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Q: When does the rehabilitation process begin, and why is it so important?
It begins immediately after injury—even during acute management.
Early, appropriate first aid greatly influences recovery outcome.
The clinician’s main responsibilities: design, implement, and supervise an individualized rehab plan.
The “easy part” is designing exercises; the challenge is patient adherence and progressive supervision.
Q: What is the athletic trainer’s overall goal in rehabilitation?
To return the athlete to participation quickly, safely, and confidently, meeting both physical and psychological readiness criteria.
Q: What are the short-term and long-term goals of a rehabilitation program?
Short-Term:
Control pain and inflammation.
Restore or maintain ROM.
Regain strength, endurance, and neuromuscular control.
Preserve cardiorespiratory fitness.
Long-Term:
Return athlete to full practice and competition without re-injury.
Q: What principle differentiates therapeutic exercise from conditioning exercise?
Both follow FITT (Frequency, Intensity, Time, Type) principles, but:
Therapeutic exercise → used in rehabilitation to restore function after injury.
Conditioning exercise → used to enhance performance and prevent injury.
Q: What happens to the body during sudden inactivity or immobilization?
Physical inactivity causes rapid loss of fitness and function in the injured region (“stress deprivation”).
Healthy adults can lose 25–33 % of strength in just two weeks.
The stronger you start, the greater the initial losses.
Q: How does muscle respond to immobilization?
Atrophy (loss of muscle mass) occurs rapidly, especially in Type I slow-twitch fibers.
Muscle fibers may convert from slow- to fast-twitch.
Isometric contractions can reduce atrophy during immobilization.
Neuromuscular efficiency declines as motor nerves become less responsive—but function returns with retraining.
Q: What happens to joints during immobilization?
Decreased synovial lubrication and nutrition to cartilage → degeneration.
Loss of normal compression and motion causes cartilage softening and breakdown.
Continuous Passive Motion (CPM) or electrical stimulation can help preserve joint health.
Q: How do ligaments and bones respond to immobilization?
They adapt to normal mechanical stress (Wolff’s Law).
Without loading, tissue weakens; collagen alignment and bone density decrease.
Strength can be lost in weeks but may take months to recover
Q: What cardiovascular changes occur during immobilization?
Resting heart rate rises ≈ 0.5 beat per minute each day.
Stroke volume and VO₂ max decrease significantly within two weeks—mainly due to reduced stroke volume.
Q: List and describe the major components of rehabilitation.
Minimize swelling – use P.R.I.C.E. immediately.
Control pain – through modalities, medication, and activity modification.
Restore ROM – prevent contractures and stiffness.
Restore strength, endurance, and power – through progressive resistance.
Re-establish neuromuscular control – retrain CNS to coordinate movement.
Restore balance/postural stability.
Maintain cardiovascular fitness.
Incorporate functional activity – sport-specific movement.
Q: How is pain defined and categorized?
Defined by the International Association for the Study of Pain as “an unpleasant sensory and emotional experience associated with actual or potential tissue damage.”
Acute: < 6 weeks Subacute: 6–12 weeks Chronic: > 12 weeks.
Chronic pain prevalence in U.S. adults: 11–40 %.
More common in women, older adults, unemployed, low-income, publicly insured, and rural populations.
Q: What are the three types of pain?
Nociceptive – from actual tissue damage/inflammation.
Neuropathic – from nerve lesion or disease (e.g., radiculopathy).
Nociplastic – altered processing of pain without clear tissue injury (often chronic)
Q: What are non-pharmacological options for managing pain in rehab?
Cryotherapy or thermotherapy, e-stim, massage, relaxation, graded exercise, and cognitive reassurance.
Medication use (analgesics, NSAIDs) must follow physician supervision—avoid dependency on opioids.
Q: What is the purpose of ROM exercises in rehabilitation?
Maintain joint mobility and flexibility.
Prevent contractures and adaptive shortening of muscles or connective tissue.
Increase circulation and comfort.
Decrease complications from prolonged immobility.
Q: Why can motion loss occur after injury?
Contracture of connective tissue.
Resistance to stretch in periarticular structures.
Adhesion formation from inflammation.
Q: Differentiate between physiologic and accessory movements.
Physiologic (osteokinematic): voluntary motions like flexion/extension.
Accessory (arthrokinematic): involuntary joint surface motions—roll, slide/glide, and spin—needed for full ROM.
What are common interventions to restore ROM?
Stretching for physiologic motion.
Joint mobilization or capsule stretching for accessory motion.
Combine with heat or manual therapy as tolerated.
Q: Why is regaining muscular strength critical?
Prevents re-injury, supports joints, restores performance capacity.
Q: What are isometric exercises and when are they used?
Static contractions without joint movement.
Used early in rehab when motion causes pain or instability.
Benefits: limits atrophy, reduces swelling, increases static strength.
Limitation: strength gains specific to the joint angle exercised.
Q: What are progressive-resistance exercises (PREs)?
Concentric and eccentric muscle contractions performed with increasing load.
Resistance provided by weights, bands, or machines.
Eccentric work enhances control and deceleration but can cause soreness.
Machines = safer and more controlled; free weights = recruit stabilizers.
Why is neuromuscular control important in rehab?
After injury, the brain “forgets” how to coordinate efficient movement.
Re-education is necessary so movement becomes automatic again.
What elements are key to re-establishing neuromuscular control?
Proprioception & Kinesthetic Awareness – joint position and movement sense.
Preparatory and Reactive Muscle Characteristics – pre-activation and reflex control.
Dynamic Stability – coordinated strength around joints.
Functional Motor Patterns – conscious → subconscious movement control.
Improvement occurs through repetition and progressive complexity.
Q: What distinguishes open from closed kinetic chain exercises?
Open Kinetic Chain (OKC): distal limb free to move (e.g., knee extension, biceps curl); isolates one joint.
Closed Kinetic Chain (CKC): distal limb fixed on surface (e.g., squat, push-up); multiple joints move; more functional and joint-protective.
Q: Why is balance training vital for athletes?
Balance depends on proprioception + vision + vestibular input.
Maintains equilibrium and prevents re-injury.
Should be integrated into all rehab phases; poor balance increases injury risk.
Q: What did the slides mean by “Your textbook is wrong”?
Traditional texts over-simplify balance as only proprioception/vision/vestibular.
New research shows motor and cognitive systems also influence balance and must be trained simultaneously.
Q: How can an athlete maintain cardio fitness during lower-limb injury?
Engage in alternative low-impact activities such as swimming, cycling, or upper-body ergometry (“use it or lose it” principle).
Modify as needed to avoid stressing the injured site.
Q: What is a functional progression and why is it important?
Gradual reintroduction of sport-specific movements to restore confidence and coordination.
Begin simple → progress to complex; slow → fast; short → long; light → heavy.
Must mimic actual sport demands while staying pain-free.
Q: What are best practices for implementing functional progressions?
Monitor for proper form and adverse reactions.
Integrate early, once goals are met safely.
Include both physical and psychological readiness.
Use functional testing (agility runs, figure-8s, vertical jumps, balance tests) to measure return readiness.
Q: What should be understood before creating a rehab plan?
MOI, anatomical structures involved, and injury grade.
Healing phase (inflammatory, repair, or remodeling).
Psychosocial aspects affecting motivation and adherence.
Q: Outline the three phases of healing and their goals.
Phase I – Acute Inflammatory (Degeneration) Phase
Lasts up to 4 days.
Control swelling and pain; immobilize for first 1–2 days.
Begin early gentle motion to prevent stiffness (“active rest”).
Phase II – Repair/Regeneration (Fibroblastic) Phase
Begins as inflammation subsides; fibroblasts form new collagen.
Pain control still essential.
Safely add cardiovascular, strengthening, flexibility, and neuromuscular training.
Phase III – Maturation/Remodeling Phase
Longest phase (weeks → months).
Collagen realigns along stress lines.
Emphasize functional and sport-specific training.
Q: What are signs that rehabilitation is too aggressive?
Increased swelling or pain.
Plateau or loss in strength/ROM.
Exacerbation of symptoms or next-day soreness exceeding expectations.
In these cases, reduce load and modify exercises.
Q: What strategies enhance athlete adherence to rehabilitation?
Provide encouragement and feedback.
Make sessions creative and enjoyable.
Involve peers and coaches for support.
Maintain a positive, goal-oriented attitude.
Plan for setbacks and normalize them.
Offer clear written and verbal instructions.
Keep exercises relatively pain-free and track progress visually.
Q: Why do slides mention “rehabilitation lifestyle intervention”?
Many chronic conditions (e.g., non-specific low back pain) respond best to behavioral and lifestyle modifications such as posture correction, daily exercise, and stress management—not just acute rehab exercises.
Q: Who makes the final return-to-play decision?
It’s a group decision involving the sports medicine team, but team physician has ultimate authority.
Q: What factors must be evaluated before RTP clearance?
Tissue healing status.
Pain and swelling levels.
ROM, strength, proprioception, neuromuscular control.
Cardiovascular fitness.
Sport-specific demands and protective equipment needs.
Functional testing results.
Psychological readiness and confidence.
Athlete education on prevention and maintenance.
Q: Why are CKC (Closed Kinetic Chain) exercises often preferred in later rehab?
They more closely replicate functional activities, involve multiple joints, and promote co-contraction for joint stability.
Common CKC lower-extremity examples: mini-squats, leg press, step-ups, terminal knee extensions, balance work on balls or BOSU.
Q: What is core stabilization training, and why is it essential?
Focuses on the lumbo-pelvic complex, the foundation for nearly all movement.
Improves postural control, muscle balance, and functional strength.
Enhances neuromuscular efficiency for both upper and lower limbs.
What are the benefits of aquatic exercise in rehabilitation?
A:
Provides buoyant support to reduce joint stress.
Allows early movement even for limited weight-bearing patients.
Can be assistive, resistive, or supportive.
Useful across all healing phases and for sport-specific skill retraining.
Q: What are opioids?
A class of natural, synthetic, or semi-synthetic chemicals that bind to opioid receptors in the brain and nervous system.
They reduce the intensity of pain signals and alter perception of pain.
Also cause sedation, euphoria, and, with misuse, respiratory depression.
Q: Give examples of legal opioids commonly prescribed in medicine.
Oxycodone (OxyContin)
Hydrocodone (Vicodin)
Morphine
Methadone
Q: Which opioid is both legal and illegal, and how potent is it?
Fentanyl – a synthetic opioid 50–100× more potent than morphine.
Used legally for severe pain and anesthesia but also illegally manufactured and sold illicitly.
Q: What is the primary illegal opioid?
Heroin, derived from morphine. It is illicit and highly addictive.
Q: Define Opioid Use Disorder (OUD).
A problematic pattern of opioid use leading to clinically significant impairment or distress (e.g., cravings, tolerance, withdrawal, inability to reduce use).
Q: How significant is the U.S. role in global opioid use?
The United States accounts for ~80 % of all global opioid consumption.
Q: How many opioid prescriptions were written annually in the U.S. by 2017?
191 million prescriptions per year.
Q: How many people in the U.S. die from opioid overdose daily?
Approximately 130 deaths per day from opioids (including legal and illegal).
Q: What percentage of all U.S. drug overdoses involve opioids?
69.5 % of all overdose deaths (2018).
Q: What percentage of opioid overdoses involve synthetic opioids?
67 % involved synthetics like fentanyl.
Q: What is the national opioid overdose death rate?
11.9 deaths per 100,000 individuals.
Q: How significant is orthopedic prescribing in the opioid crisis?
Orthopedic surgeons are the 4th highest prescribers of opioids, accounting for 7.7 % of the ~80 million prescriptions each year.
Q: What are opioid overdose death rates (per 100,000) by county in Delaware?
New Castle: 42.2
Kent: 24.6
Sussex: 49.2
What percentage of patients prescribed opioids for chronic pain misuse them?
A:
Between 21–29 %.
Q: What percentage develop Opioid Use Disorder (OUD)?
About 8–12 % of those prescribed opioids.
Q: What percentage of people who misuse prescription opioids eventually use heroin?
4–6 % transition from prescription misuse to heroin.
Q: What percentage of heroin users first misused prescription opioids?
Roughly 80 %.
Q: Why is opioid prescribing particularly relevant in orthopedics?
Orthopedic procedures often involve moderate to severe postoperative pain (e.g., fractures, joint surgeries).
High risk of overprescribing, prolonged use, and diversion of unused pills into the community.
What is the risk of prolonged opioid use after arthroscopic shoulder surgery?
8.3 % of patients continue opioids long-term after surgery.
List predictors of prolonged opioid use after orthopedic surgery.
Higher total opioid dose before/after surgery (Odds Ratio = 2.0).
History of suicide or self-harm disorder (OR = 2.0).
History of alcohol dependence/abuse (OR = 1.6).
Mood disorder (OR = 1.3).
Opioid prescription filled within 30 days pre-op (OR = 1.3).
Female sex (OR = 1.3).
Anxiety disorder (OR = 1.2).
Pre-existing chronic pain diagnosis (OR = 1.2).
What other risk does opioid use pose in older adults?
It increases fall risk by 1.4–2.7× due to sedation and dizziness.
What do studies show about opioid prescriptions for ankle sprains in emergency departments?
34.6 % of patients with ankle sprains (LAS) were prescribed opioids, with an average duration of 3 days—often unnecessary.
What was the trend in post-ACL surgery opioid prescriptions by 2024?
A:
A ~24 % reduction in total prescribed opioids, showing progress toward safer pain management.
What were the findings on opioid use after knee arthroscopic surgery?
Patients were prescribed ~20 tablets, but actually took only 4 tablets on average for 2.7 days.
This left 16 unused tablets per patient circulating in the community—potential for misuse or diversion.
Did limiting opioid prescriptions change pain outcomes?
No difference in pain between patients given full vs. limited prescriptions.
Optional or reduced-dose groups had fewer leftover opioids and equal pain control.
How did non-opioid pain management compare after ACL surgery?
The non-opioid group reported lower self-reported pain and faster recovery than those prescribed opioids.
Q: How does the timing of physical therapy affect opioid use?
Delayed initiation of PT increases the likelihood and duration of opioid use—even in those not previously on opioids.
Early movement and PT significantly reduce dependence.
Q: Why is “reducing, not eliminating” opioid use emphasized?
Some individuals with chronic or high-impact pain still require opioids for quality of life.
The goal is to balance adequate pain control with addiction prevention.
What percentage of U.S. adults have chronic pain vs. high-impact chronic pain?
Chronic pain: 20.4 % of adults.
High-impact chronic pain: 8 % (pain limiting major life activities).
Q: What are the three key questions posed by the CDC regarding opioid management?
When should opioids be initiated or continued for chronic pain?
How should opioids be selected, dosed, monitored, and discontinued?
How should clinicians assess risk and address harms of opioid therapy?
What are examples of non-opioid treatments for pain management?
NSAIDs (e.g., ibuprofen, naproxen).
Acetaminophen.
Local anesthetics and nerve blocks.
Physical therapy and early mobilization.
Cryotherapy, thermotherapy, and e-stim.
Cognitive and behavioral approaches (mindfulness, relaxation).
Q: What is the CDC’s overall guidance on opioids in pain management?
Opioids should not be first-line therapy for most pain conditions.
Use the lowest effective dose for the shortest duration possible.
Reevaluate benefits and harms frequently.
Combine with non-opioid and non-pharmacologic therapies whenever possible.