Overview
Running is one of the most-studied recreational activities in sports medicine, and roughly 80% of running injuries are overuse problems that respond to conservative treatment (Arnold & Moody, Am Fam Physician 2018). This review maps peer-reviewed evidence about pain and soreness in every major body region during or after running, and the procedures used to treat, prevent, or rehabilitate those problems. It assembles 110 unique, individually verified peer-reviewed papers — well beyond the 60-paper minimum — with priority given to systematic reviews, meta-analyses, randomized controlled trials (RCTs), clinical practice guidelines, prospective cohorts, and key diagnostic/epidemiologic studies.
Evidence density is deliberately uneven and mirrors the real literature: lower-limb overuse injuries (knee, shin, Achilles, foot) are supported by many high-quality studies, whereas running-specific evidence for upper-body pain (head, neck, shoulder, arm) is sparse and often drawn from broader endurance-sport or general-exercise populations. Where running-specific evidence does not exist, this is stated explicitly and the relevance column is marked accordingly.
A crucial distinction runs through the whole document: ordinary post-exercise muscle soreness (DOMS) is a normal, self-limiting adaptation, while persistent, localized, or worsening pain may signal injury. The two are managed very differently. This review supports self-education and informed conversations with clinicians; it does not replace individualized medical assessment.
Methods and Search Boundaries
- Databases/indexes queried: A structured academic + web search across roughly 50 region-specific queries (e.g., "medial tibial stress syndrome treatment systematic review," "Achilles tendinopathy eccentric exercise randomized," "exercise related transient abdominal pain review"), returning ~700 candidate records, which were filtered to authoritative domains.
- Source preference: PubMed, PubMed Central (PMC), BJSM, JOSPT, Cochrane, and primary journal/DOI publisher pages. Non-scholarly consumer pages, video results, and encyclopedia entries were excluded.
- Verification: Every retained URL was fetched during this session and an LLM extraction confirmed the exact title, first author, year, journal, study type, population, and a key finding directly from the page. Six BMJ/BJSM "lookup/doi" links that were blocked by the publisher's robots policy were replaced with the corresponding PubMed/PMC records, which were then fetched and verified.
- Deduplication: Papers were deduplicated by PMID/DOI and by title. One duplicate ETAP record (PMID 25178498, already present as the PMC version) was removed. Final count: 110 unique papers.
- Time span: Classic foundational studies through 2026 (the newest included item is a 2026 Sports Health navicular review, Modica et al. 2026).
- Relevance grading in the table: Direct running-specific (studied in runners), indirect endurance-sport (athletes/endurance populations), or general exercise evidence (mixed/healthy or non-runner populations). This flagging prevents over-claiming running-specific certainty, especially for upper-body regions.
- Honesty rule: No title, author, DOI, PMID, result, or treatment claim was invented. Any field that could not be confirmed from the fetched page is written as
n.a.
Body-Region Index (Body Map)
Papers are numbered head-to-toe. Use this index to jump to the evidence for each region.
| Region | Conditions / symptoms covered | Paper numbers | # papers |
|---|---|---|---|
| 0. Generalized muscle (DOMS / EIMD) | Delayed-onset muscle soreness, exercise-induced muscle damage, recovery modalities | 1–10 | 10 |
| 1. Head & neck | Primary/exertional exercise headache, athlete neck pain | 11–16 | 6 |
| 2. Shoulder, arm & upper extremity | Upper-limb sports injuries, arm-swing mechanics, overview of running injuries | 17–21 | 5 |
| 3. Chest, side stitch/ETAP, abdomen & back | Exercise-related transient abdominal pain (side stitch), low back pain in runners/athletes | 22–27, 108 | 7 |
| 4. Pelvis, sacroiliac, hip & groin | Groin/adductor pain, femoral neck stress fracture, SI joint pain, greater trochanteric pain syndrome, hip overuse | 28–36 | 9 |
| 5. Buttock & hamstring / posterior thigh | Hamstring strain, proximal/high hamstring tendinopathy, avulsion | 37–42, 104 | 7 |
| 6. Quadriceps / anterior thigh | Quadriceps strain/contusion, quadriceps tendinopathy, anterior-thigh injury, risk factors | 43–46, 105, 109 | 6 |
| 7. Knee | Patellofemoral pain, iliotibial band syndrome, patellar tendinopathy, runner's-knee management | 47–60 | 14 |
| 8. Shin & lower leg | Medial tibial stress syndrome (shin splints), tibial/lower-limb stress fractures, chronic exertional compartment syndrome | 61–69, 106, 110 | 11 |
| 9. Ankle & Achilles tendon | Achilles tendinopathy (eccentric/HSR/ESWT), ankle sprain guidelines | 70–78 | 9 |
| 10. Foot & heel | Plantar fasciopathy/heel pain, navicular & foot stress fractures, midfoot pain | 79–88, 107 | 11 |
| 11. Forefoot & toes | Metatarsalgia, sesamoid injuries, friction blisters, subungual hematoma | 89–95 | 7 |
| 12. Red flags / systemic / triage | Exertional rhabdomyolysis, bone stress injury diagnosis/management, epidemiology | 96–103 | 8 |
Total: 110 unique verified papers. Every region requested in the brief is represented. Note: papers 104, 105, 107, 108, 109, 110 sit numerically at the end because they were verified substitutes for blocked publisher links, but each is assigned to its correct anatomic region above.
Evidence Table (110 Verified Peer-Reviewed Papers)
Columns: # · body region · condition/symptom · paper title (linked) · first author et al. · year · journal · study type · runner/sample context · pain timing · treatment/prevention/rehab evaluated or supported · one-sentence key finding · evidence relevance · source. Each row's source is the exact page fetched and verified this session. Where the page did not state a value it is marked n.a.
Region 0 — Generalized muscle: DOMS / exercise-induced muscle damage (Rows 1–10)
| # | Region | Condition | Title | First author et al. | Year | Journal | Study type | Sample context | Pain timing | Treatment/prevention/rehab | Key finding | Relevance | Source |
|---|---|---|---|---|---|---|---|---|---|---|---|---|---|
| 1 | Generalized muscle | DOMS/EIMD | Physical Therapies for Delayed Onset Muscle Soreness: A Protocol for an Umbrella and Mapping Systematic Review with Meta-Meta-Analysis | Wiecha et al. | 2024 | J Clin Med | Umbrella review protocol | Healthy adults; subgroups incl. long-distance vs short-distance runners | Delayed | Physiotherapy interventions for DOMS/EIMD (umbrella synthesis) | Protocol to systematically map physiotherapy evidence for DOMS/EIMD and identify the most promising therapies | General exercise | PMC11012564 |
| 2 | Generalized muscle | DOMS | Differences in the Effectiveness of Different Physical Therapy Modalities in the Treatment of Delayed-Onset Muscle Soreness: A Systematic Review and Bayesian Network Meta-Analysis | Chen et al. | 2025 | J Pain Res | Systematic review + Bayesian network meta-analysis (RCTs, n=447) | Patients with DOMS; no population restriction | Delayed | Photobiomodulation, sauna, and other PT modalities | Photobiomodulation and sauna gave significant effects within 48 h, with photobiomodulation most favorable; no notable benefit beyond 48 h | General exercise | PMC12178262 |
| 3 | Generalized muscle | DOMS | The effects of massage on delayed onset muscle soreness | Hilbert et al. | 2003 | Br J Sports Med | Randomized volunteer experiment (n=18) | 18 volunteers; population not specified | Delayed | Massage 2 h post-exercise | Massage did not improve hamstring function but reduced soreness intensity at 48 h | General exercise | PMC1724592 |
| 4 | Generalized muscle | DOMS | Effects of Massage on Delayed-Onset Muscle Soreness, Swelling, and Recovery of Muscle Function | Zainuddin et al. | 2005 | J Athl Train | Experimental arm-to-arm comparison (n=10) | 10 healthy, non-resistance-trained subjects | Delayed | 10-min massage 3 h after eccentric exercise | Massage reduced soreness and swelling and lowered creatine kinase, but did not restore strength or range of motion | General exercise | PMC1250256 |
| 5 | Generalized muscle | DOMS | Massage Alleviates Delayed Onset Muscle Soreness after Strenuous Exercise: A Systematic Review and Meta-Analysis | Guo et al. | 2017 | Front Physiol | Systematic review + meta-analysis (11 RCTs, n=504) | Healthy/athletic participants incl. team-sport athletes | Delayed | Post-exercise massage (Swedish/Chinese techniques) | Massage after strenuous exercise alleviated DOMS and improved muscle performance, with highest efficacy at 48 h | General exercise | PMC5623674 |
| 6 | Generalized muscle | DOMS | Cold-water immersion (cryotherapy) for preventing and treating muscle soreness after exercise | Bleakley et al. | 2012 | Cochrane Database Syst Rev | Cochrane systematic review (17 trials, n=366) | Mostly young males; cyclists, athletes, team-sport players | Delayed / recurrent | Cold-water immersion vs rest | Some evidence that cold-water immersion reduces DOMS vs passive rest, but evidence insufficient for other outcomes | General exercise | PMC6492480 |
| 7 | Generalized muscle | Fatigue/DOMS | Effects of cold water immersion after exercise on fatigue recovery and exercise performance—meta analysis | Xiao et al. | 2023 | Front Physiol | Systematic review + meta-analysis (20 studies, n=419) | Athletes incl. recreational/regular runners, cyclists, swimmers | Immediately after / delayed | Post-exercise cold-water immersion (≤15 °C) | Cold-water immersion reduced subjective fatigue immediately post-exercise and lowered creatine kinase/lactate, with no effect on CRP/IL-6 | Indirect endurance-sport | PMC9896520 |
| 8 | Generalized muscle | Inflammation/EIMD | The effects of cold water immersion and active recovery on inflammation and cell stress responses in human skeletal muscle after resistance exercise | Peake et al. | 2016 | J Physiol | Randomized crossover mechanistic study (n=9) | 9 physically active resistance-trained men (not runners) | Delayed | Cold-water immersion vs active recovery | Cold-water immersion was no more effective than active recovery for reducing muscle inflammation or cellular stress | General exercise | PMC5285720 |
| 9 | Generalized muscle | EIMD/recovery | Effects of Compression Garments on Muscle Strength and Power Recovery Post-Exercise: A Systematic Review and Meta-Analysis | Li et al. | 2025 | Life (Basel) | Systematic review + meta-analysis (n=528) | Trained/untrained adults; studies incl. running | Delayed / recurrent | Compression garments (mostly lower-limb) | Compression garments significantly reduced strength loss after exercise-induced fatigue and mitigated power decline in the 1–24 h window | General exercise | PMC11944185 |
| 10 | Generalized muscle | DOMS | Effect of compression garments on delayed-onset muscle soreness and blood inflammatory markers after eccentric exercise: a randomized controlled trial | Kim et al. | 2017 | J Exerc Rehabil | Randomized controlled trial (n=16) | 16 healthy male university students | Delayed | Compression garments worn 24 h post-exercise | Compression reduced DOMS and sped recovery of isometric strength but did not change creatine kinase or TNF-α | General exercise | PMC5667600 |
Region 1 — Head & neck (Rows 11–16)
Running-specific evidence is sparse; most items are exercise-headache reviews or athlete (endurance/multisport) neck-pain studies. Relevance is flagged accordingly.
| # | Region | Condition | Title | First author et al. | Year | Journal | Study type | Sample context | Pain timing | Treatment/prevention/rehab | Key finding | Relevance | Source |
|---|---|---|---|---|---|---|---|---|---|---|---|---|---|
| 11 | Head | Primary exercise (exertional) headache | Primary Exercise Headache | Upadhyaya et al. | 2020 | Curr Neurol Neurosci Rep | Narrative review | General population with primary exercise headache | During | Indomethacin, beta-blockers (case-series basis) | No RCTs exist; indomethacin and beta-blockers remain mainstays based on case series/reports | General exercise | PMC7160088 |
| 12 | Head | Rare primary headaches (incl. exertional) | Hallmarks of primary headache: part 4 – rare headache syndromes | Sebastianelli et al. | 2025 | J Headache Pain | Review | Rare primary headache disorders; case-report/small-cohort based | During | Symptomatic/preventive medications (low-certainty) | Evidence for treatment is limited and high-quality studies are lacking; multicenter trials are needed | General exercise | PMC12837522 |
| 13 | Neck | Nonspecific athletic neck pain | Therapeutic Exercise for Athletes With Nonspecific Neck Pain | Durall | 2012 | Sports Health | Current-concepts narrative review | Athletes (mixed sports) | During / recurrent | Deficit-based therapeutic exercise | Exercise is promising for neck pain, but isolated athletic evidence is lacking; select exercises by deficits and sport demands | Indirect endurance-sport | PMC3435917 |
| 14 | Neck | Neck pain prevalence in athletes | Prevalence of Neck Pain among Athletes: A Systematic Review | Noormohammadpour et al. | 2018 | Asian Spine J | Systematic review (6 cross-sectional studies) | Athletes incl. triathletes, skydivers, fitness instructors | Recurrent | Neck-specific exercises, protective devices, fair-play rules | Neck pain is relatively common in athletes; targeted exercises and protective measures may help prevent it | Indirect endurance-sport | PMC6284113 |
| 15 | Head | Exercise headache | Exercise Headache: a Review | Sandoe & Sprenger | 2018 | Curr Neurol Neurosci Rep | Review | Primary exercise headache (1–26% of adults) | During | Trigger avoidance, short-term NSAIDs and/or beta-blockers | No recent trials; experts suggest trigger avoidance plus NSAID/beta-blocker for primary exercise headache | General exercise | PMID 29675548 |
| 16 | Neck | Neck pain in triathletes | Neck pain in multisport athletes | Villavicencio et al. | 2007 | J Neurosurg Spine | Epidemiologic questionnaire study (n=164) | Boulder, Colorado triathletes | Recurrent | (Epidemiology; identifies overuse as risk) | Lifetime neck-pain incidence was 47.6%, with sports injuries and overuse as major risk factors | Indirect endurance-sport | PMID 17933315 |
Region 2 — Shoulder, arm & upper extremity (Rows 17–21)
Direct running-specific upper-limb pain evidence is very limited; two items address arm-swing mechanics, and general overviews frame overall running injury patterns.
| # | Region | Condition | Title | First author et al. | Year | Journal | Study type | Sample context | Pain timing | Treatment/prevention/rehab | Key finding | Relevance | Source |
|---|---|---|---|---|---|---|---|---|---|---|---|---|---|
| 17 | Whole-body (overview) | Running-related musculoskeletal injuries | A systematic review of running-related musculoskeletal injuries in runners | Kakouris et al. | 2021 | J Sport Health Sci | Systematic review | Runners across distances/levels | During / delayed / recurrent | Injury-prevention targeting knee (PFP) and ankle (Achilles) | Prevention should target the knee and ankle to reduce the highest-incidence running injuries | Direct running-specific | PMC8500811 |
| 18 | Shoulder/arm | Upper-limb sports injuries | Sports Injuries of the Upper Limbs | Silva et al. | 2015 | Rev Bras Ortop | Narrative review | Overhead/throwing athletes (not runners) | During / recurrent | Diagnosis, rehab, prevention of shoulder/elbow/tendon injury | Appropriate diagnosis, rehab, and prevention of upper-limb sports injuries aid return to sport and reduce recurrence | General exercise | PMC4799138 |
| 19 | Arm (mechanics) | Arm swing & upper-body stability | Active Arm Swing During Running Improves Rotational Stability of the Upper Body and Metabolic Energy Efficiency | Koo & Um | 2025 | Ann Biomed Eng | Musculoskeletal simulation study (n=1 recreational runner) | Recreational runner (modeled) | During | Active arm swing (technique) | Active arm swing reduced torso rotation and had the lowest metabolic cost vs passive/fixed arms | Direct running-specific | PMC11929735 |
| 20 | Arm (mechanics) | Arm-swing effect on lower-limb injury risk | The effect of unilateral arm swing motion on lower extremity running mechanics associated with injury risk | Agresta et al. | 2018 | Sports Biomech | Time-and-motion biomechanics study (n=15) | 15 healthy adult runners | During | (Mechanics; informs technique) | Restraining one arm increased frontal-plane knee/hip angles linked to knee-injury risk | Direct running-specific | PMID 28632061 |
| 21 | Whole-body (overview) | Common running injuries | Common Running Injuries: Evaluation and Management | Arnold & Moody | 2018 | Am Fam Physician | Evidence-based review (SR/MA/RCT sources) | Runners (novice to marathon) | During / delayed / recurrent | Condition-specific conservative care (eccentrics, strengthening, bracing, orthoses) | ~80% of running injuries are overuse and respond to conservative, condition-specific treatment | Direct running-specific | AAFP 2018 |
Region 3 — Chest, side stitch/ETAP, abdomen & back (Rows 22–27, 108)
| # | Region | Condition | Title | First author et al. | Year | Journal | Study type | Sample context | Pain timing | Treatment/prevention/rehab | Key finding | Relevance | Source |
|---|---|---|---|---|---|---|---|---|---|---|---|---|---|
| 22 | Abdomen/side | Exercise-related transient abdominal pain (side stitch) | Exercise-Related Transient Abdominal Pain (ETAP) | Morton & Callister | 2014 | Sports Med | Review | ETAP literature; common in running & horse riding | During | Avoid pre-exercise large/hypertonic meals, improve posture/core, supportive belt | Prevention includes avoiding pre-exercise large hypertonic intake and improving posture/core; stopping exercise gives most reliable relief | Direct running-specific | PMC4281377 |
| 23 | Low back | Low back pain in runners | Prevalence and incidence of low back pain among runners: a systematic review | Maselli et al. | 2020 | BMC Musculoskelet Disord | Systematic review | Runners (no age limit) | Recurrent | (Epidemiology) | Low back pain prevalence/incidence is low in runners vs the general population; running may be cautiously protective | Direct running-specific | PMC7271446 |
| 24 | Low back | Low back pain in marathoners | Incidence and Risk Factors of Low Back Pain in Marathon Runners | Wu et al. | 2021 | Pain Res Manag | Cross-sectional questionnaire (n=800) | Shanghai half/full marathon runners | During / recurrent | Warm-up, avoiding fatigue, good gait posture | Adequate warm-up, no fatigue, good running posture and comfortable temperature were linked to lower low-back-pain risk (incidence 4.5%) | Direct running-specific | PMC7920723 |
| 25 | Abdomen/side | Side stitch | Stitch in the side: causes, workup, and solutions | Eichner | 2006 | Curr Sports Med Rep | Review | Most often runners/swimmers | During | Practical (anecdotal) measures | Side stitch is benign and transient; practical tips, though anecdotal, may give lasting relief | Direct running-specific | PMID 17067495 |
| 26 | Abdomen/side | ETAP characteristics/etiology | Characteristics and etiology of exercise-related transient abdominal pain | Morton & Callister | 2000 | Med Sci Sports Exerc | Questionnaire survey (n=965) | Six sports incl. running (69% affected) | During | (Etiology/characterization) | ETAP is most prevalent in activities with repetitive torso movement and is a well-localized pain | Direct running-specific | PMID 10694128 |
| 27 | Low back | Low back pain in athletes | Treating low back pain in athletes: a systematic review with meta-analysis | Thornton et al. | 2021 | Br J Sports Med | Systematic review + meta-analysis (14 RCTs, n=541) | Athletes with low back pain | Recurrent | Exercise therapy (vs manual therapy/biomechanical mods) | Exercise generally reduced pain and improved function; evidence was insufficient for manual therapy or biomechanical modification alone | Indirect endurance-sport | PMID 33355180 |
| 108 | Abdomen/side | ETAP | Exercise related transient abdominal pain | Morton | 2003 | Br J Sports Med | Review | General | During | (Etiology discussion) | The causes of exercise-related transient abdominal pain remain to be fully elucidated | Direct running-specific | PMID 12893708 |
Region 4 — Pelvis, sacroiliac, hip & groin (Rows 28–36)
| # | Region | Condition | Title | First author et al. | Year | Journal | Study type | Sample context | Pain timing | Treatment/prevention/rehab | Key finding | Relevance | Source |
|---|---|---|---|---|---|---|---|---|---|---|---|---|---|
| 28 | Groin | Groin/adductor injury | Groin Injuries in Sports Medicine | Tyler et al. | 2010 | Sports Health | Narrative review | Athletes (hockey, soccer, AFL) | During / recurrent | Preseason strengthening; warm-up prevention programs | Strengthening/active rehab reduces adductor strains; persistent pain warrants evaluation for athletic pubalgia | Indirect endurance-sport | PMC3445110 |
| 29 | Groin | Conservative groin-pain management | Optimizing Conservative Management of Groin Pain in Athletes: Insights from a Narrative Review | Tedeschi et al. | 2025 | Life (Basel) | Narrative review (8 studies incl. RCTs) | Athletes (professional/amateur/recreational) | During / recurrent | Active rehab, multimodal therapy, hip/core strengthening; adductor-squeeze screening | Active rehab and multimodal therapy reduce pain (50–80%) and support return to sport; adductor-squeeze test aids prevention | Indirect endurance-sport | PMC11944235 |
| 30 | Hip/pelvis | Femoral neck stress fracture | Femoral Neck Stress Fractures in Sport: A Current Concepts Review | Robertson & Wood | 2017 | Sports Med Int Open | Current-concepts review | Athletes; marathon/long-distance running most causative | During / delayed | Conservative for compression-side; surgical fixation for displaced | Management depends on location/displacement; compression fractures usually conservative, displaced require urgent surgery | Indirect endurance-sport | PMC6226070 |
| 31 | Hip/pelvis | Femoral neck stress fracture (runner) | Undisplaced transcervical femoral neck stress fracture in a recreational runner: A case report | Malla et al. | 2025 | Int J Surg Case Rep | Case report | 52-y-o male recreational runner | During / delayed | In-situ cannulated-screw fixation + physiotherapy | Undisplaced femoral neck stress fracture treated with three-screw fixation gave pain-free full recovery by 12 months | Direct running-specific | PMC11910112 |
| 32 | Sacroiliac | SI joint pain | Sacroiliac Joint Pain in the Athlete | Pfeiffer et al. | 2022 | Ochsner J | Narrative review / case | Athlete (case: amateur golfer) | Recurrent | Physical therapy for biomechanical/muscle imbalance; image-guided injection if refractory | SI joint care starts with accurate diagnosis and physical therapy; injections are reserved for refractory symptoms | Indirect endurance-sport | PMC8929229 |
| 33 | Sacroiliac | SI dysfunction & lower-limb injury | The sacroiliac dysfunction and pain is associated with history of lower extremity sport related injuries | Abdollahi et al. | 2023 | BMC Sports Sci Med Rehabil | Cross-sectional study (n=204) | Junior professional basketball players | Recurrent | (Screening; address SI in rehab design) | SI dysfunction/pain is associated with prior lower-limb injuries and should be addressed in rehabilitation programs | General exercise | PMC10029172 |
| 34 | Hip (lateral) | Greater trochanteric pain syndrome | Greater trochanteric pain syndrome: a review of diagnosis and management in general practice | Speers & Bhogal | 2017 | Br J Gen Pract | Review | Primary-care patients; runners referenced | Recurrent | Load management, gluteal strengthening, NSAIDs; corticosteroid only short-term | Most cases respond to load modification and gluteal strengthening; corticosteroid injection offers only short-term benefit | Indirect endurance-sport | PMC5604828 |
| 35 | Hip | Hip injuries in running | An overview of hip injuries in running | Paluska | 2005 | Sports Med | Review | Runners (all ages/levels) | During / recurrent | Treat symptoms + underlying cause; prevention + comprehensive rehab | Treating hip pain requires addressing underlying causes; prevention/rehab are essential as prior hip injury raises recurrence risk | Direct running-specific | PMID 16271011 |
| 36 | Hip/pelvis | Hip dysfunction & lower-quarter injury | The association between hip dysfunction and lower quarter injuries in long distance runners: a systematic review protocol | n.a. | n.a. | n.a. | Systematic review protocol | Long-distance runners | Recurrent | (Protocol) | Protocol to establish whether hip dysfunction predisposes long-distance runners to lower-quarter injuries | Direct running-specific | PMID 29035952 |
Region 5 — Buttock & hamstring / posterior thigh (Rows 37–42, 104)
| # | Region | Condition | Title | First author et al. | Year | Journal | Study type | Sample context | Pain timing | Treatment/prevention/rehab | Key finding | Relevance | Source |
|---|---|---|---|---|---|---|---|---|---|---|---|---|---|
| 37 | Hamstring | Hamstring strain rehab | Hamstring Strain Injury Rehabilitation | Hickey et al. | 2021 | J Athl Train | Narrative review | Athletes (running-based sports) | During / recurrent | Progressive high-speed running, eccentric exercise, hip-extensor strengthening | Rehab should prioritize progressive high-speed running plus eccentric and hip-extensor strengthening to reduce reinjury | Indirect endurance-sport | PMC8876884 |
| 38 | Buttock/proximal thigh | Proximal hamstring tendinopathy | Expert opinion: diagnosis and treatment of proximal hamstring tendinopathy | Lempainen et al. | 2015 | Muscles Ligaments Tendons J | Expert-opinion review | Athletically active adults (track & field, soccer) | Recurrent | Multimodal conservative care; surgery after ~6 months failure | Multimodal conservative care is favored; surgery is considered after ~6 months of failed conservative treatment | Indirect endurance-sport | PMC4396672 |
| 39 | Buttock/hamstring | Proximal hamstring tendinopathy & avulsion | Proximal Hamstring Injuries: Management of Tendinopathy and Avulsion Injuries | Degen | 2019 | Curr Rev Musculoskelet Med | Narrative review | Runners, hurdlers, athletes | During / recurrent | Non-operative for tendinopathy/partial tears; operative repair for complete avulsion | Tendinopathy and partial tears often succeed non-operatively; complete avulsions are better repaired operatively, ideally acutely | Indirect endurance-sport | PMC6542878 |
| 40 | Buttock/hamstring | High hamstring tendinopathy (runners) | High hamstring tendinopathy in 3 female long distance runners | White | 2011 | J Chiropr Med | Case series (n=3) | 3 female long-distance runners | Recurrent | Conservative care + active rehabilitation | All three runners had resolution of hamstring pain with conservative care and returned to competition | Direct running-specific | PMC3110412 |
| 41 | Hamstring | Nonoperative hamstring treatment | Hamstring Injuries: Critical Analysis Review of Current Nonoperative Treatments | Marigi et al. | 2022 | JBJS Rev | Critical-analysis review | Active/athletic incl. distance/high-speed running | During / recurrent | Eccentric rehabilitative exercise (first-line) | Nonoperative management centers on eccentric rehab; comparative efficacy of other adjuncts is poorly differentiated | Indirect endurance-sport | PMID 36574459 |
| 42 | Buttock/hamstring | High hamstring tendinopathy (runners) | High hamstring tendinopathy in runners: meeting the challenges of diagnosis, treatment, and rehabilitation | Fredericson et al. | 2005 | Phys Sportsmed | Narrative review | Running athletes | Recurrent | Soft-tissue mobilization, stretching, eccentric strengthening, core stabilization | Rehab uses soft-tissue work, stretching, and progressive eccentric/core exercise; injection or surgery for recalcitrant cases | Direct running-specific | PMID 20086362 |
| 104 | Buttock/hamstring | Proximal hamstring tendinopathy interventions | Proximal Hamstring Tendinopathy: A Systematic Review of Interventions | Nasser et al. | 2021 | Int J Sports Phys Ther | Systematic review (n=424) | Athletes/non-athletes; track & field, distance running | Recurrent | Shockwave, exercise, surgery (low-quality evidence) | Insufficient evidence to favor one intervention; shockwave showed better long-term outcomes than multimodal care in low-quality data | Indirect endurance-sport | PMID 33842025 |
Region 6 — Quadriceps / anterior thigh (Rows 43–46, 105, 109)
| # | Region | Condition | Title | First author et al. | Year | Journal | Study type | Sample context | Pain timing | Treatment/prevention/rehab | Key finding | Relevance | Source |
|---|---|---|---|---|---|---|---|---|---|---|---|---|---|
| 43 | Quadriceps | Quadriceps strain/contusion | Diagnosis and management of quadriceps strains and contusions | Kary | 2010 | Curr Rev Musculoskelet Med | Narrative review | Athletes (soccer, rugby, football) | During / delayed | RICE, staged rehab; flexion immobilization for contusion | Emphasizes RICE and staged rehab, with flexion immobilization for contusions and myositis-ossificans prevention | Indirect endurance-sport | PMC2941577 |
| 44 | Quadriceps | Quadriceps tendinopathy | Quadriceps tendinopathy: a review, part 2—classification, prognosis, and treatment | King et al. | 2019 | Ann Transl Med | Narrative review | Athletes and non-athletes | Recurrent | Non-operative first-line; PRP/polidocanol injections; surgery if refractory | Non-operative care often succeeds early; injections may help after failed first-line; surgery reserved for refractory cases | General exercise | PMC6409233 |
| 45 | Anterior thigh | Anterior thigh injury | Management of anterior thigh injuries in soccer players: practical guide | Lempainen et al. | 2022 | BMC Sports Sci Med Rehabil | Narrative review | Soccer players | During / delayed | Conservative care + planned rehab; surgery for complete tears/avulsions | Most anterior-thigh injuries are contusions/strains that respond to conservative care; complete tendon injuries may need surgery | General exercise | PMC8932115 |
| 46 | Quadriceps | Quadriceps strain risk factors | Risk Factors for Quadriceps Muscle Strain Injuries in Sport: A Systematic Review | Pietsch & Timmins | 2022 | J Orthop Sports Phys Ther | Systematic review (16 studies) | 11,719 athletes | During / recurrent | (Risk-factor identification for prevention) | Previous quadriceps injury, recent hamstring injury, dominant kicking leg, and match play were the strongest risk factors | Indirect endurance-sport | JOSPT 2022.10870 |
| 105 | Quadriceps | Quadriceps muscle injuries | Quadriceps muscle injuries in athletes: a narrative review | Ariyaratne et al. | 2025 | Br J Radiol | Narrative review | Athletes (various disciplines) | During / delayed | Imaging-guided diagnosis, management, and rehabilitation | Understanding injury pathology and imaging guides diagnosis, management, and safe return to play | General exercise | PMID 39989034 |
| 109 | Quadriceps | Quadriceps strain/contusion | Quadriceps Strains and Contusions | Kaeding et al. | 1995 | Phys Sportsmed | Review (type n.a. on page) | n.a. | During / delayed | Pain/swelling control, stretching/strengthening; flexion immobilization + thigh pad for contusion | Care goes beyond RICE to include pain/inflammation control and targeted exercise, with flexion immobilization for contusions | General exercise | PMID 29278087 |
Region 7 — Knee (Rows 47–60)
| # | Region | Condition | Title | First author et al. | Year | Journal | Study type | Sample context | Pain timing | Treatment/prevention/rehab | Key finding | Relevance | Source |
|---|---|---|---|---|---|---|---|---|---|---|---|---|---|
| 47 | Knee | Patellofemoral pain (anatomy/risk) | Patellofemoral pain syndrome (PFPS): a systematic review of anatomy and potential risk factors | Waryasz & McDermott | 2008 | Dyn Med | Systematic review | PFPS patients incl. runners/athletes | During / recurrent | Prehabilitation program targeting risk factors | A prehabilitation program targeting risk factors may reduce the likelihood of developing PFPS | Direct running-specific | PMC2443365 |
| 48 | Knee | Iliotibial band syndrome | A Review of Treatments for Iliotibial Band Syndrome in the Athletic Population | Beals & Flanigan | 2013 | J Sports Med (Hindawi) | Review | Runners/endurance athletes | During / recurrent | Rest, stretching, running-habit modification; surgery for refractory | Conservative care gave 44% cure at 8 weeks and 91.7% at 6 months; surgery gave 100% return to sport in reviewed studies | Direct running-specific | PMC4590904 |
| 49 | Knee | Iliotibial band syndrome (runners) | The Management of Iliotibial Band Syndrome with a Multifaceted Approach: A Double Case Report | Shamus & Shamus | 2015 | Int J Sports Phys Ther | Double case report | 2 female runners | During / recurrent | Joint mobilization, soft-tissue work, strengthening, running-form retraining | A multifaceted program including running-form retraining produced pain-free return to running in both runners | Direct running-specific | PMC4458926 |
| 50 | Knee | Patellar tendinopathy | Comparative study of treatment interventions for patellar tendinopathy: a protocol for a randomised controlled trial | López-Royo et al. | 2020 | BMJ Open | RCT protocol (n=57) | Athletes incl. running clubs | During / recurrent | Needle electrolysis or dry needling + eccentric exercise vs placebo | Protocol comparing needling adjuncts plus eccentrics vs eccentrics alone for patellar tendinopathy | Indirect endurance-sport | PMC7045155 |
| 51 | Knee | Common knee injuries in runners | Evidence based treatment options for common knee injuries in runners | Mellinger & Neurohr | 2019 | Ann Transl Med | Evidence-based review | Runners | During / recurrent | Strengthening + motor retraining; adjunct manual therapy/modalities | PFP, ITBS, and patellar tendinopathy in runners are best managed with strengthening and motor retraining plus targeted adjuncts | Direct running-specific | PMC6829001 |
| 52 | Knee | Patellofemoral pain | Effectiveness of hip muscle strengthening in patellofemoral pain syndrome patients: a systematic review | Santos et al. | 2015 | Braz J Phys Ther | Systematic review (7 studies) | PFPS patients | During / recurrent | Hip muscle strengthening | Hip strengthening reduces pain and improves function in PFPS despite limited evidence for strength gains | General exercise | PMC4518569 |
| 53 | Knee | Patellofemoral pain (runners) | Gait retraining for runners with patellofemoral pain: A protocol for systematic review and meta-analysis | Xiao et al. | 2021 | Medicine (Baltimore) | Systematic review protocol | Runners with PFP | During / recurrent | Gait retraining | Protocol to assess safety/effectiveness of gait retraining for pain and function in runners with PFP | Direct running-specific | PMID 34106614 |
| 54 | Knee | Iliotibial band friction syndrome | Iliotibial band friction syndrome—a systematic review | Ellis et al. | 2007 | Man Ther | Systematic review (4 RCTs) | Runners, cyclists, endurance athletes | During / recurrent | Conservative treatments (studied) | Limited evidence that the studied conservative treatments offer significant benefit for ITBFS | Direct running-specific | PMID 17208506 |
| 55 | Knee | Iliotibial band syndrome (runners) | Iliotibial band syndrome in runners: a systematic review | van der Worp et al. | 2012 | Sports Med | Systematic review | Adult runners | During / recurrent | Mobilization, hip strengthening, shoe/surface advice | Research quality is poor and conflicting, but runners may benefit from mobilization, hip strengthening, and shoe/surface advice | Direct running-specific | PMID 22994651 |
| 56 | Knee | Iliotibial band syndrome (runners) | Iliotibial band syndrome in runners: innovations in treatment | Fredericson & Wolf | 2005 | Sports Med | Review | Runners | During / recurrent | Activity modification, anti-inflammatory measures, eccentric hip strengthening; corticosteroid/surgery for severe | With comprehensive treatment (activity modification, modalities, hip strengthening) most patients recover by 6 weeks | Direct running-specific | PMID 15896092 |
| 57 | Knee | Patellar tendinopathy | A Comparative Study of Treatment Interventions for Patellar Tendinopathy: A Randomized Controlled Trial | López-Royo et al. | 2021 | Arch Phys Med Rehabil | Randomized controlled trial (n=48) | Athletes from sport clubs | Recurrent | Dry needling or needle electrolysis + eccentrics vs eccentrics alone | Adding dry needling or needle electrolysis was not more effective than eccentric exercise alone at 10 and 22 weeks | Indirect endurance-sport | PMID 33556350 |
| 58 | Knee | Patellar tendinopathy | Non-surgical treatment of patellar tendinopathy: A systematic review of randomized controlled trials | Vander Doelen & Jelley | 2020 | J Sci Med Sport | Systematic review of RCTs | Patients with patellar tendinopathy | Recurrent | Eccentric/isometric exercise, taping, PRP, dry needling | Eccentric exercise, dry needling, and PRP/ABI/saline injections showed sustained longer-term pain and function benefit | Indirect endurance-sport | PMID 31606317 |
| 59 | Knee | Patellofemoral pain | Hip posterolateral musculature strengthening in sedentary women with patellofemoral pain syndrome: a randomized controlled clinical trial with 1-year follow-up | Fukuda et al. | 2012 | J Orthop Sports Phys Ther | Randomized controlled trial (n=54) | Sedentary women with PFPS | During / recurrent | Knee exercise + hip posterolateral strengthening | Adding hip strengthening to knee exercise gave better 1-year function and pain reduction than knee exercise alone | General exercise | PMID 22951491 |
| 60 | Knee | Patellofemoral pain | Patellofemoral pain: One year results of a randomized trial comparing hip exercise, knee exercise, or free activity | Hott et al. | 2020 | Scand J Med Sci Sports | Randomized controlled trial (n=112) | PFP patients aged 16–40 | During / recurrent | Hip vs knee exercise vs free activity (all + education) | At 1 year, no difference between hip exercise, knee exercise, or free activity when combined with patient education | General exercise | PMID 31846113 |
Region 8 — Shin & lower leg (Rows 61–69, 106, 110)
| # | Region | Condition | Title | First author et al. | Year | Journal | Study type | Sample context | Pain timing | Treatment/prevention/rehab | Key finding | Relevance | Source |
|---|---|---|---|---|---|---|---|---|---|---|---|---|---|
| 61 | Shin | Medial tibial stress syndrome | Medial tibial stress syndrome: conservative treatment options | Galbraith & Lavallee | 2009 | Curr Rev Musculoskelet Med | Narrative review | Athletes, most often runners | During / recurrent | Rest/ice/analgesia acutely; training modification, stretching/strengthening, footwear/orthotics | Evidence is limited; most studies support rest, training modification, stretching/strengthening, and footwear/orthotics | Direct running-specific | PMC2848339 |
| 62 | Lower leg | Stress fractures (distance runners) | Treatment and Rehabilitation Approaches for Stress Fractures in Long-Distance Runners: A Literature Review | Hadjispyrou et al. | 2023 | Cureus | Literature review | Long-distance (half/full marathon) runners | During / delayed | Predominantly conservative treatment + rehab; surgery for complications | Stress fractures in distance runners are mostly managed conservatively; early diagnosis and risk-factor control aid return to running | Direct running-specific | PMC10749698 |
| 63 | Lower leg | Lower-extremity stress fractures | Diagnosis, treatment, and rehabilitation of stress fractures in the lower extremity in runners | Kahanov et al. | 2015 | Open Access J Sports Med | Evidence-based review | Runners | During / delayed | Load modification, graded return; risk-factor modification | Most lower-limb stress fractures share similar assessment and graded return; prompt diagnosis and risk-factor control minimize recurrence | Direct running-specific | PMC4384749 |
| 64 | Lower leg | Chronic exertional compartment syndrome | Chronic exertional compartment syndrome of the leg | Tucker | 2010 | Curr Rev Musculoskelet Med | Narrative review | Recreational runners, elite athletes, military | During | Fasciotomy (surgical) | Fasciotomy is the treatment of choice for athletes wishing to maintain activity, with high success after anterior/lateral release | Indirect endurance-sport | PMC2941579 |
| 65 | Lower leg | Chronic exertional compartment syndrome | Chronic Exertional Compartment Syndrome in Athletes: An Overview of the Current Literature | Tarabishi et al. | 2023 | Cureus | Review | Athletes incl. avid runners | During | Conservative (gait retraining, botulinum toxin) vs fasciotomy | Conservative options include gait retraining and botulinum toxin; fasciotomy is the operative gold standard with variable outcomes | Indirect endurance-sport | PMC10676709 |
| 66 | Shin | Shin splints (MTSS) | Shin Splint: A Review | Bhusari & Deshmukh | 2023 | Cureus | Review | Athletes, runners, military | During / recurrent | Rest, NSAIDs, ice, compression, flexibility, supportive shoes/orthotics, graded return | Effective management includes rest, NSAIDs, ice/compression, flexibility work, supportive footwear/orthotics, and graded return | Indirect endurance-sport | PMC9937638 |
| 67 | Shin | Medial tibial stress syndrome | Treatment of medial tibial stress syndrome: a systematic review | Winters et al. | 2013 | Sports Med | Systematic review | Athletes and military | During / recurrent | Various (ESWT most promising) | No treatment was free of methodological bias, but extracorporeal shockwave therapy appeared most promising | Indirect endurance-sport | PMID 23979968 |
| 68 | Shin | Shin splints prevention | The prevention of shin splints in sports: a systematic review of literature | Thacker et al. | 2002 | Med Sci Sports Exerc | Systematic review | Athletes, military recruits | Recurrent (prevention) | Insoles, heel pads, stretching, footwear, graded running | Little objective evidence supports common prevention measures; shock-absorbing insoles had the most encouraging evidence | Indirect endurance-sport | PMID 11782644 |
| 69 | Shin | Medial tibial stress syndrome prevention | Preventive interventions for medial tibial stress syndrome: Systematic review and meta-analysis | Marques et al. | 2025 | Gait Posture | Systematic review + meta-analysis (12 studies, n=8197) | RCTs of MTSS prevention | Recurrent (prevention) | Neuromuscular training, overpronation insoles | Neuromuscular training and overpronation insoles prevent MTSS; shock-absorbing insoles, stretching, and special socks did not | Indirect endurance-sport | PMID 40633262 |
| 106 | Lower leg | Chronic exertional compartment syndrome | Chronic Exertional Compartment Syndrome | Braver | 2016 | Clin Podiatr Med Surg | Review | Athletes | During | Compartment fasciotomies + ancillary procedures | Detailed compartment fasciotomy techniques are described to allow athletes to return to competitive activity | Indirect endurance-sport | PMID 27013413 |
| 110 | Lower leg | Chronic exertional compartment syndrome (surgery) | Surgical Management for Chronic Exertional Compartment Syndrome of the Leg: A Systematic Review of the Literature | Campano et al. | 2016 | Arthroscopy | Systematic review | Young athletic patients (54% military, 29% athletes) | During | Operative fasciotomy | Primary operative management succeeded in ~two-thirds of young athletic patients, with 84% satisfied at short-to-mid-term follow-up | Indirect endurance-sport | PMID 27020462 |
Region 9 — Ankle & Achilles tendon (Rows 70–78)
| # | Region | Condition | Title | First author et al. | Year | Journal | Study type | Sample context | Pain timing | Treatment/prevention/rehab | Key finding | Relevance | Source |
|---|---|---|---|---|---|---|---|---|---|---|---|---|---|
| 70 | Achilles | Mid-portion Achilles tendinopathy | Eccentric exercise is more effective than other exercises in the treatment of mid-portion Achilles tendinopathy: systematic review and meta-analysis | Prudêncio et al. | 2023 | BMC Sports Sci Med Rehabil | Systematic review + meta-analysis (8 studies) | Active adults with mid-portion AT; runners mentioned | Recurrent | Eccentric exercise | Evidence supports eccentric exercise, with a significant positive pain effect vs other conservative treatments | Indirect endurance-sport | PMC9878810 |
| 71 | Achilles | Chronic mid-portion Achilles tendinopathy | A comparison between the efficacy of eccentric exercise and extracorporeal shock wave therapy on tendon thickness, vascularity, and elasticity in Achilles tendinopathy: A randomized controlled trial | Benli et al. | 2022 | Turk J Phys Med Rehabil | Randomized controlled trial (n=63) | Chronic mid-portion AT patients | Recurrent | Eccentric exercise vs extracorporeal shockwave | Both helped short-term, but eccentric exercise gave superior long-term pain relief and improved tendon thickness/stiffness | General exercise | PMC9706787 |
| 72 | Achilles | Non-insertional Achilles tendinopathy | A 3-Arm Randomized Trial for Achilles Tendinopathy: Eccentric Training, Eccentric Training Plus a Dietary Supplement, or Passive Stretching Plus a Dietary Supplement | Balius et al. | 2016 | Curr Ther Res Clin Exp | Randomized controlled trial (n=55 ITT) | Adults with mid-portion AT ≥3 months | Recurrent | Eccentric training ± mucopolysaccharide/collagen/vitamin C supplement | All three treatments improved pain/function; the supplement added benefit over eccentrics alone in reactive tendinopathy | General exercise | PMC5198794 |
| 73 | Achilles | Achilles tendinopathy (preclinical) | Treatment options for Achilles tendinopathy: a scoping review of preclinical studies | Opoku Agyeman-Prempeh et al. | 2025 | PeerJ | Scoping review (98 preclinical studies) | In vitro / animal models | n.a. | 65 treatment options (preclinical) | 80% of preclinical studies reported improvement, but most had uncertain-to-high bias risk and clinical translation lags | General exercise | PMC11727660 |
| 74 | Ankle | Ankle sprain | Management and treatment of ankle sprain according to clinical practice guidelines: A PRISMA systematic review | Ruiz-Sánchez et al. | 2022 | Medicine (Baltimore) | PRISMA systematic review (7 CPGs) | Ankle-sprain patients; common in athletes | Immediately after / recurrent | Ottawa rules, manual therapy, cryotherapy, functional support, early ambulation, short-term NSAIDs, rehab | Six highly recommended measures: Ottawa rules, manual therapy, cryotherapy, functional support, early ambulation, NSAIDs, and rehabilitation | Indirect endurance-sport | PMC9592509 |
| 75 | Achilles | Mid-portion Achilles tendinopathy | Clinical improvement after 6 weeks of eccentric exercise in patients with mid-portion Achilles tendinopathy—a randomized trial with 1-year follow-up | Roos et al. | 2004 | Scand J Med Sci Sports | Randomized controlled trial (n=44) | Primary-care patients; 65% active in sports | Recurrent | Eccentric exercise (vs night splint) | Eccentric exercise reduced pain and improved function at 6 weeks, lasting 1 year, with more return to sport than the splint group | General exercise | PMID 15387802 |
| 76 | Achilles | Chronic mid-portion Achilles tendinopathy | Heavy Slow Resistance Versus Eccentric Training as Treatment for Achilles Tendinopathy: A Randomized Controlled Trial | Beyer et al. | 2015 | Am J Sports Med | Randomized controlled trial (n=58) | Chronic mid-portion AT patients | Recurrent | Heavy slow resistance vs eccentric training | Both produced equally good lasting results; heavy slow resistance trended toward greater 12-week satisfaction (not at 52 weeks) | General exercise | PMID 26018970 |
| 77 | Achilles | Chronic Achilles tendinopathy | Conservative Treatment of Chronic Achilles Tendinopathy: A Systematic Review | Pavone et al. | 2019 | J Funct Morphol Kinesiol | Systematic review | Athletes, runners, jumpers, sedentary | Recurrent | Eccentric exercise training (gold standard) | No conservative therapy is universally accepted except eccentric exercise training, considered the gold standard | Indirect endurance-sport | PMID 33467361 |
| 78 | Achilles | Achilles tendinopathy (comparative) | Which treatment is most effective for patients with Achilles tendinopathy? A living systematic review with network meta-analysis of 29 randomised controlled trials | van der Vlist et al. | 2021 | Br J Sports Med | Living systematic review + network meta-analysis (29 RCTs) | Insertional/mid-portion AT patients | Recurrent | Multiple active treatments vs wait-and-see | Wait-and-see is not recommended; active treatments were superior at 3 months, with no clinically relevant difference between them | Indirect endurance-sport | PMID 32522732 |
Region 10 — Foot & heel (Rows 79–88, 107)
| # | Region | Condition | Title | First author et al. | Year | Journal | Study type | Sample context | Pain timing | Treatment/prevention/rehab | Key finding | Relevance | Source |
|---|---|---|---|---|---|---|---|---|---|---|---|---|---|
| 79 | Heel | Plantar fasciitis | A Systematic Review of Systematic Reviews on the Epidemiology, Evaluation, and Treatment of Plantar Fasciitis | Rhim et al. | 2021 | Life (Basel) | Systematic review of systematic reviews (96 SRs) | General + athletic populations; prevalent in runners | Recurrent | ESWT, PRP; exercise therapy (limited evidence) | Elevated BMI is the most consistent non-athlete risk factor; ESWT and PRP appear safe/effective longer-term | Direct running-specific | PMC8705263 |
| 80 | Heel | Plantar fasciitis | Comprehensive Review and Evidence-Based Treatment Framework for Optimizing Plantar Fasciitis Diagnosis and Management | Nweke | 2025 | Cureus | Comprehensive review (30 treatments) | Athletes and non-athletes | Recurrent | Four-phase stepped care (conservative first, surgery last) | A four-phase framework prioritizes low-risk conservative therapies first, escalating only for recalcitrant cases | Indirect endurance-sport | PMC12294660 |
| 81 | Midfoot | Navicular stress fracture | Tarsal navicular stress fractures | Shakked et al. | 2017 | Curr Rev Musculoskelet Med | Narrative review | Athletes; short-distance runners, basketball | During / delayed | Non-operative vs operative (trend to operative) | Some navicular stress fractures heal non-operatively, but there is a trend toward operative management for definitive healing and faster return | Indirect endurance-sport | PMC5344863 |
| 82 | Midfoot | Navicular stress fracture | Navicular stress fractures: outcomes of surgical and conservative management | Potter et al. | 2006 | Br J Sports Med | Retrospective case study (n=26, 32 fractures) | Athletes | During / delayed | Surgical fixation vs conservative | Surgical fixation was as effective as conservative management long-term, with no significant differences in pain, function, or CT abnormality | Indirect endurance-sport | PMC2579456 |
| 83 | Midfoot | Navicular stress fracture | Review of Current Management of Navicular Stress Fractures in Athletes | Modica et al. | 2026 | Sports Health | Retrospective literature review | High-level/professional athletes; runners cited | During / delayed | ORIF (low threshold in young high-level athletes) | ORIF is reasonable with a low threshold in young high-level athletes, showing faster return and fewer complications for type 2/3 fractures | Indirect endurance-sport | PMC13017644 |
| 84 | Foot | Foot stress fractures | Stress fractures of the foot - current evidence on management | Paavana et al. | 2024 | J Clin Orthop Trauma | Narrative review | Athletes, military, civilians incl. runners | During / delayed | Activity modification/NWB for low-risk; surgery for high-risk; footwear/load prevention | Management depends on location/risk; low-risk fractures often heal conservatively while high-risk may need surgery | Indirect endurance-sport | PMC10904895 |
| 85 | Heel | Plantar fasciitis | Plantar fascitis: evidence-based review of treatment | Lafuente Guijosa et al. | 2007 | Reumatol Clin | Evidence-based review | Heel-pain patients | Recurrent | Soft insoles + plantar-fascia stretching first-line; steroid injection/iontophoresis if failure | Conservative soft insoles and plantar-fascia stretching should be first-line; injections give only transient benefit | General exercise | PMID 21794421 |
| 86 | Heel | Plantar fasciitis | Effects of therapeutic interventions on pain due to plantar fasciitis: A systematic review and meta-analysis | Guimarães et al. | 2023 | Clin Rehabil | Systematic review + meta-analysis (n=15,401) | Plantar fasciitis patients | Recurrent | Multiple (taping, stretching, injections, ESWT) | Many interventions helped short-term, but only extracorporeal shockwave therapy was effective medium- and long-term | General exercise | PMID 36571559 |
| 87 | Heel | Heel pain (guideline) | The diagnosis and treatment of heel pain: a clinical practice guideline-revision 2010 | Thomas et al. | 2010 | J Foot Ankle Surg | Clinical practice guideline | Heel-pain patients (general) | Recurrent | Guideline-directed conservative management | Heel pain is predominantly mechanical; this CPG revises the ACFAS heel-pain guideline for diagnosis and treatment | General exercise | PMID 20439021 |
| 88 | Heel | Plantar fasciitis (guideline) | Heel Pain – Plantar Fasciitis: Revision 2023 | Koc et al. | 2023 | J Orthop Sports Phys Ther | Clinical practice guideline | Plantar heel pain; higher incidence in runners | Recurrent | Manual therapy, fascia/calf stretching, taping, low-level laser, resistance exercise, dry needling | Recommends manual therapy, stretching, taping, laser, resistance exercise, and dry needling; advises against isolated orthoses/ultrasound | Direct running-specific | JOSPT 2023.0303 |
| 107 | Heel | Plantar heel pain (best practice) | Management of plantar heel pain: a best practice guide informed by a systematic review, expert clinical reasoning and patient values | Morrissey et al. | 2021 | Br J Sports Med | Systematic review (mixed-methods; 51 trials, n=4351) | People with plantar heel pain | Recurrent | Taping, stretching, individualized education; then shockwave, custom orthoses | Core treatment is taping, stretching, and individualized education, with stepped-care shockwave then custom orthoses for non-responders | Indirect endurance-sport | PMID 33785535 |
Region 11 — Forefoot & toes (Rows 89–95)
| # | Region | Condition | Title | First author et al. | Year | Journal | Study type | Sample context | Pain timing | Treatment/prevention/rehab | Key finding | Relevance | Source |
|---|---|---|---|---|---|---|---|---|---|---|---|---|---|
| 89 | Forefoot | Sesamoid injuries | Sesamoid Injuries in Pediatric and Adolescent Athletes Presenting to Sports Medicine Clinic | Stracciolini et al. | 2019 | Orthop J Sports Med | Retrospective chart review (n=326) | Pediatric/adolescent athletes incl. runners | During / recurrent | Walking boot, physical therapy, activity modification | Athletes who presented sooner returned to sport sooner; initial care was mostly walking boot, PT, and activity modification | Indirect endurance-sport | PMC6447960 |
| 90 | Toes/foot skin | Friction blisters | Friction Blisters of the Feet: A Critical Assessment of Current Prevention Strategies | Rushton & Richie | 2024 | J Athl Train | Critical-assessment narrative review | Sport/recreational/military incl. runners, ultramarathoners | During / recurrent | Padded acrylic socks, neoprene insoles, skin adaptation | Padded acrylic socks and neoprene insoles are supported; antiperspirants/powder are nonprotective and other strategies lack confirmation | Indirect endurance-sport | PMC10783476 |
| 91 | Toes/nail | Subungual hematoma | Subungual Hematoma | Akella et al. | 2023 | Cureus | Case report | 64-y-o male foot trauma (not runner) | Immediately after | Trephination/drainage | Trephination of a traumatic subungual hematoma gave complete pain resolution with no complications at 2 weeks | General exercise | PMC10726102 |
| 92 | Forefoot | Metatarsalgia | Metatarsalgia: a clinical review of diagnosis and management | Scranton | 1981 | Foot Ankle | Clinical case analysis (n=98) | 98 forefoot-pain patients | Recurrent | Diagnosis-specific treatment; nerve/joint blocks aid diagnosis | 23 distinct diagnoses were identified among 98 forefoot-pain patients; specialized tests aid diagnosis and treatment planning | General exercise | PMID 7262752 |
| 93 | Forefoot | Metatarsalgia | Scientific Evidence in the Treatment of Metatarsalgia | Klammer & Espinosa | 2019 | Foot Ankle Clin | Review | Metatarsalgia patients | Recurrent | Address underlying disease; various (limited evidence) | Identifying the underlying cause is mandatory; despite limited evidence, most treatment techniques appear reasonable | General exercise | PMID 31653364 |
| 94 | Forefoot | Sesamoid problems | Sesamoid foot problems in the athlete | McBryde & Anderson | 1988 | Clin Sports Med | Review | Athletes, particularly running-based sports | During / recurrent | Guided long-range treatment program | Sesamoid injuries need high suspicion, thorough diagnosis, and a guided long-range treatment program with follow-up | Indirect endurance-sport | PMID 3044622 |
| 95 | Forefoot | Hallucal sesamoid injury | Injuries to the hallucal sesamoids in the athlete | Richardson | 1987 | Foot Ankle | Case reports (incl. running) | Athletes | During / recurrent | Conservative first; excision if conservative fails/displaced | Excision is recommended for displaced fractures and for sesamoiditis/osteochondritis/nondisplaced fractures if conservative care fails | Indirect endurance-sport | PMID 3817668 |
Region 12 — Red flags, systemic & triage (Rows 96–103)
| # | Region | Condition | Title | First author et al. | Year | Journal | Study type | Sample context | Pain timing | Treatment/prevention/rehab | Key finding | Relevance | Source |
|---|---|---|---|---|---|---|---|---|---|---|---|---|---|
| 96 | Systemic | Exertional rhabdomyolysis | Exertional Rhabdomyolysis in the Athlete: A Clinical Review | Tietze & Borchers | 2014 | Sports Health | Clinical review | Athletes | During / delayed | Rest, hydration; risk-stratified return | Treatment includes rest and hydration, with high-risk athletes needing further evaluation and risk-stratified return | Indirect endurance-sport | PMC4065559 |
| 97 | Bone (systemic) | Bone stress injuries (adolescents) | Risk Factors, Diagnosis and Management of Bone Stress Injuries in Adolescent Athletes: A Narrative Review | Beck et al. | 2021 | Sports (Basel) | Narrative review | Adolescent athletes incl. runners | During / delayed | Prevention (bone loading, load management, energy/calcium/vitamin D) | Prevention is the gold standard; management is multidisciplinary with targeted loading, energy balance, and biomechanics correction | Indirect endurance-sport | PMC8073721 |
| 98 | Systemic | Exertional rhabdomyolysis | Exertional Rhabdomyolysis in Athletes: Systematic Review and Current Perspectives | Bäcker et al. | 2023 | Clin J Sport Med | Systematic review | Athletes; 54% running incl. marathons | During / delayed | Hydration (most common); screening | Hydration was the most common treatment; screening for muscle soreness/dark urine after endurance events is essential | Direct running-specific | PMID 36877581 |
| 99 | Systemic | Exertional rhabdomyolysis | Exertional Rhabdomyolysis during a 246-km continuous running race | Skenderi et al. | 2006 | Med Sci Sports Exerc | Observational study (n=39) | Spartathlon ultra-runners | Immediately after | (Characterization; monitoring) | Ultra-endurance running produced very high muscle/liver enzymes, suggesting even such exercise can induce asymptomatic rhabdomyolysis | Direct running-specific | PMID 16775544 |
| 100 | Systemic | Exertional rhabdomyolysis (ultra-trail) | Exertional Rhabdomyolysis and Ultra-Trail Races: A Systematic Review Highlighting the Significant Impact of Eccentric Load | Lecina et al. | 2024 | Muscles | Systematic review (15 studies, n=348) | Ultra-trail runners | Immediately after / delayed | (Risk characterization/prevention) | Exertional rhabdomyolysis is often misdiagnosed in ultra-trail races and may cause acute kidney injury; runner preparation is crucial | Direct running-specific | PMID 40757594 |
| 101 | Systemic | Rhabdomyolysis & acute renal failure | Exertional rhabdomyolysis and acute renal failure in marathon runners | Clarkson | 2007 | Sports Med | Narrative review | Marathon runners | Immediately after / delayed | (Risk-factor recognition) | Acute renal failure is infrequent but reflects a "perfect storm" of heat, dehydration, latent myopathy, NSAIDs, and infection | Direct running-specific | PMID 17465608 |
| 102 | Bone (systemic) | Bone stress injuries | Bone Stress Injuries: Diagnosis and Management | Schroeder et al. | 2024 | Am Fam Physician | Review | Younger overuse patients | During / delayed | Conservative for low-risk; sports med/ortho for high-risk | Early intervention reduces pain and promotes healing; low-risk sites are conservative, high-risk sites warrant specialist consultation | General exercise | PMID 39700362 |
| 103 | Bone (systemic) | Bone stress injuries (military) | Bone Stress Injuries in the Military: Diagnosis, Management, and Prevention | DeFroda et al. | 2017 | Am J Orthop | Review | Military recruits; endurance athletes | During / delayed | Reduced weight-bearing for low-risk; possible surgery + nutrition for high-risk | Low-risk injuries are treated with reduced weight-bearing; high-risk need monitoring/surgery and correction of nutritional deficiencies | Indirect endurance-sport | PMID 28856344 |
Evidence-Based Treatment Matrix by Condition
Each condition is grouped by how well the fetched evidence supports each approach: Supported (positive controlled/guideline evidence), Uncertain/Mixed (conflicting, low-quality, or preliminary), and Generally discouraged / not proven (evidence against, or repeatedly shown non-superior). Every entry traces to a row/source above.
| Condition | Supported | Uncertain / mixed | Generally discouraged / not proven |
|---|---|---|---|
| DOMS / EIMD (soreness) | Massage reduces soreness, esp. at 48 h (Guo 2017); cold-water immersion reduces soreness vs rest (Bleakley 2012); compression garments reduce strength loss/soreness (Li 2025, Kim 2017) | Photobiomodulation/sauna within 48 h (Chen 2025); cold-water immersion for fatigue markers (Xiao 2023) | Cold-water immersion not superior to active recovery for muscle inflammation (Peake 2016) |
| Exertional/primary exercise headache | Trigger avoidance + short-term NSAIDs/beta-blockers (expert-level) (Sandoe 2018, Upadhyaya 2020) | Overall treatment certainty is low; no RCTs (Sebastianelli 2025) | — (secondary causes must be excluded first) |
| Athlete neck pain | Deficit-based therapeutic/neck-specific exercise (Durall 2012, Noormohammadpour 2018) | Isolated running-specific evidence lacking | — |
| Side stitch / ETAP | Avoid pre-exercise large/hypertonic meals; improve posture/core; stop exercise for relief (Morton 2014) | Underlying mechanism unresolved (Morton 2003) | — |
| Low back pain (athletes/runners) | Exercise therapy reduces pain/improves function (Thornton 2021); warm-up, avoid fatigue, good posture (Wu 2021) | Manual therapy or biomechanical modification alone (insufficient) (Thornton 2021) | — |
| Groin/adductor pain | Active rehab + hip/core strengthening; adductor-squeeze screening (Tedeschi 2025, Tyler 2010) | Surgery timing vs conservative in refractory cases (Tedeschi 2025) | — |
| Greater trochanteric pain syndrome | Load management + gluteal strengthening (Speers 2017) | Shockwave therapy (promising) (Speers 2017) | Corticosteroid injection for lasting benefit (only short-term) (Speers 2017) |
| Femoral neck stress fracture | Conservative for compression-side; urgent surgery for displaced (Robertson 2017, Malla 2025) | — | Continuing to run on suspected femoral neck stress fracture (high-risk) (Robertson 2017) |
| Hamstring strain / tendinopathy | Eccentric exercise + progressive high-speed running/hip-extensor work (Hickey 2021, Marigi 2022, Fredericson 2005); operative repair for complete avulsion (Degen 2019) | Choice among adjuncts; shockwave for proximal tendinopathy (Nasser 2021) | — |
| Quadriceps strain/contusion | RICE + staged rehab; flexion immobilization for contusion (Kary 2010, Kaeding 1995) | Tendinopathy injections (PRP/polidocanol) after failed first-line (King 2019) | — |
| Patellofemoral pain | Hip + knee strengthening, patient education (Santos 2015, Fukuda 2012, Mellinger 2019) | Hip vs knee vs free activity (no 1-year difference) (Hott 2020); gait retraining (under review) (Xiao 2021) | Taping/braces/ultrasound as stand-alone therapy (not proven) (Arnold 2018) |
| Iliotibial band syndrome | Activity modification + hip strengthening/flexibility; running-form retraining (Fredericson 2005, van der Worp 2012, Shamus 2015) | Overall conservative evidence conflicting/low-quality (Ellis 2007, Beals 2013) | — |
| Patellar tendinopathy | Eccentric/isometric exercise (first-line) (Vander Doelen 2020, Arnold 2018) | PRP, dry needling as adjuncts (Vander Doelen 2020) | Dry needling / needle electrolysis added to eccentrics (not superior) (López-Royo 2021); patellar taping/ESWT (per running review) (Arnold 2018) |
| Medial tibial stress syndrome (shin splints) | Rest, training modification, footwear/orthotics (Galbraith 2009, Bhusari 2023); neuromuscular training + overpronation insoles for prevention (Marques 2025) | Extracorporeal shockwave therapy (most promising but biased evidence) (Winters 2013) | Shock-absorbing insoles, static stretching, special socks for prevention (no effect) (Marques 2025, Thacker 2002) |
| Tibial/lower-limb stress fracture | Load modification + graded return; risk-factor correction (Kahanov 2015, Hadjispyrou 2023) | — | Running through pain (delays healing) (Arnold 2018) |
| Chronic exertional compartment syndrome | Fasciotomy for those maintaining activity (Tucker 2010, Campano 2016) | Gait retraining, botulinum toxin (conservative) (Tarabishi 2023) | — |
| Achilles tendinopathy | Eccentric exercise (gold standard); heavy slow resistance equally effective (Prudêncio 2023, Roos 2004, Beyer 2015, Pavone 2019) | Shockwave, supplements as adjuncts (Benli 2022, Balius 2016); active treatments comparable (van der Vlist 2021) | Wait-and-see (inferior to active treatment) (van der Vlist 2021) |
| Ankle sprain | Ottawa rules, manual therapy, cryotherapy, functional support, early ambulation, short-term NSAIDs, rehab (Ruiz-Sánchez 2022, Arnold 2018) | — | Prolonged immobilization (early mobilization/functional bracing preferred) (Arnold 2018) |
| Plantar fasciopathy / heel pain | Plantar-fascia + calf stretching, taping, manual therapy, education, resistance exercise (Koc 2023, Morrissey 2021, Lafuente 2007); ESWT medium/long-term (Guimarães 2023) | PRP; custom orthoses for non-responders (Rhim 2021, Morrissey 2021) | Isolated orthoses / ultrasound for stretching benefit (advised against) (Koc 2023) |
| Navicular / foot stress fracture | Risk-based management; ORIF a reasonable low-threshold option in young high-level athletes (Modica 2026, Shakked 2017) | Surgical vs conservative comparable long-term (Potter 2006) | — |
| Metatarsalgia / sesamoid | Diagnosis-specific care; sesamoid: conservative first, excision if failure/displaced (Klammer 2019, Richardson 1987, Stracciolini 2019) | Limited overall evidence base (Klammer 2019) | — |
| Friction blisters | Padded acrylic socks, neoprene insoles, skin adaptation (Rushton 2024) | Paper tape, double-sock systems (equivocal) (Rushton 2024) | Antiperspirants and powder (nonprotective) (Rushton 2024) |
| Subungual hematoma | Trephination/drainage for painful hematoma (Akella 2023) | — | — |
| Exertional rhabdomyolysis | Rest + hydration; screening after heavy endurance events (Tietze 2014, Bäcker 2023) | — | Ignoring dark urine/severe soreness after endurance events (risk of AKI) (Clarkson 2007, Lecina 2024) |
Practical Interpretation for a Runner
- Soreness is not the same as injury. Diffuse, symmetric muscle soreness peaking 24–48 h after a hard or novel session is classic DOMS and resolves on its own; massage, compression, and cold-water immersion can ease symptoms but do not appear necessary for healing (Guo 2017, Bleakley 2012, Peake 2016). Localized, sharp, or worsening pain — especially over bone — deserves attention.
- Load management is the common thread. Across the knee, shin, Achilles, and foot literature, the winning strategy is graded loading plus targeted strengthening rather than passive rest alone (Mellinger 2019, Kahanov 2015, Pavone 2019).
- Eccentric/heavy-slow strengthening is the best-supported tendon treatment. This is consistent for Achilles tendinopathy and is recommended for patellar and hamstring tendinopathy (Roos 2004, Beyer 2015, Vander Doelen 2020).
- Hip strength helps the knee. Multiple studies show hip strengthening reduces patellofemoral and iliotibial-band pain (Santos 2015, Fukuda 2012, van der Worp 2012).
- Some popular fixes are not proven. Static stretching and special socks did not prevent shin splints (Marques 2025); taping/braces/ultrasound as stand-alone patellofemoral therapy are unproven (Arnold 2018); and adding needling to eccentrics did not beat eccentrics alone for patellar tendinopathy (López-Royo 2021).
Red Flags and Triage (Seek Prompt Medical Evaluation)
These are drawn from authoritative clinical literature in this review. They are reasons to stop and get evaluated rather than self-treat.
- Chest pain, shoulder-tip pain, or breathlessness that is not a classic transient side stitch. A true side stitch is benign, localized, and fleeting and can be diagnosed by history/exam, but atypical chest symptoms require exclusion of other causes (Eichner 2006, Morton 2000).
- Sudden "thunderclap" or new/atypical exercise headache. Primary exercise headache is a diagnosis of exclusion; secondary (dangerous) causes must be ruled out before it is labeled benign (Sandoe 2018).
- Dark/cola-colored urine with severe muscle pain or swelling after heavy/eccentric or ultra-endurance running — suspect exertional rhabdomyolysis, which can progress to acute kidney injury; hydrate and seek evaluation (Bäcker 2023, Clarkson 2007, Lecina 2024).
- Focal bone pain, night pain, or pain with hopping/weight-bearing — suspect a stress injury. High-risk sites (femoral neck, navicular, anterior tibia) can worsen or displace and need specialist evaluation, not "running through it" (Robertson 2017, Schroeder 2024, Shakked 2017).
- Inability to bear weight after an ankle injury — the Ottawa ankle rules help decide whether imaging is needed (Ruiz-Sánchez 2022).
- Progressive numbness, tingling, or foot-drop with exertional leg pain — chronic exertional compartment syndrome or nerve involvement should be evaluated (Tarabishi 2023).
Limitations
- Soreness vs injury. Much of the DOMS literature uses non-runners and eccentric-exercise models, so it describes normal soreness recovery rather than injury treatment; it should not be read as evidence about how to treat a true running injury (Bleakley 2012, Peake 2016).
- Heterogeneous "runner" definitions. Studies mix novices, recreational, marathon, ultra-trail, and elite runners — and often lump runners with other athletes or military recruits — which limits how directly findings transfer to any one runner (Kakouris 2021, van der Worp 2012, Campano 2016).
- Sparse upper-body evidence. Running-specific evidence for head, neck, shoulder, and arm pain is thin; several rows here rely on general exercise or endurance-sport populations and are flagged as such rather than presented as running-specific certainty (Durall 2012, Silva 2015, Upadhyaya 2020).
- Variable study quality. Several key areas rest on protocols, case reports, or low-quality evidence (e.g., proximal hamstring tendinopathy, ITBS, MTSS), and multiple systematic reviews explicitly note methodological bias or conflicting results (Nasser 2021, Ellis 2007, Winters 2013).
- Not a diagnosis. This document summarizes published evidence for education. It cannot diagnose your specific pain, and treatment choices should be individualized with a qualified clinician. Where a source did not confirm a value, the cell reads
n.a.rather than a guess.
Summary Count
- Unique verified peer-reviewed papers: 110 (target was ≥60; deduplicated by PMID/DOI and title, with one ETAP duplicate removed).
- Regional coverage: All 13 requested regions represented — generalized muscle/DOMS (10), head & neck (6), shoulder/arm (5), chest/abdomen/back (7), pelvis/hip/groin (9), buttock/hamstring (7), quadriceps/anterior thigh (6), knee (14), shin/lower leg (11), ankle/Achilles (9), foot/heel (11), forefoot/toes (7), red flags/systemic (8).
- Every row's factual values and every inline claim were verified from a page fetched in this research session, with the exact URL shown next to each.
Prepared as an educational literature synthesis. Not a substitute for individualized medical diagnosis or treatment.