What the heck is a trigger point?

trigger-point-referred-pain-shutterstock_228843211

What is a Trigger Point?

Trigger Points (TP’s) are defined as a “hyper-irritable spot within a taut band of skeletal muscle. The spot is painful on compression and can evoke characteristic referred pain and autonomic phenomena.”1

Put into plain language, a TP is a painful knot in muscle tissue that can refer pain to other areas of the body. You have probably felt the characteristic achy pain and stiffness that TP’s produce, at some time in your life.

TP’s were first brought to the attention of the medical world by Dr. Janet G. Travell. Dr. Travell, physician to President John F. Kennedy, is the acknowledged Mother of Myofascial Trigger Points. In fact, “Trigger Point massage, the most effective modality used by massage therapists for the relief of pain, is based almost entirely on Dr. Travell’s insights.”2 Dr. Travell’s partner in her research was Dr. David G. Simons, a research scientist and aerospace physician.

Trigger Points are very common. In fact, Travell and Simons state that TP’s are responsible for, or associated with, 75% of pain complaints or conditions.1 With this kind of prevalence, it’s no wonder that TP’s are often referred to as the “scourge of mankind”.

Trigger Points can produce a wide variety of pain complaints. Some of the most common are migraine headaches, back pain, and pain and tingling into the extremities. They are usually responsible for most cases of achy deep pain that is hard to localize.

A TP will refer pain in a predictable pattern, based on its location in a given muscle. Also, since these spots are bundles of contracted muscle fibres, they can cause stiffness and a decreased range of motion. Chronic conditions with many TP’s can also cause general fatigue and malaise, as well as muscle weakness.

Trigger Points are remarkably easy to get, but the most common causes are

TP’s (black X) can refer pain to other areas (red)

Sudden overload of a muscle

  • Poor posture
  • Chronic frozen posture (e.g., from a desk job), and
  • Repetitive strain

Once in place, a TP can remain there for the remainder of your life unless an intervention takes place.

Trigger Points Not Well Known

With thousands of people dealing with chronic pain, and with TP’s being responsible for — or associated with — a high percentage of chronic pain, it is very disappointing to find that a large portion of doctors and other health care practitioners don’t know about TP’s and their symptoms.

Scientific research on TP’s dates back to the 1700’s. There are numerous medical texts and papers written on the subject.

But, it still has been largely overlooked by the health care field. This has led to needless frustration and suffering, as well as thousands of lost work hours and a poorer quality of life.

How Are Trigger Points Treated?

As nasty and troublesome as TP’s are, the treatment for them is surely straight-forward. A skilled practitioner will assess the individual’s pain complaint to determine the most likely location of the TP’s and then apply one of several therapeutic modalities, the most effective of which is a massage technique called “ischemic compression”.

Basically, the therapist will apply a firm, steady pressure to the TP, strong enough to reproduce the symptoms. The pressure will remain until the tissue softens and then the pressure will increase appropriately until the next barrier is felt. This pressure is continued until the referral pain has subsided and the TP is released. (Note: a full release of TP’s could take several sessions.)

Other effective modalities include dry needling (needle placed into the belly of the TP) or wet needling (injection into the TP). The use of moist heat and stretching prove effective, as well. The best practitioners for TP release are Massage Therapists, Physiotherapists, and Athletic Therapists. An educated individual can also apply ischemic compression to themselves, but should start out seeing one of the above therapists to become familiar with the modality and how to apply pressure safely.

1 Simons, D.G., Travell, D.G., & Simons, L.S. Travell and Simons’Myofascial Pain and Dysfunction: the Trigger Point Manual.

Vol. 1. 2nd ed. Lippincott, Williams, and Wilkins, 1999.

PFPS Cont. You want details?

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The muscles of the hip provide not only local stability, but also play an important role in spinal and lower extremity functional alignment. (1-4) While weakness in some hip muscles (hip extensors and knee extensors) is well tolerated, weakness or imbalance in others can have a profound effect on gait and biomechanical function throughout the lower half of the body. (5) Weakness of the hip abductors, particularly those that assist with external rotation, has the most significant impact on hip and lower extremity stability. (5,6)

Hip Abduction.gif

The gluteus medius is the principal hip abductor. When the hip is flexed, the muscle also assists the six deep hip external rotators (piriformis, gemelli, obturators, and quadratus femoris). The gluteus medius originates on the ilium just inferior to the iliac crest and inserts on the lateral and superior aspects of the greater trochanter. While the principal declared action of the gluteus medius is hip abduction, clinicians will appreciate its more valuable contribution as a dynamic stabilizer of the hip and pelvis- particularly during single leg stance activities like walking, running, and squatting. The gluteus medius contributes approximately 70% of the abduction force required to maintain pelvic leveling during single leg stance. The remainder comes predominantly from 2 muscles that insert onto the iliotibial band: the tensor fascia lata and upper gluteus maximus.  Hip abductor strength is the single greatest contributor to lower extremity frontal plain alignment during activity. (6)

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Incompetent hip abductors and/or external rotators allows for excessive adduction and internal rotation of the thigh during single leg stance activities. This leads to a cascade of biomechanical problems, including pelvic drop, excessive hip adduction, excessive femoral internal rotation, valgus knee stress, and internal tibial rotation. (1,7-12)

 

References
1. Szu-Ping Lee, Powers C. Description of a Weight-Bearing Method to Assess Hip Abductor and External Rotator Muscle Performance. JOSPT. Volume 43, Issue 6
2. Crossley KM, Zhang WJ, Schache AG, Bryant A, Cowan SM. Performance on the single-leg squat task indicates hip abductor muscle function. Am J Sports Med. 2011;39:866-873.
3. Presswood L, Cronin J, Keogh JWL, Whatman C. Gluteus medius: applied anatomy, dysfunction, assessment, and progressive strengthening. Strength Cond J. 2008;30:41-53.
4. Sled EA, Khoja L, Deluzio KJ, Olney SJ, Culham EG. Effect of a home program of hip abductor ex- ercises on knee joint loading, strength, function, and pain in people with knee osteoarthritis: a clinical trial. Phys Ther. 2010;90:895-904.
5. van der Krogt MM, Delp SL, Schwartz MH How robust is human gait to muscle weakness? Gait Posture. 2012 Feb 29.
6. Laurie Stickler, Margaret Finley, Heather Gulgin Relationship between hip and core strength and frontal plane alignment during a single leg squat Physical Therapy in Sport Available online 2 June 2014
7. Ireland ML, Willson JD, Ballantyne BT, Davis
IM. Hip strength in females with and without patellofemoral pain. J Orthop Sports Phys Ther. 2003;33:671-676.
8. Noehren B, Davis I, Hamill J. ASB clinical biome- chanics award winner 2006: prospective study of the biomechanical factors associated with iliotib- ial band syndrome. Clin Biomech (Bristol, Avon). 2007;22:951-956.
9. Powers CM. The influence of abnormal hip me- chanics on knee injury: a biomechanical perspec- tive. J Orthop Sports Phys Ther. 2010;40:42-51.
10. Powers CM. The influence of altered lower- extremity kinematics on patellofemoral joint dysfunction: a theoretical perspective. J Orthop Sports Phys Ther. 2003;33:639-646.
11. Sigward SM, Powers CM. Loading characteristics of females exhibiting excessive valgus moments during cutting. Clin Biomech (Bristol, Avon). 2007;22:827-833
12. Souza RB, Powers CM. Differences in hip kine- matics, muscle strength, and muscle activation between subjects with and without patellofemo- ral pain. J Orthop Sports Phys Ther. 2009;39:12- 19.

Patellofemoral Pain Syndrome

knock knee

Patellofemoral pain syndrome (PFPS), also called “Runners Knee”, describes the symptom complex of knee discomfort, swelling, or crepitus that results from excessive or imbalanced forces acting on the joint. It is the most common cause of knee pain in the general population, affecting an estimated 25% of adults.

PFPS is most commonly related to lateral tracking of the patella. The patella has a natural tendency to migrate laterally due to the pull of the quadriceps and the slight natural valgus of the lower extremity. A new study in the Journal of Sports Medicine (1) provides additional confirmation that when managing patellofemoral pain syndrome, clinicians must address two critical yet often overlooked issues.

This study concludes that PFPS and dynamic knee valgus do not arise primarily from knee dysfunction, rather from hip abductor/ external rotator weakness and/or foot hyperpronation.

“The most effective intervention programs included exercises targeting the hip external rotator and abductor muscles and knee extensor muscles.” and “PFPS patients with foot abnormalities, such as those with increased rearfoot eversion or pes pronatus, may benefit the most from foot orthotics.”

Since gluteus medius and VMO weakness are key factors in the development of PFPS, strengthening exercises that target those muscles prove most effective. Stabilization exercises may include pillow push (push the back of your knee into a pillow for 5-6 seconds), supine heel slide, terminal knee (short-arc) extension, clam, glut bridge, semi-stiff deadlift, posterior lunge, and monster walk.

Myofascial release and stretching should be directed at hypertonic muscles, including the TFL, gastroc, soleus, hamstring, piriformis, hip rotators, and psoas. Myofascial release or IASTM may be appropriate for tightness in the iliotibial band, vastus lateralis, posterior hip capsule, and lateral knee retinaculum.

Manipulation may be necessary for restrictions in the lumbosacral and lower extremity joints. Hypermobility is common in the ipsilateral SI joint with restrictions present contralaterally. Evidence has shown that patellar tracking braces, i.e. BioSkin® or PatellaPro®, may lead to better outcomes.

Lifestyle modification may be necessary to reduce pain-provoking endeavors, especially running, jumping and other activities that induce a valgus stress. Athletes should avoid allowing their knee to cross in front of their toes while squatting. Arch supports or custom orthotics may be necessary to correct hyperpronation. Runners should avoid cross-over gaits and change shoes every 250 to 500 miles.

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#pain

#kneepain

#chiropractic

#fitness

#sports

#wellness

#fitness

#healthyliving

#healthychoices

#Winnipeg

References

1. Petersen W, Rembitzki I, Liebau C. Patellofemoral pain in athletes. Open Access Journal of Sports Medicine. 2017;8:143-15

Do you have CTS?

Carpal Tunnel

Carpal tunnel syndrome (CTS) can be an extremely painful and activity-limiting condition. It affects many people of all ages and genders, though women are affected more often than men. But how do you know if what you are suffering from is truly CTS or if it’s another condition that’s producing the symptoms in your hand or wrist?
Carpal tunnel syndrome occurs when the median nerve is compressed as it passes through the wrist. However, the median nerve travels out of the neck, through the shoulder, elbow, and forearm before it passes through the wrist and into the hand. Pinching of the median nerve ANYWHERE along its course can give rise to the signs and symptoms of CTS including numbness, tingling, and/or pain into the hand and index, third, and thumb-side half of the fourth digits, and sometimes the thumb. If the pinch is significant enough, weakness can also occur. Sometimes the median nerve can become compressed at both the wrist and other body sites as it travels from the spinal cord to your hand, that’s why it’s important for a doctor to check for impingements along the entire course of the nerve.
 
But compression of the median nerve isn’t the only thing that can produce symptoms in the hand. Here are a couple of the more common conditions that are often confused with CTS:
1)  Ulnar neuropathy: This is pinching of the ulnar nerve (at the neck, shoulder, elbow, or wrist) but this gives rise to a similar numbness/tingling BUT into the pinky-side of the fourth and the fifth fingers (not the thumb-side of the hand). The most common pinch location is either at the neck or the inner elbow, the latter of which is called “cubital tunnel syndrome” or CuTS.
 
2)  Tendonitis: There are a total of nine tendons that pass through the carpal tunnel that help us grip or make a fist. Similarly, there are five main tendons on the back side of the hand that allow us to open our hands and spread our fingers. ANY of these tendons can get strained or torn, which results in swelling and pain as well as limited function BUT there is usually NO NUMBNESS/TINGLING!
 
3)  DeQuervain’s disease: This is really a tendonitis of an extensor tendon of the thumb and its synovial sheath that lubricates it resulting in a “tenosynovitis.” This creates pain with thumb movements, especially if you grasp your thumb in the palm of your hand and then bend your wrist sideways towards the pinky-side of the hand.
 
Chiropractors are well-trained to diagnose and treat patients with CTS. And if you don’t have CTS but another condition listed above, they can offer treatment (or a referral, if necessary) to help resolve it so you can return to your normal activities as soon as possible.

Chiro & Concussions

head-shot2

Whiplash Associated Disorders (WAD) is the appropriate terminology to use when addressing the myriad of symptoms that can occur as a result of a motor vehicle collision (MVC). In a recent publication in The Physician and Sports Medicine (Volume 43, Issue 3, 2015; 7/3/15 online:1-11), the article “The role of the cervical spine in post-concussive syndrome” takes a look at the neck when it’s injured in a car accident and how this relates to concussion.

It’s estimated about 3.8 million concussion injuries, also referred to as “mild traumatic brain injury” (mTBI), occur each year in the United States. Ironically, it’s one of the least understood injuries in the sports medicine and neuroscience communities. The GOOD NEWS is that concussion symptoms resolve within 7-10 days in the majority of cases; unfortunately, this isn’t the case with 10-15% of patients. Symptoms can last weeks, months, or even years in this group for which the term “post-concussive syndrome” (PCS) is used (defined as three or more symptoms lasting for four weeks as defined by the ICD-10) or three months following a minor head injury (as defined by the Diagnostic and Statistical Manual of Mental Disorders).

There have been significant advances in understanding what takes place in the acute phase of mTBI, but unfortunately, there is no clear physiological explanation for the chronic phase. Studies show the range of force to the head needed to cause concussion is between 60-160g (“g” = gravity) with 96.1g representing the highest predictive value in a football injury, whereas as little as 4.5g of neck acceleration can cause mild strain injury to the neck. In spite of this difference, the signs and symptoms reported by those injured in low-speed MVCs vs. football collisions are strikingly similar!

Research shows if an individual sustains an injury where the head is accelerated between 60-160g, it is HIGHLY likely that the tissues of the cervical spine (neck) have also reached their injury threshold of 4.5g. In a study that looked at hockey players, those who sustained a concussion also had WAD / neck injuries indicating that these injuries occur concurrently. Injuries to the neck in WAD include the same symptoms that occur in concussion including headache, dizziness/balance loss, nausea, visual and auditory problems, and cognitive dysfunction, just to name a few.

The paper concludes with five cases of PCS that responded well to a combination of active exercise/rehabilitation AND passive manual therapy (cervical spine manipulation). The favourable outcome supports the concept that the neck injury portion of WAD is a very important aspect to consider when treating patients with PCS!

This “link” between neck injury and concussion explains why chiropractic care is essential in the treatment of the concussion patient! This is especially true when the symptoms of concussion persist longer than one month!

We realize you have a choice in whom you consider for your health care provision and we sincerely appreciate your trust in choosing our service for those needs.  If you, a friend, or family member requires care for Whiplash, we would be honoured to render our services.

Proper Lifting Technique

Some simple tips

Lifting Technique

Lifting technique is important for preventing injuries when lifting heavy objects.

There are a few basic principles that should be followed when lifting:

1. Keep the object close to your body.

2. Use your legs to lift the object, not your back.

3. Keep your back straight.

4. Hold the object close to your body as you move it.

Following these principles will help you to lift objects safely and prevent back injuries.

Maximizing Athletes’ Performance and Preventing Injuries with Pilates

Athletes are no strangers to the risk of injury that comes with pushing the limits of physical performance. Whether you’re a professional athlete, a dedicated gym-goer, or a weekend warrior, the last thing you want is to be sidelined by an injury. That’s where Pilates comes in. This low-impact exercise method offers a myriad of benefits for athletes, including injury prevention. In this article, we’ll explore how Pilates can help athletes stay injury-free and perform at their best.

Understanding Pilates

Pilates is a form of exercise that focuses on strengthening the core muscles, improving flexibility, and enhancing body awareness and control. Developed by Joseph Pilates in the early 20th century, Pilates emphasizes precise, controlled movements performed with proper alignment and breathing techniques. Pilates exercises can be done on a mat or using specialized equipment such as reformers, cadillacs, and barrels, offering a versatile and customizable workout experience.

Benefits of Pilates for Injury Prevention

  1. Core Strength and Stability: Pilates targets the deep stabilizing muscles of the core, including the abdominals, obliques, and pelvic floor muscles. A strong core provides a stable foundation for movement, improves posture, and reduces the risk of injuries such as low back pain, hip instability, and knee injuries.
  2. Muscle Balance and Symmetry: Pilates exercises promote balanced muscle development by targeting both large and small muscle groups throughout the body. By addressing muscle imbalances and weaknesses, Pilates helps prevent overuse injuries and compensatory movement patterns that can lead to injury.
  3. Flexibility and Range of Motion: Pilates incorporates dynamic stretching and lengthening exercises that improve flexibility, joint mobility, and muscle elasticity. Enhanced flexibility reduces the risk of strains, sprains, and muscle tears by allowing muscles and joints to move through their full range of motion more effectively.
  4. Improved Body Awareness and Alignment: Pilates emphasizes proper alignment, posture, and body mechanics, teaching athletes to move mindfully and efficiently. By increasing body awareness and proprioception, Pilates helps athletes identify and correct movement dysfunctions and biomechanical issues that contribute to injury.
  5. Injury Rehabilitation and Recovery: Pilates is often used as a rehabilitation tool to help athletes recover from injuries and return to sport safely. With its low-impact nature and focus on controlled movements, Pilates can be adapted to accommodate individuals with injuries or mobility limitations, allowing for targeted strengthening and rehabilitation exercises.
  6. Mind-Body Connection: Pilates fosters a mind-body connection by encouraging focused concentration, breath awareness, and mindfulness during movement. This heightened awareness helps athletes tune into their bodies, listen to warning signs of potential injury, and make adjustments to prevent overexertion or strain.

Incorporating Pilates Into Your Training Routine

To reap the benefits of Pilates for injury prevention, consider incorporating Pilates into your training routine in the following ways:

  • Attend Pilates classes or private sessions led by certified instructors who can provide personalized guidance and instruction.
  • Include Pilates exercises as part of your warm-up or cool-down routine to prepare the body for activity and promote recovery.
  • Use Pilates equipment such as reformers, stability balls, and resistance bands to add variety and challenge to your workouts.
  • Focus on proper form, alignment, and breath control during Pilates exercises to maximize effectiveness and reduce the risk of injury.
  • Listen to your body and modify exercises as needed to accommodate any injuries, limitations, or areas of discomfort.

Conclusion

In conclusion, Pilates is a valuable tool for athletes seeking to prevent injuries, improve performance, and maintain overall health and well-being. By strengthening the core, promoting muscle balance and flexibility, enhancing body awareness, and facilitating injury rehabilitation, Pilates empowers athletes to move with confidence, resilience, and efficiency. Whether you’re a competitive athlete or a fitness enthusiast, incorporating Pilates into your training routine can help you stay injury-free and perform at your peak.