A low-tech rehab program improved a patient’s
muscle balance, endurance, and joint stability
History
A 41-year-old right-handed male presented for
postsurgery elbow rehabilitation. The patient fell from a roof, landing on
concrete and shattering his left elbow at impact. After diagnostic testing
at a hospital emergency department, he was sent to an orthopedic surgeon,
who reconstructed his elbow using surgical screws and hardware. The muscles
of his forearm, bicep, and tricep were reattached. The surgery was
successful, and the patient was given medical clearance to begin
rehabilitation.
Clinical Presentation
The patient presented with his left elbow in a brace
bent at 90°. He had swelling, inflammation, tightness weakness, and he
managed only a few degrees of motion in all directions.
Clinical impression: He had muscle imbalances with
severely limited ranges of motion and flexibility, decreased stability, and
a compensatory upper cross syndrome. Areas of deficit included tight,
overactive muscles on the involved side; inhibited or weak muscles on the
opposite side; round shoulders; anterior head translation; winged scapula
on the involved side; and less than 5° of motion in flexion, extension,
pronation, and supination, with markedly decreased proprioception.
Functional testing included postural analysis,
proprioception testing, muscle testing, and range-of-motion testing.
Findings
The patient initially presented with round shoulders,
winging of scapulae, and elevation of shoulders. He demonstrated weak lower
and middletrapezius,
neck flexors, serratus anterior, triceps, anconeus, pronator, and
supinator. There was diminished proprioception on the left side, which
became worse when the patient closed his eyes. He also demonstrated tight
biceps, brachialis, brachioradialis, upper trapezius and levator scapulae,
sub occipitals, pectoralis major, and sternocleidomastoidious
(SCM). Myofascial trigger points were noted in the SCM and levator
scapulae. There were inhibited spinal stabilizers, specifically the
multifidus. Strength differences were greater than expected values. Shallow
breathing was present.
Diagnosis
The patient’s diagnoses at the initial
presentation were joint stiffness, upper cross syndrome, abnormal posture,
muscle imbalances, muscle incoordination, and muscle weakness.
Treatment
Rehabilitation concepts: The specific rehabilitation
program design was based on the specific adaptation to imposed demands
(SAID) principle, Sherrington’s law of reciprocal inhibition,
neurologic crossover effect, and neuromuscular overflow (physiologic).
Primary focus, clinical goals: The rehabilitation
program was designed to increase strength of the lower and middle
trapezius, neck flexors, serratus anterior, triceps, anconeus, pronator and
supinator; stretch the biceps, brachialis, brachioradialis, upper
trapezius, levator scapulae, sub occipitals, pectoralis major, and SCM;
activate spinal stabilizers such as multifidus; increase proprioception;
and correct the spinal and extremity biomechanics.
Zinovieff Protocol Timing for the exercise is 3 seconds contraction/6 seconds relaxation. Initial 10 repetitions maximum (RM) = IRM/2
Set 1: The exercise is performed at the initial 10 RM value (if this is the first session following the evaluation), or at the 10 RM value calculated from the previous exercise session. The patient will perform up to 11 repetitions at this weight. The number of repetitions completed is entered. The patient will rest for 1 minute.
Set 2: The patient will perform 10 repetitions at 3¼4 of the 10 RM. The patient will rest for 1 minute.
Set 3: The patient will perform 10 repetitions at 1¼2 of the 10 RM. If the patient was able to achieve more than 10 repetitions for the first set, the computer will add one weight unit for the next exercise session. If the patient achieved fewer than 10 repetitions, the computer will decrease the resistance by one weight unit for the next session. Otherwise, the weight will remain the same.
Stage 1, passive care protocols (short-term goals):
Initially, the primary focus of treatment was to address the acute nature
of the injury postsurgery so that more aggressive rehabilitation could be
performed with minimal upset to the patient. The patient showed favorable
outcome, through increased flexibility and reduction in the onset and
duration of pain and inflammation. Manipulation was performed as needed to
address joint dysfunction. Sequential electrical muscle stimulation (EMS)
using variable muscle stimulation (VMS) burst and interferential was
utilized for 30 minutes to reduce the symptoms, improve circulation, and
diminish spasms. Ultrasound was performed for 10 minutes using Medic Ice as
a conduction medium to decrease inflammation, improve flexibility, and
break up adhesions. Mechanical traction was performed, focusing on full
extension of the elbow. The traction was performed to patient comfort,
increasing the amount of force each week. A combination of post-isometric
relaxation (PIR), proprioceptive neuromuscular facilitation (PNF), and flex
building muscle energy techniques were utilized to stretch the short, tight
muscles; activate the inhibited muscles; and strengthen the weak muscles
(Sherrington’s law of reciprocal inhibition).
The patient was taught correct breathing patterns,
beginning from the lower abdomen and ending in the upper chest. Correct
breathing patterns activate spinal stabilizers. The patient was shown how
to use a Dynasplint to flex and extend his elbow (neuromuscular overflow).
This was performed three times per day, to patient comfort, for 20 minutes,
increasing the force of traction on a weekly basis. The patient was
instructed to perform upper-extremity exercise protocols using the
Wristiciser at home primarily on the uninjured side (neurologic cross-over
effect). Office treatment was administered five times per week, while home
care was performed daily. After office treatment and home care, Medic Ice
was used daily to control symptoms.
Stage 2, intermediate goals: During this period of
treatment, focus was on core and postural stabilization of the upper
kinetic chain to develop proper cervical and upper-extremity movement
patterns. Focus was also on resolving noted tightness/weakness syndromes so
that patient tolerance for sedentary and light activities was possible
without upset.
To address joint dysfunction, manipulation was
performed as needed. Sequential EMS using VMS burst and interferential was
again utilized for 30 minutes to reduce the symptoms, improve circulation,
and diminish spasms. Ultrasound was performed again using Medic Ice, and
mechanical traction was again performed. The traction was performed to
patient comfort, increasing the amount of force each week. A combination of
PIR, PNF, and flex-building muscle-energy techniques were again used.
The patient began performing strengthening exercises
utilizing low weight and high repetitions protocol on a universal gym. The
patient also began performing exercise on an elliptical walker for 15
minutes, followed by 15 minutes on a Cardioglide. These two devices put the
arm through a full range of motion with resistance (Sherrington’s law
of reciprocal inhibition). Gym Ball, upper-extremity, core, and
postural-stability exercises were performed to complete the routine. Office
treatment protocols were performed three times per week. Home protocols are
still performed daily. The patient is now performing the Wristiciser
exercises on both the injured and uninjured upper extremities.
Stage 3, long-term goals: During this phase of
treatment, the focus continued with core and postural stabilization of the upper-kinetic chain, with the progression of
more challenging exercises. The goal is to improve the functional stability
of the upper kinetic chain such that patient tolerance for more aggressive
and stressful activities were possible without upset (SAID principle).
Patient progress was continuously monitored through periodic functional
re-evaluation and was discharged when progress reached a plateau.
Biomechanical manipulation should be performed as needed to address joint
dysfunction. The patient continued to perform endurance cross-training
using an elliptical walker and a Cardioglide for 30 minutes.
The patient also continued performing strengthening
exercises using Zinovieff protocols progressing to McQueen on a universal
gym. Gym Ball protocols continued to be performed with a whole-body focus.
In addition to the above exercises, Otis Ring work training was added in
the transverse and horizontal planes, for 2 minutes using all three ring
sizes. Otis Ring is a hollow ring with two metal balls, and the patient
spins the ring.
The patient then transitioned to both clockwise and
counterclockwise training, with all three sizes of the Otis Rings in the
transverse and horizontal planes, for 2 minutes each. The next transition
was to perform one-handed protocols in both planes, using all three ring
sizes. The patient progressed to Body Blade exercises in the X, Y, and Z
planes using both hands, for 2 minutes each. The patient was then
transitioned to one-handed Body Blade protocols, in all three planes, for 2
minutes. The final progression was to perform the Otis Ring and Body Blade
protocols while standing on balance boards.
Discharge to Home Care
Patient capacity for occupational, recreational, and
social activities was restored. Following discharge, the patient was
advised of the benefits of a home care program. The patient was provided
with specific self-care stretches and exercises, as well as the Wristiciser
and a Gym Ball, that are safe to perform without direct supervision. The
patient was to return for additional care, if function decreased or
symptoms reoccurred.
George K. Petruska, DC, DACRB, has 25 years of experience in chiropractic and rehabilitation,
with emphasis in personal injury and workers’ compensation cases.
Contact him at acrbdoc@verizon.net.
Acknowledgment Jodelle Lapinski and Heather Petruska edited this
article.