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Hockey Recovery Guide: Why Rest Days Make You Faster (Science-Backed)

The Counterintuitive Truth About Hockey Performance

Here's a fact that contradicts most hockey culture: The fastest way to get slower is to never take a day off.

Hockey players pride themselves on toughness. "Skate through the pain." "No days off." "Grind harder than everyone else." It's embedded in the sport's DNA.

But here's what elite athletes know that most recreational players don't: Gains happen during recovery, not during training.

Consider these real scenarios from Hockey Performance Tracker users:

  • Beer league forward, 32: Played 4 games per week for 6 weeks. Average speed dropped 14%. Took one week completely off. Came back 9% faster than before the decline.

  • Junior player, 17: Trained 6 days per week all summer. VO₂ max plateaued at week 5, then declined. Added strategic rest days. Saw 7% improvement over next 4 weeks.

  • Comeback player, 41: Rushed back from injury with daily skating. Re-injured same area after 3 weeks. Proper recovery protocol = successful return 8 weeks later.

The pattern is clear: More isn't always better. Strategic recovery makes you faster, stronger, and healthier.

This guide explains the science of hockey recovery, how to track your body's readiness, and how to structure training that actually builds performance instead of grinding it down.

The Science: Why Rest Makes You Faster

Understanding recovery requires understanding what actually happens during hockey training versus rest.

What Training Actually Does to Your Body

When you play hockey or train, you're not building fitness—you're creating damage1:

Muscular system:

  • Microtears in muscle fibers
  • Depletion of glycogen (energy stores)
  • Accumulation of metabolic waste

Cardiovascular system:

  • Increased sympathetic (fight-or-flight) nervous system activity
  • Elevated cortisol (stress hormone)
  • Temporary reduction in heart rate variability

Neurological system:

  • Depleted neurotransmitters
  • Reduced motor unit recruitment efficiency
  • Slower reaction times from central nervous system fatigue

This isn't bad—it's the stimulus for improvement. But here's the critical part: This damage only converts to gains if you allow proper recovery.

The Recovery Window: Where Gains Actually Happen

After training stress, your body goes through a predictable recovery curve2:

Phase 1: Acute Fatigue (0-12 hours post-exercise)

  • Performance capacity BELOW baseline
  • High inflammation
  • Depleted energy stores
  • This is NOT the time for another hard session

Phase 2: Recovery (12-48 hours)

  • Repair of muscle damage
  • Restoration of glycogen
  • Normalization of hormones
  • Performance returning to baseline

Phase 3: Supercompensation (48-96 hours)

  • Performance capacity ABOVE baseline
  • Body has adapted to the stress
  • This is the optimal window for next training session

Phase 4: Detraining (96+ hours, variable)

  • Without new stimulus, gains gradually decline
  • Timing depends on training status and intensity

The critical insight: If you train again during Phase 1 or early Phase 2, you're starting from a deficit. You're compounding fatigue instead of building fitness.

What the Research Shows

Multiple studies confirm what elite athletes have known for decades:

Norwegian Olympic study (2014)3:

  • Athletes doing 80% low-intensity, 20% high-intensity training outperformed those doing 50/50 split
  • Key factor: Adequate recovery between high-intensity sessions

Heart Rate Variability research (2013)4:

  • Athletes training based on HRV-guided recovery saw 2-3x greater improvement than those on fixed schedules
  • Reduced injury rates by 30-40%

Overtraining meta-analysis (2016)5:

  • 60-90% of serious endurance athletes experience overtraining at some point
  • Primary cause: Inadequate recovery, NOT excessive volume

The message is clear: Strategic recovery isn't soft—it's smart.

Signs You're Overtraining (Before It's Too Late)

Most hockey players don't realize they're overtraining until performance has already declined significantly. Here are the early warning signs:

Performance Indicators

Declining speed metrics:

  • Average speed dropping 5-10% week-over-week
  • Maximum speed decreasing despite effort
  • Longer recovery needed between shifts
  • Can't sustain typical work-to-rest ratio

Cardiovascular warning signs:

  • Resting heart rate 5-10 bpm higher than normal
  • Heart rate variability (HRV) consistently low
  • Slower heart rate recovery after shifts6
  • Elevated heart rate at given intensity levels

Shift quality degradation:

  • Shift length creeping longer without realizing
  • First shift feels harder than usual
  • Third period decline more pronounced
  • Less explosiveness on acceleration bursts

Physical Symptoms

Classic overtraining markers:

  • Persistent muscle soreness lasting 48+ hours
  • Increased resting heart rate upon waking
  • Difficulty falling or staying asleep
  • Decreased appetite or digestive issues
  • Getting sick more frequently (weakened immune system)

Hockey-specific signs:

  • Legs feel heavy from first shift
  • Recovery time between games increasing
  • Minor injuries that won't heal
  • Chronic inflammation in joints

Mental & Emotional Indicators

Often the earliest signals, but most ignored:

  • Decreased motivation to play or train
  • Irritability and mood swings
  • Difficulty concentrating during games
  • Loss of enjoyment (hockey feels like a chore)
  • Sleep disruption despite physical fatigue

The data doesn't lie: Track your metrics over 10-20 sessions. If you see consistent declining trends despite continued training, you need more recovery, not more work.

Understanding Recovery Metrics

Modern technology makes recovery tracking accessible to everyone. Here's what to monitor:

Heart Rate Variability (HRV)

What it measures: Variation in time between heartbeats7

Why it matters:

  • High HRV = parasympathetic (rest-and-recover) nervous system active = well-recovered
  • Low HRV = sympathetic (fight-or-flight) nervous system dominant = still stressed
  • Most accurate indicator of recovery status

How to use it:

  • Measure first thing each morning (before getting out of bed)
  • Track trend, not single readings
  • HRV 20%+ below your 7-day average = body needs recovery
  • Consecutive low readings = skip high-intensity training

Tools: Apple Watch, Whoop, Oura Ring, or dedicated HRV apps all work

HPT integration: Recovery Readiness uses HRV + resting heart rate to calculate daily readiness score

Resting Heart Rate (RHR)

What it measures: Heart rate at complete rest, measured upon waking

Why it matters:

  • Lower RHR generally indicates better cardiovascular fitness
  • Elevated RHR (5-10 bpm above normal) = incomplete recovery
  • Persistent elevation = overtraining or illness

How to use it:

  • Establish your baseline over 7-10 days
  • RHR 5+ bpm above baseline = light training only
  • RHR 10+ bpm above baseline = rest day recommended

Typical ranges:

  • Untrained: 60-80 bpm
  • Recreational athlete: 50-65 bpm
  • Well-trained: 40-55 bpm
  • Elite endurance: 35-45 bpm

Sleep Quality & Duration

What it measures: Hours and quality of sleep

Why it matters:

  • Growth hormone (recovery hormone) released during deep sleep8
  • Sleep deprivation reduces performance 10-30%
  • Inadequate sleep compounds with training stress

How to track:

  • Smart watches track sleep stages automatically
  • Note subjective quality (1-10 scale)
  • Track time to fall asleep (>30 min = poor recovery)

Targets for hockey players:

  • 7-9 hours minimum
  • 8-10 hours during high-intensity training blocks
  • Consistent sleep schedule (same bedtime/wake time)

Subjective Recovery Scores

Don't underestimate the power of listening to your body:

Daily self-assessment (rate 1-10):

  • Muscle soreness
  • Energy level
  • Mood/motivation
  • Sleep quality
  • Overall readiness

Research shows: Subjective readiness correlates strongly with objective performance9

Feeling terrible despite good HRV? Trust the combination of signals.

The Optimal Hockey Training Week (With Recovery)

Here's how to structure a week that builds performance instead of grinding you down:

For Competitive Players (3-4 Games Per Week)

Monday: Light recovery skate or off-ice mobility (30-40 min)

  • Focus: Active recovery, movement quality
  • Intensity: 60-70% max heart rate
  • Goal: Flush metabolic waste, maintain movement patterns

Tuesday: Skill work + moderate conditioning (60 min)

  • Focus: Technique refinement, moderate intensity
  • Example: Stickhandling, passing, moderate-pace skating drills
  • Intensity: 70-80% max heart rate

Wednesday: Game day

  • Morning: Light activation (15-20 min)
  • Game: Full intensity
  • Post-game: Proper cool-down and nutrition

Thursday: OFF or very light active recovery

  • Walking, swimming, yoga, or complete rest
  • No skating
  • Prioritize sleep and nutrition

Friday: Game day

  • Same as Wednesday

Saturday: Game day (if applicable)

  • Same structure

Sunday: Complete rest or active recovery

  • If you played 3 games: Complete rest
  • If you played 2 games: Light active recovery optional

Key principle: Games ARE your high-intensity training. Additional hard training between games compounds fatigue instead of building fitness.

For Beer League/Recreational Players (1-2 Games Per Week)

Monday: OFF or light active recovery

Tuesday: Skills + conditioning (60-75 min)

  • Focus: Speed work, technique
  • Can go harder because recovery time before game
  • Include sport-specific conditioning

Wednesday: Game day preparation

  • Light skate (30 min) OR complete rest
  • Depends on recovery from Tuesday

Thursday: Game day

Friday: Recovery day

  • Active recovery or complete rest
  • Assess how you feel

Saturday: OFF or optional training

  • If playing Sunday: Rest
  • If not playing Sunday: Moderate training OK

Sunday: Game day OR training day

  • Structure week around game schedule

Key principle: With fewer games, you can handle more training. But you still need 1-2 complete rest days per week.

For Off-Season/No Games

High-intensity days: 2-3 per week maximum

  • Sprint work, high-intensity intervals, heavy strength training
  • Minimum 48 hours between sessions

Moderate days: 2-3 per week

  • Skill work, moderate cardio, technique focus

Recovery days: 2 per week minimum

  • Active recovery or complete rest
  • No structured training

Progression: Build volume gradually (10% per week maximum)10

Active Recovery vs. Complete Rest: When to Use Each

Not all rest is created equal. Here's when to use each approach:

Active Recovery (Light Movement)

Best for:

  • Day after moderate-intensity training or games
  • When muscles are sore but not painful
  • Between back-to-back game weekends
  • Maintaining movement patterns during recovery

Effective activities:

  • Light skating (30-40 min at 60-70% intensity)
  • Swimming or pool work (low-impact cardio)
  • Cycling at conversational pace
  • Yoga or dynamic stretching
  • Walking 20-30 minutes

Benefits:

  • Increases blood flow to muscles (speeds waste removal)
  • Maintains movement patterns without stress
  • Psychological benefit (feels productive)
  • Can improve recovery speed vs. complete rest for moderate fatigue

When NOT to use:

  • HRV significantly depressed (20%+ below baseline)
  • Persistent soreness from multiple days prior
  • Signs of illness or injury
  • After extremely high-intensity efforts

Complete Rest (Zero Training)

Best for:

  • After very high-intensity games or training
  • When HRV is significantly suppressed
  • When feeling mentally burned out
  • Signs of overtraining (multiple indicators present)
  • Illness or injury recovery

What complete rest means:

  • No structured exercise
  • Daily activities (walking, stairs) are fine
  • Focus on sleep, nutrition, hydration
  • Mental recovery equally important

Benefits:

  • Maximum recovery for nervous system
  • Glycogen restoration
  • Hormonal normalization
  • Mental refresh

How often: Minimum 1 full rest day per week, 2 during intense training blocks

How to Track Your Recovery (The Modern Approach)

Technology has made recovery tracking accessible and automatic:

Manual Tracking (Free Approach)

Morning routine (5 minutes):

  1. Before getting out of bed, measure resting heart rate (60 seconds)
  2. Rate sleep quality (1-10)
  3. Rate overall energy/readiness (1-10)
  4. Rate muscle soreness (1-10)
  5. Record in simple spreadsheet or notes app

Weekly review:

  • Compare metrics to previous week
  • Identify declining trends
  • Adjust training accordingly

Pros: Free, builds body awareness Cons: Manual effort, harder to spot patterns

Automated Tracking (Technology Approach)

Wearable devices:

  • Apple Watch, Garmin, Whoop, Oura Ring all track HRV, RHR, sleep
  • Automatic measurement while sleeping
  • Trend analysis built-in

Hockey-specific apps:

  • HPT Recovery Readiness combines HRV, RHR, and 30-day baseline
  • Compares current values to your normal
  • Provides daily readiness score (%)
  • Integrates with session performance data

How it works:

  1. Wear smartwatch to bed
  2. Wake up to readiness score
  3. Adjust training based on score:
    • 90%+ = Full training OK
    • 70-90% = Moderate training or skills focus
    • Below 70% = Recovery day recommended

The advantage: Objective data removes guesswork. You might "feel fine" but HRV shows incomplete recovery. Data prevents overtraining before you notice symptoms.

Combining Approaches

Best practice: Use both objective metrics AND subjective feel

Example decision tree:

  • High HRV + feel great = Train hard
  • High HRV + feel tired = Moderate training (nervous system recovered, but other factors at play)
  • Low HRV + feel great = Skills/technique work only (your feel is deceiving you)
  • Low HRV + feel tired = Rest day mandatory

Real Player Example: The Power of Strategic Recovery

Profile: Mike, 34, beer league forward, playing 3 games per week

Initial approach (Weeks 1-6):

  • Monday: Light skate
  • Tuesday: Stick & puck
  • Wednesday: Game
  • Thursday: Public skate
  • Friday: Game
  • Saturday: Drop-in hockey
  • Sunday: Game

Results after 6 weeks:

  • Average speed: Started 18.4 km/h → Declined to 16.1 km/h (-12.5%)
  • Shift length: Increased from 42 sec to 58 sec average
  • Resting heart rate: Elevated 8 bpm above baseline
  • HRV: Consistently 25-30% below personal average
  • Subjective: "Legs feel dead, not enjoying hockey anymore"

Diagnosis: Classic overtraining. Zero complete rest days, inadequate recovery between games.

Modified approach (Weeks 7-12):

  • Monday: Complete rest
  • Tuesday: Light skills (30 min, focus on technique)
  • Wednesday: Game
  • Thursday: Complete rest OR light active recovery based on HRV
  • Friday: Game prep (15 min activation only)
  • Saturday: Game
  • Sunday: Complete rest

Results after 6 weeks:

  • Average speed: Recovered to 19.2 km/h (+4.3% above original)
  • Shift length: Normalized to 38 sec average
  • Resting heart rate: Returned to baseline
  • HRV: Within normal range consistently
  • Subjective: "Feel like I did 10 years ago"

The lesson: Less training, more recovery = better performance. Mike was training 6 days per week and getting slower. Cut to 3 hockey days + 2 short skill sessions = got faster.

Nutrition & Hydration for Recovery

Training and rest aren't enough—recovery requires proper fueling:

Post-Game/Practice Nutrition Window

First 30 minutes (critical window):

  • 20-30g protein (muscle repair)
  • 40-60g carbohydrates (glycogen restoration)
  • 16-24 oz fluid with electrolytes

Example: Chocolate milk + banana (cheap, effective, research-backed11)

Why it matters: Glycogen restoration is 50% faster when consumed immediately vs. waiting 2 hours12

Daily Recovery Nutrition

Protein targets:

  • 1.6-2.2g per kg body weight for active players13
  • Example: 180 lb (82 kg) player = 130-180g protein daily
  • Distribute across 4-5 meals for optimal synthesis

Carbohydrate targets:

  • Training days: 5-7g per kg body weight
  • Rest days: 3-5g per kg body weight
  • Quality matters: Whole grains, fruits, vegetables over processed sugars

Hydration:

  • Minimum: Half your body weight (lbs) in ounces daily
  • Example: 180 lb player = 90 oz (2.7 L) minimum
  • Increase 16-24 oz per hour of hockey
  • Monitor urine color (pale yellow = well hydrated)

Recovery-Specific Nutrients

Anti-inflammatory foods:

  • Fatty fish (salmon, mackerel) - omega-3s reduce inflammation14
  • Tart cherry juice - shown to reduce muscle soreness15
  • Berries - antioxidants support recovery
  • Turmeric/curcumin - natural anti-inflammatory

Sleep-supporting foods:

  • Avoid caffeine 8+ hours before bed
  • Tart cherry juice supports melatonin production
  • Magnesium-rich foods (nuts, seeds, leafy greens)

The Role of AI in Recovery Planning

Modern apps can now analyze recovery patterns and provide personalized recommendations:

How AI-Powered Recovery Works

Traditional approach: Fixed training schedule regardless of recovery status

AI-powered approach:

  1. Tracks your recovery metrics over dozens of sessions
  2. Learns YOUR specific recovery patterns
  3. Identifies what affects your recovery (game intensity, sleep, stress, etc.)
  4. Predicts readiness based on current metrics
  5. Suggests training modifications in real-time

Example insights:

  • "After 3 games in 5 days, your average recovery time is 72 hours. Today's HRV suggests you're only 65% recovered—recommend skills work only."
  • "Your best performances occur when HRV is 85+ms. Currently 67ms. Light training recommended."
  • "Pattern detected: You perform 15% worse the day after poor sleep, regardless of HRV. Prioritize sleep tonight before tomorrow's game."

The Data-Driven Recovery Advantage

What AI sees that you can't:

  • Correlations between sleep quality, nutrition, and next-day performance
  • Your specific recovery timeline after different intensities
  • Warning signs of overtraining before you notice symptoms
  • Optimal training frequency for YOUR body

Learn more about AI-powered hockey insights

Common Recovery Mistakes (And How to Fix Them)

Mistake #1: "I'll Rest When I'm Dead"

The problem: Hockey culture glorifies toughness and constant grinding

The reality: Inadequate recovery leads to:

  • Declining performance (you get slower, not faster)
  • Increased injury risk (fatigue reduces coordination and decision-making)
  • Burnout (mental and physical)

The fix: Reframe recovery as part of training, not avoiding training. Elite athletes optimize recovery as carefully as they plan workouts.

Mistake #2: Only Resting When Injured

The problem: Waiting until injury or complete exhaustion to rest

The reality: By this point, you need weeks of recovery, not days

The fix: Schedule rest days proactively. Treat them as non-negotiable as game days.

Mistake #3: "Active Recovery" That's Actually Hard Training

The problem: "Light skate" turns into competitive drop-in hockey at 85% intensity

The reality: This prevents recovery and compounds fatigue

The fix: Define specific parameters for active recovery:

  • Heart rate stays below 70% maximum
  • Duration 30-40 minutes maximum
  • No competitive elements
  • Focus on movement quality, not intensity

Mistake #4: Ignoring Sleep in Favor of Training

The problem: Waking up at 5 AM for training while only sleeping 5-6 hours

The reality: Sleep deprivation reduces performance more than missing a workout16

The fix: If choosing between extra training and adequate sleep, choose sleep every time.

Mistake #5: Poor Nutrition Undermining Recovery

The problem: Training hard but eating poorly (insufficient protein, constant processed foods, inadequate hydration)

The reality: You can't out-train a bad diet. Recovery requires proper fuel.

The fix: Post-workout nutrition within 30 minutes (non-negotiable). Hit daily protein targets. Hydrate consistently.

The Bottom Line: Recovery IS Training

The paradigm shift required: Stop viewing rest as lost training time. Start viewing rest as essential training.

Key principles:

  1. Gains happen during recovery, not during training
  2. Inadequate recovery = declining performance, guaranteed
  3. More training + more recovery = improvement
  4. More training + inadequate recovery = overtraining
  5. Strategic recovery makes you faster, not softer

Practical implementation:

  • Minimum 1-2 complete rest days per week
  • Track recovery metrics (HRV, RHR, sleep, subjective feel)
  • Train hard when recovered, rest when needed
  • Nutrition and sleep are non-negotiable recovery tools
  • Use technology to remove guesswork

The competitive advantage: While your competition grinds themselves into declining performance, you're building fitness systematically through proper training AND recovery.

Your Next Steps

  1. Establish baseline: Track HRV, RHR, and subjective recovery for 7-10 days
  2. Identify current recovery gaps: When was your last complete rest day? How's your sleep? Post-game nutrition?
  3. Add one complete rest day: This week, schedule one day with zero training
  4. Track the results: Compare your performance metrics week-over-week

Ready to optimize recovery scientifically? Modern apps track all recovery metrics automatically, analyze your patterns, and tell you exactly when to train hard and when to rest.

The fastest players aren't the ones who train the most. They're the ones who recover the smartest.

Your body is trying to get faster. You just need to give it permission through proper recovery.


References

[1] Bompa, T.O. & Haff, G.G. (2009). Periodization: Theory and Methodology of Training (5th ed.). Human Kinetics.

[2] Kellmann, M. & Beckmann, J. (2018). "Sport, Recovery, and Performance: Interdisciplinary Insights." Routledge Research in Sport and Exercise Science. https://doi.org/10.4324/9781315268149

[3] Stöggl, T. & Sperlich, B. (2014). "Polarized Training has Greater Impact on Key Endurance Variables than Threshold, High Intensity, or High Volume Training." Frontiers in Physiology, 5, 33. https://doi.org/10.3389/fphys.2014.00033

[4] Plews, D.J., Laursen, P.B., Stanley, J., Kilding, A.E., & Buchheit, M. (2013). "Training Adaptation and Heart Rate Variability in Elite Endurance Athletes: Opening the Door to Effective Monitoring." Sports Medicine, 43(9), 773-781. https://doi.org/10.1007/s40279-013-0071-8

[5] Meeusen, R., Duclos, M., Foster, C., Fry, A., Gleeson, M., et al. (2013). "Prevention, Diagnosis, and Treatment of the Overtraining Syndrome." Medicine & Science in Sports & Exercise, 45(1), 186-205. https://doi.org/10.1249/MSS.0b013e318279a10a

[6] Borresen, J. & Lambert, M.I. (2008). "Autonomic Control of Heart Rate during and after Exercise: Measurements and Implications for Monitoring Training Status." Sports Medicine, 38(8), 633-646. https://doi.org/10.2165/00007256-200838080-00002

[7] Shaffer, F. & Ginsberg, J.P. (2017). "An Overview of Heart Rate Variability Metrics and Norms." Frontiers in Public Health, 5, 258. https://doi.org/10.3389/fpubh.2017.00258

[8] Dattilo, M., Antunes, H.K., Medeiros, A., Mônico Neto, M., Souza, H.S., Tufik, S., & de Mello, M.T. (2011). "Sleep and Muscle Recovery: Endocrinological and Molecular Basis for a New and Promising Hypothesis." Medical Hypotheses, 77(2), 220-222. https://doi.org/10.1016/j.mehy.2011.04.017

[9] Saw, A.E., Main, L.C., & Gastin, P.B. (2016). "Monitoring the Athlete Training Response: Subjective Self-Reported Measures Trump Commonly Used Objective Measures." British Journal of Sports Medicine, 50(5), 281-291. https://doi.org/10.1136/bjsports-2015-094758

[10] Soligard, T., Schwellnus, M., Alonso, J.M., et al. (2016). "How Much is Too Much? International Olympic Committee Consensus Statement on Load in Sport and Risk of Injury." British Journal of Sports Medicine, 50(17), 1030-1041. https://doi.org/10.1136/bjsports-2016-096581

[11] Karp, J.R., Johnston, J.D., Tecklenburg, S., Mickleborough, T.D., Fly, A.D., & Stager, J.M. (2006). "Chocolate Milk as a Post-Exercise Recovery Aid." International Journal of Sport Nutrition and Exercise Metabolism, 16(1), 78-91. https://doi.org/10.1123/ijsnem.16.1.78

[12] Ivy, J.L., Katz, A.L., Cutler, C.L., Sherman, W.M., & Coyle, E.F. (1988). "Muscle Glycogen Synthesis after Exercise: Effect of Time of Carbohydrate Ingestion." Journal of Applied Physiology, 64(4), 1480-1485. https://doi.org/10.1152/jappl.1988.64.4.1480

[13] Jäger, R., Kerksick, C.M., Campbell, B.I., et al. (2017). "International Society of Sports Nutrition Position Stand: Protein and Exercise." Journal of the International Society of Sports Nutrition, 14, 20. https://doi.org/10.1186/s12970-017-0177-8

[14] Calder, P.C. (2017). "Omega-3 Fatty Acids and Inflammatory Processes: From Molecules to Man." Biochemical Society Transactions, 45(5), 1105-1115. https://doi.org/10.1042/BST20160474

[15] Howatson, G., McHugh, M.P., Hill, J.A., et al. (2010). "Influence of Tart Cherry Juice on Indices of Recovery Following Marathon Running." Scandinavian Journal of Medicine & Science in Sports, 20(6), 843-852. https://doi.org/10.1111/j.1600-0838.2009.01005.x

[16] Fullagar, H.H., Skorski, S., Duffield, R., Hammes, D., Coutts, A.J., & Meyer, T. (2015). "Sleep and Athletic Performance: The Effects of Sleep Loss on Exercise Performance, and Physiological and Cognitive Responses to Exercise." Sports Medicine, 45(2), 161-186. https://doi.org/10.1007/s40279-014-0260-0

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