but sometimes it compromises the benefits of both fields.

If you want to improve agility, don’t play games that confuse an athlete who is already matured and playing sports. To further develop an athlete, coaches should recognize that they are not position coaches and are not just weight room specialists either. Expand athletes’ capacities, and if you work with them during practice, remember not to add training that doesn’t help the sport and cuts into the development of their athletic ceiling. Rehearsing “moves” with cones and drills is limited, and most of the time it’s fatiguing and placed at the wrong time of year.

Let Athletes Jump Naturally Before Plyometrics

Remember prerequisites. Jumping is a natural expression, and only when you have a wide skill set should you think about training jumps. You instruct and guide athletes on plyometrics, but they are mainly training options for athletes. Teach jumping and let’s move on from box jumps and get to what kids need.

Treat jumping as a set of challenges and let the athletes self-discover and develop their own style, says @JeremyFrisch. #physicaleducation. Share on X

How many horizontal jumps do kids do now? Moving away from the transfer of bounding and hopping, focus on how kids can create natural locomotion. Running and then jumping is a lost technique, but when a basketball player goes for a layup or an athlete does a diving catch, they are doing something far more athletic than box jumps.


Video 5. Jumping is fun and athletes should jump for joy with challenges, not artificial progressions like older athletes. Embrace their low body weight and make jumping, hopping, and even bounding part of the equation.

It’s lazy to just grab exercises from track and field manuals or PE books—you need to learn the principles and how to coach the movement. Sometimes the movements and activities are easily picked up, but you don’t coach the group, you guide them. Treat jumping as a set of challenges and let the athletes self-discover and develop their own style. Like a sheepdog herding the sheep, you just need to worry about the slow learners.

Giving a Good Task Is Better Than Cueing

The wisdom of the body is just years of Mother Nature working smarter than a coach. Cues are fine, but what happens when you are in a group? When training athletes, realize you can’t give everyone feedback for every rep. Feedback, and sometimes correction, is a verbal exchange that may not always work or need to be done at all.

Coaches who want to help and see the problem with their eyes want to intervene. Don’t think that just because you are not cueing, the process is silent, or you can’t make a few corrections. The process of coaching is instructing an athlete to improve, not do what you see and say. An experienced coach knows what to say, what not to say, when to say it, and when to wait to say it.


Video 6. The Royal Rush game is all about natural acceleration and deceleration. Kids will find the best and smartest path movement-wise, so don’t overdo the coaching.

Failure is not losing a game. Exploration in physical education is a student trying to do different things and learning. If a student or athlete is making “mistakes” from trial and error or experimentation, they are discovering a lot about how their body responds to their environment. Repeated mistakes coupled with stagnation is where a coach should intervene with either a reminder of what’s happening or a cue to possibly correct what isn’t working.

An experienced coach knows what to say, what not to say, when to say it, and when to wait to say it, says @JeremyFrisch. Share on X

Later in Part 2 I will outline the cues and art of communicating, but planning and experiments that focus on the learning of the athlete or student versus teaching from the coach are generally a better experience. Not having to talk isn’t just about talented athletes who grasp concepts easily; it’s about experienced coaches who know what to give in order for athletes to not have to be cued.

End of Part 1 and Wrap-Up

This article was cut in half, as a massive post would just overwhelm most coaches who are looking for a few nuggets of wisdom. In the next part I cover more common issues that strength and conditioning coaches should think about, and share solutions that can give answers for tough problems you face. Before I go, here are a couple of resources you may want to think about buying or at least reading to learn more about physical education. One warning though, having a few books in your library will not make you a PE teacher, as that is still a profession that requires formal education and experience in the gym.

Since you’re here…
…we have a small favor to ask. More people are reading SimpliFaster than ever, and each week we bring you compelling content from coaches, sport scientists, and physiotherapists who are devoted to building better athletes. Please take a moment to share the articles on social media, engage the authors with questions and comments below, and link to articles when appropriate if you have a blog or participate on forums of related topics. — SF



Moxy Monitor

Building Game-Changing Metabolic Power with Muscle Oximetry

Blog| ByJohn Abbott

Moxy Monitor

Elite and professional athletes enter every workout with purpose and an unrelenting resolve to increase preparedness and their resultant performance. Athlete monitoring has become essential in high-performance development to ensure the training plan targets the desired physiological adaptive responses that will culminate in competitive readiness. With this in mind, near infrared spectroscopy (NIRS) devices allow the visualization and quantification of physiological and biomechanical responses to exercise by offering real-time feedback on muscle activation, physiological distress, state of recovery, and overall fitness levels.

Using muscle oxygenation as an athlete-monitoring tool can benefit your day-to-day training and provide insight on chronic adaptations. Share on X

Using muscle oxygenation as an athlete-monitoring tool can benefit your day-to-day training and provide insight on chronic adaptations. These devices are most often utilized by endurance athletes to monitor steady state or repeated bouts of exercise. However, considerable evidence has provided a case for the use of muscle oximetry within the strength and power realm.

Moxy Quad
Image 1. Near infrared spectroscopy (NIRS) devices are most often utilized by endurance athletes to monitor steady state or repeated bouts of exercise. However, considerable evidence provides a case for the use of muscle oximetry within the strength and power realm.

What Is Muscle Oxygenation?

Muscle oxygenation is a representation of the amount of oxygenated hemoglobin compared to total hemoglobin within the muscle. Simply put, as work intensifies, muscle oxygenation decreases, and as exercise intensity decreases, muscle oxygenation increases. The beauty of being able to monitor muscle oxygenation lies in the more-complex physiologic implications that ensue when repeated bouts of guided training are performed. For more insight, check out these articles on muscle oxygenation and NIRS devices.

What you should be tracking:

Muscle-Oxygenization-Response
Figure 1. Here we see an athlete’s response to repeated sprint exercise. The red shows the muscle deoxygenation, where the muscle is activated and using oxygen. In teal is the reoxygenation, showing that the sprint is done and oxygen levels are beginning to recover. The lowest point of muscle oxygenation— the most desaturated the muscle becomes—is considered the minimal muscle oxygenation. Inversely, the highest saturation witnessed is considered maximal oxygenation; this typically happens once the exercise stops and a super compensation occurs. You can calculate the rates of deoxygenation and oxygenation when considering the time interval of each.


Maximal Oxygenation: Once you begin to use muscle oxygenation as a tool for training and monitoring, you’ll notice that after warm-ups or intense bouts, muscle oxygenation exceeds baseline values. This is an athlete’s physiology super-compensating for the previous workload. Better-trained individuals are capable of achieving higher maximal oxygenation as part of their enhanced muscle metaboreflex, and the body’s ability to react and reestablish an exercising homeostasis.

Minimal Oxygenation: The ability to use the oxygen in the muscle. Even though oxygen may be present, it does not necessarily mean the muscle is capable of using it. Just like a car running efficiently, a person may have the ability to produce more energy if they are able to utilize all parts effectively. Strength and power athletes tend to neglect the importance of their aerobic health; however, recovery is an aerobic process. Neglecting to enhance aerobic metabolism is no different than disregarding that eighth play in the third quarter.

Neglecting to enhance aerobic metabolism is no different than disregarding that eighth play in the third quarter. Share on X

Oxygenation Utilization and Recovery: The metrics of intensity. Once you establish an athlete’s minimal and maximal values, you can begin to prescribe workouts based on the specific adaptations to enhance athletic performance.

Rates of Reoxygenation: After an intense bout of training, this variable speaks to how quickly oxygen levels return to baseline. Rates of reoxygenation have been linked with improved recovery of power output and phosphocreatine (PCr).1

Normalization: Training status creates variation in maximal and minimal deoxygenation levels. I find it helpful to normalize values during data analysis. It is important to note the raw maximum and minimum values as an indication of training status. If a trained and untrained person both deoxygenated 20%, this could have very different implications. A trained person may reduce from 80% to 60%, while a less-trained person could reduce from 60% to 40%. Not only may the ceilings of each athlete be different, but so may the floors. If the trained athlete’s minimum is 10% and the untrained athlete’s is 20%, there is a massive difference in the amount of oxygenation reserve.

Normalized Relative Scales
Figure 2: Researchers often normalize muscle oxygenation values to compare within limbs or within people. Don’t ignore the raw data as it can be indicatory of training status: A person who can achieve greater maximal and minimal muscle oxygenation values is typically better trained.

Traits of Team, Strength, and Power Sports

Field and court sports require a spectrum of performance characteristics to succeed, though the crucial moments of every sport occur during bouts of high-intensity efforts, which are often repeated in rapid succession.2,3Team sports require a minimal threshold of endurance to be able to compete for a game’s duration, so training should be focused on increasing an athlete’s ability to complete repeated bursts of high-intensity efforts.

Typically, these traits are developed with extensive, exhausting sprint sessions that achieve the physiological distress needed for adaptation signaling. However, these sessions often tend to be excessively exhausting, leading to chronic fatigue management issues. In the paradigm of periodization, training should transition from general to sport-specific characteristics with decreasing volumes throughout the training cycle.4In these crucial time frames, programming must be executed with surgical precision to ensure enough stress has been administered to maintain and/or promote adaptation without leaving the athlete unable to perform in the game later in the week.

Four Examples
Figure 3. Here are four different exercise stimuli. Three are sprint intervals with different work-to-rest intervals of 1:1, 2:1, and 1:3. The fourth shows 3×10 squats at light to moderate intensity, and approximately 4-5 repetitions left in the tank.

Repeated and Intermittent Sprint Training with Muscle Oxygenation

Repeated sprint ability (RSA) is a fundamental component of field and court sports that is best executed with high levels of repeated force production and is true in other forms.3Carl Valle discusses RSA to a great extent here. Limiting factors of repeated sprint ability include neuromuscular fatigue, energy production limitations, and metabolic by-product accumulation.3

Energy Production Limitations: PCr-ATP – High Quality and Power

The Phosphocreatine-ATP pathway supplies a massive burst of energy during the first 6-10 seconds of high-intensity activity. The rate at which this energy is released allows for rapid rates of muscular contractions, creating peak power outputs. You may be asking yourself why muscle oxygenation is important to an energy production mechanism that operates independently of oxygen. The answer is in the ability to set the stage for the next burst of high-intensity effort.

While using muscle oxygenation to guide high-intensity short-duration sprint work, you can assess, compare, and direct other training parameters to improve muscle oxygenation recovery. Share on X

PCr resynthesis is completely dependent upon oxygen availability.5,6McCully et al. demonstrated that, with the assumption of blood pH as not acidic, PCr and muscle oxygenation recovery are similar. In a practical setting, you may use muscle oxygenation returning to a baseline value after an intense sprint as an indication of PCr replenishment.1Following this guideline will create work-to-rest ratios smaller than typically thought for RSA training; however, it allows for extremely high-quality sprint repetitions in which technical and tactical aspects of the movement can be addressed. While using muscle oxygenation to guide high-intensity short-duration sprint work, you can assess, compare, and direct other training parameters to improve muscle oxygenation recovery.

Anaerobic Glycolysis and Buffering Capacities: Repetitive Power

High Speed Running
Figure 4. This chart shows muscle oxygenation responses to high-speed treadmill running. The volume, intensity, and recovery prescribed allow for consistent high-quality, near-maximal, top-speed running. Notice the similarly shaped factors for each repetition: each oxygenation and reoxygenation curve looks similar to the previous and the next. This prescription targets an athlete’s ability to repeat high-intensity bursts, thus optimizing the glycolytic system. Time under 35% (an arbitrary value) indicates how many seconds were spent in a deoxygenated state, which is an interesting observation when comparing time exposed to adaptation-driving stimuli.


Every athlete has been put through the wringer at some point in their athletic career. In team settings, athletes often dread hearing the words “on the line” or “on the boards,” as that usually means a storm of metabolic acidosis will soon erupt. What is more interesting is that while coaches are directing a storm of metabolic disturbances, they are often conducting a “survival of the fittest” test.

Every team has three classes of athletes: A) those who complete every repetition of the repeat sprint session with good form and stature; B) those who start off looking strong but rapidly decay; and C) those who seem hopeless. The true purpose of these types of workouts may be up for debate, but let’s assume that their primary purpose is to instill metabolic disturbances, and thus adaptations and performance enhancement.

Athlete A may enter each of these sessions very aware that they can coast at a minimal effort and still look good. With good theatrics, they may even sell the fact that they look tired. Athlete B will likely show a trend in oxygenation kinetics that seems to be beneficial, but during the last several repetitions develop substantial fatigue that may become a chronic issue interfering with progression. Athlete C likely needs to build a better base consisting of sprint kinematics and low- to mid-intensity exercise endurance.

Work-Rest-Ratio-Figure
Figure 5. A view of work-to-rest ratio optimization. This athlete attempted to execute an interval set with a 2:1 ratio. He created a massive deoxygenation and was physiologically unable to recover quickly enough to create a sustainable effort. When the work-to-rest ratio was adjusted to 1:1, the athlete was able to sustain the accumulation of more muscular local hypoxia. Continuing the 1:1 ratio demonstrates a progressive muscle deoxygenation, likely a result of the Bohr effect, a buildup of acidosis. Notice the plateau followed by a large deoxygenation towards the end. This was accompanied by a break in form and inability to maintain the same work-to-rest ratio.


Muscle oxygenation is a new variable and, as coaches, we want to use new technology to boost our training sessions. However, when we see confusing numbers, we are quick to dismiss the use of the tool. We need to review the evidence and rewrite the curriculum base utilizing technological advancements.

The above-mentioned practice scenario is commonly used to “get our athletes stronger.” Coaches commonly think of those workouts as building sprint endurance, but evidence suggests otherwise. This can lead to an in-depth conversation about the training principle of specificity and its true meanings. However, we will keep the review short.

Repeated sprint efforts in a competition scenario are comprised of several highly intense efforts followed by a rest interval that’s typically due to a substitution or to the location of play changing. On average, an ice hockey shift lasts for approximately 45-60 seconds of near-maximal exertion skating. As a coach, you can use NIRS devices to analyze patterns of oxygenation kinematics, identify muscle oxygenation profiles in response to competition scenarios, and program to match the specific demand. Evidence shows that there are two trends in improving glycolytic energy production and buffering capacity that differ tremendously.

Greater glycolytic metabolism tends to lead to greater initial sprint performances, though they are also coupled with a greater fatigue index.7If your athlete is strong at maintaining their efforts, but struggles to make it to the play first, an increased glycolytic capability may be a high priority. Increasing glycolytic energy production while promoting or maintaining other important characteristics, such as rates of force development and technical proficiency, requires extensive activation of glycolytic muscle fibers paired with adequate rest to maintain force-producing characteristics.8

If your athlete is strong at maintaining their efforts, but struggles to make it to the play first, an increased glycolytic capability may be a high priority. Share on X

When your athlete performs repeated sprints—maybe 10 repetitions of 15 seconds with 15 seconds of rest—you will notice that a delay in muscle reoxygenation will develop, accompanied by decaying maximal oxygenations between sprints, as seen in Figure 3- 1:1. This represents two main concepts: 1) the Bohr effect and 2) an increased reliance on oxygen to produce force. If, in this scenario, your athlete’s oxygenation response resembles Figure 3-2:1, you should make an alteration in intensity either through speed or rest intervals.

  • The Bohr effect is a physiological phenomenon in which increased acidity and carbon dioxide reduce the hemoglobin’s affinity for oxygen. This principle allows us to interpret muscle oxygenation responses; in particular, rates of muscle reoxygenation and the number of repetitions until a plateau in oxygenation occurs (Figure 5-1:1, blue box). When working with your athletes and monitoring their sprint workouts with muscle oxygenation, you can qualitatively guide a training session by observing sprint to sprint oxygenation patterns. Chronically, you should calculate rates of reoxygenation or assess the shape factor and how many maximal exertion repetitions to complete until a plateau is observed.
  • The increased and consistent reliance on oxygen, which is represented by a plateau of oxygenation, displays a continued Bohr effect—but also a greater reliance on type 1 (aerobic) muscle fibers. When an athlete continues to rely on type 1 muscle fibers, it blunts the amount of glycolytic activation and dramatically decreases the amount of power produced, leading to slow athletes training to be better at being slow. If you are leading a session and one athlete begins to display a plateaued muscle oxygenation accompanied by delayed rates of reoxygenation, it would be best to allow that athlete to recover and begin a new set once muscle oxygenation has gone through a super-compensating recovery and established a resting baseline. Incorporating real-time monitoring allows a coach to confirm their programming tactics or allows them to make educated adjustments that are objective and easy to explain to their athletes.

Pre & Post High Speed Running
Figure 6. An athlete’s response to a repeated high-speed running test pre- and post-training. The speed and time intervals were identical for both tests. This athlete was able to utilize more oxygen in earlier sprints and maintain or improve maximal reoxygenation in response to sprints during the post-test with qualitatively faster rates of reoxygenation. If you don’t want to crunch numbers but prefer a qualitative assessment from quantitative sources—aka, identify shape factors (what the curves look like in comparison) of responses to identical stimuli—you can easily detect changes in performance.


We have discussed monitoring and directing training for maximal power production with the PCr-ATP system and multiple high-power exertions with the glycolytic energy system, and we will move on to prolonging your athlete’s ability to continually repeat high-power exertions. Increased acidity resulting from high levels of glycolysis has been found to impair repetitive high-power exertions. In an attempt to prolong the time course of performance decay, athletes and coaches target mechanisms to increase the blood’s buffering capacity. An increased buffering capacity allows for a great accumulation of acidic by-products without altering blood pH to a great extent.9

Typically, routines that target increasing muscle-buffering capacity include a multitude of time intervals and intensity levels surrounding and exceeding VO2 maximum. Little is known about time interval optimization for interval training targeting high-intensity endurance, though some researchers have shown notable improvements using percentages of the maximal sustainable time running at VO2 max.10Work intervals can be established by simulating game work-to-rest intervals, or by creating work-to-rest ratios that allow for rapid, substantial muscle deoxygenation with incomplete reoxygenation.10

As metabolic acidosis builds and muscle reoxygenation rates decline, maximal reoxygenation will decrease from sprint to sprint. If the athlete performs too high of an intensity, they may not be capable of finishing the prescribed work-set and may present a response similar to Figure 5-2:1. This athlete’s training needs an intensity alteration of either speed- or work-to rest ratio. If the athlete does not display a regressive reoxygenation rate and/or further minimal muscle deoxygenation in response to the sprints, the athlete may need to increase the intensity.

The Two-for-One Deal: Strength Training

Strength training is widely accepted as being beneficial for athletic performance, but the rationales and ideologies of optimal training strategies are strongly debated. A common theme that exists, or at least should exist, is that different variables are emphasized throughout a training cycle depending upon which traits they desire to train. In the paradigm of block periodization utilizing phase potentiation, fitness phases are planned along a timeline to allow for the emphasis of concentrated loads. This planning method is all-encompassing and considers sport-specific and resistance training and all the variables that influence the process. By understanding the physiological implications of training and the stimuli required to elicit certain adaptations you can create a platform to synergistically integrate your resistance training program with your sport-specific training.

Muscle oxygenation kinetics have not been thoroughly researched in resistance training for the athletic population, but the groundwork that exists allows for a short conversation about specificity and long-term fatigue management.11Training, in general, is extremely taxing on the body and you must incorporate planned recovery time into your training plan.

Squats
Figure 7. An athlete’s response to a moderate intensity of 3×10 with reps in reserve. This athlete (the same athlete as illustrated in other figures) is experiencing greater magnitudes of oxygen utilization, recovery, and maximal oxygenation. These greater changes in measurement are a result of greater metabolic and physical disturbances, increased acidosis, blood flow occlusion, and range of motion. With resistance training, we also introduce a greater extent of blood flow restriction or occlusion due to more drastic muscle pump actions. This creates a dynamic in which reoxygenation is enhanced via an increase in blood flow. Take note that this exercise produces a similar magnitude of time under 35% SmO2 as high-speed sprinting with full recovery between sets.


Muscle oximetry has been available to the consumer market for over 10 years, though it has been slow to gain popularity in the sports performance field due to cost and a lack of supporting literature allowing for ease of integration. With a small bit of physiological awareness and coaching creativity, you can apply muscle oxygenation to your training paradigm to add precision and reduce unnecessary fatigue in your athletes. Strength training has been found to produce similar metabolic and oxygenation disturbances as high-intensity skating and sprinting.12

With a small bit of physiological awareness and coaching creativity, you can apply muscle oxygenation to your training to add precision and reduce unnecessary fatigue. Share on X

During a general preparation phase or a period in which you are looking to remove the impactful stress of running, you may be able to maintain or improve the physiological mechanisms that potentiate sprint training later in the cycle. General preparation phases including higher volume work at lighter intensities related to 1RM are utilized. Those workloads reduce muscle oxygenation with an accompanied slow rate of recovery similar to the example provided for increasing muscle buffering capacity. Hoffman et al. demonstrated a 44.1% longer day to initiate reoxygenation when performing sets of 15 repetitions at 60% 1RM as compared to sets of four repetitions at 90% of 1RM, accompanied by slightly greater lactate concentration 20 and 40 minutes post exercise.12

As previously discussed, to preserve the skill and technique of more intense runs to improve glycolytic energy production, a greater amount of rest is recommended. When targeting absolute or maximal strength, you may follow the same concept in an attempt to prevent excessive acute metabolic stress from impairing your ability to produce force rapidly.

Muscle oxygenation monitoring can be applied during individual sessions or chronically. Variables such as minimal oxygenation, maximal oxygenation, oxygen utilization, recovery, and their prospective rates provide insight on exercise intensity and athlete training status. Near infrared spectroscopy could provide an individualized method to fine-tune and optimize training.

Since you’re here…
…we have a small favor to ask. More people are reading SimpliFaster than ever, and each week we bring you compelling content from coaches, sport scientists, and physiotherapists who are devoted to building better athletes. Please take a moment to share the articles on social media, engage the authors with questions and comments below, and link to articles when appropriate if you have a blog or participate on forums of related topics. — SF



References

1. McCully, K.K., Lotti, S., Kendrick, K., Wang, Z., Posner, J.D., Leigh, J., et al. “Simultaneous in vivo measurements of HbO2 saturation and PCr kinetics after exercise in normal humans.” Journal of Applied Physiology. 1994;77(1):5-10.

2. Ben Abdelkrim, N., El Fazaa, S., and El Ati, J. “Time-motion analysis and physiological data of elite under-19-year-old basketball players during competition.” British Journal of Sports Medicine. 2007;41(2):69-75.

3. Girard, O.R., Mendez-Villaneuva A., and Bishop, D.J. “Repeated-sprint ability – part I: factors contributing to fatigue.” Sports Medicine. 2011;41(4):673-94.

4. DeWeese, B.H., Hornsby, G., Stone, M., and Stone, M.H. “The training process: Planning for strength-power training in track and field. Part 1: Theoretical aspects.” Journal of Sport and Health Science. 2015;4(4):308-17.

5. Harris, R., Edwards, R., Hultman, E. Nordesjö, L., Nylind, B., and Sahlin, K. “The time course of phosphorylcreatine resynthesis during recovery of the quadriceps muscle in man.” Pflügers Archiv: European Journal of Physiology. 1976;267(2):137-42.

6. Kime, R., Katsumura, T., Hamaoka, T. Osada, T., Sako, T., Murakami, M., et al. “Muscle reoxygenation after isometric exercise at various intensities in relation to muscle oxidative capacity.” Oxygen Transport to Tissue XXIV: Springer; 2003. p. 497-507.

7. Gaitanos, G.C., Williams, C., Boobis, L.H., and Brooks, S. “Human muscle metabolism during intermittent maximal exercise.” Journal of Applied Physiology. 1993;75(2):712-19.

8. Smith, K.J. and Billaut, F. “Influence of cerebral and muscle oxygenation on repeated-sprint ability.” European Journal of Applied Physiology. 2010;109(5):989-99.

9. Bishop, D., Edge, J., Thomas, C., and Mercier, J. “Effects of high-intensity training on muscle lactate transporters and postexercise recovery of muscle lactate and hydrogen ions in women.” (Author abstract) (Clinical report). The American Journal of Physiology. 2008;295(6):R1991.

10. Laursen, P.B. and Jenkins, D.G. “The scientific basis for high-intensity interval training: optimizing training programmes and maximising performance in highly trained endurance athletes.” Sports Medicine(Auckland, NZ). 2002;32(1):53-73.

11. Pereira, M.I.R., Gomes, P.S.C., and Bhambhani, Y.N. “A brief review of the use of near infrared spectroscopy with particular interest in resistance exercise.” Sports Medicine. 2007;37(7):615.

12. Hoffman, J.R., Im, J., Rundell, K.W., Kang, J., Nioka, S., Speiring, B.A., Kime, R., and Chance, B. “Effect of muscle oxygenation during resistance exercise on anabolic hormone response.” Medicine & Science in Sports & Exercise. 2003;35(11):1929-34.

Athletes Sprinting

Strength Continuum in Resistance Training: Answering the ‘Why’

Blog| ByTy Sevin

Athletes Sprinting

Over the past decade, there has been a growing trend among performance professionals to quantify and define subsections of strength. This practice has often been demonstrated along a strength continuum in the hopes of enhancing the application of resistance training. Differences in language and terminology about how strength is classified often create dogmatic approaches regarding the specific parameters of subsections, subsequently leading us away from application variables. (Pfaff, 2018) This article is an attempt to clarify basic qualities and protocols within each subsection of strength to improve the implementation of training modalities.

Overview of the Strength Continuum

The Strength Continuum in resistance training is a common means of categorizing the core subsections of strength during the concentric phase of a resistance exercise. These core subsections incorporate power, velocity, and force—the qualities that all subsections are based on—and ultimately help us illustrate how adjacent subsections that seem perceptibly similar in nature have independent qualities and are actually quite unique at the extremes. Some popular subsections along the strength continuum that are commonly referenced in available literature are:

  • Absolute Strength
  • Maximum Strength
  • Accelerative Strength
  • Strength Speed
  • Max Strength
  • Basic Power Development
  • Speed Strength
  • Absolute Speed
  • Elastic and Reactive Strength

With so many referenced categories, it becomes vital to have a basic understanding of the characteristics of each subsection and knowledge of the variables associated with them.

Do not confuse the Strength Continuum in resistance training with the Strength-Endurance Continuum in weight training. Share on X

This concept should not be confused with the Strength-Endurance Continuum, which is a weight training concept based on the theory that muscle strength and muscle endurance exist on a continuum with strength represented by the 1RM (the 1-repetition maximum; i.e., the maximum load that can be overcome by a single effort), and muscle endurance represented by the ability to exert a lower force repeatedly over time. (Oxford, n.d.)

For the purpose of this article, I will only reference data that applies to traditional “power lifting” exercises, such as the back squat and bench press. Olympic lifts will be omitted from this discussion because they fall into a group of exercises where the primary purpose is to increase the rate of force development (RFD). (Schexnayder et al, 2014) There are many variables that make the comparison extraneous from both a micro and macro perspective.

Author’s Note: The deceleration phenomenon seen during a concentric contraction of traditional exercises can be attributed in part to the mechanical disadvantages associated with free weights as a form of resistance. Many researchers believe that a movement that allows force and muscle activation to be maintained throughout an entire range of motion can lead to increased athletic performance. Exercises that are performed using pneumatics as resistance have shown, through kinetic and electrographic profiles, to have superior force maintenance and muscle contractions throughout the entire range of motion in comparison to both free weights and ballistic movements. (Frost, 2008) 

Force, Velocity, and Power

A force (strength) is simply stated as something that acts on an object by pushing or pulling it, and is commonly denoted in Newtons (N) and represented on the force axis in kilos or pounds.

Velocity (speed) is quantified as the rate at which an object moves in a direction, and is usually expressed in meters per second (m/s), or inches per second (i/s). The coalescence between force and velocity allows us to determine power.

Power is the product of force and velocity, and is defined as the rate at which work is done or the rate at which energy is transferred from one place to another. Power is calculated as the amount of work (force x distance traveled)/time. Power in most applications is denoted in watts (W).

Force-Velocity Curve

Force and velocity can easily be charted along A.V. Hill’s (1938) force-velocity curve to demonstrate the inverse relationship between force and velocity. The hyperbolic relationship between force and velocity that he described has become the foundation on which subsequent muscle discoveries have been built (Lindstedt, 2016), as shown in Figure 1.

Sevin Chart 1
Figure 1. The Force-Velocity Curve: The thick red line charts the force-velocity relationship at each resistance. The thin red line extends to represent a theoretical absolute speed/velocity (no resistance) [A] and absolute force/strength (isometric) [B].


If we chart the power output at each resistance over a force-velocity curve, we are able to derive our parabolic power curve. The apex of the curve will indicate the resistance at which maximum power (Max Power), is achieved. Max Power is theoretically used to delineate the relative emphasis of force versus velocity at any point on the force spectrum.

Any resistance greater than Max Power will have a strength bias and any resistance less than Max Power will have a velocity bias. Share on X

Any resistance greater than Max Power will have a strength bias and any resistance less than Max Power will have a velocity bias—i.e., two resistances on opposite sides of Max Power on the power curve can have the same power output, but the resistance to the right of Max Power will have a greater force bias. The prevalent resistance that has been published for Max Power is ≈60% of a 1RM for both free weight squat and bench-pressing movements. See Figure 2.

Seven Chart 2
Figure 2. Power Curve: Point A – Max Power occurs at 325 lbs; Point B – 1RM 537.5 lbs. Max Power was achieved @ 60% calculation (Max Power/1RM).


Author’s Note: One important variable to keep in mind when referencing published subsection velocities is that the velocities articulated only cover the velocity spectrum in regard to free weights. Recent investigations have confirmed that velocity is substantially greater at each resistance when using pneumatic resistance versus free weights. However, the order of subsections along the intensity spectrum does not change. (Frost, 2008)

Delineating Critical Subsections

The subsections in this article are given as a general reference to understand the importance of the relationships between power, velocity, and force. Many authors and researchers have published data using both velocity-based training (VBT), and percent of 1RM to distinguish these zones. Regardless of the method used to define zones, the central takeaway for application purposes is that strength and speed are not exclusive across the force-velocity curve. In its most simplistic view, the ends of the force-velocity curve represent absolute strength and absolute speed respectively, and the middle of the power curve expresses the highest power values.

Regardless of the method used to define zones, the central takeaway for application purposes is that strength and speed are not exclusive across the force-velocity curve. Share on X

The qualities listed below give a general interpretation based on the literature available. The protocols that I offer are adopted and based on USTFCCCA strength protocols and 25 years of pragmatic experience working with elite athletes. Velocity is inversely proportional to resistance. Nonetheless, each concentric repetition across the strength continuum must be attempted as fast and as explosive as possible.

Seven Chart 3
Figure 3. The force-velocity curve delineating critical subsections. The three foundational strength qualities break down into four main subcategories of strength.


Absolute Strength[Force Development](Maximal Strength, Accelerative Strength*)

This zone has schemes that are performed where the protocol (load) requires maximum muscular contraction to execute a repetition at or near a 1-rep maximum regardless of the rate of production (velocity). This zone covers a 20% area on the force axis with up to five reps. Nevertheless, Absolute Strength has been shown to be maximized at loads ≥ 90% of a 1RM performing 1-2 reps. The 80-90% zone should be used to prepare a subject for loads ≥ 90%.

Qualities

  • Resistance: High to very high
  • Velocity: Low to very low
  • Power Output: Low to moderate (Power output decreases as intensity moves towards 100% due to a decrease in velocity.)

Protocols

  • Reps: 1-5
  • Sets: 4-8
  • Total Reps: 15-30 per region
  • Number of Exercises: 1-2
  • Intensity: 80-100%
  • Recovery: Complete

Max Power[Power Development](Basic Power Development)

This zone has a scheme that is performed where the protocol (load) displays the greatest amount of power as expressed in watts. This zone is executed at ≈60% of 1RM or at the Keiser Optimal Power Resistance up to six reps.

Qualities

  • Resistance: Moderate
  • Velocity: Moderate
  • Power Output: Very high

Protocols

  • Reps: 2-6
  • Sets: 4-8
  • Total Reps: 16-40 per region
  • Number of Exercises: 1-2
  • Intensity:≈60%
  • Recovery: Complete

Strength – Speed [Power Development/Strength Bias] (Basic Power Development)

This zone has schemes that are performed where the protocol (load) requires near maximum to moderate muscular contractions to execute a repetition with a secondary emphasis on the rate of production (velocity). This zone occurs within the summit of the power curve with a prime emphasis on strength. This zone covers a 20% area on the force axis with up to five reps, yet maximum power production will be maximized at ≈60-70% or Max Power plus 10%. If you are measuring power output on each rep, you should terminate the set if Peak Power drops by more than 10%.

Qualities

  • Resistance: Moderate to high
  • Velocity: Moderate
  • Power Output: High to moderate (Power output decreases as you move away from Max Power.)

Protocols

  • Reps: 2-5 (Terminate set if Peak Power drops by more than 10% on multiple reps.)
  • Sets: 4-9
  • Total Reps: 18-36
  • Number of Exercises: One with variations allowed in regard to range of motion
  • Intensity: 60-80% or Peak Power plus 20%
  • Recovery: Complete

Speed – Strength [Power Development/Speed Bias] (Basic Power Development)

This zone has schemes that are performed where rate of production (velocity) takes precedence over force, making (load) secondary in nature. This zone occurs within the summit of the power curve with a prime emphasis on speed. This zone covers a 20% area on the force axis with up to six reps, yet maximum power production will be maximized at ≈50-60% of a 1RM or Max Power minus 10%. If you are measuring power output on each rep, you should terminate the set if Peak Power drops by more than 5-10%.

Qualities

  • Resistance: Low to moderate
  • Velocity: Moderate to high
  • Power Output: Moderate to high (Power output decreases as you move away from Max Power.)

Protocols

  • Reps: 3-6 (Terminate set if Peak Power drops by more than 10% on multiple reps.)
  • Sets: 4-9
  • Total Reps: 27-45 per region
  • Number of Exercises: One with variations allowed in regard to range of motion
  • Intensity: 40-60% or Peak Power minus 20%
  • Recovery: Complete 

Absolute Speed – [Speed] (Reactive and Elastic Strength)

This zone has schemes that are performed where the rate of production (velocity) is the single most important variable. These schemes are designed to exploit a high degree of elastic and reactive qualities. Exercises within this zone often need to be adapted into ballistic movements when using free weights to achieve the desired effects—i.e., barbell back squats to jump squats.

This zone occurs well outside the summit of the Peak Power curve with a prime emphasis on velocity. However, you should implement this zone with care, especially when training the lower limbs, because of the spinal loading and impact required during ballistic movements. This zone is typically reserved for older athletes who have a higher training age and a solid foundation of Absolute Strength, basic power, and general strength development. (Schexnayder et al, 2014)

Qualities

  • Resistance: Very low to low
  • Velocity: Very high to high
  • Power Output: Low to moderate (Power output decreases as you move away from Peak Power.)

Protocols

  • Reps: (5-12)
  • Sets: (3-8)
  • Total Reps: 40-84
  • Number of Exercises: 2-3
  • Intensity: 20-40%
  • Recovery: Enough to ensure quality of work

Sevin Chart 4
Figure 4. Strength continuum chart outlining the intensity, resistance, velocity, and optimal training zones. If you want to train power, train very close to Max Power. If you want to train strength, train very close to your 1RM. If you want to train speed, you have to train with very high velocity at very low resistances.

The Why (and How)

As a performance professional, your first question should be “why?” when creating and implementing training schemes. Why will implementing training schemes for Absolute Strength, Strength Speed, Speed Strength, and Speed help improve athletic performance? There is a large body of literature that shows that resistance training can increase strength, power, and speed, which are the skills commonly needed in many sports. (McGuigan et al, 2012) The missing element in that statement is the extent to which sports performance is actually improved when we get stronger, more powerful, and faster in the weight room. Does the weight room transfer to the field of play?

Resistance training allows us to display strength, power, and speed during an exercise that may or may not translate into improved athletic performance. The ability to evaluate an athlete’s strengths and weaknesses in relation to the key performance indicators (KPI) of their specific sport will help a performance specialist create and implement effective training protocols. Training plans must not only be specific to the individual; they must be explicit to the task or tasks being performed on the field of play.

Practitioners must always ask one simple question: How will this protocol improve performance on the field of play? Share on X

Understanding the qualities and protocols along the strength continuum arms the performance coach with the tools needed to incorporate training modalities specific to an individual trying to complete a specific task. Two athletes quite frequently need different stimuli to accomplish the same task. Practitioners must always ask one simple question: How will this protocol improve performance on the field of play?

Author’s Note: It cannot be overstated that the extent to which improvements can affect human performance is dependent on many variables, including (but not limited to) the individual’s specific physical qualities, the physical skills required for explicit activities, mental competency, environmental conditions, sport competency, and exercise selection. Effective implementation of resistance training through an integrated periodized training plan that has measures to control intensity, volume, and density will also play a key role in determining the overall effect in a resistance program.

Since you’re here…
…we have a small favor to ask. More people are reading SimpliFaster than ever, and each week we bring you compelling content from coaches, sport scientists, and physiotherapists who are devoted to building better athletes. Please take a moment to share the articles on social media, engage the authors with questions and comments below, and link to articles when appropriate if you have a blog or participate on forums of related topics. — SF



References

Bondarchuk, AP. (2014) Olympian Manual for Strength and Size. USA: Ultimate Athlete Concepts, Michigan.

Cormie, P. et al. (2007) “Optimal Loading for Maximal Power Output during Lower-Body Resistance Exercises.”Medicine & Science in Sports & Exercise. 39(2):340-349.

Frost, D.M., Cronin, J.B., and Newton, R.U. (2008). “A comparison of the kinematics, kinetics and muscle activity between pneumatic and free weight resistance.” European Journal of Applied Physiology. 104;937-956.

Lindstedt, S. (2016). “Skeletal muscle tissue in movement and health: Positives and negatives.” Journal of Experimental Biology. 219(2):183-188. 10.1242/jeb.124297.

Mann, B. (2016) Developing Explosive Athletes: Use of Velocity Based Training in Training Athletes. USA: Ultimate Athlete Concepts, Michigan.

McGuigan, M.R., Wright, G.A., and Fleck, S.J. (2012). “Strength Training for Athletes: Does It Really Help Sports Performance?” International Journal of Sports Physiology and Performance. 7, 2-5.

Pfaff, Dan. (2018) Personal communication.

Schexnayder, B. et al. (2014)USTFCCCA Strength and Conditioning Certification Manual, USTFCCCA Track and Field Academy, New Orleans.

Schnolinsky, G. (2006) Track and Field: The East German Textbook of Athletics. Sport Book Publisher, Toronto, Ontario, Canada.

Stone, D.A., Cronin, J.B., and Newton, R.U. (2008). “A comparison of the kinematics, kinetics and muscle activity between pneumatic and free weight resistance.” European Journal of Applied Physiology. 104:937-956. doi 10.1007/s00421-008-0821-8

Strength-Endurance Continuum [Def.1] (n.d.). InThe Oxford Dictionary of Sports Science & Medicine Online, Retrieved September 11, 2018.

Football Receiver and Defender

The Steps from Standard S&C to Movement Coaching with Shawn Myszka

Freelap Friday Five| ByShawn Myszka

Football Receiver and Defender

Shawn Myszka currently serves as a personal performance advisor and movement coach for more than a dozen NFL players each year, where he guides the performance of players to the limits of their potential. Through his frequent presentations at strength coach and sport conferences nationwide, Shawn has become a sought-after clinician and leader in the field of sport-specific power development, and on the transfer of training to sport performance and the development of mastery in the movement of athletes at all levels of qualification.

Freelap USA: What were some reasons for your transition from “physical preparation” into motor-learning-driven movement coaching? What were some important steps along the way?

Shawn Myszka: I would say the first big reason came in the form of a spark of realization that I had back in 2008, when I had my first NFL player reach out to me. Prior to that point, I had worked mostly with amateur athletes at lower levels of qualification and mastery (at least relatively speaking, compared to an NFL player), for whom I typically emphasized physical preparation in more traditional ways familiar to strength and conditioning.

I took this approach with a player who had already been a starter in the league for a few years at that time. We made tremendous improvements in the weight room, as well as on-field (at the surface level anyway) in the execution of some of the common testing means that are almost always emphasized in both the preparation and the identification of talent in American football players. The thing was, however, that although he had taken what appeared to be fantastic steps forward, when he got back out onto the actual football field that upcoming season, there was very little difference between the player he was prior to meeting me and the player he was after we had invested so much time and energy into his preparation.

This discouraged me greatly and forced me to completely reevaluate not only how I defined success for my athletes, but also my training objectives and overall approach. It was through this “Robert Frost” moment that I came to the realization that most athletes have an overall guiding objective that should be intuitively obvious: They simply train to be better when and where it counts within their sport.

Most athletes have an overall guiding objective that should be intuitively obvious: They simply train to be better when and where it counts within their sport, says @MovementMiyagi. Share on X

The next important step along the way came after I had taken a more movement-centric approach for the next four or five years. My players ended up being very successful that particular season—at least statistically and in the post-season accolades that they accumulated. However, when I really broke down the movement execution they displayed on the field, I didn’t see many of the efficient patterns we had worked tirelessly and deliberately to improve upon during the offseason.

In the training or practice environment, my players truly stood out by executing in a crisp and clean fashion versus their peers. However, when they were put on a field and required to face contextual problems, I could tell that there was still something significant missing. This became a moment where I needed to further audit my craft and what I would aim to bring to the table for athletes in their preparation for an NFL Sunday.

As I did this, I took another long look in the mirror and decided to ask myself a hard question that I have continued to ask to this day: Are the players performing because of me or in spite of me? I didn’t like the answer that I came to on that day, and so I elected to dive even deeper into certain concepts such as those in ecological dynamics (blended ideas from the fields of ecological psychology and dynamical systems theory). As I did this, I began to further respect the complexity of sport. I set out to focus more of my lens on the performer and environment interacting with one another as my scale of analysis (as opposed to taking a technique-driven, more organism-centered approach that many practitioners view movement as).

With these realizations and further modifications to my philosophical frameworks, aspects of my training and practice environment also began to reflect a shift in focus towards what I now would characterize as being more learner-driven. I attempt to be a facilitator of designing learning environments that aim to ultimately enhance movement problem-solving processes for the athlete. Overall, what I have come to believe is this—as Siff and Verkhoshansky so eloquently put it in their famous text, Supertraining—“Sport is a problem solving activity where movements are used to produce the necessary solutions.” This quote, and what it really means at its heart (the athlete as a movement problem solver!), now drives my thoughts, my methods, and my entire outlook each and every day within my craft.

Freelap USA: Why do you feel that physical preparation coaches have embraced motor learning culture more than many actual sport coaches have (at least, it seems this way), when it seems like sport coaches would benefit from it more?

Shawn Myszka: If I am being completely honest, I feel both populations still have an awful long way to go to embrace motor control and learning topics to the degree that they deserve. No matter what hat an individual may wear within our field, I feel strongly that the benefit of investigating motor learning and, as you say, its culture at a deeper level is far-reaching and can dramatically change anyone’s craft.

Though I don’t claim to have it all figured out by any means, I have found that, at least generally speaking, both population groups often just don’t know what they don’t know! Thus, they just do what they’ve always done or set out to follow others who have come before (or the ways that they were coached when they were athletes). There is great danger in this, as professionals then find themselves clinging to these ways as the traditionally held thought processes drive so much dogmatic thinking.

The benefit of investigating motor learning and its culture at a deeper level is far-reaching and can dramatically change any coach’s craft, says @MovementMiyagi. Share on X

That all said, I am blessed to have come across a growing number of individuals within both of those population groups who do realize that there is more to movement skill in sport than what has traditionally been offered. They are passionate in finding the ways that these ideas can apply within their craft to dramatically impact their athletes.

When it comes to the lack of adoption of the ideas across the field(s), I do believe that much of the apprehensiveness is caused by a reality that isn’t going anywhere anytime soon: Sport movement IS complex. As one of the founding fathers of contemporary movement science research, Nikolai Bernstein, stated, “No natural phenomenon can be understood without carefully considering how it emerged.”

To build onto this and trace back to an idea that I unashamedly stole from Keith Davids and Duarte Araujo (from an article that they wrote in 2011), movement or sport skill acquisition is really about the emergence of an adaptive, functional relationship between an organism and its environment. At the heart of this relationship, we can place an equal emphasis on the problem to be solved and the emergence of a self-organized movement solution to match the constraints that interact at that moment in time.

This is an overly daunting endeavor for many, as it means we must take a more systems-oriented approach in order to get closer to the answers we seek. This will enable us to be more concerned with the integrated process of movement execution and its underlying dynamics (the relations between the component parts of the system). This is where ideas related to information-movement coupling start to come into play. We find that perception, cognition, and action of the athlete are highly integrated behaviors that have circular causality and underpin the movement execution in response to the key sources of information specific in a performance environment.

As ecological psychologist James J. Gibson stated, “We perceive in order to move, but we must also move in order to perceive.” These two processes go hand in hand at all times in sport, no matter what type of motor problem we are investigating. Thus, this framework of motor control must then be considered in the design of our practice environments, where tasks that allow the performer to maintain the coupled relationship between the sources of information and the movement actions created (i.e., how the degrees of freedom of the movement system will self-organize into a movement solution during goal-directed activity) should be presented.

Freelap USA: What are the key tenets of how you coach movement from a motor learning perspective? How might this make your coaching different than what is “typical” team sport movement coaching?

Shawn Myszka: Due to the perspectives offered by many of the traditional motor control and learning theories within coaching (namely, those that fit in either “information-processing” control ideas and/or linear pedagogies with stages of learning that are often more coach-centered), I find that movement coaching in most settings is often very technique-driven. There is an emphasis on acquiring some putative and idealistic technical model of movement with rules that are often implied to represent the way for all performers to execute.

Quite simply, many coaches often overemphasize biomechanics and/or the hypothetical storage of an entity of a movement pattern execution within the brain. Because of this, if an athlete isn’t getting “it” right yet (“it” being the technical execution), it is proposed that they just need to accumulate more repetitions of practice tasks that are often watered down and over-simplified so that the movement patterns can be completed in a closer-to-perfect fashion. This can sometimes be seen as analogous to “beating a trail of movement” to imprint and store it somewhere in the brain (known as the “generalized motor program” or a “schema”).

Overly frequent instruction and feedback from a coach and near-constant analysis and comparison of technical execution to those viewed as experts usually go hand in hand with this. Additionally, so does the inclusion of non-contextual practice methods where motor patterns are performed in isolation with decoupling of the performer from the environment in which they must ultimately perform (and lacking connection to the problems that they will need to solve). Overall, this abovementioned approach is a very asymmetrical one that leans toward the organism, clean biomechanics, and a program being stored in the brain.

This is an approach that I am all too familiar with, as it was one that I lived and breathed when I took my first foray into being a movement coach. That is, until I began to see the limitations of this approach and it forced me to evolve. Thus, my current view and the tenets that form its foundation are now quite different from these traditional views often held as truths.

As mentioned above, I now more closely identify with an ecological dynamics-oriented framework. If I am going to help facilitate more effective movement problem-solving, I must first investigate an athlete’s movement behavior in context (in the sport and on the field, in situations and circumstances that they routinely face) to determine how they currently organize movement. This will offer me greater insight as to what gaps may exist in their movement toolbox.

Once I go through their film with a fine-toothed comb, I can then begin to design and set up learning environments that contain more representative tasks. This doesn’t mean that the athlete will just play their sport or that I always need 11 versus 11 to recreate movement problems. Instead, this principle simply states that I will aim to manipulate constraints of the task, environment, and organism to create a problem for the performer to interact with and couple their movement to.

Thus, I attempt to facilitate more opportunities where problems contain information that looks, acts, feels, and behaves more like a game does. This information is where the so-called “affordances for action” will live. I’ve found that if the problem has fidelity in this way, it becomes more likely that the solutions that emerge will also have enhanced fidelity. As a result, it makes it more likely that the work we do could potentially lead to greater transfer to game circumstances.

A few important aspects of this approach add layers to this. The first one is that of the concept portrayed in the ever-famous words offered by Bernstein when he coined the idea of “repetition without repetition.” As stated back in 1967, “repetition without repetition essentially means that when practice is properly undertaken, it does NOT consist in repeating a means of a solution of a motor problem time after time (rote repetition) but instead it will exist in the process of solving that problem again and again by changing organizational aspects of the solution each time we face it.”

If there’s one idea that gets to the crux of what I do, it’s repetition without repetition. Quite simply, when an athlete faces a more frequently changing problem, they end up searching their movement toolbox for the organization of an adequate solution. I feel that frequent exposure to this requirement leads to the enhanced coordination and control of more abundant, yet equally functional, movement solutions.

Repetition without repetition means that when an athlete faces a frequently changing problem, they will search their movement toolbox to form an adequate solution, says @MovementMiyagi. Share on X

This is the very essence of what Bernstein recognized as the hallmark quality of movement skill and expertise: dexterity, or “the ability to solve any emergent movement problem in any situation and in any condition.” Thus, I focus on ways that I can add greater realistic complexity to the tasks within the learning space to force the expansion of the grip of one’s movement solutions.

For example, I often set out to create environments that test the movement skill with certain psychological key performance inhibitors like pressure and anxiety, while also aiming to move more effectively under physiological factors like fatigue. Additionally, I frequently change the activity by manipulating constraints like the number of opponents, the exact opponent(s) being faced, the initial layout of the opponents, the shape or size of the workspace, the goal intentions of the performer, and the surface we play on, among many other things.

Each of these constraint manipulations will obviously impact the spatial and temporal demands of the practice activity. Truth be told, I don’t believe that a movement skill has reached sufficient stability and flexibility until we have truly tested it in each of these ways.

Freelap USA: What’s your take on movement coaching and the role of the physical preparation coach at varying levels? What’s the bandwidth here?

Shawn Myszka: Well, maybe you’re sort of setting this on a tee for me to a certain degree here or maybe it’s happening inadvertently, but either way I will take it. Quite simply, I believe that anyone who works with athletes in any capacity would be well-served to refocus their efforts on being a better movement coach by diving into ideas of motor control and skill acquisition. Obviously, I am biased, as I shifted gears many years ago by gravitating towards this type of niche. It’s why I am as passionate as I am about the topic, and it’s also the reason I have brought calls to action for all athletic performance-related professions to unite for a paradigm shift…a movement for movement!

Additionally, if S&C coaches, physical preparation coaches, and sport coaches don’t take a more movement-centric focus in their craft, they will certainly be doing their athletes a disservice in both the short and long terms. This is one of the main reasons for my pleas to NFL decision-makers since 2013 to consider hiring a movement skill acquisition coach as part of their staff in order to help facilitate this new way of thinking and go beyond the “way we have always done it.”

Anyone working with athletes in any capacity should refocus their efforts on being a better movement coach by diving into ideas of motor control and skill acquisition, says @MovementMiyagi. Share on X

I believe that having this type of expert within an organization would allow for the design of more enhanced learning environments, along with the inclusion of practice activities that present more representative movement problems to the athletes. Additionally, this individual could assist in the guidance methods utilized by all parties, with the intention of improving the ownership and optimization of the athletes’ movement skills when and where it counts. Ultimately, I believe this type of role would also begin to more fully bridge the gap between those entrusted with physical preparation and those in charge of putting players in the positions to succeed on the field.

I understand that many people are apprehensive of abandoning the methods they believe have gotten them to this point. Because of this, they may scoff at many of my recommendations, as well as the feasibility (or even the need) of taking this movement-centric approach. However, I offer famous words by the late, great, martial artist Bruce Lee, who stated, “Research your own experience: absorb what is useful, discard what is not, and add what is uniquely your own.”

On this note, I do not desire or expect individuals to follow the recommendations blindly. Instead, I implore individuals to think more deeply about sport movement behavior, while determining even small steps that they can take to gradually modify their art to be more conducive to enhancing the contextual movement skills of their athletes within their respective sport.

Freelap USA: What is your inspiration for finding the ultimate movement pattern for each athlete? What are roadblocks that tend to keep athletes stuck in movement ruts or the inability to display their sport skill optimally?

Shawn Myszka: As mentioned earlier, I believe that when assessing movement, we must think of the deeper connections within the entirety of the human movement system. This helps us look beyond the athlete finding the ultimate movement pattern and instead aim to assist them in organizing the most optimal integrated movement solution. As Bernstein once stated, “A movement is correct when it perfectly fits a motor problem just as a key easily opens a lock.”

In attempts to find the most-effective movement solution, we must think of who that athlete is at that moment in time under the constraints they face, says @MovementMiyagi. Share on X

These words and the idea they convey then guide and offer constant inspiration for how I not only view movement behavior in sport, but also attempt to acquire enhanced movement skill for any athlete I partner with. In attempts to find the most-effective movement solution, we must think of who that athlete is at that moment in time under the constraints they are facing and strive for the athlete’s ownership and authenticity of the movement to fit their personal features. Of course, the roadblocks that could rear their ugly head and keep an athlete from finding their most functional fit with the problem could be any number of things, depending on the exact contextual problem they aim to solve.

Though I have briefly discussed many of these factors in the answers above, a few of the main ones that come to mind would be shown in an athlete who:

    • Tries to adhere to an overly restrictive technical model with little bandwidth of variability (not just motor system variability, but also perceptual and cognitive degrees of freedom). This mentality in movement execution could bring heightened stability (predictability) to the movement patterns, but may also lack flexibility, adjustability, and adaptability to the dynamic needs of the problem-solution interface.

 

    • Exists in an overly sterile, non-organic practice environment where the athlete is not invited to search their movement toolbox to discover the strengths of their movement skills.

 

    • Attempts to be overly controlling of their movement execution in times of higher complexity, pressure, and fatigue. This could lead to what some would refer to as “reinvestment” or “constrained action” (forms of paralysis by analysis).

 

    • Becomes dependent on augmented guidance in the form of both explicit instructions and feedback from a source outside of themselves (such as a coach, teammate, or video review) and, as a result, could lack the kind of intrinsic, kinesthetic sense often necessary for full ownership of their movement behaviors.

 

  • Hasn’t “pressure-proofed” their movement system and its solutions through testing within anxiety and stress, which often leads to an athlete reverting back to movement behavior nuances of old.

Since you’re here…
…we have a small favor to ask. More people are reading SimpliFaster than ever, and each week we bring you compelling content from coaches, sport scientists, and physiotherapists who are devoted to building better athletes. Please take a moment to share the articles on social media, engage the authors with questions and comments below, and link to articles when appropriate if you have a blog or participate on forums of related topics. — SF


For Further Reading

Araujo, D, and Davids, K. “What Exactly is Acquired During Skill Acquisition?” Journal of Consciousness Studies. 2011;18(3-4): 7-23.

Chow, J, Davids, K, Button, C, and Renshaw, I. Nonlinear Pedagogy in Skill Acquisition. New York, NY: Routledge, 2016.

Davids, K, Button, C, and Bennett, S. Dynamics of Skill Acquisition: A Constraints-Led Approach. Champaign, IL: Human Kinetics, 2008.

Latash, M, Turvey, M, and Bernstein, N. Dexterity and Its Development. Mahwah, NJ: L. Erlbaum Associates, 1996.

Female Sprinter in Starting Blocks

What Sprinters Should Be Doing Instead of Hip Thrusts

Blog| ByKim Goss

Female Sprinter in Starting Blocks

The Nordic curl proved to be a simple yet valuable exercise for sprinters to help prevent hamstring injuries; step-ups and Bulgarian lunges, on the other hand, did not fulfill their promise of turning athletes into cheetahs. The hip thrust is one more exercise that has proven disappointing for sprinters. Let’s take a closer look at why this glute builder doesn’t live up to its hype and explore how you can do better.

To avoid confusion, I’ll mention that the term hip thrust was first used to describe a lower body sled popular with football players. In physical therapy, hip thrusts belong to a class of exercises called pelvic bridges often used in lower back rehab protocols. Don Chu, Ph.D., a jumps coach known for his work in plyometrics, introduced me to this exercise during a physical education class I took from him in 1982.

Hip Thrust Rehab
Image 1. The pelvic bridge has been used for years in physical therapy with lower back rehab (Sylvain Lemaire drawing).


To be clear, I’m not coming from the perspective that bodyweight hip thrusts should never be performed. Again, they are commonly used in physical therapy. However, you need to consider that there are risks associated with performing hip thrusts with a heavy barbell resting across your pelvis. With this background, let’s look at how we got into this state of confusion about glute training in the first place.

EMG Results and the Hip Thrust

We can track much of the initial hype over the hip thrust to studies using electromyography (EMG) machines, which measure the electrical activity of muscles. This information is especially important in the medical field for identifying neuromuscular diseases. That said, we have to question the value of EMGs for determining how useful an exercise is for improving athletic performance. Just ask sports scientist William Sands, Ph.D.

Sands did his dissertation on EMGs, saying these machines could determine which muscles are active and when they’re active. “However, after that it gets a little dicey. There is a nice linear relationship between magnitude of EMG and muscle force, but the relationship is only valid for isometric tension.” Since most athletes want to demonstrate strength at fast speeds, EMG results have limited real-world application to athletics. There is also the issue of how EMG testing is administered.

Since most athletes want to demonstrate strength at fast speeds, EMG results have limited real-world application to athletics. #speed #EMG Share on X

The most accurate EMG tests involve inserting needles into the muscles and performing maximal muscle contractions. Besides the challenge of finding volunteers to perform squats with needles stuck in their glutes, this practice can cause nerve damage. Further, the results of any hip thrust study can be misleading because participants perform exercises on the floor to lessen interference from other muscles. Sports coach and therapist James Jowsey addressed this issue when he said that, as the pelvis lifts during this exercise, “the only neurological drive goes to the glutes, hence the high EMG reading for the bridge.”

One well-publicized EMG personal experiment on hip thrusts was conducted by a fitness trainer who used less accurate surface EMGs to compare the hip thrust with other exercises for glute activation. He found that the highest reading for the gluteus maximus was not with the hip thrust. In fact, the single-leg reverse hyper produced double the EMG measurement, and the reverse hyper was also nearly double. He followed it with another study in which the hip thrust produced a slightly higher EMG reading than the reverse hyper. This second study, though, was rather pointless because he used a maximal load on the hip thrust and a submaximal load on the reverse hyper.

Gerd Bonk
Image 2. Deep squats help prevent muscle imbalances that can adversely affect performance and increase the risk of injury. Squatting here is Gerd Bonk, an East German weightlifter who clean and jerked a world record of 556 pounds in 1976 (photo by Bruce Klemens).


One study that looked at hip thrusts vs. back squats for improving several qualities of athletic fitness was part of a Ph.D. thesis. The hip thrust came out on top. However, the study only involved two people, which sent up my first red flag because it had poor “statistical power” (to use this individual’s own words).

My second red flag was that the subjects were twins, so it would be difficult to replicate the study. My third red flag was that the subjects performed either hip thrusts or squats, but did not switch protocols in the middle of the study. My fourth red flag was that the student shared the results of his research on social media before his thesis was approved, a practice my academic colleagues tell me is frowned upon. But my fifth, and darkest, red flag was the type of squat performed in the study.

From looking at the photos from the study the student shared on social media (which, for some bizarre reason, also included an inappropriate photo of the subjects grabbing each other’s glutes), the squats performed did not appear to reach the depth that would pass the judging standards of any powerlifting federation.

Contrast that to a 2014 paper on squats, which explained that squatting to an appropriate depth was critical to work the posterior chain muscles adequately: “Without squatting to the proper depth, the hamstrings and gluteus muscular complex may not be adequately challenged. Specifically, training at shallower knee flexion can influence quadriceps dominant sport skill performance that can limit performance and increase injury risk. Likewise, training at deeper depths will help benefit motor control positions that are common to sport.”

Will Hip Thrusts Help Sprinters Run Faster?

The short answer: probably not.

Let’s start with a six-week study that compared the hip thrust to the front squat for improving short sprinting speed. The research group included one individual who sold hip thrust benches. The authors concluded, “Potentially beneficial effects were observed for the hip thrust compared to the front squat in 10- m and 20- m sprint times.” Pretty shocking, until you see how the study was designed.

Front squat
Image 3. The front squat is a key assistance exercise for weightlifters. Shown is two-time Olympic champion Hossein Rezazadeh, an Iranian super heavyweight who reportedly could front squat 749 pounds, and who can be seen on YouTube easily front squatting 617 pounds for two reps (photo by Bruce Klemens).


Rather than performing full front squats, the subjects performed parallel squats. If you’re going to play that game, then how about only performing partial hip thrusts? What’s just as troubling are the loading parameters of the front squat. Here is what they did:

  • Week 1: 4 x 12
  • Weeks 2-3: 4 x 10
  • Weeks 4-5: 4 x 8
  • Week 6: 4 x 6

Say what? Sets of 12?

With over four decades in the Iron Game, I’ve never seen any published athletic fitness workouts that recommended sets of 12 in the front squat. Holding a barbell on the shoulders compresses the chest and inhibits normal breathing, making it difficult to perform higher repetitions. Performing more than 3 repetitions also often leads to a breakdown in technique as the upper back muscles fatigue quickly, forcing an individual to use especially light weights. In this study, the average number of reps was 9. In my weightlifting circle, we often refer to sets of 4 reps in the front squat as cardio!

As for the hip thrusts in this study, the same number of reps were performed as the front squat. This exercise prescription doesn’t make sense because the range of motion is considerably shorter with a hip thrust than a squat, so the time under tension will be different and thus the training stimulus. Let me explain.

Although an average of 9 reps per set may be considered a mass building protocol for the front squat that transfers poorly to sprinting, performing the same repetition bracket for the hip thrust could be considered a relative strength protocol that would increase maximal strength with minimal increase in body mass.

The researchers should have used time-under-tension repetition brackets, performing both exercises for the same amount of time for each set. You wonder what the results would have been using, let’s say, sets of 2-3 front squats. And it should be noted that in 2017, one of the study’s researchers admitted in a podcast that the hip thrust might have a better transfer to running, not sprinting.

Because of all the hype surrounding the hip thrust, researchers from the UK decided to conduct an 8-week study on the effects of hip thrusts on athletic performance. These researchers apparently were not selling hip thrust benches so had no potential financial gain from the results. The study involved 21 college students (15 males, 6 females).

When hip thrust strength improved dramatically, the effects did not transfer to #sprinting speed. #hipthrust Share on X

Although hip thrust strength improved dramatically, the effects this strength had on sprinting speed were underwhelming. Here’s what the UK researchers said: “These findings suggest that increasing maximum hip thrust strength through use of the barbell hip thrust does not appear to transfer into improvements in sprint performance in collegiate level athletes.” Well, so much for that theory.

Is There Any Harm in Doing Hip Thrusts?

The short answer: perhaps.

A human spine is a column-like structure that is better suited for handling vertical compressive forces than the horizontal shearing forces that the hip thrust exerts on the spine. As for real-world evidence, sports coach Justin Kavanaugh followed the progress of 100 athletes performing hip thrusts. Forty of these athletes had back surgery or a history of back pain. Guess what?

“The athletes who did not perform the heavy barbell hip thrust had very little problems in terms of pain in their lower back. Those athletes that did perform the heavy barbell hip thrust, even the ones with no history of back pain or injury, were having issues shortly after finishing with this specific lift.”

Another issue with weighted hip thrusts is that the prolonged pressure of the bar resting directly over the pelvis compresses the fascia. The body may react to this stress by laying down more fascia, which makes this connective tissue less “pliable” (as Tom Brady’s trainer would say). The eventual result is disruption of the fascial system. If one of your training goals is to improve elastic strength so you can sprint faster, you should avoid performing activities that compromise the performance of these tissues.

But wait. What about those athletes who have glutes that “don’t fire”? Here’s the deal. The glutes help us maintain upright posture (which is why apes, who possess minimal glute development, have trouble standing for long periods). If your glutes didn’t fire, every time you took a step you would fall flat on your face.

You can, however, have glutes that are inhibited in their ability to contract if there is tightness in their antagonistic (opposing) muscles, specifically the muscles that flex the hip. This interference is known as Sherrington’s law of reciprocal inhibition. What this means is that before signing up for a “Bum Blasting Boot Camp” because someone said your glutes weren’t firing, try stretching your hip flexors.

Better Options to Develop Elastic Strength for Sprinters

If I’ve led you to become a bit skeptical about using hip thrusts in an athletic fitness program, let’s go a step further and consider some alternatives. But before sharing these with you, consider that one reason the hip thrust may not improve sprinting is that the exercise does not address the timing of the glute muscles in dynamic athletic activities. What do I mean by timing?

Performing an exercise that focuses on training one glute muscle at slow speeds (to avoid hyperextension of the spine) could affect the timing of how the glutes contract and relax in sprinting. And perhaps, as possibly demonstrated by the UK study, the glutes can become a weak link in the posterior chain that will adversely affect your ability to run fast. I say this because, if you don’t time your deceleration properly when the foot strikes the ground during sprinting, the amount of force you apply into the ground will be deficient. I discussed this topic in detail in my previous article on elastic strength, using the example of Usain Bolt’s knee action in sprinting.

#Flywheels offer fast eccentric loading to work on the timing of glute activation during #sprinting. Share on X

Since the reverse hyper got gold stars for its EMG results, consider that one of the best ways to perform it would be a horse-stance reverse hyper using a flywheel pulley for resistance. These flywheel machines provide fast eccentric loading that enables you to work on the timing of glute activation during sprinting.


Video 1. The reverse hyper can be performed unilaterally with a flywheel pulley machine. This machine lets you train the muscles that extend the hips at fast speeds.

To take this flywheel exercise a step further, you could perform a horse-stance kickback using a flywheel pulley. This variation strongly involves the quadriceps, as these are the muscles used when applying force into the ground during a sprint. Stride length is one of the keys to improving sprinting speed, and powerful athletes can apply more force into the ground to propel themselves further with each stride. Sprint coach Charlie Francis was a big believer in this type of movement, which he had his athletes perform on a horizontal leg press machine.


Video 2. The horse-stance kickback using a flywheel machine is an advanced exercise for developing sprinting power.

One possible workout sequence for sprinters would be to do a few sets of the reverse hyper flywheel exercise to strongly activate the glutes and then transition into the more advanced variation. After that, sprinters could progress to standing glute exercises with a flywheel—speed-specific exercises I could discuss (along with several others) in a future article if there’s any interest.

The lesson here is that coaches should stop looking for revolutionary isolation-type exercises and piecing them together into some strange Gestalt system of superior program design—remember the story about the blind men trying to describe an elephant? Muscles work together with the fascia to create biological springs to produce maximum speed and power. In other words, partial training produces partial results. This brings up the issue of pelvic stability.

One of the primary functions of the glutes during sprinting is to stabilize the pelvis, and there’s not much core stability involved in performing a hip thrust while lying on your back. In contrast, many exercises can be performed that address this issue. And the exercises that top the list for core stability are the Olympic lifts.

Mattie Rogers
Image 4. The Olympic lifts are complex, high-speed exercises that transfer well to sprinting. Here is Mattie Rogers, a former cheerleader who won the silver medal in the 2017 World Weightlifting Championships. At a bodyweight of 152 pounds, Mattie snatched 234 pounds and clean and jerked 295 pounds, both American records (photo by Bruce Klemens).


The snatch and clean and jerk are large amplitude movements performed at high speeds that develop the elastic qualities of the tissues and promote pelvic stability. In other words, they make you more powerful through a full range of motion. These lifts are not to be confused with the partial power clean nonsense promoted by those functional trainers who have their athletes shuffling across plastic ladders that teach them how to run in place really fast.

Concluding Thoughts

When you look at the preponderance of research and real-world evidence that dispute the claims of those promoting the hip thrust, it’s obvious that this exercise has little value to a sprinter. The takeaway is that rather than jumping on the latest training “secret” that carries the promise of dramatically improving athletic performance, look at these discoveries with a journalist’s eye and carefully read the research to see its true value, if any.

Since you’re here…
…we have a small favor to ask. More people are reading SimpliFaster than ever, and each week we bring you compelling content from coaches, sport scientists, and physiotherapists who are devoted to building better athletes. Please take a moment to share the articles on social media, engage the authors with questions and comments below, and link to articles when appropriate if you have a blog or participate on forums of related topics. — SF



References

Koch, Fred. “EMG Testing: Does It Tell All?”

Jowsey, James. “Why the Glute Bridge Will Not Make Your Squat Better.”

IPF Technical Rules Book 2016.

Meyer, G.D., et al. “The Back Squat: A Proposed Assessment of Functional Deficits and Technical Factors that Limit Performance.”Strength and Conditioning Journal.

Dietmar Schmidtbleicher, Ph.D., NSCA National Conference, San Diego, California, 1990.

Contreras, B., et al. “Effects of a Six-Week Hip Thrust vs. Front Squat Resistance Training Program on Performance in Adolescent Males: A Randomized Controlled Trial.” Strength and Conditioning Journal.

Bishop, C.,et al. “Heavy Barbell Hip Thrusts Do Not Effect Sprint Performance: An 8-Week Randomized–Controlled Study.” Journal of Strength and Conditioning Research.

Kavanaugh, J. “The Heavy Hip Thrust Is Ruining Our Backs and This Industry.”

Francis, Charlie. Charlie Francis Training System, p. 50-51.

Derek Hansen EMS

Electrical Muscle Stimulation: Return-to-Play Applications and Strategies

Blog| ByDerek Hansen

Derek Hansen EMS

As a practitioner who has used electrical muscle stimulation for 25 years for performance training and return-to-play applications, it continues to amaze me the number of coaches, athletes, and even physical therapists who are unaware of the wide range of uses for this particular type of technology. I have even spoken to a number of representatives from companies that sell electrical stimulation products in the past few years, and I am equally surprised at how little they know about their own product’s potential, which puts them at a significant disadvantage with their sales and marketing efforts. At present, Dr. Ho looks like a marketing genius when it comes to consumer-based electrotherapy products. However, Dr. Ho represents the tip of the iceberg when it comes to the wealth of benefits sitting just below the waterline.

The number of coaches, athletes, and even physical therapists who are unaware of the wide range of uses for electrical muscle stimulation technology continues to amaze me, says @DerekMHansen #EMS. Share on X

Although electrical stimulation has been used extensively for muscular contraction purposes since the 1960s, there has been relatively slow innovation and growth in the technology, and in any associated electro-physiological protocols, in the last 50 years. Pockets of innovative use have developed throughout the modern age, but this has not translated to widespread usage despite the fact that—in the right hands—this technology can make a big difference. A handful of experts toil away with the technology and achieve significant results with athletes and the general population, but many of their successes go unnoticed. Additionally, scientific research lags far behind, as few researchers have the ability to think outside the box with the technology and move into new areas of development.

Thus, I continue to write these articles and speak on the subject with the hope that the rest of the world catches up. Much like the effort to convince people that they need more sleep—even though the benefits are obvious, significant, and readily achievable—we can only present the information and let the masses make their choice.

DH EMS
Image 1. I am very much in favor of the benefits of electrical stimulation as a “technological placebo” when used in the right settings and contexts. I think that what you do with electrical stimulation is far more important than what it does for you, especially if timely, sustainable results are what you desire.


Provided below are my key reasons for promoting electrical stimulation as a “front-and-center” feature of my return-to-play process. As you will discover during the course of this article, it is not the sole means of effecting positive change, but rather a tool that facilitates other rehabilitation and exercise objectives, almost distracting individuals from the task at hand in order to encourage enhanced focus and biomechanical compliance. I would also argue heavily in favor of the benefits of electrical stimulation as a “technological placebo” when used in the right settings and contexts. In my opinion, what you do with electrical stimulation is far more important than what it does for you, especially if timely, sustainable results are what you desire.

One

Encouraging Movement and Adding Load

No one will disagree with the concept that movement encourages healing. The primary objective of all rehabilitation professionals or recovery specialists should be to encourage movement in various forms, durations, and intensities. Common sense tells us that movement—whether for sustenance, general utility, or survival—leads to positive adaptations, growth, and, at the very least, maintenance of homeostasis. Movement with variable loads can be even more beneficial, particularly if the loading is achieved progressively.

Unfortunately, electrical stimulation fell into the domain of physical therapists, and lounging on a plinth with electrode pads wrapped or taped to the skin seemed to be the treatment of choice. Let me also point out that laying patients down on tables and hooking them up to modalities also makes for a more profitable physical therapy practice. This setup is often accompanied by the recommendation to set the intensity to a “comfortable” level while you lie back and relax. Sadly, the objectives of sustenance, survival, and function are not even in the conversation.

DH Return-to-Play
Image 2. All of my return-to-play clients receive electrical stimulation while moving. Nobody is permitted to sit still, let alone lie down and fall asleep. Improved range of motion and enhanced strength are the goals—not comfort.


All of my return-to-play clients receive electrical stimulation while moving. Nobody is permitted to sit still, let alone lie down and fall asleep. Individuals are encouraged to—at the very least­—stand for the beginning of protocols to set an ambitious working intensity for current stimulation. “Comfort” is a taboo word. The goal is to push into zones of discomfort by taking the individual through ranges of motion that were not previously attainable, as well as improve overall strength through these new ranges. In some cases, standing protocols are performed in the initial part of the session to enhance recruitment, and then quickly followed up with voluntary drills that incorporate coordination, strength, power, and rate of force development.

In postsurgical cases, such as in the rehabilitation of a repaired anterior cruciate ligament, movements that involve flexion and extension of the knee are facilitated by the use of electrical stimulation, whether it involves recruiting the quadriceps during extension movements or stimulating the hamstrings to lengthen or shorten as appropriate. These movements can be acyclical in nature when using the electrical stimulation—as in a box step-up—but then followed by a cyclical motion without the stimulation, as you would with a marching or skipping drill. The intent is to create a pathway and a pattern that can easily be followed with voluntary work.

Two

Employing Disruptive Methods

Even though electrical stimulation has been used in sport training and physical rehabilitation for over 50 years, I still consider it a “disruptive” technology for many reasons. If we examine the concept of “disruptive” technology, we find that these are innovations that significantly alter the way that businesses and industries operate and, in many cases, often create entirely new markets. While the electro-stimulation field is not changing the way we do business, I believe it is disruptive in the way it interacts with the body and nervous system. Locally and systemically, peripherally and centrally, electrical stimulation has the ability to disrupt existing patterns and pathways and enable you to develop new ones. This ability is often referred to as facilitating neuroplasticity.

The addition of “noise” into a system for the purpose of optimizing or improving the overall function of that system is referred to as “stochastic resonance.” I believe electrical stimulation employs the stochastic resonance model for optimization of movement and function on two levels. In cases where pain or edema is present in a region of the body, electrical stimulation introduces noise into a system, either to cancel out the pain signals or to hasten the movement of fluid out of a region, so that appropriate function can take place. Inhibition can be overridden in these cases and function restored immediately.

Of course, sustainability of function can only be attained through repetition and retention of the positive patterns. Often, the natural responses of pain and edema formation subside as the brain recognizes that a positive outcome has been arrived at and the body returns to “business as usual.” Once again, disruption can be positive and move the client forward beyond a stagnant homeostasis, with the right amount of noise introduction at the right time and correct frequency.

DH EMS ACL
Image 3. Edema is a real issue with ACL reconditioning, and pad placement is essential for the reduction of swelling and stimulation of strength. Coaches and therapists must be trained on both the anatomical locations and the timing of treatments.


In an alternative scenario, electrical stimulation can improve function by introducing “noise” into a system to enhance muscle recruitment for strength production and overall muscle hypertrophy. A muscle that has experienced disuse or inhibition from injury can easily be brought back online to contribute to supporting the skeleton or moving the body. As mentioned previously, when combined with movement, it becomes much easier to “disrupt” older, less-productive patterns.

I believe that the brain and body yearn for proper function and optimal performance, as evolution has hardwired us this way for the purpose of survival, says @DerekMHansen. Share on X

I am a big believer that the brain and body yearn for proper function and optimal performance, as we have been hardwired through evolution as such for the purpose of survival. Technological innovation has made us much less biologically adaptable, leading to poor habits and patterns. Through electrical stimulation, you can reboot your system to disrupt these poor patterns and get your clients and athletes back on the true path.

Three

Testing the Preparedness and Readiness of the Nervous System

The trauma of injury and the procedures that often accompany injury—including surgeries—can create significant disruptions to the central nervous system and the way the brain interacts with the body. Similar to safety sensors in a motor vehicle, the nervous system will inhibit normal locomotive abilities if it perceives that something is damaged or malfunctioning. Muscle systems can be shut down and reflexes inhibited to protect the organism from creating further damage. As we know, however, these “shutdowns” can inflict further harm by placing the load on other structures that were not meant to handle them, and also create overuse conditions that lead to chronic injury.

Through my experience with electrical stimulation, I have learned to use the device as a diagnostic tool. Anyone who has used electrical muscle stimulation regularly knows that injured or fatigued muscles require significantly more current to stimulate a contraction than a healthy, recovered muscle. This can be used to assess both the preparedness and readiness of a client.

In situations where I am working with a return-to-play case, we begin the session with electrical stimulation on an affected muscle group to assess their general preparedness and where we need to improve. In the case of knee injuries, a basic quadriceps placement can give you all the information you need on where the client is in their rehabilitation process. Where pain and edema are present in a knee joint, it is not out of the ordinary to see an intensity difference of 50-100% in the amount of current required to create a healthy contraction in the vastus medialis of an injured knee. In a more recent case where I was dealing with a post-surgical knee replacement client, we witnessed differences in excess of 200% in current intensity from the nonsurgical to surgical leg.

The fantastic part of this story is that as the treatment progresses—including electrical stimulation work, superimposed stimulation work, and voluntary work—the electrical stimulation device will communicate that these current intensity differences begin to narrow and match up with your client’s feedback in terms of function, pain reduction, and edema elimination.

I use electrical stimulation on healthy athletes to diagnose their overall readiness prior to an intensity training session, says @DerekMHansen. Share on X

Because I have had so much success with electrical stimulation diagnostics with return-to-play clients, I now use electrical stimulation on healthy athletes at the beginning of sessions to diagnose their overall readiness prior to an intensity training session. The session is brief but enlightening. We choose a muscle group that will be involved in the session, or that may have given this athlete problems in the past, and we turn up the current intensity to get a baseline of information that we can use to guide our session. Because we do this consistently, we have a historical database of how this athlete has presented with the electrical stimulation evaluation and how training and performances have progressed over time. It is a fabulous way to evaluate readiness and gain greater confidence in your approach moving forward from day to day and week to week.

DH Functional EMS
Image 4. Functional EMS is about knowing how much movement is necessary to make progress, as simple static isometric postures improves outcomes. The addition of dynamic movement is more valuable only if the athlete is ready, and it’s better to wait than to skip steps or rush phases.


Four

Mechanical and Neurological Work During Periods of Inactivity

In situations where movement is not immediately indicated, such as in the early stages following injury or a surgical procedure, electrical stimulation is exceptionally handy for managing edema formation and muscle atrophy. While I previously mentioned that the majority of my work with electrical stimulation employs movement and loading protocols, there are cases where significant exercise is contraindicated. In these cases, electrical stimulation can be used to facilitate neurological responses as well as subtle mechanical work in the immediate stages following injury or surgery.

In the case of a hamstring strain, I often use electrical stimulation to encourage circulation to the injured tissues to facilitate flushing and, ultimately, repair of the muscle. The stimulation pads are placed peripherally to the injury site to provide a generalized flow of blood to and from the area. The stimulation current is also helpful in managing the muscle tone of surrounding muscles that are often in a hypertonic state in order to restrict movement and shift the load to other structures and muscles. And even in a general manner, electrical stimulation can maintain the health and strength of surrounding muscle groups during the initial moments of inactivity following injury.

DH Team EMS
Image 5. Teams should consider investing in individual EMS units for each athlete, because monitoring compliance and providing home session options will improve results. Athletes may want to purchase their own unit, as it allows them to control their own destiny.


With major surgery such as an anterior cruciate ligament reconstruction, I commonly employ electrical stimulation immediately following the procedure to appropriately manage inflammatory conditions and maintain general muscle fitness at low levels of intensity. Depending on the procedure, I may focus on different muscle groups to achieve the desired outcome. If a central-third patellar graft has been used, I typically focus initially on hamstring and calf pad placements so as not to put tension on the patellar tendon via quadriceps stimulation. Ultimately, we will incorporate quadriceps stimulation after a given period of time to reduce atrophy and begin basic strength work. In the case of semitendinosus grafts, the focus of stimulation will be on the quadriceps for strength and circulatory purposes, but also because quadriceps stimulation can assist with hamstring relaxation and lengthening, which is often a problem following the trauma of tissue harvesting from the hamstrings.

When injury or trauma has been inflicted on an athlete, use of electrical stimulation to manage the negative effects of inactivity is a no-brainer. Ultimately, the goal is to return the athlete to movement and loading as soon as possible, with superimposed electrical stimulation providing the bridge to fully loaded voluntary work. Without electrical stimulation, I have found that timelines lengthen significantly, sometimes with athletes missing those windows of opportunity for increased range of motion, function, and general capacity.

It is important to remember that #EMS stimulates not only the body, but also more importantly, the brain,” says @DerekMHansen. Share on X

It is important to remember that we are stimulating not only the body, but also more importantly, the brain and how this central processing unit perceives the state of the greater organism. Any tools we can employ that improve function and durability, and also convey a message of health, wellness, and competence to the brain, will go a long way to achieving sustainable results for all clients and athletes.

Future Directions

From what I have written, you may think electrical muscle stimulation is a panacea for training and rehabilitation. However, this is where it gets difficult. You need to know how to use this tool and how to adapt your treatment and training approaches to maximize its effectiveness. Uninformed electrical stimulation is simply bad electrical stimulation, and a lack of results will follow. This is exactly why many of the studies using electrical stimulation have fallen short, even though many studies have seen promising results.

Electrical stimulation by itself is not as effective as electrical stimulation superimposed on exercise. More intense electrical stimulation currents are far more effective than “comfortable” intensity settings. I cannot emphasize enough how the timing, frequency, volume, and pad placement details are synergistically important to arriving at superior results. I even promote to practitioners the placebo effect of using electrical stimulation as a visible input to an athlete’s training or a client’s rehabilitation. In the world of smartphones and wearable technology, athletes are clearly more engaged when doing their exercise with a glowing electronic device in their hand that is attached to their muscles, gamifying the experience and giving them control over the ability to contract their muscles. This is the reality that goes way beyond the research.

Electrical stimulation by itself is not as effective as electrical stimulation superimposed on exercise, says @DerekMHansen #EMS. Share on X

My own experiences and successes in this realm have encouraged me to develop a set of courses around the use of this technology to share the benefits with other practitioners in the performance, fitness and wellness, and rehabilitation fields. These courses and workshops will be available to the public very soon. With the right information, you can make significant progress in the life of your athletes and clients in just a few sessions. I see this firsthand on a daily basis, and it has changed the way I work with people. If Bill Gates’ dream was to, “have a computer in every home,” my dream would be to have a high-quality electrical stimulation unit in every health, wellness, rehabilitation, and performance practitioner’s hands.

Since you’re here…
…we have a small favor to ask. More people are reading SimpliFaster than ever, and each week we bring you compelling content from coaches, sport scientists, and physiotherapists who are devoted to building better athletes. Please take a moment to share the articles on social media, engage the authors with questions and comments below, and link to articles when appropriate if you have a blog or participate on forums of related topics. — SF



Lunge

Progressions for Power Training in the Weight Room with John Cissik

Freelap Friday Five| ByJohn Cissik

Lunge

John Cissik is the president and owner of Human Performance Services, LLC (HPS), which helps athletics professionals decipher and address their strength and conditioning needs. He coaches youth baseball, basketball, and Special Olympics sports, and runs fitness classes for children with special needs. Cissik has written 10 books and more than 70 articles on strength and speed training that have been featured in Muscle & Fitness, Iron Man, and track and field and coaching publications. He is also the author of Human Kinetics’ Speed for Sports Performance DVD series.

Cissik specializes in education; strength training for baseball, basketball, track and field; and speed and agility training. He has worked with athletes from high school to Olympic levels. In addition to his role at HPS, he is the director of fitness and recreation at Texas Woman’s University. Cissik is certified by the National Strength and Conditioning Association as a strength and conditioning specialist and personal trainer and by the National Academy of Sports Medicine as a personal trainer and corrective exercise specialist. He has held level I and level II certifications from USA Track and Field and was certified with the former U.S. Weightlifting Federation.

Freelap USA: What are the fundamental movements that athletes need to be good at in the gym before moving on to anything more advanced?

John Cissik: First, keep in perspective that strength and conditioning is about giving athletes the physical tools to be successful in sports and prevent injury. Athletes don’t lift to lift, and they don’t lift to have big numbers—they lift to get better at their sport. So, we’re not training powerlifters, bodybuilders, or Olympic lifters—we want stronger athletes. Among other things, this means that we’re only developing what we need.

Athletes don’t lift to lift, and they don’t lift to have big numbers—they lift to get better at their sport, says @jcissik. Share on X

Now, having said that, I think there are a few movements that are essential for athletes to master in the weight room. Once these are mastered then variations of them always need to be included in an athlete’s strength and conditioning program. To me, squats, pulls from the floor, hip hinges, presses, and rows are essential for athletes. Combined, these exercises train the entire body. Basically, they are also all that an athlete needs from the weight room.

Squats refer to back and front squats, pulls from the floor are variations of the deadlift or the Olympic lifts, hip hinges are RDLs and good mornings, presses and rows are pretty self-explanatory.

After the athlete has performed these exercises for a period of years and mastered them, then variations can be added. For example, bands and chains, split squats, etc.

Freelap USA: What’s your take on the implementation and progression of the Olympic lifts in sports performance?

John Cissik: Let’s start with progression. I take a different approach with athletes than with Olympic lifters. With athletes who use the Olympic lifts to help make them better at their sport, I start with the following:

  1. Back squats
  2. Romanian deadlifts
  3. Front squats

Back squats teach hip movement, using the legs and protecting the lower back. Romanian deadlifts teach the hip hinge. Front squats teach how to rack the bar with the power clean.

From there, I begin with progressions for the power clean. I use the top-down approach that was popular with the old Soviet methods of coaching Olympic lifting. The first few exercises are done from the hang with the bar at mid-thigh:

  1. Slow second pull (i.e., slowly extend the hips, rise up on the toes, and shrug the shoulders up). This teaches the motion of the second pull.
  2. Jump and shrug. This teaches performing the second pull explosively.
  3. Jump and shrug without leaving the ground. Essentially this is a clean pull from the hang. This teaches an efficient second pull.
  4. Power clean, hang, bar at mid-thigh.
  5. Power clean, hang, bar at knee height.
  6. Power clean, hang, bar below the knees.
  7. Power clean from the floor.

Steps 4-7 may take six months to master.

If we’re teaching the power snatch, then I follow the following progression:

  1. Back squats
  2. Romanian deadlifts
  3. Overhead squats
  4. Slow second pull
  5. Jump and shrug
  6. Jump and shrug without leaving the ground
  7. Muscle snatch
  8. Power snatch, hang, bar at mid-thigh
  9. Power snatch, hang, bar at knee height
  10. Power snatch, hang, bar at below the knees
  11. Power snatch from the floor.

I don’t see any point in teaching athletes the full version of the snatch and clean.

Now, regarding whether or not to use these lifts with athletes. These lifts take a long time to learn, and that’s time that’s not spent training optimally (we’re training to learn as opposed to training to improve performance). You are the only one who can decide if that is a good use of an athlete’s time.

If you want the power that Olympic lifts generate without all the technical headache, perform the pull instead of the clean and snatch, says @jcissik. Share on X

These lifts do generate a lot of power and are performed at a high velocity. However, the power and velocity don’t match up to an athlete’s experience in sports. In other words, they are not specific to sports performance; they are still only a general tool.

In addition, keep in mind that the second pull is what generates the power in both the clean and the snatch. Finishing the lift by catching the bar doesn’t generate more power. So, if you want the power that these lifts generate without all the technical headache, then you want to perform the pull instead of the clean and snatch.

Freelap USA: What’s your take on building horizontal versus vertical force production for athletes in the weight room?

John Cissik: The weight room is all about developing vertical force production. All the lifts we do in the weight room are about exerting force vertically. Squats, you stand up. Romanian deadlift, you stand up. Power snatch? You stand up. So, by and large, the weight room develops general strength that can be applied horizontally but does not do a good job of specifically addressing the ability to exert force horizontally.

Is this important to address? Yes. In fact, I’m going so far as to call it a physical ability that needs to be trained in a new book that I’m writing. Research shows that the ability to exert force horizontally has a bigger impact on sprinting speed than vertical force development does. In other words, there’s a strong relationship between horizontal jump performance and sprinting speed, but not necessarily vertical jump performance and sprinting speed.

The weight room develops general strength that can be applied horizontally but doesn’t do a good job of specifically addressing the ability to exert force horizontally, says @jcissik. Share on X

So, if we can’t do a good job training this in the weight room, how do we train it? There are several tools that we can use.

First, horizontal plyometrics. This refers to the standing and running long jump, triple jumps, hops, hops and jumps over objects, etc.

Second, bounds are a great exercise to help teach horizontal force production. They can be bounds for distance (e.g., 40 meters, 100 meters, etc.) or they can be done for a specific distance with the focus on taking as few foot contacts as possible to cover that distance.

Third, sleds are a great way to teach horizontal force application. We can pull or push the sleds. This can be done for distance or for a shorter distance and be done for weight.

Finally, resisted sprints are important for teaching this quality. Here, we need to remember that if speed slows down too much or if form breaks down, then we have too much weight.

Freelap USA: What are your thoughts on the organization of training over an extended period of time? With novice athletes? With advanced?

John Cissik: Let’s start with someone who is not advanced. First, I like a daily undulating periodization model. I like to focus everything around physical qualities and link training modes together. So, a typical week might look like:

  • First training session: Maximal strength, acceleration, plyometrics
  • Second training session: Power, maximum velocity, plyometrics
  • Third training session: Hypertrophy, conditioning
  • Fourth training session (if needed): Hypertrophy, conditioning

The week starts off heavy, which maximally recruits the nervous system. Then the next training session seeks to take advantage of that recruitment (thus, power is day two). The third and fourth training sessions focus on hypertrophy and conditioning (so higher volume, less recovery).

Weight room workouts might look like the following:

  • First training session: Back squats, RDLs, bench press, bent-over rows, military press (all for 3 x 4-8 x 80-90%)
  • Second training session: Power snatch, power clean, clean or snatch pull (all for 3-4 x 60-70%)
  • Third training session (lower body emphasis): Front squats, lunges, good mornings, reverse hyperextensions (3 x 8-15 repetitions per set)
  • Fourth training session (upper body emphasis): Dumbbell bench or incline press, dips, pull-ups, lateral/rear deltoid raises, biceps/triceps

This is a general approach and is preparatory phase training. Special prep training would have two days of maximal strength and two days of power training each week. In-season training is totally different: Basically, the focus is on training as much as the schedule allows (usually two to three times a week).

Because in-season training is so limited, exercises are combined. This is the time to make extensive use of complex training. For example, squats and vertical jumps might be combined, presses and medicine ball throws, etc.

Things are different with advanced athletes. They are closer to their genetic potential, which means we’re not making big gains on strength anymore. At this level, it’s about application of strength and power to the sport. Other changes with advanced athletes include a longer season, shorter off-season, more competitions, and a longer/more extensive training history.

With advanced athletes, my goal is for them to do one more rep each workout until either they can’t make more gains, or they’ve reached their goal range on reps, says @jcissik. Share on X

I don’t do much with percentages at this level. The focus is on improvement. I have a range of repetitions in mind for an exercise; for example, sets of 4-8 on squats. My goal is for the athlete to do one more repetition each workout until either we cannot make any more gains, or we’ve reached our goal range on the repetitions.

For example, our athlete performs back squats. He can lift 350 pounds for five repetitions. Today, he did three sets of five reps at 350 pounds (so 15 total repetitions). Our goal on the next session is for him to lift 16 reps with that weight (so a set of six and two sets of five). This will continue until either the athlete cannot add another repetition or until the athlete does eight reps. When either of those happen, then we will rotate the exercise to one with a similar movement pattern (maybe box squats, squats with bands/chains, pause squats, etc.).

This is done on a large scale for every exercise that is incorporated into the athlete’s strength and conditioning program.

Freelap USA: What have you found to be helpful for reducing the incidence of hamstring injury in athletes?

John Cissik: By and large, hamstring injuries are thought to be about eccentric contractions during the sprinting motion. So, hamstrings have to be trained to be strong in the lengthened position. There are several ways we can address this.

To reduce hamstring injuries, we need to train hamstrings to be strong in the lengthened position. There are many exercises that do this, says @jcissik. Share on X

First, in the weight room, we can do squats and hip extension exercises. The hip extension exercises include Romanian deadlifts, good mornings, back raises, reverse hyper-extensions, deadlifts, and even the Olympic lifts. Second, we need to address this during the warm-up for speed work. Largely, this means marches and straight leg bounds. Finally, we should use bodyweight exercises that train the hamstrings, like crab walks and inchworms.

Since you’re here…
…we have a small favor to ask. More people are reading SimpliFaster than ever, and each week we bring you compelling content from coaches, sport scientists, and physiotherapists who are devoted to building better athletes. Please take a moment to share the articles on social media, engage the authors with questions and comments below, and link to articles when appropriate if you have a blog or participate on forums of related topics. — SF



Plyometrics High School

Plyometric Essentials for the High School Track Coach

Blog| ByGraham Eaton

Plyometrics High School

Plyometrics are often used at the high school level to develop explosive athletes and train the stretch shortening cycle. They can enhance both an athlete’s elastic and explosive power. Like the weight room, too often it seems as though answers are sought here. There are no “white whale” drills/jumps that will yield overnight results.

Rushing to go higher and faster isn’t always better in the absence of consistency, progressive overload, and the teaching of quality movement. While social media videos often show stunts such as vending machine box jumps, it is important to remember that certain athletes can do certain things because of their natural talent or their prior training. One exercise did not make the athlete.

In a season that is 10-12 weeks long for most athletes, it is important to be selective about the usage of plyometric drills. Here’s why:

Transfer Plyos
Image 1. Ground contact times range from rapid sprinting to long change-of-direction movements. Plyometrics are more than just how much time you spend on the ground, but familiarity with durations of exercise contact times is a good start. Derek’s chart is one of the most important resources coaches can use to get a feel for what sporting actions are like from a temporal perspective. (Source: Derek Hansen, sprintcoach.com)


Plyometrics are not our only focus. Blocks, relays, weight room, speed work, plyometrics—something has to give. If we try to do too many things at once or too quickly, it is worse than not implementing anything at all.

If we try to do too many things at once or too quickly, it is worse than not implementing anything at all, says @grahamsprints. Share on X

First and foremost, sprinters should be doing some form of sprinting often. The most elastic, plyometric thing that anyone can do is a maximum velocity sprint. Ground contact times are as low as .08 of a second. This means that plyometric training should support quality sprint training, but it cannot surpass sprint training’s effectiveness. Over the course of the season, patience and quality need to be prioritized over volume and level of difficulty. The prerequisite to plyometric training will be general movements such as skipping. Until this area looks good, depth jumps are just a pipe dream.

Improve the general qualities first, where mistakes are more easily forgiven and less harmful. With large groups, less is always more. Using fewer tools will let the athletes get better from week to week.

Plyometric Progressions

There are a few rules of thumb with regards to plyometric training:

  1. General movements before specific.
  2. Quality over quantity (nothing in a circuit and 20-40 total touches).
  3. Don’t do it under a state of fatigue. (It isn’t CrossFit.) Sprint before plyos and plyos before lifting (unless used as a part of contrast training).
  4. Bilateral before unilateral.1
  5. Slow before fast.1
  6. Low before high.1

That’s it. This heuristic approach keeps things simple because most of my athletes don’t need complicated and yours probably don’t either. This will also allow the tendons and ligaments of athletes with a low training age to properly adapt to the stress of these exercises.1

The drills below are a great place to start.

General Plyometrics/Jumps 

  • Skip for distance
  • Field frolicker/gallops for height
  • Primetimes
  • Ankle pops
  • Single leg drives

These five drills break the rules of “bilateral before unilateral” because they are basically general movements done with a higher degree of intent or maximum bounce. Some, like skip for distance, are more “explosive power” and others, like single leg drives, are more elastic in nature. The best part is they are not time-consuming to teach and the common linkage between these and all other plyos is the postural demands. They can often be part of a specific warm-up or included as main plyo sessions during general prep periods. My best athletes are almost always the best at these movements.


Video 1. General drills have elastic benefits. Just having a challenging warm-up is a good starting point before moving on to conventional plyometrics.

From here, I teach the first couple weeks’ landing drills and the hip hinge. The goal of these is to practice absorbing force. The landing drills are as useful to jumping as decelerating safely is to sprinting.

The entry-level drill is the snapdown from a position of triple extension. I cue the athletes with, “up, knees, ankles, hips” and arms overhead. The athlete “snaps down” into an athletic stance, not unlike the hip hinge drill. I look for the spine to be neutral and the eyes to look out. Stiffness is cued, although this is technically a misnomer as there is knee and hip flexion. What I am really asking is for them to land quickly and powerfully with a good base.

They should aim to keep their weight over midfoot (feel the floor with even pressure on big toe, little toe, and heel), feet under hips, and knees out, limiting valgus. Arms are cued to line up with the torso, shooting through the hips. This puts them in good position to redirect upwards on the concentric portion.


Video 2. Snap-downs are great ways to manipulate the body without creating a lot of soreness. Teaching the athlete to use their arms and range of motion is important when introducing plyos into a high school program.

It all starts here. This is the context for most other plyometrics. They must be able to quickly and repeatedly get to some variation of this position. If this drill doesn’t look decent, athletes are usually not ready for anything else, like hurdle hops or triple standing long jump.

Box jumps aren’t an inherently bad exercise, but they can become something they’re not very quickly, says @grahamsprints. #plyometrics. Share on X

Inevitably, some athlete will pipe up and ask, “When are we doing plyos?” (I’m assuming they mean box jumps.) The answer to that is “we already are,” and can best be summed up with this statement:

“Whatever force you can absorb, you can generate” – Tony Holler

Box jumps are not an inherently bad exercise, but they sometimes become something that they aren’t very quickly.

Jump training needs to improve COM displacement, not hip mobility, a higher box doesn't mean you’re jumping higher! pic.twitter.com/hEcKWcfjLZ

— Lachlan Wilmot (@lachlan_wilmot) September 23, 2016

Using the same cues, you might progress to landings from one step on a stair and then two, again working on stiffness. This gives an opportunity to work further on jumping without the pounding of executing an actual jump.


Video 3. Sticking the landing may not be great for little kids, but as athletes increase their body weight, it becomes a near necessity. Teaching athletes to jump starts with teaching them to land with the even distribution of joints.

These aforementioned landing drills and simple progressions set up the season and the athlete’s overall development, and fall under the bilateral/general categories. Landing and plyometric strength drills are the first boxes that need to be checked. Coach what you see and don’t rush. Your athletes need to learn to absorb and apply force safely and effectively before advancing to the power type plyometrics such as depth jumps, bounds, and high hurdle hops. You can’t be powerful without the presence of strength and technique. 

Getting More Specific (Acceleration-Themed)

From here, you can get more specific. First, consider why you are doing certain plyometrics. There are so many variations out there that it is easy to second-guess yourself. Keep it simple and focus on what you think is essential with your current group of athletes.

Shifting to a narrower focus with good movement as the aim is better than trying to do it all. From a dynamic correspondence standpoint, one of the most common usages is to program plyometrics into an acceleration or max velocity complex. Acceleration is commonly referred to as “pushing,” and max velocity as “bouncing” or “dancing with the ground.”

Consider why you do certain plyometrics. Shifting to a narrower focus with good movement as the aim is better than trying to do it all, says @grahamsprints. Share on X

Below, activities A and C serve as reinforcement and context for learning acceleration technique to be used during the “B” sprint exercise.

a) Acceleration drill (2 minutes rest)
b) Acceleration (2 minutes rest)
c) Jump/plyo (longer rest period)

Adhering to the “slow before fast” guideline, these drills are first done with no countermovement. I like to start early season, with a three-second pause before exploding in the concentric phase on acceleration-themed days. So, in essence, we have a bilateral-specific-slow variation. I like these for several reasons:

  1. Teaches the athlete to get into an optimal position for good force application on the concentric portion.
  2. Mimics the acceleration phases of sprinting with longer ground contact times.
  3. Eliminating the countermovement reduces stored elastic potential energy that would be maximized with the stretch shortening cycle (similar to a block start). Three simple exercises specific to acceleration (longer, purposeful pushes) are ankle rocker jumps #1 (knee/no CM), #2 (knee & hip/no CM), and #3 (knee and hip with countermovement), stair drop to jump, and med ball diaper toss. These are all done with a three-second pause first. These all follow logically from the hinge and landing drills. I’m not sure you need to get too varied with the movements unless these become stale.


Video 4. Technically, pausing the landing and holding is not plyometric training, but teaching the entire movement from start to finish as soon as possible is vital for coaches who have little time. Groups can perform this drill safely and effectively.

Med ball diaper throws are great if the ability to hinge correctly is present. Start with a light load, as the usefulness of the med ball is less about the resistance it provides than the ball serving as an external cue to explode with the knees, ankles, and hips through the floor and finish with arms overhead. Once these look good in terms of the hinge and hip/leg drive, we add in a countermovement. High school athletes often use just their arms when first learning basic med ball throws. They should be cued to throw with their legs.


Video 5. Most medicine ball exercises are not plyometric, but they do help coaches teach jumping. Some medicine ball throws are more elastic and eccentric, but only if a rebound motion is involved.

Ankle rocker jumps have been popularized through the teachings of Chris Korfist and his foot/ankle complex work. Ankle rockers jumps are an excellent way for athletes to work on achieving the positive shin angles used during the acceleration phase and developing power at the end range of their ankle mobility while driving through the shin and finishing with the big toe. Going barefoot is a great option here to increase foot awareness.


Video 6. Ankle rockers are perfect for beginners learning to jump. In addition to teaching, ankle rockers reveal a lot about an athlete’s range-of-motion abilities.

Later, you can add in the countermovements and then continuous CMJ to further focus on powerful pushes. 

Unilateral Acceleration-Themed

As far as unilateral work, sprinting is already unilateral, so outside of the general jumping drills in the first section, there isn’t much of a need to overshoot too much here.

Unilateral work and bilateral work in different planes, like the Altis Rudiment Series, can be plugged into warm-up routines, lest our multi-sport sprinters become solely “sagittal monsters.” Even though our sport isn’t about agility and change of direction, some of the athletes do sports where that is the case.

These are great for general hopping rhythms and good contacts as close to midfoot as possible.

In the past, I have programmed dynamic single leg step-ups and box pops during general prep periods, but I can’t always get to it due to having only a few boxes at the appropriate height (thigh less than parallel on box). Single leg stair drops (Korfist inspired) also develop lower limb stiffness and improve unilateral force absorption.


Video 7. Single leg hops and single leg emphasis exercises can vary in intensity and complexity. Often exercises can be low-grade plyometrics and gradually add intensity later.

These are a good point of entry with unilateral plyos. I don’t rush to the advanced items on the unilateral menu because, as long as our athletes are sprinting and getting stronger first, I can afford to be patient. Progressions made too quickly without basic movement pattern work can severely dilute the quality. It is better to sharpen the tools you have first than to worry about adding more tools to your repertoire.

It’s better to sharpen the tools you have first than worry about adding more tools to your repertoire, says @grahamsprints. Share on X

Getting More Elastic (Max-Velocity-Themed Plyometrics)

Again, keeping it simple means matching up the plyometric with the sprint task. The only difference here is that instead of a blocked complex (a, b, c) like with the acceleration theme, I would run it as a series complex (a, a, a, b, b, b, c, c, c).

a) 20m dribble x 3 (mechanics and warm-up) with 3 mins between.
b) 10m timed fly x 3 (max speed metric) with 4-5 mins between.
c) Elastic plyometric to support max velocity training x 4 (5 reps per set). The series format allows the athlete to devote their full attention to each exercise and not fatigue themselves for their sprint reps. A and C still support B, but it keeps the sprint rep the main thing.

Entry level max-velocity-themed plyometrics (fast and shorter ground contacts) include:

  • Partner-assisted pogos
  • Unassisted pogos for height


Video 8. Partner pogos are popular because they are less stressful on the body and add to team culture. Pogos are great for all ages and abilities, but are mainly for youth athletes.

There is tremendous value in pogos alone when talking about developing elastic power and maximizing an athlete’s bounce and stiffness. These are easy to teach and a great introduction to elastic plyometrics of the high and fast variety. They are also a great way to screen bad posture, body movement, and incorrect foot placement before advancing to hurdle hops (low then high) and depth jumps. 

Unilateral Work

Bounding is the best example of unilateral plyometrics with short ground contacts. Unless the athletes are proficient with bilateral work, I don’t overshoot here either. A good place to start is the “walk the dog bound.” A partner holds the athlete’s opposite leg while they sync up their arms with the cycling of their free leg. The free leg should land with flat-footed contact and have minimal collapse in the hips. Simple to do, but not easy. The partner hold gives a slight assistive lift so the jumper can focus on keeping their optimal posture. This is also a great drill to identify prospective triple jumpers and then start to develop quality ground contacts under their center of mass.

After some time working on this drill, the partner hold could disappear and they can try to replicate the quality of the rep with a regular single leg bound.

Alternate bounds often aren’t the best option in a workout—especially with athletes who are solely sprinters and not jumpers—because they are too advanced.  I may periodically include them in warm-ups, where I can monitor and coach them with the whole group without wasting too much time.


Video 9. Walk the dog is another exercise that, if done right, teaches hops in a fresh way. The key is to ensure the hips are balanced and the foot is in front of the center of mass.

Simple Testing Plans

As coaches, we like having metrics to show that what we do works. It motivates us and promotes athlete buy-in. Looking ahead to the spring season, I want to include more data and testing. We have tracked our speed work during the last couple of years, but I have been unsure how to effectively and easily measure the jumps without creating a ton of work for myself. I know there is value here, but with large groups and an absence of fancy testing equipment to handle the logistics, it seems like a daunting task. After some thought though, I may have an imperfect solution.

On our two short sprint days during the first week, we will administer a triple standing long jump (three-hop test) or standing triple jump test to our athletes using the hash marks on the football field. I like these two tests because they are easy to teach and correspond highly to acceleration ability. One is unilateral and one is bilateral. They can help identify power athletes and which newcomers may be jumping candidates on day one.

Athletes will start at the end zone, lined up on the hash marks. Including the lines near the out of bounds, this gives us four “zones” to get the jump tests in simultaneously. Athletes can take their multi-jump attempt with a captain/spotter marking at each station with a yardstick. If an athlete sticks their landing past the 7-yard mark but not the 8-yard mark, the captain will spot and use the yardstick to measure the additional feet and inches from the 7-yard line (21 feet).

This poor man’s test should raise the intent and it adds another opportunity to record-rank-publish. The volume is low enough that even a complete novice will be fine. This will give you a starting number.

After athletes work on force absorption and application with the simple progressions mentioned previously, we retest them at the end of their general prep period (April vacation), and again before the postseason. 

Sprinters First

High school track coaches have limited time and are not always able to provide a focused lesson. The above progressions are not perfect, but they are simple to do. The No. 1 goal is speed development. Plyometrics are a training piece that, when used in low dosages, can reinforce good habits and develop strength and explosiveness.

Providing basic #plyometrics matched up with the day’s theme is a simple way to implement plyometrics without #overtraining, says @grahamsprints. Share on X

It is easy to get caught up in the hype of high box jumps and the latest cool, complicated exercise. It is important to remember that most of our athletes are developing and need simple and repeatable exercises. If, at the end of the day, their movement and efficiency improve, then how they got there doesn’t matter. Providing basic plyometrics matched up with the day’s theme is a simple way to implement plyometrics without overtraining. For sprinters already sprinting three to four days a week, quality over quantity is the way to go.

Since you’re here…
…we have a small favor to ask. More people are reading SimpliFaster than ever, and each week we bring you compelling content from coaches, sport scientists, and physiotherapists who are devoted to building better athletes. Please take a moment to share the articles on social media, engage the authors with questions and comments below, and link to articles when appropriate if you have a blog or participate on forums of related topics. — SF



References

1. Max Aita. Strength Development for Weightlifting.

Personal Trainer With Clipboard

5 Keys to Go from Writing Programs to Running ‘A Program’

Blog| ByCarmen Pata

Personal Trainer With Clipboard

Let me ask you a simple question: Are you writing programs, or are you running a program? Yes, it’s a basic question, but it’s not an easy one to answer. I asked this same question of a coach I met at the NSCA Coaches Conference this past January, and like many of the other coaches I’ve talked to over the years, this particular coach responded with the same puzzled look everyone else had.

I like asking this deceptively innocent question because I want to see people thrive. There are so many things that are out of our control but still have such a huge impact on every training session that it would drive anyone crazy to try to plan for all those contingencies. A better approach is to spend time developing your ideas for what you can control. By my own trial and error, I’ve found that if you let athletes treat their training session like an “open house,” not only will their training results be mediocre at best, but you will spend more time dealing with petty issues than actually coaching.

Spend time developing ideas for the things you can control, and don’t drive yourself crazy trying to plan for every contingency, says @CarmenPata. Share on X

Instead, if you invest the time to make your expectations clear and start with those ideas, well, that changes things completely. Some people call that establishing your culture, but to me it’s more than that. Culture, to me, is how one group operates both inside and outside of a training session.

At my school, we have 19 sports and each of them has their own way of doing things, which is their culture. When each and every one of those teams and their athletes come into a training session, their culture is evident, but it also takes a back seat to something else—the athletic performance program. Because everyone experiences the same thing, it means that they have entered a brother and sisterhood together, which makes them a family.

Returning to the coach at the NSCA conference, our conversation started in the typical way. After leaving one of the presentations, we started talking about some of the ideas that were introduced and naturally asked about each other’s program. His story sounded all too familiar: multiple teams, more athletes needing help, and no assistants to provide greater coverage.

A few minutes into our conversation, he pulled out his computer and his mood changed. After initially looking defeated—shoulders slumped, head down—now he spoke with evident pride. There was a big smile on his face, his head and shoulders were up, and he was ready to show off everything he’d built on his laptop. To give credit where credit’s due—it was amazing. He had built a dynamic macrocycle for every team he worked with. I say dynamic because, with the click of a button, the program scrolled through each and every athlete on the team, adjusting their training load, and changing multiple charts and graphs on the spreadsheet with each person. I can only imagine the amount of work it took to develop this system.

As we kept talking, I let this coach detail everything he had programmed. His macrocycle laid out on an Excel sheet was a thing of beauty. Ever factor that could be accounted for was: set and rep schemes, running sessions, and monitoring systems were all set up perfectly for each team’s in-season and off-season work. I was a little jealous of his layout. All of this looked amazing on the computer, and if I was teaching a class on periodization, he would have gotten an “A.” After looking at all of this for a few minutes and hearing his rationale for why he was doing this and that with his athletes, I asked the next logical question: “How is this going?”

From the change in his body language, I could tell it wasn’t going well. He talked about how the athletes were not buying into his programs, the coaches were demanding things he couldn’t deliver on, and no one was taking him seriously. I felt his pain, because I’ve been there. When I landed my first job, it was all about programming the best workouts possible, reading every book or article on periodization, and researching what the top athletes around the world were doing. At that time, I didn’t understand that before you can work magic manipulating the acute and chronic responses to training, you first have to be able to run a program.

Before you can work magic manipulating the acute and chronic responses to training, you first have to be able to run a program, says @CarmenPata. Share on X

This was the exact same issue this coach was running into, except he hadn’t recognized it yet.

Let me explain. Being a strength coach is a tough job and, while I’m in charge of what happens at each and every training session, I ultimately don’t have the final say on many things outside of what happens in the gym. While it’s common for me to be referred to as the head coach of the off-season—which I do appreciate—that title carries very little weight, as I will almost always lose an argument to a team’s actual head coach.

In moments like this, where the views that I have conflict with the views of the head coach, I don’t hold any grudges. The head coach and I are both trying to protect the integrity of our programs. Yes, strength coaches have to be able to apply the right amount of stress at the right time in order to force adaptations to the body—but, if you are the head coach, your duty is much greater than that. Protecting the integrity of the program is the ultimate job of the head (strength or sport) coach.

This is what the coach I was speaking to at the NSCA clinic didn’t understand yet. He was so concerned about programming the right exercises for the athletes that he lost perspective on how to run his program. By perspective, I’m not talking about his set or rep scheme, or style of program (like Westside, Triphasic, H.I.I.T., weightlifting-based, or any other style), because those ideas will always be in a state of change depending on the trends and research in our industry.

You don’t have to look too far for examples. It feels like if you still catch or receive a bar in a clean or a snatch, then you are “old school” in your training programs. If that hits too close to the heart, think about all the balance or unstable surface training tools that were “must-have” equipment and in vogue about a decade ago. Both of those examples are part of the overreaction and under-reaction cycles that we all experience, but the integrity of a program is something completely different.

The integrity of a program consists of those founding ideas that never go out of style and give your program substance over the years. While the ideas that are central to my program may not be the same ideas you find important, they are the things that make my program different than those of other coaches. Sure, like every program in the world, we do some sort of variation of the bench, squat, and clean; we run; and we perform all sorts of different jumps.

A program’s integrity consists of those founding ideas that never go out of style and give your program substance over the years, says @CarmenPata. Share on X

Unlike many programs, the principles of how we expect athletes to behave are not up for debate: It is simply the way that we do things. If athletes don’t do things correctly, there will be a consequence. Being consistent with those consequences is the key to all of this. Whether they are an All-American or a walk-on, it doesn’t matter to our coaches. The message to the athletes is the same: If you mess up, be a man or woman and admit it. Suck it up and accept the consequences. Then put it behind you and move on.

One

Dress Code

If you walk into our gym at any given time, you will notice a uniform look for all of the athletes. It doesn’t matter the team: every athlete wears a grey workout shirt and full-length black shorts. There is not a cutoff or a hat to be found. Everyone has their shoes tied and their socks on. Male or female. It doesn’t matter who you are or what team you are on, everyone wears the same uniform.

This is another layer of our athlete readiness screen, making sure that the athletes haven’t merely shown up for their lift, but have actually thought (no matter how briefly) about being ready for it. I admit that this idea was taken from the military and how they handle their recruits. Much to my dismay, we can’t have a standardized haircut, but since everyone looks the same with the way they dress, it helps reinforce the idea that they are all part of the same program, no matter what sport they play.

Two

Body Language

Have you ever been watching a game and you just knew one side had given up? How could you tell? Most likely their heads were down, their shoulders slumped, and there was an overall lack of energy. Body language, either positive or negative, doesn’t whisper—it screams. Since body language is on the list of traits people can control, it is something that we can train and improve. In order to do that, people must be aware of what their body language says.

We call out people that display poor body language in the middle of their workout. If that doesn’t help fix the issue, using a camera usually does. We take pictures of the person and ask them: Do you look like you are adding energy to the room? Do you look like what you’re doing is important? What would happen if your entire team acted like this? Being confronted with the cold, hard evidence that pictures or videos can provide usually fixes their bad body language.

Three

Earn It

The book by legendary football coach Woody Hayes, Hotline to Victory, contains a line that was one of the most impactful phrases in my coaching and personal life. “Any time you give a man something they haven’t earned, you cheapen them as a person.” Once I really understood what that line meant, it immediately changed the way we coached our athletes. From calling depth on their squats to getting a compliment or a “good job” from me or my staff, it doesn’t happen unless that feedback is actually earned.

Needless to say, some of our athletes have a hard time getting used to this idea. They have been given simple but unearned compliments by coaches who, when they don’t know what else to say, will throw out a default “good job.” Don’t get me wrong, we encourage our athletes all the time. We are the biggest fans and supporters of everyone that walks through the door. However, if they want to pick a song to play, to catch a clean or snatch, or even to receive a compliment, first they have to earn it.

Four

Celebrate

There is a flip side to demanding that athletes earn their privileges: When they do earn the right to move on to something new or they set a new personal record, you have to celebrate with them. Take a moment and put yourself in the mind of a young athlete. They have tried and tried and been stuck in what they’ve been doing. Day after day, they have remained more or less the same—until, one day, something changes. All of a sudden, what was impossible yesterday is now something they can do today.

When our athletes achieve a breakthrough or personal record, everyone in the gym celebrates it with them, says @CarmenPata. Share on X

Some people call it a miracle, some people call it a breakthrough, some people call it a personal record. I call it the result of hard work. In the gym, we have an old bell mounted on the wall and any time an athlete sets a new personal record, they ring the bell and everyone in the gym celebrates with them. The bell ringing signifies all the hard work the athletes have put in to earn these breakthroughs. It’s an amazing moment, and one that needs to be celebrated.

Five

Accountability

If I had to narrow down the most important part of our program to one word, it would be this: Accountability. Everyone is accountable for their own actions. Of everything that we teach in the weight room, getting people to understand that they are responsible for everything they do is by far the hardest part of our job. It takes time, but we start by having the athletes stop making excuses by showing them how ridiculous they sound.

We always go back to the idea that you are accountable for your own actions and for your response to what happens around you, says @CarmenPata. Share on X

It’s difficult, because the excuse always sounds good to the person making it. For example, when an athlete oversleeps and misses a morning workout, we usually hear “My alarm didn’t go off, Coach.” No, no it didn’t. You didn’t check to make sure it was on or the volume was turned up before you went to bed, or you didn’t ask a teammate to call you to make sure you were up. Some people grasp this faster than others, but we always go back to the idea that you are accountable both for your own actions and for how you respond to what is happening around you.

Certain Concepts Never Go out of Style

After I laid out these ideas, that other coach and I sat in silence for a few moments. I could tell that his brain was spinning, trying to unwrap everything that I had just talked about. I’m sure he was expecting that our conversation would be about the specific training programs that we use, not the broader coaching points that we talked about instead.

If you stick around strength and conditioning for long enough, you will notice that many things that were once popular fade away for a while, only to come back again in the future. You don’t have to look too far for examples. Consider the debate about carbohydrates. First, they were good for people. Then, they were bad. Wait, are they good again now? You see what I mean.

Depending on scientific research and overall popularity, people can have their opinions swayed about all sorts of things, including the best type of programming you can do for athletes. That’s why I’m not particularly attached to one set or style of workouts—it will most likely change sometime in the future. I am, on the other hand, always attached to running the best program I can.

While I’m not particularly attached to one set or style of workouts, I’m always attached to running the best program I can, says @CarmenPata. Share on X

In order to run that program, there are things we put in place that help guarantee everyone has the same experience. These ideas—which you’ve read—are the right ones for me, but they might not be the right fit for everyone, depending on their coaching situation. If these aren’t right for you, use them as a starting point for a conversation about which important ideas you will hold your athletes accountable to.

The ideas that you come up with are more important than any sort of set and rep scheme, or whether or not you are going to catch a power clean. I’ll leave you with the same final question I asked the coach I was talking to at the NSCA conference: Are you running a program, or simply just programming?

Since you’re here…
…we have a small favor to ask. More people are reading SimpliFaster than ever, and each week we bring you compelling content from coaches, sport scientists, and physiotherapists who are devoted to building better athletes. Please take a moment to share the articles on social media, engage the authors with questions and comments below, and link to articles when appropriate if you have a blog or participate on forums of related topics. — SF



In-Place Running Band

How to Develop Athletes with In-Place Running

Blog| ByHunter Charneski

In-Place Running Band

I don’t care if you are an athlete, coach, physical therapist, or fitness enthusiast. If running is required for your success, then this article is for you. Financial constraints, poor weather conditions, and/or an abundance of information to sort through can leave you scrambling to determine what your best option(s) may be to achieve results. I propose a simple answer: in-place running.

In-place running can effectively accommodate speed development, tempo running, and return to play, says @huntercharneski. Share on X

Regardless of your role, I am going to guide you through three training modalities that in-place running can effectively accommodate:

  • Speed development
  • Tempo running
  • Return to play

In-Place Running: Speed Development

I don’t often speak in absolutes, but I really believe that the ubiquitous trait everyone wants more of is speed. So how do we go about enhancing this quality by merely running in place? The simple answer is ground-contact time (GCT), or rather, a lack thereof. How do we limit ground-contact time through in-place running? I have found success for myself, athletes, and other coaches with the help of Gerard Mach’s work. 

Gerard Mach

Gerard Mach is one of the more prominent track coaches to ever walk this earth, so let’s just get that out of the way. Second, he is notorious for his “A’s, B’s, and C’s”—more commonly known simply as “Mach Drills.” Since I want this process to be (perceived as) creative, not cumbersome, I will delve into the “A-Drills” exclusively.

Mach originally designed and implemented these drills to accommodate his athletes in the winter months, when weather was unbearable and space was sparse. The A-Drills have a myriad of benefits, including (but not limited to):

  • Posture
  • Limb mechanics
  • Rhythm
  • Technique
  • Elasticity
  • Strength
  • Power

Once the weather became warmer and more sprint-friendly, these drills transferred seamlessly to the track. The A-Drills are as effective as they are timeless, which makes them a perfect match for anyone with time constraints.

Modification and Application

Now, I understand that many of you are not elite-level sprinters and/or are not working with elite-level sprinters. Therefore, I will modify the means to help you on your quest for speed by using an elastic band harnessed around the athletes’ hips:

  1. Banded A-March
  2. Banded A-Skip
  3. Banded A-Run(s)

I know it looks fairly benign, ineffective, or like not “enough work,” per se. Follow and trust. I would rather you maximize the mundane than fall prey to outside entities that are complex and unintentionally incompetent.

In order to reap the benefits of the A-Drills, I highly suggest tethering the athlete(s) to a power rack, squat stand, or something similar. The band serves you and your athletes in many ways:

  • Less movement restriction, as the band provides a sense of security for the athlete. It feels safer, which allows for more natural, free-flowing movement, especially in the upper extremities.
  • Excitation is one thing, but inhibition is another thing entirely.
  • Clean up foot-strike patterns, making it nearly impossible for the athlete to not step directly underneath their center of mass.
  • Increase general strength and strength specific to running fast.
  • Appease both the athletes and outside entities, as it is tangible and gives the illusion of “hard work.”
  • “Pulls” the athlete into more optimal angles, whether acceleration or max velocity.
  • Organic development of front-side mechanics.
  • (Pertaining only to A-Runs): The band’s level of oscillation lets the coach know whether or not the athlete is keeping their frequency high enough to achieve the desired result. If the athlete’s frequency is subpar, the band will reveal a great deal of “up and down” action, (meaning their hips are dropping with each cyclical action). Conversely, if the band appears to be steady, that is a good indication of great vertical displacement between their hips and the floor.


Video 1. We mainly use the Banded A-March as a means to develop and enhance an athlete’s posture and proper limb mechanics.


Video 2. The objective of the Banded A-Skip is to develop rhythm and relaxation for the athlete to transfer to sprinting.


Video 3. The Banded A-Run is a phenomenal means to develop elastic qualities and reduce ground-contact times, both of which are essential to faster running.

Regardless of the variation, the quadriceps and hip flexors (both are kind of important for acceleration-based sports) propel the action in all three exercises. Simple doesn’t sell, but it works. Sometimes we need to tell the consumer what they need, right? Like Henry Ford said, “We don’t need faster horses, we need cars.”

The application of the A-Drills to your situation is just as simple as their modifications above. No different than an ideal speed session, we should be transitioning our athletes from slow to fast, or longer GCT to shorter GCT, right?

Makes sense, right? Fast individuals spend less time on the ground. Knowing this, why wouldn’t we train our athletes to mimic—or come close to—the GCT needed in order to run fast?

Table 1: The structure for an in-place running speed session.
Means Sets/Reps Rest
Banded A-March 3-4 sets x 10-20 sec. / 10m Partner’s set / Walk back
Banded A-Skip 3-4 sets x 10 sec. / 10-15m Partner’s set / 40 sec.
Banded A-Run 3-4 sets x 5-10 sec. / 10-15m 60 sec.

Band Acceleration Velocity
Image 1. The band can “pull” the athlete into optimal angles for acceleration (A) or velocity (B).


If your thirst for novelty needs to be quenched, you can play around with the varying step-over heights and angles of the athletes.

“Is that it?” Yes. That is all. I am a fan of brevity. With everything else on your plate (warm-ups, jumps, throws, plyos, lifting, cool-downs, etc.), the simplicity of this session will be more than sufficient to move the needle on getting faster.

In-Place Running: Tempo Running

Speaking from first-hand experience, I have found tempo running to be one of the most, if not the most, beneficial rejuvenation means for human optimization, second only to a good night’s sleep.

#Temporunning is one of the most beneficial rejuvenation means for human optimization, says @huntercharneski. Share on X

What Is Tempo Running?

I was first made aware of tempo running through the work of the late, great Charlie Francis. In short, tempo running consists of interval-based runs aimed directly at building work capacity. Charlie had two subcategories for these:

  1. Extensive tempo
    1. Lower velocities
    2. Aerobic
    3. Develops general fitness
    4. Promotes recovery via circulatory mechanisms
  2. Intensive tempo
    1. Higher velocities
    2. Adaptation to lactate tolerance as well as removal
    3. Strength endurance
    4. Useful for those performing in aerobic/anaerobic sports

Modification and Application

Whether your aim is directed toward extensive or intensive tempo, in-place running with an elastic band can accommodate either protocol.

Table 2: In-place running comparison. Banded in-place running can accommodate both extensive and intensive tempo runs.
Tempo Running Equivalent
Tempo Runs Banded In-Place Running
100m 30 sec.
200m 40 sec.
300m 60 sec.
400m 75 sec.

Having experimented on myself with the above equivalents, there are two points I must stress to practitioners who wish to apply this to their situation:

  1. Work-to-rest ratios of 1:1 are more than sufficient, provided the intensity is submaximal (less than or equal to 75%*).
  2. Execute in a lower amplitude Running A fashion. I suggest a shin step-over. The frequency will be high enough to limit GCT and provide a circulatory effect, yet low enough not to blunt recovery and disrupt the central nervous system.

*An easy, practical way to gauge proper aerobic intensity: You should be sweating, but the difficulty should not make it impossible to hold a conversation with yourself or your workout partner(s) during the session.


Video 4. In-place tempo run with bands.

How Much Tempo Running?

As Derek Hansen’s work has shown, the amount of volume needed per session, as well as on a micro-cycle basis, depends on the demands of the sport. Here is what Derek has suggested, along with the equivalents I have provided:

Table 3: Tempo running volume. One set = 30 seconds of in-place running with a band.
Athlete Per Session Banded In-Place Running Equivalent Per Week Banded In-Place Running Equivalent
Football Lineman 500-1000m 30 sec. x 5-10 sets 1,500-3,000m 15-30 sets
Football LB & RB 1,500m 30 sec. x 15 sets 4,500m 45 sets
100m Sprinter 1,600-2,200m 30 sec. x 16-22 sets 4,800-6,600m 48-66 sets
Basketball (Interior) 1,800m 30 sec. x 18 sets 5,400m 54 sets
Football Skill 2,200m 30 sec. x 22 sets 6,600m 66 sets
200m Sprinter 2,000m-3,000m 30 sec. x 20-30 sets 6,000-9,000m 60-90 sets
Basketball (Perimeter) 2,500m 30 sec. x 25 sets 7,500m 75 sets
Rugby (Forward) 3,000m 30 sec. x 30 sets 9,000m 90 sets
400m Sprinter 3,000m-4,000m 30 sec. x 30-40 sets 9,000m-12,000m 90-120 sets
Soccer (Center Forward, Center Attacking-Mid) 4,000m 30 sec. x 40 sets 12,000m 120 sets
Rugby (Back) 3,000m 30 sec. x 30 sets 9,000m 90 sets
Soccer (Outside) 4,500m-5,000m 30 sec. x 45-50 sets 13,500m-15,000m 135-150 sets

With traditional tempo running, upon completion of the set(s), you will walk the length of one working rep (i.e., ~100m). With banded in-place running, just simply idling for 60 seconds has been more than sufficient, in my experience. We are not reinventing the wheel here. We are simply being innovative. As far as the exact sets and rep scheme(s) are concerned, I’ll leave that to you, as you know what will keep your athletes’ output and engagement at a high level.

In-Place Running: Return to Play

A little over a year ago, I decided to go “all in” on sprinting. To better myself, of course, but also to become a better coach for my athletes. In doing so, I had to piece together more than four years of athleticism that had been lost since my time as a collegiate athlete. Throughout that process, I had more injuries than I can count on both hands and feet. Pulled hamstrings, torn plantar fascia, deformed gastroc, you name it.

Fortunately, as Ryan Holiday wrote in The Obstacle Is the Way, I was able to turn a perceived problem into a tremendous triumph. Each injury was another wonderful learning opportunity. With the help of Derek Hansen and his return-to-play (RTP) protocols, outside entities had a difficult time discerning whether or not I was injured. Why? I was training.

When it comes to RTP, medical professionals are chomping at the bit to throw you in a boot, cast you up, and/or completely immobilize your periphery for no less than 6-8 weeks. If you ask me, this is beyond stupid: It is damn near malpractice!

Imagine—considering you’re healthy—putting one of your legs in a boot for six weeks. After that time has come and gone, you will be extremely detrained, weak, and in bad shape, right? Knowing that, why the hell would you put someone who is injured in that position? Why not make tiny steps in the right direction every day rather than standing still? Nurture > Nature.

Return-to-Play: What

In-place running with the help of a band (depending on injury) has served me and those I have worked with very well. Injuries that have been remedied with this method include:

  • Torn Achilles
  • Torn Plantar Fascia
  • Torn Pectineus
  • Torn Gastroc
  • Low Back Strains
  • Torn Pec Major
In-place running with a band has helped my athletes return to play (depending on the injury), says @huntercharneski. Share on X

Return-to-Play: How

With in-place running being an effective rehab process, the next question you may wonder is, “How is it so?” I’m sure I sound like a broken record when I say ground-contact time is the answer. Now, if you have a high-speed camera (120 frames/second), you can easily see whether or not the GCT is comparable to before the injury happened. Me? I trust my eyes. If the injured athlete is achieving four or more strides per second, then I know we are on the right track. How? Because I have been there myself.


Video 5. Using in-place running with the help of a band in return-to-play based sessions.

Begin your athletes with higher frequencies and lower amplitudes. From there, it is no different than the accumulation of volume in any other aspect of training. An example:

  • Day 1:
      — Dribble 3 sets 10 sec. in an every minute on the minute (EMOM) fashion.
  • Day 2:
      — Dribble 4 sets 10 sec. in an EMOM fashion.
  • Day 3:
      — Dribble 4 sets 20 sec. in an EMOM fashion.
  • Day 4:
      — Higher amplitude means (Ankle Step-Overs) and follow same set and rep scheme as the following days before progressing to higher amplitudes.

But what about training surface? I’m glad you asked! Depending on the injury, of course, you may want to start your athlete(s) on sand, grass, or turf, before going to a harder, more elastic surface like your gym’s flooring.


Video 6. Training on sand as an option in return-to-play scenarios before moving on to harder surfaces.

Okay, GCT makes sense for all lower-leg injuries. Now sell me on how in-place running remedies injuries in the trunk! No sweat. Watch what is happening during in-place running—no matter the amplitude.

What is happening? An abundance of contractions throughout the torso (provided the arm action is appropriate) induces a great level of blood flow to the area. Over the course of 3-4 sets, there will be some upper body hypertrophy induced. My friend and colleague, Thomas Bowes, suffered an acute low back strain and he could not extend his hips. What were we to do? Simple: “micro-extensions,” if you will, with Dribbles and Ankle Step-Overs until he was able to fully extend his hip through Running A’s. 


Video 7. Thomas Bowes performing Dribbles and Ankle Step-Overs in process of recovering from acute low back strain.

From there, ask questions, receive feedback, trust what your eyes are seeing, and be a coach. That should give you all the information you need to determine the next day’s surface, means, and intensities. At the end of the day, the RTP protocol of your choice boils down to the SAID principle: Specific Adaptations for Imposed Demands.

What adaptation are you pursuing? Apply the means with careful vigilance and base your decisions on what the athlete is presenting.

A Sensible Approach

The industry is at a crossroads. On the left is the way things have always been done: novelty-based, convoluted, and full of pitfalls. On the right, however, is a smooth, simple, and, dare I say, “boring” path to success.

Whether your situation inhibits an ideal speed session, lacks a facility and climate for work capacity training, or needs to get back to health, I believe there is a place for in-place running despite its lack of pizzazz.

In a day and age where young coaches are easily influenced by random acts of buffoonery on social media, it seems as though common sense isn’t so common. Nutty is now the norm. My advice falls in line with what Mark Twain once said, “Whenever you find yourself on the side of the majority, it is time to pause and reflect.”

Since you’re here…
…we have a small favor to ask. More people are reading SimpliFaster than ever, and each week we bring you compelling content from coaches, sport scientists, and physiotherapists who are devoted to building better athletes. Please take a moment to share the articles on social media, engage the authors with questions and comments below, and link to articles when appropriate if you have a blog or participate on forums of related topics. — SF



Girls Soccer

The Evolution of Flex (or Multisport ≠ Multiple Sports Simultaneously)

Blog| ByNathan Huffstutter

Girls Soccer

“Wait, I know, wait,” she says, her eyes alive with inspiration. “Before warm-ups, we should do a team icebreaker!”

The Scene: April 2018. Del Mar, California. The first spring practice to kick off the Flex soccer team’s second competitive season, with more giggling and oh-my-goshes than quality touches as the players gathered for a pre-warm-up routine of partner juggling. Pair upon pair, each shanking balls off shins and knees due to a combination of rust, social exuberance, and those spring growth spurts that alter a young athlete’s basic spatial kinematics. The introductory icebreaker—pitched by the team’s free-spirited holding midfielder—was equal parts ironic and sincere: The girls needed no introductions and had, after all, just wrapped up our inaugural season two months earlier.

On the other hand, nowadays taking a couple months completely away from a competitive sports team feels like forever and is—as the players recognized—unusual.

“Okay, okay,” she says, waving her teammates into a circle. “Everyone say your name, where you go to school, and your favorite ice cream topping.”

The Art of Juggling

Two years ago, none of the players on the Flex team (introduced in “How One Club Is Changing Youth Soccer”) could juggle a soccer ball. Currently made up of 7th and 8th grade girls—multi-sport athletes who also compete in softball, field hockey, flag football, volleyball, rock climbing, gymnastics, rugby, swimming, tennis, and basketball—the team is fast, physical, and aggressive. Compared to the year-round club teams they’ve been playing the past two seasons, they are also, at times … technically outclassed.

Rankings
Image 1. Cal South team rankings from the Flex team’s first post-season tournament in December 2017. With a mix of players that have 2005 and 2006 birthdates, the Flex team (Sharks G2005-V) must register as a 2005 team. The LA Galaxy SD 2006 Pre-Academy team beat us 5-0 in the tournament final.

Juggling a soccer ball is one of those simultaneously meaningless/meaningful skills, somewhat akin to mastering a sequence of around-the-back and between-the-legs dribble moves in basketball. The ability to execute that skill, in and of itself, means absolutely zero on the court: If you can’t pass or shoot out of the move, or are too slow, too weak, or too timid to break down a defender, all the slick handle in the world won’t make any difference. But, like ball handling in basketball, the ability to juggle a soccer ball is indicative of key qualities in the sport: first touch, anticipation, body awareness, bilateral coordination, and—most of all—a commitment to self-directed and purposeful practice.

From beginning juggling scores of two or three or at most five, we now have multiple players who can juggle well over 100 and all 16 players on the team regularly expect to reach 15-20 during warm-ups. While learning to keep a ball in the air in the literal sense, the Flex girls are also, metaphorically, learning the same skill in their athletic lives. One of the key lessons is that any dramatic change in timing, pattern, or rhythm can cause the entire operation to go awry.

“The first thing people say is this is great,” said Richard Monette (head of Active for Life), discussing multisport participation and the grassroots campaign to support it in CBC Sports. “And then the second thing they say is that it’s impossible in reality.”

Impossible? No. Challenging? Oh yeah.

During the article introducing the Flex multisport model, I detailed a hard-fought loss early in the team’s first league season. As it turns out, that has been the girls’ only league loss in two club seasons. After starting off 9-1-2 for a third place finish our debut year, this past fall the Flex team won our division championship with a 10-0-2 record—all against teams that have the opportunity to clock far more practice hours than we do throughout the calendar year.

Practice hours are not a commodity that can be banked, wherein the player with the most total hours of practice automatically holds a higher active balance, says @CoachsVision. Share on X

Ultimately, there is no magic in the accumulation of volume. Practice hours are not a commodity that can be banked, wherein the player with the most total hours of practice over a year (or years) automatically then holds a higher active balance than a player with substantially fewer. Yes, in both the short and long term, practice improves skill (see exponential improvements in juggling). Practice also equates to experience, and that specific experience on the pitch is an added resource to draw from at the technical, tactical, and psychological levels. But when you put 12- and 13-year-olds on fields as large as 120 yards long and 60 yards wide, competing in an invasion game of angles, anticipation, and space—bigger, faster, and more powerful is still bigger, faster, and more powerful.

Sharks-Totals
Image 2. End of season totals from the club in two of the four competitive leagues the DMCV Sharks teams play in. Soccer is a game of attacking and defending: The Girls 2005 Flex team (as well as the G2007 Flex team) consistently score goals while preventing their opponents from scoring.

Within this, of course, is the basic conundrum of year-round specialization. It works—to a point. Players practicing month after month become demonstrably more skillful, and those observable improvements in turn justify the writing of all the large checks that support this continual practice. But, isolated in open space, athleticism beats skill as surely as rock beats scissors. So, the key question becomes how to develop bigger, faster, and more powerful athletes, while cultivating enough skill to express that athleticism on the field.

While there is no magic in volume, there is magic in intensity. September, October, November, December: During these four months, the Flex girls prioritize soccer and are on the pitch with a ball at their feet at least three days a week, and in many cases, considerably more. With high sports IQs and solid foundations of speed, explosiveness, mobility, and coordination, the ramped-up fall schedule leads to dramatic technical and tactical improvements.

Isolated in open space, athleticism beats skill as surely as rock beats scissors. The question becomes how to develop bigger, faster & more powerful athletes. Share on X

As opposed to incremental gains over a calendar year, that intense regular season period is electric—the players rapidly become more connected to each other and to the ball, the spark of those connections builds confidence, confidence builds momentum, momentum inspires passion, and passion begets peak performance. When the Flex girls take the field at kickoff, they are clearly not a group of girls out playing yet another ho-hum Saturday game in an endless string of Saturdays—they are, instead, unleashed.

During our debut year in 2017/2018, after peaking through the league season and reaching the final of our first post-season tournament in December, the Flex team won our second tournament over the first weekend of January, knocking off an A-level team from the host club in the process (at that time we were classified a C team).

Is multisport participation impossible at a competitive level? No. Hoisting that tournament trophy, the girls realized they could raise their game and compete against anybody. True to Monette’s words, however, a reality check was waiting around the corner.

The Scene: February 2018. Escondido, California. The Cal South State Cup. The Flex girls take the field at Southern California’s marquee, year-ending tournament, an event many of the players have wanted to compete in for years. They are quiet—a silence rooted neither in intense focus nor nervous butterflies. Instead, collectively, they seem out of sorts. Once the ball is in play, they lack cohesion and connection. Anticipation and direct routes to the ball are usually a hallmark of the team, but they can’t find the shape of the game, stuck chasing and reacting rather than attacking and defending. Not only do they appear indecisive and unfocused, for once, this group of dynamic and versatile athletes looks … slow.

What happened?

Whether juggling a soccer ball or juggling the schedules for multiple sports, a primary challenge is adapting to significant changes in timing, patterns, and rhythm.

A Few Brief Lessons in Overlapping

In order to effectively break the rules, you need to understand the rules in the first place. Out on the field with the Flex team, one of my favorite tactical lessons our first seasons has been teaching the girls to overlap in space. The concept is somewhat mind-blowing for young players who have finally reached the point where they understand all 11 positions in our formation and know the relevant numbers and responsibilities for each. Now that they’ve fully grasped our 4-3-3, here I go, encouraging them to overlap in the attack, where a player in one position advances out of formation at will, taking on the space, position, and responsibilities of a more forward teammate.

There aren’t many analogues to this in the sports these girls play. Sure, the second baseman may rotate over to cover first base on a bunt, but there are no fluid situations in softball where the center fielder simply elects to rush in and assume the shortstop’s space. The libero in volleyball doesn’t just choose to replace an outside hitter mid-point. Admittedly, a fair number of low posts in basketball actually do think they should rip down a defensive rebound and run the fast break from the point guard spot, but their red-faced coach hollering OUTLET THE BALL suggests that their team’s transition attack has been drawn up differently.

Players who grasp how to invade a space (and defend space from invasion) can escape the rules of their position and create attacking situations that overload the opponent’s defense. Share on X

For the Flex team, I teach our #2 and #3 (right and left back) to overlap our midfielders and fill wide spaces at speed. We teach our #8 and #10 (left-center mid and attacking center-mid) to overlap our strikers and wings to challenge open spaces and create numerical mismatches. If the players understand what it means to invade a space (and defend space from that invasion), they can then break out of the rules governing their positions and create attacking situations that overload the opponent’s ability to thwart an advance.

In sync, this shape-shifting should be as fluid as a murmuration of starlings; out of sync, you end up with superfluous clusters and vulnerable gaps.

Return to Scene: 2018 Cal South State Cup. After winning our first game—thanks to scoring a pair of transition goals against the run of play—the Flex girls then lose back-to-back matches and are bounced from the tournament in the opening weekend.

What happened?

January 2018 marked a major season shift, during which a majority of the Flex players launched into the competitive seasons for other sports. They needed to be game-ready for Select tournaments with their softball teams and gym-fit for weekend-long travel tournaments with their volleyball clubs. They had field hockey tryouts to prepare for, basketball games to play, and gymnastics meets to compete in. After four months of learning to play the game like a legit soccer team, the Flex girls came out in February and looked like a mishmash of volleyball players, softball players, field hockey players, and gymnasts, all chasing soccer players around a field.

Multi-sport athlete is not multiple sports at the same time… #LTAD

— Jeremy Frisch (@JeremyFrisch) January 30, 2019

One of the keys to overlapping is that as soon as the tactical advantage no longer exists, the overlapping player must hustle back and resume their original position.

During the fall and winter months of the league season, the Flex players had overlapping practices for other off-season sports at times, but soccer was the sport they practiced and played at the most intense, competitive level. In January and February, many of the Flex players directed their energy and intensity toward different teams in different sports.

In this case, the issue wasn’t one of overuse or fatigue, with players prepared to play but lacking the physical readiness to demonstrate their abilities. Instead, due to the limits of time in a school week and the disruption to their established practice and game pattern, their overall preparedness to play began to trend downward.

Within weeks, after dispersing to play sports with different physiological demands, observable de-training effects set in. The Flex girls also began playing sports with substantially different tactical and psychological demands: One of our top goal-scorers was a defensive specialist on her volleyball team, our goalkeeper a flame-throwing pitcher. That’s not simply shifting fields of play, that’s taking on completely different attacking and defending mindsets, and completely different athletic identities (all amidst a developmental phase in life that’s complicated enough as it is).

For a six-week stretch, between our tournament win in early January and our State Cup appearance in mid-February, we played no real soccer games, while the girls were playing competitive versions of their other sports. Multiple players regularly missed our practices due to schedule conflicts, and the resulting short-handed practices lacked the connectedness, passion, and purpose of our regular season sessions. Scrimmages were listless, with the girls’ competitive fire being expended elsewhere. Momentum was clearly trending in the wrong direction.

In the big picture, that natural shift in energy & changing of the seasons—that falling back to position after an overlap—makes these players who they are Share on X

Or, perhaps, not the wrong direction. Sure, for our immediate competitive purposes relative to a season-capping tournament it was the wrong direction; but in the bigger picture, that natural shift in energy and changing of the seasons—that falling back into position after an overlap—is what makes these players who they are.

The High Press (or Tag vs. Keep-Away)

“First, we’d like to congratulate our opponents. Their coach has taught them to play a … very aggressive style, with lots of energy.”

The Scene: December 2018. Mira Mesa, California. The Presidio Cup. The head coach of the Hotspurs offers a backhanded compliment to the Flex team during his trophy acceptance speech. After playing in the Presidio C-League for the regular season, the Flex team entered the A-Division for the round-robin post-season tournament. During pool play, we had dominated the run of play against the Hotspurs but lacked our finishing touch and ran out of time in a 0-0 tie. Re-matched in the final, we lost 2-1 on a last-minute rebound goal as both teams were making their final subs to prepare for PKs.

Flex Medals
Image 3. The Flex girls at tournament time.


Though the intent was dismissive, the coach’s remarks were true: We play the game differently. While we have not been competing at the highest level here in Southern California—our club has a highly accomplished Girls 2005 team that plays in the Elite Clubs National League (ECNL) and two other Girls 2005 teams that have been competing in more challenging regional and local flights—our girls play a frenetic, high-pressing style that is rarely seen by our opponents.

Because club soccer at younger age levels is something that originates with parents signing their kids up to play—rather than an organic and earned process of natural selection—youth soccer coaches often have players who have the parental support and encouragement to meet their commitment to the team, but they’re not naturally all that fast, powerful, or elusive. Their parents see the “pay to play” system in genuine transactional terms, believing that the head start from all that extra coaching and practice will carry their kids forward in the sport.

With kids who are not athletically dominant, the trick is then to make the ball and the dimensions of the field do the work instead. Consequently, many youth soccer coaches use the asset they have (time) to compensate for the resource they lack (athleticism) by teaching a version of the game that does not depend on speed, size, or elusiveness.

In short, they teach keep-away.

Keep-away happens to be a fantastic warm-up activity and a perfectly fine game for developing first touch, passing accuracy, composure, and a respect for the value of possession. The game itself, however, is non-directional and non-goal-oriented—and because kids are energy-efficient and don’t like to run in circles, keep-away tends to inspire a reactive defensive strategy rather than one defined by direct pursuit angles and on-the-ball challenges. As a result, players in a keep-away-based system become accustomed to waiting for a mistake rather than creating that mistake, because there is no specific space in the keep-away game in which a turnover is more advantageous than any other.

On the soccer pitch, however, if you can press in the opponent’s back third and create a giveaway via a tackle or steal, you have already succeeded in your invasion of the opponent’s territory. With a single athletic act, one player can accomplish what the opposing team is trying to generate via a complicated sequence of 7-8 passes spanning the entire field: get possession of the ball close enough to goal to create a scoring chance.

The majority of teams we play line up in a 1- or 2-striker set, since keep-away coaches love to pack 4-5 midfielders in their formation to foster diamond passing patterns. Those target strikers sit high at the midline, waiting for service out of the back—in transition that striker may offer token pressure, but they’re out on an island and many backlines are accustomed to being able to patiently build out with moderately contested passing combinations.

Keep-away, the game, does not resemble a sport. Tag, on the other hand, does—it features attacking, defending, transition, and a clearly defined objective. Share on X

Taking advantage of the asset we have (athletes), on the Flex team we blitz a rush of big, fast, and powerful attacking players. The moment possession changes and the opposing defense has the ball at their feet, our three forward positions ambush first balls like third basemen charging a bunt or field hockey players brandishing a stick, because that’s what they are. In the midfield, then, our shortstops and center fielders lie in wait to take an angle on the hurried second ball, disrupting the point of attack.

Keep-away, the game, does not resemble a sport. Tag, on the other hand, does—it features attacking, defending, transition between the two, and a clearly defined objective.

I also coach softball, and with my baserunners the goal is to create chaos. Run and run and run, forcing keep-away players to play tag and make throws they don’t normally want to make. My baserunners become accustomed to it—what appears to be chaos begins to make sense to them on a fundamental level of attacking and defending—but to opposing coaches it tends to look like a very aggressive style, with lots of energy.

As a high press coach, not only do I encourage an aggressive style of play on any field, but when momentum is heading in the wrong direction (as it was leading into the 2018 State Cup), the natural default is to press harder.

For multisport athletes, however, that approach doesn’t work—at certain phases on the calendar, the hours and energy are simply not there for them to play harder. Sure, some players need a push in the right direction from time to time to reach their full potential, but others need to be let go, trusting that when they come back, they’ll be stronger, faster, and energized by their play on other courts and other fields.

Rather than pressing harder and “grinding,” when dealing with these multisport athletes I’ve learned to:

  1. Individualize Attendance Expectations. Over the summer I received my US Soccer D-License, and in one of our classroom sessions the two-dozen other participating coaches shared their attendance policies, all of which revolved around playing-time based consequences for missed practices and non-compliance. When I said that I have 16 different, unwritten policies for 16 different players, the other coaches (and the course instructors) unanimously shared the opinion that I had completely lost my mind.
    But it works. My players write down short-term soccer goals, long-term athletic goals, their own ideas for what they can do to be better teammates, and how they plan to achieve these various goals. This season, the girls shared their goals with me and one other teammate—and those goals create the expectations I hold them to. If a player has to miss practices or a game due to a conflict that keeps them on course to achieve their long-term athletic goals, that is acceptable. If a player misses team activities for reasons that I see as roadblocks to their long-term soccer or athletic goals, that is a different matter and they will hear it from me.
  1. Individualize Training Intensity. This can be done in overt or subtle ways. The first time one or two players are held out of sprints or a high-intensity activity because they happen to be in the midst of a demanding training week for another sport, their teammates will complain. Loudly. For those who complain, I offer to take them out on their off-day from soccer and push them through a workout comparable to that of their teammate who was excused from sprinting, after which they too will be excused from certain practice activities. No one has yet accepted that offer.
    The athletes who might need a break, however, very rarely want it—they’re wired to go, go, go. So, practice intensity can also be individualized in a number of ways that go completely unnoticed. It could be a simple matter of grouping them in relays or activities where 90% will suffice and they won’t have to dig as deeply into their reserves.
Rather than pressing harder with my #multisport athletes, I’ve learned to adjust rotations, times, & numbers to account for their different weekly loads. Share on X
    There are also practice activities that involve server or bumper players who do not have as intense a load. There are ways to manipulate numbers or formations in small-sided activities to boost the intensity for players who need it and reduce the intensity for players who don’t. And there is always an ability to adjust rotations, times, and numbers in ways that account for the different weekly loads that multisport players face.
  1. Set a Culture Where We Rest When Hurt. It’s a rough, physical, demanding sport. We’ve been fortunate thus far to have very few games lost to non-contact injuries (a rolled ankle here, a tender calf there), but there are always the bumps and bruises accumulated from playing an aggressive style (with lots of energy). We treat injuries and pain as something to STOP and recover from, with the big picture in mind that all the games the girls will play in the future are more important than today’s contest.
    This is part of empowering the athletes to understand their bodies, know their limits, and speak up with agency. The question is not can you play? Of course, they can. They can play on one leg and with an arm hanging off. That question is an unfair test of “heart” and the willingness to make the sort of sacrifices someone who knows better should prevent them from making.
    So, after any sort of knock, collision, or injury, the question instead is can you play at 100% full speed? If the answer is yes, then okay—show me. And if the answer is no, I think maybe 75-80%, then that player is allowed the time and space to recover until they are 100% and it has nothing to do with team commitment or will—it’s simply a neutral performance metric that must be met.

Play Short to Play Long

While I don’t care much for keep-away-driven passing in the midfield, I do love attacking patterns based on playing short to play long—purposefully drawing defenders closer in order to then exploit the new space created behind them.

Unlike the tight combinations of a keep-away game, where teammates deliver crisp passes to each other’s feet, this pattern relies on delivering a speculative ball to where their teammates should be. It requires a sort of second-order thinking and a shared goal—knowing the object is to invade the opponent’s territory, several high percentage short passes are made to pull in defenders and offer the appearance of being contained, after which a longer ball is then played into the open space where we wanted to be all along.

Heading into our third year with the 2019-2020 playing season, the Flex team has evolved. Nearly half of our players start high school in 2019, a number of whom plan on trying out for their high school teams for the winter 2020 season. The two largest high schools in our area are among the top 50-60 programs in the state and thinking about a future on these teams would have been inconceivable for our players just a few short years ago—they were not on any sort of track that would have made that a possibility.

That goal is now within reach because they’ve been given the space to keep playing.

Following our first season, we lost two of our original 16 players: one moved out of state (where she now plays on a top club soccer team and runs cross country); the other dropped soccer to focus full-time on club volleyball (her volleyball coach was very much a non-believer in the Flex/multisport mindset and treated that athlete like a cheating spouse any time her soccer activities infringed on her court time). After our second season, we again lost two of our 16 players: one younger girl transitioned to a team her own age at the club, and another tried out for and earned a spot on one of the club’s year-round teams that plays in a higher-level league.

Three years in, and 19 out of 20 of the 12- and 13-year-olds who have participated in the Flex model are still playing soccer (with the lone exception competing in a different sport). Statistically, these numbers aren’t significant enough to prove anything, though they are worth chewing over in the context of national trends for youth sports participation and attrition rates, particularly for teenage girls.

3 years in, 19/20 of the 12- & 13-year-olds who participated in the Flex model still play soccer. In the context of national trends the numbers are notable. Share on X

The Scene: February 2019. Del Mar, California. The Cal South State Cup. The Flex girls come out hungry. Opening against a polished team from Temecula (who we’d played to a 1-1 draw a month earlier), the Flex girls high press, overlap, and work short-to-long combinations on the way to a dominating 3-0 win. As opposed to the prior year, where the Flex girls took the field at State Cup looking like a team that didn’t quite belong, this time they outplayed all three of their opening opponents, deservedly winning their opening four-team bracket and advancing to the round of 32 (out of 72 teams entered). Moving on to the next round in San Bernardino, CA—expecting to win and keep winning—they knocked off an undefeated top seed with a 2-0 victory before finally losing 1-0 in overtime to a very good team from central Los Angeles (who then advanced to the Final Four).

What happened?

A lot of things. Their goals as athletes have changed. Soccer may not be something they’re devoted to 365 days of the year, but they are all now seriously invested in playing the sport at a high level. Additionally, their skills and connection to each other have stabilized by staying together and continuing to play. Relative to the season overlap, another contributing factor has been the heavy storms hitting Southern California through January and February, stalling the onset and flow of the competitive seasons for their other sports.

Our overall approach this January and February has also changed—partly by rain-caused necessity and partly by design. Instead of using practices this month to cap a late-season phase and scrambling to work in set pieces and key tactical plays, I’ve instead approached these training days like the beginning of a developmental push for the high school tryouts way out on the horizon in November. We’ve done far more off the ball than we did at this time the previous winter, putting effort into speed development, change-of-direction games, explosiveness in space—priming the athletic qualities that make these girls who they are on the field.

The girls will, again, take a post-season break, though a shorter one so that we are able to fully prepare our older players for the challenge of making a high school roster. While using the spring months to focus on further developing athleticism and technical skill, we will not put on jerseys and play a competitive game again until July—the majority have other games to play on other fields, and for all of the Flex girls, their most important games are still those that will happen some time in the future. We’ve drawn them in with the short ball: Come play on this multisport team, we’ll make it work with your schedule and it will be fun. Now, the long ball is an open option for those who choose to play it.

Since you’re here…
…we have a small favor to ask. More people are reading SimpliFaster than ever, and each week we bring you compelling content from coaches, sport scientists, and physiotherapists who are devoted to building better athletes. Please take a moment to share the articles on social media, engage the authors with questions and comments below, and link to articles when appropriate if you have a blog or participate on forums of related topics. — SF



Kettle Bell

7 Ways to Build Optimal Athletic Movement Patterns in the Weight Room

Blog| ByJoel Smith

Kettle Bell

The best athletes in any team sport are almost always not the best in the weight room (at least the way the weight room is classically quantified, via 1-rep maxes, etc.). How many times do we need to hear this from great coaches (strength coaches included here) before we start to believe it?

It is important to be strong and fast enough to play the game, absolutely! Even as this is true, absolute strength is really not difficult to build safely in the grand scheme of things. Progressive coaches scour the training landscape for things that will transfer better to what actually happens on the field of play, and we find things like robust running, perception and action, and combative movement training (grappling and tumbling), as well as a growing interest in motor learning among physical preparation professionals.

Here is a little background. As a track coach at Wilmington College, I wore the hat of a strength and conditioning coach, where I primarily helped with men’s basketball. To this end, my goal was simply to get everyone to pack as many inches on their vertical jump as possible. I really just viewed physical preparation through the lens of my track and field glasses: the improvement of raw markers and sprinting and jumping as much as I could.

(Sure, lower level athletes often can and do benefit from improving strength and basic power markers on the level of team sport success. Athletes need to be big, strong, and fast enough for the basic standards their sport requires. The confidence that comes with improving a landmark physical marker, such as the ability to dunk a basketball or running under a particular time in the 40-yard dash, is very important for many).

As I transitioned to “strength and conditioning coach,” I immediately focused this lens on skill-sport athletes, frequently measuring things like vertical jump, or perhaps a 10-yard dash. (I still do these tests, I just don’t look at them them as an absolute, but more as a guidepost to show I’m on the right track.)

After a few years, I began to realize that 1RM strength improvements at my level (university athletes) really didn’t seem to make a difference that I could see in sport play results given the athlete was already adequate in this department. On top of this, many athletes who weren’t among the best on the team often found validation by at least regularly hitting good numbers in the weight room. My strongest players were definitely not my best and the lesser players found validation through an emphasis on 1RMs.

Dynamic markers such as sprint and jump ability were closer to what counted in being good on the court, but some of my fastest players have not had winning success. Hearing ideas on how the improvement of speed without a corresponding improvement in technical-tactical ability and the ability to react to opponents (think about a soccer player who got faster, but now just goes off-sides more often; something I heard on a podcast with Dave Tenney) did not lead to better sport results really got my wheels turning

In individual sports, my initial depth of knowledge of track and field biomechanics helped me to steer a track strength program more towards what mattered in track speed and away from what didn’t. Through the years in swimming, I have seen some athletes get globally “stronger” without improving times in the pool, and have been in the process of determining the qualitative reasons for these cases. (On the flip side, I did see my lifting program make a substantial impact on a lot of aquatic athletes).

Finding out the exact “how” of what helped and what didn’t takes more digging than looking at a research study or some sort of quantitative analysis. It takes a deeper observation of the movement patterns athletes utilize in the gym. After over a decade in the field, with time learning from many of the best coaches and their protégés, I have found that the weight room is a place where athletes can improve not just their strength and power, but more importantly for many of those athletes, the patterns by which they move and produce force.

The weight room is a place an athlete can improve the patterns by which they move and produce #force, says @JustFlySports. Share on X

I believe that the qualitative element of the “how” when it comes to training an athlete is many times more important than the “what” (as in what exercise to pick or what sets and reps). We live in a world of quantifying every piece of the training program, but we miss many things happening between the numbers. (We also know a pure quantitative driven training program doesn’t work.)

We all know that elite athletes play differently than the bench-warmers, but is there more to just having more “skill” in the game from a general perspective? What did the great multi-sport athlete at your high school have that the other kids didn’t? We know that they can open and close feedback loops quicker than the non-factor players (i.e., they perceive and react better), but what are the mechanisms here? We know that, perhaps most importantly of all, the best players are the most consistent in their performances, while the second-tier competitors may just exhibit flashes of greatness, but then lose the wave of momentum in a game and let it turn into a landslide.

This pattern that results in a great player is found in the mind, and before we start leafing through mental training books, realize that this mind-body connection is trainable in the weight room setting without getting a Ph.D. in sports psychology. This isn’t to downplay traditional mental training at all—I’ve seen it work wonders and I’m a huge believer in visualization, hypnosis, and the gamut of training means that are often tossed to the wayside in an often-superficial approach that pays homage to the idea that “it’s all mental” but then ignores spending real time improving it.

When the attitude of the mind and the movement of the body blend in training, true magic can happen. With what I’ve learned in the last five years as a coach, and particularly this last year, I’ve become more adept at finding ways to make the way we do things better in the gym, and not just finding more exercises or periodization models. Like Jerome Simian and other coaching greats will tell you, “the pattern (of movement) is king.” It all starts there. Ignore the pattern in the gym, and you’ll often find yourself “over-intensifying wrong.”

Movement-oriented coaching really isn’t optional for the highest success of those we work with, says @JustFlySports. Share on X

I’ve collected my thoughts on athletic patterning and performance into seven points. They can help you steer your awareness to where mine has gone after learning from enough elite coaches to understand that movement-oriented coaching really isn’t optional for the highest success of those we work with. I’m not saying these ideas can turn a bench-warmer into a starting player, but they can have a profound impact on a team and individual sport athlete alike. These points are not so much hard rules as ideas that you can plug into a variety of exercises and training mediums to expand your own circle of awareness.

One

Pay Attention to How the Best Athletes Move in Their Sport (and Not Just the Weight Room)

I am a firm believer that answers are found in nature. Scientists and inventors alike have studied animals to get the inspiration for their robots or inventions that mimic movement. In the same manner, I believe that we need to be students of the best competitors in sport. In the realm of human beings, the elite in sports aren’t just “freaks” that we shouldn’t try to emulate because they “cheat the rules” (I believe the “freaks” create the rules when we take a deep look at what they are doing), but rather individuals who we should see as a puzzle to unlock on the level of human movement organization.

How often do we, as physical preparation coaches, spend time watching videos of Olympic lifters or powerlifters compared to watching the best soccer, basketball, tennis, football, swimming, baseball, etc. athletes perform their sport? If you had 100 hours to watch videos to help you better train athletes, would you spend it watching athletes lift weights or athletes playing their sport? We like glancing at videos of, say, a cheetah running in slow motion, but what is it about the cheetah that gives it speed?

When we sit down and watch athletes playing a sport, we tend to start seeing some commonalities.

  • The ability to tense and relax muscles rapidly.
  • A mastery of breathing, relaxation, and body control in any game situation.
  • Good posture and alignment (good posture is relative to the sport).
  • Great sense of where one’s body and limbs are in space.
  • An ability to react and be creative in the midst of fluctuating circumstances or even circumstances not yet encountered.
  • The ability to sense and react to specific patterns faster than one’s opponents.
  • Enough force-production capability and body mass to get the job done for their sport.

When we look at tension and relaxation, the epitome may be Bruce Lee’s “one-inch punch.” Any athletic movement is a pure symphony of muscles turning off and on in the proper sequence. Muscles that are on when they shouldn’t be cause slow movements and invite injury. A problem is that the weight room tends to focus on when muscles should be on more often than when they should be off. The performance of simple movements such as oscillatory reps can be a game-changer for athletes who have been on a steady diet of concentric-based lifting for years.


Video 1. The oscillatory isometric split squat (a movement I talk about extensively in “Speed Strength”) is one of many ways to put athletes in situations where their ability to manage muscle tension is assessed.

Watch an elite competitor and, regardless of the game situation, they have mastery, composure, and control of their breathing and physiology. It is this composure that allows great players more consistent play and the ability to be more “clutch” when the game is on the line. The team that is in charge of their breathing and fight-or-flight mechanisms in the last minutes of a game has the advantage.

Good posture occurs in context of athletic movements, particular those with a low center of gravity, says @JustFlySports. Share on X

Great athletes have good posture and alignment, which often features a vertical torso in relatively squatted positions. Posture and alignment are important, but it’s hard to say these days what good posture truly is. It’s certainly not standing up ramrod-straight and consciously thinking not to round one’s shoulders forward.

Good posture happens in the context of athletic movements, particularly movements with a low center of gravity. “Squat dexterity” is the product of great posture and timing in a squatted position and is a trademark of the most agile athletes in the game. Good posture is reflexive and happens innately as a result of proper training. (For me, that’s a combination of time spent isometrically in the proper posture with ancillary Postural Restoration Institute work when needed.)

The importance of proprioception and the ability to sense the body in space is well-known, but at the same time, is looked down upon in favor of raw force and a lack of quantification. If we could quantify this skill for athletic performance outcomes (we can quantify it in rehab settings), perhaps we would train it more often.

Two

Pay Attention to the Athlete in the Weight Room and Not Just the Barbell

In the process of coaching, I believe in an “athlete first” model that centers around high-velocity athletic movement (watching an athlete sprint maximally as a “movement screen” is a simple example). This model looks at how the rib cage and spine respond to core athletic movements such as squatting and hinging. It looks at how “ripples”—small subtleties in joint movement—become “waves” in later movement. For example, notice how cheating just a “little bit” in ankle rocker jumps can elicit a much higher jump than being completely strict with the test.

Although it’s easy to take a barbell-oriented way of looking at training, an athlete-oriented strategy that starts with bodyweight mastery is really key. Does an athlete move in a fluid or segmented manner on basic exercises such as a Spiderman push-up? When you give them a cue or instruction, do they over-do the movement around the joint or body part you are cueing (more on internal cues in a bit) or can they make the instruction fit in fluidly with the whole?

Instead of focusing on barbells, use an athlete-oriented plan that starts with bodyweight mastery, says @JustFlySports. Share on X

A common misconception I discuss in Speed Strength is to talk about how fast sport movement is, say, sprinting at 10 meters per second, and then talk about how much slower the weight room is, relatively speaking, at say, .8m/s for a squat or 2.75m/s for a quick clean or snatch. Although this is true for the barbell in the gym, it’s not true for the speed that joints move at to produce those barbell speeds. When we look at hip joint extension speeds in an Olympic lift, we can see speeds of 400 degrees per second (DPS) for a full-catch lift and likely around 600 DPS for a fast power clean or high pull, which matches with the hip extension velocity at the sixth step of a sprint.

From a raw barbell speed perspective, things don’t match up, but from a joint perspective, things change. This also helps us to find that point in traditional lifts where we truly can no longer match the joint speeds of sprinting and need to look at other modes and medians of working transferable strength.

Some coaches preach for or against particular lifts in a generalized context, such as “all athletes must (or must not) parallel or deep squat.” The same thing can be said for the hang clean, depth jump, or anything else, and a lot of this comes from pre-existing exercise preferences and biases of the coach. When it comes down to an exercise’s effectiveness, it’s all about how the athlete responds to it, what their sport or event is (and how the lift transfers to the joint-based technical model), what their hip and joint structure allows for, and what their training strategy is.

Three

Be Aware of the Effects of Internal Cues

When we think about instructing an athlete in the weight room, or even in their sport movement, we tend to think of speaking to the athlete in a “do this” manner. In other words, we tend to look at coaching as a “push your hips back,” “chest out,” “knees up,” “stay tall,” or “brace your core” type of role. These represent “internal cues,” a method of coaching by directing attention to a body part or a position to achieve. In sport skill coaching specifically, it’s common to see coaches tell athletes to put their limbs in a particular position that is deemed “good.” This is often based on what high-level performers do or, in a less favorable case, what the coach was originally instructed to do when they were an athlete.

Many coaches are aware of the implications of these “internal” cues versus “external” cues (external relate to things that exist outside of the human body, such as the ground, sport implements, or even the space around an athlete.) Internal cues can result in more force output in a specific joint or muscle group, but result in a lower overall performance because the increased force output in one joint comes at the expense of timing and harmony of the system. Internal cues have higher muscle EMG readings, but lower performance outputs1. In other words, this cueing system draws muscle that doesn’t need to be there into a movement.

An ‘internal’ cueing system draws muscle that doesn’t need to be there into a movement, says @JustFlySports. Share on X

In the weight room, we get this a lot, such as continually telling athletes to “brace” things—their abs, core, or trunk. The thing is, how fast could you run a 40-yard dash while consciously “bracing your core”? (I first heard this idea from Cal Deitz.) The answer is not very fast; you’d be laden with un-needed co-contractions of muscle.

The same applies to any sport skill. Why? Among other things, when you consciously or volitionally brace anything, there are muscles that are “on” when they shouldn’t be. The more internal cues you put into the system, the more muscles that end up being “on” when they shouldn’t be, and this becomes a mentality. Even in the weight room, where heavy loads are lifted and safety is crucial, we still want to be mindful of the effect of every internal cue given that turns on “extra” muscles that go above and beyond the brain’s natural motor program.

“Pre-programming” is an idea that can refer to coaching an athlete to cognitively place a limb somewhere in preparation for force application. One of the best and most apparent examples of this comes from the world of swimming, watching athletes do a stroke such as the butterfly. A pre-programmed athlete will, as soon as their hands leave the water, steer the hands in preparation for water impact. A fluid athlete’s hands will spiral naturally in the air in preparation.

You can see this show up in a myriad of track sprint drills—athletes who get their knees high and exaggerate their arm action for every movement or do a stiff hip-to-pocket pattern. The problem is that these athletes are rarely the fastest. The fastest athlete is the one who looks kind of “lazy” while warming up. Take Usain Bolt in his warm-ups (see 1:03 when Bolt actually starts his warm-up running): Most coaches would deem him lazy, or not deliberate, but a close eye (Adarian Barr, in particular) can see exactly how his warm-up shows up in his running style. These athletes often rehearse how they are going to run fluidly and unconsciously.

Consider every positional cue given to athletes in a dynamic running context before saying it, says @JustFlySports. Share on X

In this regard, coaches should very seriously consider every positional cue given to athletes in a dynamic running or sport cue context before saying it. On the flip side, I am in favor of internal cues for the sake of isometric work since they don’t have a poor impact on a dynamic motor pattern.

Four

Don’t Look to ‘Specific Lifts,’ Look for Specific Movement Patterns

We all hold our own particular views on barbell training that tries to be “specific” to a sport movement, the biggest commonality being things that try to transfer specifically to acceleration or sprinting. At the higher levels of any skill performance, strength is very specific. Parallel squats won’t help anyone improve their top-end sprinting speed, but Alex Natera’s plantar flexion iso-pushes can have a beneficial impact.

Outside of isometric work (which is some of the most beneficial work you can do in the weight room regardless of the sport skill being trained, due to minimizing the interference of poor execution patterns while being able to produce a very high RFD at specific joint angles), things that are “specific” can really take away from the ability to do actual sport skills. This is the same paradigm that all other barbell work can take away from it by sustaining bracing, pre-programmed, and segmented movement patterns.

Take an athlete who tends to tense their jaw and fists while running and moving. Do you think that having them do a single leg clean with a step-up to a box finish is going to help or hurt the extremity-tensing movement paradigm? (This isn’t even taking into consideration the timing of the push mechanism in the clean itself relative to where the push happens in sprinting.) Will this help the athlete or just reinforce their tendency to over-muscle things?

When it comes to everything done in the weight room—again, the pattern is king, says @JustFlySports. Share on X

When it comes to everything done in the weight room, again, the pattern is king. I would much rather have athletes do bodyweight isometrics and then basic movements like a Russian lunge with good body control, position, and patterning, before even thinking of anything else. I do truly enjoy specific isometric work, and speaking from a perspective of transfer, these movements are the first place I would go once a good pattern is established.

Five

Superset Barbell Work with Dynamic Work

Everything is a poison and a medicine. The key with barbell training and athletes is to give them just enough medicine each time they are in the gym to benefit and minimize the effects of the poison. Just take Dr. Bondarchuk’s ideas on lifting in the submaximal strength ranges—how it maximizes the benefits of the movement while minimizing the risks.

Besides having a coach’s eye for athlete movement skills, the simple act of inserting dynamic movement with heavier strength work helps the body to get out of a sustained contraction mode and works strength into the “contraction-relaxation” or “static-spring” paradigm of sprinting and jumping. French contrast is the epitome of this type of work, and thousands of coaches have found inherent success in improving athletic power production this way.

I look at the work of Paul Venner in his study2of the effect that mixing weightlifting in with batting practice has on bat speed versus doing hitting practice and then lifting. Mixing the work results in a more robust motor program than simply hitting and then going to lift. The brain likes variable programs and puzzles to solve and the fatigue and/or potentiation from strength training gives plenty of room to work with in this regard. The novelty factor is excellent here too, and those familiar with Derek Evely’s anecdotes on how effective simply changing the structure of a program is on athletic results can relate.

I think beyond the better motor pattern, there can also exist the simple effect of alternating “contraction” work with “static-spring” work inherent in sport, and routinely going back to the sport movement to avoid athletic patterning with excess tension and co-contractions. Paul Cater of the Alpha Project has taken this in his own direction, not only in training constructs like “deadlifts and dingers” (deadlifts and batting practice in a complex), but also things like taking breaks between lift sets to throw darts at a dartboard or putt a golf ball. Can you go from “sympathetic to parasympathetic” easily and effectively, as well as achieving the body control and relaxation necessary to succeed in the spaces “in between” lifting sets?

Six

Utilize High-Velocity Proprioceptive Exercises and Randomize This Work (and Practice at the Speed You Will Play)

One thing I’ve seen from coaching greats such as Jay Schroeder, Marv Marinovich, and, recently, Rafael Maldonado, is a priority on the use of high-velocity exercises with a proprioceptive demand (i.e., the ability to control limbs in space via high-velocity bodyweight or lightly weighted movements that put athletes in a better place to apply impact to the ground, sport implements, or a competitor). A Russian lunge is one of the simplest possible examples of this movement, where an athlete simply jumps from a lunge position into an airborne reversal.

Checking for how the athlete handles this on the levels of posture and position, speed, breathing, and movement patterning is key. Athletes who can squat the house, but are terrible at things like this, aren’t resilient or able to use their force appropriately. For a simple example of this, we can take the fluid performance of a Russian lunge (see Dr. Tommy John Jr. perform this at :46) and the pre-programmed performance of it that is accentuated by a mechanical and pre-determined arm action.

Marv Marinovich brought to the training world a more free-flowing version of this with physioball work that resulted in an even higher proprioceptive demand. To do this work well, the ability of the athlete to relax muscles and control limbs in space is a priority. In my experience, regardless of maximal strength levels, athletes who are great in their sport tend to be great at these exercises.

Athletes who are great in their sport tend to be great at high-velocity #proprioceptive exercises, says @JustFlySports. Share on X

To take this work to another level, introducing spontaneous commands or outcomes is highly effective in not only helping athletes to not get stuck in a single movement pattern and “bear down” into it with lots of excess tension, but it also mimics the spontaneity of sport. Strength training purists will scoff at an elite player who likes to do work on balance discs. However, if introducing elements where they have to work hard to control limbs in space is motivating to that particular athlete, and it can replicate at least the chaotic nature of sport mentally, is it really all that bad for an athlete who already meets the physical strength and armor standards for their level of play?

Examples of spontaneity in movement can be things like calling “full,” “half,” or “quarter” reps on movements, or instant reverses and changes of direction. For example, while doing a hex bar deadlift, you could call “full” or “half” reps where an athlete had to instantly respond to the command and perform either a rep to the knees, or to full standing from the floor. You can apply this idea to virtually any training scenario. “Reverses” work well with movements that prioritize twisting movements and the transverse plane.

Seven

Watch What Happens During Fatigue or Cognitive Challenge

One “element of power” I saw written on the wall at IMS Academy (an MMA and kick-boxing gym in Santa Cruz) was “breath-endurance.” To me, this refers to the ability of an athlete to keep a proper breath pattern in the midst of fatigue, cognitive challenge (think a new situation where the player must outwit the defense), or pressure (game is on the line). A good coach watches players in action to determine tendencies in particular situations, and then tries to emulate these conditions in practice if possible. Marv and Gary Marinovich famously trained fighter BJ Penn, one of the most untouchable fighters ever in his prime, and one of the first things they did was put a heart rate monitor on BJ while he fought. The movements that caused his heart rate to skyrocket were the ones that they trained the most.

It is always interesting to me how, in many games, the first three quarters of play seems to be a bit of a formality (especially in the NBA, but don’t get me started on that) and then the last quarter of the game is what really counts. I don’t think that this should be the case at all, but some teams have an ability to just “know how to win,” and the ability of a good coach to understand all methods that can prepare players for these situations based on their individual responses is invaluable. For the physical preparation coach, there are obviously specifics that can’t be trained, but from a physical preparation sense, it’s important to do what we can in our observation and implementation of the sympathetic and parasympathetic physical responses that happen in the midst of fatigue and mental stress.

Taking on Movement Coaching

Physical preparation is a multidisciplinary field, and there are many elements of helping athletes from a qualitative and quantitative perspective. In getting to the “art” of coaching—one where a coach can grow in the skill of observing the nuances of athletes and the distinguishing factors of success from a movement perspective— I believe that this list is a good starting point. If nothing else, starting to watch the ability of athletes to contract and relax muscles appropriately in space while holding position and maintaining breathing patterns will provide a good armament of better movement ideals.

Since you’re here…
…we have a small favor to ask. More people are reading SimpliFaster than ever, and each week we bring you compelling content from coaches, sport scientists, and physiotherapists who are devoted to building better athletes. Please take a moment to share the articles on social media, engage the authors with questions and comments below, and link to articles when appropriate if you have a blog or participate on forums of related topics. — SF



References

1. Wulf, Gabriele, et al. “Increased Jump Height and Reduced EMG Activity with an External Focus.” Human Movement Science, 2010; 29(3): 440–448. doi:10.1016/j.humov.2009.11.008.

2. Venner, Paul., Theis, Nicola., Goodwin, John. “Effects of Variable Local Fatigue and Potentiation Within a Constraints-Led Approach on Skill Development in Elite Youth Baseball Hitting.” Msc Strength & Conditioning, School of Sport, Health and Applied Science, St. Mary’s University Twickenham. 2016.

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