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Trinity WR

Facility Finders: Trinity College (CT)

Blog| ByJohn Delf-Montgomery

Trinity WR

Welcome back to another installment of Facility Finders, where I find the newest weight room remodels or projects from across the country, spanning all sectors of strength and conditioning. This process isn’t taught to any coach in school, and it is a once-in-a-career type of activity for many of us.

All facility designs need questions to be asked and decisions to be made, such as:

  • How big can or will the space be?
  • What type of equipment needs to be purchased?
  • Which brands, purveyors, and manufacturers should be chosen?

I want to highlight how to answer those questions, and many more, during the design process. First, we will examine how and why those decisions were made at Trinity College.

Facility Finders reached out to Coach Bill DeLongis, the Head Strength and Conditioning Coach at Trinity College in Hartford, Connecticut, who recently remodeled his weight room. Most coaches find themselves involved in renovating an existing facility because it is rare that the budgets at most schools allow for a brand-new building where the coach gets to design every square foot. This type of redesign is common at Division III schools like Trinity College, and DeLongis was able to upgrade the facility to a space that better fits his coaching philosophy.


Video 1. A virtual tour of the facility at Trinity College, remodeled under the direction of Coach Bill DeLongis.

Facility Decisions

In 2017, Coach DeLongis was asked to design a complete renovation of Trinity’s varsity weight room. After a year of meeting with equipment companies and choosing everything that he wanted, he saw his hard work pay off in 2018. His three main concerns for this project were:

  1. Quality of equipment.
  2. Flow of the room.
  3. Cost (via versatility/reliability).

“We run a lot of small group sessions with various teams sharing the room, so I needed sections in the room to create a better flow for when the room is crowded,” said Coach DeLongis, discussing how he needed the room to flow.

Trinity Dumbbells
Images 1a & 1b. Auxiliary training spaces around the racks at Trinity are separate from the main training area. These spaces feature dumbbells, kettlebells, versa climbers, and benches.

Trinity has a utility space that athletes use for warming up and medball work. It also serves as an auxiliary training space for larger groups.

“We sometimes put out squat stands on the outdoor turf to use if we need,” DeLongis said, mentioning a key small school hack to grow their square footage when needed.

It is multi-use spaces close to one another that enable schools like Trinity to train all of their 28 sports in a facility the size of theirs. Turf space in the front and back of the weight room gives coaches a place to have a team warming up or finishing while another team is in the weight room training. That ability—along with staffing—allows smaller weight rooms to function with a constant flow of teams and groups.

It is multi-uses spaces close to one another that enable schools like Trinity to train all of their 28 sports in a facility the size of theirs, says @johndelf99. Share on X
Squat Racks
Image 2. Five of the 10 total racks at Trinity that Sorinex fully customized

When deciding on the company they wanted to bring in to source their facility’s needs, Trinity chose South Carolina-based Sorinex. Why Sorinex?

“Sorinex is the industry-leading equipment company our country has to offer for our athletes. They are the best,” DeLongis said. “Our budget for this project was not massive, so a lot of the bells and whistles as far as attachments were something we would shoot to add over time. That ability to have a base rack from Sorinex that we can add on to slowly was the piece that schools like Trinity need.”

Similarly, many schools do not have the huge budget to pay for everything in one fell swoop, and new attachments are created after facilities are remodeled. The fact that Sorinex designs its products to essentially “plug and play” is an essential aspect of their versatility. As things evolve and change within the industry, the ability to add pieces that the athletes need—and remove the pieces that no longer serve their purpose—is something you don’t get with a fixed machine or specialty equipment.

Think about this: Jammer arms were a must-have for “explosive” training, then coaches realized how much better they were as liftoff releases. That versatility gives longevity to those add-ons, and I think Jammer arms would be obsolete now without that multi-use functionality.

Spotter Arms
Image 3. Showcasing Trinity’s customized Sorinex racks, including the specialty spotter arm attachments.

Reliable quality was the last factor that Coach DeLongis praised, explaining that they were replacing old Sorinex equipment from the early 2000s with new Sorinex equipment.

“Being at a D-III school, there is no telling when the next renovation will be—so I didn’t want to skimp on the racks,” DeLongis said, a statement that should resonate with a lot of coaches undergoing similar projects around the country.

DeLongis also went to numerous other college weight rooms on site visits to learn from their coaches and see their spaces. These visits gave him ideas and helped him solidify his decision to source from Sorinex. He specifically remembered that Sorinex representatives brought him to their headquarters in South Carolina, where he was able to design the space with their sales teams and put his hands on and try their products. These companies specializing in customization want to make your space as efficient as possible.

These companies specializing in customization want to make your space as efficient as possible, says @johndelf99. Share on X

I think about how coaches have always complained about pillars or poles being in the middle of the room and how it wasted square footage. Now these companies design storage that wraps around those poles and pillars, so there is no more wasted space. They are geniuses who lean on their expertise and the input and philosophies of the coaches who are their clients.

“Feeling like a valued customer was the icing on the cake,” Coach DeLongis added.

Cable Stacks
Image 4. Cable stacks and low row stations on the adjacent wall at Trinity allow for a more open floor plan by the racks. Also pictured are the squat stands used in the turf area.

Specialty Equipment

We all love specialty equipment, and at Trinity College, they are no exception. Trinity utilizes technology like the RepOne Velocity Based Training Encoder (tether) and B Strong Blood Flow Restriction Kits for hypertrophy training and athletes recovering from injuries. Other pieces of specialty equipment they use in programming are cable stacks with low row stations, weight releasers for eccentric work, jammer arms, overcoming isometric boards, and triphasic hooks for plyometrics.

Additionally, they break out some “strongman”-type equipment: atlas stones, sandbags, yoke, logs, and farmer’s handles to help with general physical preparation work.

“Having the strongman equipment is something that our athletes do within training or on off days to help with cardio and general strength building,” DeLongis replied when I asked how they were able to use it enough to justify the purchase cost. “These pieces of equipment are used almost every day by almost all of our sports.”

Lastly, some recovery modalities they use outside of the training room include foam rollers and body tempering rollers.


Video 2. The importance of a balanced strength coach refrigerator and the need for coaches to stay fueled between sessions.

Stay in Touch

Thank you again for reading this Facility Finders installment featuring Trinity College. Remodeling a facility is something that a lot of coaches will have the ability to do at some point in their careers, and I hope the remodel at Trinity can help you in your next project. As always, feel free to comment below on things you would like to see next or something you have questions on!

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


Curling

Performance Training for Niche Winter Sports with Siobhan Milner

Freelap Friday Five| BySiobhan Milner, ByElisabeth Oehler

Curling

Siobhan Milner believes we’re made to move. She has more than a decade of experience working with everyone from Olympians and national-level athletes to clients in the clinical population. She uses her expertise to help athletes improve their sports performance and prevent, manage, and recover from injuries.

Siobhan is currently a strength and conditioning coach with TeamNL (Dutch Olympic team), training S-1 short track speed skaters and the national curling team. She also works with several independent athletes, primarily in endurance sports and dance, and with clients seeking her knowledge in injury rehabilitation.

Siobhan Milner is a believer in evidence-based exercise prescription, but she also strongly believes that all training should be athlete-focused: specific to their goals, their needs, and their likes and dislikes. Most of all, she loves seeing changes in her athletes’ lives—whether it’s at the level of function, pain, or performance.

Freelap USA: You are currently a strength and conditioning coach for Team Netherlands, the Dutch Olympic team, and work with short track speed skaters. Can you give us an overview of how you identify the sport’s physical demands and injury risks and your programming considerations for speed skaters?

Siobhan Milner: A lot of it comes down to looking at the way the athletes move on the ice. I look at joint angles, forces experienced, and repetitive movements or held positions for an idea of what they need physically and what may be at risk for overuse injuries. Of course, we also have a lot of data on our athletes over the years, so we can take stock of what kind of injuries are popping up (and when) to get an idea of how we can be proactive in preventing them.

One big consideration for programming is that in short track speed skating, there’s a lot of lumbar flexion involved and incredibly high forces. When this is coupled with periods of frequent time on the ice, it can mean being particularly careful not to overload the spine in strength training sessions while still ensuring that the back gets enough stimulus to stay strong.

Freelap USA: You’re not only the strength and conditioning coach for short track speed skating but also for the national curling team of Team Netherlands. Curling is an Olympic sport where most people probably don’t automatically expect the athletes to spend much time with strength training. What does the seasonal preparation of a curling athlete look like, and what is your main focus for them?

Siobhan Milner: It’s a super interesting sport to work with! I sometimes wish I could work with all the “weird” sports because this is where you learn so much as an S&C coach.

I think curling is also experiencing a big shift where the importance of S&C is being recognized. When I look at the upcoming curling teams around the globe, they’ve all got a serious S&C program involved in their development. I think that any curling program that doesn’t will be seriously hindered in the future.

My curling athletes are super strong. I have not worked with them for a full Olympic cycle, as I took over from their former S&C coach earlier in 2021. So, I can only speak to how we’ve worked in the lead-up to Olympic qualifications in 2021.

When we combine this with the fact that it’s a really cognitively involved sport in relatively cold conditions, curling quickly becomes quite an interesting puzzle for an S&C coach. Share on X

Curling is essentially an endurance sport when we look at both the heart rate data from games and that a game lasts roughly 2.5–3 hours. However, short bursts of power are involved, primarily from the upper body during sweeping. When we combine this with the fact that it’s a really cognitively involved sport in relatively cold conditions, it quickly becomes quite an interesting puzzle for an S&C coach.

In the weight room, we’re usually more focused on muscular endurance in the preparatory season, with specific exercise selection for coordination and balance (sometimes specifically to just train the ability to focus and be present). There are times in the season where we’ve worked on hypertrophy because we know that when there are a lot of back-to-back games, curlers can lose a fair bit of weight. Therefore, we want to have some wiggle room there to avoid losing too much muscle mass.

We do a fair bit of basic endurance training for conditioning, as this reflects their energy system demands on the ice. But we also incorporate higher-intensity work, especially as we have seen from the research in recent years how beneficial this is for endurance athletes.

Regarding injury risk and physical demands, curlers require a great deal of hip extension and a lot of hamstring strength. When they throw rocks, one leg ends up in a super low lunge, while the other foot is really tucked in under the body—the hamstring seriously fires up here when this is done well. Like many other ice sports—hockey, short track, and long track speed skating—the adductors can be a weak point. What’s interesting with curling is that we have to find the sweet spot where we keep the adductors strong, but we don’t make them tighten up too much and impact their mobility on the ice in these deep lunges.

Freelap USA: You have a huge variety of sports you work with, coaching athletes in cross country skiing, curling, and speed skating, but also professional dancers and endurance athletes. What are your recommendations for young strength and conditioning coaches working with many different sports, especially sports they don’t know much about initially or haven’t participated in themselves? 

Siobhan Milner: I started out mainly coaching endurance athletes—triathlon, marathon, cyclists—because that’s where my own sporting background lies. But what I found was that most strength and conditioning training for practitioners is geared toward team sports. Team sports, of course, tend to be much more speed- and power-based. So really, the initial thought was, this is where the jobs will be, I have to be adaptable!

I think it’s really important to conduct needs analyses of the sports we’re working with, but then go beyond that. The TeamNL curling team offered to take me out on the ice and teach me how to curl, so I took them up on that. It was great because whenever they corrected me (and I finally did it right!), I’d have a new “aha” moment about their movement requirements and capabilities.

Especially when working with more experienced athletes, we’ve got to humble ourselves. Know that the athlete knows their body better than you ever will. Take a whole lot of notes, listen to what they tell you, watch their sport, and ask a ton of questions. 

Especially when working with more experienced athletes, we’ve got to humble ourselves. Know that the athlete knows their body better than you ever will, says @SiobhanCMilner. Share on X

Freelap USA: Injury rehabilitation is your main educational background; you have done an MSc in Rehabilitation Sciences at McGill University in Canada and worked with elite athletes from different sports, but also individuals with lower back pain, chronic lung diseases, and cancer. What are the main differences and similarities in your rehab approach? What did you learn when working with patients with cancer or chronic lung disease that can be applied to performance settings?

Siobhan Milner: I’ve definitely got a colorful educational and work history! I also did a BPhEd (Hons) in Exercise Prescription & Management, which had a big focus on athletic performance and athletic injury, and I worked for a while for Siliconcoach on video analysis software for athletes. But during that BPhEd degree, I also pursued courses at the undergraduate and graduate levels in clinical exercise physiology. This got me curious, and then a scholarship came up for that position at McGill.

The MSc was a super interesting program because I was the only one with an exercise science background. My colleagues were medical doctors, physiotherapists, even some psychologists. I learned so much from being involved in such an interdisciplinary program and getting to bounce ideas off all my colleagues.

I still work with a few clients specifically for rehabilitation. The most obvious difference is the rate of progression in their loading. The athletes tend to reach plateaus a lot easier, and we’ve got to keep challenging them and pushing through. My rehab clients often need to go at a much slower pace of progression than even your “standard” everyday client. Sometimes the pace can be so slow that your S&C brain might think, “Is anything really happening here?” But it is, and it does. It’s a big reminder of the existence of the minimal effective dose.

My rehab clients often need to go at a much slower pace of progression than even your ‘standard’ everyday client… It’s a big reminder of the existence of the minimal effective dose. Share on X

The biggest thing I’ve taken with me from my work in rehab into S&C is “patient-centered care.” I don’t coach from the standpoint of me being the one who calls the shots. Of course, I’m willing to do that when needed, and I obviously write all the programming for athletes. But what I mean is I come in genuinely curious about the athletes’ experiences, and I want to make sure that we’re getting the intended result.

For some athletes, this can take getting used to. Sometimes they’re used to being told “just do it” when something doesn’t feel right (or “just skip it!” with no alternatives offered). I’m always interested in how we can make the program work for that particular individual. I’m always asking how things feel, what they’re noticing, how their body is responding, etc. I think body awareness is hugely underrated, and it is so important for athletes both inside and outside the weight room.

Freelap USA: Injury history is a significant factor in prescribing strength training programs for athletes. What’s your approach in considering injury history, and what principles do you follow as a rehabilitative exercise specialist when working with an athlete who has had one or multiple severe injuries before?

Siobhan Milner: I always want to know the basics of when the injury occurred and how. I also want the diagnosis and grading where relevant, and I want to know what their physical therapist has worked on with them and what the injured area responded well to (and not so well too). In particular, my education in pain science during my MSc made me realize how multifactorial injuries are. So, I like to dig a lot deeper, especially for athletes who still experience pain from an injury—whether intermittently or chronically.

We know that there’s a huge psychological component to pain, which doesn’t make the pain any less real. But sometimes, athletes really need to be reassured and educated on the pain system, and they need to be empowered to learn about pain in their own bodies. I’m sure many coaches have had experience with those athletes who are given the “all-clear” from a tissue health perspective, but there’s still something going on at the level of pain.

This can be a complex issue, where you have to work closely with the team physiotherapist. I’m grateful for great relationships there. A big consideration is finding out what makes the athlete feel fearful and working with and around that. We often have to overcome a particular fear of movement, so again, educating them on pain signals, reassuring them about their capabilities and tissue health, and being patient. Injuries are frustrating for athletes, so it doesn’t help them if we also get frustrated during the recovery process!

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


Box Jump

A Modified Approach to the Tier System

Blog| ByKendall Green

Box Jump

From what I’ve gathered thus far in my career as a strength and conditioning professional, the observation and adaptation of our programming must work in tandem with the observation and adaptation of our athletes.

The challenges that the emergence of COVID-19 presented to strength and conditioning coaches—as well as private performance facility trainers and coaches—was almost overwhelming. When reopening my training facility and also eventually returning to the high school I previously coached at, there were constraints outside of the actual training that I had to address from a function and time-use standpoint: no indoor usage early on, athletes masked for a period of time, and 45-minute time restrictions weren’t ideal by any stretch of the imagination.

Thankfully, I was using my “off time” (technically unemployed for 3.5 months) and was exposed mentally and physically to some great methods that swung the pendulum back in our favor.

Applying Models

The keys to any successful program include:

  1. Knowing your athletes/sports.
  2. Knowing the training goals.
  3. Understanding all variables and limiting factors (space, time, equipment, participation numbers, etc.).
  4. Understanding progressions and regressions of all programmed exercises and movements.
  5. Keeping it simple.

Over the last several years, while working in both the public and private sectors, I had adopted the Tier System created by Coach Joe Kenn as the primary format for all the athletes I worked with.

To give a quick synopsis of the Tier System, it’s quite simple and highly effective for the development of athletes:

  • A “whole-body” weekly alternating rotation of total body (T/t), lower body (L/l), and upper body (U/u) focused training days.
Tier
Figure 1. Basic 3-day (3 × 3) in the Tier System format.

Depending on training phase, experience, season (in or out), and other training variables, this template can be expanded to a more detailed and complex plan.

Emphasis
Figure 2. 3-Day (4 × 5) in the Tier System format.

The system’s simplicity and effectiveness alone sold me almost immediately. And the fact that it had been developed and tested well before I was even in the field was the icing on the cake. Coach Kenn published The Strength Training Playbook for Coaches in December 2002, and it still stands the test of time almost 20 years later.

COVID-19 presented a couple of problems that threatened continued progress. One in particular was time, says @KoachGreen_. Share on X

Because of its straightforward structure, I was also able to incorporate the High-Low Model popularized by Coach Charlie Francis (see figure 1) and participation in Coach Mike Tucker’s “Sprintember” in 2020 and 2021.

But, as mentioned above, COVID-19 presented a couple of problems that threatened continued progress. One in particular was time.

Program Shift

As practitioners, we understand (or at least we should) the S.A.I.D. principle, the demands of individual sports, and how to adjust certain training protocols and modalities to create physiological adaptations. But for some reason, every program I’ve been a part of since I was an athlete in high school seems to separate field/court performance qualities (primarily speed and agility) from the rest of training. In some cases, it’s understandable: too many athletes, not enough staff, not enough space, etc.

What that often looks like is:
Total Training Time
Total Training Time = 60+ minutes

In current times, when many S&C professionals have to follow more restrictive guidelines, I’d like to propose a better solution. I’ve coined it the ‘SPS Model’, says @KoachGreen_. Share on X

When time and space wasn’t an issue—pre-COVID-19—this format was sufficient. But in current times, when many strength and conditioning professionals have to follow more restrictive guidelines, I would like to propose a better solution. I’ve coined it the SPS Model (speed, power, strength).

SPS Model
Figure 3. I call this the SPS Model or System (speed, power, strength).

Before I continue to state my case, I would like to remind readers that there are very few new or original ideas in strength and conditioning. The Bob Alejo quote “tell me what it is, and I’ll tell you what we used to call it” rings true. That being said, I will take my liberties and refer to it as the “SPS System.”

The SPS System

The objective of developing and utilizing the SPS System is simple: take what works and is absolutely necessary and discard the rest.

Here’s what it looks like, and then I’ll break it down:

Total training time = < 50 minutes

Time, as a significant factor for all things human, was my primary driving force. In the public sector, as mentioned before, teams were limited to 45-minute sessions because of the need to split the team in half for spacing purposes. Using the SPS System with a football team under these conditions, we were able to split the team into “Bigs” (linemen) and “Skills” (non-linemen), giving the linemen earlier access to the weight room and giving the skills more field time.

In my private facility, there was a little more flexibility as far as duration goes, but because my space is limited (1,400 total square foot facility with approximately 1,100 square feet of usable space), group times—particularly high school and college groups—had to be separated to give individuals options to come at different times to limit congestion. This time separation allowed the training groups to go from 6-8 athletes at a time to 3-5. Profuse cleaning of all equipment after each use was also an additional, necessary time-suck.

Taking the overall structure of the Tier System, the foundation and weekly flow of the High-Low model, and the methods and protocols of “Sprintember,” we have found what seems to hit the “minimum effective dose” and “maximal recoverable dose” on the head.

We have found a system that seems to hit the ‘minimum effective dose’ and ‘maximal recoverable dose’ on the head, says @KoachGreen_. Share on X

This 3 × 3 (in Tier System terms) Hi-Lo cycle begins with a Monday high-intensity day. Along with this new model, we’ve found that most, if not all, of the athletes we work with don’t need any pre-activation or stretching (e.g., foam rolling). That being said, we start with some type of warming activity—jumping jacks, jump rope, bike ride, etc.—and go straight into our dynamic warm-up.

We change the dynamic warm-up quarterly throughout the year, so there is no mystery or nuance to it, making it easier for us to blend the movement prep into the session. This process from warming to prep takes less than 12 minutes on average.

Movement prep for speed and/or agility days consists of one or two drills from the A-series (Mach drills). We perform these from traditional and nontraditional positions, depending on the activity for that portion of the session. On plyometric days, the movement prep normally consists of various lower-leg priming movements that gradually increase in amplitude, intensity, and volume. This portion of the session takes about five minutes.

Moving from movement prep into what I believe to be the crux of the training session, we get to the “S”: Speed (agility/plyo).

You may be questioning the use of plyometrics in the same place as speed training on non-sprint days. It has become more evident from data and real-time observation that the fastest athletes are usually capable of jumping the highest and furthest, and the athletes who jump the highest and furthest are statistically faster—keeping in mind vertical jump-ability is relative to body displacement, while horizontal jump-ability is the second-best display of horizontal power (second only to sprinting). Therefore, the two are categorized into the same performance quality.

Speed and agility—time of year and training phase will determine which takes precedence—training for field and court athletes is one of the primary reasons I am eager to share this system. The highest priority for any athletic performance training program should be the activity that is nearest, or most transferable to, the actual sport. For field and court sports, that is speed and agility (as it relates to a specific sport).

Speed and agility training for field and court athletes is one of the primary reasons I am eager to share this system, says @KoachGreen_. Share on X

In this “S” training session block, we do anywhere from 3-8 sprints of 5-30 yards, and we laser-time as often as possible (Dashr), particularly during the summer and off-seasons. For plyometrics, athletes execute 4-12 jumps (reps/sets dependent on jump variation and number of ground contacts). This segment takes no more than 15 minutes.

After taking care of our primary (or Tier 1) training focus, we can execute the physiological qualities that enhance the primary’s function and capacity. In the case of our general template, Monday is a total body, power focus day followed by lower body strength. Our secondary focus is either a single power exercise, separated into a contrast set, or a major-assisted set (major movement superset with an assistance or mobility movement). Strength is programmed in the same manner. With this format, there are no more than five actual lifts per session.

The reps and sets for the “Power” and “Strength” portions of training simply follow the training goal continuum guidelines.

Prilepin
Figure 4. The Power and Strength portions of training commonly visualized and presented as Prilepin’s chart.

Now that I have broken down the system’s objectives, flow, and function, here’s a week of training that was programmed for the summer volleyball group and another programmed for an individual football player post partial MCL tear preparing to enter his first year in college:

Programming Volleyball
Figure 5. A week of programming for a summer volleyball group.
Programming Football
Figure 6. A week of programming for an individual football player (post partial MCL tear).

This system is not meant to be groundbreaking or a replacement for any existing programs. The intention is to provide a solution for coaches to pinpoint exactly what is needed within their training to optimize training time and maximize results. Doing so will prioritize exactly what each individual and team needs to succeed.

Art of Acceleration

The Art of Acceleration: A Practical Guide for All Levels and Group Sizes

Blog| ByScott Salwasser

Art of Acceleration

In his course “The Art of Acceleration,” Les Spellman lays out the blueprint for creating an individualized speed development program that has been proven to get tremendous positive results. There is no disputing the science or the program’s effectiveness; however, critics are typically unsure of this approach’s applicability to a large, diverse group of athletes—particularly in the public (as opposed to private) domain.

I have successfully applied this approach from the Power 5 collegiate level all the way down to the high school level. What follows isn’t a regurgitation or a summary of the course. Instead, it’s a practical guide of the ins and outs and dos and don’ts of how you can logistically implement these principles yourself, presented by someone who has practical experience with this system.

For full disclosure, I didn’t just learn about the concepts presented when I watched this course, as it was only released recently. This is a speed journey and the evolution of ideas that Les has taken to a level that he and I only dreamed about years ago, when we were exchanging DMs with JB Morin and filming Pro Day guys with the first-generation MySprint app. “The Art of Acceleration” is the single best resource on the market for learning how to be a scientific architect of speed and developing an individualized program that will make your athletes significantly better in a very short amount of time.

This course will help you prescribe targeted intervention strategies that are logistically manageable and brutally effective at improving an athlete’s speed & acceleration abilities. Share on X

The course shows what makes Spellman truly unique—it’s not just a collection of drills but an entire attitude and approach toward speed development that is innovative and effective. You will be able to assess athletes efficiently and prescribe targeted intervention strategies that are logistically manageable and brutally effective at improving an athlete’s speed and acceleration abilities. It takes the guesswork out of programming and allows you to “look under the hood” at the underpinnings of an athlete’s expression of speed, diagnose in an objective manner precisely what they need to improve upon, and prescribe a training program specifically designed to address these needs. Best of all, it shows you how to create a system around these assessments, making it organized, structured, and adaptable to all training environments.

Programming

Background and Connections

I first met Les Spellman in 2012, when I was working at Sparta Performance Science in California’s Silicon Valley, and he was a rugby athlete for USA 7’s who had popped in for some training sessions. We were doing some cutting-edge stuff with force plate technology and individualizing training programs based on movement signatures derived from vertical jumping. It opened to me an entirely new way of looking at movement and planted the seeds for doing the same type of analysis for speed development.

When I left Sparta and went to the University of California, we were the first college football team to utilize force plate technology. I was given the freedom to apply the concepts adopted from Sparta to our team’s speed development program by associating certain movement signatures derived from force plate testing with specific strengths and weaknesses in the 40-yard dash. I wrote an article about it you can still find: “Forty Yard Sprints and Force Plates; How to Sniper Speed Development.”

While a step in the right direction, it was imperfect because it was based on vertical rather than horizontal force production.

From Cal, I moved on to Texas Tech, where, as the Director of Speed & Power for football, I had free rein to go as far down the rabbit hole as I needed to find something to give our team a competitive edge. This is where things really started to accelerate (no pun intended). This period was when JB Morin’s research, among others, began to introduce force-velocity profiling, and it is also when I reconnected with Les and connected with Cam Josse. Both were outstanding, like-minded resources for pushing the envelope on individualizing speed development. You can read about what we were doing at Tech in “Optimizing Sprint & Jump Training Based on Individual Force-Velocity Profiling.”

As the system started to evolve and Les (and Cam, for that matter) started to get the recognition they deserve, I continued to apply these principles at the University of South Carolina with Combine/Pro Day and return to play (RTP) football athletes and again with the football team at Washington State University. Finally, it is the foundation of my system even now at the high school level at Bishop Lynch High School in Texas, where I currently coach along with being a member of the Spellman Performance team for the NFL Combine campaign. That’s what makes this system great: its versatility. Les’ system has produced numerous first-round draft picks, Olympians, and professional athletes, but it has also helped develop middle school and high school athletes.

Les’ system has produced numerous first-round draft picks, Olympians, and professional athletes, but it has also helped develop middle school and high school athletes, says @CoachSSal. Share on X

Read on for a “from the trenches” perspective on how you can implement it with your population, regardless of your level.

Three Components of Training Acceleration

Les breaks training down into three components:

  • Physical
  • Technical
  • Stimulus

We’ll work through them in that order.

Physical

This piece refers to an athlete’s force production and power output ability. The first thing we need to do is force-velocity and load-velocity profile the athletes to “look under the hood” and gain insight into these abilities. This profile tells you at what velocity the athlete performs suboptimally, coinciding with a specific piece of the sprint (start/early accel, transition, or MaxV), and dictates where you will get the most bang for your buck in training.

LVP
FVP

You can, if necessary, run this system without profiling your athletes. As the largest co-ed private high school in Texas, we have close to 700 athletes. They haven’t all been profiled, and arguably, many of them can improve simply with basic skill development (and it’s clear they all need to get stronger). But for many, such as varsity football and athletes from other sports who have committed to play at the collegiate level, the system is very beneficial.

Also, because the athlete-to-coach ratio is so high, it’s not always in our best interest logistically. But all of our teams still implement this system; it is just periodized in a vertically integrated and comprehensive fashion, progressing from short to long, slow to fast, heavy to light, etc., in specific blocks of time. This system produces a “well-balanced” program addressing all strength and speed qualities.

In college, however, because there are more coaches and fewer athletes and the technology is so much better, profiling each athlete on your respective team is a valuable use of time to gain insight and individualize programming for a superior competitive edge.

Now that Les has pioneered GPS to profile athletes if you have that technology, it is your best bet, as it is time-efficient and user-friendly. You don’t even need to have any “testing” day: just have the athletes sprint 30 yards with their unit on—non-weighted for FVP and then at 25%, 50%, and 75% body weight for LVP—and you’re all set. It looks just like a typical training session.


Video 1. Slow motion view of athlete accelerating into a sprint while capturing GPS data.

With any GPS units that only give you max velocity (as opposed to isolating each rep), you simply utilize the same process, just in reverse. Start with heavy and record each rep’s velocity value, as each rep will get progressively faster. Without GPS, it takes a little bit more time, but with the next-best option—laser timing gates—you just set up a testing day where you get 10-yard (or ideally 5-yard) splits with each load for each athlete and plug them into the spreadsheet that comes with the course (or JB Morin’s spreadsheet that can be found online).

One last option is the MySprint app, which I still use occasionally. It works well with smaller groups and can be useful anywhere there is less of a budget for technology. When I first made the move to the high school level, I dusted off the app and started filming sprints. The best thing to do in this instance is to first film all the sprints in the “slo-mo” video setting—otherwise it won’t work in the app—rather than trying to run the app in the heat of battle.

Bang out all the videos first, then go back when you have time and run the analyses. Force-velocity profiling will help you “bucket” athletes by their primary needs. Load-velocity profiling will help you prescribe individualized sled loads, just like you would for a barbell exercise in the weight room, based off the sled load that produces peak power.

Reactive Strength Index (RSI) and vertical force velocity profiling are other beneficial tests, as you will learn in the course—these are a secondary means of bucketing athletes, and for us they help dictate strength protocols in the weight room. RSI measures the athlete’s ability to be elastic (optimize ground time relative to air time), and there are various pieces of equipment to measure this, most commonly the Just Jump mat. Force-velocity profiling will direct you as to what strength qualities will be best addressed for that athlete in a weight room setting (e.g., max strength, strength-speed, speed-strength, etc.) for best results in performance.

Any device that measures barbell velocity will work well in this instance. JB Morin has an outstanding resource online for computing this as well. However, once again, the My Jump 2 app has stood the test of time for both of these; just remember to film in slow motion first and analyze later, just like the sprints.

Technical

As mentioned in the course, the start profile is the key metric that we initially need to identify in this domain. This is simply a measurement of time to toe-off out of a static stance, and then air time and ground time of the 0 step, first step, and second step, contrasted with the step length of each as well. The simplest way is to just set up cones as references (hash marks on a football field work as well) to gauge step length, and then use the app of your choice (I use Runmatic) to time the slo-mo video to get the air times and ground times. This will identify the athlete’s strengths and weaknesses in early acceleration and, when compared to the FVP information we gathered, give a clearer picture of where to “bucket” the athlete (which we will get more into later).


Video 2. Performing a video review to provide specific feedback to athletes.

The same thing can be done for max velocity mechanics. I usually choose three steps, culminating in the penultimate step of the sprint, and repeat the same exact process in order to see ground and air time metrics in the later phases of the sprint. This, combined with the RSI measurement we took, will once again aid in “bucketing” the athlete into the correct training program.

You can see in the charts the ideal ratios for these values, but in general we want to see the ground times get shorter, the air times get longer, and the step lengths increase as the athlete advances. Another useful metric here is the “kickback score,” which is a way to evaluate technical efficiency and evaluate to what extent the athlete “butt kicks” rather than steps over the knee in a concise fashion. For this, you will need a kinogram (again, I use Runmatic).

*Key side note: Even though the majority of traditional speed training focuses on the start and the finish, the transition is a place where, anecdotally, I have seen many athletes fail. This is something profiling will help identify. If they have a good start and still reach a high velocity but for some reason aren’t running the time you would expect, this is probably the culprit.

Even though the majority of traditional speed training focuses on the start and the finish, the transition is a place where, anecdotally, I have seen many athletes fail, says @CoachSSal. Share on X

In a conversation we had about this very phenomenon, Bobby Stroupe called this “the black hole.” In profiling, this shows up as an athlete who has a poor “DRF” (decrease in ratio of force). Essentially, they are capable of producing a high amount of horizontal force, but they bail on it in favor of vertical too quickly. We will dive deeper into this, as well as training interventions, later in the programming section.


Video 3. Athletes performing wall drills in a speed training session.

Stimulus

This is true, full-speed, all-out sprinting. The two most important things here are being patient in order to give sufficient rest times and ensuring maximal volitional intent. One minute of recovery per 10 yards of true speed is the standard recipe, which sounds like a lot, but I have found that if you are truly watching, coaching, giving feedback, and encouraging athletes to listen to each others’ corrections, the time flies by.

As far as the intent piece, there are several ways to manage this. First, as I always joked in college, you could line up a bunch of guys wearing NFL polos with clipboards and stopwatches. Seeing as that’s not a realistic option for most, the next best way is to laser time the sprints. You will get max effort typically because athletes are competitive; they want to beat their time, and you can’t hide from the truth. Having that data is also an excellent way to track progress over time. A live feed from a GPS system works as well if you have staff free to monitor the laptop without any coaching responsibilities.

Another efficient way to get maximal intent that works in all scenarios, both low-tech and high-tech, is simply to race. Again, athletes are by nature competitive: they love to win and hate to lose. To keep the races fresh and give everyone a fighting chance, I set up a number of different “heats” based off speed. Each week, we tabulate the results, and if an athlete had the most wins in their heat, they move up a group; if they came in last the most times in their heat, they move down a group. The number of races is based on a predetermined volume I want to hit. As stated in the course, 150 yards on an acceleration day and 250 yards on a max velocity day (resisted sprints are accounted for in this total too) are good thresholds.

Another efficient way to get maximal intent that works in all scenarios, both low- and high-tech, is simply to race. Again, athletes are by nature competitive: they love to win and hate to lose. Share on X

We typically time on max v days and race on accel days. Obviously, if you have GPS units, you will wear them throughout. With this setup for the “stimulus” aspect, nobody on your team gets stale, and they know they must show up to perform.

Putting It All Together

There’s a section in the course that lays out very clearly and succinctly the various options to choose from for planning a microcycle. I’ll detail my preference, which is a three-day speed model:

  • Early acceleration day
  • Late acceleration/transition day
  • Maximal velocity day

Program Templates
From there, I bucket athletes based off FVP. This is all covered in the course, but if you haven’t seen it, I will summarize how I approach it. The particular variables we look at are F0, Peak RF, DRF, and V0:

  • F0 – The total amount of force produced, which is clearly heavily influenced by the weight room and strength qualities.
  • RF – The ratio of horizontal to vertical forces at the beginning of the sprint (to put it in perspective, below 50% Hz is bad, 50%–55% Hz is solid, 55%–60% is good, above that is outstanding).
  • DRF – The decrease in ratio of force—essentially how much Hz force an athlete loses in favor of vertical for every incremental increase in speed (once again, to provide perspective, 10% and above is poor, 9% is okay, 8% is solid, and 7% is good).
  • V0 – Maximal velocity and the ranges will vary by age, sport, and position.

As I mentioned earlier, the overall scheme of the speed program is shorter to longer (distance), heavier to lighter (resistance), and slower to faster (velocity) over the course of the training cycle. This is where the individualization starts to bleed into the program. The course refers to these buckets as 2A-2C and 1A-1C. First, it is important to note that all athletes will spend time training all qualities: strength-speed/early accel, speed-strength/late accel, and velocity in a weekly micro. This ensures the retention of qualities that are already strengths and also allows for overlaps in training that help logistically.

However, in the first layer of individualization, athletes poor in F0 and RF (2C-2B) will stay in the first block (heavy) for an extended period of time and with a much higher percentage of weekly volume devoted to early accel/strength-speed work. Athletes who are poor in RF and DRF (2C-1C) will advance to the second block (medium) and stay there for an extended period and with a much higher percentage of weekly volume devoted to late accel/speed-strength work. Athletes who are poor in DRF and V0 (2B-2C) will advance to the third block (light) and stay there for an extended period while allotting a higher percentage of weekly volume to velocity work.

You will rarely see an athlete who is good at everything but just needs to get even faster. In fact, at the high school level, most athletes are in bucket 2B or 2C and need strength stimuli. But even assuming you have a wide variety of athletes, at this level there are still at the most three groups going at one time and typically only two (easily handled by almost any coaching staff). Athletes on a training template with less than three speed days would obviously prioritize their needs. For instance, in an athlete needing strength-speed, early accel would be one full day, and then if there’s a second speed day, late accel, and then max v only if there’s a third day allocated for speed, such as in my preferred model.

You will rarely see an athlete who is good at everything but just needs to get even faster. In fact, at the high school level, most athletes are in bucket 2B or 2C and need strength stimuli. Share on X

The next piece of individualization, the LVP (load-velocity profile), just dictates the weight on the sled. This gives you the load associated with peak horizontal power as well as the loads associated with different speed decrements and therefore different strength qualities (i.e., strength-speed, speed-strength, etc.). We already do this in the weight room; just carry the same method over to the field. Set each sled off the highest possible load, with a variety of plates, and give each athlete their number. Post it in the locker room and carry a list out to the field with you on a clipboard just in case. If you have Run Rockets or the like, this becomes even easier—just know your number and turn the dial.

Everybody, regardless of what bucket/block they’re in, will sled sprint, all that’s different is the load. If you haven’t LVP’ed, use percent of body weight but still manipulate it heavy, medium, and light to correspond with the different horizontal strength qualities. If you don’t have sleds, use bands: again, thick, medium, and thin as resistance. These are also more portable and easier to set up for coaches who are crunched for time between groups or must change locales frequently.

Dichotomy of Needs: Physical vs. Technical

Essentially, if the requisite strength qualities are in place as evidenced by profiling and secondary tests such as RSI and vertical jump FVP, but we’re still not getting the times desired, then it’s likely a technical issue.

Each session will already have a technical and physical component, so at this point, it’s simply a matter of volume. All the athletes in your group will already be doing the same drills, but technical guys will stay on the technical piece for slightly longer before moving over to the sleds; physical guys will move to the sleds earlier to get a few extra reps there. Then everyone will come together for the stimulus and race.

Logistics shouldn’t scare you. At the most, a coach will have 2–3 things going on at once. Last summer, when I first moved to the high school realm, I was a one-man show; even then, I still had a technical drill and a physical drill going on at once (directly overseen by a position coach), while I oversaw the whole operation. The technical group would pop off two reps for every one rep of the physical group, but I controlled rest times and each set was on my whistle. The sport coaches helped with organizing lines, crowd control, and motivation, while I coached and controlled work to rest.

We got better.

Obviously, in the system “physical” alludes to resisted running but also includes plyometrics and med ball throws. The list of plyos that you can use is long and distinguished (showing my age with the Top Gun reference), but in general, accel days are complemented by longer GCT exercises like broad jump variations while speed days are complemented by shorter GCT exercises like pogos, hurdle hops, etc.

As far as the technical piece, Les has another outstanding course called “Speed Pillars” that gives an idea of the drills that complement this system. In acceleration, examples include A-series, wall drills, banded projection and banded three-step, MB starts, kneeling starts, and four- and seven-cone drills. Velocity examples include dribble series, straight leg series, an assortment of bleeds, buildups, and wicket runs of varying distances. You probably have your own favorites. Obviously, that’s just a start, but it gives you an idea—drill selection will be dictated in large part by training emphasis and also placed on the yearly training calendar as coordination, difficulty, and intensity progress over time.

An additional aspect that falls more in line with the “art” side that can be influenced by these protocols is coaching language. Cueing can have a tremendous impact on coaxing technical adjustments; however, coaches often just repeat the same handful of tired and worn-out cues. With this system, coaches can individualize their feedback based off how the athletes are bucketed in much the same way that the program is individualized into groups to emphasize certain qualities. For instance, a 2C athlete (lacking force) and a 1C athlete (lacking reactivity) might do the exact same drill, but the 2C athlete could be encouraged to “push,” “project,” or “drive” while the 1C athlete might be encouraged to “pop,” “punch,” or “spring.” Tailoring instruction to meet the needs of the athletes will complement the environmental interventions and optimally bring out the desired technical and physical qualities we want to develop.

Tailoring instruction to meet the needs of the athletes will complement the environmental interventions and optimally bring out the desired technical and physical qualities, says @CoachSSal. Share on X

Different Sports and Different Positions

The last layer of bucketing would be adjustments made based on sport or position. For instance, some sports have little to no max velocity requirements. Some positions, such as a lineman in football, do not have the same high-velocity requirements as a skill position player. I like to include max-velocity work whenever possible, because as Ken Clark and others have demonstrated, raising maximal velocity raises all associated speed qualities, just like raising maximal strength raises the ceiling on the ability to develop associated strength qualities. That being said, for some sports/positions, it’s not as big of a priority. So, in my lineman example, no matter how the lineman tests, he will never be in the velocity bucket, ensuring that he always gets an extra helping of volume where he needs it most: in early acceleration work.

Additionally, I have seen tremendous success with this system in the return to play population. There are several reasons for this:

  1. The abundance of physical data provides metrics to compare an athlete to their “healthy” self to make a quantitative decision as far as what percentage of health the athlete is functioning at. JB Morin has shown that even when an athlete is able to hit their previous max velocity, some of the underlying force parameters are still sub-par, risking reinjury.
  2. The technical analyses provide the qualitative piece to determine if the athlete is moving well or still has visible compensation in their movement patterns.
  3. All the resisted running—progressing from heavy, short, and slow to light, long, and fast—is a good ramp-up to return to play, as often it is the speed of movement that is painful, not the muscular effort. This allows us to execute sprinting movements in a high-force, but safe, low-velocity environment. This is complemented by skips, switches, and dribbles at higher limb velocities but still traveling forward at a safe, scalable pace.

Bang for Your Buck

Now to the important part. This all sounds good in theory, and you can see how it’s simple enough to pull off logistically…but is it worth it? Does it work? Why does it work? Specifically, what type of results can you expect?

In addition to Les’ resume with top-flight draft picks, improving their times and draft stock, I have consistently seen improved times at every level and in every situation that I’ve been in. And the best part is I can look under the hood and see why they improved; or, if they didn’t improve as much as we wanted, I can see what went wrong and know precisely what to work on.

Let’s look at some numbers from an athlete I consider to be the median of what you can expect. Rather than just give a summary of values, I think it’s more beneficial to really dive into a truly representative subject and look at the good, the bad, and the ugly of a standard eight-week “pre-40-yard dash test” training cycle and the effect it had on a college football player, in both the physical and technical realms. Then I will quickly touch on how he was bucketed and what interventions we made.
30m Pre-Post

First, the physical. As you can see, this athlete shaved .2 off his 30-meter time in a standard eight-week cycle. The benefit of this system, again, is that rather than guess, we can see exactly how this happened. His velocity improved from 16.5 mph to 18.2 mph, and his theoretical max velocity (V0, or the speed he would reach based on his acceleration curve if he had continued to run past 30 meters) improved from 16.8 mph to 18.6 mph.

Velo Pre-Post

These numbers are from the MySprint app, which I’ve found to be conservative on velocity measures. This athlete touched 19 mph on their tested 40 according to GPS. In that same picture, you can also see that his F0 or total force and relative force (N/KG) at the beginning of the sprint actually got worse. This obviously was not the intent, and had I done a better job of retaining this piece, the results could’ve been even better. I attribute this to getting speed greedy and de-emphasizing general strength work. It was a good learning experience.

Power Pre-Post

In this next image, you can see that, even though the force production took an unfortunate dip, peak power still improved from 1,815 watts to 1,869 watts, indicating an improved ability to produce force at higher speeds, which was one of our primary training targets. In this view, you also see this athlete’s main weakness: DRF, which improved from a terrible 11% to a mediocre 9%—but even that small change can yield significant improvement in late acceleration for an athlete that has this as their weakness. RF stayed relatively the same at 55% and 56%.

So how can the athlete still have a decent start and maintain their RF (recall, ratio of horizontal to vertical force at the beginning of sprint) even with a decrease in total force? Mechanical (i.e., technical) efficiency.

Drive Index Pre Post

In this image, you can see that the athlete shaved .1 off their “start profile” (remember, one of the primary technical KPIs), which is essentially their time to 0 step, and first and second step. He decreased ground contact time on his first contact and decreased air time on both steps (arguably too much when compared to the ideal measures). This resulted in a greater horizontal orientation of the body and a steeper angle of projection and allowed him to hit the same stride lengths with a more positive shin angle, when analyzed on film.

This subject was bucketed as a 1C, being physically deficient in velocity-based power. He had a balanced vertical FV profile, so good vertical force, solid F0, and a good RF; and, as we say, technically sound at early acceleration. He had a terrible DRF and a poor RSI, and his 10–20 split was his worst split, relatively speaking, keeping him from hitting a sufficiently fast top speed. His training focused on medium to light resisted sprints and reactive plyos while focusing his stimulus work on 20- to 30-yard sprints. He obviously improved a lot in a short period of time. As I suspected, the new vertical FVP revealed a force deficiency, which, along with the dip in F0, meant a renewed need for the weight room and heavier sled clusters to complement the continued accel work to keep improving DRF.

This subject is par for the course of what you can expect with this system. Anecdotally, I train myself with this same system and broke 20 mph as measured by GPS and ran under a 5.0 electronic at 41 years old for the first time since my late 20s. (I was only a 4.8 guy when I played in college anyway.) Obviously, there are other training components necessary for the success of a team sports athlete such as ESD, general strength, deceleration, mobility, etc. They are beyond the scope of this article, but the system incorporates those as well, and perhaps I can write a follow-up on that process.

Closing Thoughts

The beauty of this system is that it is an organized and methodical way to evaluate and group athletes based on specific needs in a fashion that is easy to manage and—most importantly—it gets results. It is impossible to do the “Art of Acceleration” course justice in a single article, but hopefully this gives you a glimpse of how simple and effective it can be to use with your athletes.

The beauty of this system is it is an organized and methodical way to evaluate and group athletes based on specific needs in a fashion that is easy to manage and—most importantly—it gets results. Share on X

Go out and pick up the course, and while you’re at it get “Speed Pillars” too. You won’t regret it. Try it with your own teams and let us know if you have any questions. Best wishes and welcome to Speed City.

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


PR Push

“PR-Itis”: The Biggest Threat to Athlete Development and How to Combat It

Blog| ByMatt Tometz

PR Push

An athlete of mine finished their sprint and immediately looked back at me and said “Was that a PR [personal record]?” I said “No, it was not,” then registered the disappointed look on their face. Keep in mind, this athlete is only 10 years old (but very athletic and very competitive). I know this is not a healthy mindset for speed training and athletic development, so I need a solution to this problem.

PR-itis is a term my colleagues and I have coined to explain the belief that any training rep that is not a PR is a wasted training rep. PR-itis stems from the story athletes tell themselves about the process of progress—it is an unrealistic set of expectations about what the process of progress in athletic development really looks like.

PR-itis is a term my colleagues and I have coined to explain the belief that any training rep that is not a PR is a wasted training rep, says @CoachBigToe. Share on X

The root of this issue is that numbers are easy to understand and that the process of progress does not always follow a linear track. Those factors, combined with the amount of technology and instant data available these days, can lead to athletes misunderstanding the context for their own training data, which sets the stage for PR-itis. It is important for athletes to understand that in the process of progress, PRs will not happen every day—but there are still other objective measures of progress.

My athlete and I then had a conversation where I showed him a range of numbers, looking at both their PR and what 95% of their PR is. Next, I explained that that is our range of what is considered a high-quality, high-intensity rep for speed gains. The following week, my athlete finished their first sprint and immediately asked “Was that within my range?” (wipes tear away after proud coaching moment).

Imagine how impactful this lesson will be for this athlete years down the road, now that we have addressed their PR-it is and replace it with a new story of what their own progress looks like on a day-to-day and week-to-week basis.

The Origin of 95% Threshold

Developed by legendary speed coach Charlie Francis and adopted by one of his mentees, speed coach Derek Hansen, 95% of a PR is the threshold I have targeted as a high-intensity nervous system stimulus to improve speed. With how objective and instant feedback is with technology, we need something just as objective to help combat PR-itis and create context for our athletes.

The 95% threshold gives an objective way for me as a coach to change the context and expectations of a daily training session.

The 95% threshold gives an objective way for me as a coach to change the context and expectations of a daily training session, says @CoachBigToe. Share on X

95% In Real Training Sessions

Below is a chart I created in Microsoft Excel (my favorite) that has 95% of a large range of PR’s. I printed this out, laminated it (also my favorite), and taped it to the wall right next to the laser timing gates in the facility where I coach. I use this chart in two primary ways:

  1. For a quick reference of how to respond to my athlete asking “Was that within my range?”
  2. A conversation starter in between sprints to educate my athletes on PR-itis.
95% Chart
Image 1. Excel spreadsheet calculating 95% of a range of PR’s.

The 95% threshold also opens up a conversation about the process of progress. I was going through this talk with a group of high school athletes and asked them to list all the factors that contribute to sprinting at 100% and getting a new PR. In the facility I coach at, our main sprint times we test 1-2x a week include a Flying 10-yard sprint and “5-15” acceleration (first and last timing lasers are 5 and 15 yards away from the start line, respectively). Their answers included:

  • Sleep
  • Nutrition
  • The previous day’s training
  • Mental readiness
  • Motivation
  • Playing on 3 soccer teams (in the case of my 10-year-old athlete from before…)

Then I asked “What happens when one or two of those things are off? How often are all those things perfectly aligned?” This was a big lightbulb moment: with all the factors of being an athlete—let alone a student-athlete—PRs probably are not going to happen as often as they would hope. But now they have an objective way to evaluate the process that is not a PR.

With all the factors of being an athlete—let alone a student-athlete—PRs probably are not going to happen as often as they would hope, says @CoachBigToe. Share on X

Designing speed training for my athletes, we are going to sprint and time our sprints every session. The data is consistent, instant, and relevant to their goals of becoming faster. However, only being together for 2 hours of their entire week, there are 168 other hours that can detract from what we are trying to accomplish. PR’s do not (and will not) happen every session, but we need improvement to justify continuing the plan. When life and being an athlete with outside influences affects our training session, 95% is a new gauge of progress that is not a PR.

Getting faster over time is a combination of improved sprinting mechanics and improved neural output. Knowing all the factors that go into sprinting a PR (and everything else my athletes have going on), we can determine progress by improving mechanics and giving our nervous system high-intensity stimuli that will add up over time. This is through knowing that increased performance will come when most of the outside factors align (actually recovering from training, adequate sleep, proper nutrition, etc.).

Surprisingly, I have found only 11% of the time my athletes are under 95%, but that is an article for a different day.

Flying 10 Graph
Image 2. An example of an athlete’s Flying 10 sprint times over 19 sessions with their rolling average and 95% threshold. With this concept, 18/19 training sessions would be productive compared to the highs and lows of only tracking PR’s.

Below 95%

Within our 95% threshold, we also have below 95% and what that means. Just as easily as we can use a percentage of a PR to say “That was great, keep going,” we can also use it to say “Today might not be the best day for speed development” or “That was a little slow, how are you feeling today?”

On a normal training day, my athletes will walk in and I will ask how they are feeling, how was practice, how was school…but their answers never really get too deep. But if my athlete is under 95%, then I will definitely ask more questions.

Let’s say an athlete’s PR for a Flying 10 is 1.235 seconds. If they sprint a time slower than 1.297, I’ll check in with a question and conversation. It could have been that they just “felt” off, that they were thinking about technique too much, or needed that as a final warm-up. If they sprint two times that are slower, I will legitimately consider modifying the training session. It is hard to argue and say everything is okay with how objective the threshold is. However, it is important to open a discussion first with your athlete instead of jumping directly to a decision.

Then, I will learn that my athlete had 4 games in 2 days, they have not eaten anything that day, or they barely slept. These are all important details that athletes sometimes keep to themselves. With this new information, then I can make better decisions as a coach to guide my athlete and the rest of the training session.

One sprint under 95% opens a conversation and 2 sprints will almost always lead to modification. The premise of adapting the training session is that we are playing the long game. One session cannot make or break us, but it can take us in the opposite direction of our goal. How do we get the most out of today to help us achieve our speed goals in the future? What else can we do today that is not max-effort sprinting to help us achieve our speed goals?

One sprint under 95% opens a conversation and 2 sprints will almost always lead to modification, says @CoachBigToe. Share on X

The answer is mechanical work, active recovery, and/or sub-maximal lifting to set us up for success in the NEXT training session.

This is easier said than done, especially when dealing with one (or a few athletes). Within big groups, the issue is singling out a few athletes to stop training or do something different while everyone else continues. And that is always the issue with bigger groups: quality control. Understanding the dynamic of an athlete being in a group, assuming there would only be 3-5 timed sprints anyways, let them complete 3 and let the rest of the athletes do “bonus” timed sprints. Remember, it’s not always what you do as a coach but the athlete’s interpretation of it. Specifically making an athlete do less is different than letting other athletes do more.

Will an extra sprint or two under 95% ruin an athlete? No. But will it put them into a slightly more decreased state of performance than they were before, detracting from the end goal? Yes. There is no right or wrong, but there are consequences of both.

However, I must say that within groups of 8-12 athletes, when I do have 1 or 2 that are under 95%, they are OK with not doing all the sprints because I have set the foundation of explaining the 95% concept over the prior training sessions and time together. This is effective because I give an explanation to the athletes and also give an alternative option. “You’re under 95% today, so I’m going to let the rest of the group do two more sprints, let’s go through our sled marching series/A-series/whatever it may be in the meantime, then we will all do our agility work together.”

Below 95% justifies and opens a check-in with athletes about how they are feeling that otherwise might not have happened.

Near 100%

On the flip side, if an athlete is very close to a PR, I will almost always give them “bonus” sprints. Knowing PR’s will not happen all the time, let’s take advantage of when they are close.

Just because my program says “4 timed sprints,” does not mean I have to stick to it. If the athlete’s body and mind are in a state to sprint fast and sprinting fast aligns with the training goal, squeeze everything out of that training session.

Knowing PR’s will not happen all the time, let’s take advantage of when they are close, says @CoachBigToe. Share on X

Conclusion

Here is a quick cheat sheet for combatting PR-itis with percentage thresholds:
Chart

Our athletes want to succeed more than anything. They will give their all every session, try their hardest on every rep, and consequently want to see improvements from their efforts. Likewise, as a coach, we want to see our athletes improve and achieve success.

Understanding PR-itis and the 95% threshold does not discredit the pursuit of becoming better, but do not let the stories your athletes are telling themselves and their misunderstanding of their own data discourage and derail them from their process of progress. Use 95% of your athlete’s PR to combat PR-itis, justify conversations about the process of progress, and help them rewrite the story of what their athletic development actually looks like.

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


Hunter Soccer

Shifting the Team Culture in Soccer Through S&C and Cognitive Coaching

Blog| ByNoah Kaminsky

Hunter Soccer

Without a vision for success, you cannot design the process necessary to realize your goals. My coaching story begins with that vision, but the story I’d like to share aims to instruct on the process. I hope that new coaches (or even veterans) will benefit from this analysis of my time with the Hunter Boys Varsity and Junior Varsity Soccer team. After four years coaching the team (three as head coach), I asked my graduating seniors to reflect on their experiences. This is their reflection as much as it is my own.

Hunter College High School (HCHS) is not your average school—its graduates consistently go on to attend Ivy League universities and top academic institutions like Stanford, MIT, and Duke. The school offers an array of challenging coursework and student-run extracurriculars ranging from cultural clubs to academic competitions. The school also boasts more than 40 sports teams for grades 7–12, but graduates are rarely recruited to Division 1 teams.

As an alum, I fit the HCHS student-athlete archetype: I played soccer, swam competitively, and ran track. I contributed significantly to the success of each team because I was a decent athlete who trained hard and led by example. You can imagine my surprise when I was promptly cut from Cornell University’s D1 Men’s Track & Field team after fall training—very simply, I wasn’t good enough to make the team.

That moment became my athletic inflection point.

Getting cut motivated me to ask questions about my high school sports experience that I hadn’t previously considered. Today, my coaching embodies the answers to those questions.

When I returned to HCHS as an assistant soccer coach in 2016, I wanted to lead a team for which sport was more than a means to diversify a college application. I wanted an experience that rivaled the value students and parents placed on the debate team, science research, and music performance groups. I wanted to coach a soccer team that could serve as a course in training theory, personal maturation, teamwork, and leadership for its athletes.

I wanted to coach a soccer team that could serve as a course in training theory, personal maturation,teamwork, and leadership for its athletes. Share on X

A few problems immediately stood in the way of that vision:

  • Minor injuries occurred frequently.
  • Our team’s performance depended too much on the presence of a few individuals.
  • Our offense appeared chaotic and unguided by style or strategy.

To address these concerns, I needed a multi-year plan to cement lasting improvement and shift the culture of our team. I wasn’t trying to craft a miracle. I wanted to facilitate a better experience for my athletes—the experience I never had. I lost my junior year soccer season due to injury. In high school, our team’s individual skills were great, but our teamwork was poor.  Failing to address these problems in my own athletic experience, I became motivated to prevent such failures for the athletes I was coaching.

Balancing Fitness and Skill Development

To address the team’s offensive strategies, I began watching more professional soccer and reading the relevant literature. I also tried my best to listen to my athletes and logically apply their feedback as often as was reasonable. I presented various feedback opportunities to my athletes over the past four years, but they were never so formalized as the reflections I collected at the end of our fall 2019 season, which I have included here.

    “I witnessed quite a few injuries during my time, including a broken wrist of my own during my freshman year on the team. The rate of catastrophic injuries was relatively stable throughout my first three years on the team. This year, on the other hand, we had almost no injuries—which is nearly unheard of on a team of more than 30 guys. Although this could be attributed partially to luck, I think the focus on strength training, adequate stretching, and healthy eating all contributed to our improvement. I am far from the strongest guy on the team, but this year I felt confident and safe on the field throughout the entire season.” – Eric, Midfielder, Class of 2020

Eric was a crucial member of our midfield, and his comment on luck is humbling because good fortune will always claim a role in sports injury assessment. I make no exception for Hunter Boys Soccer; however, Eric’s evaluation of catastrophic injuries is somewhat inaccurate. Injuries persisted throughout his first three years on the team, but they diminished more than Eric acknowledges in his reflection.

Hunter Players
Image 1. Matthew, Eric, Jules, and the Hunter Boys Soccer team preparing to warm up for a HCHS Soccer playoff.

In fall 2016, Eric’s first year on the team, we lost five athletes to significant bone or muscular injury. In Eric’s senior year, fall 2019—when strength training shared the greatest portion of practice time since its introduction to the team—we had zero catastrophic injuries. Each year forward saw fewer athletes with a similar degree of injury. As one of Eric’s senior teammates explains below, the benefit of increased strength training extended well beyond injury prevention.

    “While my teammates may not have appreciated it enough, each year saw massive improvements which played a role in getting us through longer games. For instance, in the round of 16 playoffs match of fall 2019 season, we played the full 80 minutes, plus extra time, and into penalties. Even in the last few minutes of extra time, our team was able to keep pushing forward and this was mainly due to improved stamina and conditioning.” – Matthew, Midfielder, Class of 2020

Matthew was another excellent midfielder who benefited greatly from our new balance of fitness and skill development. He was a proficient playmaker, moving the ball effortlessly from defense to offense, but I often worried that his thin physique increased his risk of injury in harder tackles. Matthew improved his deadlift by more than 50 pounds from his junior to senior year, and he saw less significant improvements—but improvements nonetheless—in his other lifts over the same period.

While the wider athletic community and its highest-level practitioners have known how crucial strength and conditioning is for competitive and recreational sports for decades, its intrinsic value remains poorly emphasized, or utilized, in most youth sports programs in New York City. In public high schools and athletic clubs, I have not observed coaches balancing the physical demands of their athletes’ technical skills. My experience as both a youth athlete and a coach in the city reinforces this training deficiency.

I introduced mandatory strength and conditioning to my soccer team because my coaching education indicated it was the obvious solution to reduce injuries. Many stakeholders on the team didn’t see it that way—initially, strength and conditioning was undervalued by my players, some of their parents, and even my athletic director.

Many of my soccer players didn’t want to hear that they needed less time playing soccer and more time in the weight room…In all fairness, players were right to assert their skepticism. Share on X

No different than my observations, my team struggled to adopt this new balance between fitness and skill development. Many of my soccer players didn’t want to hear that they needed less time playing soccer and more time in the weight room. Without getting too esoteric on the peer-reviewed sports medicine literature, I would tell athletes and parents, “You spend less time preventing injury than time lost due to being injured.” The bumper sticker ideology only carried so far, but as you’ll see, they eventually embraced this philosophy.

    “I needed preseason to reaffirm my soccer skills and get comfortable with the team before I was able to perform to the highest of my ability. With a greater focus on strength work, I had trouble feeling comfortable on the field until midway through the season. However, by the end of the season, I felt better than I probably would have felt without strength training.” – Eric

In all fairness, my players were right to assert their skepticism. I was a first-time head coach and didn’t want to close myself off to feedback. Some of my practice drills were too complicated, and my judgments on positioning overlooked seasoned relationships between certain players. I knew how I wanted my team to play, but I was still working out my process for getting there.

    “Practices weren’t necessarily seen as the best use of our time, since there was often discussion and explanation before our drills. Usually, I preferred drills that were rote repetition of a simple action or a combination of simple actions.” – Ben, Defender, Class of 2020

Ben was never an obstinate or obstructive player. He offers a glimpse at what was clearly on the minds of his teammates during my early years. Explanation of drills can feel redundant when athletes have performed them before, but a team deserves time for reflection on their collective and individual choices. As a coach, you have to guide those conversations to keep players’ comments positive, discrete, and goal oriented. Over the years, I have simplified the drills and promoted older players in leading reflections.

On the Offensive

A fast-paced possession game, in which no player holds onto the ball longer than two seconds, requires being in the right place at the right time. The speed and endurance necessary to sustain that style of play came from sprints in our warm-up and time in the weight room. I encouraged my players to perform their cardio development on their own.

The more difficult, cognitive component of “right place, right time” demanded a familiarity and trust among players through our drills in practice, which focused on perception, anticipation, and reaction to ball movement. Some coaches refer to these skills as “soccer intelligence” or “cognitive soccer.” With our offense, I emphasized cognitive soccer in practice over and above individual technique.

My emphasis on individual cognitive skills was foundational for building trust between players. Once that trust existed, I let my best 11 players solve their own tactical problems. Share on X

In fact, prior to coaching, I never realized that my success as a player derived greatly from my own cognitive skills rather than my footwork or finesse with the ball. My perception, anticipation, and reaction were instrumental to the tactical choices I made in a game, so it is no wonder I coach the Hunter Boys Soccer team the same way. My emphasis on individual cognitive skills was foundational for building trust between players. Once that trust existed, I let my best 11 players solve their own tactical problems.

Hunter Soccer
Image 2. The Hunter soccer team with Coach Noah Kaminsky.

Substitutes are not second-rate players when they train similarly to the starting 11. Instead, they serve as they are named: replacements to starters with little disruption in the relentless pursuit of scoring goals. In our league, substitutions are unlimited, and players are allowed re-entry.

Though our wingers are generally the most athletic players on the team, the demanding nature of their position requires frequent substitution. Speed and strength endurance underwrite their ability to defend, counter, sprint, and cross the ball. This strategy continues to work well for us. In addition to their athleticism, I appreciate our wingers who ask for a substitution when they feel fatigued. The weight room is a great place to acquaint yourself with humility.

I emphasized a style of play contingent upon positioning and quick-paced, intelligent passing. Strength and speed training prepared my team to play their game faster and more consistently than their opponents through the full 80 minutes or more.

Ideally, good clean soccer maintains possession and avoids dangerous tackles. Inevitably, this forces your opponents to utilize dirtier tactics to retrieve the ball, so increases in absolute strength became a necessity. I used the one rep max as my indicator for the ability to withstand a tackle.

This time in the weight room may have come at the cost of practicing fundamental skills, such as dribbling and shooting, but I didn’t believe many players needed to practice those fundamentals beyond the early part of our season. Most Hunter soccer players arrived already proficient, or even advanced, in those fundamental skills as freshmen because they had been playing soccer for several years with a local club team. The August preseason refreshed those fundamental skills—then, we gradually moved away from basic drills to embrace cognitive skills as the season progressed.

    “…For any school team, the club players who spend all year playing soccer were able to translate these skills in the high school season and become standout players. Without a coach who was well-versed in soccer-specific drills and tactics, players were left wanting more out of each practice. While this lack of knowledge may have stunted technical growth, I feel our team was still able to develop physically and psychologically over my four years.” – Matthew

I admit that offensive tactics remain the weakest component in fulfilling my vision for the team, but Matthew’s words amplify the improvements made despite the weakness. I suspect Matthew’s concern for “specific drills and tactics” derived from his early soccer education. A different style of play probably would benefit my professional development, but it’s also possible those “specific drills and tactics” fit Matthew’s expectant style of play alone. If it challenged or slowed the organic, unified growth of our team, then I’m comfortable with their exclusion.

Matthew was a fantastic soccer player, whom I could trust with leading drills and fostering team culture. He wasn’t the coach. Each year, I had to be mindful of those differences to continuously craft a cognitive offense.

    “Learning how to function relative to my teammates was something that came out of drills that allowed for multiple decisions, like a simple 3v3 possession drill, where you get a bit of a feel for how your teammates both defend you and move around you. It’s a wonderful feeling to be able to predict your opponent or your teammate and make a play off of that intuition.” – Ben

Teamwork took its shape organically from the trust developed between naturally talented players and teammates who made up for their skill deficits with hard work. We will always have keystone players, but strength and conditioning has diminished our reliance on them, creating a synergy for any individual player to insert themselves into the game smoothly without harming the offensive or defensive strategy.

We will always have keystone players, but strength and conditioning has diminished our reliance on them. Share on X

I expect that cognitive soccer will remain the core of our offense because gameplay encounters minimal disruption with our seniors’ departure. As long as the underclassmen have been practicing alongside older teammates and pushing numbers in the weight room, I expect a seamless transition to the new season.

Confidence Is Key

Confidence is a hard variable to measure: it’s intangible and unquantifiable. I have a few indicators to gauge team confidence, but I recognize that their credibility is limited.

At a selective preparatory high school like Hunter, there are innumerable competing factors for a student-athlete’s time. Music lessons, math tutoring (as tutor or pupil), debate team, school publications, and science competitions are just a few of the activities that consume students’ time besides their usual 3+ hours of nightly homework. Practice attendance may not be a great indicator for commitment outside of our school community, but it’s a reasonable gauge for our team.

    “Everybody showing up is crucial to encouraging a motivated team.”– Ben

I counted many more absences in my early days coaching. Athletes show up because they know what you’re doing for them—and what they’re doing for each other—has value. Like I noted earlier, I began relying more on low-stakes games for warm-ups—like Lions & Tigers, variations on tag, and relay races— merely to increase the fun factor. As Tony Holler preaches, “lighting a fire” or “filling their tank” instead of draining it is the easiest way to keep kids coming back.

    “One of the most significant differences that I’ve noticed throughout my time on the team is a change in the team’s mentality. With each passing year, I feel like the team has become more tightly knit and inclusive. As a freshman, I had a close bond with my fellow freshman members of the team, but I felt quite isolated from the rest of the team. Lacking the skill or fitness to compete for a starting spot, I wasn’t as motivated as I should have been at practice and saw the road to getting a starting spot as a matter of others leaving at the end of the year rather than me getting better myself. However, the level of commitment and devotion that I have seen from current freshmen and sophomores has improved significantly since my time in their shoes.
    I believe that this change in mentality is a result of a more inclusive, but also a more competitive, environment where freshmen are seen as more than just benchwarmers. This season, both freshmen and sophomores were consistently present on the starting lineup, which had a big impact on the morale of younger players and the work ethic of older players, who were pushed beyond complacency.”– Eric

Eric’s reflection brings tears to my eyes. His words capture the first time anyone admitted that my vision for Hunter Boys Soccer had been realized, even if just partially. I appreciate the comparison he offers about his first year on the team to that of the freshmen in his senior year. He acknowledges younger players’ value and participation have risen.

I counted many more absences in my early days coaching. Athletes show up because they know what you’re doing for them—and what they’re doing for each other—has value. Share on X

I am fortunate for where the team’s attitude toward them has landed. Our youngest players deserve to be treated like rock stars, because they are the future of the team. They may not play the most minutes, but they are still the most important to sustaining the team’s success in the long haul. One of our freshmen, who had been known all too well by teachers like me for his eighth grade hallway antics, became an exemplary athlete for his work ethic and attitude.

    “Going into this season, I had an expectation that I’d be riding the bench, carrying the gear, and fetching balls the whole season. And while I did my fair share of that, I also felt like I immediately got welcomed into a family—the Hunter Soccer team—which was really special. Throughout preseason, I heard many of the upper-termers talk about how much worse the team would be than years past, and I’ve definitely caught myself slipping into that sort of mindset going into next season, but we exceeded expectations from last season. I was proud of that. The season certainly taught me a lot. I began to understand a deeper, more advanced version of the sport that I’d been playing for 10 years prior, and I found a new passion in the weight room.” –Jules, Defender, Class of 2023

Jules’ confidence in the team and in himself encapsulates the personal growth possible in one season for a young player. Whereas Eric, Matthew, and Ben offer perspectives in hindsight, Jules’ reflection confirms our team’s multi-year shift in its present character. I’m horribly biased, but I would like to recognize the hope that Jules shares implicitly in his reflection too. Every freshman on every team should feel like Jules did at the end of their first season.

Takeaways for All Teams

While Hunter Boys Soccer always benefited from the leadership of its upperclassmen, past classes never emphasized fitness as much as I have since I became head coach. I raised our fitness expectations out of necessity to prevent injuries. My focus on speed and strength raised our ceiling higher than a similar emphasis on soccer skills would have over the same period. In my own reflection on the balance between skills and fitness, I find myself returning to a quote in my article “What to Do If Your Athletes Are Not Improving”: Australian track coach Alan Launder wrote “that which is technically desirable must be physically possible.”

In soccer, Launder’s maxim doesn’t apply to the technical skills necessary for any given moment, but rather their continuous performance throughout an entire game. Beyond one day’s session, a minimum requisite strength also applies to the demands of a week or a season. Increased absolute strength attenuates the compounded effect of soccer practice on the body. Heavy resistance training encourages teammates to push each other toward bigger numbers. If you can foster a supportive fraternal atmosphere during strength sessions, then that same spirit should easily extend to the soccer field, where it can reduce interpersonal conflicts and increase your opportunities to offer feedback.

Final Four
Image 3. A Final Four appearance for the Hunter Boys Soccer team.

When I collected these reflections, the Hunter Boys were one penalty kick away from the city championship finals. We played a shortened spring 2021 season with no playoffs due to the pandemic; when we returned fully in fall 2021, we went undefeated and qualified for the city championship finals. We didn’t win the championship, but again we leveled up—adding further evidence to support my process.

High school coaching really distills down to galvanizing your team toward a common goal and educating each athlete in the process for getting them there. Share on X

I’ll be the first to admit my understanding of soccer has not increased significantly. High school coaching really distills down to galvanizing your team toward a common goal and educating each athlete in the process for getting them there. Hunter Boys Soccer needed confidence, a more cohesive offensive strategy, and more explicit measures of improvement than just wins and losses. I reconfigured our process to address those deficits and accepted the multi-year timeline.

I don’t like to think of myself as an innovator—I am a young coach who heeds the advice of the best practitioners in sport. I’m still nervous on game day; I still agonize over the day-to-day planning, but that’s where game changers thrive. I know I’m doing something right when I feel like I can never get it right. A shift in team culture comes directly from the coach.

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


Reactive Strength Output

Reactive Strength Output: A Measure of Reactive Strength and Neuromuscular Strain in Plyometric Movements

Blog| ByAsh Buckman

Reactive Strength Output

By Ash Buckman and Matt McInnes Watson

Plyometric performance dictates key movement actions within team, combat, invasion, and court-based sports. A soccer player outjumping a defender to win a header, the quick feet of a boxer to dodge an incoming punch, a winger in rugby cutting to evade a fullback, and a basketball player leaping up for a game-defining dunk all require the presence of plyometric competency. Proficient landing/takeoff mechanics in sports can be the 1% difference between winning and losing.

The use of plyometric training can improve these KPIs to enhance athletic performance. Effective long-term plyometric training can produce one of two responses:

  1. An athlete who can produce force quicker.
  2. An athlete who can produce more force over time.

If we can produce an athlete who adapts in one of these two ways, they have the potential to better execute locomotive movements by jumping higher, running faster, and being more agile. With research showing variations in plyometrics leading to more significant increases in performance, the recent use of plyometric training has increased, and development in the area is also growing. Thus, to account for the surge in popularity, work must be done to improve monitoring, coaching, and training.

As mentioned in our previous article*, the reactive strength index (RSI) is a valuable testing measure to identify an athlete’s ability to produce vertical force through flight time or jump height (FT/JH) over the time spent on the floor (GCT). When using RSI as a testing measure, we can assess peak performance output from protocols such as a drop jump or a 10/5 repeated jump, yet that is the extent of its use.

Furthermore, we believe RSI as a performance output value is fundamentally flawed. RSI intends to express the plyometric work performed by an athlete and how they have utilized their reactive strength. The issue with RSI lies in the fact that it does not consider the approach into the landing, in which an athlete must react to produce a performance output.

The issue with RSI lies in the fact that it does not consider the approach into the landing, in which an athlete must react to produce a performance output, say @AshBuckman & @mcinneswatson. Share on X

By creating a reactive strength ratio (RSRatio) to monitor plyometric momentum in horizontal movements, we have been able to appreciate the work that goes into producing an RSI value. If we break down the term “reactive strength,” we can gain a better understanding of what the term means and what is required to utilize reactive strength in given movements.

  • Reactive – Acting in response to a stimulus rather than absorbing/controlling it.
  • Strength – The capacity of an object or substance to withstand great force or pressure.
  • Reactive Strength – The ability to withstand eccentric loading from a stimulus and reproduce with maximal concentric force into subsequent takeoff.

Breaking down and comprehending the definition makes it easier to understand why RSI might not be the best measure of reactive strength since it does not consider the person’s ability to be reactive to an incoming landing.

Approaches to landings vary in plyometric movements based on variables such as flight times, fall height, and speed. Thus, the levels of reactive strength needed to reproduce force will differ even if RSI values are the same. This is not a criticism of RSI, which is highly useful as a monitoring and tracking tool for coaches and athletes. However, the value has a strong focus on the performance outcome rather than the process.

RSI is more of a direct measure of the stretch-shortening cycle, with RSI having been adapted to account for CMJ with the RSI-Mod equation. Thus, it is arguably closer to a measure of impulse than reactive strength. If we want to measure an athlete’s reactive strength capabilities, we must consider not only the outgoing performance (RSI) but also the incoming momentum and how that will affect the outcome.

*Note: This article is a follow-up to “Reactive Strength Ratio: A New Way of Evaluating and Monitoring Plyometrics” by Matt McInnes Watson and myself—we would highly recommend using that article as your starting point.

Introducing Reactive Strength Output

As practitioners, we aim to quantify and analyze as much as possible to ensure we provide our athletes with the best coaching possible. RSI has been fundamental in measuring athlete progress and neuromuscular readiness, but we believe there is more to be derived from data collected in plyometric movements. By introducing RSRatio, we can now analyze plyometric movements’ fluidity and provide coaching cues to manipulate variables to enhance performance. Still, we believe there is even more scope for analysis. In many other exercise types, it is possible to measure the value of work done, whether that is force or power. This is an element of plyometrics that we can add to RSI to assist in exercise monitoring.

RSOutput was a metric created to add to the RSI value to identify the level of work performed during plyometric movements. This new metric aimed to consider the varying approaches into plyometric landings as part of the overall value to determine the neuromuscular strain and effort experienced during movements.

You can see a practical example of this when comparing two drop jumps from different box heights, where the higher box may produce a lower RSI value. However, by considering the load in the increased approach to ground contact, the actual work performed may be greater than the lower box height that produced a greater output. By just considering the RSI scores, coaches and athletes may be led to believe that the athlete experienced increased work during the lower box height. Using RSOutput, we can quantify the body’s ability to tolerate incoming load and produce an output measure (RSI).


Video 1. A comparison of two drop jump performances with similar RSI values of a 15-centimeter and 45-centimeter box height.

Measuring Reactive Strength Output

When creating a method to calculate reactive strength, we felt it was important to understand the impact of the approach on the movement and account for incoming RSI—this allows us to consider the athlete’s ability to manage eccentric landing forces from the incoming FT and then reproduce it. We can account for the mean workload needed to complete the plyometric movement by taking the average value of both incoming and outgoing RSI. A lower incoming RSI will reduce the mean compared to outgoing RSI, whereas a higher incoming RSI will increase the mean.

When an exercise has an RSRatio of 1, incoming RSI will not affect mean RSI due to a balance of incoming and outgoing plyometric momentum. By using this mean value, large incoming RSI values that lead to smaller outgoing RSI values aren’t solely dependent upon the output value and will account for the increased loading of the approach. However, by only collecting the mean of incoming and outgoing RSI, values may be equal in two plyometric movements even though one may have a much larger incoming RSI leading to increased loading to overcome.

Therefore, we must divide the value by RSRatio to account for the more significant neurological stimulus attained from increased incoming FT or drop heights. By dividing the average by the RSRatio, we can account for this increased loading of plyometric movements where RSRatio <1 generates a reactive strength value that reflects the movement’s demands.

RSO Calculation
Image 1. The data that produces the RSOutput calculation.

When using RSOutput to measure a drop jump movement (fall from a box), you must double the incoming flight time to determine the box height as the apex of a full jump (the 0.6-meter box fall time is 0.350, but it is 0.700 in the equation). An example of the calculation process for a drop jump can be seen below.

    RSOutput = ((Outgoing RSI + Incoming RSI) / 2) / (RSRatio)

    Box Height: 0.3m = 0.247s Fall Time

    Incoming RSI: Approach time – (2 * 0.247) / 0.185 GCT = 2.68

    Outgoing RSI: Flight time – 0.550 / 0.185 GCT = 2.97

    RSRatio: 2.97 / 2.678 = 1.11

    RSOutput: ((2.68 + 2.97) / 2) / 1.11 = 2.54

In the above example, the fall into the ground contact is lower than the next flight time from the jump; thus, the incoming RSI will be lower than the outgoing RSI. This has reduced the overall mean RSI, as it would be perceived as easier than reproducing the same outgoing RSI from a higher box height. By dividing by the RSRatio score, we further reduce the RSOutput score due to the reduced eccentric loading experienced from the movement. This example has an increased concentric workload compared to eccentric, and the strain on the body would be less than if the athlete had fallen from a greater height.

While RSOutput isn’t an objective measure of work done like force or power, in the absence of force plates, it provides a useful metric to understand the athlete’s level of reactive strength. Share on X

While RSOutput is not an objective measure of work done like force (Newtons) or power (Watts), with the absence of force plates, it provides a useful metric to understand the level of reactive strength utilized by the athlete.

Implications for Training and Coaching

It is crucial to understand the purpose of RSOutput in terms of when we should use it, what it means for training, and how we can optimize athlete performance from the values we obtain. By combining RSOutput with RSI rather than replacing it, we can create a broader picture of the athlete’s performance and genuinely understand how the body works. With all three values (RSOutput, RSRatio, and RSI), we can obtain all the information required to assess plyometric movements.

By combining RSOutput with RSI rather than replacing it, we can create a broader picture of the athlete’s performance and genuinely understand how the body works. Share on X

We need to collect RSI, as it provides us with the performance output measure; however, by collecting RSOutput, we can identify training zones and exercises to help improve plyometric performance. And, finally, by including RSRatio, we can measure plyometric momentum in locomotive movements and determine whether the plyometric movement has a concentric or eccentric focus. We can adjust extensive plyometric exercises by adapting elevation and incoming FT during approaches to force an RSR of less than 1 and increase the level of reactive strength utilization while similarly controlling the approach to induce an RSR of more than 1 to work on mechanics and concentric effort.

Reinventing Drop Jump Testing

Identifying optimal height for peak RSI values has been part of research and coaching debates for many years, not just as a method of tracking athlete progress but also profiling them based on their ability to handle increased fall heights. Coaches and athletes have used tests such as drop jump profiling and the 10/5 RSI test to determine an athlete’s optimal RSI score through controlled and self-regulated fall heights. The aim from training, then, is to see improvements in RSI scores from self-regulated or set drop heights or to see increases in fall heights with a similar RSI depending on the required adaptation from training.

However, when looking to train athletes to see improvements in drop jump performance, coaches often train at a supramaximal height to increase the eccentric loading. Identifying the increase in drop height is random and uncalculated. Yet, by calculating values such as RSRatio and RSOutput, it is possible to increase the control over exercise prescription and intensity for plyometric exercises, especially when vastly differing box heights could have similar RSI values.

Drop Jump Profile
Image 2. A drop jump profile identifies the relationships between RSI, RSRatio, and RSOutput across varying drop jump heights.

When looking to profile athletes using varying drop jump heights, coaches can obtain RSOutput values to provide a bigger picture of an athlete’s reactive strength, which can aid in the programming of plyometric exercises. The graph above shows a drop jump profile with RSRatio and RSOutput values plotted against RSI across varying drop heights. This allows us to identify optimal drop height for RSI as traditionally used but also to see the height at which an athlete is maximally working their reactive strength through RSOutput. This highlights that, as drop height increases, the level of reactive strength increases even when RSI has decreased, until a point where RSOutput will plateau and then eventually drop.

So, what does this tell us?

By pinpointing fundamental values such as peak RSI, RSRatio = 1, and peak RSOutput, we can start to identify potential training zones for not only drop jumps but locomotive extensive plyometric exercises. In the adapted graph below, we have plotted these key values and corresponded them to one another. We calculated predicted peak RSI using trendlines on Excel, which would suggest that for this athlete, an optimal box height would be 0.34 meters and was at an RSRatio of 0.97.

To generally improve RSI, we would suggest training at an RSRatio of around 1 in drop jumps and locomotive plyometrics due to the close nature of peak RSI to RSRatio = 1. Peak RSOutput was achieved at 0.5 meters; thus, when looking to maximally stimulate the neuromuscular system, we would suggest this particular athlete train around this value, and in extensive plyometrics, an RSRatio of 0.8 should be the target.

Every athlete will be different, and although most would follow a similar trend, it is worth profiling your athlete and getting accustomed to their profile and training based on their reactive strength to get the best adaptations from the training.

Second Drop Jump Profile
Image 3: Drop jump profile 2, with key performance measures identified from the values across a range of drop heights. These values are crucial to determining training intensities and prescribing effective box heights.

To Conclude

RSOutput is a practical value that can help identify an athlete’s level of reactive strength and provide guidelines to help with training zones within plyometric exercises. In conjunction with RSI and RSOutput, breaking down an athlete’s plyometric capacity and increasing plyometric training specificity depending on the athlete, block of training, and sport is possible.

RSOutput is a practical value that can help identify an athlete’s level of reactive strength and provide guidelines to help with training zones within plyometric exercises, say @AshBuckman & @mcinneswatson. Share on X

RSRatio and RSOutput are metrics that can be recorded through simple technologies and linked into many exercises to look to enhance sporting performance. We recommend that coaches explore their use with the athletes they train.

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



Matt Watson 2Matt McInnes Watson is a track and field and performance coach. He has a master’s degree in athletic development and is currently studying for a Ph.D. in plyometrics. Watson is the owner of Plus Plyos, a coaching business that provides supplementary plyometric programs through video format. He is currently teaching in the United Arab Emirates, and he coaches multiple athletes from the U.K. and U.S.

Tactical Athlete on Hike

Misconceptions of Training the Tactical Athlete

Blog| ByDanny Foley

Tactical Athlete on Hike

There is no shortage of misconceptions surrounding the tactical population and approaches for strength and conditioning. For the better part of four years, I’ve been working predominantly with the Special Operations community and some Special Forces personnel. I work with both active duty and veteran populations, and it’s honestly difficult to describe some of the things I’ve heard about their training and the physical demands of their work—from the old adages like “resting is a sign of weakness” and “if it doesn’t hurt, it isn’t changing you” to more current and nuanced ideologies such as trend dieting, nonconventional health treatments, and extreme training endeavors.

The collective evolution of exercise and training across all military branches is actually quite fascinating, and it’s safe to say it has continued to improve and become more pragmatic for our service members.

Nevertheless, while there is almost always good intention, there is also a fair amount of misapplication, sometimes unbeknownst to the coach/instructor or the athlete. Through my work at Virginia High Performance (VHP), I’ve been afforded a tremendous opportunity to not only work with these individuals in a one-on-one manner but to do so with very little constraint or oversight. This opportunity has given me an enormous amount of time to try different methods and applications. Importantly, it has also given me the chance to make mistakes and see what definitely does not work.

With that in mind, in this article, I’d like to discuss what I feel are three of the most prominent misconception-based mistakes that occur when working with the tactical population.

Mistake #1. Attempting Movement Mimicry and Assimilation

Without a doubt, the number one mistake I see made with tactical athletes is attempting to assimilate or replicate in the gym what they do professionally. There are many issues with this approach. Chief among them is that it gives the immediate impression that you really don’t understand the constructs of your role as a strength and conditioning coach—so, instead, you’re just going to play charades.

Without a doubt, the number one mistake I see made with tactical athletes is attempting to assimilate or replicate in the gym what they do professionally, says @danmode_vhp. Share on X

It’s important to recognize the substantial amount of time, intensity, effort, and resources put into our service members’ professional development. As such, they spend considerable time doing things like weaponry work, close-quarters combat (CQB), and marksmanship drills. Not to mention, they perform all these things under the direction of the most skilled instructors in the world. This makes it far from logical or practical to assume that the handful of hours we see someone in a gym will have any bearing on the thousands of hours of development they’ve had on base or command.

If you’re a strength and conditioning coach working with a basketball player, it wouldn’t make much sense to do things like a Pallof press while the athlete is dribbling a basketball. Why? Well, because the ball-handling aspect isn’t demanding enough for the athlete to promote any sort of adaptation, nor is the Pallof press promoting enough of a stimulus to drive a physical adaptation. Drills like this also lack the contextual demands for transfer (e.g., no defender or objective, making ball handling non-specific). Effectively, you’re just having them do two things worse at once and in a way that doesn’t provide any sort of meaningful outcome.

Banded Shot
Image 1. Mimicry gone wrong.

The exact same case applies to tactical athletes. So, rather than tying bands to guns for “resisted draw, aim, shoot,” simply assess them as athletes and do your job.

We are rooted in the foundations of anatomy, biomechanics, and physiology, and that is precisely how we can best influence our athletes—tactical or otherwise. My inherent goal is to simply be the best professional I can be and emphasize exactly what I know and can best provide for them. You’re not trying to make them better operators; you’re simply looking to influence or improve the physical qualities required of them to be more capable of performing their job.

This generally leads to basic things we would see in any other specific population:

  • Injury management and restoration.
  • Improving strength and speed.
  • Improving conditioning.
  • Restoring joint ROM/tissue quality as needed.

Leave the tactical skill development for the true experts, and you can focus on the components you’re able to influence and keep pushing.

Mistake #2. Finding Failure (Disproportionate Volume/Intensity)

Whereas the assimilation and movement mimicry tactics are poor training, overloading tactical athletes is nothing short of you becoming a liability to their career. Disproportionate volumes and intensities in training are clear injury risk amplifiers with this population—not just acutely or in the moment, but also setting them up for failure when they conduct their training at work. There is an inherent presence of high-volume, high-intensity demands for military operators, making them prime candidates for mechanical overload syndrome.

The best results I’ve had with tactical athletes in a four-week stretch have been the result of mostly unloading them and promoting more parasympathetic applications, says @danmode_vhp. Share on X

As performance coaches, when tactical athletes come to us, we must be measured with when and how we apply high force or high-volume loading. Beyond overstressing the athlete in a global sense through poor programming, we also need to be mindful of not overloading the athlete in a localized manner either. An easy example would be understanding the demands of kit, helmet, and night vision nods and that because of this demand, heavy back squatting is likely a poor option for most operators. Bad things happen when you place compression on top of compression (e.g., cervical discs, thoracocervical junction).

Additionally, assuming that they can endure it in the training setting just because they’re accustomed to high volume or extreme intensities is a critical disservice. In fact, I can say that the best results I’ve had with this tier of athletes in a four-week stretch have been the result of mostly unloading them and promoting more parasympathetic applications.

Omegawave
Image 2. An Omegawave reading showing a steep decline in readiness.

On average, roughly 70% of athletes we see are in an overly sympathetic state when they start with us. This means their body is in constant overdrive and has difficulty with sleep and/or relaxing, a compromised ability to recover, impaired metabolic function, and likely some level of endocrine strain. The crazy part is that without sophisticated tools like the Omegawave and Oura ring to measure this, you can rarely tell that they’re in a state of unrest or true exhaustion. Taking athletes with this kind of metabolic profile and throwing them into high-intensity or high-volume programming (e.g., heavy bench press, exhaustive “WODs” going for long-distance runs with a weight vest on) is unequivocally an imprudent approach.

Meet them where they are, and when working with active-duty populations, be sure you thoroughly understand the physical demands of their work environment. You’d be blown away by how much improvement someone can make when they just allow their body to downregulate for a few weeks and train with some level of intensity and consistency. It honestly doesn’t take much.

You’d be blown away by how much improvement someone can make when they just allow their body to downregulate for a few weeks and train with some level of intensity and consistency. Share on X

But no matter what style of training you believe in or utilize, just don’t simply crush them with overzealous intensities and volumes. I promise you don’t need to put on a show by demonstrating how “hard” you can push them. Just assess and apply what’s needed.

Mistake #3. Assuming Ability = Training

The last misconception I want to throw at you is to never assume that just because this population tends to be highly fit, they understand what they’re doing when it comes to training and nutrition. I have met some of the most wildly “in shape” and physically impressive individuals in the world through my work. I’ve worked with several individuals who’ve climbed Everest, Rainier, and other peaks and some who’ve completed Iron Mans, 100-mile runs, 24-hour marathons, and so forth.

I mention all that to say this: Do not confuse physical ability or genetics for knowing how to train optimally. I promise you, very few athletes actually do.

DXA Example
Image 3. DEXA scan measuring body comp.

I’ll leave you with a quick story. I recently finished working with an athlete who checked IN at 7.5% body fat (only the second time I’ve seen someone under 10%). My initial thought was, well, what am I possibly going to be able to help this dude with? He had completed multiple marquee events and physical endeavors and was insanely committed to maintaining his training priorities and health-conscious lifestyle.

Never assume that just because this population tends to be highly fit, they understand what they’re doing when it comes to training and nutrition, says @danmode_vhp. Share on X

As it turned out, he was driving himself into a (somewhat severe) catabolic state. He was in a true overtraining state, resulting in metabolic/endocrine strain lethargy and hormonal decrements. Over the four weeks we worked together—and in conjunction with multiple modalities—we were able to, in a sense, reverse the effects of overtraining. This was achieved by improving his parasympathetic function and indirectly addressing his metabolic and endocrine impairments through strategic programming and nutritional planning.

The wild part is that we trained twice a day for four weeks, lifted heavy twice a week, and sprinted twice a week and still managed to improve PSNS/SNS balance and hormone profile. It was one of the wildest work situations I’ve had this year.

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


Juggling Skill

Juggling: One Skill All Athletes Can Benefit From

Blog| ByJustin Ochoa

Juggling Skill

It’s extremely rare that I’ll make a claim like this one skill can help ALL athletes improve because just saying it out loud sounds like clickbait. But here we are…

I’ll get right to the point. Juggling. Yes, juggling is the one skill that all athletes can benefit from.

There is no one-size-fits-all approach when it comes to the methods with which we train our athletes. Athletes are too different for there to be one best way to do things. This is why I said it’s very rare for me to claim that this one thing can help all athletes. But in the case of juggling, it is actually one of the exceptions.

Before we dive deep into the key benefits—hand-eye coordination, brain development, sport specificity, and motor learning—we must look at the big picture from a 30,000-foot view.

It’s universally accepted that the #1 job of a strength coach is to do NO harm. So, our job is to implement whatever strategies we feel are appropriate to elicit a training response with no harm done to our athletes. This means we must constantly evaluate the risk versus reward of our program.

Juggling is, by far, one of the most harmless training modalities I’ve ever come across, with a significant upside and potential for positive outcomes, says @JustinOchoa317. Share on X

Juggling is, by far, one of the most harmless training modalities I’ve ever come across, with a significant upside and potential for positive outcomes. This is why I feel so confident in saying that, literally, all athletes can benefit from learning this task.

How It All Began

This all started in the gym when one of my athletes randomly started juggling between his sets of deadlifts. I thought to myself, “That’s actually a really good idea.”

In the past, I have played around with vestibular and cognitive challenges as a rest period between sets:

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A post shared by Justin Ochoa (@justinochoa317)

One of my favorites was to have the athlete close their eyes, and then throw them two different balls and shout out the name of a color. The challenge was to open their eyes when they heard the color, track the ball, and catch it. I found that these small games had multifaceted benefits.

First, you obviously get the visual and cognitive benefits. But you also get an excellent fatigue monitoring system built into the games. When athletes are more fatigued, their vestibular system won’t be as sharp. They often fumble or drop the ball. As they recover from the set, they start to improve their performance. This indicates that the system is restored and ready for the next set.

Juggling in this context never crossed my mind. Why? Because I couldn’t juggle and had never even attempted to. But something about how easy my athlete made it look that day and how much fun he was having doing it made me want to try.

I tried. And I sucked.

When I try new things and suck at them, you can basically guarantee that I will become obsessed with whatever that thing is until I figure it out. So, I did.

I learned how to juggle, practiced, and eventually got pretty good. And then, my wheels started to turn with ideas on how juggling could be beneficial given some general background of the known benefits. Here are four of those benefits.

1. Hand-Eye Coordination

The most apparent benefit of juggling is the improvement in hand-eye coordination. This also has the most significant impact on sports performance. You’d have to look far to find a sport where improving hand-eye coordination wouldn’t be a benefit.

The most apparent benefit of juggling is the improvement in hand-eye coordination. This also has the most significant impact on sports performance, says @JustinOchoa317. Share on X

Also, beyond sports, improving hand-eye coordination is never a bad idea. This could help with daily tasks such as driving, multitasking, and even using the handheld devices that are such a big part of our society today.

The first day I tried to juggle and failed, I decided to make myself into a case study. I used the Blaze Pod light reaction system to test my hand-eye coordination. This was my report on that day.

Blaze First
Image 1. This is a preset test within the Blaze Pod system. You set up five reaction lights on the wall, and it randomly lights up one light at a time for 30 seconds. When the light illuminates, you hit it as quickly as possible, then another light comes on, and you repeat. The goal is to get as many hits as possible in 30 seconds. This was my score on day 1.

I practiced juggling for 10 minutes a day for one month and then retested. Not only did my juggling skills improve significantly, but so did my hand-eye coordination. I changed nothing else about my life or my training than the fact that I introduced juggling.

Blaze Improvement
Image 2. After 30 days, my score improved from 44 to 50 hits in 30 seconds. My average reaction time dropped from .631 seconds to .559 seconds.

This wasn’t performed in a lab, nor is it a published research project, but it tells me pretty clearly that juggling has positive effects on hand-eye coordination.

And, just to make sure it wasn’t all newbie gains, I went ahead and went one more month and did another test. Sure enough, I kept improving. This time, my score improved to 56 hits and an average reaction time of .498 seconds.

Blaze Max
Image 3. After eight weeks of juggling 10 minutes per day, my test results improved from 44 hits to 56 hits, a 24% improvement. And my average reaction time went from .631 to .498, which displays a 23.5% improvement in reaction speed. This was very consistent with the progress in total lights hit.

In just 10 minutes a day, accumulating absolute zero fatigue, soreness, or injury risk, I was able to improve a universally sport-specific attribute. As discussed in the introduction, if you don’t have 10 minutes to spare, you can simply work it in between sets or throughout the day.

In just 10 minutes a day, accumulating absolute zero fatigue, soreness, or injury risk, I was able to improve a universally sport-specific attribute, says @JustinOchoa317. Share on X

Furthermore, even though I am a washed-up coach now, I still play basketball at a pretty high level 1–2 times per week with a solid group of ex-college and pro players. Anecdotally, I have noticed myself making much better reads and passes with my nondominant hand—something that truly stands out because I had been dealing with a broken finger on that hand.

This gave me the ultimate confidence to implement this with all my athletes, regardless of sport or age. And they’re all seeing similar results. Many of the skill development specialists in our facility—such as wide receiver coaches and hitting instructors—are also implementing juggling and noticing the same improvements with their clients.

2. Brain Development

The deeper science and research on juggling and its effects on brain development are genuinely fascinating. My case study above was me just being curious and operating on a hunch—once I realized there were positive results, I started to dig up actual research in this realm and was really blown away by the findings.

Many studies on brain development revolve around gray matter, which has proven links to our memory and focus. Gray matter is made of neuronal cell bodies and conducts and processes information to send to other body areas.

Although gray matter is thought to be fully formed by our twenties, we can still enhance it after that age, as proven by a brain study performed in 2008.1 Researchers tested 20 participants with an average age of 26.5 years old to investigate the nervous system’s adaptive behavior to learning a new skill.

That skill? Juggling.

The researchers were able to confirm training-induced gray matter changes in the brain. They found a significant increase in brain gray matter during the exercise and in the short term after the study. There was no conclusive data for what happens to this grey matter after three months or after the skill is forgotten. Nonetheless, participants grew their brain’s gray matter, which unlocks a ton of potential for other motor learning tasks.

Researchers found a significant increase in participants’ brain gray matter during juggling and in the short term after the study, says @JustinOchoa317. Share on X

Amazing right?

What’s even more impressive is that researchers in a different study found the first-ever evidence of training-related changes of white matter in the human brain just a year later.2 White matter constitutes the other “matter” of our brain. Made of axons and myelin, white matter is found in the much deeper tissues of the brain compared to gray matter. White matter interprets sensory information and has not been studied at the level that gray matter has.

In this study, juggling was again used as the training methodology. Researchers provided juggling materials to 24 participants, who were to practice for 30 minutes per day, and they had a control group of 24 participants who did not juggle. Both groups had MRI scans before and after the experiment.

After six weeks, the non-juggling group did not show any changes in the brain’s white matter. However, the juggling group showed growth in the white matter area of the brain, especially in areas related to vision and movement. What’s also interesting is that even the jugglers who had not yet mastered the task still saw the same benefits simply from trying to learn the new task.

I am no brain specialist by any means. Still, the positive changes that the actual brain experts are seeing in their studies—and the fact that they’re using juggling as a means of training—should speak volumes to just how impactful juggling can be for our brain development at any age.

3. No Limitations

Another great benefit of juggling with our athletes is that there are truly none of the limitations that exist in other aspects of sport. Height doesn’t matter. Speed doesn’t matter. Experience in sports doesn’t matter. It’s only limited by the time you put into it. A prime example is Casey Boehmer, a world-renowned juggler who only has one arm.

I really like this aspect of juggling because it’s an excellent tool for teaching confidence to athletes who may need some small victories of their own. For example, you could teach a below-average athlete who lacks confidence to juggle. They can learn the skill, outdo the “better” athletes in the group, and immediately gain confidence from that small personal victory. That could lead to more and more gains in other aspects of their game and training. Confidence has a unique snowball effect.

Because juggling has none of the limitations that exist in other aspects of sport, it’s an excellent tool for teaching confidence to athletes who may need some small victories of their own. Share on X

Although juggling is not a sport skill that appears in any sport, it enhances the qualities we use in several sports. This is the same as juggling with everything but your hands in the soccer world. All great soccer players master juggling the ball; it showcases rhythm, coordination, first touch, and body control. But it will never happen in a game, and that’s okay. It builds qualities that will occur in a game.

The same goes for dribbling tricks in basketball. Athletes don’t practice complicated trick dribbling routines to use the exact routine in a game but to challenge their hand-eye coordination, balance, rhythm, and ball control, so the simple moves they use in-game are maximally efficient.

Perhaps the example that drives the point home the most is a boxer using a speed bag. Have you ever seen Mike Tyson punch another human like he punches a speed bag? No, never. Tiny punches with the back of your fist aren’t going to knock anyone out, but the speed bag builds up the hand-eye coordination, hand speed, and upper body endurance that are crucial for fighters.

As coaches, we need to understand that not all training will look precisely like the sport. But as long as the result of the training will enhance our sports performance while doing no harm to the athlete, the juice is worth the squeeze.

4. Rhythm and Coordination

Finally, the rhythm and coordination that you experience with juggling can greatly carry over to other training modalities or sports. One of the keys to juggling that I’ve had success with is making it a whole-body motion. I find that when I get my knees and ankles bouncing with the rhythm of my catches and throws, I feel the most locked-in.

It’s no different than a basketball player using rhythm to change their pace on a drive to the basket or a marathon runner finding a good pace and rhythm during their run. So much of athleticism is based highly on rhythm and coordination, and this is a really simple way athletes can enhance that quality.

All the things covered so far—hand-eye coordination, brain development, confidence, coordination, and rhythm—are universally sport-specific.

Juggling will not make you better at your sport. The benefits that athletes achieve through juggling can help enhance their ability to perform the skill of their sport at a higher level.

This could lead to improved passing, ball handling, or defensive outputs for basketball. For a wide receiver in football, this could lead to better ball tracking and catching ability because that is precisely what juggling is—it’s just a different ball. For baseball/softball, we could see an improvement in hitting and fielding.

As I said, it would be challenging to try to name a sport where these neural improvements aren’t worth 10–30 minutes a day of non-fatiguing training like juggling.

Lastly, tennis balls and lacrosse balls have become very common in the sports performance world as reactionary tools. These are tools we all have lying around the gym.

A simple drill I love is the ball-drop exercise, where a coach drops the ball to start the drill, and an athlete sprints to catch the ball to complete the movement. Or the coach drops two balls and calls out a command for which one to catch. These are great reaction, speed, and agility drills. While the balls are out, why not juggle them to recover between sets?

These drills work all aspects of the system and genuinely get the most from our time with the athlete.

How to Juggle

All these benefits are fantastic, but the question remains…how the heck do you juggle?

I am by no means an expert juggler or juggling instructor, but I managed to teach myself in just a few days. At first, it was a rough learning curve, but I eventually got to a point where I could manage to do some tricks and juggle for long durations with no drops. Below is how I learned and how I’ve been teaching my athletes, broken down into very simple steps.

Tip: Start with a solid, moderately weighted ball about palm size like a baseball, bean bag, or hacky sack. I don’t recommend using tennis balls to start.

Step 1: Two-Throw Exchange


Video 1. Step 1 is what I call a two-throw exchange. This will involve two throws and a controlled catch, repeated over and over.

Start with two balls in your dominant hand and one ball in the other. With your dominant hand, toss one ball into the air. While that ball is airborne, toss the ball in the nondominant hand to free up that hand to catch the first ball thrown. Catch the first ball in the nondominant hand and then the second in the dominant hand. You should end up right back at square one, with two balls in one hand and one in the other.

This will build your general timing and get the pattern down for eventually juggling. Throw, throw, catch, catch, and then reset. Do not rush between reps. Treat each one as a single rep to get a feel for how hard and high you need to throw the balls.

Step 2: Three-Throw Exchange


Video 2. Building onto our two-throw exchange, you can progress into a three-throw exchange. This starts the same as step 1, but you’ll add an extra throw and then again end with a controlled catch.

So, you’ll throw the dominant hand, nondominant, then dominant hand again and catch the balls. Now, you should end up with two balls in the nondominant hand and one in the dominant hand. If you want, you can start the next rep from this scenario, flipped from how you started, or reset all the balls and go again. Personal preference.

Step 2 is a complete cycle of ball movement and the exact movement you’ll need to master to move on to step 3.

Step 3: Time Goals


Video 3. You repeat the three-throw exchange in this step but never catch the balls. Just keep the cycle going.

A simple rule that helped me put it all together is that you have to throw one to catch one. There will always be a ball in the air, and to catch it, you must toss one up to make room in that hand. If you just adhere to this simple rule, it will all come together for you in step 3.

The purpose of step 3 is to achieve time goals. I started with 15 seconds with no drops. That’s a major milestone. After that, 30 seconds with no drops is the next milestone. These are not easy tasks.

It’s frustrating. I once practiced for 30 minutes straight without getting a 30-second unbroken streak. But the reps add up, and one day it will click for the athlete.

Step 4: Space Goals

The final step is adding a space goal or a space constraint. Sometimes, you have to chase the balls around to keep them in flight, especially when trying to reach a time goal. This is more survival mode than juggling.

Adding a space constraint forces the juggler to focus on ball control and body awareness. The smaller the space, the harder it is.

You can start with a designated area using tape or cones to provide out-of-bounds lines, then move to tighter spaces like standing inside a tractor tire or hula hoop.

I’ve even been experimenting with long-duration isometric holds while juggling, says @JustinOchoa317. Share on X

I’ve even been experimenting with long-duration isometric holds while juggling. Holding a split squat or wall sit or balancing on one leg is a different ballgame when you’re also trying to successfully juggle for minutes at a time.

Bringing It to Your Facility

I realize that this article may not be for everyone—we all coach in different environments and have our own situational challenges in our setting.

With that said, I highly recommend introducing juggling, if at all possible. The benefits we’ve seen in a short time have been extremely impressive. Not to mention, it’s such a fun activity—even if you’re not good, it’s oddly satisfying just to continue to try.

We see a lot of circus tricks these days from trainers on social media, but this circus trick is actually a beneficial one.

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. Driemeyer J, Boyke J, Gaser C, Büchel C, and May A. “Changes in Gray Matter Induced by Learning—Revisited.” PLoS ONE. 2008;3(7):e2669.

2. Scholz J, Klein M, Behrens TEJ, and Johansen-Berg H. “Training induces changes in white-matter architecture.” Nature Neuroscience. 2009;12:1370–1371.

Assise Cleather Force

A Review of Force: The Biomechanics of Training by Dan Cleather

Blog, Book Reviews| ByRob Assise

Assise Cleather Force

As a high school math teacher, I have heard the phrase “I am not a math person” more times than I would like to count. The truth is, being human qualifies us all as being “math people”—it is just a choice of whether or not we embrace it. At the core of mathematics lies the ability to reason. We all can recognize patterns and form a conclusion (inductive reasoning) or apply previously learned facts to a situation to form a conclusion (deductive reasoning). We can try to run from mathematics or pretend it doesn’t exist, but the reality is that it is omnipresent.

“But Rob, that’s not the kind of math I’m talking about!” Yes, I get it. Formulas, numbers, and wild symbols can be extremely intimidating and cause a person to go into shutdown mode. So, what are you to do when faced with this complexity? Like anything else, find a master teacher who can take complicated ideas and reduce them to digestible pieces.

Dr. Dan Cleather is a person who falls into this category. I was first introduced to his work when his Little Black Book of Training Wisdom was for sale on Amazon for one dollar. I figured I had nothing to lose with the purchase, and it will always remain near the top of my “best bang for the buck” list when it comes to books. I immediately took to his writing style: eliminate fluff, do not talk over the reader, emphasize clarity above all else. So, I was extremely excited when Force: The Biomechanics of Training came out earlier this year.

Force is a 152-page book divided into 26 short chapters. I viewed each chapter as a mini-lesson. While the book could easily be read in a single two- to four-hour sitting, I found value in taking my time. Beginning the book coincided with the installation of a sauna in my basement—over the course of 20 days, I read a chapter or two upon entering the sauna (10 minutes of reading) and then sat and thought about what I’d read (10 more minutes). After exiting the sauna and showering, I wrote down my thoughts. This process allowed the content to “stick” much more than a normal read.

In this review, I will cover seven topics:

  1. Force
  2. Impulse
  3. Maximizing impulse
  4. Power
  5. Force vector theory
  6. Debunking the force-velocity curve
  7. Force absorption?

I chose these because they either had the most impact on me or I believe they are essential for you to get a feel for the content presented. While I found having a math background helpful in reading, it is 100% NOT a prerequisite! Dr. Cleather does a great job of explaining everything the reader needs to know, and he provides the mathematical explanation behind it in footnotes for those who are interested in “nerding out.”

1. Force

Not surprisingly, Cleather opens with a discussion of force and how it is the cause of change in velocity. One of the issues we find in human movement is that force isn’t applied consistently. This example of a countermovement jump gives an overlay of the force-time curve during the process of the jump. The inconsistent force applied during the movement makes it challenging to calculate the total force applied.

This is where calculus comes in to save the day—and the good news is we do not need to understand the nitty-gritty part of the calculus, just the concept! Figure 1 shows a hypothetical force-time curve during a countermovement jump. The total force applied is the area underneath the curve, called the impulse.

Impulse
Figure 1. Region A represents the area underneath the curve bounded by the dashed horizontal line (weight of the athlete) and the blue graph. Region A’s area represents the total force applied over the time interval, or the impulse. For those interested, region A is a combination of the braking and propulsive phases in a countermovement jump. The shift from braking to propulsion occurs where the center of mass is the lowest, coinciding near the peak force.

2. Impulse

Cleather points out that impulse (total force) and change in velocity are directly proportional to one another. In other words, if impulse increases, so does the change in velocity. Cleather emphasizes that an issue he sees in training circles is a lack of focus on impulse. He states, “In many cases, we can explain differences in explosive physical performances in terms of impulse generation.” Instead, he sees coaches more interested in peak power or peak force—more on both of these later.

Cleather emphasizes that an issue he sees in training circles is a lack of focus on impulse…he sees coaches more interested in peak power or peak force, says @HFJumps. Share on X

3. Maximizing Impulse

If impulse is such a big deal, how can we go about improving the amount applied during a movement? Again, if the area underneath a force-time curve represents an impulse, Dr. Cleather identifies three ways in which the area can be increased:

    1. Increase the amount of time the force is applied.

• This creates a greater “width” for the area.

    1. Increase the peak force applied over the same time interval.

• This creates a greater “height” for the area.

    1. Increase the rate of force development over the same time interval.

• This increases the slope of the curve, which allows for a greater area underneath. In other words, the athlete reaches higher force faster.

This section probably caused the most significant amount of reflection for me, and it will never be finished. As a track coach who truly enjoys the process of developing more efficient and explosive sprinters, optimizing impulse is something that is always on my mind.

In general, as running speed increases, ground contact time decreases. To make up for the loss of time on the ground, the force applied has to increase so the runner can move faster. A simple way to think of this is if the base of a rectangle decreases (less ground contact time), then the height (force) must increase by more than the base decreases to create a greater impulse (area of the rectangle).

In order to optimize impulse, a coach must consider two parameters: force and time. However, it is not just about optimizing impulse; it is doing so within the limits of the task at hand. If we are discussing sprinting at maximum velocity, there is a spectrum of ground contact times that are deemed acceptable based on the level of the athlete. In general:

  • Shorter ground contact times are great. The athlete has an opportunity to get to the finish line faster. However, there could be an athlete who is unable to showcase their gift of exerting force in the shorter time interval. This could lead to slower times!
  • More force is great if it can be applied in the same or shorter time interval. If the athlete spends too much time on the ground to achieve higher forces, the impulse does go up. However, the race clock is still ticking, and the greater impulse may not make up for the excessive time on the ground (or the possible extended time in flight thereafter).

4. Power

Before discussing power, we first need to define work. Remember, the area under a force-time curve is the impulse. If we change the x-axis to represent position (creating a different-looking curve), the area under the force-position curve would be the work; or, as Cleather states, “total force with respect to distance moved.”

This relates to power because power is the rate of doing work. In other words, power equals work divided by time. As stated earlier, power is often a metric that coaches focus on. Cleather feels this is misguided:

“For many explosive sports skills, the change in velocity during the movement is one of the most important performance variables. This is why impulse is so important for us—impulse accrued is directly proportional to the velocity change. Unfortunately, there isn’t the same type of direct link between power and change in velocity, and so it is less useful for qualifying explosive sports performance.”

If the “direct link” does not click here, think of it this way: Impulse is the area under a force-time curve. To calculate power, work must first be accrued, and then it needs to be divided by time. Cleather goes on to say,

“There is, however, an indirect link between power and change in velocity. This means that power will still tend to be well correlated with explosive performances like vertical jumping or weightlifting. These correlations lead coaches to believe that power is the most important variable and are sometimes used to justify their interest in it.”

I will say that this section on power was one that I had to revisit multiple times. Categorizing items as “over an interval” versus “instantaneous” was helpful for me. Regardless, it has caused me to rethink tests to capture power as a metric.

This section on power was one that I had to revisit multiple times…It has caused me to rethink tests to capture power as a metric, says @HFJumps. Share on X

5. Force-Vector Theory

This was one of my favorite sections, partly because of Cleather’s humor when pointing out that the name is silly (force is a vector), but mostly due to the elegance he used to break down a body-fixed coordinate system versus a world-fixed coordinate system and the implications when they are misused.

Cleather begins with a straightforward example: If an athlete were to run into a jump off a single leg and try to jump as high as possible, the ground reaction force would be directed vertically (think directed through the body and out of the head). The body-fixed and world-fixed coordinate systems would be the same in this example. If an athlete were to perform a block start, the ground reaction force would have a horizontal component in relation to the world-fixed coordinate system (maybe forming a 50-degree angle with the horizontal). However, the ground reaction force would still be directed through the body and out of the head in reference to the body-fixed coordinate system.

GRF Angles
Figure 2. The GRF in a single leg vertical jump versus the GRF during a block start. While the GRF is different in the world-fixed coordinate system, it is directed in the same direction in relation to the athlete’s body.

Cleather then provides an example where this concept shows an issue with a claim. The barbell hip thrust is a popular exercise, and some advocate for its use due to a “horizontal component” to the movement like the one found when an athlete accelerates. However, the reality is that the ground reaction force in the exercise is directed vertically to the world-fixed coordinated system and NOT through the athlete’s body and out of their head as it is in acceleration. This does not mean that the exercise is pointless; it just means that the “horizontal component” argument should not be used.

GRF Block Start
Figure 3. The finishing point of a barbell hip thrust. Note that the GRF is directed differently in reference to the athlete’s body when compared to the GRF found in acceleration.

6. Debunking the Force-Velocity Curve

The force-velocity curve has always bothered me. As a track coach, I have a bias about the importance of sprinting, which would be placed at the far right of the curve, signifying high velocity but low force. This never sat well with me, as I know sprinters have a vertical ground reaction force of 3+ times their body weight…on a single leg. In many cases, the force of a sprint during a single contact would be similar to that found within a rep of a 90% of 1RM back squat. The 90% of 1RM back squat falls on the far left of the curve, signifying high force but low velocity.

If there is a similar force, does it make sense to place the activities on different parts of the spectrum?

Cleather does a wonderful job of explaining this issue… and clarifies what the curve should be called: the load-velocity curve. If force is replaced with load, the relationship works. Share on X

Cleather does a wonderful job explaining this issue with specific examples and clarifies what the curve should be called: the load-velocity curve. If force is replaced with load, the relationship works.

The velocity is low if the load is high (heavy back squats). The velocity will be high if the load is low (bodyweight). Language matters, and I am 100% on board with this change. Load and force are two different entities. Cleather states, “We don’t necessarily require a large load to express high forces, and in sport we are often most interested in increasing the force that an athlete can apply against a fixed load—their own body weight.”

7. Force Absorption?

A common phrase utilized in strength and conditioning is “absorbing force.” I have certainly used it in the past; however, I stopped once I read a thread from Dr. Cleather on social media. Again, language matters, and we need to be sure we strive to deliver messages as clearly and accurately as possible. Precise language eliminates ambiguity.

It is why I do not allow students to call the denominator “the bottom” in my math class. There are cases where “the bottom” would not be specific enough. It is why I do not let my children say they did “stuff” at school. Anyone who has seen the “Yada Yada” episode of Seinfeld knows the danger of allowing ambiguity.

Many readers will probably say that hairs are being split here, but I will side with Dr. Cleather on this one. The thread linked above does a wonderful job of explaining the reasoning, but in the book, Cleather provides the foundation as to why a force cannot be absorbed: “This is a direct consequence of Newton’s 3rd Law. If an object exerts a force upon us, we in turn exert the same force back on it. We do this by producing, not absorbing, forces.” The eccentric portion of a movement is where the “force absorption” is believed to exist. The correct terminology is “ability to express force eccentrically.”

Cleather does state that elastic energy can be stored and reused, but he identifies that it does come with specific criteria:

  • The shift in movement must be rapid. Think short ground contact times such as in sprinting and particular jumping. A movement is often said to be a “true plyometric” if the contact time is below 250 milliseconds.
  • Stiffer tendons are more efficient in storing elastic energy. “However, in order to stretch a stiffer tendon, the athlete will need to be stronger.”

The Verdict

A perk of teaching AP Calculus is that it overlaps nicely with concepts that most of my students are dealing with in AP Physics. A few days ago, they asked me if I thought I could teach physics. My response was, “At the moment, no—physics is hard.” What I meant by that is that while I understand a good portion of the mathematics behind the physics, I would need to spend more time with the concepts to teach them effectively.

Dr. Cleather has done a fantastic job of taking complex material and making it digestible for all, and this review only scratches the surface. Outstanding chapters on hot strength and conditioning topics such as velocity-based training, dynamic correspondence, dynamic systems theory, and force-velocity profiling will undoubtedly challenge readers’ thoughts.

Physics may not be everyone’s favorite, but a baseline understanding by anyone in athletics would help eliminate some of the “interesting” claims, methods, and beliefs displayed on social media. Share on X

Physics (and math) may not be everyone’s favorite content. Still, a baseline understanding by anyone involved in athletics would help eliminate some of the “interesting” claims, methods, and beliefs regularly displayed on social media. Invest a few hours in Dr. Cleather’s book and an understanding of force will always be with you.

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

Free Throw Practice

Mastering Your Mindset with Mental Wellness Coach Derick Grant

Freelap Friday Five| ByDerick Grant, ByJustin Ochoa

Free Throw Practice

Derick Grant has experienced challenging moments in his life. These moments caused him to stumble and sometimes start over. But he knew these were the defining moments by which his most significant victories would be measured. He reflects on the fact that his belief and focus on his dreams were what helped him through challenging times. As a former professional athlete for the Harlem Globetrotters, Derick understands what is needed to perform at a high level.

In his TEDx speech “Minding Your Mind: What the Great Ones Don’t Tell You,” Derick spoke about the importance of cultivating your mindset as much as you develop your skill set. He is now living through his passion, helping people realize their hidden potential. He has a successful coaching firm that helps people gain an elite-level mindset, and his mentorship has produced professional athletes, corporate executives, and many others.

As one of the most sought-after performance mindset coaches in the world, Derick lives by the motto, “You will always only ever be whatever you think you are,” teaching people to first believe in themselves, and then they will see the results. Some of his current clients include Kyle Guy of the Sacramento Kings (NBA), Joe Reed of the Los Angeles Chargers (NFL), and Tyasha Harris of the Dallas Wings (WNBA).

Freelap USA: In the sports world, it’s extremely common for athletes to have skills trainers, strength coaches, dieticians, nutritionists, chefs, massage therapists, and all kinds of “coaches” to address their physical well-being. Why do you think it’s not as common for athletes to hire professionals who handle their mental well-being? And why do you think this disconnect exists?

Derick Grant: I think there are two reasons. Number one is the stigma behind mental health. Because of old paradigms and beliefs, we regard mental health as a sign of weakness, and that goes against our whole view on athletics. We don’t want to be perceived as weak, so we don’t talk about it. I think it’s more of society as a whole, but the micro will embody the macro.

Second, I think it’s because all of coaches’ and athletes’ physical qualities are things that can be seen or perceived by the five senses. An outsider cannot see someone’s mental health, so we ignore the signs of deterioration.

In reality, your mental health determines whether or not you operate at your full potential in terms of skill set. LIFE IS MENTAL!

Freelap USA: I’ve heard you speak many times about how the adversity in your life—often your lowest rock-bottom moments—led to you being the professional that you are today. It helped you find your true calling and passion. How do you think today’s young athletes mishandle failures and adversity? What principles do you instill in your athletes to help them use imperfect moments for growth?

Derick Grant: I think athletes today believe that there is such a thing as failure. If we think of adversity as simply a test to teach us a lesson that increases our internal growth and development, we won’t view it negatively.

Derick Grant

I like to view life as a weight room. The heavier the weight, the more resistance my muscles will endure. From the added resistance, my muscle’s development will increase. Life is no different.

Adversity is needed to strengthen you at your core, mentally. You experience adversity to find out about a part of yourself that you didn’t know existed in order to help you evolve and grow. Your ability to prosper will be determined by your ability to shift your perspective and how you view adversity.

Freelap USA: You’ve worked with clients in the NBA, NFL, and WNBA, and with many other individual professional athletes. Of course, those athletes are physically gifted, but what are you noticing about their mentality and non-physical attributes that could have played a role in them getting to the elite level of their sport? How can younger athletes adapt these attributes early in their sports career?

Derick Grant: Here’s something I noticed from working with professional athletes: All of them have a belief in their abilities that transcends anyone else’s confidence in them. It’s almost like they’re borderline delusional. But it’s because they believe in their abilities so much.

Here’s something I noticed from working with professional athletes: All of them have a belief in their abilities that transcends anyone else’s confidence in them, says @Dgmindset. Share on X

The rest of the world might think they’re crazy if people knew how they view themselves. All this means is that what you believe about yourself and your abilities will be what you carry out. So, with athletes today—especially young athletes—I teach them to believe in themselves and what they’re capable of, regardless of what anyone else will say about them. You can only be whatever you think you are.

Freelap USA: Can you tell a story that illustrates some of your coaching principles in action and what an optimal mindset can do for an athlete’s performance in both their sport and life?

Derick Grant: A story that comes to mind is about one of my current NBA clients, Kyle Guy. In 2018, at the University of Virginia, he struggled with anxiety and depression, and we spent a great deal of the off-season working to restore and rebuild his mindset.

This was coming off the Cavaliers’ incredible regular season and eventual loss to a 16-seed in the first round of the NCAA tournament. It was the first time in history a 16-seed beat a 1-seed.  A year later—his junior year—he was at the free-throw line in the 2019 NCAA Final Four. At the end of the game, Kyle needed to make two to tie and three to win.

We always focus on being present, in the current moment, and not allowing our minds to go to the future to create stress or anxiety. So, when Kyle stepped up there, you may have noticed he took deep breaths before he sank those clutch free throws.

We always focus on being present, in the current moment, and not allowing our minds to go to the future to create stress or anxiety, says @Dgmindset. Share on X

We have consciously worked on following our breathing to ensure that our minds stay in the present moment. Kyle stepped up there and knocked down all three free throws. The University of Virginia won a national championship, and he was named Final Four Most Outstanding Player.

Freelap USA: What are some actionable takeaways that coaches can implement or share with their athletes today to help them plant the seeds of growing a better mindset?

Derick Grant: I think teaching your athletes how to be present will have the biggest impact. You can only live life wherever your feet are, but minds are so powerful we can mentally go into the future or back to the past.

So, teaching your athletes to keep their minds where their feet are and focus on the present moment where life is being lived and the game is being played will help them build the foundation of a bulletproof mindset.

Athletes can obtain presence by doing breathing exercises and meditation. Before a workout, I have my athletes do 15 minutes of breathing exercises where they consciously track their breath in and out. This can center their mind and keep them in the present moment. All athletes will perform best when their mind is where their feet are—the present moment.

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


Softball Pitch

3 Mistakes Softball Players Make in the Weight Room That Affect Power

Blog| ByAnna Woods

Softball Pitch

The most common issues I find in the weight room with softball players seem to revolve around three limitations of movement1. The same movement limitations I see in the lifts we do also show up as restrictions to demonstrating accuracy, power, and speed on the field.

Because swinging, throwing, and pitching are very technical aspects of softball—due to the need for accuracy with each rep—patterning in quality movement reps in the weight room is even more crucial for athletes involved in these elements of the game. When an athlete completes reps of a movement 10-20x per session, 2-3x a week, the faults of their lifting patterns will also show up in the sport. These faults can affect accuracy, limit power, and promote the risk of injury.

When an athlete completes reps of a movement 10-20x per session, 2-3x a week, the faults of their lifting patterns will also show up in the sport, says @shestrength. Share on X

As coaches, trainers, and parents, paying attention to even the smallest details in our girls’ lifts can have the biggest impact on their performance in the sport of softball.

Problem #1: Curve or “C” in the Back with Heavy Lifting1

I most commonly see this error in the weight room, with squatting, deadlifting, and overhead pushing/pulling movements. This subtle issue places the load of the weight onto the spine and off of the muscles of the glutes/core and legs.

C In Back

On the field, I most often see this movement error in swinging a bat and/or pitching. This error prevents the athlete from accessing the oblique sling and the core as a connector between the lower body and upper body, leading to a loss of power and the athlete only using the upper body as a driving force to rotate.


Video 1. An example of power loss at contact through the core using the Core360 belt. In this video, the athlete loses her core stiffness at the desired contact point by bending her torso to the side leading with her head tilt. This loss is noted by the drop in the blue lines measured by the sensor at the same desired point of contact. Power loss is a common issue when an athlete cannot rotate correctly.


Video 2. An example of power increase at contact through the core using the Core360 belt. In this video, the athlete maintains core stiffness and does not swing with a “C” bend in her back. This is noted by the increase in core pressure at the desired point of contact in her swing.

Solution: Flatten out the low back by creating core stiffness.

In the weight room, I place athletes in positions for lifting that force the C out of their low back as much as possible, hoping that it eventually creates the correct patterns in sport. These are lifts such as landmine squats and landmine pressing, side planks, elevated boxes to deadlift from, and foot support (using a bench or box) for overhead pulling movements such as chin-ups. We also implement specific warm-up drills to help create core stiffness and pelvis control. These include slow and controlled exercises like deadbugs, bird dogs, side planks on knees and elbows, crawling patterns, rolling, and anti-rotation ISO holds using bands and a partner.


Video 3. A demonstration of the crawling core stiffness drill in warm-ups. The shoe helps the athlete have a tactile cue to keep her hips from swaying and her spine extending/ compressing as she crawls.


Video 4. A demonstration of a core stiffness drill with bird dogs and bands. This drill is a step up in difficulty from the drill in video 3; now, the athlete must maintain core stiffness in an offset loaded variant of the bird dog using a band and lateral resistance.

Problem #2: Stabilize Through the Neck

I commonly see an athlete tighten her shoulders, traps, jaw, and neck when doing rotation and anti-rotation exercises, ab exercises, and most pulling exercises. This removes the core as the stabilizing mechanism and places the power source in the neck, jaw, and shoulders. These are not designed to bear the load of that much power and weight. This issue also reduces the ability of the legs and core to get stronger.

Neck Stabilizer

On the field, we most often see this in pitchers who push off the mound headfirst. It also shows up in sprinting between bases and swinging a bat (pulling the head off the ball). This common error causes the same troubles for the body in sport as it does in the weight room—it forces the joints to take the brunt of the work instead of the muscles. This leads to a loss of power and speed because the legs are not the main drivers. And in hitting, this issue pulls the eyes off the ball, making it hard to connect with a pitch.

Using the neck as a stabilizer causes the same troubles for the body in sport as it does in the weight room—it forces the joints to take the brunt of the work instead of the muscles. Share on X

Solution: Use the feet and legs.

Most girls struggle with using their legs for strength and instead want to overpower a lift with their upper body. Cueing an athlete to find her feet, or push the floor away with her feet, or drive her legs/feet into the floor in almost any lift can help.

She has it figured out when she feels her legs begin to shake and her core fire up, releasing the neck from stabilizing the load being lifted. The idea is that feeling this in the weight room will allow an athlete to find her front leg both in a pitch and swinging a bat. This will provide a stable stance base for the body to rotate through. It also allows the ground force production from the foot to travel up through the core and out the hands.


Video 5. A demonstration of removing the neck as a stabilizer in pulling exercises. I use different strategies to help an athlete “feel” how to use their core and feet as stabilizers, NOT their neck. I hold a PVC pipe along the athlete’s spine and ask her to keep her entire spine aligned with the “fake spine” (PVC pipe) as she pulls the band back and down.


Video 6. A demonstration of using J-cups to help the athlete find their foot load. I flip the J-cups over and place the barbell under them, get into a squat position, and press up and into the J-cups using my feet. This elicits the feeling of active foot loading and creates core pressure if the athlete is in correct alignment from their ribs to hips.

Problem #3: Using ONLY the Arms for Rotation

In the weight room, I often see an athlete try to avoid true rotation through the core by bending or extending/flexing through her shoulders, arms, and wrists as compensation. I see this happen with anti-rotation and rotational ab exercises, rotational pulling, and pushing movements.

The arms and wrists can only provide so much power disconnected from the core and the lower half of the body. When the athlete avoids rotation by bending her elbows and arms/wrists, the core is bypassed as a source of strength. The old saying “when the joint ends, power ends” applies here. An athlete will eventually reach a ceiling in their strength progressions in the weight room because the upper body can only sustain certain compensations for so long.

Arms Only

On the field, we most commonly see athletes swing, throw, or pitch using only their arms and upper body. As in the weight room, this absence of the core connecting the lower body to the upper body leads to a loss of power.

Solution: Use the oblique sling connecting the feet, hips, core, and arms through rotation.

Learning what access to the oblique sling “feels” like is critical for athletes to know how to access it for strength and power.

Learning what access to the oblique sling ‘feels’ like is critical for athletes to know how to access it for strength and power, says @shestrength. Share on X

In the videos below, I demonstrate several ways to incorporate “feeling” the oblique sling to create core connectedness using bands and dumbbells.


Video 7. A demonstration of an anti-rotation exercise using bands.

Video 8. A demonstration of oblique sling presses using dumbbells.

Video 9. A demonstration of oblique sling separation using medicine balls.

Results on the Field

After addressing these three issues with athletes and spending consistent time working to break down old movement patterns, athletes can feel and see added power in their swings. We retest using the Core360 belt every 6-8 weeks to assess where athletes are in the positioning of their swings and how it translates to core power. I also constantly quiz my athletes and their coaches on what they see and feel in practices and games.

In addition to more power, many athletes report less low back and shoulder pain with their lifting. The last determining factor of measurement I use is athletes reporting new soreness in the specific muscles we are targeting because we have removed overcompensations. Now we are focused on true muscle activation and growth.

Special thanks to Allie Stipsits, sheStrength intern and Hutchinson Community College softball athlete, for her contributions and serving as the model for the infographics.

Attribution

  1. I’ve learned many of these principles from chiropractors such as Dr. Jared Shoemaker (inmotionsmj.com), physical therapists, and other professionals mentored by doctors, neurologists, etc., in a new rehabilitation technique called Dynamic Neuromuscular Stability (DNS). These neurological techniques are based on clinical protocols to restore and stabilize locomotor function. From these techniques, I’ve found ways to creatively incorporate strength and motor function into workouts our softball players complete weekly to help rebuild better movement patterns for their sport.

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


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Logo of BuyBoard Purchasing Cooperative. The word Buy is yellow and shaped like a shopping cart, while Board and Purchasing Cooperative are in blue text.
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