Medically reviewed by Dr. Tom Biernacki, DPM
Board-certified podiatric surgeon | Balance Foot & Ankle
Last reviewed: April 2026
Quick answer: Lacrosse foot injuries include ankle sprains (most common), turf toe from artificial turf play, plantar fasciitis, metatarsal stress fractures, and Achilles tendinopathy. The sport’s combination of rapid directional changes, explosive acceleration, and both natural grass and artificial turf surfaces creates high foot and ankle stress. Ankle sprain rates in lacrosse are among the highest in field sports, driven by cleat-ground interactions during cutting movements.
Lacrosse is one of the fastest-growing sports in the United States, with youth, high school, and college programs expanding rapidly. As a podiatrist at Balance Foot & Ankle in Howell and Bloomfield Hills, Michigan, I’ve seen lacrosse-specific foot and ankle injuries increase proportionally with the sport’s growth.
The sport’s demands — explosive cutting in all directions, long sprints, rapid stops, and play on both natural grass and artificial turf — create a foot and ankle injury profile similar to soccer and football, with some lacrosse-specific nuances based on the sport’s unique movement patterns and footwear.
Ankle Sprains: Lacrosse’s Most Common Injury
Lateral ankle sprains are the most common injury in lacrosse, accounting for 15–20% of all injuries in epidemiological studies of collegiate lacrosse. The cutting, pivoting, and rapid directional changes required by both attack and defensive play create constant lateral ankle loading that exceeds what the ligaments can reliably resist.
Women’s lacrosse players have particularly high ankle sprain rates — partly because women’s lacrosse has historically required lighter footwear with less ankle support than men’s lacrosse (which allows high-top cleats and more protective footwear).
High-Risk Movements in Lacrosse
- Dodge moves: the split dodge, face dodge, and roll dodge all require explosive planting with immediate direction reversal — maximum ATFL stress
- Ground ball scrambles: unexpected foot-to-foot contact and uneven ball landing positions create inversion injury risk
- Goalkeeper diving: goalkeepers often land with the foot in vulnerable positions
- Turf cleats catching: artificial turf cleats have higher friction than grass cleats — slower foot release during cutting
Prevention
- Lace-up ankle braces: the most evidence-based prevention — 50–70% reduction in ankle sprain incidence in braced players
- High-top cleats: men’s lacrosse allows high-top options that provide meaningful external ankle support
- Neuromuscular training: balance and landing programs (FIFA 11+ or similar) reduce sprain incidence 30–40%
- Proprioception work: single-leg balance on unstable surfaces 5 minutes daily
- Gradual return after sprains: don’t return to full play until equal single-leg balance is restored
Turf Toe in Lacrosse
Turf toe — hyperextension sprain of the first MTP joint — is common in lacrosse players who play on artificial turf. Artificial turf surfaces have higher traction than natural grass; when the foot is planted and the player drives forward, the big toe can be forced into hyperextension against the turf surface.
Lacrosse cleats designed for maximum grip on artificial turf amplify this risk. Players with turf toe history who play primarily on artificial surfaces benefit from wearing a rigid plate insert in their cleats and potentially switching to turf shoes (rubber nub sole) rather than traditional cleats for artificial turf play.
Grading and Return to Play
- Grade I: mild sprain — can continue play with taping that limits extension; 1–3 days
- Grade II: partial plantar plate tear — rigid plate insert in cleat, limited play for 1–2 weeks
- Grade III: complete disruption — 3–6 weeks minimum; MRI to assess sesamoid and plantar plate status
Plantar Fasciitis in Lacrosse Players
The repetitive explosive acceleration and deceleration of lacrosse play creates significant plantar fascia tensile load. Players who increase training volume rapidly — particularly during pre-season conditioning and the transition from off-season to in-season — are at highest risk.
Lacrosse cleats are often not as supportive as dedicated running shoes, lacking adequate arch support and cushioning for the volume of running and cutting involved. Custom orthotics fitted to lacrosse cleats are among the most impactful interventions for lacrosse players with plantar fasciitis history.
In-Season Management
- Cleat orthotics: custom-fabricated for the specific cleat dimensions
- Night splints: worn every night during season — reduces morning first-step pain
- Pre-practice protocol: calf stretching 3 x 30 seconds mandatory before every practice and game
- Ice post-practice: 20 minutes on the heel after every session
- Corticosteroid injection: for severe acute flares — one maximum per season
Metatarsal Stress Fractures in Lacrosse
Metatarsal stress fractures — most commonly the 2nd and 3rd metatarsals — develop in lacrosse players from repetitive forefoot loading during sprinting and cutting. The 5th metatarsal Jones fracture is the most serious, occurring during the explosive lateral cutting movements that are fundamental to lacrosse.
Lacrosse has a higher than expected Jones fracture rate due to the sport’s emphasis on lateral acceleration and deceleration. As with basketball and football, competitive lacrosse players with Jones fractures typically elect intramedullary screw fixation rather than conservative management to ensure reliable and timely return to sport.
Recognizing Stress Fractures in the Field
- Progressive forefoot pain that worsens over days rather than improving with rest
- Pinpoint tenderness over a specific metatarsal shaft (not diffuse soreness)
- Pain with weight-bearing that is specifically located to the forefoot
- History of rapid training increase or return from off-season
⚠️ Stop play and seek evaluation if:
- You have sharply localized forefoot bone pain that worsens with activity
- Lateral foot pain after a cutting movement doesn’t resolve in 1 week (possible Jones fracture)
- Forefoot pain is present at rest or wakes you at night
- Any player with known low bone density or nutritional concerns who develops foot pain
Achilles Tendinopathy in Lacrosse
Lacrosse’s explosive acceleration demands — driving from a standstill into full sprint, and then stopping to dodge — create high eccentric Achilles loading. Mid-portion Achilles tendinopathy (pain 2–6 cm above the heel) develops gradually in players who increase sprint volume without adequate rest.
The characteristic presentation: stiffness and pain at the back of the ankle for the first 10–15 minutes of practice that ‘warms up’ and improves with continued activity, but returns after stopping. This pattern is classic for mid-portion tendinopathy and should prompt immediate load modification and the eccentric heel drop protocol.
Cleat Selection for Lacrosse
Cleat selection in lacrosse has meaningful foot health implications. The sport allows multiple cleat configurations, and the choice between low-cut, mid-cut, and high-top options significantly affects ankle sprain risk.
- Men’s lacrosse: high-top cleats provide ankle support without meaningful performance penalty for most field positions; goalkeepers benefit from high-top protection
- Women’s lacrosse: rules restrict footwear less rigidly; high-top soccer or lacrosse cleats are available and recommended for players with ankle instability history
- Turf vs. grass cleats: molded rubber nub turf shoes reduce turf toe risk on artificial surfaces; traditional cleats are appropriate for natural grass
- Wide toe box: critical for players with Morton’s neuroma, bunions, or wide forefeet
- Replacement frequency: replace cleats every 80–100 hours of play — midsole compression is invisible but degrades cushioning significantly
Frequently Asked Questions
How common are ankle sprains in lacrosse?
Ankle sprains are the most common injury in lacrosse, accounting for 15–20% of all injuries in collegiate lacrosse studies. The sport’s rapid cutting and direction change demands create high lateral ankle loading. Prevention: lace-up ankle braces, proprioceptive training, and appropriate cleat selection. Players with prior sprains are at 3–5x higher risk for re-injury and should always brace.
What is turf toe in lacrosse?
Turf toe is a hyperextension sprain of the first MTP (big toe) joint, most common in lacrosse players who play on artificial turf. High-traction cleats on artificial surfaces prevent the foot from releasing normally during forward drives, forcing the big toe into hyperextension. Treatment: rigid plate insert in the cleat limits extension; Grade I can play through with taping; Grade II–III require 1–6 weeks of load modification.
Can I prevent plantar fasciitis in lacrosse?
Yes — with custom orthotics fitted to lacrosse cleats, aggressive calf stretching before every practice, and replacing worn cleats. Players with flat feet or prior plantar fasciitis history should see a podiatrist before the season to have orthotics fabricated and a prevention program established. Plantar fasciitis managed proactively rarely stops play; reactive management is far less effective.
Is a Jones fracture serious for a lacrosse player?
Yes — a Jones fracture (5th metatarsal base fracture at the watershed blood supply zone) has poor healing rates with conservative management (50–75% at best) and high re-fracture risk. Competitive lacrosse players typically elect intramedullary screw fixation for reliable return to sport within 6–8 weeks. Lateral foot pain after a cutting movement that persists more than 5–7 days needs X-ray evaluation.
Should lacrosse players wear ankle braces?
Yes — especially players with any prior ankle sprain history. Lace-up braces (ASO, McDavid 195, Zamst A2-DX) reduce recurrent ankle sprain incidence by 50–70% in court and field sports. For players without prior injury, bracing is still recommended during the high-risk pre-season conditioning period and on artificial turf where cutting forces are higher.
Sources
- Hinton RY, Lincoln AE, Almquist JL et al. Epidemiology of lacrosse injuries in high school aged girls and boys. Am J Sports Med. 2005.
- Xiang J, Sinclair SA, Lal A. Paediatric lacrosse injuries treated in US emergency departments, 1990–2003. Br J Sports Med. 2008.
- Lincoln AE, Caswell SV, Almquist JL et al. Trends in concussion incidence in high school sports. Am J Sports Med. 2011.
- Taunton JE et al. A retrospective case-control analysis of 2002 running injuries. Br J Sports Med. 2002.
- Anderson RB, Hunt KJ, McCormick JJ. Management of common sports-related injuries about the foot and ankle. J Am Acad Orthop Surg. 2010.
- US Lacrosse. Participation Survey 2025. uslacrosse.org. 2025.
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When Shoes Aren’t Enough — Dr. Tom’s Top 9 Orthotics
About 30% of patients I see for foot pain need MORE than a great shoe — they need a structured insole. Below: my complete 2026 orthotic ranking with pros, cons, and the specific patient I’d give each one to.
★ DR. TOM’S COMPLETE 2026 ORTHOTIC RANKING
9 Best Prefab Orthotics by Use Case
PowerStep, CURREX, Spenco, Vionic, and Tread Labs — every orthotic I’ve fitted to thousands of patients across both Michigan offices. Each card includes pros, cons, and the specific patient I’d give it to. Real Amazon ratings, review counts, and prices below.
Best All-Purpose Orthotic for Most Patients
Semi-rigid arch shell + dual-layer cushion + deep heel cup. The orthotic I’ve fitted to more patients than any other for 15 years. APMA-accepted. Trim-to-fit design works in athletic shoes, casual shoes, and most work boots.
✓ Pros
- Semi-rigid arch shell provides true biomechanical correction
- Deep heel cup centers the heel and reduces lateral instability
- Dual-layer cushion (top + bottom) lasts 9-12 months daily wear
- Available in 8 sizes for precise fit
- APMA-accepted and clinically validated
- APMA-accepted with superior cushioning versus rigid alternatives
✗ Cons
- Too thick for most dress shoes (use ProTech Slim instead)
- Some break-in period required (3-7 days for arch tolerance)
- Not enough correction for severe pes planus or rigid pes cavus
Dr. Tom’s Recommendation: If a patient has run-of-the-mill plantar fasciitis, mild flat feet, or arch fatigue, this is the first orthotic I try. Better value than most premium alternatives for 90% of patients, which is why it’s the first orthotic I reach for in the clinic. Sub-$50 typically.
Maximum Motion Control · Flat Feet & Severe Over-Pronation
PowerStep’s most aggressive stability orthotic. Adds a 2°-7° medial heel post on top of the standard PowerStep platform — designed specifically for flat-footed patients and severe pronators who need real corrective force.
✓ Pros
- 2°-7° medial heel post adds aggressive pronation control
- Same trusted PowerStep arch shell, more correction
- Built specifically for flat-foot biomechanics
- Excellent for posterior tibial tendon dysfunction (PTTD)
- Removable top cover for cleaning
✗ Cons
- Too aggressive for neutral-arch patients
- Needs longer break-in (10-14 days) due to stronger correction
- Adds 2-3 mm of stack height — won’t fit slim dress shoes
Dr. Tom’s Recommendation: When a patient comes in with significant flat feet AND symptoms (heel pain, arch pain, knee pain), the Original PowerStep isn’t aggressive enough. The Maxx is what gets prescribed. About 25% of my flat-footed patients end up here.
Low-Profile · Fits Dress Shoes & Narrow Casuals
3 mm slim profile with podiatrist-designed tri-planar arch technology. Engineered specifically to fit inside dress shoes, oxfords, loafers, and women’s flats without crowding the toe box. Vionic was founded by an Australian podiatrist.
✓ Pros
- 3 mm slim profile (vs 7-10 mm for standard orthotics)
- Tri-planar arch technology adds support without bulk
- Built-in deep heel cup despite slim design
- Fits dress shoes WITHOUT having to remove the factory insole
- Trim-to-fit · APMA-accepted
✗ Cons
- Less arch support than full-volume orthotics
- Top cover wears faster than thicker alternatives
- Not enough correction for severe foot deformities
Dr. Tom’s Recommendation: My default when a patient says ‘I need orthotics but I have to wear dress shoes for work.’ Slim enough to fit in oxfords and pumps without the heel sliding out. The single highest-impact change you can make for office workers with foot pain.
Built-In Metatarsal Pad · Morton’s Neuroma · Ball-of-Foot Pain
Standard Pinnacle orthotic with a built-in metatarsal pad positioned proximal to the metatarsal heads — the exact location that offloads neuromas and metatarsalgia. No need for separate met pads or pad placement guesswork.
✓ Pros
- Built-in met pad eliminates DIY pad placement errors
- Specifically designed for Morton’s neuroma + metatarsalgia
- Same trusted PowerStep arch + heel cup platform
- Top cover protects sensitive forefoot skin
- Faster relief than orthotics + add-on met pads
✗ Cons
- Met pad position is fixed (can’t fine-tune individual placement)
- Some patients with very small or very large feet need custom
- Slightly thicker than the standard Pinnacle
Dr. Tom’s Recommendation: If a patient has Morton’s neuroma, sesamoiditis, or generalized ball-of-foot pain (metatarsalgia), this saves a clinic visit and a prescription. The built-in pad placement is anatomically correct for 80% of feet. Way better than DIY met pads.
Adaptive Dynamic Arch · Athletic & Daily Wear
Currex’s flagship adaptive arch technology — the orthotic flexes with your gait instead of fighting it. Different stiffness zones along the length give you targeted support at the heel, midfoot, and forefoot. Available in three arch heights (low/medium/high).
✓ Pros
- Dynamic flex zones adapt to natural gait cycle
- Three arch heights ensure precise fit
- Lighter than rigid orthotics (no ‘heavy foot’ feel)
- Excellent for runners and athletic walkers
- European podiatric design (German engineering)
✗ Cons
- More expensive than PowerStep Original ($55-65 typically)
- Less aggressive correction than Pinnacle Maxx for severe cases
- Three arch heights means you must self-select correctly
Dr. Tom’s Recommendation: I started recommending Currex three years ago for runners who said PowerStep felt ‘too rigid.’ The dynamic flex zones respect natural gait. Best for active patients who walk 8K+ steps daily and don’t need maximum motion control.
Running-Specific · Heel Strike + Forefoot Strike Compatible
Currex’s purpose-built running orthotic. The midfoot flex zone is positioned for runner’s gait mechanics, with a flared heel cushion for heel strikers and a forefoot rocker for midfoot/forefoot strikers. Tested on 1000+ runners during product development.
✓ Pros
- Designed by German biomechanics lab specifically for runners
- Dynamic arch flexes with running gait (not static like PowerStep)
- Three arch heights (low/medium/high)
- Reduces overuse injury risk in mid-distance runners
- Lightweight (no impact on cadence)
✗ Cons
- Premium price ($60-75)
- Not aggressive enough for severe over-pronators (use Pinnacle Maxx)
- Runner-specific design = less ideal for daily walking shoes
Dr. Tom’s Recommendation: If a patient runs 20+ miles per week and has plantar fasciitis or shin splints, this is the orthotic I prescribe. The dynamic flex zones respect running biomechanics in a way that no rigid PowerStep can match. Pricier but worth it for serious runners.
Cavus Foot & High-Arch Patients
Polyurethane base with a deeper heel cup and higher arch profile than PowerStep — built for cavus (high-arched) feet that need maximum cushion and support. The 5-zone cushioning system addresses the unique pressure points of high-arch feet.
✓ Pros
- Deeper heel cup centers the heel for cavus foot stability
- Higher arch profile fills the void under high arches
- 5-zone cushioning addresses cavus foot pressure points
- Polyurethane base lasts 12+ months
- Available in Wide width
✗ Cons
- Too tall/aggressive for normal or low arches
- Won’t fit slim dress shoes
- Pricier than PowerStep Original
- Some patients find the arch height uncomfortable initially
Dr. Tom’s Recommendation: Cavus foot patients are often misdiagnosed and given low-arch orthotics — that makes everything worse. Spenco’s Total Support has the arch profile that high-arch feet actually need. About 15% of my patients have cavus feet; this is what they wear.
Cushion Layer · Standing All Day · Gel Pressure Relief
NOT a true biomechanical orthotic — this is a cushion insole. But for patients who want gel pressure relief instead of arch correction (or to add ON TOP of factory insoles in work boots), this is the best gel option on Amazon.
✓ Pros
- Genuine gel cushioning (not foam pretending to be gel)
- Targeted gel waves under heel and ball of foot
- Trim-to-fit · works in most shoe types
- Sub-$15 price (most affordable option in this list)
- Massaging texture is genuinely soothing
✗ Cons
- ZERO arch support — this is cushion only
- Won’t fix plantar fasciitis or flat-foot issues
- Compresses faster than PowerStep (4-6 months)
- Top cover wears through in high-mileage applications
Dr. Tom’s Recommendation: I recommend these to patients who tell me ‘I just want my feet to stop hurting at the end of my shift’ and who don’t have a biomechanical issue. Construction workers, factory workers, retail. Pure cushion does the job for them.
Tight-Fitting Shoes · Cycling Shoes · Hockey Skates
Tread Labs Pace insole with firm orthotic arch support for flat feet and plantar fasciitis relief. The replaceable top cover design makes it one of the most durable picks in this guide — backed by a million-mile guarantee and recommended for tight-fitting athletic footwear.
✓ Pros
- Firm orthotic arch support shell (podiatrist-grade)
- Slim profile fits tight athletic footwear
- Lasts 12+ months daily wear
- Excellent for cycling shoes specifically
- Built-in odor-control treatment
✗ Cons
- Premium price ($45-55)
- Less cushion than PowerStep equivalents
- Not as aggressive correction as Pinnacle Maxx for flat feet
- The signature ‘heel cup feel’ takes 1-2 weeks to adapt to
Dr. Tom’s Recommendation: If you’re a cyclist with foot numbness, hot spots, or knee pain — this is the orthotic. The stabilizer cap solves cycling-specific biomechanical issues that no other orthotic addresses. Worth the premium for athletes.
None of these solving your foot pain?
Some patients (about 30%) need custom-molded prescription orthotics. We make 3D-scanned custom orthotics in our Howell and Bloomfield Hills offices — specifically built for your foot mechanics.
Schedule a Custom Orthotic Fitting →FSA/HSA eligible · Most insurance accepted · (810) 206-1402
Dr. Tom Biernacki, DPM is a double board-certified podiatrist and foot & ankle surgeon at Balance Foot & Ankle Specialists in Southeast Michigan. With over a decade of clinical experience, he specializes in heel pain, bunions, diabetic foot care, sports injuries, and minimally invasive surgery. Dr. Biernacki is a member of the APMA and ACFAS, and his patient education content on MichiganFootDoctors.com and YouTube has reached over one million views.
- Plantar Fasciitis: Diagnosis and Conservative Management (PubMed)
- Plantar Fasciitis (APMA)
- Diagnosis and Treatment of Plantar Fasciitis (PubMed / AAFP)
- Heel Pain (APMA)