 Want to know the secret to a good training session? An effective warm up. Now, I don’t mean hop on the treadmill and walk for 5 minutes, then get straight into your bro sesh. There’s more to it than that. I would argue that a warm up should be just as important as the training session itself. You can’t look at it from a myopic lens of just 10 or 15 minutes, but more at the cumulative effect. If you take a 10 minute warm up, training 3 days per week for 48-52 weeks in the year, that is a total of 1440-1560 minutes. That’s 24-26 hours over the course of a year. Instead of saying warm up, we’re going to refer to it as Movement Preparation, or Movement Prep for short. I like this verbiage as it gives more intent for the session ahead and avoids any negative connotation associated with warm up. Ok, let’s break down the anatomy of an effective warm up:
Let’s say you’ve got a lower body day lined up with front squats as your main compound lift. Here’s a way to organize your Movement Prep to get your ready for the training session:
Just remember, this can add up to a full day of warm up time. That’s a lot. Instead of taking dedicated mobility and soft tissue time, be intentional with your Movement Prep. You may even notice that all those aches and pains you were feeling might disappear and you’ll finish your training sessions feeling more accomplished than before.
Cheers, Dr. Ravi Patel, PT, DPT, CSCS
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 So, let’s talk about the shoulder: It is a very dynamic joint with little surface area between the humeral head and the glenoid fossa. The analogy we often use is a golf ball on a golf tee. There’s a reason why you hear more about shoulder dislocations than hip. We have numerous muscle attachments and ligaments that surround the joint itself. These can be broken down into active (muscles/tendons) and passive stabilizers (ligaments). When we are going through different movements at the shoulder (whether that’s an overhead press, push up, clean, etc.), if we do not have the requisite range of motion, coordination or strength, then our passive stabilizers take on a lot of that stress. As I’ve said before, every single tissue (muscle, tendon, ligament, bone, etc.) in our body has a certain capacity and threshold. Stress is how we build those thresholds up. Stress is also how we break those down. When those thresholds are surpassed significantly or repeatedly, pain and injuries start to pop up. The dosage is the difference in having the poison or the antidote (- quote from someone smarter than me). Now, how can we create more buffer room or bandwidth to withstand these stressors? Smart and well thought-out training. Sure. But, what about creating more freedom and control at the shoulder joint? Then, those tissues are less prone to getting overstressed and everyone is doing their jobs. Today, our focus will be on the overhead archetype – which is an expression of shoulder flexion and external rotation. This can be anything related to pressing, reaching overhead, hanging, or throwing overhead. I see people in the clinic every day that have pain with these movements and when we break these positions and joints down, we tend to see a limitation in one or both flexion and external rotation. Next, we’ll go through a test that you can utilize to see how your overhead position checks out. Wall Test: Common faults we see related to this are:
Try to avoid these mistakes and see where your true baseline overhead position is. After the techniques provided below, come back to this test and re-test the movement. Can you go further? How does the quality of getting there feel? Next, we’ll look at some strategies to improve the mobility aspect of the shoulder joint. Subscapularis Mobilizations: Shoulder Overhead Opener: When discussing the shoulder joint, I would be remiss not to mention the thoracic spine. The shoulder blade and thoracic spine/ribcage are very intimately related which directly impacts shoulder mechanics and position. Next, we’ll go through some techniques to address the thoracic spine. T-Spine Mobilization: Half-Kneeling Wall T-Spine Rotation with Lift Off: Lastly, we will cover my favorite component in the performance process which is the strength and control of the shoulder joint for the overhead position. Supine Eccentric Shoulder Flexion – Dowel or Single Arm with Plate: Dowel Shoulder Flexion PAILS/RAILS: Chaos Overhead Band Carry: Now, you may be thinking, "These are great exercises, but how do I implement them?" Try them as movement prep prior to an overhead workout, accessory work on upper body days or even on recovery days. Do you have to do all of them? Nope. Find the ones that you feel had the best impact on you via the test-retest on the Wall Test and start implementing them in consistently. An active approach tends to work better in the long term compared to the passive approaches and exercises. You’ll be surprised how quickly your overhead position will improve and your overall shoulder health.
If you’re dealing with an injury, reach out with any questions. We design and implement rehab and performance programs to help our athletes, whether you’re someone who doesn’t know where to start or has had an unsuccessful rehab experience. It is our goal for the people we work with to return to their sport or activity performing better than they did before. Cheers, Dr. Ravi Patel, PT, DPT, CSCS  [https://blogs.bmj.com/bjsm/2019/04/26/soft-tissue-injuries-simply-need-peace-love/] Have you ever pulled a muscle or tweaked something playing a sport? Maybe overdid it in a workout and didn’t notice it till after or the next morning? Every single person has experienced a soft tissue injury before – that can be muscle, tendon, ligament, etc. There’s a lot of mixed information out on the internet about what’s the best approach to hand a soft tissue injury when you experience one. For the longest time, it was RICE – Rest, Ice, Compression, Elevation – while this isn’t completely wrong, it doesn’t meet the full standards of what we know today with science and research. Here’s a handy acronym to help remember the essential components of how to manage injuries better in the future: PEACE & LOVE Immediately after injury, PEACE: PROTECT
ELEVATE
AVOID ANTI-INFLAMMATORIES
COMPRESSION
EDUCATION
  Once some days have passed, it’s good to give it some LOVE:
LOAD
OPTIMISM
VASCULARIZATION
EXERCISE
The thought to keep in mind is to try to play the long game. I see athletes often who come in and get out of pain then go right back to high-level activity without taking appropriate measures to progressively build it back up. What happens? Reinjury. Take the time to put in the work and I promise it’ll be worth it in the long run. If you’re dealing with an injury and want more guidance and help, reach out with any questions. We design and implement rehab and performance programs to help our athletes, whether you’re someone who doesn’t know where to start or has had an unsuccessful rehab experience. It is our goal for the people we work with to return to their sport or activity performing better than they did before. Cheers, Dr. Ravi Patel, PT, DPT, CSCS References: https://blogs.bmj.com/bjsm/2019/04/26/soft-tissue-injuries-simply-need-peace-love/ Axe MJ, et al. Potential Applications of Hyaluronans in Orthopaedics. Sports Medicine. 2005.  I recently attended a continuing education course called Functional Range Conditioning (FRC). It was one that has been on my list for quite some time and it was awesome to finally check it out. In this blog post, I’m going to expand upon some of the principles and techniques I learned and how you can start to implement this in your daily movement practice. First, let’s define a few words. What is flexibility? What is mobility? Are they the same thing? We hear these words used interchangeably. However, they are in fact different.
The foundation of the FRC system is based on the acquisition and maintenance of functional mobility and articular health. It is very dependent on your passive and active range of motions. Basically, the goal is to make your AROM and PROM the same. PROM is the prerequisite which will allow you to improve your AROM. FRC utilizes a concept called “bioflow.” While I don’t get too caught up in systems or their coined terms, I’m cool with this one. It basically talks about tissue continuity (gross tissue --> cellular --> intracelluar) calling it STUFF. Stuff being cells, fibers, and ground substance. Composition of these components dictate the type and physical properties of a certain tissue whether it's bone, fascia, ligament, tendon, muscle, capsule etc. Cell signaling and progressive adaptation is how these cells change into these different structures. Think about an ACL graft that is harvested from a patellar tendon – do you think it stays a tendon over time or evolves to becoming a ligament just like the initial ACL? Yeah, science is pretty cool. I could geek out on this stuff all day, but let’s move on to the application of improving your mobility – there’s a few techniques used to start working on making your passive movement more active. Insert Controlled Articular Rotations (CARS) - Active, rotational movements at the outer limits of articular motion. There’s 3 levels for CARS which are related to isolated blocking, external resistance and amount of irradation. Irradation simply put is the amount of tension you create throughout your body – in nerdy science terms this is also called Maximum Voluntary Contraction (MVC) often expressed in percentages. The best example of irradation is to give someone a hand shake. First, squeeze using your hand, then hand and forearm, then hand, forearm and shoulder, etc. Your grip gets stronger and stronger the more musculature you recruit. The more irradation, the more force you exert. You can use this to dial in higher levels of recruitment while doing your CARS or other FRC techniques. “Force is the language of cells” – one of my favorite quotes at the course. CARS can be implemented different ways whether that is by focusing specifically on a certain joint or you can take part in the morning CARS routine to give all your synovial joints in your body some love each day. The next step to continue to work on improving your joint integrity and control is via PAILS and RAILS. PAILS and RAILS are isometric contraction efforts (sometimes combined with stretching) used to communicate with both the connective tissue & neurological systems. 2-3 minutes of stretching to build stretch tolerance, then:
This is a great video by Joe Gambino from Par Four Performance going over the Hip 90/90 PAILS/RAILS. I see PAIL/RAILS as a way to safely acquire and create control into these newly stretched positions without movement. Basically isometric holds to own a position with increased stretch tolerance. The next and my most favorite part of the course and system is the End-Range Control techniques. End range is where we see a lot of injuries and tissues breaking down. Why? Well, from a physics standpoint, we’re just not able to produce as much force at these end ranges due to length-tension relationships. Another big factor is because we rarely go there. And when we do, we typically aren’t ready for it and are pushed there by accident – which is why we need to train these end ranges. It allows us to build better tissue resilience and reduce the risk of injury. Here’s how we break down end-range control: End-Range Control: PALS/RALS
Passive Range Holds
Passive Range Lift-Offs
Hovers
End-Range Rotational Training
My suggestion is don’t get too caught up on the wording of these different techniques, but understand the conceptual framework and you’ll be able to implement this immediately. We all know that we have certain aspects of our joints where our active and passive is not the same. If you’re wanting to improve your squat or overhead position, or if you just want to build up resiliency in different tissues, then give your joints some love with some of these different techniques. Cheers, Dr. Ravi Patel, PT, DPT, CSCS What do you call a pig’s leash? A HAMSTRING Now that I have your attention, let’s dive into this much-needed blog post. I’ve been seeing a number of hamstring injuries in the clinic and on the field, so this blog will focus on what you can do to recover from a hamstring injury. Disclaimer: This should not be used as medical advice. If you are dealing with an injury, please seek out a local Physical Therapist or healthcare provider. So, let’s get started: Anatomy of the Hamstrings: The hamstrings are comprised of 4 different muscles (5 if you include the adductor magnus, but we’ll keep it simple here). These 4 muscles are:
All cross both hip and knee joints except for the short head of biceps femoris and are innervated by the tibial/fibular divisions of the sciatic nerve. These muscles work together to extend the hip and flex the knee. Mechanism of Injury: If you watch any video with a hamstring strain, it typically occurs when an athlete is decelerating (slowing down). The muscle is being loaded while it is lengthening (eccentric loading) – which is where we tend to be the weakest. Acute Stage: When someone first strains their hamstring, there’s a few things you can do to help optimize the recovery process. Follow the guidelines of POLICE:
Once you’ve put some of this in play, you can start to implement some soft tissue and mobility techniques. It’s important to note, loading is going to be the most important component in this process. Soft Tissue and Joint Mobility The goal here isn’t to release any adhesions or scar tissue. We’re just trying to decrease some sensitivity and pain to allow other movement opportunities and progressive loading. Tack and Stretch Loading This is where we build strength and resiliency in the hamstrings. Here’s our loading progressions in a nutshell: Isometric Loading 🡪 Isotonic Loading 🡪 Heavy Slow Resistance Training (high load/low velocity exercise) 🡪 Slow Stretch-Shortening Cycle 🡪 Fast Stretch-Shortening Cycle Isometric Loading Glute Bridge – Isometric Hold Variations (Dosage: 3-5 sets x 15-45 second holds) Isotonic Loading (Dosage: 3-4 sets x 10-20 reps) Glute Bridge Straight Leg Glute Bridge Band Pull Through Hamstring Roll Out Heavy Slow Resistance Training (high load/low velocity exercise) Kickstand RDL Nordic Hamstring Curl Half-Kneeling Hamstring Slide Slow Stretch-Shortening Cycle 🡪 Fast Stretch-Shortening Cycle Band Step Down Kettlebell Swing Supine Band Kickdown Standing Band Kickback – Slow Standing Band Kickback – Fast Single Leg Plyometrics Hamstring Tantrum – Supine Hamstring Tantrum – Prone Knee Bend What’s the biggest risk factor for a hamstring injury you ask? A previous hamstring injury. Make sure to take the appropriate steps to get your hamstrings taken care of. You don’t want to be that person that looks like a sniper took them out. If you’re dealing with an injury, reach out with any questions. We design and implement rehab and performance programs to help our athletes, whether you’re someone who doesn’t know where to start or has had an unsuccessful rehab experience. It is our goal for the people we work with to return to their sport or activity performing better than they did before. Cheers, Dr. Ravi Patel, PT, DPT, CSCS Last week, we covered the training volume in part 1 of load management. If you missed it, go check it out. Today, we’re going to take a deeper dive into components of load management itself and what you as an athlete, coach or healthcare professional can do about it. I geek out on this stuff so get ready. Any injury ever: FORCE/LOAD > CAPACITY This means any force/load that exceeds the capacity of your tissue’s ability to withstand that force/load. Some examples:
Enter LOAD MANAGEMENT. The goal is simple: to protect you from injury and maximize performance Proper training must be prescribed. Over-training and under-training both increase risk of injury. You want to:
I’d be remiss to not give credit where credit is due: Tim Gabbett and company have been leading the front on this area and are really changing the way teams and athletes are handling training. Now, let’s define LOAD: It is broken down into 2 variables – external load and internal load
We use these two variables to create the: ACUTE: CHRONIC WORKLOAD RATIO (ACWR) This is also commonly referred to as FATIGUE compared to FITNESS. Fatigue being the acute workload and fitness being the chronic workload.
With technology nowadays, we have a number of ways to track this type of data. The most commonly cited method in the research is Session RPE (sRPE), which is time (total number of minutes) multiplied by the RPE for a given training session. The RPE is usually taken after a training session to gauge level of exertion/difficulty. This is measured as “arbitrary units” or “exertional units”. For example, in week 5, let’s say a soccer player practices one day for 60 minutes at an RPE of 8. That gives us: 60 x 8 = 480 units. She practices 4 times during week 5 with a similar intensity. This gives us our ACUTE WORKLOAD (4 x 480 = 1920 units) for week 5. Now we have to look at her CHRONIC WORKLOAD for weeks 1-4.
When we compare the two, you get: 1920/1808 = 1.06 Now what does this number tell us? This ratio helps delineate whether you as the athlete are prepared for the task at hand – what you’ve done compared to what you’re prepared for – that can be a running a marathon, doing a CrossFit Open workout, playing in a professional football game or doing parkour in your living room. In terms of injury risk, acute:chronic workload ratios within the range of 0.8–1.3 is considered the training ‘sweet spot’ where injury risk is at its lowest, while acute:chronic workload ratios ≥1.5 represent the danger zone. If you look at the trend of the curve before 0.80, you should notice the injury risk climbs back up – similar to a “U-shaped” curve. This relationship between workload and injury demonstrates that both inadequate and excessive workloads are associated with injury. Now let’s say from the example above that week 5 workload came out to 3500 arbitrary units. That would make the ratio: 3500/1808 = 1.94 No bueno. This athlete is at an increased risk of injury. When training load is fairly constant (ranging from 5% less to 10% more than the previous week) players had <10% risk of injury based on the study by Gabbett et al. However, when training load was increased by ≥15% above the previous week's load, injury risk escalated to between 21% and 49%. This is commonly represented by ‘spikes’ in acute load relative to chronic load. To minimize the risk of injury, we should limit weekly training load increases to <10%. There’s room to work within this, but a great starting point. Athletes accustomed to high chronic loads have fewer injuries than those accustomed to lower loads, and this supports Gabbett’s assertion that higher chronic loads can act as a protective effect against future injury.  These two graphs give a great depiction of what happens when load is applied appropriately:  Compared to excessive load and/or lack of recovery:  This is something I use every day with my patients and athletes. I’ll look at their training program and see if there is a mismatch in training volume and load management. We start here then look to optimize other components of injury and performance training such as stress management, tissue tolerance, biomechanics, physiology, strength, power, etc. At the end of the day, ask yourself this question: Is your body prepared for the demand of the task?
Cheers, Dr. Ravi Patel, PT, DPT, CSCS References:
With the CrossFit Open upon us and beach bod season approaching, people will be fitnessing. A LOT. With this, comes the opportunity for injuries to sneak up and leaving performance on the table. People typically blame certain factors for an injury or lack of performance:
While these factors are definitely important to consider, there’s one that gets overlooked and is quite often the culprit: TRAINING VOLUME I had a patient come in a month ago who was dealing with foot and ankle pain. It has been on and off for months, and she decided to get it checked out due to a recent exacerbation. She’s a ½ marathon runner who also does Orange Theory a few times a week. She was starting to increase her mileage for her ½ marathon coming up. I think you know where this is going… Before trying to change up her running mechanics, change her shoes or blaming it on “overpronation,” we had a conversation about her training volume. I asked her how her running mileage and volume been. In this discussion, she said she went from 3 miles to 6 miles within a weeks time. BINGO. She was confused as she had previously ran this much mileage in the past, BUT... it’s been a couple months. I also asked her about the first time she ever dealt with this same issue – she said she couldn’t really think of why it initially started – “maybe running form or my shoes?”. I asked her when she started Orange Theory – lightbulb went off. BINGO again. Let me be clear – there’s nothing wrong with her doing both running and Orange Theory. There is when your body is not prepared for the demand of these tasks. This was and is a volume issue, and if you’re reading this, think back to a previous non-contact injury and see if you can attribute any other factors playing into that specific injury – moreso volume in this case. Now, mobility, biomechanics, strength, etc., all play roles into whether we are operating as optimally as possible from a performance standpoint. For this patient, we did work on strength in certain areas and tweaked some things from a running standpoint, but the big component of her rehab was starting at a volume she could tolerate without pain or just a little, and progress forward from there. Training volume falls under the umbrella of Load Management (coming in Part 2) and is a big reason why injuries occur. Some common methods of measuring training volume include counting the number of sets to failure, the volume load (sets x reps x weight), distance, number of sprints, etc. Here are some terms to understand: Maintenance Volume (MV) – How much volume you need to maintain your gains Minimum Effective Dose (MED) – Smallest amount of stimulus needed to drive positive adaptation. If we are below this threshold, then there will be no adaptation. Maximum Adaptive Volume (MAV) – Here we are training at our optimal range of volume that we can adapt to and recover appropriately to drive optimal performance Maximum Recoverable Volume (MRV) – This is the absolute maximum volume that your body can handle and recovery from. Sometimes it’s necessary to pass this threshold from time to time, called overreaching, in order to elicit greater adaptations. Important point here is to make sure it is not often and that deloads are accompanying this high accumulation of volume to allow for supercompensation (the point of overreaching to get the training effect you want – improved strength, power, speed, etc.). When this is not appropriately monitored or constantly overreached without recovery, you open the door for injuries to occur and performance to suffer. (credit to Mike Israetel of Renaissance Periodization for this concept)  The way this is laid out is that you start with your MED, progress to MAV, then MRV to overreach. However, notice that you don’t dance with MRV often, nor do you want to.
Overtime, your MRV will increase, meaning you’ll get stronger and develop more work capacity, as long as you intelligently handle your training volume. A good rule of thumb is The 10% Rule - While there can be some variability here, staying within a 10% increase from the previous week tends to work well for a lot of people. It pushes that threshold in a progressive manner and allows appropriate recovery from the increased demand on the body. Next week, in Part 2, we’ll take a deeper dive into load management and training volume, explore exactly what this concept means, and how to practically apply it to yourself or athletes you work with. Cheers, Dr. Ravi Patel, PT, DPT, CSCS Recently, I had the opportunity to present to a local soccer club and their coaches on injury risk and reduction for the sport of soccer. In order to understand this, a “Needs Analysis” must be done. A Needs Analysis is a two-part analysis breaking down the sport into two components:
Today, our primary focus will be on evaluating the sport itself. This can be further broken down into:
Movement & Physiological Analysis Soccer is a very lower-body dominant sport involving the hip, knee and ankle joints and muscle groups including the quadriceps, glutes, hamstrings and calves. A soccer athlete must be able to run, jump, accelerate, decelerate, land, cut, kick, pass, head, shuffle, tackle – all while handling a ball and avoiding defenders. Oh, they also need the ability to sprint and jog throughout the duration of a 90+ minute game. Now, you’re talking about a dynamic athlete with a sound aerobic and anaerobic energy system. That’s A LOT. Here’s a more thorough breakdown:  Injury Analysis Sports injuries are inevitable. It comes with playing sports – exposure already puts you more at risk. You cannot prevent sports injuries, but you can help mitigate and reduce the risk of them happening – especially ones that are non-contact or overuse in nature. Here’s a breakdown of the most common injuries in soccer:  A study done in 2017 by Khodaee et al. tracked detailed information on injury rates among high school soccer players over a 10-year period (2005 – 2014). You can see those below broken down by gender and injury diagnosis.   Muscle strain, ligament sprain and concussions are highest as expected. What’s most interesting is the girls’ ligament sprain – very high for both practice and competition as compared to the boys’ group. Females are 2-5 times more likely to tear their ACL than males in a similar sport. There are a lot of factors that play into this and nothing is definitive. We do know that strength and neuromuscular control are big modifiable factors from an injury risk standpoint. In another study from 2015, Waldén and company analyzed 39 videos for movements related to non-contact ACL injuries in professional soccer players. They found that pressing, kicking, and heading were the 3 most common movements in relation to ACL injuries.  Pressing  Kicking  Heading (check that right leg in D - ouch) Cool, so now what do we do with all of this? Make some superhuman soccer athletes.
Have a plan in place to address these different components. It’s important to create a program for these athletes to develop these athletic characteristics – i.e. lower body strength, power, repeated sprint ability, cardiovascular endurance, change of direction and reactive agilities. Injuries happen all the time in soccer, but if we know what joints and muscles are most at risk, then we can better prepare these tissues to withstand the stress of the sport and build more resilient and robust athletes. Cheers, Dr. Ravi, DPT Sources: Baechle, Thomas R., and Roger W. Earle. Essentials of Strength Training and Conditioning. Champaign, IL: Human Kinetics, 2016. Print. Turner, E., Munro, A. G., & Comfort, P. (2013). Female Soccer: Part 1—A Needs Analysis. Strength & Conditioning Journal, 35(1), 51-57.  Why is this topic so important to me? It’s because I’ve personally been through this process. Twice. And it’s one of the hardest things I’ve had to do in my life. Successful return to sport after anterior cruciate ligament (ACL) reconstruction requires optimal physical AND psychological recovery. The psychological component is quite often overlooked. Fear, emotion, and poor self-esteem can have profound effects on patients' compliance, athletic identity, and readiness to return to sport. An athlete can be physically prepared for return to sport, but if there is fear or anxiety associated, then this process should be prolonged. If you’re a clinician, parent, or athlete reading this, here are four key areas to consider: 1. Psychological Distress:
 This is where education and setting the expectations is huge. When working with an athlete, it’s important to consider this as a part of rehab. Who wouldn’t have anxiety or emotions when they can no longer play their sport and get their knee operated on. It’s completely normal. Rather than hiding it, have a conversation with your athlete. Educate them on what to expect before, during and after the procedure and for rehab. Assure them that everything will be okay and that they will get back to their sport. When an athlete knows what to expect, there’s less psychological distress associated with the process, which can significantly impact the success of the rehab and return-to-play process. 2. Self-Efficacy:
3. Locus of Control:
4. Athletic Identity:
 In addition to the 4 areas above, an objective measure can be very beneficial to quantify where the athlete stands from not only a physical perspective, but psychological. That’s where the ACL-Return to Sport after Injury scale (ACL-RSI) can be helpful. The ACL-RSI is a great outcome measures to assess athletes' emotions, confidence in performance, and risk appraisal in relation to return to sport.
Recognizing positive and negative psychological responses to injury is the first step in initiating treatment and potentially modifying beliefs through psychological interventions. It is important to identify patients who are at risk for poor outcomes because targeted psychological interventions may be successful. If you know of an athlete going through this injury and recovery process, don’t forget that there’s more to it than just what you can see. Cheers, Dr. Ravi, DPT Sources: - Christino MA, Fantry AJ, Vopat BG. Psychological Aspects of Recovery Following Anterior Cruciate Ligament Reconstruction. J Am Acad Orthop Surg. 2015;23(8):501-9. - Sadeqi M, Klouche S, Bohu Y, Herman S, Lefevre N, Gerometta A. Progression of the Psychological ACL-RSI Score and Return to Sport After Anterior Cruciate Ligament Reconstruction: A Prospective 2-Year Follow-up Study From the French Prospective Anterior Cruciate Ligament Reconstruction Cohort Study (FAST). Orthop J Sports Med. 2018;6(12):2325967118812819. - Ardern CL. Anterior Cruciate Ligament Reconstruction-Not Exactly a One-Way Ticket Back to the Preinjury Level: A Review of Contextual Factors Affecting Return to Sport After Surgery. Sports Health. 2015;7(3):224-30. -Schub D, Saluan P: Anterior cruciate ligament injuries in the young athlete: Evaluation and treatment. Sports Med Arthrosc 2011;19(1):34-43. Melissa A. Christino, MD, et al  Here’s what we know:
That last bullet point is a HUGE problem. How do we know when an athlete is ready? Traditional return-to-sport criteria are mainly focused on the time after ACLR and knee-specific impairments, while the return-to-sport decision-making process is only made at the hypothetical “end” of the rehabilitation period. When is this “end” point? When the patient runs out of insurance-covered visits? When the ortho clears them based on a 5-minute exam? When there’s no longer a government shutdown? This “end” point is completely made up and very subjective. That is why we need more concrete, objective measures to allow these athletes return to sport at a high level with the lowest risk of re-injury.  Dingenen et al. proposes: “an optimized criterion-based continuous and multifactorial return-to-sport approach based on shared decision making, with a focus on a broad spectrum of individual sensorimotor and biomechanical outcomes, within a biopsychosocial framework.” I could not agree more.  This means that we need to get away from time- and isolated-based assessments and look at this from a holistic 360 degree view, taking into account not only the biological factors of the athlete, but psychosocial factors as well. Since there are many individuals involved in this process, it takes a team to make the outcome truly successful. This team consists of the individual, their family, physical therapist, athletic trainer, orthopedic surgeon, sport coach, strength coach, etc.
Remember – A single component alone (i.e. time) is not enough to determine whether someone is ready. All of the components below could have the box checked except the last one and this athlete would still not be ready. I hope this provides some insight to you if you are going through this process as an athlete, parent, or clinician looking to return to sport.
Cheers, Dr. Ravi Source: Dingenen B, Gokeler A. Optimization of the Return-to-Sport Paradigm After Anterior Cruciate Ligament Reconstruction: A Critical Step Back to Move Forward. Sports Med. 2017;47(8):1487-1500. |
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