2. • 187,000 deaths
per year in the US
due to trauma
• That’s
approximately 1
person every 3
minutes
• Blunt/penetrating
chest trauma is one
of the leading
causes of trauma
death (25+%)
3. Leading causes of chest trauma include:
▪ MVAs: (70 – 80% of trauma deaths)
▪ Falls from excessive heights (usually >15’ vertically)
▪ Blast injuries (both primary and secondary)
▪ Significant blows to the chest
▪ Chest compression injuries
▪ Gunshot wounds (GSW)
▪ Stab/impalement wounds
5. • Rib Fractures:
• Most common type of
chest injury
• While painful, the
fracture itself is
typically not the
pathology of concern
• The potential for
serious internal injury is
what demands your
attention.
6. • Rib Fractures:
• 1 – 2 fx. ribs = 5% mortality
rate
• 7+ fx ribs = 29% mortality
• Elderly population mortality
rate doubles
• Fx of the 1st or 2nd rib
requires significant force
• Ribs are thick and dense
• Often will injure the aorta
or bronchi
• 30% mortality rate
• May result in
pneumothorax or
subclavian artery/vein
injuries
7. • Rib Fractures:
• Fractures of the 8th to 12th
ribs can damage underlying
abdominal solid organs:
• Liver
• Spleen
• Kidneys
• Laceration of these organs
will likely require aggressive
volume replacement.
8. • Rib Fracture’s
Best Friend:
• Analgesics can often be the
key to improving pulmonary
function if painful
respirations are the key
contributor to poor tidal
volumes.
9. • Flail Chest
• A flail chest occurs
when 2 or more ribs
are fractured at two
or more places,
creating a free
moving segment of
chest wall moving
paradoxically to the
rest of the chest.
• Paradoxical movement may not be
seen early on due to the splinting
effect of chest muscle spasms.
10. • Flail Chest
effects:
• Work of Breathing
• Increased by the loss of
integrity of the chest
wall
• Tidal Volume
• Decreases due to the
paradoxical movement
• Pulmonary Contusions
• Create atelectasis and
poor gas exchange
11. • Flail Chest
Treatment:
“Management should
include ventilatory
support, pain
management and
monitoring for
deterioration. Do not
attempt to stabilize flail
section.” – TCAD protocol
12. • Pulmonary
Contusion
• Bruising of the lung
parenchyma from a
high velocity impact
• 20 – 40% of pts with
rib fractures will have
a PC
14. • Pulmonary
Contusion Tx:
• High flow O2
• Assist ventilations with
BVM as necessary
• Pts will need analgesics
to enable them to
breathe adequately
• Assess need for
advanced airway.
• Pt’s with dyspnea or lung
disease should be
monitored and managed
aggressively
• Emergent transport
15. • Pneumothorax:
• Air in the pleural
space decreases or
eliminates the
normal negative
pressure which is
necessary for proper
lung expansion.
• Can cause the lung
to collapse.
• Can be caused by fx
rib(s) which puncture
the actual lung tissue
(parenchyma).
16. • Pneumothorax:
• Various degrees of
pneumothoracies
• Partial vs. complete
• Respiratory distress
typically not seen
until 30 – 40% lung
involvement.
• Can vary
depending on
patient’s age and
overall health.
17. • Pneumo S/S:
• Decreased/absent
breath sounds.
• Pain with
inspiration
• Pain with
palpation.
• Dyspnea
• Tachypnea
18. • Pneumo Tx:
• Establish airway
• High flow on NRB or
BVM
• Be suspicious of
other injuries
• Continuous
assessment of
ventilations
• Monitor and
capnography
• Watch for
development of
tension pneumo.
19. • Open Pneumo:
• The “sucking chest wound”
• Visible hole in the chest wall
(or look for bubbles)
• Small vs. large wound have
different pathologies
• Small wounds will likely
create a tension pneumo
• Act as a 1-way valve.
• Large wounds will cause air
to enter through hole rather
than through trachea.
• Decreased tidal volume and
gas exchange.
• PPV essential
• Subcutaneous air will likely
be seen/felt in chest, neck
and axilla.
20. • Open Pneumo
Tx:
• Regardless of hole size,
apply an occlusive
dressing taped on 3
sides.
• The Medics should
consider cutting a
square patch from the
dorsal aspect of a clean
glove to act as the
dressing.
• Clean the area around
the wound prior to
applying 2” tape.
21. • Open Pneumo
Tx cont’d:
• High flow oxygen with
BVM assist as needed
• Monitor closely for
development of tension
pneumothorax
• IV and EKG
• Rapid transport to
trauma center
22. • Tension
Pneumo:
• Air enters the pleural space on
inspiration and becomes
trapped.
• Intrapleural pressure rises
collapsing the lung on the
affected side.
• Increasing pressure push creates a
mediastinal shift
• Applies pressure to the heart,
superior and inferior vena cava
• Bottoms out pre-load
• Cardiac output falls along with
blood pressure.
• Shock will develop rapidly
• True life-threatening emergency!
24. • Tension
Pneumo Tx:
• This is obstructive shock!
• Needle Decompression
(Thoracostomy)
• Secure airway
• High flow O2
• Capnometry
• Heart monitor
• Rapid transport
25. • ARS (Air Release System):
• Connect to a 10ml saline
flush (make room for air to
purge)
• 2nd or 3rd intercostal space,
midclavicular (5th intercostal
space, mid-axillary as
alternate site)
• Prep with aseptic technique
• Insert OVER the top of rib at a
90 angle to chest wall.
• When air escapes (bubbles)
stop and advance catheter
only until flush with skin.
• Re-assess and repeat as
necessary.
• If blood flows continuously,
withdraw catheter.
26. • Hemothorax
• Blood in the pleural
space
• Each lung can hold
up to 3 liters of
blood.
• High incidence with
penetrating trauma
(knife and gun club)
• Can have
hemopneumothorax
concurrently
28. • Hemothorax Tx:
• High flow O2
• 2 large bore IVs with
fluid replacement.
• Permissive
hypotension
• Rapid Transport
• They need chest
tube(s)!
29. In Summary:
▪ Blunt chest trauma is a leading cause of trauma death (25%)
▪ Simple but aggressive management can truly be the difference between
life and death.
▪ Rib Fx’s are not critical, but the damage they can inflict could be.
▪ Good assessment of the physical signs can provide the best clue of
what’s going on inside your patient.
▪ Capnometry is an invaluable tool to identify your patient’s current status
as well as their response to treatment “real-time”.
▪ Needle decompression is a simple but life-saving procedure
▪ Whether by ground or by air, ensure the patient gets to a Trauma Facility
as rapidly as possible.
30. References:
▪ Center for Disease Control; Injury
Prevention and Control; 2011
[Online]
http://www.cdc.gov/injury/overvi
ew/leading_cod.html.
▪ Casey Thompson RN, CFRN,
CCRN, CEN, NREMT; (AirMed)
University of Utah Health Care;
Trauma Grand Rounds;
http://youtu.be/iT5Y2B2zZ1c
▪ Simple Thoracostomy: Moving
Beyond Needle Decompression in
Traumatic Cardiac Arrest. Andrew
Karrer, LP | Brett J. Monroe, MD
| Guy R. Gleisberg, MBA, BSEE,
NREMT-B, EMS-I | Jared Cosper,
BS, LP | Kasia Kimmel, MD |
Mark E.A. Escott, MD, MPH,
FACEP. s.l. : JEMS, March 2014.
Editor's Notes
BVM with high flow oxygen and breathe with them.
Capnography: If they can’t offload CO2, they can’t onload O2! Rely on capnography for real-time assessment of ventilator status.
Bubbles can confirm proper placement when an otherwise noisy atmosphere might prevent you from hearing the release of air.
Interject with the studies being done in Europe as well as Montgomery County Hospital EMS with finger thoracostomy.