✅ 30 C3-Level MCQs - Active Free Exercise (Kinesiology)

• 🩺 Clinical scenario describing a patient case
• 5 options (A-E)
• ✅ Correct answer clearly marked
• Brief explanation citing the specific principle from the PPT

🏥 KINESIOLOGY - MMT & SCAPULOHUMERAL RHYTHM

Quiz: 30 Scenario-Based MCQs (C3 Level)

Each question has 5 options | Answer + Explanation provided

SECTION A: MMT GRADING - CLINICAL APPLICATION

• A) Grade 5 - Normal
• B) Grade 4 - Good
• C) Grade 3 - Fair
• D) Grade 2 - Poor
• E) Grade 1 - Trace

• A) Grade 0 - Zero
• B) Grade 1 - Trace
• C) Grade 2 - Poor
• D) Grade 3 - Fair
• E) Grade 2- (Grade 2 minus)

• A) Grade 1
• B) Grade 2
• C) Grade 3
• D) Grade 4
• E) Grade 5

• A) Grade 3
• B) Grade 4-
• C) Grade 4
• D) Grade 4+
• E) Grade 5

• A) Grade 3
• B) Grade 4+
• C) Grade 4
• D) Grade 5
• E) Grade 4-

• A) No meaningful change; grades are equivalent
• B) A two-grade improvement indicating significant motor recovery
• C) The patient has reached normal function
• D) One grade improvement from Trace to Poor
• E) The improvement is due to substitution, not true recovery

• A) Continue testing through pain to obtain accurate grade
• B) Increase resistance to overcome the pain inhibition
• C) Note pain inhibition of muscle contraction and document pain level (NRS) during testing
• D) Test only on the gravity-eliminated position regardless of pain
• E) Abandon MMT entirely and use dynamometry instead

• A) Use different hand placements each time to reduce bias
• B) Test at different times of day to capture full functional range
• C) Standardize patient positioning, use consistent hand placement, and test at the same time of day
• D) Always test in gravity-eliminated position for consistency
• E) Rely on patient self-report of strength changes only

• A) Perform standard MMT with full resistance
• B) Use only gravity-eliminated testing positions
• C) Avoid MMT as recent fractures are a contraindication
• D) Perform MMT but skip palpation
• E) Perform MMT only at the shoulder to avoid the fracture site

• A) Only bilateral comparison was recorded
• B) Only the grade was documented
• C) Substitution patterns were documented
• D) Pain level was not recorded, which is appropriate
• E) Grade 3 in gravity-eliminated position is correctly recorded

SECTION B: TESTING TECHNIQUE & PRINCIPLES

• A) Speed principle - movement is too slow
• B) Stabilization principle - compensatory muscle activation is not being prevented
• C) Gravity principle - wrong testing position selected
• D) Consistency principle - different positions are being used
• E) Baseline principle - no pre-treatment measurement taken

• A) Side-lying with the test limb on top - to allow movement against gravity
• B) Supine with both legs flat - to apply maximum resistance
• C) Side-lying with the test limb on the bottom - to eliminate gravity from the movement plane
• D) Standing - to use functional weight-bearing position
• E) Prone - to isolate the gluteus medius from hip flexors

• A) Examiner experience
• B) Patient cooperation
• C) Muscle length-tension relationships
• D) Fatigue during repeated testing
• E) Pain inhibition

• A) Substitution patterns were recorded
• B) Bilateral comparison with pain NRS and position documented
• C) Only the grade was recorded without clinical context
• D) Gravity-eliminated vs. against gravity was not specified
• E) The grade was assigned without noting fatigue

SECTION C: SCAPULOHUMERAL RHYTHM - BIOMECHANICS

• A) Abnormal - the scapula should be rotating from 0° upward immediately
• B) Normal - this is Phase I (Setting Phase) where the ratio is not yet established
• C) Abnormal - the scapula should be protracting during this phase
• D) Normal - scapular movement never begins before 90° of elevation
• E) Abnormal - the serratus anterior should be maximally active at 0°

• A) Phase III; ratio is abnormal (should be 1:1)
• B) Phase II; ratio is normal (2:1 GH:ST)
• C) Phase I; ratio is abnormal (should be 3:1)
• D) Phase II; ratio is abnormal (should be 1:2)
• E) Phase III; ratio is normal (2:1 GH:ST)

• A) Scapula rotates 90°; clavicle elevates 20°
• B) Scapula rotates 45°; clavicle elevates 45°
• C) Scapula rotates ~60°; clavicle elevates 30-35°
• D) Scapula rotates ~30°; clavicle elevates 60°
• E) Scapula rotates 120°; clavicle elevates 15°

• A) Only the glenohumeral and scapulothoracic joints
• B) Glenohumeral, scapulothoracic, acromioclavicular, and sternoclavicular joints
• C) Glenohumeral, acromioclavicular, and cervical spine joints
• D) Scapulothoracic and sternoclavicular joints only
• E) Glenohumeral joint only provides 180° of elevation

• A) GH: 90°, ST: 30°
• B) GH: 60°, ST: 60°
• C) GH: 80°, ST: 40°
• D) GH: 100°, ST: 20°
• E) GH: 70°, ST: 50°

• A) Upper trapezius is paralyzed, causing excessive scapular depression
• B) Serratus anterior is paralyzed, critically disrupting the primary upward rotator of the scapula
• C) Infraspinatus is paralyzed, causing superior humeral head migration
• D) Deltoid is weakened, causing reduced glenohumeral abduction
• E) Lower trapezius is affected, causing excessive scapular elevation

SECTION D: SCAPULAR MUSCLES & FORCE COUPLES

• A) Lateral Scapular Slide Test at 90°
• B) Scapular Assistance Test (SAT)
• C) Scapular Retraction Test (SRT)
• D) Wall Push-Up Test - assess medial border winging
• E) Visual observation of shoulder symmetry at rest

• A) Serratus anterior dominance; lower trapezius weakness
• B) Upper trapezius dominance; lower trapezius weakness causing the force couple imbalance
• C) Deltoid dominance; supraspinatus weakness
• D) Infraspinatus dominance; supraspinatus weakness
• E) Pectoralis minor dominance; serratus anterior weakness

• A) Supraspinatus provides full power abduction from 0° to 90°
• B) Supraspinatus initiates abduction and depresses the humeral head within the glenoid
• C) Supraspinatus externally rotates the humerus to prevent impingement
• D) Supraspinatus protracts the scapula to widen the subacromial space
• E) Supraspinatus elevates the clavicle at the AC joint

• A) Serratus anterior weakness; medial border winging
• B) Deltoid weakness; inability to abduct at glenohumeral joint
• C) Upper and lower trapezius weakness; loss of scapular elevation and upward rotation components
• D) Infraspinatus and teres minor weakness; loss of external rotation
• E) Supraspinatus weakness; inability to initiate abduction

SECTION E: DYSKINESIS & CLINICAL IMPLICATIONS

• A) Glenohumeral joint hypermobility from loose capsule
• B) Subacromial impingement from disrupted scapulohumeral rhythm narrowing the subacromial space
• C) Acromioclavicular joint arthritis
• D) Biceps tendon rupture at the long head
• E) Cervical radiculopathy at C5-C6

• A) Rotator cuff tear requiring surgical referral
• B) Acromioclavicular joint degeneration
• C) Positive for subacromial syndrome - scapular dyskinesis is contributing to the impingement
• D) Glenohumeral instability requiring stabilization exercises
• E) Long thoracic nerve injury causing serratus anterior weakness

• A) Normal bilateral symmetry - within acceptable range
• B) Clinically significant asymmetry - > 1.5 cm difference indicates dyskinesis
• C) Normal - left-right asymmetry up to 3 cm is acceptable
• D) Inconclusive - the test must be repeated at 0° and 45° only
• E) Normal - asymmetry is only significant at 0° of elevation

• A) Excessive glenohumeral external rotation during elevation
• B) Superior migration of humeral head due to deltoid overactivation
• C) Disrupted scapulohumeral rhythm with scapular tipping and reduced upward rotation, predisposing to impingement
• D) Increased AC joint compression from excess clavicular elevation
• E) Reduced cervical rotation due to upper trapezius dominance

• A) The rotator cuff is fully torn and surgery is needed
• B) Glenohumeral instability is the primary diagnosis
• C) Scapular position is contributing to rotator cuff weakness; retraction improves cuff biomechanics
• D) The upper trapezius is the primary cause of weakness
• E) The test is negative as strength improvement is expected

SECTION F: INTEGRATED CLINICAL SCENARIOS

• A) Grade 5 deltoid means the shoulder is normal; pain is psychological
• B) Right serratus anterior and lower trapezius weakness is disrupting scapulohumeral rhythm, causing impingement; scapular rehabilitation is the priority
• C) Bilateral pain confirms systemic disease requiring medical referral
• D) Deltoid is the only muscle needing rehabilitation
• E) MMT is not valid in overhead athletes due to high baseline strength

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🧠 KINESIOLOGY - RELAXATION (Chapter 6)

Quiz: 30 Scenario-Based MCQs (C3 Level)

The Principles of Exercise Therapy | 5 options each | Answer + Explanation

SECTION A: MUSCLE TONE & MECHANISMS

• A) The patient is involuntarily contracting the muscle due to anxiety
• B) There is mild inflammation causing the firmness
• C) Under ordinary circumstances, living muscles are never completely free from tension - they retain a quality of firmness known as muscle tone
• D) The muscle has developed fibrosis from previous injury
• E) Postural tone is abnormally elevated due to spinal cord hyperreflexia

• A) Muscle tone is maintained by continuous voluntary motor cortex firing
• B) Muscle tone is maintained through the activity of the muscle spindle circuit via efferent fibres of a small fibre nervous reflex pathway
• C) Muscle tone is maintained by the Golgi tendon organ reflexes
• D) Muscle tone is generated by the large extrafusal muscle fibres during rest
• E) Muscle tone depends entirely on passive connective tissue tension

• A) They contract tonically to stabilize the joints
• B) They fire at low frequency to provide background postural support
• C) They remain relaxed while only the small intrafusal fibres of the spindles are active
• D) They alternate contraction with the intrafusal fibres in a reciprocal pattern
• E) They contract maximally during the stretch reflex to counteract gravity

• A) Supine position reduces blood flow to the muscles, decreasing metabolic activity
• B) Supine position eliminates the vestibular inputs that maintain tone
• C) In upright positions, gravity stretches the anti-gravity muscles more, increasing postural tone; recumbent positions counterbalance gravity, reducing postural tone
• D) The cervical spine joints decompress in supine, removing pain inhibition
• E) Supine position activates the parasympathetic nervous system globally

• A) Horizontal position activates the parasympathetic nervous system directly
• B) Recumbent positions that provide full support for ALL body segments are most suitable for obtaining general relaxation
• C) Lying reduces venous return, lowering blood pressure and muscle tension
• D) The prone position deactivates the muscle spindle circuit completely
• E) Any change in position reflexively reduces postural tone regardless of support

• A) Supine position activates Golgi tendon organs, causing autogenic inhibition
• B) The force of gravity is counterbalanced by full body support, reducing the stretch stimulus on sensory receptors in the anti-gravity muscles
• C) Supine position increases cerebellar inhibition of the motor cortex
• D) The stretch reflex is abolished in the horizontal position
• E) Muscle spindles are deactivated by joint compression in supine

SECTION B: POSTURAL TONE & THE STRETCH REFLEX

• A) The voluntary motor pathway from the cerebral cortex
• B) The myotatic (stretch) reflex - gravity stretches the back extensors, stimulating sensory receptors which generate motor impulses to contract the same muscles
• C) The Golgi tendon organ reflex causing inhibition of the flexors
• D) The vestibulo-ocular reflex triggering spinal stabilization
• E) Reciprocal inhibition of the abdominal muscles allowing extension

• A) Yes - the stretch reflex is the sole and complete mechanism for postural tone
• B) No - the myotatic/stretch reflex is the FUNDAMENTAL basis, but higher centres also exert a controlling influence
• C) No - postural tone is controlled exclusively by the cerebellum
• D) Yes - the spinal cord alone maintains all postural tone without higher centre input
• E) No - the Golgi tendon organ is the primary mechanism, not the stretch reflex

• A) Voluntary protective guarding by the patient due to pain anticipation
• B) Tension in the muscles increases in response to stretching of their constituent fibres by an external force, in proportion to the degree of stretching
• C) The Golgi tendon organ is triggered, causing reflex muscle contraction
• D) Reciprocal inhibition causes the antagonist to contract during stretch
• E) The muscle enters the active insufficiency range, increasing passive tension

• A) Apply maximum passive stretch quickly to fatigue the stretch reflex
• B) Use measures that reduce or eliminate the effect of the stretching force on the muscle, as this assists in promoting relaxation
• C) Apply electrical stimulation to the antagonist to reciprocally inhibit the calf
• D) Place the patient in standing to maximize proprioceptive input
• E) Apply ice to the muscle to reduce spindle sensitivity

SECTION C: VOLUNTARY MOVEMENT & RECIPROCAL RELAXATION

• A) The Golgi tendon organ inhibits both muscles simultaneously at end range
• B) Activity of living cells tends to be followed by inhibition of that activity; contraction in one muscle group is accompanied by reciprocal relaxation of the antagonistic group
• C) Fatigue causes both muscles to relax simultaneously after contraction
• D) The cerebellum terminates motor activity after movement completion
• E) Autogenic inhibition from the Ib fibres relaxes the biceps at completion

• A) Active hip flexion exercises to fatigue the hip flexors
• B) Active hip extension - contracting the hip extensors causes reciprocal relaxation of the antagonistic hip flexors
• C) Passive hip extension applied by the PT
• D) Active knee flexion to relax the iliopsoas via irradiation
• E) Isometric contraction of the hip flexors in the shortened position

• A) The muscle enters passive insufficiency at end range
• B) The recognised biological principle that activity of living cells tends to be followed by inhibition of that activity
• C) The Golgi tendon organ triggers autogenic inhibition at end range
• D) Central fatigue at the motor cortex reduces efferent drive
• E) The agonist relaxes because the antagonist now contracts to return the limb

• A) Active exercise fatigues the muscle, causing permanent tone reduction
• B) Post-activity inhibition (activity followed by inhibition) AND reciprocal relaxation of the antagonistic group during movement
• C) Active exercise increases blood flow, washing out tension-producing metabolites
• D) Voluntary movement activates the cerebellum, overriding the stretch reflex
• E) Active exercise stimulates Golgi tendon organs to inhibit the hypertonic muscle

SECTION D: MENTAL ATTITUDES & TENSION

• A) Dehydration before the competition causing muscle cramping
• B) Mental attitudes such as fear and excitement give rise to a general increase in muscular tension preparing muscles for rapid or forceful action
• C) The athlete has been overtraining, causing chronic muscle fatigue and spasm
• D) Cold environmental temperature is increasing baseline muscle tone
• E) Poor posture during travel to the venue has increased postural tone

• A) Anxiety causes sympathetic vasoconstriction, reducing muscle oxygenation and causing tension
• B) Normally tension from fear/anxiety serves a useful purpose and is relaxed when no longer needed, but in some cases it persists and becomes habitual, leading to alterations in normal posture
• C) Work stress causes direct cortisol-mediated muscle fibre hypertrophy
• D) Anxiety increases pain sensitivity (central sensitization), which causes perceived muscle tension
• E) Chronic stress causes depletion of acetylcholine at the neuromuscular junction

• A) Muscle atrophy and joint contracture from disuse
• B) Altered normal posture AND reduction in normal range of movement in a joint
• C) Cardiovascular changes and metabolic dysregulation
• D) Peripheral neuropathy and sensory loss
• E) Muscle fibrosis and permanent structural shortening

• A) Voluntary relaxation permanently eliminates the patient's anxiety
• B) Recognition of tension followed by voluntary relaxation helps the patient economise in nervous energy and increases mobility in joints where tension has reduced ROM
• C) Voluntary relaxation prevents the stretch reflex from activating during exercise
• D) Voluntary relaxation resets the muscle spindle sensitivity to normal levels
• E) Voluntary relaxation prevents postural tone from developing in anti-gravity muscles

• A) Patient rapport improves compliance with the exercise program
• B) Fear is the most usual cause of persistent tension; gaining patient confidence and co-operation, and creating an atmosphere conducive to rest contributes much to success in helping the patient acquire voluntary relaxation
• C) A calm environment reduces sympathetic tone and lowers resting heart rate
• D) Reassurance prevents the Golgi tendon organ from activating during treatment
• E) Patient education about relaxation is required before any hands-on treatment

• A) No - emotional tension is always pathological and serves no useful purpose
• B) Yes - mental attitudes like fear and excitement increase muscular tension which serves a useful purpose by preparing muscles for rapid or forceful action
• C) Yes - tension improves joint stability and prevents injury during stress
• D) No - emotional tension only affects smooth muscle, not skeletal muscle
• E) Yes - tension during exams improves cognitive performance through arousal

SECTION E: DEGREES OF RELAXATION

• A) Complete relaxation is achievable but requires advanced biofeedback techniques
• B) The degree to which muscular tension can be reduced is very variable; 'Relaxation' should be regarded merely as an indication that some reduction in tension has taken place
• C) Complete relaxation occurs only during deep sleep and cannot be achieved in therapy
• D) Full relaxation requires Grade 0 muscle activity on EMG assessment
• E) Relaxation goals should always target 80-90% reduction from baseline tension

• A) EMG biofeedback and dynamometry
• B) Gentle passive movement of limbs AND palpation of the muscles (as during massage)
• C) Patient self-report on a visual analogue scale only
• D) Observation of respiratory rate and blood pressure monitoring
• E) Active ROM testing before and after the session

• A) The patient is uncooperative and the session should be ended
• B) Both findings - soft muscles on palpation AND the patient falling asleep - are indicators of successful relaxation, with sleep being ample proof of successful general relaxation
• C) Sleep indicates the technique was too sedating and should be modified
• D) Soft muscles indicate muscle weakness rather than relaxation
• E) Falling asleep prevents active participation and invalidates the session

SECTION F: PATHOLOGICAL TENSION

• A) MS causes muscle fibrosis that stiffens the tissue directly
• B) Lesions of the higher motor centres interfere with the normal function of the nervous pathways connecting them with the spinal reflex arc, resulting in an abnormal state of muscular tension varying from hypertonicity to spasticity or rigidity
• C) MS causes excessive acetylcholine release at the neuromuscular junction
• D) MS damages the peripheral nerves, causing denervation hypersensitivity
• E) MS causes the muscle spindles to become hyperactive due to ischemia

• A) Lower motor neuron pathology causing flaccidity
• B) Pathological tension - a marked persistent increase in muscular tension from a CNS lesion, varying from hypertonicity to spasticity to rigidity
• C) Postural tone abnormality due to positioning
• D) Habitual tension from emotional factors related to stroke-induced anxiety
• E) Normal response to pain and fear following the stroke event

• A) Permanent elimination of rigidity through exercise therapy
• B) A temporary reduction in tension can be achieved in some cases by suitable means, allowing re-education of any functional activity which remains
• C) Rigidity cannot be reduced by physiotherapy and requires only pharmacological management
• D) Active resistance exercises will permanently reduce the rigidity
• E) Relaxation techniques are contraindicated in neurological pathological tension

• A) Stretch the spastic muscles maximally and hold for prolonged periods
• B) Use suitable means to promote relaxation and temporarily reduce the pathological tension, then use this window to re-educate remaining functional activities
• C) Apply electrical stimulation to the spastic muscles to fatigue them
• D) Strengthen the antagonist muscles before addressing the spastic muscle
• E) Apply joint mobilization to override the spinal reflex arc hyperactivity

SECTION G: INTEGRATED CLINICAL SCENARIOS

• A) Pathological, Habitual, Normal muscle tone
• B) Habitual tension from mental attitudes, Pathological tension from CNS lesion, Normal muscle tone (intrafusal fibre activity)
• C) Postural tone, Pathological tone, Voluntary tension
• D) Habitual tension, Normal muscle tone, Pathological tension
• E) All three demonstrate pathological tension requiring treatment

• A) Electrical stimulation and ultrasound to the tense muscles
• B) Reassure and gain patient confidence (address fear), use fully supported recumbent positions (counterbalance gravity), apply massage/passive movement (reduce stretch force), and teach voluntary relaxation techniques (active reciprocal inhibition)
• C) Prescribe progressive resistance exercises to fatigue the tense muscles
• D) Teach breathing exercises only to reduce sympathetic arousal
• E) Apply joint manipulation to restore cervical ROM without addressing muscle tension

• A) Psychology is irrelevant - only the spinal reflex mechanisms matter in physiotherapy
• B) Muscle tone has purely physical mechanisms that are unaffected by mental states
• C) Muscle tone is maintained by spinal reflex mechanisms (intrafusal fibres, stretch reflex), but mental attitudes (fear, anger, excitement) generate a separate pathway for increasing general muscular tension; effective treatment must address BOTH the reflex physiology AND the psychological contributing factors simultaneously
• D) Mental attitudes only affect smooth muscle, not the skeletal muscle tone relevant to physiotherapy
• E) Understanding psychology only helps with patient communication, not with clinical outcomes

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