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Can You Train With IT Band Syndrome? The Iliotibial Audit: Taunton's 2,002-Injury Census Ranks the IT Band Second Only to Patellofemoral Pain — the Last of Running's Top Five Without a File in This Library — Where Fairclough's 15 Cadavers Ended the Friction Story (No Bursa in Any of Them, the Band Anchored to the Femur by Fibrous Strands, the Pain Born From Compressing a Richly Innervated Fat Pad at 30 Degrees of Flexion), Where Fredericson's Hip File Found the Injured Limb Roughly 20% Weaker at 7.82 vs 9.82 %BWh and Returned 22 of 24 Runners in Six Weeks With +34.9% Abductor Torque, Where Grau's Matched Isokinetic Null Answered 'Hip Abductor Weakness Is Not the Cause', Where Noehren's Two-Year Prospective Caught the 18 Women Before They Broke — More Hip Adduction, More Knee Internal Rotation, Not One Different Moment — Where Hamill Found Strain Rate Separated the Groups While Impingement Duration Made No Difference, Where Baker's 30-Minute Fatigue Door Watched Knee Adduction Swing From −1.48° to +3.74°, Where Allen's +5% Step Rate Took a Three-Month Case Pain-Free in Six Weeks and to a Half Marathon in Four Months, and Where Brazil's Road-Runner Census Counts 47.2% Injured at 2.29 per 1,000 Hours: the IT Band's Medicine Is Dose, Angle and Cadence — Not Foam, Not Rest

By RightRep AI Assistant · · 23 min read

There is a fence at the top of this post and it outranks everything below it. Lateral knee pain that arrived with a twist, a tackle or a fall — especially with swelling, locking or giving way — is not this file: that is the meniscus and ACL neighborhood, and it wants imaging before programming. The second fence is the other side of the same knee: pain at the tendon right under the kneecap is the jumper's knee file, pain behind or around the kneecap is the kneecap file this library tells the running-knees story about — neither loads like the IT band and neither rehabbed by its program. The third fence: a distinct pop on the outside of the knee with a palpable dip under your fingers, or bruising down the calf within a day, is a muscle-tendon avulsion file — the same family as the hamstring tear at its worst — clinician now, imaging before loading. The fourth fence is the family's rare-file door: night pain, fever, weight loss, or lateral knee pain that never varies with load or position belongs with a doctor this week, not a program. And the fifth: a runner who fell hard onto the bone, cannot bear weight, or has point-tenderness exactly on the bone itself gets the fracture ruled out first. What remains after the fences is the question this library's injury family was built for, and the file its own founding census kept ranking near the top: the iliotibial band syndrome — the burn on the outside of the knee that shows up a mile into the run, ruins the descent, and has been mistreated under the wrong name for forty years [1][4].

The short answer: train — everything that is not the painful arc today, the hip loaded immediately under pain's rules, downhills and the painful flexion arc cut first and bought back gate by gate, and 5% more steps per minute as the cheapest dial you own

Strip the file to its spine. This is the most common cause of lateral knee pain in runners and the second most common running injury of all — ranked second only to patellofemoral pain in the census of 2,002 clinic injuries [1][3][10]. The name is wrong and the anatomy file proved it: dissecting 15 cadavers and scanning volunteers and acute patients, Fairclough's team found no bursa in a single one, the band anchored to the femur by coarse fibrous strands so it cannot roll or rub, and the pain generated by compressing a richly innervated, vascularized fat pad against the lateral epicondyle at around 30 degrees of knee flexion — compression, not friction [4][5]. That single door reorganizes the treatment: nothing you foam-roll lengthens a band bolted to the femur, and every dial that changes how fast the leg loads matters more than any surface you rub [4][5][9]. The strength story is a genuine debate and this file tells it honestly: the injured limb ran 7.82 versus 9.82 %BWh of hip-abductor torque and 22 of 24 runners were pain-free in six weeks on a gluteus-medius program [6] — yet a matched isokinetic comparison found no abductor difference at all and concluded flatly that "hip abductor weakness does not seem to play a role in the etiology" [7]. The prospective file reconciles them: the women who went on to develop ITBS crossed into the lab first with more hip adduction and more knee internal rotation — and not one different strength moment [8]; their bands were loaded by kinematics, and what separated injured from healthy in the strain study was strain rate, not the duration of impingement [9]. Then the door nobody programs for: at minute three of a run the injured knee adducts like everyone's, and by minute 30 it has swung from −1.48° to +3.74° of knee adduction — a five-degree migration past the measurement threshold [11]. The treatment file works the same levers the mechanism file found: hips and lateral-chain control [6][12][13], cadence up 5% — 168 to 176 steps per minute took a three-month case pain-free in six weeks and to a half marathon by month four [14] — and running-gait retraining as the first-named recommendation of the field's expert synthesis [15]. The verdict writes itself: train the whole body, load the hip from week one, cut the descent and the arc that burns, buy them back gate by gate, and turn the cadence dial before you buy a foam roller [4][6][14][15].

Who is asking: the scale file

This is not a niche injury — it is one of running's two structural taxes. The census this library has now cited three times — 2,002 running injuries seen over two years at a sports-medicine clinic — ranked the five most common diagnoses in order: patellofemoral pain first, iliotibial band friction syndrome second, ahead of plantar fasciitis, meniscal injuries and tibial stress syndrome [1]. This family has already filed the other four — the kneecap, the plantar fascia, the meniscus, the shin — and the IT band is the last of the census's top five to get its file. Around the whole field: the systematic review of long-distance-runner injury reports put incidence anywhere from 19.4% to 79.3% depending on the population, with the knee the predominant site by far, and found strong evidence that a history of previous injury and long weekly training distance in men are risk factors [2]. A decade later the biomechanics review opened with the same rank — "iliotibial band syndrome is the second most common running injury" — and noted a gradual rise in occurrence as the world's runner count grew [3]. And the file is not a Northern-hemisphere-only file: Brazil's 2026 road-runner census — every adult runner answering a year-and-a-half retrospective — found 47.2% reported at least one injury, overwhelmingly lower-limb and overwhelmingly in training, at 2.29 injuries per 1,000 exposure hours [16]. The Brazilian reader asking this question in Portuguese is asking it from inside the data. One more scale fact worth carrying: in the census, being under 34 was itself a risk factor for IT band syndrome in men [1] — this is not the degenerative knee's file; it is the young, ramping, volume-happy runner's file.

The first door is an anatomy door, and it retires the name on the door

Every family post has a naming file; this one's is unusual because it convicts the injury's own name. The label on the door has said friction syndrome for four decades — the band supposedly snapping back and forth over the lateral epicondyle with every stride, inflaming itself or a bursa underneath [4][5]. Fairclough's team went to the anatomy instead of repeating the phrase. Fifteen cadavers, microdissected: the IT band is not a discrete cable but a thickened part of the fascia lata enveloping the whole thigh, tied to the femur's linea aspera by an intermuscular septum and to the supracondylar bone — epicondyle included — by coarse fibrous bands that are normal anatomy, not pathological adhesions [4][5]. Six asymptomatic volunteers and two athletes with acute ITBS, imaged: in no cadaver, volunteer or patient was a bursa seen; the MR signal change in the symptomatic athletes sat in the layer of fat deep to the band, not in the band; and the band was compressed against the epicondyle at about 30 degrees of knee flexion — as a consequence of tibial internal rotation — while moving slightly laterally in extension [4]. The illusion of a structure rolling over the bone, they showed, is created by tension trading between the band's anterior and posterior fibers as the knee flexes [4][5]. Their conclusion is the door this whole file hangs on: the IT band cannot generate frictional forces by sliding over the epicondyle, and the syndrome is better understood as compression of a highly vascularized, richly innervated fat-and-loose-connective-tissue layer between the tense band and the bone [4][5]. Two practical sentences fall out of that anatomy, and the rest of this post is their consequences: you cannot stretch or roll out a structure anchored along the femur, and the target of treatment is not the band's flexibility but the load, angle and rate at which the leg brings that ~30-degree window to the bone [4][5][9].

The diagnosis door: the outside of the knee, and who else lives there

The clinical picture is compact enough to carry: burning or sharp pain at the lateral epicondyle — a finger's width above the joint line — that appears at a repeatable point in a run, worst through the compression window around 30 degrees of knee flexion [4][12] — the posture of a descent, a stair, the back of a pedal stroke. The field's bedside test is the Noble compression test — pressure over the epicondyle while the knee is passively flexed through the same window; it was the enrollment criterion in the neuromuscular study below [11]. Two populations share the file: runners, and cyclists — whose seat height and trailing leg put the knee in the same window for hours [5][12]. The list of what else presents as lateral knee pain is exactly the fence paragraph at the top: the meniscus and ligament files after true trauma [1], the kneecap and tendon files on their own sides of the joint, the muscle-tendon avulsion with its pop and defect, and the rare files behind night pain and systemic signs. The IT band file earns its name by one signature above all: it is load-profile-dependent and position-dependent — worse on descents and late in runs, better within days of cutting exactly those, and untouched by rest alone once it returns [2][11][12][15].

The strength debate, told as a debate: Fredericson against Grau, and why the file needed both

The most-cited treatment study in this file and the study built to knock it down deserve to be told together, because each is honest and each is half the story. Fredericson's Stanford file: twenty-four distance runners with ITBS against thirty healthy runners from the university teams. Hip-abductor torque, normalized to body size: injured females 7.82 %BWh on the injured limb against 9.82 on their own uninjured limb and 10.19 for controls; injured males 6.86 against 8.62 and 9.73 — every pre-rehabilitation difference significant [6]. Then the intervention: a six-week standardized rehabilitation program aimed squarely at the gluteus medius. Abductor torque rose 34.9% in the women and 51.4% in the men; 22 of the 24 athletes were pain-free on every exercise and back to running at six weeks — and at six months there were no reports of recurrence [6]. Grau's Tübingen answer: ten healthy runners against ten with ITBS, isokinetic measurement of concentric, eccentric and isometric peak torque of the hip abductors and adductors plus an endurance quotient. No statistically significant abductor difference in any function tested, identical adduction-to-abduction ratios in both groups — "weakness of hip abductors does not seem to play a role in the etiology of iliotibial band syndrome," and strengthening them "seems to have little effect on prevention" [7]. The reconciliation is the prospective file, and it is the reason this family refuses to pick winners between honest studies: the defect that matters is not in the dynamometer's plane — it is in the running gait's plane. The runners who develop ITBS do not test weak; they run crossed — femur adducting, tibia internally rotating, delivering the band to its compression window faster and more often [8][9]. Fredericson's program worked — 22 of 24 is 22 of 24 — but read through the later file, its mechanism is motor as much as muscular: six weeks of side-lying and single-leg hip work is also six weeks of learning to hold the pelvis level, which is exactly the kinematic dial the prospective studies implicate [6][8][12].

The prospective door: what the eighteen women did differently before the pain arrived

Every family post leans hardest on its prospective file, because cross-sectional studies cannot tell cause from consequence. This one's is the ASB Clinical Biomechanics Award study: a cohort of healthy female recreational runners, instrumented gait analysis, then two years of follow-up — eighteen of them developed iliotibial band syndrome, and their baseline mechanics were compared against age- and mileage-matched controls [8]. The future-injured did not run with different rearfoot eversion, different knee flexion, or any different joint moment the lab could price. They ran with more peak hip adduction and more knee internal rotation [8] — the two motions that, per the anatomy door, drive the tibial rotation and the ~30-degree compression window [4]. The history file replicated the same signature years later in thirty-five women with a past ITBS against thirty-five matched controls — greater peak rearfoot invertor moment, greater knee internal rotation angle, greater hip adduction angle, and again no differences in the moments the strength story would predict [10]. And the review priced it across thirteen studies: the developing and symptomatic runners alike show the hip-adduction and knee-internal-rotation pattern, in female shod runners most consistently [3].

The strain-rate door: not how long the band presses — how fast it loads

The biomechanics file's sharpest single finding is easy to skim past and worth slowing down for. The same prospective machinery that produced the kinematics file produced a strain study: the runners who developed ITBS, modeled for strain, strain rate and impingement duration across the support phase, against uninjured controls [9]. The results cut the treatment menu cleanly. Strain was higher through support, peaking at midsupport; but strain rate — how fast the load arrives — was significantly greater in the ITBS group, greater even than in their own contralateral limbs, while the duration of impingement did not differ between the groups at all [9]. The interpretation names the dial: a major factor in developing ITBS is strain rate, with a biological effect size above 0.5 — and duration of contact in the painful window, the thing foam rollers and static stretches were sold to reduce, was never the separator [9]. Load rate is cadence, braking, descent speed, shoe-drop shock — the things a stride dial changes in an afternoon [9][14][15].

The fatigue door: the knee that changes its mind at minute thirty

Now the door that explains the file's most annoying feature — why the pain is fine for ten minutes and then arrives like a switch. Fifteen runners with current ITBS against fifteen matched controls ran thirty instrumented minutes, with kinematics and hip-muscle electromyography sampled at minute three and minute thirty [11]. At three minutes, the groups sat in nearly the same frontal plane. By minute thirty the injured runners' knees had adducted to +3.74° while the controls held −1.48° — a swing of more than five degrees, past the study's own minimal detectable difference, at P=.002 [11]. The hip told a subtler story the authors were careful with: tensor fasciae latae — the muscle that tensions the very band in question — ran at 11% of maximal voluntary contraction against 7% in controls at minute three (P=.017), a difference of four points the authors explicitly declined to over-read, while advising caution "using these findings to support treatments intended to modify tensor fasciae latae activation" [11]. Read the door whole: the injury is a late-run injury because the frontal-plane control that prevents it is a fatigue-dependent skill — which is why every sensible program below manipulates when the load arrives (intervals before tempos, flats before descents) and why "warm up properly" is not cosmetic in this file [11][12][15].

The treatment door: hips, cadence, and evidence weighed honestly

Line the treatment file up the way the family does — strongest to most-cautioned. The clinical anchor is still Fredericson's: six weeks of gluteus-medius work, 22 of 24 pain-free and returned, +34.9%/+51.4% torque, no recurrence at six months [6], corroborated as beneficial but under-tested by Beers' prospective sixteen — a six-week multi-modal program including hip-abductor strengthening, the baseline side-to-side deficit gone by week six, hip strength tracking physical function at weeks two, four and six, nine discharged at six weeks while seven needed up to five months — the honest spread of recovery times this file's readers should expect [13]. The synthesis review rebuilt the reasoning on top of the anatomy and kinematics doors: biomechanical factors with an explanation strength-and-flexibility alone cannot carry, neuromuscular coordination as the likely driver, and evidence-based exercise approaches centered on the posterior hip [12]. Then the stride door: a 36-year-old runner, three months unable to run past three miles, video-analyzed at an overlong stride and heavy heel strike, treated with cadence up 5% — 168 to 176 steps per minute — plus eccentric lower-limb strengthening: pain-free within six weeks, seven miles max, and by month four half-marathon distance at 20–25 miles a week, LEFS 71/80 to 80/80, the new cadence held at every follow-up [14]. A single case, priced as one — but pointed exactly where the mechanism file aims [9][14]. Around the single case stands the field's guidance: the mixed-methods synthesis of clinical evidence with sixteen international experts, which — while flagging the clinical evidence as limited — put iliotibial band syndrome first in its list of injuries for which running retraining is recommended, with step-rate increase among the dials carrying evidence [15]. And what the treatment file does not carry: nothing in the verified literature shows a foam roller lengthening a band anchored to the femur [4][5], and the strain-rate door is indifferent to it [9]. Roll the thigh if it feels good; train the hip, the cadence and the descent because that is where the evidence lives.

The programming door: what trains, what modifies, what stops

The training-through file, organized the way the injury family does it — by what the week actually contains:

  • The upper body and trunk never stopped. Pressing, pulling, carrying, trunk work: train as programmed from day one — the file's mechanism lives below the waist and downstream of the pelvis [6][8].
  • The healthy side carries the file. Single-leg work on the uninjured leg trains the injured one through the cross-education effect every family post leans on — and in this file specifically, the uninjured limb of the future-injured was already the reference for what "normal" strain rate means [9].
  • The hip loads from week one, by pain's rules. Side-lying abductions, side planks with leg lift, single-leg reach work — the gluteus-medius ladder — progressing alongside the pain traffic light: pain that settles by the next morning and trends flat-to-better is green; worse two mornings running is amber, drop a rung [6][13].
  • The descent, the stair and the painful arc go first, and come back last. The compression window sits near 30 degrees of flexion [4]; descents and stairs live in that window for hours. Cut them to zero in the irritability phase, then reintroduce flats-intervals-then-gentle-descents gate by gate — the family ladder applied to an angle instead of a tissue [12][15].
  • Cadence is the cheapest dial you own. +5% over preferred — countable on any watch — moved one case from three-month-stuck to half-marathon in a quarter-year, and the expert file names the dial for exactly this injury [14][15]. Shorten the stride, land closer to the body, and the strain rate the mechanism file convicted drops with it [9][14].
  • Cyclists turn the seat, not the page. The file is common in cyclists, and the trailing leg cycles through the same window [5][12]; a modest seat-height check is this file's version of a biomechanics consult — while the knee is angry, favor higher cadence/lower gear, which is the same dial in cycling clothes [12].
  • Conditioning survives on machines that dodge the window. Rowing, skiing ergs, swimming, uphill walking, shallow-flexion biking: the heart does not need the lateral epicondyle's compression window to work [12].
  • What stops everything: the fences from the top — trauma with swelling or locking (meniscus/ACL door), the pop with a defect (avulsion door), night pain and systemic signs (rare-file door), the fall onto the bone (fracture door). None of those train through. And within the file: lateral knee pain that steadily worsens across three weeks of honest de-loading earns a clinician's hands — the file can masquerade as its neighbors, and the Noble test takes thirty seconds [11][12].

So what do you actually do? The practical file

Six rules, every one sourced from the files above:

  1. Respect the fences before you program. Trauma, effusion, locking, a pop with a defect, night pain, point-bone tenderness: clinician first, post second [1][11].
  2. Stop treating the name. Nothing rubs, nothing rolls longer: the band is anchored anatomy and the pain is a compressed fat pad — aim dose, angle and cadence at the window, not flexibility at a cable [4][5][9].
  3. Load the hip from week one, by the traffic light. The gluteus-medius ladder returned 22 of 24 runners in six weeks and tracks function week by week — it is the program's spine even though the dynamometer file says pure strength was never the whole story [6][7][13].
  4. Cut the descent and buy back the cadence. Downhills, stairs and the overlong stride all feed the compression window; +5% step rate is free, countable, and case-proven — take it before you buy anything [4][14][15].
  5. Program the fatigue, not just the volume. The knee that adducts five degrees at minute thirty is asking for intervals before tempos and a warm-up that is actually warm — the file's switch-like onset is a control budget, not a mystery [11].
  6. Let the calendar be clinical. Nine of sixteen discharged at six weeks, seven to five months — trend the morning-after pain scores, and a file that only worsens on honest de-loading goes to hands that can run the Noble test [11][13].

How RightRep fits into this

This condition is, at its core, a counted-load, cadence and trend problem — and it is unanswerable without a record:

  • The stride and the week, logged like training. The cadence dial and the descent ladder are training programs [14][15] — reps counted, rungs marked, the block that ended the injury sitting in your history next to your squats, not in a physio PDF you lost.
  • The morning biomarker beside the training log. Daily lateral-knee scores next to the sessions that might have caused them — the amber-before-relapse signal this file's load-profile dependence [2] exists to prevent.
  • The single-leg work that keeps the file honest. The healthy side as reference, the injured side as work-in-progress, rep-counted and rep-scored until the return gates read even [6][9].

The bottom line

  • The scale: second only to patellofemoral pain in the 2,002-injury census — ahead of plantar fasciitis, meniscus and shin — with under-34 men at elevated risk; injury incidence across runner populations runs 19.4–79.3% with the knee the predominant site [1][2].
  • The anatomy: no bursa in any of 15 cadavers, the band anchored by fibrous strands, pain from compressing an innervated fat pad at ~30° of flexion — friction is a misnomer [4][5].
  • The strength debate: 7.82 vs 9.82 %BWh and 22 of 24 back in six weeks on one side; a flat isokinetic null — "not the cause" — on the other; both honest, both half the story [6][7].
  • The mechanism: more hip adduction and knee internal rotation before the pain arrives, not one different moment; strain rate separates the groups while impingement duration does not [8][9][10].
  • The fatigue door: knee adduction −1.48° to +3.74° between minute three and minute thirty — a five-degree swing past the detectable difference; TFL tensioning 11% vs 7% MVIC, offered with its authors' own caution [11].
  • The treatment: hips (22/24 at six weeks, +34.9%/+51.4% torque) + cadence (+5%: pain-free in six weeks, half-marathon at month four, LEFS 71→80) + retraining first-named by the expert file; recovery honestly spread — 9 of 16 at six weeks, 7 to five months [6][13][14][15].
  • The Brazil anchor: 47.2% of road runners injured, mostly lower-limb, mostly in training, 2.29 per 1,000 hours [16].

Train around the window, load the hip, shorten the stride, and let the camera keep the reps honest at rightrep.app.

This post was written by the RightRep AI Assistant — the same AI that counts and scores your reps at rightrep.app.

Sources

  1. Taunton JE, Ryan MB, Clement DB, McKenzie DC, Lloyd-Smith DR, Zumbo BD. A retrospective case-control analysis of 2002 running injuries. British Journal of Sports Medicine, 2002;36(2):95–101. pubmed.ncbi.nlm.nih.gov
  2. van Gent RN, Siem D, van Middelkoop M, van Os AG, Bierma-Zeinstra SM, Koes BW. Incidence and determinants of lower extremity running injuries in long distance runners: a systematic review. British Journal of Sports Medicine, 2007;41(8):469–480. pubmed.ncbi.nlm.nih.gov
  3. Aderem J, Louw QA. Biomechanical risk factors associated with iliotibial band syndrome in runners: a systematic review. BMC Musculoskeletal Disorders, 2015;16:356. pubmed.ncbi.nlm.nih.gov
  4. Fairclough J, Hayashi K, Toumi H, Lyons K, Bydder G, Phillips N, Best TM, Benjamin M. The functional anatomy of the iliotibial band during flexion and extension of the knee: implications for understanding iliotibial band syndrome. Journal of Anatomy, 2006;208(3):309–316. pubmed.ncbi.nlm.nih.gov
  5. Fairclough J, Hayashi K, Toumi H, Lyons K, Bydder G, Phillips N, Best TM, Benjamin M. Is iliotibial band syndrome really a friction syndrome? Journal of Science and Medicine in Sport, 2007;10(2):74–76. pubmed.ncbi.nlm.nih.gov
  6. Fredericson M, Cookingham CL, Chaudhari AM, Dowdell BC, Oestreicher N, Sahrmann SA. Hip abductor weakness in distance runners with iliotibial band syndrome. Clinical Journal of Sport Medicine, 2000;10(3):169–175. pubmed.ncbi.nlm.nih.gov
  7. Grau S, Krauss I, Maiwald C, Best R, Horstmann T. Hip abductor weakness is not the cause for iliotibial band syndrome. International Journal of Sports Medicine, 2008;29(7):579–583. pubmed.ncbi.nlm.nih.gov
  8. Noehren B, Davis I, Hamill J. ASB clinical biomechanics award winner 2006. Prospective study of the biomechanical factors associated with iliotibial band syndrome. Clinical Biomechanics, 2007;22(9):951–956. pubmed.ncbi.nlm.nih.gov
  9. Hamill J, Miller R, Noehren B, Davis I. A prospective study of iliotibial band strain in runners. Clinical Biomechanics, 2008;23(8):1018–1025. pubmed.ncbi.nlm.nih.gov
  10. Ferber R, Noehren B, Hamill J, Davis IS. Competitive female runners with a history of iliotibial band syndrome demonstrate atypical hip and knee kinematics. Journal of Orthopaedic & Sports Physical Therapy, 2010;40(2):52–58. pubmed.ncbi.nlm.nih.gov
  11. Baker RL, Souza RB, Rauh MJ, Fredericson M, Rosenthal MD. Differences in Knee and Hip Adduction and Hip Muscle Activation in Runners With and Without Iliotibial Band Syndrome. PM&R, 2018;10(10):1032–1039. pubmed.ncbi.nlm.nih.gov
  12. Baker RL, Fredericson M. Iliotibial Band Syndrome in Runners: Biomechanical Implications and Exercise Interventions. Physical Medicine and Rehabilitation Clinics of North America, 2016;27(1):53–77. pubmed.ncbi.nlm.nih.gov
  13. Beers A, Ryan M, Kasubuchi Z, Fraser S, Taunton JE. Effects of Multi-modal Physiotherapy, Including Hip Abductor Strengthening, in Patients with Iliotibial Band Friction Syndrome. Physiotherapy Canada, 2008;60(2):180–188. pubmed.ncbi.nlm.nih.gov
  14. Allen DJ. Treatment of distal iliotibial band syndrome in a long distance runner with gait re-training emphasizing step rate manipulation. International Journal of Sports Physical Therapy, 2014;9(2):222–231. pubmed.ncbi.nlm.nih.gov
  15. Barton CJ, Bonanno DR, Carr J, Neal BS, Malliaras P, Franklyn-Miller A, Menz HB. Running retraining to treat lower limb injuries: a mixed-methods study of current evidence synthesised with expert opinion. British Journal of Sports Medicine, 2016;50(9):513–526. pubmed.ncbi.nlm.nih.gov
  16. Garcia M, Martins TB, Schmidt de Mesquita R, Cristina Siqueira T, Beppler Martins T, Okubo R. Epidemiology of injuries in road runners: associations with individual characteristics, training, habits and emotional aspects. Research in Sports Medicine, 2026;34(5):557–574. pubmed.ncbi.nlm.nih.gov