Course instructions:
This is your course material page. You can read it on your monitor or print
it. The material will be approximately
30 pages.
Print the Course Material
To complete the course you must take the quiz. You may print the blank quiz to complete it
on paper and log in at a later time to submit it. To print the quiz, close this course material
window and go back to the downloads area. Then click on Take Test.Click Here to Print the Test or Submit the
Test
Chiropractic Sports Physician
The Role of the Chiropractic Sports Physician
The Chiropractic
Sports Physician (CSP) performs diverse and multifaceted roles to include the
following;
1.
Athlete examination prior to
sports participation.
2.
Testing to determine the athletes
fitness level.
3.
Creation and implementation of
exercise strength training protocols.
4.
On field assessment of
athletic injuries.
5.
On field trauma care / provision of therapeutic
measures during the period between the time of the
injury until the arrival of emergency medical personnel.
6.
Medical decision making
regarding the injured athlete's ability to return to athletic competition.
7.
Interpersonal relationships
with individual athletes, parents, coaches, athletic trainers, school
administrators and other medical personnel.
8.
Diagnosis of sports related injuries.
9.
Utilization of appropriate rehabilitation
treatment methodologies to enhance the return to active sports participation
10.
Documentation and record
keeping.
The demand for
qualified CSP's has increased commensurate with the increased number of people
participating in sports and fitness endeavors and the increased number of
sports related injuries.
Athletic Participation / Injury Statistics For the U.S.
·
40 million Americans play tennis.
·
25 million Americans jog on a regular basis.
·
14 million people play racquetball. [1]
·
70% of all sports injuries happen to athletes
between the ages of ten and twenty - four.
·
40% of all sports injuries happen to children
under 15 years of age.
·
63,000 people are injured yearly in golf.
·
84,000 people are injured yearly in bowling.
·
250,000 people are injured playing volleyball. [2]
·
Over 100,000 people seek emergency room
treatment for skateboard-related injuries per year. [3]
Chiropractic Sports Physician Interactions
Relationship With The
Athlete
·
It is imperative to develop a comfort level with
the athlete. Become familiar with the
demands which are placed upon the athlete (demands relative to their position,
and training, as well as familial and academic demands.)
·
Clearly explain to the athlete your sports and
educational background.
·
Offer the athlete information regarding the
chiropractic profession.
·
Discuss with the athlete the array of treatment
services that you are capable of offering and the efficacy of chiropractic
treatment.
·
Assure the athlete that as the CSP you possess
the authority to make the final clinical determination regarding their return
to sports participation following an injury.
·
Get the athlete's consent to evaluate and treat
them. In the case of a minor, get the
parents consent for treatment.
·
Advise the athlete / or the athlete's parents as
to the status of their child's injury, diagnosis, treatment plan, prognosis and
expected date of return to competition.
·
Be on the alert for signs of drug use such as
anabolic steroids and ephedrine, which influence the cardiac and respiratory
systems and psychotonic stimulants, such as amphetamines, which effect the
central nervous system. Council the
athlete regarding the adverse physical effects of drug usage.
·
Familiarize yourself with the diagnosis and
treatment of infectious disease.
Relationship With The Coach
·
Prior to becoming a team's physician, clearly
discuss with the coach and come to an agreement regarding your clinical
decision making authority relative to clearing an athlete for sports
participation, treatment, exercise protocol planning and monitoring and the
eventual return to athletic competition following injury.
·
Make clear to the coach that your primary
concern is the health and well being of the athlete.
·
Give the coach general guidelines regarding the
healing process, duration of care and timeframes for return to competition
following specific injuries. For
example, a mild bicep strain may not necessitate removal from a game while a
moderate ankle sprain may require the absence from competition for 2-4 weeks
and intensive rehabilitative therapy.
·
Familiarize the coach regarding your athletic
history and educational background.
Illustrate the efficacy of chiropractic treatment.
·
Ascertain the authority to order a conference
with the coach, athlete, and parents of the minor athlete to discuss treatment,
return to competition and suspected drug use.
·
Become familiar with coaching principles and the
demands placed upon the coach.
·
Develop a strong working relationship with the
coach predicated on trust and respect.
Relationship With The Team
·
Educate yourself regarding team dynamics, such
as "the star system", the roles of starters verses substitutes,
position competition, team camaraderie, team jealousies, team bonding and
cliques, team perception of the coaching staff, school administration and
athletic facilities.
·
Be consistent and treat each team member fairly
and equally regardless if they are the star athlete or a substitute role
player.
·
Always maintain your position of authority.
Relationship With Other Health Care Providers Affiliated
with the Team
·
Determine each of the team physicians and
trainers roles and responsibilities.
Determine whether the trainer or the Chiropractic Sports Physician is
responsible for taping the athlete, fitting the athlete with athletic equipment
and supports and prescribing / providing treatment.
·
Ascertain who possesses the ultimate authority
to determine the athlete's ability to participate in a contest and the date of
return to competition following injury.
·
Work in unison with the other health care
providers and affiliated staff. Develop
unified treatment goals, plans and guidelines.
Chiropractic Sports Physician Experience
The vast majority
of CSP's will gain experience as team physicians working with youth leagues,
junior high school and high school teams.
Since these teams have small or no operating budgets at all, they would
readily embrace having the CSP on staff on a voluntary basis. Working with these teams allows the CSP to
gain valuable, practical team physician experience.
Some CSP's will
have the opportunity to receive compensation from high school, college and
professional teams for their services.
The level of compensation is often negotiable depending upon budgetary
constraints and the Chiropractic Sports Physician's level of expertise. These
paid positions are not as easy to come by voluntary positions. Often the paid team physician positions are
required to have personal contacts with team officials responsible for health
care staffing. Remember, a large
percentage of the college and professional teams have contracts with large
medical conglomerates (such as the Philadelphia Eagles and Nova Care), who
dictate team physician operations. Some
of these medical conglomerates have a bias against chiropractic and will not
use the services of a CSP. Others will
offer the CSP a limited role in their organization. Very few, offer unlimited access and equality
as the teams physician.
Preparticipation Examination Of The Athlete
·
Unlike patient examinations which take place in
your chiropractic office, the athletic examination typically involves a healthy
individual. The purpose of the athletic
examination is to determine the athletes health status, preparedness for
participation in a particular sport, and their performance potential. The athlete examination is performed to
garner information regarding the athletes present health status which can then
be used for comparison with subsequent examination findings. The examination is further performed to rule
out or detect conditions that would preclude or restrict their participation in
sports.
·
Be cognizant of the athlete who attempts to
withhold medical information or down play previous injuries for fear that this
information will prevent sports participation.
·
In the athlete examination, more focus and
greater emphasis is placed on morphological measurements, strength,
cardiovascular fitness, flexibility, agility and coordination testing.
·
The ultimate question which must be answered by
the athlete examination is whether or not the athlete is ready to play.
Synopsis of the Preparticipation Athletic Examination
·
Case history taking with emphasis on the
athletes sports history (sport played, position played, previous injuries etc.)
·
Vital signs (blood pressure, (120/80);
pulse (72 beats per minute); temperature (98.6°); and respirations (14-18
respirations per minute).
·
Height and weight.
·
Morphologic determination (ectomorph
(thin); endormorph (obese) and mesomorph (muscular).
·
Head, neck, chest, waist, thigh, knee, calf,
ankle, upper and lower arm and wrist measurements. This is valuable information if the CSP is
responsible for fitting the athlete with equipment.
·
Muscle strength testing.
·
Range of motion testing using inclinometry.
·
Gait assessment (foot flair / pronation /
supination/ eversion / inversion; coxa and genu valgum / varum; anatomical
variants such as Morton's Foot and hallux valgus.) Morton's Foot is characterized by the second
toe being longer than the big toe. As a
result the inner border of the foot bears weight longer than normal in the
support phase of the foot strike, causing over-pronation of the foot. Hallux valgus is a deformity in which the big
toe points away from the midline of the body towards the outside of the
foot. The second toe overrides the big
toe causing over-pronation. More than
50% of all joggers have pronation abnormalities due to over use.
·
Other Foot Conditions
1.
Pes Planus (low arched or flat feet).
2.
Pes Cavus (high-arched feet).
The cavus foot is
more common in women, is relatively rigid and inflexible and is not well suited
to the demands of certain running sports like distance running. Distance running can require tens of
thousands of foot strikes per training session.
It is not uncommon for these athletes to run hundreds of miles per
week. The demands of distance running
combined with foot abnormalities can easily lead to overuse injuries.
·
Orthopedic Evaluation
·
Neurological Evaluation
Cerebrum: alert, orientated to time and space,
cooperative, emotionally labile or unstable.
Cerebellum:
ataxia (a blocked ability to coordinate movements; a staggering walk and poor
balance which may be caused by damage to the spinal cord or brain.); dysmetria
(an abnormal condition that prevents the affected person from properly
estimating distances linked to muscular movements, such as reaching for an
object); dyskinesia (impaired ability to make voluntary movements).
Mensuration:
thigh (6 inches above the pole of the knee), calf (4 inches below the pole the
knee), leg length, inspiration/expiration.
Deep
tendon reflexes: bicep (C5,
6-musculocutaneous nerve); tricep (C 6, 7, 8-radial nerve);brachioradialis (C
5, 6-radial nerve); knee/patellar (L 2,
3, 4-femoral nerve); ankle (S 1, 2-tibial nerve).
Superficial
reflexes: upper/lower abdominal (T 8--12); plantar response (L 4, 5, S 1 and
2).
Muscle
strength grading: hip flexors (L 2, 3); hip extensors (L 4, 5); knee extensors
( L 3, 4); knee flexors (L 5, S 1); ankle extensors (L 4, 5); ankle flexors (S
1, 2).
Pathological
reflexes—Babinski-the single most important pathological sign in
neurology. Stroke the sole of the foot.
With a positive Babinski you will see extension of the big toe and fanning of
the toes. The following tests will
elicit a Babinski sign; Chaddock-Stroke the lateral malleolus; Oppenheim-
Stroke downward on the anterior tibia; Gordons-Squeeze the calf muscle;
Schaffers – Squeeze the achilles tendon.
Rossolimo’s-Tap
the ball of the foot. A positive
Rossolimo test will cause dorsiflexion of the big toe and flexion of the toes.
Sensory
appreciation to: light touch, pin prick, vibration, heat/cold, two point
discrimination and proprioception.
Cranial
Nerves
I.
Olfactory Nerve — smell
II.
Optic Nerve — sensory. The
light reflex. A light shined on
the retina causes reflex pupillary constriction of that eye (direct light reflex) and
also of the opposite eye (consensual
light reflex). Accommodation
is the process by which a clear visual image is maintained as the gaze is
shifted from a distant to near point.
The three
components of the reaction are:
1. Convergence of the eyes.
2. Pupillary constriction.
3. Thickening of the lens
through contraction of the ciliary muscles.
Only the first two are visible to the examiner.
III.
Oculomotor Nerve — test with CN4 and
CN6
IV.
Trochlear Nerve — test with abducens
(CN6) and oculomotor (CN3) motor extraocular movement — 6 cardinal fields of
gaze, identifying paralysis, weakness, nystagmus, conjugate movement (eyes
moving together).
V.
Trigeminal Nerve — sensory/motor —
touch, pain, temperature, muscles of mastication, the trigeminal nerve has three branches including:
1. Ophthalmic.
2. Maxillary
3. Mandibular.
Testing of trigeminal nerve through palpation, i.e., jaw jerk reflex or
sensation w/ a cotton wisp in the three branches.
VI. Abducens
Nerve — motor
VII.
Facial Nerve — sensory/motor —
taste (anterior two thirds) and facial expression — corneal reflex, using a
cotton wisp against the cornea, the ability to feel is assessed by the
trigeminal nerve. The blinking would be
an assessment of the facial nerve.
VIII.
Vestibulo/Cochlear Nerve, i.e., balance
and hearing
IX.
Glossopharyngeal — sensory/motor —
taste, posterior 1/3 of tongue and muscles of swallowing
X.
Vagus Nerve — sensory/motor — gag
reflex — assessed by having the patient swallow and identifying dysphagia.
XI.
Spinal Accessory Nerve — sensory/motor —
trapezius — SCM, test by having the patient turn head and shrug shoulders
against resistance.
XII.
Hypoglossal Nerve — motor — musculature
of the tongue.
·
Vascular Screening (check pulses and
perform George's and Thoracic Outlet Tests (Allen's Arterial Occlusion; Adson's
Scalenus Anticus; Eden's Costoclavicular; and Wright's Hyperabduction Tests)
·
Examine the eyes, ears, nose, throat, skin,
hair, nails, heart, lungs, abdomen and genatalia.
·
Check for inguinal hernias - a bulge that
appears on straining suggests a hernia.
A.
Indirect Inguinal Hernia - most common; all
ages; both sexes; most often in children; the point of origin is above the
inguinal ligament near its midpoint extending often into the scrotum. With the examining finger in the inguinal
canal during straining or coughing the hernia comes down the inguinal canal and
touches the examiners fingertip.
B.
Direct Inguinal Hernia - less common than the
indirect; usually seen in men over 40; rare in women; found near the pubic
tubercle near the external inguinal ring; rarely courses into the scrotum. While examining, this hernia bulges anteriorly
and pushes the examiners fingertip forward.
C.
Femoral Hernia - least common type; more common
in women then men; found below the inguinal ligament and more lateral than an
inguinal hernia; easily confused with lymph nodes; never courses into the
scrotum. While examining, the inguinal
canal is empty.
·
If your findings suggest a hernia, gently try to
reduce it by returning it to the abdominal cavity by sustained pressure with
your finger. A hernia is incarcerated
when its contents cannot be returned to the abdominal cavity. A hernia is strangulated when the blood
supply to the entrapped contents is compromised. The presence of tenderness, nausea and
vomiting suggests a strangulated hernia.
·
Perform routine urinalysis. Conversely, x-rays
are not considered a part of a routine preparticipation athlete examination.[4]
Physical Fitness Testing Components
Physical fitness
components include: cardiorespiratory capacity, muscular strength, muscular
endurance, and flexibility
Cardiorespiratory
Capacity
Cardiorespiratory
capacity can be defined as the functional efficiency of the heart and lungs.
Activities which
exercise the large muscles of the trunk and legs are the most effective way to
develop cardiorespiratory capacity.
Heart-lung capacity
is the most important component of physical fitness and physical work capacity.
The transport of oxygen to the cells maintains life, and increased
cardiorespiratory capacity improves the ability to concentrate. A high state of cardiorespiratory training
may prevent decreases in mental acuity due to aging. Older runners averaging 42
miles weekly do not show the decreased reaction time usually seen in the aged.
Cardiorespiratory
capacity, also referred to as cardiovascular, circulatory, or circulo-respiratory
fitness, can be measured in several ways:
with a treadmill, a
stepping bench, or a stationary bicycle.
These methods measure the heart rate during exercise.
Other methods, such
as the Cooper 12-minute run, measure the distance traveled in a given amount of
time or the time required to run a certain distance as in Cooper's 1.5-mile
test. Although some tests of cardiorespiratory capacity are not strenuous,
others involve maximal effort, such as running to exhaustion on a treadmill.
Sports
specific exercise training is required for most sports, including tennis,
long-distance running, sprinting, football, baseball, wrestling, and swimming.
Being trained for one sport does not guarantee fitness for other activities.
Typically, long-distance runners
perform exceptionally well on tests of cardiorespiratory capacity, but have
weak, arm, chest and shoulder strength. Conversely, weight lifters and body
builders exhibit low cardiorespiratory fitness but excel in tests of muscular
strength and endurance.
Muscular Strength
Muscular
strength is the maximum amount of force that a muscle or muscle group can
exert. It can be measured by observing the maximum amount of weight lifted with
a specific movement for one repetition or the amount of tension developed when
exerting against a strain gauge. The first type of muscular contraction is a
measure of isotonic strength and the amount of weight lifted once is
referred to as the one repetition maximum.
Isometric strength is measured by strain gauges such as
the back and leg or grip dynamometers, or the cable tensiometer, which record
the amount of force exerted in a maximal effort.
Muscular
strength can be developed by progressive resistance exercise strength training
methodologies.
Muscular Endurance
Muscular
endurance is the capacity of a muscle or muscle group to perform repeated
contractions or to maintain an isometric contraction for an extended period of
time. Endurance training is aimed at gradually increasing the number of
repetitions or the amount of time an isometric contraction is held, rather than
increasing the amount of resistance or weight. Exercises such as push-ups,
pull-ups, and sit-ups develop muscular endurance. Lifting light weights for a greater number of
repetitions than is required to develop strength will also improve muscular
endurance.
Flexibility
Flexibility refers
to the range of joint motion and is defined as that quality of the muscles,
ligaments, and tendons that enables them to move easily through a complete
range of movement. Joints which are exercised regularly through a full range of
motion will exhibit more flexibility than unexercised joints.
Flexibility can be
measured by devices like the goniometer or by direct linear measurement. There
are two fundamental types of flexibility or stretching exercises. Active stretching
is characterized by bouncing and is sometimes referred to as ballistic or
dynamic stretching. Passive stretching is achieved by holding a muscle
at greater than resting length. The recent trend in athletic training is to
have the athlete perform a combination of stretching techniques. Passive stretching is recommended for
pre-competition training sessions while active, dynamic, sports specific
stretching immediately prior to competition enhances sports performance. Example of dynamic stretching maneuvers
include windmill arm and high step movements.
Athletic Ability
Athletic
ability (motor ability) is the level of efficiency someone exhibits when
he or she learns and performs motor skills.
Superior athletic ability is a compilation of genetics and learned
behaviors.
Factors
contributing to successful motor performance include depth perception, ability
to visualize spatial relationships, arm control, sensory rhythm, timing, and
motor rhythm. Motor ability is a
combination of coordination, agility, power, balance, reaction time, and speed.
BALANCE
Balance
is a specific kind of coordination which permits someone to maintain
equilibrium while moving (dynamic balance) or in a stationary position (static
balance).
POWER
Power
involves muscular strength and refers to the exertion of muscular force for a
brief period of time, or explosive muscular contraction. Powerful
movements are useful in most sports: the dunk in basketball, the tackle in
football, the knockout punch in boxing, the sprinter's start, and the home run
in baseball. Explosive power is enhanced
by plyometric training.
AGILITY
Agility
is the ability to change direction while moving at or near full speed. Agility
is especially important in soccer, ice hockey, judo, football, and basketball.
SPEED
Speed
is the capacity to move quickly through short distances from point A to point
B. Timed 40, 60, 100 yard dashes are
common tests of speed.
REACTION
TIME
Reaction
time is that brief period required for voluntarily responding to a sound
stimulus such as a whistle, a horn or a buzzer.
Reaction time is important in activities where quick starts are
important such as sprinting, defensive baseball play and wrestling.
COORDINATION
Coordination
is the smooth flow of movement during the performance of motor tasks.
Coordination involves the combined use of the eyes with the head, hands, and
feet as required in hitting, throwing, catching, striking, and kicking balls.
Athletic Ability Testing
Flexibility Test Norms
1.
Trunk Extension - In the prone position, the
legs are held firmly by a partner. With
the fingers laced behind the neck,
raise
the head and chest upward and backward.
Measure the distance from the floor to the chin. Twenty (20) inches is a pass.
2.
Trunk Flexion - Bend forward from a sitting
position with the heels 18 inches apart.
Keep the knees locked. To pass,
the forehead must reach a point 8 inches or less from the floor.

- Shoulder
Flexion - In the prone position with chin touching the floor and a ruler
grasped by both hands, raise the hands as high as possible from the floor
- 18 inches is a passing performance.

4.
Back Flexion - Kneeling and with the toes
pointed back, lean back as far as possible.
This test is passed by touching the head to the mat.

5.
Back and Leg Stretch - Place the hands palm down
at the side while lying in the supine position.
Take the feet back over the head and touch your toes to the mat.
If you can touch your knees to the mat
beside your ears, you have above
average flexibility.
.
Strength Tests Norms
1.
Squat Hand Balance - Assume a squatting
position. Place the palms flat on the
floor and the elbows touching inside
your
legs just below the knees. Balance your
body on the hands by leaning forward and raising the toes from the floor. Holding this position for 20 seconds is
indicative of having above average strength.
2.
Extension Press-up. Lying face downward (prone) with the arms
extended forward and elbows and knees rigid, lift your body by pressing on the
hands and feet and contracting the small back muscles. The abdomen should be raised 4 inches from
the floor at least once. A superior
rating is given for 15 repetitions.
Women can use their forearms, not the palms. Holding for 20 seconds suggests above average
strength.

3.
Head or Neck Bridge - Lie on back, arms folded across
chest or hands on thighs, and arch back so body is supported by feet and
head. The ability to hold for 60 seconds
suggests above average strength.

4.
Stick Body - Lie in the back leaning rest position
with your head on partner's knee and feet on floor. Place the hands on the hips and hold. Holding
for 30 seconds equals above average
strength.

5.
Back or Reverse Push-up - Assume the neck bridge
position with hands on the mat beside the ears.
Push up to a position where the elbows are locked. One repetition is sufficient. The capacity to perform 20 or more can be a
measure of muscular endurance. This
movement also involves a flexibility component.

6.
One Hand Pull-up - Grip the chinning bar with
one hand, palm facing away from the body, and place the other hand around the
wrist of the hand holding the bar.
Repeat with the other arm.
Another pull-up test of strength:
grasp the bar with both hands facing away and pull-up to a position
where the head is in front of the bar behind the neck pull-up). Superior strength 20 or more pull ups;
average strength 10-15; poor strength 4 or less.


7.
Push up Test - The most reliable measure of
absolute strength is not surprisingly, the maximum amount of weight you can
lift once. Push-ups are a safe test of strength. Assume the standard position, with your arms
locked and your body straight. Bending
your arms, touch your nose to the ground, then press yourself back up. Do as many as you can without bouncing,
resting, or losing your form.
How Do You Measure
Up?
Age
|
20-29
|
30-39
|
40-49
|
50-59
|
60-69
|
Excellent
|
>40
|
>31
|
>24
|
>23
|
>23
|
Good
|
30-40
|
24-31
|
19-24
|
14-23
|
11-23
|
Average
|
24-29
|
19-23
|
13-18
|
10-13
|
9-10
|
Fair
|
18-23
|
14-18
|
10-12
|
7-9
|
6-8
|
Poor
|
<18
|
<14
|
<10
|
<7
|
<6
|
Sit
up Test.
Coordination Tests
In a standing
position, with eyes closed, extend your right arm horizontally to the
side. Touch the tip of your nose three
times in succession with your right index finger, returning your arm to your
side between trials. Repeat the same
movements with your left index finger.
Then extend both arms horizontally to the sides. Bring the index fingers together three times
at arm's length in front of your body, returning your arms to your sides
between trials. Next, sit on a chair
with both feet on the floor. Touch the
heel of your right foot to your left knee cap three times in succession,
returning your foot to the floor between trials. Repeat these movements with your left foot
and right knee cap. Each successful touch
is a hit and each failure is a "miss." You must score eight or more "hits"
to pass this test.
Agility Tests
1.
Timed agility runs around cones (Illinois
agility run)
2.
Six Count Agility Test - From a standing
position, squat with the hands between the legs. Thrust the legs to the rear, assuming a front
leaning rest position. Then swing the
legs to the side and forward, assuming a back leaning rest position. Turn over, return to the squat position, and
then stand up. Four complete repetitions
must be completed in 20 seconds to pass.
A variation for women does not include step 3, thus making the movement
a squat thrust. Must be completed in 10 seconds for a pass.

3.
Kneeling Jump - Spring to the feet and hold
balance for 3 seconds.

4.
Jack Spring - Touch hands to toes at least waist
high 5 times in succession.

Balance Tests
The foot-and-toe
test and Diver's Stance Test are two other frequently used tests of
balance. For the foot-and-toe test of
balance, stand flat on one foot for ten seconds, then rise up to a toe-stand
for ten seconds. You may keep your eyes
open and move your hands at will to maintain your balance. For the Diver's Stance Test, stand on tiptoe
with your heels together and your hands held horizontally forward. Close your eyes and hold the position for 20
seconds without shifting your feet or hands.
Tests of Power
A. Basketball Throw - The throwing position is
on a mat with the knees parallel and the lower legs perpendicular to the
throwing line. The non-throwing hand can
be used to steady the ball when preparing to throw. The Floor or mat cannot be touched during or
after a throw. Three trials are taken
with each being measured to the center of ball impact.
·
75 or more feet = superior strength (men)
·
54 ft. or less = poor strength (men)
B.
Standing Long Jump - Spring from a standing position with no prior foot
movement. Three trials are taken with
jumping distance being measured from the starting line to the rearmost point of
heel contact. Average power in a child
is being able to long jump a distance equal to their height.

Test Norms
Test
|
Rope-Skip
|
Pull-up
|
Flexed
Arm
Hang
|
Bent-Knee
Sit-Up
|
Basketball
Throw
|
Standing
Long
Jump
|
Illinois
Agility
Run
|
Measure
|
Rotations,
1
Minute
|
Reps
|
Seconds
|
Repetitions,
1
Minute
|
Feet
|
Feet,
Inches
|
Secs.
|
|
|
Men
|
Women
|
Men
|
Women
|
Men
|
Women
|
Men
|
Women
|
|
Superior
|
171
or
more
|
20
or more
|
40
or more
|
52
or more
|
40
or more
|
75
or more
|
50
or more
|
8'
or more
|
6'11"
or more
|
15.5
or less
|
Above
Average
|
157-170
|
16-19
|
30-39
|
47-51
|
35-39
|
67-74
|
46-49
|
7'6"-7'11"
|
6'7"-6'10"
|
16-17.5
|
Average
|
138-156
|
10-15
|
23-29
|
41-46
|
29-34
|
61-66
|
40-45
|
7'1"-7'5"
|
6'1"-6'6"
|
18-21
|
Below
Average
|
125-137
|
5-9
|
18-22
|
36-40
|
24-28
|
55-60
|
36-41
|
6'9"-7'1"
|
5'10"-6'
|
21.5-23
|
Poor
|
124
or less
|
4
or less
|
17
or less
|
34
or less
|
23
or less
|
54
or less
|
35
or less
|
6'8"
or less
|
5'9"
or less
|
23.5
or more
|
Rating of Sports and Activates for Physical Fitness
Physical
Fitness
|
Jogging
|
Bicycling
|
Swimming
|
Skating(Ice,
Roller)
|
Handball /
Squash
|
Skiing
(Nordic)
|
Basketball
|
Skiing
(Alpine)
|
Tennis
|
Calisthenics
|
Walking
|
Golf
|
Softball
|
Bowling
|
Cardiorespira-tory
endurance (Stamina)
|
21
|
19
|
21
|
18
|
19
|
19
|
19
|
16
|
16
|
10
|
13
|
8
|
6
|
5
|
|
Muscular
Endurance
|
20
|
18
|
20
|
17
|
18
|
19
|
17
|
18
|
16
|
13
|
14
|
8
|
8
|
5
|
|
Muscular
Strength
|
17
|
16
|
14
|
15
|
15
|
15
|
15
|
15
|
14
|
16
|
11
|
9
|
7
|
5
|
|
Flexibility
|
9
|
9
|
15
|
13
|
16
|
14
|
13
|
14
|
14
|
19
|
7
|
8
|
9
|
7
|
|
Weight
Control
|
21
|
20
|
15
|
17
|
19
|
17
|
19
|
15
|
16
|
12
|
13
|
6
|
7
|
5
|
|
Ratings were
calculated on the basis of regular (minimum four time weekly) and vigorous (30
to 60 minutes per session) participation in each activity. The maximum possible score is 21, with 0 to 3
points awarded for each fitness component.
Ratings for golf are based on the fact that many Americans ride a golf
cart. The physical fitness value moves
up appreciably for golfers who walk. [7]
1.5 Mile and 12 Minute Walk / Run Test Norms
|
|
1.5 Mile
Test
(time)
|
12 Minute
Walk / Run
(distance,
miles)
|
Superior
|
Men
Women
|
<8:37
<11:50
|
>1.87
>1.52
|
Excellent
|
Men
Women
|
8:37-9:40
12:29-11:50
|
1.73-1.86
1.44-1.86
|
Good
|
Men
Women
|
9:41-10:48
14:30-12:30
|
1.57-1.72
1.30-1.43
|
Fair
|
Men
Women
|
10:49-12:10
16:54-14:31
|
1.38-1.56
1.19-1.29
|
Poor
|
Men
Women
|
12:11-15:30
18:30-16:55
|
1.30-1.37
1.00-1.18
|
Very Poor
|
Men
Women
|
>15:31
>18:31
|
<1:30
<1.00
|
Conditions Which May Preclude Athletic Participation
·
Acute and chronic disease processes.
·
Hernia.
·
Systolic blood pressure over 140 and diastolic
pressure over 90.
·
Heart arrythmias (tachycardia and bradycardia).
·
Recurring injuries, such as joint
dislocations.
·
Repetitive concussions.
·
Surgical losses of a major organ such as a
kidney.
·
Emotional or mental problems.
·
Infectious skin diseases.
·
Impaired vision.
·
Heart disease
·
Joint fusions.
·
Epilepsy
·
Spina bifida
·
Disc herniation
·
Structural deformities.
·
Fractures, surgically repaired utilizing pins,
and screws etc.
·
Fever / inner ear conditions / vertigo /
tinnitis / dizziness and fainting.
Before excluding an
athlete from competition, due to an injury or condition, the CSP must determine
the following;
1.
Given the requirements of the sport, will
participation risk further injury or result in a permanent injury.
2.
Are there training methods available, such as
bracing, taping etc. which would compensate for the injury and allow for
participation.
3.
Are there medical treatment methods available,
provided by the teams medical personnel, such as pain medication, which would
allow for participation (controversial issue).
4.
Would the presenting condition or injury
generally be considered a legitimate, clinical reason for excluding the athlete
from participation.
5.
Is there medical possibility or probability that
the injury will adversely affect the athletes performance or place other team
members at risk.
Injuries
Three
general types of injuries are sustained during physical activity:
·
Direct
injury.
·
Indirect injury.
·
Overuse injury.[9]
Direct Injuries
Injuries
caused by direct physical contact, such as fractures and concussions are
examples of direct injuries. This type of injury occurs most frequently in
contact and collision sports such as football, basketball, baseball, rugby,
soccer, wrestling and boxing. Initial treatment for these injuries (bruises or
contusions) is essentially the same as for indirect injuries-rest, ice,
compression and elevation.
Indirect
Injuries
Indirect
injuries are caused by violent forces not involving physical contact, mostly
strains, sprains, and muscle tears. A strain is a tear in a
muscle-tendon complex (tendons attach muscles to bones) and is graded
first-, second-, or third-degree depending on the severity of the injury. A
first-degree strain heals readily and permits an early return to activity.
Second-and third-degree injuries, however, require careful treatment. Returning
to activity too quickly will delay healing and promote the formation of scar
tissue, which in turn will decrease strength and flexibility.
A
torn ligament (ligaments bind bones together at the joints) is referred
to as a sprain. Similarly, sprains are classified as first-, second- or
third degree. First- and second-degree lateral ankle sprains are the kind most
commonly seen in active people. Most third-degree sprains require surgery. In
third-degree sprains, it's imperative that the injured area be completely
immobilized.
First-degree
sprains should be treated with rest, as many as five 20-minute ice applications,
a compression bandage, and elevation during the first 24 to
48 hours following injury. This treatment, sometimes referred to as RICE or
ICE, should also be accompanied by two or three days rest or the use of
alternative physical activities (swimming or stationary bicycling, for
example). Second- and third-degree sprains are treated the same way, but may
require casting or surgery and up to six weeks or more for recovery.
Overuse Injuries
Overuse
injuries can occur as the result of excessive repetitive movements. Common overuse injuries include rotator cuff
tendonitis, medial and lateral epicondylitis (medial-Little Leaguers elbow;
lateral-tennis elbow), chondromalacia patella (patellar tracking dysfunction)
and shin splints.
Jogging
requires as many as 5,000 foot strikes per hour and one million or more
annually for regular joggers. Runner's World magazine surveyed 4,000
runners; almost 70% of them indicated that they had been limited by
running-related injuries in the preceding year. [10]
Shin Splints
The
term shin splints refers to several conditions in front of or along side
the shin bone which usually are not serious but can be: inflammation of a
tendon (tendinitis), muscle tears or strains, or stress fractures of
the tibia (shin bone) or fibula. These conditions are caused by
one of the following reasons or a combination of them: inadequate or no
warm-up, running or jumping on hard surfaces or uneven ground, poor shoes, the
sudden addition of sprinting to a workout or training program, introducing hill
training to a jogging program (including downhill), and jogging with ankle
weight.
The
soreness caused by a muscle tear is thought to be associated with a
slight tearing of the connective tissue attaching it to the shin bone. The pain
may be accompanied by reduced ankle flexibility. Shin splints can be prevented by avoiding
excessively heavy early training and wearing well fitting and adequately
cushioned shoes.
Five Most Common
Overuse Injuries of Runners and Some Preventive Measures
INJURY SUGGESTED
PREVENTATIVE MEASURES
|
CAUSES
|
SUGGESTED
PREVENTIVE MEASURES
|
Knee (chondromalacia
patellae)
|
Irritation
of the kneecap as the result of excessive knee rotation with foot strike.
|
Heel
and/or arch supports, quadriceps strengthening exercises.
|
Achilles
tendon
|
Short
Achilles (additional tightness acquired with running, accompanied by
irritation and inflammation).
|
Quarter-inch
thick heel lift, calf stretching exercises.
|
Shin
splints
|
Poor
ankle flexibility, weak shin muscles, stiff shoes. Frequently occurs in
sedentary individuals who initiate an exercise program too vigorously.
|
Shoes
with flexible forefoot and heel lifts; stretching and shin strengthening
exercises.
|
Ankle
|
Stepping
on un-even surfaces, chronic ankle problems can be caused by excessively worn
shoe heels and/or too widely flared heels.
|
Shoes
without excessively wide heels, shoe heels not worn down more than a quarter
inch; ankle strengthening exercises.
|
Heel
|
Inadequate
padding under heel to absorb impact of foot strikes, heel instability,
irritation from shoe back.
|
Shoes
with wide heel base and a good heel lift; calf stretching and shin
strengthening exercises.
|
Adapted from:
Henderson, J. First-aid for the injured. Runner's World 12:57,1977
(July).[11]
Other Conditions Affecting the Athlete
Illnesses Affecting the Athlete
1) Asthma
·
Bronchial asthma affects approximately nine
million Americans and may be responsible for more than 2,000 deaths annually.
It's the number-one chronic illness of childhood as well as the greatest cause
of school absenteeism in those 17 years old and younger. Asthmatics
suffer from chronic fatigue, which leads to inattention in school and they can
become socially maladjusted if they don't participate in physical activities or
active games.
·
Many asthmatics suffer from increased airway
obstruction after exercise. This condition is referred to as either exercise-induced
asthma or exercise-induced bronchoconstriction.
·
Exercise-induced asthma attacks are similar to
those induced by other types of asthma. It's usually most extreme 5 to 10
minutes after the completion of exercise; breathing may not return to normal
for up to an hour.
·
Swimming is the exercise of choice for
asthmatics and the one most frequently prescribed by physicians. Patients in a
five-month swimming training program demonstrated a significant decrease both
in the number of asthma attacks and their medication requirements. In addition,
they improved cardiovascular fitness.
·
In swimming, the horizontal position and the
effects of water pressure may reduce the incidence and severity of asthma
attacks. The rhythmic breathing required during swimming is probably another
inhibiting factor. Also, inhaling
moisture-saturated air appears to reduce or prevent exercise-induced
bronchoconstriction. Asthmatics should swim for exercise unless it increases
asthmatic symptoms or causes respiratory tract complications.
·
15% to 20% of chronic asthmatics have eczema
which can be aggravated by exposure to chlorinated water.
·
Those with severe asthma should avoid
contact sports.
·
For those asthmatics requiring medication,
bronchoconstriction can be modified effectively with theophylline, theophylline
ephedrine combinations, or cromolyn sodium. Cromolyn sodium and aerosol
terbutaline either singly or in combination are the preferred medications for
preventing or reducing asthma attacks in competitive athletics. Oral
formulations taken 30 to 60 minutes prior to exercise are preferred.
·
Short intervals of exercise (one to two minutes)
promote lung ventilation in asthmatics, but periods of four to twelve minutes
appear to cause wheezing, especially in those who are deconditioned or
inactive. For this reason, interval training is usually more effective than
continuous exercise
2) Diabetes
·
Many diabetics have reduced or eliminated their
insulin requirements by exercising, following a careful diet, not smoking, and
controlling their weight. Diabetes can also be controlled with regular exercise,
to include vigorous, rhythmic, cardiovascular exercise. Insulin injected into the leg is absorbed
more quickly when the leg is exercised. This accelerated absorption may cause
hypoglycemia (low blood sugar) and dizziness and other problems. The use of a
non-exercised injection site (the arm or abdominal area) appears to remedy this
reaction. Diabetics can decrease their insulin requirements by exercising
moderately after meals.
·
Diabetes Insipidus - an uncommon form of
diabetes marked by extreme thirst and heavy urination (as much as 2 1/2 gallons
per 24 hrs.) Caused by an insufficient
amount of the hormone ADH (Antidiuretic Hormone) which regulates the amount of
urine produced in the kidney.
·
Diabetes Mellitus - caused by either a failure
of the pancreas to produce / release enough insulin into the body (Type I) or a
defect in the parts of cells that accept the insulin (Types II, III, & IV).
·
Type I - insulin dependent diabetes mellitus /
Juvenile diabetes. This is the most
serious form of diabetes. Islet cell
antibodies limit the production of insulin by the pancreas. Primarily found in children but can also be
found in adults.
·
Type II - noninsulin dependent diabetes mellitus
- patients are not dependent on insulin to preserve life but may be treated
with insulin. 60-90% of these diabetics
are obese.
·
Type III - gestational diabetes mellitus -
glucose intolerance which occurs during pregnancy.
·
Type IV - diabetes mellitus attributable to
diseases of the pancreas, hormonal changes, genetic defects or drug use.
3) Convulsive Disorders (Epilepsy)
Decisions
to allow epileptics to participate in sports and physical activity should be
influenced by three factors;
1. The
effectiveness of medication in controlling seizures.
2. The
possibility of endangering the participant's welfare.
3. The
patient's cooperativeness and impulsiveness.
Past responses to competition can be an indicator.
·
In 1974, the American Medical Association's
Committee on the Medical Aspects of Sports concluded that an epileptic whose
seizures are under reasonable control would not be endangered by participation
in any sport, including football. This
was revised in 1976 to recommend that epileptics with incompletely controlled
seizures should be excluded from collision sports; football, hockey, lacrosse, rugby; contact
sports; baseball, basketball, soccer, wrestling, and non-contact sports: crew, cross-country, swimming, tennis, track,
volleyball. Following some controversy,
the 1974 guidelines were re-instituted with a qualification - that epileptics
whose conditions are not completely controlled by medication forego competition
in archery, discus, javelin, shot put and riflery.
·
More than two million Americans are affected by
epilepsy.[12]
Other Common Conditions Affecting the Athlete
1) Stitch
A
stitch is a stabbing pain usually felt at the bottom of the rib cage
during vigorous activity. Although the exact cause is not known, there are
several theories:
1. Excessive gas in the large intestine.
This may be the result of eating highly spiced food or an individual
intolerance to foods such as milk due to an absence of certain intestinal
enzymes which prepare them for digestion.
Avoiding these foods and consuming alternative sources of the nutrients
they provide may solve the problem. Cramps can be relieved by bending forward
and gently squeezing the site of the pain to push the gas along.
2. Distended liver capsule. The increased
cardiac output during exercise may cause the liver to be distended. The
resultant pressure causes pain.
3. Diaphragm, rib, or abdominal muscle
cramping is caused by lack of oxygen. The pain usually subsides when the
intensity of the activity is reduced.
Abdominal muscle conditioning may help prevent this problem.
2) Blisters
Foot
blisters are burns produced by friction. To reduce friction:
1. Buy good shoes that fit well.
2. Never wear new shoes for a long
workout or race.
3. Smear your feet with petroleum jelly or
other lubricants to reduce "hot spots."
Blood
blisters can be serious. An infected
blister can kill. Redness, swelling or
pain, and other signs such as red streaks may indicate the infection is
spreading. Check for swollen glands
behind the knee or in the groin area.
Drain
simple blisters after you wash your hands and clean the affected area. Puncture
the blister sac with a sterilized needle and carefully drain it. Do not remove
the outer skin if possible; (blisters heal better when the skin is left in
place) Clean the area with an antiseptic
and cover with a sterile dressing.
3) Athlete's
Foot and Jock Itch
"Athlete's
foot" is a synonym for the itchy, runny, and scaly ringworm infections
between the toes to which active people are particularly prone. These
infections may be stimulated by exercise, hot weather, sweating, and tight
shoes. Ringworm infections can also occur in the armpits and crotch ("jock
itch").
To prevent or treat
the infection be careful to thoroughly dry the armpits, crotch, and
feet-especially between the toes. Treat
the feet with a medicated powder after each training session and every shower.
At the first sign of an itch, treat the area by drying it, exposing it to
sunlight, and applying a powder or spray medication. A highly recommended
medication agent is aluminum chloride.
Cerebral Concussion
A cerebral
concussion is a clinical syndrome characterized by immediate, instant onset due
to a mechanical force injury to the head.
Cerebral concussion can result in transient impairment of neural
function, such as disturbances of consciousness, visual disturbances, altered
equilibrium, tinnitus, memory loss, and muscular weakness or flaccidity.
Additional Signs and Symptoms of Concussion
·
Headache
·
Nausea
·
Vomiting
·
Inability or difficulty communicating.
·
Decreased pulse rate.
·
Confusion.
·
Inappropriate behavior.
The presence of a
concussion does not require loss of consciousness. Following a blow to the head, the athletes
reporting of seeing stars, a flash of light or blacking out, accompanied by
dizziness, confusion, or loss of memory is highly suggestive of a concussion.
·
Concussion is the most common athletic head
injury. 20% of high school football
players suffer a concussion during a football season.
·
Patient does not need to lose full
consciousness.
·
Following a blow to the head the athlete may not
have immediate symptoms.
·
Repeated brain injuries can result in patterns
of brain damage and steady decline in information processing.
·
Repeated head injuries are cumulative.
Chronic effects of repeated
head trauma causes traumatic encephalopathy characterized by:
A. Slow
appearance of a fatuous or euphoric dementia.
B. Emotional
lability.
C. The
victim may be unaware of their deterioration.
D. Deterioration
of memory and speech.
American College of Sports Medicine
Concussion Classifications
First Degree
A. No
actual loss of consciousness.
B. Blurring
of consciousness (bell rung) lasting less than 10-20 seconds. Minimal or no signs are present.
C. The
only neurologic deficit is a brief period of post-traumatic amnesia lasting
less than 30 minutes.
D. EEG,
CT or MRI is usually not necessary after a mild concussion. If post-concussion syndrome occurs, these
studies should be done.
Second Degree:
A. Blurring
or loss of consciousness lasting 20 seconds to 1-2 minutes. Minimal to moderate symptoms and signs
present.
B. Will
rarely occur without a loss of consciousness.
Typically there will be a protracted period of post-traumatic amnesia
lasting over 30 minutes and less than 24 hours.
C. Generally
overnight admission for observation and CT scan if necessary.
Third Degree:
A. Loss
of consciousness lasting more than five minutes.
B. There
will be loss of consciousness with a sustained period of post-traumatic amnesia
lasting longer than 24 hours.[13]
Guidelines for the Management of Concussion in Sports
Sports Medicine Committee, Colorado Medical Society
Grading Scale for Concussion in Sports
I.
Grade I Concussion - Most common yet most difficult form of concussion
to recognize. Characteristics include:
·
Confusion without amnesia.
·
No loss of consciousness (athlete complains of
having his bell rung).
·
Remove the athlete from event pending on-site
evaluation prior to return to the game.
II. Grade II Concussion:
·
No loss of consciousness.
·
Confusion.
·
Amnesia following the impact (Post Traumatic
Amnesia).
Treatment for a Grade II
concussion:
1.
Remove
the athlete from the game.
2.
Perform
a thorough neurological examination.
3.
Athlete
is evaluated frequently over the next 24 hours for signs of evolving
intracranial pathology.
III. Grade III Concussion:
·
Loss of
Consciousness.
·
Amnesia.
Treatment
Considerations
1.
Suspect
cervical spine injury.
2.
Treat
for shock.
3.
Thorough
neurological examination is required.
4.
CT or MRI
scanning is usually appropriate.
5.
Hospital
confinement is indicated if any signs of pathology are detected or if the
mental status of the athlete remains abnormal.
6.
If
findings at hospital are normal, explicit written instructions may be give to
the family for overnight observation.
Neurological status should be assessed daily until all symptoms have
resolved.
Testing Amnesia
A. Questions of Immediate Memory
1.
Simple
arithmetic.
2.
Reverse
spelling.
B. Questions of Recent Experiences
1.
Events
of the game.
2.
Last
play.
3.
Opponents
name.
4.
Athlete's
play assignments etc.
C. Questions of Memory Recall and Orientation to
Time
1.
Their
name, School's name, Coaches name.
2.
Orientation
to time.
3. President's
name.
4. Today's
date.
Postconcussion Syndrome
Late effects of concussion:
·
Headache,
often with exertion.
·
Dizziness.
·
Fatigue.
·
Irritability.
·
Impaired
memory and concentration.
The athlete should
have a CT scan and neurological testing when symptoms persist. Also, the athlete should not return to
activity until symptoms abate and / or diagnostic tests are normal.
Return to Play Considerations Following Concussion
The CSP's decision
to return an athlete to competition following a cerebral concussion is
dependent upon the grade of concussion and the athletes history of concussive
events.
Concussion Scenarios
Grade 1
·
Grade 1 concussion, (first event) -if the signs
of concussion abate quickly and there are no symptoms during rest, the athlete
may be able to return to the game. If
symptoms persist during the game, do not allow return to the game. The athlete then must be asymptomatic at rest
and during exertion for a period of one week before returning to play.
·
Grade 1 concussion, (second event) - the athlete
must be asymptomatic at rest and during exertion for two weeks before returning
to play.
·
Grade 1 concussion, (third-event) -disallow
return to play for the season.
Neurological evaluation and diagnostic testing clearance should be
considered before allowing a return to play the following season.
Grade 2
·
Grade 2 concussion, (first event) - the athlete
should not return to play the day of the concussion. If the athlete remains asymptomatic at rest
and during exertion for one week they may be able to return to play at that
time.
·
Grade 2 concussion, (second event) - the athlete
should be removed from the game and should be excluded from competition for
approximately four weeks. Return is
dependent upon the athlete being asymptomatic at rest and during exertion for
four weeks.
·
Grade 2 concussion, (third event) - the athlete
should be taken out of competition for the season. Medical clearance is required to return the
following season.
Grade 3
·
Grade 3 concussion, (first event) - the athlete
is incapable of returning to the game and should not return for at least one
month. Return is dependent upon the
athlete being asymptomatic at rest and during exertion for four weeks.
·
Grade 3 concussion, (second event) - the athlete
should be out for the season. Medical
clearance is required before returning and competing the following season.
·
Grade 3 concussion, (third event) - the athlete
should be advised to consider a sporting endeavor that does not have a risk of
head injury.
·
Many state athletic commissions have developed
clearly defined rules relative to the sport of boxing, regarding return to
competition following a concussion. For
example, the New York State Athletic Commission stated that if a boxer is
knocked unconscious, they can not return to boxing for 90 days.
Return to Competition Following a Neck Injury
Prior to
authorizing a return to competition following a neck injury, examination of the
athlete must demonstrate;
·
Minimal or no neck complaints
·
Full cervical range of motion with minimal pain.
·
Normal muscle strength / reflexes and sensation.
On - Field Evaluation of an Injured Athlete
Level of Consciousness
Upon
reaching the injured athlete perform the following fundamental survey:
Determine
their state of consciousness - fully alert and responsive; slight
disorientation; confused; in a stuperous sleep but awaken quickly; coma (some
responses); deep coma (no response).
Glascow
Coma Scale
Eyes
|
Open
|
Spontaneously
|
4
|
|
To
verbal command
|
3
|
To
pain
|
2
|
No
response
|
1
|
Best
Motor
Response
|
To
verbal
command
|
Obeys
|
6
|
|
To
painful
stimulus
|
Localizes
pain
|
5
|
|
Flexion
- withdrawal
|
4
|
Cognitive
function
|
Flexion
- abnormal
(decorticate
rigidity)
|
3
|
Spontaneous
function
|
Extension
(decerebrate
rigidity)
|
2
|
|
No
response
|
1
|
Best
Verbal
Responses
|
|
Oriented
and
Converses
|
5
|
|
Disoriented
and converses
|
4
|
Inappropriate
words
|
3
|
Incomprehensible
sounds
|
2
|
No
response
|
1
|
Total
|
|
3-15
|
A
grade of 12 or lower suggests the presence of a relatively severe injury.
·
If the athlete is conscious, ask them if they
want you to help them, explain what you will do for them and ask for their
cooperation. Their affirmative response
and cooperation is informed consent.
·
If the athlete is unresponsive, immediately
check their airway, breathing and circulation.
·
If the athlete is unresponsive in a prone
position, turn them over using a log roll maneuver making sure that the body
moves as a unit to prevent aggravating a spinal injury.
Check the Airway
With
the athlete supine check their airway and position their head to maintain an
open airway. If there is no suspicion of
spinal injury, hyperextend the head and lift the chin to open the airway. An alternate to this is the tongue, jaw lift
maneuver. If you suspect spinal injury,
do not hyperextend the neck. To open the
airway in this case use the modified jaw thrust maneuver or the thumbscrew
maneuver.
Modified Jaw Thrust Maneuver
Kneel
at the head of the person far enough back so you can lean forward and rest your
elbows on the ground. Place your fingers
at the jaw angle and stabilize the head with your forearms. Then lift the jaw to open the airway. Do not tilt or rotate the person's head. Approximate and cross the thumb and first
finger and put them in the person's mouth.
Then open the fingers and pull the jaw forward (upward). Sweep the mouth clear of any material in the
mouth.
Check Breathing
Look to see if
their chest is moving.
Place your ear at
the athletes mouth and listen and feel for breathing.
Wait 5-10 seconds
as respiration may be slow.
If there is no
breathing perform pulmonary resuscitation.
Lift the chin with
one hand to maintain an open airway.
With the other hand
stabilize the head & pinch the nose shut.
Take a deep breath
and place your mouth over the athlete's forming a seal.
Exhale into the
mouth until you see the chest rise and you feel resistance from the expanding
lungs.
Stop when you see
the chest rise.
Once ventilation
has occurred remove your mouth and allow the athlete to exhale passively. Allow for deflation before the next
ventilation (each ventilation should take one to one and a half seconds).
Frequently check
the carotid pulse. If there is a pulse
but no breathing continue the ventilation.
Adult - ventilate
once every five seconds.
Child - ventilate
once every four seconds.
Check Circulation
Check the carotid
artery pulse.
Check for bleeding.
If the initial
A(airway), B (breathing) and C (Circulation) check is negative, then the
Chiropractic Sports Physician should check the following:
·
Athlete's general appearance.
·
Vital signs (blood pressure, pulse, respiration
and temperature).
·
Mental status.
·
Check the head for bleeding or skull
deformation.
·
Check the ears for fluid loss (blood or cerebral
spinal fluid).
·
Check the spine.
·
Check the abdomen.
·
Check the extremities.
Quick Assessment of the Extremities
Upper
Extremity Sensory Assessment
·
Radial Nerve - dorsum of the thumb and index
webspace.
·
Ulnar Nerve - tip of fifth digit.
·
Median Nerve - top of second and/or third digit.
·
Musculocutaneous Nerve - extensor aspect of the
forearm.
·
Auxillary Nerve - lateral aspect of upper arm.
Upper
Extremity Motor Assessment
·
Radial Nerve - extension of the thumb.
·
Ulnar Nerve - Adduction of the thumb, i.e.,
thumb to little finger.
·
Median Nerve - flexion of the first joint of the
thumb.
Lower
Extremity Sensory Assessment
·
Peroneal Nerve - dorsum of the foot.
·
Tibial Nerve - back of heel.
·
Saphenous Nerve (from the femoral) - medial
malleolus.
Lower
Extremity Motor Assessment
·
Peroneal Nerve - dorsiflexion of the great toe.
(L-5 root nerve root).
·
Tibial Nerve - plantar flexion of the great toe.
On-Field Evaluation of a Football Player With a
Potentially Serious Neck Injury
If The Athlete Is Conscious
·
Ask the athlete where the injury is and if he
has difficulty breathing, neck pain, any problem moving his limbs, and
numbness, tingling or burning in his limbs.
·
If the athletes response to the above questions
are all negative, ask the athlete to perform cervical ranges of motion checking
for complaints of pain, numbness, tingling or burning.
·
If any of the athletes responses to the above
questions are positive, suspect a neck injury.
Remove the athlete from the field on a spine board with his head and
neck stabilized. Do not remove the
helmet. Assist the EMT's with removing
the player from the field to the ambulance.
If you have coverage at the field, proceed with the injured player to
the emergency room.
If The Athlete is Unconscious
·
Always assume the unconscious athlete has a
fracture of the cervical spine.
·
Assess level of consciousness.
·
Check the airway / breathing. If the airway is compromised, remove the face
mask from the helmet. Do not remove the
helmet. Stabilize the head and neck
making sure not to hyperextend the neck.
Bring the jaw forward, clean the mouth of material. Supply oxygen.
·
Check pulse - the pulse is not present commence
CPR.
·
Check blood pressure.
·
Check pupils size and reactivity.
·
Remove from the field on a spine board. Assist EMT's in removing the player from the
field.
American College of Sports Medicine
Emergency Sports Assessment Of the
Injured Football Player[15]
1 2 3 4 5 6
How to Determine A Brachial Plexus Lesion From A Nerve
Root Lesion
Characteristics of
a Brachial Plexus Lesion
1. Numbness
and burning of entire arm, hand and fingers.
2. Sensation
loss over two to four dermatomes.
3. Complete
transient paralysis of arm.
4. Tenderness
over the posterior neck.
5. Increase
in symptoms with passive movement of head and neck to opposite side.
6. Symptoms
do not occur with downward pressure on head with chin in supraclavicular fossa
on same side as lesion.
Characteristics of
a Nerve Root Lesion
1. Numbness
and burning are confined to one or more definable dermatomes.
2. Sensation
loss is confined to a definable dermatome.
3. Partial
transient paralysis of arm.
4. No
tenderness over brachial plexus.
5. Tenderness
over the posterior neck.
6. Hyperflexion,
extension, or lateral flexion of neck to same side as the symptoms causes
symptoms.
7. Symptoms
occur with downward pressure on head.
American College of Sports Medicine / Dr. Robert Cantu
Mechanisms of Brain and Spinal Injuries
Force can generate 3 types of
stresses:
1) compressive 2) tensile (opposite of
compressive) 3) shearing
·
Coup Force - head is not accelerated.
Blow to head
injury (direct trauma).
·
Contrecoup Force-head in motion and brain lags
behind.
Cerebral spinal fluid is pooled at the
impact site leaving the opposite area of the brain vulnerable (the cerebral
spinal fluid acts as a shock absorber).
Skull Fracture
·
Linear transient displacement of bone.
·
Depressed structures.
Neck
·
Neck muscles tensed at time of impact causes
less injury (forces are distributed over a greater mass).
·
Axial loading (with flexion of 20 degrees)-most serious
of c-spine injuries (compressive/burst type fractures are possible results).
·
Hyperflexion Injury-anterior elements
compressed.
Posterior elements distracted.
·
Hyperextension Injury-anterior elements
distracted.
Posterior elements compressed.
1. Extradural Hematoma
‾
Outside covering of brain.
‾
Rapidly progressing hematoma.
‾
Common cause is a temporal bone fracture.
2. Subdural Hematoma
‾
Between surface of brain and dural covering of
brain.
‾
Most common fatal athletic head injury.
‾
Unconsciousness occurs at the instant of injury
with rapid deterioration.
3. Intracerebral Hematoma
‾
Usually the result of ruptures of congenital
vascular lesions eg. aneurysm or a arteriovenous malformation.
‾
Blood clot in the substance of brain itself.
‾
Not common.
4. Subarachnoid Hematoma
‾
Surface of brain with disruption of tiny blood
vessels.
‾
"Brain bruise".
‾ Occasionally
may be due to rupture of a arteriovenous malformation or a new aneurysm.
In pediatric
athletes, head injury can cause the brain to swell causing Malignant Brain
Edema Syndrome (MBES)
Malignant Brain Edema Syndrome is:
·
Lesion characterized by hyperemia of the brain
i.e., vascular engorgement caused by pathologic loss of auto regulation of
blood flow.
·
Characterized by rapid neurologic deterioration
from an alert conscious state to coma and death within a few hours.
Second Impact Syndrome
·
The adult variant of MBES because
its effects are also
caused by hyperemia from loss of auto regulation of blood flow.
·
Seen in athletes with symptoms from previous
head injury who sustain a second acceleration head injury.
·
Rapid progression.
·
Critical-even when with prompt treatment. High morbidity and mortality rate.
Neck And
Spinal Injuries
Cervical
Sprain
·
Most common neck injury.
Spinal
Cord Concussion
·
Single violent impact to the spinal cord..
·
Transient loss of motor or sensory cord function
below the level of injury.
·
Symptoms last from seconds to minutes (most
clear within 24 hours). Tommy Maddox, the
quarterback of the Pittsburgh Steelers, suffered this injury in 2002.
Spinal Cord Contusion
·
Greater loss of motor or sensory function in
upper extremity compared with lower extremity.
·
Usually caused by hyperextension.
·
Evaluate with MRI or CT.
·
High likelihood of either spinal stenosis or
disc rupture.
·
Discontinuation of contact sports.
Lateral
Pinch / Burners Syndrome
·
Pain and burning paraesthesias radiating from
neck down one arm to base of the thumb.
·
Symptoms last several minutes or less.
Treatment of Head and Neck Injuries
·
Elements of CNS cannot regenerate.
·
Never allow an athlete who suffered head or
spinal injury to continue play without being examined.
·
If concussion is expected-remove from
competition and do an exam on the bench.
·
Following concussion, the physician should work
with the coaching staff to search for underlying correctable causes such as
improperly fitted head gear, improper technique and inadequately conditioned
neck muscles.
Assessing
Neck Injury
Three
criteria should be met before return to competition:
1. Full
ROM - Spurling's Maneuver (chin flexed and laterally flex and extend the
neck). The patient should have no pain.
2. Neuro
exam must be normal.
Injury
Prevention
1. Rule
changes.
2. Coaching
technique changes.
3. Improved
conditioning (especially neck muscles).
4. Improved
equipment.
5. Improved
medical supervision of the game.
American College of Sports Medicine /
Dr. Cantu [16]
Environmental Factors Affecting Sports Performance
Heat,
cold, pollution, and altitude all affect sports performance.
Heat
Four
physical processes remove excess heat from the body: radiation, conduction,
evaporation, and convection. Since body
temperature is usually higher than air temperature, the human body radiates heat
rays to the environment. But during the warmer days of summer, heat is absorbed
by the body through radiation.
There
are two kinds of heat loss through conduction (to the air and to objects). With the exception of swimmers losing body heat to the water, very
little heat is lost through conduction during exercise.
Convection
is the term applied to air movement (wind).
It plays a major role in heat loss by both conduction and evaporation. During exercise sweat conducts an
enormous amount of heat from within the body to the skin surface. The heat
dissipates when the convection currents (wind) evaporate the sweat.
In
the presence of high environmental temperatures, evaporation and convection
provide the only relief from heat stress. On hot days when the humidity is
high and there is little or no wind, evaporation is greatly reduced. Metabolic
heat generated during exercise is denied release and the body temperature
rises, sometimes resulting in heat sickness.
Heat exhaustion, (a less serious form of heat ailment), may be
accompanied by decreased motor ability. Coast Guard studies have shown that
three hours of sun exposure can slow reaction time just as drunkeness can.
To
avoid heat sickness, drink plenty of fluids, six to eight glasses a day, including
13 to 17 ounces just before an exercise session.
Train
in the morning or evening to avoid the heat of the day (before 9 A.M. and after
6 P.M.). The body usually becomes acclimated to heat and humidity within two
weeks.
The
athletes cardiovascular system is able to dissipate heat more efficiently, and
they tolerate heat better than the unfit. They also become acclimated more
quickly. Losing weight will increase heat
tolerance. Overweight individuals suffer more in heat and humidity because
their fat insulates them and interferes with heat loss.
Heat Sickness:
Symptoms and First Aid
Disorder
|
Cause
|
Symptoms
|
First
Aid
|
Heat
cramps
|
Excessive
loss of salt in sweat.
|
Pain
and muscle spasm; body temperature normal
|
Rest. Administer salt and water.
|
Heat
exhaustion
|
Cardiovascular
inadequacy dehydration
|
Headache;
dizziness; fainting; rapid and weak pulse; cold, pale, clammy skin; small
rise in temperature; possible vomiting.
|
Rest
in shade in recumbent position. Administer
fluids.
|
Heat
stroke
|
Failure
of temperature regulatory center due to excessive high body temperature.
|
High
body temperature; profound prostration; delirium; hot, dry, flushed skin;
sweating diminished or absent.
|
Requires
immediate immersion in cold water, application of ice packs or alcohol
spray. Medical emergency requiring a
physician; meanwhile administer fluids if conscious, but no stimulants.
|
COLD
Two
common cold related conditions include:
a) Hypothermia (abnormally low
body temperature). Hypothermia should
always be treated before frostbite. First, warm a suspected hypothermia
victim. Rewarming may be accompanied by
coronary dysrhythmia (irregular heartbeat) that can progress to fibrillation
and cardiac arrest (arrhythmia), the usual cause of death in hypothermia.
b) Frostbite
- Frostbite is the destruction of body tissue by freezing. Ice crystals form in
the fluid surrounding cells and frozen blood vessels prevent blood from
circulating. Frostbitten skin appears red, feels warm, burns and stings, then
progresses to numbness and a white, waxen appearance. This condition is
accompanied by poor hand and foot coordination.
With frostbite attempt to thaw the frozen tissue only when you reach
shelter and can prevent the frostbitten area from being refrozen. Refreezing
poses a greater risk of severe injury.
Protect the frozen part. Do not rub it, especially with snow.
Massaging increases the injury. If possible, avoid walking on frostbitten feet.
Immerse the frozen area in l00-1100F water.
·
Avoid alcoholic beverages. By dilating surface
blood vessels, alcohol promotes heat loss. Smoking constricts blood vessels in
the hands and feet, increasing the chance of frostbite by reducing the flow of
warm blood to these areas
American
College Of Sports Medicine Position Statements
The Recommended Quantity And Quality Of Exercise For
Developing And Maintaining Fitness In Healthy Adults
1.
Frequency of training: 3 to 5 days per week.
2.
Intensity of training: 60 per cent to 90 per
cent of maximum heart rate reserve or, 50 per cent to 85 per cent of maximum
oxygen uptake (VO2max).
3. Duration
of training: 15-60 minutes of continuous aerobic activity. Duration is
dependent on the intensity of the activity, thus lower intensity activity
should be conducted over a longer period
of time. Because of the importance of the 'total fitness' effect and the fact
that it is more readily attained in longer duration programs, and because of
the potential hazards and compliance problems associated with high intensity
activity, lower to moderate intensity activity of longer duration is recommended for the nonathletic adult.
4. Mode
of activity: Any activity that uses large muscle groups, that can be maintained
continuously, and is rhythmical and aerobic in nature (e.g., running, jogging.
walking-hiking, swimming, skating, bicycling, rowing. cross-country skiing,
rope skipping, and various endurance game activities.
The Use Of Alcohol In Sports
1. The
acute ingestion of alcohol can exert a deleterious effect upon a wide variety
of psychomotor skills such as reaction time; hand-eye coordination, accuracy,
balance, and complex coordination.
2. Acute
ingestion of alcohol will not substantially influence metabolic or
physiological functions essential to physical performance such as energy
metabolism, maximal oxygen consumption (VO2max), heart rate, stroke
volume, cardiac output, muscle blood flow, arteriovenous oxygen difference, or
respiratory dynamics. Alcohol consumption may impair body temperature
regulation during prolonged exercise in a cold environment.
3. Acute
alcohol ingestion will not improve and may decrease strength, power, local
muscular endurance, speed, and cardiovascular endurance.
4. Alcohol
is the most abused drug in the United States and is a major contributing factor
to accidents and their consequences. Also, it has been documented widely that
prolonged excessive alcohol consumption can elicit pathological changes in the
liver, heart, brain, and muscle, which can lead to disability and death.
5. Serious
and continuing efforts should be made to educate athletes, coaches, health and
physical educators, physicians, trainers, the sports media, and the general
public regarding the effects of acute alcohol ingestion upon human physical
performance and on the potential acute and chronic problems of excessive
alcohol consumption.[19]
Proper And Improper Weight Loss Programs
1. Prolonged
fasting and diet programs that severely restrict caloric intake are
scientifically undesirable and can be medically dangerous.
2. Fasting
and diet programs that severely restrict caloric intake result in the loss of
large amounts of water, electrolytes, minerals, glycogen stores, and other
fat-free tissue (including proteins within fat-free tissues), with minimal
amounts of fat loss.
3. Mild
calorie restriction (500-1000 kcal less than the usual daily intake) results in
a smaller loss of water, electrolytes, minerals, and other fat-free tissue, and
is less likely to cause malnutrition.
4. Dynamic
exercise of large muscles helps to maintain fat-free tissue, including muscle
mass and bone density, and results in losses of body weight. Weight loss
resulting from an increase in energy expenditure is primarily in the form of
fat weight.
5. A
nutritionally sound diet resulting in mild calorie restriction coupled with an
endurance exercise program along with behavioral modification of existing
eating habits is recommended for weight reduction. The rate of sustained weight
loss should not exceed 1 kg (2 lb) per week.[20]
Weight Loss In Wrestlers
It
is the position of the American College of Sports Medicine that the potential
health hazards created by the procedures used to "make weight" by
wrestlers can be eliminated if state and national organizations will:
1. Assess
the body composition of each wrestler several weeks in advance of the
competitive season. Individuals with a fat content less than five percent of
their certified body weight should receive medical clearance before being
allowed to compete.
2. Emphasize
the fact that the daily calorie requirements of wrestlers should be obtained
from a balanced diet and determined on the basis of age, body surface area,
growth and physical activity levels. The minimal calorie needs of wrestlers in
high schools and colleges will range from 1200 to 2400 kcal/day; therefore, it
is the responsibility of coaches, school officials, physicians and parents to
discourage wrestlers from securing less than their minimal needs without prior
medical approval.
3. Discourage
the practice of fluid deprivation and dehydration. This can be accomplished by:
a. Educating
the coaches and wrestlers on the physiological consequences and medical
complications that can occur as a result of these practices.
b. Prohibiting
the single or combined use of rubber suits, steam rooms, hot boxes, saunas,
laxatives, and diuretics to "make weight".
c. Scheduling
weigh-ins just prior to competition.
d. Scheduling
more official weigh-ins between team matches.
4. Permit
more participants to compete in those weight classes (119-145 pounds) which
have the highest percentages of wrestlers certified for competition.
5. Standardize
regulations concerning the eligibility rules at championship tournaments so
that individuals can only participate in those weight classes in which they had
the highest frequencies of matches throughout the season. Encourage local and
county organizations to systematically collect data on the hydration state of
wrestlers and its relationship to growth and development.[21]
The Use And Abuse Of Anabolic-Androgenic Steroids In
Sports
Based
on a comprehensive survey of the world literature and a careful analysis of the
claims made for and against the efficacy of anabolic-androgenic steroids in
improving human physical performance, it is the position of the American
College of Sports Medicine that:
1. The
administration of anabolic-androgenic steroids to healthy humans below age 50
in medically approved therapeutic doses often does not of itself bring about
any significant improvements in strength, aerobic endurance, lean body mass or
body weight. There is no conclusive scientific evidence that extremely large
doses of anabolic-androgenic steroids either aid or hinder athletic
performance.
2. The
prolonged use of oral anabolic-androgenic steroids (C17 alkylated
derivatives of testosterone) has resulted in liver disorders in some persons.
Some of these disorders are apparently reversible with the cessation of drug
usage, but others are not.
3. The
administration of anabolic-androgenic steroids to male humans may result in a
decrease in testicular size and function and a decrease in sperm production.
Although these effects appear to be reversible when small doses of steroids are
used for short periods of time, the reversibility of the effects of large doses
over extended periods of time is unclear.
4. Serious
and continuing effort should be made to educate male and female athletes,
coaches, physical educators, physicians, trainers, and the general public
regarding the inconsistent effects of anabolic-androgenic steroids on improvement
of human physical performance and the potential dangers of taking certain forms
of these substances, especially in large doses, for prolonged periods.[22]
Overtraining
Syndrome Signs
1. Mild leg stiffness and soreness.
2. Decreased coordination.
3. Chronic fatigue; excessive tiredness has
been associated with the development of mononucleosis.
4. Lowered general resistance, colds,
headaches, and fever.
5. Poor appetite.
6. Weight loss.
7.
Irritability.
8.
Sleep disturbances
When
signs of overtraining are present dramatically reduce or temporarily halt
exercise training.
Chiropractic Sports Physician Medical-Legal Considerations
General Rule of Thumb
Prior to advertising yourself as a sports
injury specialist, the Chiropractic Sports Physician should first undergo
specialized training and receive certification in the treatment of sports
injuries. The certification should be
recognized and sponsored by an accredited chiropractic college. In a court of law, when you claim specialty
credentials above and beyond that of a Doctor of Chiropractic, anyone in that
specialty, regardless of their profession, can testify against you.
What is Risk Management?
Risk
Management is the development of practice strategies to prevent patient harm
and practitioner liability. This is
achieved through the development of clearly defined practice guidelines
intended to reduce and prevent malpractice actions. Properly implemented risk strategies will
decrease the potential for malpractice claims and increase the quality of care
for patients.
What is Malpractice?
Malpractice
is a dereliction from professional duty or a failure to exercise an accepted
degree of professional skill or learning by a physician rendering professional
services which results in injury, loss or damage. Malpractice is further defined as an
injurious, negligent or improper practice.[23]
How is Malpractice Proven?
There
are four primary components necessary to successfully prosecute a malpractice
claim: 1) Duty; 2) Dereliction
of Duty; 3) Direct Causation and 4) Damage.
In Depth Analysis of the Four Components of Malpractice
Duty-something that one is expected or
required to do by moral or legal obligation.
Duty is further defined as an action or task required by one's position
or occupation.[24] The primary element of a successful
malpractice action is proving that the physician owed some duty to the
claimant. It must be determined that a
doctor--patient relationship had been established.
In
an emergency situation the Chiropractic Sports Physician has a duty to know the
following;
1. What
emergency medical team has the duty to act(public or municipal ambulance or
private ambulance service).
2. What
is the response and skill level of the emergency medical team.
3. What
is the average response time.
4. Know
the name and phone number of the Category I emergency medical facilities in
proximity to the playing field. A
Category I facility is capable of providing comprehensive intensive medical
care in an intensive care unit.
5. Develop
a working relationship with the Category I emergency medical facility staff.
6. Be
cognizant of the medical equipment that the team possesses (first aid
equipment, oxygen, splints and supports).
Dereliction of Duty - any actions or
tasks that do not meet the requirements of one's position or profession
involving a deviation from standards of care.
Direct Causation - it must be proven
that a negligent act occurred which directly caused the patient injury.
Negligence--failure to exercise the
care that a prudent person usually exercises.
[25]
In a malpractice action it must be proven that the doctor failed to perform his
duty with reasonable skill and or performed a procedure that was outside of his
scope of practice, expertise and training.
In
order to successfully prove malpractice, the plaintiff's attorney must prove
causation to a reasonable degree of medical probability. This implies that it is more probable than
not, (i.e., there is more than 50% probability) that a certain condition was
caused by a negligent action by the accused doctor.
Damage - is a loss sustained by a party
for which recovery is sought in a malpractice lawsuit.
If
any of the four elements necessary to prove malpractice are absent (Duty,
Dereliction of Duty, Direct Causation or Damage) then the accused doctors
chances of winning the lawsuit are greatly increased. In short, a doctor can lose a malpractice
claim if the plaintiffs attorney can prove the doctor had a duty, was derelict
in his duty, and his actions or inactions directly caused damage to the
claimant.
Error--an act or condition of ignorance
or imprudent deviation from a code of behavior.
Errors fall into two categories; 1) Errors
of Omission--an example would be the failure to diagnose. Diagnosis is the art or act of identifying a
disease from its signs and symptoms and distinguishing one disease from
another. 2) Errors of Commission--the performance of an act which results in
injury. An example of an error of
commission would be fracturing a rib while adjusting a thoracic vertebra.
Errors of Omission
1) Failure
to perform any physical examination or the appropriate examination given the
history and patient complaints. For
example, due to philosophy, some DC's will perform chiropractic analysis
(palpation and leg length checks etc, but do not perform review of systems,
orthopedic or neurological evaluation. A
protective, risk management strategy is to perform chiropractic analysis,
orthopedic and neurologic examination testing procedures.
2) Failure
to correlate examination findings and render an accurate diagnosis. Failure to diagnose cancer is a primary risk
management concern.
3) Failure
to appropriately refer a patient.
Consent--Compliance in or approval of
what is done or proposed by another. [26] Consent falls into two categories; Informed Consent and Implied Consent.
1)
Informed
Consent--Involves a verbal interaction between the doctor and patient.
Essential elements of informed consent include discussion of the patients
condition, identification and explanation of proposed treatment, warning of the
risks or consequences of treatment, disclosure of alternative treatment options
and their risks and the probability of success or failure of the proposed
treatment. Informed consent should be
discussed with the patient before care begins.
Having the patient sign a written consent form is a prudent risk
management strategy.
"Where
there is risk of significant harm from the treatment proposed, this risk must
be disclosed, understood, and accepted by the patent. Such informed consent is required for ethical
and legal reasons.
Informed Consent and Emergency Medical Care
·
Emergency medical care requires the consent of
the person you are attending. This
consent should be informed (explain what treatment is to be done, the risks of
treatment and the risks of non-treatment).
·
Checking the injured persons consciousness and
coherency is a part of trauma triage.
Use that check to get informed consent from the individual. Keep informing the injured person what you
are going to do so that those standing nearby, such as coaches, trainers, and
referees hear you. (They may one day be
called as a witness in a malpractice case).
·
If the injured individual is a minor, consent
must be obtained from a parent or guardian.
Get a signed consent from the parent prior to the season.
2)
Implied Consent--This form of
consent is granted by the patient's voluntary presentation for treatment. Implied consent occurs on each visit to the
doctor's office. In general, implied
consent takes place after informed consent with the patient having full
knowledge of the proposed care plan and the treatment methods to be employed.
The
prudent physician should never breach the doctor--patient relationship contract
by exceeding the consent given by the patient.
Patients can limit the scope of consent given for treatment. Consent limitations expressed by the patient
become an integral part of the contract for services. The unauthorized touching of another is
actionable in itself as a battery. The
commission of a battery can result in both civil and criminal causes of action.
If
and injured person is unconscious then the consent for emergency care is said
to be implied. Research your states laws
regarding implied consent and emergency care.
Emergency Care Legal Considerations
Good
Samaritan legislation, is a series of laws, adopted by most states, which
provides limited legal protection to health care professionals and citizens
when they administer emergency care. The
Good Samaritan laws vary from state to state as to whom they offer limited
legal protection to. These laws require
an individual to act in good faith, provider care to the best of their
knowledge, ability and skill level, support life and prevent further injury.
In
most states, the degree of liability protection given to the licensed health
care professional (E.M.T., nurse, physician) is much less than the protection
given to the average citizen.
Professionals are held to higher level of accountability due to their
supposed knowledge of emergency care.
The average citizen conversely is typically not held liable for civil
damages as the result of any act or failure to act in providing emergency care.
The Chiropractic Sports Physician should become familiar with the Good
Samaritan laws in their state.
[1]
Morehouse, L.E. and A.T. Miller, Exercise, Heat, And Body Temperature. In: Physiology of Exercise. St. Louis, C.V. Mosby, 1967.
[2]
Marley, W.P., S Study Of Attitude And Opinion, Health And Physical Fitness
Knowledge, And Physical Fitness In PE 100, North Carolina State University,
1975.
[3]
Marley, W.P., S Study Of Attitude And Opinion, Health And Physical Fitness
Knowledge, And Physical Fitness In PE 100, North Carolina State University,
1975.
[4]
Bates, Barbara, M.D. A Guide to Physical
Examination, Third Edition. 1983. J.B. Lippincott
Co., Philadelphia, Pg 266.
[6]
Marley, W.P., S Study Of Attitude And Opinion, Health And Physical Fitness
Knowledge, And Physical Fitness In PE 100, North Carolina State University,
1975.
[7]Conrad,
C,C. How Different Sports Rate in Promoting Physical Fitness. Medical Times104:65, 1999 (May)
[8]
Cooper, K.H. The Aerobics Way, New York, M.Evans and Co., 1977, pp.88, 89.
[9]
Marley, W.P., S Study Of Attitude And Opinion, Health And Physical Fitness
Knowledge, And Physical Fitness In PE 100, North Carolina State University,
1975.
[10]
www.runnersworld.com
[11]
Henderson, J. First-Aid For The Injured,
Runners's World 12:57, 1977 (July).
[12]
American Medical Association's Committee on the Medical Aspects of Sports
(1974, 1976).
[13]
www.americancollegeofsportsmedicine.com
[14]
www.AmericanCollegeofSportrsMedicine.com
[15]
www.AmericanCollegeofSportsMedicine.com
[16]
www.AmericanCollegeofSportsMedicine.com
[17]
Morehouse, L.E. Marley, W.P., S Study Of Attitude And Opinion, Health And
Physical Fitness Knowledge, And Physical Fitness In PE 100, North Carolina
State University, 1975. and A.T. Miller, Exercise, Heat, And Body
Temperature. In: Physiology of
Exercise. St. Louis, C.V. Mosby, 1967.
1.Medical Science Sports 3 vii-ix 1978.
[19].
Medical Science Sports 14(6) IX-XI 1982
[20]
Medical Science Sports 11(4) IX-XI 1979
[21]
Medical Science Sports 8(2) XI-XIII 1976.
[22]
Medical Science Sports 8(2) XI-XIII
1976.
[23] Webster's New
Collegiate Dictionary, C&C Merriam Company, Springfield, Mass., 1976, page
697.
[24]
Webster's New Collegiate Dictionary, C&C Merriam Company, Springfield,
Mass., 1976, page 411.
[25]
Webster's New Collegiate Dictionary, C&C Merriam Company, Springfield,
Mass., 1976, page 769.
[26]
Webster's New Collegiate Dictionary, G & C Merriam Co., Springfield, Mass,
1976, page 241.