Medial Tibial Stress Syndrome: Difference between revisions

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# The pain is secondary to inflammation of the periosteum as a result of excessive traction of the tibialis posterior or soleus, supported by bone scintigraphy findings of a broad linear band of increased uptake along the medial tibial periosteum. But a case-controlled ultrasound based study which compared periosteal and tendinous edema of athletes with and without medial tibial stress syndrome found no difference between the groups.
# The pain is secondary to inflammation of the periosteum as a result of excessive traction of the tibialis posterior or soleus, supported by bone scintigraphy findings of a broad linear band of increased uptake along the medial tibial periosteum. But a case-controlled ultrasound based study which compared periosteal and tendinous edema of athletes with and without medial tibial stress syndrome found no difference between the groups.
# Bony overload injury, with resultant microdamage and targeted remodeling. A study evaluating tibia biopsy specimens from the painful area of six athletes suffering from medial tibial stress syndrome gave only equivocal support for this theory. Linear microcracks were found in only three specimens and there was no associated repair reaction<ref name=":11">Milgrom C, Zloczower E, Fleischmann C, Spitzer E, Landau R, Bader T, Finestone AS. Medial tibial stress fracture diagnosis and treatment guidelines. Journal of science and medicine in sport. 2021 Jun 1;24(6):526-30. Available:https://sbrate.com.br/wp-content/uploads/2021/01/Artigo-Andr%C3%A9-Pedrinelli-Ot%C3%A1vio-Assis-COMPLEMENTO-JSAMS_MEDIAL_TIBIAL_STRESS_GUIDELINES.pdf (accessed 2.6.2022)</ref>.
# Bony overload injury, with resultant microdamage and targeted remodeling. A study evaluating tibia biopsy specimens from the painful area of six athletes suffering from medial tibial stress syndrome gave only equivocal support for this theory. Linear microcracks were found in only three specimens and there was no associated repair reaction<ref name=":11">Milgrom C, Zloczower E, Fleischmann C, Spitzer E, Landau R, Bader T, Finestone AS. Medial tibial stress fracture diagnosis and treatment guidelines. Journal of science and medicine in sport. 2021 Jun 1;24(6):526-30. Available:https://sbrate.com.br/wp-content/uploads/2021/01/Artigo-Andr%C3%A9-Pedrinelli-Ot%C3%A1vio-Assis-COMPLEMENTO-JSAMS_MEDIAL_TIBIAL_STRESS_GUIDELINES.pdf (accessed 2.6.2022)</ref>.
== Characteristics/Clinical Presentation ==
== Clinical Presentation and Assessment ==
 
Symptoms
 
Vague, diffuse pain along middle-distal tibia that decreases with running (early stage)
 
Differentiate from exertional compartment syndrome, for which pain increases with running
 
Earlier onset of pain with more frequent training (later stages)
 
Examination
 
tenderness along posteromedial border of tibia
 
4cm proximal to medial malleolus, extending proximally up to 12cm
 
 
weak core muscles
 
provocative test
 
pain on resisted plantar flexion
{| class="wikitable"
{| class="wikitable"
! colspan="2" |KEY POINTS FOR ASSESSMENT MTSS<ref name=":3" />
! colspan="2" |KEY POINTS FOR ASSESSMENT MTSS<ref name=":3" />
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Pain persists for hours or days after cessation of activity
Pain persists for hours or days after cessation of activity
Pain decreases with running (early stage)
Differentiate from exertional compartment syndrome, for which pain increases with running
Earlier onset of pain with more frequent training (later stages)
|-
|-
|PHYSICAL EXAMINATION
|PHYSICAL EXAMINATION
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|-
|-
|TREATMENT
|TREATMENT
|Mainly conservative (running retraining, ESWT)
|See later in page
|}
|}


== Assessment ==
Making the diagnosis based on history and physical examination is the most logical approach.<ref name=":0" /><ref name=":1" /> 
# A standardised history include questions on the onset and location of the pain:
#* If there is exercise-induced pain along the distal 2/3 of the medial tibial border: MTSS diagnosis is suspected
#* The athlete is asked of what aggravated and relieved their pain: If pain is provoked during or after physical activity and reduced with relative rest, MTSS diagnosis is suspected
#* The athlete is asked about cramping, burning and pressure-like calf pain and/or pins and needles in the foot (their presence could be signs of chronic exertional compartment syndrome, which could be a concurrent injury or the sole explanation for their pain): If no present, MTSS diagnosis is suspected
# Physical examination If MTSS is suspected after the history.


* The posteromedial tibial border is palpated and the athletes are asked for the presence of recognisable pain (ie, from painful activities). If recognisable pain is provoked on palpation over a length of ≥ 5 consecutive centimetres MTSS is likely.  It is provoked on palpation over a length of ≥ 5 consecutive centimetres. <ref name=":0" /><ref name=":1" /><ref name=":2" /><ref name=":3" />
<ref name=":0" /><ref name=":1" /><ref name=":2" /><ref name=":3" /><ref name=":11" />


* A "one-leg hop test" is a functional test, that can be used to distinguish between medial tibial stress syndrome and a stress fracture: a patient with medial tibial stress syndrome can hop at least 10 times on the affected leg where a patient with a stress fracture cannot hop without severe pain. The sensitivity of the hop test for diagnosing medial tibial stress fracture when pain and tenderness were present was 100%, the specificity 45%, the positive predictive value 74%, and the negative predictive value 100%<ref name=":11" />
== Outcome Measures  ==
== Outcome Measures  ==


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{{#ev:youtube|KrCpFoR5PCY}}
Examination demonstrates an intensive tenderness on palpation along the medial tibial border, the anterior tibia, however, is usually nontender. Neurovascular symptoms are usually absent. Different from stress fracture, the pain is not focused to a specific point but covers a variable distance of several centimeters in the distal medial and proximal distal third of the tibia.<ref name=":3" /> In the painful area, there is no real muscle origin, but the deep crural fascia is attached to the medial tibial border. From clinical experience, a painful transverse band can frequently be palpated which most probably corresponds to the soleal aponeurosis .Therefore, MTSS is currently hypothesized to originate from tibial bone overload and not from adjacent soft tissue stress<ref name=":3" />
Physicians should carefully evaluate for possible knee abnormalities (especially genu varus or valgus), tibial torsion, femoral anteversion, foot arch abnormalities, or a leg-length discrepancy. Ankle movements and subtalar motion should also be evaluated. Clinicians should also examine for inflexibility and imbalance of the hamstring and quadriceps muscles and weakness of “core muscles”. Core and pelvic muscle stability may be assessed by evaluating patient’s ability to maintain a controlled, level pelvis during a pelvic bridge from the supine position, or a standing single-leg knee bend.<br>Examining patient’s shoes may reveal generally worn-out shoes or patterns consistent with a leg-length discrepancy or other biomechanical abnormalities. <br>Abnormal gait patterns should be evaluated with the patient walking and running on a treadmill. <ref name=":5">Moen, M. H., Tol, J. L., Weir, A., Steunebrink, M., & De Winter, T. C. Medial tibial stress syndrome. Sports medicine. ''2009;'' ''39''(7): 523-546. (Level of evidence 3A)</ref><ref name=":6">Beck B. [http://bands.ua.edu/wp-content/uploads/2015/07/Tibial-Stress-Injuries-Review.pdf Tibial stress injuries: an aetiological review for the purposes of guiding management.] Sports Medicine. 1998; 26(4):265-279.</ref><ref>Kortebein PM, Kaufman KR, Basford JR, Stuart MJ. Medial tibial stress syndrome. Med Sci Sports Exerc 2000;32(3 Suppl):S27-33.(Level of evidence 1A)</ref><ref>Wilder R, Seth S. Overuse injuries: tendinopathies, stress fractures, compartment syndrome, and shin splints. Clin Sports Med. 2004;23(1):55-81. (Level of evidence 4)</ref><ref>Fredericson M. Common injuries in runners. Diagnosis, rehabilitation and prevention. Sports Med. 1996;21:49–72. (Level of evidence 4)</ref><ref name=":2" /> <ref>Strakowski J, Jamil T. Management of common running injuries. Phys Med Rehabil Clin N Am. 2006;17(3):537–552.(Level of evidence 2A)</ref><ref name=":8">Dugan S, Weber K. Stress fracture and rehabilitation. Phys Med Rehabil Clin N Am. 2007;18(3):401–416. (Level of evidence 3A)</ref><ref>Sommer H, Vallentyne S. Effect of foot posture on the incidence of medial tibial stress syndrome. Med Sci Sports Exerc. 1995;27:800–804. (Level of evidence 3A)</ref><ref>Niemuth P, Johnson R, Myers M, Thieman T. Hip muscle weakness and overuse injuries in recreational runners. Clin J Sport Med. 2005;15(1):14–21. (Level of evidence 1A)</ref><ref>Greenman P. Principles of manual medicine. Philadelphia, PA: Lippincott Williams &amp; Wilkins. 2003;3(11):337–403, 489. . (Level of evidence 1A)</ref><ref>Howell J. [http://jaoa.org/article.aspx?articleid=2093316 Effect of counterstrain on stretch reflexes, Hoffmann reflexes, and clinical outcomes in subjects with plantar fasciitis]. J Am Osteopath Assoc. 2006;106(9):547–556. (Level of evidence 1B)</ref><ref>Karageanes S. Principles of manual sports medicine. Philadelphia, PA: Lippincott, Williams and Wilkins. 2005: 467–468. Level of evidence 1A)</ref>


== Management ==
== Management ==
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Overstress avoidance is the main preventive measure of MTSS or shin-splints. The main goals of shin-splints treatment are pain relieve and return to pain‑free activities.<ref>Alfayez, S. M., Ahmed, M. L., & Alomar, A. Z. A review article of medial tibial stress syndrome. Journal of Musculoskeletal Surgery and Research. 2017; ''1''(1): 2. (Level of Evidence: 4) </ref>  
Overstress avoidance is the main preventive measure of MTSS or shin-splints. The main goals of shin-splints treatment are pain relieve and return to pain‑free activities.<ref>Alfayez, S. M., Ahmed, M. L., & Alomar, A. Z. A review article of medial tibial stress syndrome. Journal of Musculoskeletal Surgery and Research. 2017; ''1''(1): 2. (Level of Evidence: 4) </ref>  
For the treatment of shin-splints it’s important to screen the risk factors, this makes it easier to make a diagnosis and to prevent this disease. In the next table you can find them.<ref>Winkelmann, Z. K., Anderson, D., Games, K. E., & Eberman, L. E. [https://www.ncbi.nlm.nih.gov/pmc/articles/PMC5264561/pdf/i1062-6050-51-12-1049.pdf Risk Factors for Medial Tibial Stress Syndrome in Active Individuals: An Evidence-Based Review. Journal of athletic training]. 2016; 51(12):1049-1052. (Level of Evidence: 1a)</ref> (Level of Evidence: 1a)
{| width="300" border="1" cellspacing="1" cellpadding="1"
|-
| '''Intrinsic factors'''
| '''Extrinsic factors'''
|-
| Age <br>Sex<br>Height<br>Weight<br>Body fat<br>Femoral neck anteversion<br>Genu valgus<br>Pes clavus<br>Hyperpronation<br>Joint laxity<br>Aerobic endurance/conditioning<br>Fatigue<br>Strength of and balance between<br>flexors and extensors<br>Flexibility of muscles/joints<br>Sporting skill/coordination<br>Physiological factors<br>
| Sports-related factors<br>Type of sport<br>Exposure (e.g., running on one side of the road)<br>Nature of event (e.g., running on hills)<br>Equipment<br>Shoe/surface interface<br>Venue/supervision<br>Playing surface<br>Safety measures<br>Weather conditions<br>Temperature<br>
|}
Control of risk factors could be a relevant strategy to initially avoid and treat MTSS: MIO2
* Female gender
* Previous history of MTSS
* Fewer years of running experience
* Orthotic use
* Increased body mass index
* Pronated foot posture (increased navicular drop)
* Increased ankle plantarflexion
* Increased hip external rotation
The role of hip internal rotation motion is unclear. Differences between hip muscle performance in MTSS and control subjects might be the effect rather than the cause MIO2


'''Acute phase'''
'''Acute phase'''
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2-6 weeks of rest combined with medication is recommended to improve the symptoms and for a quick and safe return after a period of rest. NSAIDs and Acetaminophen are often used for analgesia. Also cryotherapy with Ice-packs and eventually analgesic gels can be used after exercise for a period of 20 minutes.   
2-6 weeks of rest combined with medication is recommended to improve the symptoms and for a quick and safe return after a period of rest. NSAIDs and Acetaminophen are often used for analgesia. Also cryotherapy with Ice-packs and eventually analgesic gels can be used after exercise for a period of 20 minutes.   


* There are a number of physical therapy modalities to use in the acute phase but there is no proof that these therapies such as ultrasound, soft tissue mobilization, electrical stimulation<ref name=":6" /> would be effective.<ref name=":2" /> A corticoid injection is contraindicated because this can give a worse sense of health. Because the healthy tissue is also treated. A corticoid injection is given to reduce the pain, but only in connection with rest.<ref name="Broos, 1991" />
* There are a number of physical therapy modalities to use in the acute phase but there is no proof that these therapies such as ultrasound, soft tissue mobilization, electrical stimulation<ref name=":6">Beck B. [http://bands.ua.edu/wp-content/uploads/2015/07/Tibial-Stress-Injuries-Review.pdf Tibial stress injuries: an aetiological review for the purposes of guiding management.] Sports Medicine. 1998; 26(4):265-279.</ref> would be effective.<ref name=":2" /> A corticoid injection is contraindicated because this can give a worse sense of health. Because the healthy tissue is also treated. A corticoid injection is given to reduce the pain, but only in connection with rest.<ref name="Broos, 1991" />
* Prolonged rest is not ideal for an athlete  
* Prolonged rest is not ideal for an athlete  


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* During the rehabilitation period the patient can do low impact and cross-training exercises (like running on a hydro-gym machine).). After a few weeks athletes may slowly increase training intensity and duration and add sport-specific activities, and hill running to their rehabilitation program as long as they remain pain-free.  
* During the rehabilitation period the patient can do low impact and cross-training exercises (like running on a hydro-gym machine).). After a few weeks athletes may slowly increase training intensity and duration and add sport-specific activities, and hill running to their rehabilitation program as long as they remain pain-free.  
* A stretching and strengthening (eccentric) calf exercise program can be introduced to prevent muscle fatigue. <ref name=":8" /><ref>Couture C, Karlson K. Tibial stress injuries: decisive diagnosis and treatment of ‘shin splints’. Phys Sportsmed. 2002;30(6):29–36.(Level of Evidence: 3a)</ref><ref name=":7">DeLee J, Drez D, Miller M. DeLee and Drez’s orthopaedic sports medicine principles and practice. Philadelphia, PA: Saunders. 2003:2155–2159.(Level of Evidence: 5)</ref> (Level of Evidence: 3a) (Level of Evidence: 3a) (Level of Evidence: 5). Patients may also benefit from strengthening core hip muscles. Developing core stability with strong abdominal, gluteal, and hip muscles can improve running mechanics and prevent lower-extremity overuse injuries. <ref name=":7" />
* A stretching and strengthening (eccentric) calf exercise program can be introduced to prevent muscle fatigue. <ref name=":8">Dugan S, Weber K. Stress fracture and rehabilitation. Phys Med Rehabil Clin N Am. 2007;18(3):401–416. (Level of evidence 3A)</ref><ref>Couture C, Karlson K. Tibial stress injuries: decisive diagnosis and treatment of ‘shin splints’. Phys Sportsmed. 2002;30(6):29–36.(Level of Evidence: 3a)</ref><ref name=":7">DeLee J, Drez D, Miller M. DeLee and Drez’s orthopaedic sports medicine principles and practice. Philadelphia, PA: Saunders. 2003:2155–2159.(Level of Evidence: 5)</ref> (Level of Evidence: 3a) (Level of Evidence: 3a) (Level of Evidence: 5). Patients may also benefit from strengthening core hip muscles. Developing core stability with strong abdominal, gluteal, and hip muscles can improve running mechanics and prevent lower-extremity overuse injuries. <ref name=":7" />
* Proprioceptive balance training is crucial in neuromuscular education. This can be done with a one-legged stand or balance board. Improved proprioception will increase the efficiency of joint and postural-stabilizing muscles and help the body react to running surface incongruities, also key in preventing re-injury.<ref name=":7" />
* Proprioceptive balance training is crucial in neuromuscular education. This can be done with a one-legged stand or balance board. Improved proprioception will increase the efficiency of joint and postural-stabilizing muscles and help the body react to running surface incongruities, also key in preventing re-injury.<ref name=":7" />
* Choossing good shoes with good shock absorption can help to prevent a new or re-injury. Therefore it is important to change the athlete's shoes every 250-500 miles, a distance at which most shoes lose up to 40% of their shock-absorbing capabilities.<br>In case of biomechanical problems of the foot may individuals benefit from orthotics. An over-the-counter orthosis (flexible or semi-rigid) can help with excessive foot pronation and pes planus. A cast or a pneumatic brace can be necessary in severe cases.<ref name=":2" />   
* Choossing good shoes with good shock absorption can help to prevent a new or re-injury. Therefore it is important to change the athlete's shoes every 250-500 miles, a distance at which most shoes lose up to 40% of their shock-absorbing capabilities.<br>In case of biomechanical problems of the foot may individuals benefit from orthotics. An over-the-counter orthosis (flexible or semi-rigid) can help with excessive foot pronation and pes planus. A cast or a pneumatic brace can be necessary in severe cases.<ref name=":2" />   
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== Differential Diagnosis ==
== Differential Diagnosis ==
An algorithmic approach has been established for further differentiating exercise-induced leg pain entities<ref name=":3" />:
{| class="wikitable"
# Pain at rest with palpable tenderness indicates bone stress injuries (MTSS and stress fractures),
| colspan="0" |''Condition''
# No pain at rest with palpable tenderness proposes nerve entrapment syndromes
| colspan="0" |''Characteristics''
# No pain at rest with no palpable tenderness makes functional popliteal artery entrapment syndrome and chronic exertional compartment syndrome likely 
| colspan="0" |Tissue origin
MTSS may overlap with the diagnosis of deep posterior compartment syndrome but the critical point for differentiation is the longer lasting post-exercise pain when compared with deep posterior chronic exertional compartment syndrome.  
|-
| colspan="0" |Anterior tibial stress syndrome
| colspan="0" |Vague, diffuse pain along anterolateral tibia, worse at beginning of exercise that decreases during training
| colspan="0" |Periosteum
|-
| colspan="0" |Medial tibial stress syndrome
| colspan="0" |Vague, diffuse pain along middle-distal tibia, worse at beginning of exercise, that decreases during training
| colspan="0" |Periosteum
|-
| colspan="0" |Tibial/fibular stress fracture
| colspan="0" |Pain with running, point tenderness over fracture site, "dreaded black line" on lateral x-ray
| colspan="0" |Bone
|-
| colspan="0" |Exertional compartment syndrome
| colspan="0" |Symptoms begin 10min into exercise andresolve 30min after exercise, sensory or motor loss, elevated anterior compartment pressures
| colspan="0" |Muscle and fascia
|-
| colspan="0" |Leg Tendinopathy
| colspan="0" |May be Achilles tendon, peroneal tendon, or tibialis posterior
| colspan="0" |Tendon
|-
| colspan="0" |Sural or SPN entrapment
| colspan="0" |Dermatomal distribution of symptoms
| colspan="0" |Nerve
|-
| colspan="0" |Lumbar radiculopathy
| colspan="0" |Worse with lumbar tension position (sitting)
| colspan="0" |Nerve
|-
| colspan="0" |Popliteal artery entrapment
| colspan="0" |Diagnosed with vascular studies
| colspan="0" |Blood vessel
|}
<ref>Ortho bullets [https://www.orthobullets.com/knee-and-sports/3108/tibial-stress-syndrome-shin-splints Tibial Stress Syndrome] (Shin Splints) Available: https://www.orthobullets.com/knee-and-sports/3108/tibial-stress-syndrome-shin-splints<nowiki/>(accessed 2.6.2022)</ref>


Compared with stress fractures, the painful area extends over more than 5 cm on the distal two thirds of the medial tibial border.
== Clinical Bottom Line  ==
== Clinical Bottom Line  ==



Revision as of 06:00, 2 June 2022

Introduction[edit | edit source]

Pain generally in the inner and lower 2/3rds of tibia.

Medial Tibial Stress Syndrome (MTSS) is a common overuse injury of the lower extremity. It typically occurs in runners and other athletes that are exposed to intensive weight-bearing activities such as jumpers[1]. It presents as exercise-induced pain over the anterior tibia and is an early stress injury in the continuum of tibial stress fractures.[2]. It is provoked on palpation over a length of ≥ 5 consecutive centimetres. It is provoked on palpation over a length of ≥ 5 consecutive centimetres. [3][4][5]

It has the layman's moniker of “shin splints.”[2]

Epidemiology[edit | edit source]

Risk factor- quick increase in running volume

The incidence of MTSS ranges between 13.6% to 20% in runners and up to 35% in military recruits. In dancers it is present in 20% of the population and up to 35% of the new recruits of runners and dancers will develop it[6]

Large increase in loads, volume and high impact exercise can put at risk individuals to MTSS.  Risk factors include being a female, previous history of MTSS, high BMI, navicular drop, reduced hip external rotation range of motion, muscle imbalance and inflexibility of the triceps surae (gastrocnemius, soleus, and plantaris muscles), muscle weakness of the triceps surae (prone to muscle fatigue leading to altered running mechanics, and strain on the tibia), running on a hard or uneven surface and bad running shoes (like a poor shock absorbing capacity).[2][5] [7] 

Pathophysiology[edit | edit source]

The pathophysiologic process resulting in MTSS is related to unrepaired microdamage accumulation in the cortical bone of the distal tibia, however this has not been definitively established. Two current theories are:

  1. The pain is secondary to inflammation of the periosteum as a result of excessive traction of the tibialis posterior or soleus, supported by bone scintigraphy findings of a broad linear band of increased uptake along the medial tibial periosteum. But a case-controlled ultrasound based study which compared periosteal and tendinous edema of athletes with and without medial tibial stress syndrome found no difference between the groups.
  2. Bony overload injury, with resultant microdamage and targeted remodeling. A study evaluating tibia biopsy specimens from the painful area of six athletes suffering from medial tibial stress syndrome gave only equivocal support for this theory. Linear microcracks were found in only three specimens and there was no associated repair reaction[8].

Clinical Presentation and Assessment[edit | edit source]

KEY POINTS FOR ASSESSMENT MTSS[6]
HISTORY Increasing pain during exercise related to the medial tibial border in the middle and lower third

Pain persists for hours or days after cessation of activity

Pain decreases with running (early stage)

Differentiate from exertional compartment syndrome, for which pain increases with running

Earlier onset of pain with more frequent training (later stages)

PHYSICAL EXAMINATION Intensive tenderness of the involved medial tibial border, more than 5 cm

Pes planus

Tight Achilles tendon

A "one-leg hop test" is a functional test, that can be used to distinguish between medial tibial stress syndrome and a stress fracture: a patient with medial tibial stress syndrome can hop at least 10 times on the affected leg where a patient with a stress fracture cannot hop without severe pain. The sensitivity of the hop test for diagnosing medial tibial stress fracture when pain and tenderness were present was 100%, the specificity 45%, the positive predictive value 74%, and the negative predictive value 100%

Provocative test: pain on resisted plantar flexion

IMAGING MRI: Periosteal reaction and edema
TREATMENT See later in page


[3][4][5][6][8]

Outcome Measures[edit | edit source]

The MTSS score should be used as a primary outcome measure in MTSS because is valid, reliable and responsive. It measures:[3]

  • Pain at rest
  • Pain while performing activities of daily living
  • Limitations in sporting activities
  • Pain while performing sporting activities.

The MTSS score specifically measures pain along the shin and limitations due to shin pain.

Examination[edit | edit source]

Management[edit | edit source]

Management of MTSS is conservative, focusing on rest and activity modification with less repetitive, load-bearing exercise. No specific recommendations on the duration of rest required for resolution of symptoms, and it is likely variable depending on the individual.

Other therapies available (with low-quality evidence) include iontophoresis, phonophoresis, ice massage, ultrasound therapy, periosteal pecking, and extracorporeal shockwave therapy. A recent study on naval recruits showed prefabricated orthotics reduced MTSS[2].

Physical Therapy Management[edit | edit source]

Patient education and a graded loading exposure program seem the most logical treatments.[3] Conservative therapy should initially aim to correct functional, gait, and biomechanical overload factors.[6]Recently ‘running retraining’ has been advocated as a promising treatment strategy and graded running programme has been suggested as a gradual tissue-loading intervention.[6]

Prevention of MTSS was investigated in few studies and shock-absorbing insoles, pronation control insoles, and graduated running programs were advocated.[6]

Overstress avoidance is the main preventive measure of MTSS or shin-splints. The main goals of shin-splints treatment are pain relieve and return to pain‑free activities.[9]

Acute phase

2-6 weeks of rest combined with medication is recommended to improve the symptoms and for a quick and safe return after a period of rest. NSAIDs and Acetaminophen are often used for analgesia. Also cryotherapy with Ice-packs and eventually analgesic gels can be used after exercise for a period of 20 minutes.

  • There are a number of physical therapy modalities to use in the acute phase but there is no proof that these therapies such as ultrasound, soft tissue mobilization, electrical stimulation[10] would be effective.[5] A corticoid injection is contraindicated because this can give a worse sense of health. Because the healthy tissue is also treated. A corticoid injection is given to reduce the pain, but only in connection with rest.[7]
  • Prolonged rest is not ideal for an athlete

Subacute phase

The treatment should aim to modify training conditions and to address eventual biomechanical abnormalities. Change of training conditions could be decreased running distance, intensity and frequency  and intensity by 50%. It is advised to avoid hills and uneven surfaces.

  • During the rehabilitation period the patient can do low impact and cross-training exercises (like running on a hydro-gym machine).). After a few weeks athletes may slowly increase training intensity and duration and add sport-specific activities, and hill running to their rehabilitation program as long as they remain pain-free.
  • A stretching and strengthening (eccentric) calf exercise program can be introduced to prevent muscle fatigue. [11][12][13] (Level of Evidence: 3a) (Level of Evidence: 3a) (Level of Evidence: 5). Patients may also benefit from strengthening core hip muscles. Developing core stability with strong abdominal, gluteal, and hip muscles can improve running mechanics and prevent lower-extremity overuse injuries. [13]
  • Proprioceptive balance training is crucial in neuromuscular education. This can be done with a one-legged stand or balance board. Improved proprioception will increase the efficiency of joint and postural-stabilizing muscles and help the body react to running surface incongruities, also key in preventing re-injury.[13]
  • Choossing good shoes with good shock absorption can help to prevent a new or re-injury. Therefore it is important to change the athlete's shoes every 250-500 miles, a distance at which most shoes lose up to 40% of their shock-absorbing capabilities.
    In case of biomechanical problems of the foot may individuals benefit from orthotics. An over-the-counter orthosis (flexible or semi-rigid) can help with excessive foot pronation and pes planus. A cast or a pneumatic brace can be necessary in severe cases.[5]
  • Manual therapy can be used to control several biomechanical abnormalities of the spine, sacro-illiacal joint and various muscle imbalances. They are often used to prevent relapsing to the old injury.
  • There is also acupuncture, ultrasound therapy injections and extracorporeal shock-wave therapy but their efficiency is not yet proved.

Differential Diagnosis[edit | edit source]

Condition Characteristics Tissue origin
Anterior tibial stress syndrome Vague, diffuse pain along anterolateral tibia, worse at beginning of exercise that decreases during training Periosteum
Medial tibial stress syndrome Vague, diffuse pain along middle-distal tibia, worse at beginning of exercise, that decreases during training Periosteum
Tibial/fibular stress fracture Pain with running, point tenderness over fracture site, "dreaded black line" on lateral x-ray Bone
Exertional compartment syndrome Symptoms begin 10min into exercise andresolve 30min after exercise, sensory or motor loss, elevated anterior compartment pressures Muscle and fascia
Leg Tendinopathy May be Achilles tendon, peroneal tendon, or tibialis posterior Tendon
Sural or SPN entrapment Dermatomal distribution of symptoms Nerve
Lumbar radiculopathy Worse with lumbar tension position (sitting) Nerve
Popliteal artery entrapment Diagnosed with vascular studies Blood vessel

[14]

Clinical Bottom Line[edit | edit source]

‘Shin splints’ is a vague term that implicates pain and discomfort in the lower leg, caused by repetitive loading stress. There can be all sorts of causes to this pathology according to different researches. Therefore, a good knowledge of the anatomy is always important, but it’s also important you know the other disorders of the lower leg to rule out other possibilities, which makes it easier to understand what’s going wrong. Also a detailed screening of known’s risk factors, intrinsic as well as extrinsic, to recognize factors that could add to the cause of the condition and address these problems.

References[edit | edit source]

  1. Radiopedia Medial tibial stress syndrome Available: https://radiopaedia.org/articles/medial-tibial-stress-syndrome-1(accessed 2.6.2022)
  2. 2.0 2.1 2.2 2.3 McClure CJ, Oh R. Medial Tibial Stress Syndrome. 2019 Available:https://www.ncbi.nlm.nih.gov/books/NBK538479/ (accessed 2.6.2022)
  3. 3.0 3.1 3.2 3.3 Winters, M. Medial tibial stress syndrome: diagnosis, treatment and outcome assessment (PhD Academy Award). Br J Sports Med. 2018
  4. 4.0 4.1 Thacker, S. B., Gilchrist, J., Stroup, D. F., & Kimsey, C. D. The prevention of shin splints in sports: a systematic review of literature. Medicine & Science in Sports & Exercise. 2002; 34(1): 32-40.
  5. 5.0 5.1 5.2 5.3 5.4 Galbraith, R. M., & Lavallee, M. E. Medial tibial stress syndrome: conservative treatment options. Current reviews in musculoskeletal medicine. 2009; 2(3): 127-133.
  6. 6.0 6.1 6.2 6.3 6.4 6.5 Lohrer, H., Malliaropoulos, N., Korakakis, V., & Padhiar, N. Exercise-induced leg pain in athletes: diagnostic, assessment, and management strategies. The Physician and sports medicine. 2018
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