Hyperlipidemia - Weber State University

Matt Miller
Spinal Cord Disabilities frequently result in paraplegia or tetraplegia, with segmental
neuromuscular, autonomic, and physiologic impairment of the legs, arms, and/or trunk.
Paraplegia- paralysis of both lower limbs due to spinal disease or injury.
“Paraplegia results when an injury to the spinal cord is below the first thoracic spinal nerve. This results in
the loss of feeling and movement, to some degree, of the legs. Paraplegics can experience anything from
impairment of leg movement to complete loss of leg movement all the way up to the chest. Paraplegics
are able to move their arms and hands.”
Tetraplegia- (Also known as Quadriplegia) paralysis of both lower limbs and upper extremities
due to spinal disease of injury.
“The primary cause of quadriplegia is a spinal cord injury, but other conditions such as cerebral palsy and
strokes can cause a similar appearing paralysis. The amount of impairment resulting from a spinal cord
injury depends on the part of the spinal cord injured and the amount of damage done .”
Most traumatic spinal cord injuries (SCIs) result from motor vehicle accidents and
falls(42.1%), with fewer caused by sports, violence, infection or tumor, or surgical
Incidence of new traumatic SCIs is approximately 32 per million population.
Estimated 8,000 new SCIs per year, and approximately 75,000 total SCI survivors in any
given year.
1 in every 1,000 live births in the U.S. results in spina bifida (congenital developmental
form of spinal cord disability)* (4,000 per year)
Approximately 259,000 people living in the U.S. have SCI
80.9% of SCIs in the U.S. have occurred among males.
Average age of SCI is 40.2 years.
• Paraplegia - Injury in the spinal cord in the thoracic, lumbar, or sacral segments, including
the cauda equina and conus medullaris
• Tetraplegia - Injury to the spinal cord in the cervical region, with associated loss of muscle
strength in all 4 extremities
SCIs can be sustained through a variety of mechanisms, including:
o Destruction from direct trauma
o Compression by bone fragments, hematoma, or disk material
o Ischemia from damage or impingement on the spinal arteries
• Spina Bifida - involves incomplete development and closure of the vertebral arch,
resulting in spinal cord damage and can cause low-level paraplegia.
• Congenital and acquired or traumatic spinal cord disability can result in the same
sensorimotor, autonomic, physiological, and locomotor impairments.
Spinal cord disability from any etiology results in impairment or loss of sensorimotor and
other functions in the trunk or extremities caused by damage to the neural elements within
the spinal canal.
SCI: Cervical Segments (C1-C8) – causes tetraplegia, with impairment to the arms,
trunks, legs, and pelvic organs. (bladder, bowels, sexual organs)
Breathing difficulties (from paralysis of the breathing muscles)
Numbness and/or pain
Spasticity (increased muscle tone)
Thoracic Segments (T2-T12) – causes paraplegia, with impairment to the trunk, legs,
pelvic organs or both.
Loss of bladder & bowel control
Numbness and/or pain
Lumbar or Sacral Segments of the cauda equina (L1 –L5, S1-S4) – causes impairment to
the legs or pelvic organs or both. The neurological level and completeness of injury
determine the degree of impairment
• Loss of bladder & bowel control
• Numbness and/or pain
• Spasticity
With any SCI, physiological impairment may include extensive muscular paralysis and
sympathetic nervous system impairment.
• Reduced ability to voluntarily perform large muscle group aerobic exercise.
• Inability to stimulate the cardiovascular system to support higher rates of aerobic
Common secondary complications during exercise (especially in individuals w/tetraplegia)
may include: limited positive cardiac chronotropic and inotropic states, excessive venous
pooling, orthostatic and exercise hypotension, exercise intolerance, autonomic
dysreflexia, headache, bradycardia, flushing, gooseflesh, unusual sweating, shivering,
and nasal congestions.
SCIs are medical emergencies requiring immediate attention.
After an SCI, the health-care provider will perform a battery of tests, including a neurological
exam to determine the exact location of the injury.
Some reflexes may be abnormal or even absent, once swelling goes down some reflexes
may slowly recover.
The following tests are likely to be ordered:
A CT scan or MRI of the spine may show the location and extent of the damage and reveal problems
such as blood clots (hematomas).
Myelogram (an x-ray of the spine after injection of dye) may be necessary in rare cases.
Somatosensory evoked potential (SSEP) testing or magnetic stimulation may show if nerve signals
can pass through the spinal cord.
Spine x-rays may show fracture or damage to the bones of the spine.
SCIs require immediate treatment to reduce the long-term effects. The time between the injury
and treatment is a critical factor affecting the eventual outcome.
Surgery may be needed to
• remove fluid or tissue that presses on the spinal cord
• remove bone fragments, disk fragments, or foreign objects
• fuse broken spinal bones or place spinal braces
Today, many new options are offering quadriplegia patients new hope.
One of these options is called Functional Neuromuscular Stimulation (FNS). FNS stimulates
the intact peripheral nerves so that the paralyzed muscles will contract. The contractions are
stimulated using either electrodes that have been placed on the skin or that have been
An implantable FNS system has been used to help people with some types of spinal injury
regain use of their hands
Tendon transfer is another option which allows some people with quadriplegia more use of the
arms and hands. This complicated surgery transfers a nonessential muscle with nerve
function to the shoulder or arm to help restore function.
FNS may be used in conjunction with tendon transfer.
Management of individuals with paraplegia or tetraplegia is complex because of the multitude of complications
associated with their particular SCI, which include the following:
Skin – individuals with spinal cord disability should avoid sitting for long periods without pressure relief.
Bones – those working with spinal cord patients should avoid dropping during transfers or allowing the
person to fall, as they are at increased risk of fractures secondary to osteoporosis.
Stabilization – Sufficient strapping and seat belts should be used during upright exercise
Bladder/ Bowels – Individuals with SCI should empty their bladder or leg bag just before exercise testing to
avoid bladder bladder overdissention or overfilling of the leg bag, as this could cause autonomic dysreflexia.
Illness – Exercise should postponed if individual is ill (Always!)
Pain – Discontinue upper body exercise that causes pain, as overuse syndromes are prevalent in
individuals who use their arms to transfer themselves into and out of wheelchairs.
Individual should be allowed to take normal prescription drugs. However should be cautions of drugs that induce
either hypotension (ex. Ditropan, Dibenzyline) or diuresis (ex. alcohol, diuretics)
Ideally, corticosteroids should begin as soon as possible after the injury.
Arm exercise training adaptations are believed to be primarily muscular, increasing
muscular strength and endurance of the arm musculature in the exercise modes used.
These may result in 10-20% improvements in peak power output and peak oxygen
consumption, as well as enhanced sense of well-being.
Functional mobility testing such as timed wheeling (6 to 12 min), or a custom-designed
mobility obstacle course containing potential environmental barriers such as ramps,
stairs, doorways, soft or uneven surfaces, and turns can be beneficial. Involving transfers,
lifting, carrying and manipulation of objects is very important.
An environmentally controlled thermoneutral or cool laboratory or clinic should be used to
compensate for impaired thermoregulation.
Incremental testing is often used in testing patients with SCI. Heart rate, blood pressure,
RPE, symptoms and exercise tolerance should be measured at each stage of testing.
Power output increments may range from 5 to 20 W per stage depending on exercise
mode, level, completeness of paraplegia or tetraplegia, and activity and training status.
Common peak power outputs range from 0 to 50 W for those with tetraplegia and from 50
to 120 W for those with paraplegia.
If the individual complains of exhaustion or hypotension is apparent after exercise, leg
elevation, rest and fluid ingestion is necessary.
Cardiopulmonary training modes may include arm cranking, wheelchair ergometry ,
wheelchair propulsion on treadmill, swimming, or wheelchair sports, arm-powered cycling,
or ambulation with crutches and braces. (for those w/ paraplegia)
To prevent upper body overuse syndromes it is important to vary exercise modes from
week to week, strengthen upper back and posterior shoulder muscles, and to stretch
anterior shoulder and chest muscles.
The greater the exercising muscle mass, the greater the expected improvements are in
physiologic and performance parameters.
In some settings, electrically stimulated muscle contractions can recruit sufficient muscle
mass to significantly increase VO2Peak
Improvements are expected to be small (>5% per week).
Individuals with SCI should always be supervised during exercise (especially those w/
• Arm ergometer
• Wheelchair ergometer
• Wheelchair treadmill
• Free Wheeling
• Arm cycling
• Seated aerobics
• Swimming
• Wheelchair sports
• Weight machines or
• Wrist weights
• Stretching
Pg. 302 in text
Time to goal
• 40-90% VO2R
• 3-5 days per week
• 20-60 min per session
4-6 months
• Increase active muscle mass
and strength
• Maximize overall strength for
functional independence
• Improve efficiency of manual
wheelchair propulsion
• 2-3 sets of 8-12 reps
• 2-4 days per week
4-6 months
Avoid joint contracture
Before aerobic or strength
4-6 months
Increase active muscle
mass and strength
Maximize overall strength
for functional
Improve efficiency of
manual wheelchair
Palmer, Dr. Sarah, Dr. Kay Kreigsman, and Dr. Jefferey Palmer. Spinal Cord Injury: A
Guide for
Senelick, Richard, and Karla Dougherty. The Spinal Cord Injury Handbook: For Patients
and Families. N.p.: Healthsouth Press, 2010. Print.
Ling GSF. Traumatic brain injury and spinal cord injury. In: Goldman L, Ausiello D, eds.
Cecil Medicine. 23rd ed. Philadelphia, PA: Saunders Elsevier; 2007:chap 422.
Dawodu, Segun T. emedicine,medscape.com. Ed. Denise Campagnolo. N.p., 10 Nov.
2011. Web. 22 Mar. 2012. <http://emedicine.medscape.com/article/322480-overview>.
Brainandspinalcord.org. N.p., n.d. Web. 28 Mar. 2012. Path:
N.p., 16 June 2010. Web. 2 Apr. 2012.
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