1. The document discusses various types of head injuries including concussions, contusions, epidural hematomas, subdural hematomas, penetrating injuries, and blunt trauma injuries.
2. It provides definitions and descriptions of these injuries, their causes, signs and symptoms, diagnostic methods including CT and MRI scans, treatment approaches including surgery, and considerations in the emergency department.
3. The document is a reference for emergency medicine that covers classification, pathophysiology, clinical findings, radiographic findings, and management of different types of head injuries.
This document defines traumatic brain injury and describes the etiology, pathophysiology, classification, and management of head injuries. The most common causes of head injury are motor vehicle accidents, falls, assaults, and firearms. Injuries are classified as impact injuries resulting from an object striking the head or acceleration/deceleration injuries from differential movement within the skull. Primary injuries occur at impact and secondary injuries involve progressive brain damage. Complications can include increased intracranial pressure, brain swelling, infections, and long-term effects such as personality changes and dementia. Management involves stabilizing the patient, treating raised ICP, monitoring for complications, and long-term rehabilitation.
1) Head injuries can cause primary brain injury at impact or secondary brain injury afterwards from factors like hypoxia or swelling.
2) Head injuries are classified by Glasgow Coma Scale from minor to severe. CT scans are used to identify fractures or bleeds in the brain.
3) Common brain injuries include extradural hematomas requiring urgent surgery, acute subdural hematomas also often needing surgery, and cerebral contusions monitored for swelling.
Traumatic brain injury (TBI) is caused by external force to the head resulting in brain dysfunction. Globally there are millions of TBI cases annually. The leading causes are road traffic incidents, falls, and assaults. In Rwanda, a study found an incidence of 234 TBIs per 100,000 people in Kigali, with the majority being mild TBIs from traffic accidents. Primary injuries occur at impact and secondary injuries can develop from factors like hypoxia and raised intracranial pressure. Imaging helps classify injuries as focal like fractures or contusions, or diffuse like diffuse axonal injury. The main clinical challenges are managing raised ICP and treating hematomas surgically if needed to prevent herniation.
This document provides information on head injuries. It begins by defining different types of head injuries from minor scalp lacerations to major trauma involving brain contusions and lacerations. It then discusses causes, presentations, investigations, management strategies and complications for various head injury types including skull fractures, epidural and subdural hematomas, subarachnoid hemorrhage, and intracerebral hemorrhage. Nursing management focuses on airway protection, maintaining cerebral perfusion, preventing secondary injuries, and supporting recovery.
This document provides information on head injuries, including definitions, etiology, pathophysiology, consequences, assessment, and management. The main causes of head injury are motor vehicle crashes, falls, assaults, and firearms. Head injuries can cause scalp lacerations, skull fractures, brain contusions and hemorrhages. Assessment involves the Glasgow Coma Scale and examining for neurological deficits. Initial management consists of airway control, immobilization, and monitoring vital signs. Treatments for elevated intracranial pressure include mannitol, furosemide, and midazolam.
Intracranial bleeding encompasses all bleeds that may occur within the cranial cavity including Epidural, Subdural, Sub arachnoid, intraparenchymal and Intraventricular haemorrhages. all are discussed in these slides and relevant references are provided for detailed information.
It is important to note that medicine is not learnt online but through series of organised events under specialised supervision in recognised institutions of learning.
This document provides information on head injuries, including definitions, classifications, mechanisms of injury, imaging findings, and management strategies. It discusses the types of head injuries such as concussions, extradural and subdural hematomas, and intracerebral hemorrhages. Risk factors for secondary brain injury and guidelines for CT imaging are also outlined. Management of increased intracranial pressure and severe head injuries is described.
This document discusses head injuries, including:
- Definitions of head injury and traumatic brain injury as injuries resulting from trauma to the scalp, skull, or brain.
- Common causes are motor vehicle crashes, falls, assaults, and firearms.
- Injuries can be impact injuries from an object striking the head or acceleration/deceleration injuries from differential movement within the skull.
- Consequences can include scalp injuries, skull fractures, brain injuries like contusions and hematomas, and complications like infection, edema, and herniation. Proper management involves airway control, immobilization, monitoring, and treatment of raised intracranial pressure.
This document defines traumatic brain injury and describes the etiology, pathophysiology, classification, and management of head injuries. The most common causes of head injury are motor vehicle accidents, falls, assaults, and firearms. Injuries are classified as impact injuries resulting from an object striking the head or acceleration/deceleration injuries from differential movement within the skull. Primary injuries occur at impact and secondary injuries involve progressive brain damage. Complications can include increased intracranial pressure, brain swelling, infections, and long-term effects such as personality changes and dementia. Management involves stabilizing the patient, treating raised ICP, monitoring for complications, and long-term rehabilitation.
1) Head injuries can cause primary brain injury at impact or secondary brain injury afterwards from factors like hypoxia or swelling.
2) Head injuries are classified by Glasgow Coma Scale from minor to severe. CT scans are used to identify fractures or bleeds in the brain.
3) Common brain injuries include extradural hematomas requiring urgent surgery, acute subdural hematomas also often needing surgery, and cerebral contusions monitored for swelling.
Traumatic brain injury (TBI) is caused by external force to the head resulting in brain dysfunction. Globally there are millions of TBI cases annually. The leading causes are road traffic incidents, falls, and assaults. In Rwanda, a study found an incidence of 234 TBIs per 100,000 people in Kigali, with the majority being mild TBIs from traffic accidents. Primary injuries occur at impact and secondary injuries can develop from factors like hypoxia and raised intracranial pressure. Imaging helps classify injuries as focal like fractures or contusions, or diffuse like diffuse axonal injury. The main clinical challenges are managing raised ICP and treating hematomas surgically if needed to prevent herniation.
This document provides information on head injuries. It begins by defining different types of head injuries from minor scalp lacerations to major trauma involving brain contusions and lacerations. It then discusses causes, presentations, investigations, management strategies and complications for various head injury types including skull fractures, epidural and subdural hematomas, subarachnoid hemorrhage, and intracerebral hemorrhage. Nursing management focuses on airway protection, maintaining cerebral perfusion, preventing secondary injuries, and supporting recovery.
This document provides information on head injuries, including definitions, etiology, pathophysiology, consequences, assessment, and management. The main causes of head injury are motor vehicle crashes, falls, assaults, and firearms. Head injuries can cause scalp lacerations, skull fractures, brain contusions and hemorrhages. Assessment involves the Glasgow Coma Scale and examining for neurological deficits. Initial management consists of airway control, immobilization, and monitoring vital signs. Treatments for elevated intracranial pressure include mannitol, furosemide, and midazolam.
Intracranial bleeding encompasses all bleeds that may occur within the cranial cavity including Epidural, Subdural, Sub arachnoid, intraparenchymal and Intraventricular haemorrhages. all are discussed in these slides and relevant references are provided for detailed information.
It is important to note that medicine is not learnt online but through series of organised events under specialised supervision in recognised institutions of learning.
This document provides information on head injuries, including definitions, classifications, mechanisms of injury, imaging findings, and management strategies. It discusses the types of head injuries such as concussions, extradural and subdural hematomas, and intracerebral hemorrhages. Risk factors for secondary brain injury and guidelines for CT imaging are also outlined. Management of increased intracranial pressure and severe head injuries is described.
This document discusses head injuries, including:
- Definitions of head injury and traumatic brain injury as injuries resulting from trauma to the scalp, skull, or brain.
- Common causes are motor vehicle crashes, falls, assaults, and firearms.
- Injuries can be impact injuries from an object striking the head or acceleration/deceleration injuries from differential movement within the skull.
- Consequences can include scalp injuries, skull fractures, brain injuries like contusions and hematomas, and complications like infection, edema, and herniation. Proper management involves airway control, immobilization, monitoring, and treatment of raised intracranial pressure.
A head injury can range from minor to severe and life-threatening. It is classified as either closed, caused by blunt force, or penetrating, caused by an object breaking through the skull. The severity depends on factors like the force of impact and age of the individual. Serious head injuries require close monitoring for deterioration and may necessitate surgical intervention or reducing intracranial pressure to prevent further brain damage. Management involves stabilizing the patient, treating any brain injuries or swelling, and monitoring for complications that can arise from a head injury.
HEAD INJURY- AN OVERVIEW
Dear viewers,
Greetings from “Surgical Educator”
Today I have uploaded a video on Head injury- an important topic in trauma because 50% of trauma deaths are due to head injuries. I haven’t talked elaborately but have included the essential minimum an undergraduate medical student should know. I have talked about pathophysiology, clinical approach, symptoms, signs, investigations, different individual types of head injuries and management of all the varieties of head injuries. My aim is after watching this video all of you should be able to arrive at a correct working diagnosis of the type of head injury and should also be able to institute immediate lifesaving treatment to the patients if there is a need. You can watch the video in the following links:
Surgicaleducator.blogspot.com
Youtube.com/c/surgicaleducator
Thank you for watching the video.
The document discusses head injury and traumatic brain injury (TBI). Some key points:
- Head injury is a common cause of emergency department visits, accounting for 3.4% of presentations. TBIs are a leading cause of death and disability, especially in young adults aged 15-24.
- Head injury ranges from mild concussion to severe brain injury resulting in death. Common causes are motor vehicle accidents, falls, firearms, and assaults.
- Primary brain injury occurs at impact, while secondary brain injury develops after from factors like hypoxia, hypotension, increased intracranial pressure, fever, seizures, and metabolic disturbances.
- Glasgow Coma Scale is used to assess head injury severity
- Head injuries are common presentations to the emergency department, representing up to 10% of visits. Common causes include road traffic accidents, falls, assaults, and sports injuries.
- CT head is the primary investigation to identify traumatic brain injuries and skull fractures. History should focus on mechanism of injury, time since injury, medications, and risk factors.
- Most head injuries are minor and can be safely discharged, but some serious underlying injuries can be missed if not properly evaluated. Patients require close monitoring for neurological changes that indicate deterioration.
The document discusses various types of brain injuries including closed/blunt brain injuries which occur without skull penetration and open brain injuries which involve skull penetration. It describes the pathophysiology of brain injuries including increased intracranial pressure and reduced cerebral blood flow. Clinical manifestations like altered consciousness and abnormal vital signs are also summarized. The management of brain injuries focuses on reducing intracranial pressure through surgery or medication and providing supportive care.
This document provides an overview of the management of head injuries. It defines head injury as damage to the head from impact and classifies injuries as closed or open, diffuse or focal. The pathophysiology section explains how small increases in intracranial volume can raise pressure dramatically. Presentation may include altered consciousness, bleeding, seizures or vomiting. Investigations include CT scans to detect fractures or bleeds. Treatment focuses on preventing secondary injuries like hypoxia, controlling pressure, and maintaining perfusion and nutrition. Follow-up is needed as some patients with mild injuries may later develop complications.
A 56-year-old male was found dead at the bottom of his home stairs with a small forehead wound. Police found alcohol bottles nearby. An autopsy was requested. The document discusses mechanisms of head injuries like focal damage from lacerations or skull fractures. It describes types of intracranial hematomas from blunt trauma, and diffuse brain injuries like axonal shearing. Autopsy findings of injuries and timing are important to determine cause and manner of death in these cases.
1) Head trauma can cause permanent injury, with motor vehicle crashes and falls being common causes. Approximately 30% of those with moderate head trauma have at least one other significant concurrent injury.
2) Primary brain injury results directly from trauma and causes bleeding, tearing and shearing of brain tissue. Secondary brain injury can occur later and includes hypoxia, swelling and increased pressure inside the skull.
3) Various types of head injuries are discussed, including scalp lacerations, skull fractures, concussions, contusions and bleeding within or around the brain. The Glasgow Coma Scale is used to assess level of consciousness.
1) Head trauma can cause permanent injury, with motor vehicle crashes and falls being common causes. Approximately 30% of those with moderate head trauma will have another significant concurrent injury.
2) Primary brain injury results directly from trauma and causes bleeding, tearing and shearing of brain tissue. Secondary brain injury can occur later and includes hypoxia, swelling and increased pressure inside the skull.
3) Various types of head injuries are discussed, including scalp lacerations, skull fractures, concussions, contusions and bleeding within or around the brain. The Glasgow Coma Scale is used to assess level of consciousness.
The document discusses head injuries and traumatic brain injuries (TBI). It covers causes of TBI like falls and motor vehicle accidents. It then discusses the primary and secondary injuries that can occur from a TBI. It explains increased intracranial pressure and outlines treatments to control pressure like osmotic diuretics, CSF drainage, and fluid restriction. The document also covers assessing and diagnosing different types of brain injuries through imaging and examinations.
Dr. Umar Tauqir presented a case of an 18-year-old male who presented with a history of head trauma 2 days prior where he lost consciousness and experienced vomiting. A CT scan of the brain showed a hyperdense area in the temporal lobe representing an epidural hematoma. It also showed a linear undisplaced fracture involving the frontal and temporal bones. The patient was treated conservatively with supportive measures, medications to decrease cerebral edema, and surgical evacuation of the hematoma when indicated. Complications of head injuries and the different types of herniations were also discussed.
This document provides an outline on head injury (HI). It discusses the pathophysiology of HI, classification based on Glasgow Coma Scale and mechanism of injury. It describes the components of HI including scalp laceration, skull fractures, and traumatic brain injury. For traumatic brain injury, it covers concussion, contusion, diffuse axonal injury, and intracranial hematomas. It outlines the primary and secondary survey approach for patients with HI, including airway management, breathing, circulation, disability assessment, and exposure.
Head Trauma & ICP. SURGICAL AND MEDICAL MANAGEMENT OFblessingmichael5
This document provides information on the management of adult head trauma and intracranial hypertension. It discusses head trauma statistics, classification of head injuries, initial assessment including Glasgow Coma Scale, intracranial injury risk stratification, management of increased intracranial pressure, types of intracranial injuries such as epidural hematoma, subdural hematoma, and treatment approaches for each.
Initial Management of the Trauma Patient II.pptxHadi Munib
The document provides information on performing a secondary assessment on a trauma patient. It focuses on assessing injuries to the head and skull, as well as the chest. For the head, it describes examining for lacerations, fractures, neurological changes, and signs of increased intracranial pressure. CT scans are useful for diagnosing brain injuries and hemorrhages. Chest injuries can involve fractures, lung issues, and mediastinal injuries. Vital signs, respiratory status, and neurological functions should be monitored for changes.
Head injuries are commonly caused by motor vehicle accidents (44%) and falls (21%). Common types of head injuries include scalp wounds, skull fractures, and brain injuries such as contusions, hematomas, and hemorrhages. Symptoms vary depending on the location and severity of the injury but may include changes in consciousness, headache, vomiting, and motor or sensory deficits. Diagnostic tests like CT scans are used to evaluate the injury. Treatment focuses on stabilizing the patient, treating increased intracranial pressure through medications like mannitol, and surgical intervention if necessary.
Intracranial hypertension occurs when cerebrospinal fluid (CSF) pressure within the skull is elevated above normal levels. It can be caused by brain injuries, tumors, strokes, or other conditions that increase the volume of brain components within the fixed skull space. Symptoms include headaches, nausea, vision changes, and altered mental status. Evaluation involves imaging tests like CT or MRI of the brain to identify potential causes, as well as lumbar puncture to measure CSF pressure directly. Invasive ICP monitors may also be placed to precisely track pressure and guide treatment to prevent further neurological injury.
This document discusses craniocerebral injuries. It begins by defining craniocerebral trauma and classifying it based on location and severity using the Glasgow Coma Scale. It then discusses the etiology, incidence, pathophysiology involving primary and secondary injury, and diagnosis and management of various traumatic brain injuries including fractures, contusions, hematomas, concussions, and diffuse axonal injuries. It concludes by outlining the continuum of care for mild, moderate and severe traumatic brain injuries from prehospital management through emergency department and trauma center management.
This document provides an overview of head injuries in children. It defines head injury as trauma to the scalp, skull, or brain from an external force. It discusses the epidemiology, mechanisms, types, assessment, management, and prevention of pediatric head injuries. The types of injuries include scalp injuries, skull fractures, and various types of brain injuries such as concussions, contusions, hemorrhages, and diffuse axonal injuries. Guidelines are provided for evaluating head injuries based on Glasgow Coma Scale and indications for referral, CT scan, and suspicion of non-accidental injury. The management of head injuries involves both medical and surgical approaches.
Local Advanced Lung Cancer: Artificial Intelligence, Synergetics, Complex Sys...Oleg Kshivets
Overall life span (LS) was 1671.7±1721.6 days and cumulative 5YS reached 62.4%, 10 years – 50.4%, 20 years – 44.6%. 94 LCP lived more than 5 years without cancer (LS=2958.6±1723.6 days), 22 – more than 10 years (LS=5571±1841.8 days). 67 LCP died because of LC (LS=471.9±344 days). AT significantly improved 5YS (68% vs. 53.7%) (P=0.028 by log-rank test). Cox modeling displayed that 5YS of LCP significantly depended on: N0-N12, T3-4, blood cell circuit, cell ratio factors (ratio between cancer cells-CC and blood cells subpopulations), LC cell dynamics, recalcification time, heparin tolerance, prothrombin index, protein, AT, procedure type (P=0.000-0.031). Neural networks, genetic algorithm selection and bootstrap simulation revealed relationships between 5YS and N0-12 (rank=1), thrombocytes/CC (rank=2), segmented neutrophils/CC (3), eosinophils/CC (4), erythrocytes/CC (5), healthy cells/CC (6), lymphocytes/CC (7), stick neutrophils/CC (8), leucocytes/CC (9), monocytes/CC (10). Correct prediction of 5YS was 100% by neural networks computing (error=0.000; area under ROC curve=1.0).
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A head injury can range from minor to severe and life-threatening. It is classified as either closed, caused by blunt force, or penetrating, caused by an object breaking through the skull. The severity depends on factors like the force of impact and age of the individual. Serious head injuries require close monitoring for deterioration and may necessitate surgical intervention or reducing intracranial pressure to prevent further brain damage. Management involves stabilizing the patient, treating any brain injuries or swelling, and monitoring for complications that can arise from a head injury.
HEAD INJURY- AN OVERVIEW
Dear viewers,
Greetings from “Surgical Educator”
Today I have uploaded a video on Head injury- an important topic in trauma because 50% of trauma deaths are due to head injuries. I haven’t talked elaborately but have included the essential minimum an undergraduate medical student should know. I have talked about pathophysiology, clinical approach, symptoms, signs, investigations, different individual types of head injuries and management of all the varieties of head injuries. My aim is after watching this video all of you should be able to arrive at a correct working diagnosis of the type of head injury and should also be able to institute immediate lifesaving treatment to the patients if there is a need. You can watch the video in the following links:
Surgicaleducator.blogspot.com
Youtube.com/c/surgicaleducator
Thank you for watching the video.
The document discusses head injury and traumatic brain injury (TBI). Some key points:
- Head injury is a common cause of emergency department visits, accounting for 3.4% of presentations. TBIs are a leading cause of death and disability, especially in young adults aged 15-24.
- Head injury ranges from mild concussion to severe brain injury resulting in death. Common causes are motor vehicle accidents, falls, firearms, and assaults.
- Primary brain injury occurs at impact, while secondary brain injury develops after from factors like hypoxia, hypotension, increased intracranial pressure, fever, seizures, and metabolic disturbances.
- Glasgow Coma Scale is used to assess head injury severity
- Head injuries are common presentations to the emergency department, representing up to 10% of visits. Common causes include road traffic accidents, falls, assaults, and sports injuries.
- CT head is the primary investigation to identify traumatic brain injuries and skull fractures. History should focus on mechanism of injury, time since injury, medications, and risk factors.
- Most head injuries are minor and can be safely discharged, but some serious underlying injuries can be missed if not properly evaluated. Patients require close monitoring for neurological changes that indicate deterioration.
The document discusses various types of brain injuries including closed/blunt brain injuries which occur without skull penetration and open brain injuries which involve skull penetration. It describes the pathophysiology of brain injuries including increased intracranial pressure and reduced cerebral blood flow. Clinical manifestations like altered consciousness and abnormal vital signs are also summarized. The management of brain injuries focuses on reducing intracranial pressure through surgery or medication and providing supportive care.
This document provides an overview of the management of head injuries. It defines head injury as damage to the head from impact and classifies injuries as closed or open, diffuse or focal. The pathophysiology section explains how small increases in intracranial volume can raise pressure dramatically. Presentation may include altered consciousness, bleeding, seizures or vomiting. Investigations include CT scans to detect fractures or bleeds. Treatment focuses on preventing secondary injuries like hypoxia, controlling pressure, and maintaining perfusion and nutrition. Follow-up is needed as some patients with mild injuries may later develop complications.
A 56-year-old male was found dead at the bottom of his home stairs with a small forehead wound. Police found alcohol bottles nearby. An autopsy was requested. The document discusses mechanisms of head injuries like focal damage from lacerations or skull fractures. It describes types of intracranial hematomas from blunt trauma, and diffuse brain injuries like axonal shearing. Autopsy findings of injuries and timing are important to determine cause and manner of death in these cases.
1) Head trauma can cause permanent injury, with motor vehicle crashes and falls being common causes. Approximately 30% of those with moderate head trauma have at least one other significant concurrent injury.
2) Primary brain injury results directly from trauma and causes bleeding, tearing and shearing of brain tissue. Secondary brain injury can occur later and includes hypoxia, swelling and increased pressure inside the skull.
3) Various types of head injuries are discussed, including scalp lacerations, skull fractures, concussions, contusions and bleeding within or around the brain. The Glasgow Coma Scale is used to assess level of consciousness.
1) Head trauma can cause permanent injury, with motor vehicle crashes and falls being common causes. Approximately 30% of those with moderate head trauma will have another significant concurrent injury.
2) Primary brain injury results directly from trauma and causes bleeding, tearing and shearing of brain tissue. Secondary brain injury can occur later and includes hypoxia, swelling and increased pressure inside the skull.
3) Various types of head injuries are discussed, including scalp lacerations, skull fractures, concussions, contusions and bleeding within or around the brain. The Glasgow Coma Scale is used to assess level of consciousness.
The document discusses head injuries and traumatic brain injuries (TBI). It covers causes of TBI like falls and motor vehicle accidents. It then discusses the primary and secondary injuries that can occur from a TBI. It explains increased intracranial pressure and outlines treatments to control pressure like osmotic diuretics, CSF drainage, and fluid restriction. The document also covers assessing and diagnosing different types of brain injuries through imaging and examinations.
Dr. Umar Tauqir presented a case of an 18-year-old male who presented with a history of head trauma 2 days prior where he lost consciousness and experienced vomiting. A CT scan of the brain showed a hyperdense area in the temporal lobe representing an epidural hematoma. It also showed a linear undisplaced fracture involving the frontal and temporal bones. The patient was treated conservatively with supportive measures, medications to decrease cerebral edema, and surgical evacuation of the hematoma when indicated. Complications of head injuries and the different types of herniations were also discussed.
This document provides an outline on head injury (HI). It discusses the pathophysiology of HI, classification based on Glasgow Coma Scale and mechanism of injury. It describes the components of HI including scalp laceration, skull fractures, and traumatic brain injury. For traumatic brain injury, it covers concussion, contusion, diffuse axonal injury, and intracranial hematomas. It outlines the primary and secondary survey approach for patients with HI, including airway management, breathing, circulation, disability assessment, and exposure.
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The document provides information on performing a secondary assessment on a trauma patient. It focuses on assessing injuries to the head and skull, as well as the chest. For the head, it describes examining for lacerations, fractures, neurological changes, and signs of increased intracranial pressure. CT scans are useful for diagnosing brain injuries and hemorrhages. Chest injuries can involve fractures, lung issues, and mediastinal injuries. Vital signs, respiratory status, and neurological functions should be monitored for changes.
Head injuries are commonly caused by motor vehicle accidents (44%) and falls (21%). Common types of head injuries include scalp wounds, skull fractures, and brain injuries such as contusions, hematomas, and hemorrhages. Symptoms vary depending on the location and severity of the injury but may include changes in consciousness, headache, vomiting, and motor or sensory deficits. Diagnostic tests like CT scans are used to evaluate the injury. Treatment focuses on stabilizing the patient, treating increased intracranial pressure through medications like mannitol, and surgical intervention if necessary.
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This document provides an overview of head injuries in children. It defines head injury as trauma to the scalp, skull, or brain from an external force. It discusses the epidemiology, mechanisms, types, assessment, management, and prevention of pediatric head injuries. The types of injuries include scalp injuries, skull fractures, and various types of brain injuries such as concussions, contusions, hemorrhages, and diffuse axonal injuries. Guidelines are provided for evaluating head injuries based on Glasgow Coma Scale and indications for referral, CT scan, and suspicion of non-accidental injury. The management of head injuries involves both medical and surgical approaches.
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1. A y u W i n d y a n i n g r u m
4 0 5 0 8 0 1 4 9
PROBLEM 7 – EMERGENCY
MEDICINE
2. Definitions
Concussion:
Alteration of level of consciousness as result of closed head
injury.
Contusion:
Either high density(hge contusion) or low density(associated
edema).most common in areas where sudden deceleration
cause brain impaction on bony prominence.
Countercoup:
The force imparted to the head may cause brain to be thrust
against the skull directly opposite the blow.
3. Head Injury
The most common cause head injudy is motor vehicle accidents
Brain injury occurs at all ages but the peak in young adult
especially between 15-25years
Men : women 4 : 1
5. Radiograpic demage in CT or MRI
• Diffuse injury I : no visible pathology
• Diffuse injury II : cisterns present, midline shift 0-5
mm and / or lession densities present and no mass
lesion > 25 mL
• Diffuse injury III : swelling, cisterns compressed or absent
with midline shift 0.5 mm and no mass lession > 25ml
• Diffuse injury IV : shift, midline shift > 5mm, no mass >
25ml
• Evacuated mass lesion : any lesion surgically evacuated
• Nonevacuated mass lesion : high or mixed-density lesion
> 25ml, not surgicaly evacuated
6. Cerebral concussion
Concussion a reversible traumatic paralysis of nervous
function, is always immediate (not delayed even by seconds).
7. Patofisiology
Vasoparalysis or an arrest of circulation by an instantaneous rise
in intracranial pressure
concussion resulted when the freely moving head was struck by
a heavy mass. If the head was prevented from moving at the
moment of impact, the same degree of force invariably failed to
produce concussion.
the reticular formation of the upper brainstem was the anatomic
site of concussive injury.
8. Sign and symptomps
• the immediate abolition of consciousness
• suppression of reflexes (falling to the ground if standing)
• transient arrest of respiration
• a brief period of bradycardia
• fall in blood pressure following a momentary rise at the time of
impact.
Mild
• no apparent loss of consciousness or collapse
• a brief period of stunned disorientation and amnesia during
which the individual appears outwardly normal
• The vital signs return to normal and stabilize within a few
seconds while the patient remains unconscious.
9. In fatal cases of head injury the brain:
• Bruised
• swollen, or lacerated
• hemorrhages, either meningeal or intracerebral,
• hypoxic-ischemic lesions
12. Diagnosis
assessing his mental and neurologic status (GCS)
Normal 15
Mild injury 13-14
Moderate injury 8-12
Severe injury <7 (severe trauma and a poor critical state)
14. Acute epidural hemorragic
• epidural hematoma arises with a temporal or parietal fracture
and laceration of the middle meningeal artery or vein.
SS/
• Vomiting
• Drowsiness
• Confusion
• Aphasia
• Bradycardia (<60x/min)
• headache of increasing severity
develops
• seizures (which may be one-
sided)
• hemiparesis with slightly
increased tendon reflexes
• a Babinski sign.
16. Epidural Hematoma
Focal isodense or hypodense zones indicate active bleeding
Air in acute EDH indicates fracture of sinuses or mastoid air
cells.
If chronic--may appear heterogeneous from neovascularization
and granulation, with peripheral enhancement on contrast
administration
20. Subdural Hematomas
bleeding between the dura and the arachnoid,
which usually include bleeding vein. Subdural
hemorrhage divided into acute, subacute, and
chronic
Etiology
• head injury, especially in elderly persons and in
those taking anticoagulant drugs
21.
22. Acute Subdural Hematoma CT
Hyperdense (white)
crescentic mass along the
inner skull table, over the
cerebral convexity in the
parietal region (most
common location)
Midline shift present with
moderate or large SDHs
(note the shift in this
image)
24. patofisiology
Rapidly evolving subdural hematomas are usually a result of
tearing of bridging veins, and symptoms are caused by
compression of the adjacent brain and of deep structures.
25. Sign and symtopms
The subdural hematoma forms in the posterior fossa
• Headache
• Vomiting
• pupillary inequality
• Dysphagia
• cranial nerve palsies
• stiff neck
• ataxia of the trunk and gait
• ipsilateral pupil
27. Subdural Hematoma--Surgical
Management
Symptomatic SDH > 1cm at thickest point requires rapid
evacuation
Smaller SDH often do not require evacuation—surgery may increase
brain injury if severe swelling & herniation thru craniotomy
Large craniotomy flap that allows access from skull base to
midline—broad access required because these lesions are
unpredictable
Clot removal--open dura & suction/irrigate clot
Hemostasis--identify and cauterize bleeding vessel
29. Head Trauma, Penetrating
Penetrating injury to intracranial contents:
• High-velocity penetrationusually bullets, which cause
trauma directly to brain tissue
• Low-velocity penetration usually knives, picks, or other
sharp objects, with direct local trauma to brain tissue
30. Etiology
Direct penetration of the skull into the intracranial cavity by
foreign object:
Direct or local damage to brain tissue
Intracranial hemorrhage, including subdural, epidural, and
intraparenchymal bleeds
A bullet that hits the skull, ricochets off, and does not fracture
the skull can still cause significant trauma to the underlying brain
tissue.
31. Sign and symtomps
Alteration in level of consciousness and neurologic exam varies based on object and
location.
Evidence of increasing intracranial pressure:
Decreasing level of consciousness
Falling Glasgow coma scale score
Cushing response: bradycardia, hypertension, and diminished respiratory rate
Blown pupil associated with decorticate or decerebrate posturing
Evidence of penetrating injury to head or basilar skull fracture, or object still remaining
in head:
Raccoon eyes: bilateral ecchymosis of orbits associated with basilar skull fractures
Battle sign: ecchymosis behind the ear at mastoid process associated with basilar skull
fracture
Hemotympanum
Cerebral spinal fluid rhinorrhea or otorrhea
32. Essential Workup
Determine the weapon type or caliber of weapon at
scene.
Thorough exam to assess extent of injuries
Neurologic exam:
Alteration in level of consciousness and neurologic exam varies
based on object and location.
Evidence of penetrating injury to head
33. Support examination
Lab
Complete blood count
Platelet count
Coagulation perimeters
Type and cross-match.
Electrolytes, blood urea nitrogen,
and creatinine baseline levels
Imaging
CT of head depicts location of
lesion and extent of damage.
Skull radiographs may reveal
depth of impalement, location of
bone fragments, and presence of
fragments within the cranium.
Cervical spine evaluation (when
indicated):
Helical CT scanning or
anteroposterior, lateral, and
odontoid views plain radiographs
34. Differential Diagnosis
Blunt head trauma
Basilar skull fracture
Any condition that alters mental status that may have induced a
fall and caused secondary penetrating trauma
35. Treatment
Pre Hospital
• Stabilize, but do not remove, foreign object (e.g., knife).
• Determine the weapon type or caliber of weapon at scene.
• Protect and manage the airway to avoid hypoxemia.
• Avoid hyperventilation.
• Maintain cervical spine precautions.
• Transport to trauma center.
• Avoid hypoxia (oxygen saturation <90%):
– 100% oxygen
• Avoid hypotension (systolic blood pressure<90 mm Hg):
– Intravenous crystalloid solutions
36. Initial Stabilization
Airway, breathing, and circulation management
Rapid-sequence intubation:
For Glasgow coma scale <8, inability to protect airway, hypoxia or cerebral
herniation
Medications include etomidate or fentanyl as induction agent, succinylcholine
(pretreat with minidose paralytic), rocuronium, or vecuronium; and morphine
sulfate for ongoing sedation
Caution with fentanyl in the hemodynamically labile patient
Normalize PCO2. Avoid hyperventilation or hypoventilation.
Intravenous catheter placement
Crystalloid solution to maintain systolic blood pressure >90 mm Hg
Address other sources of associated trauma.
Cervical spine precautions should be maintained.
37. ED Treatment
Early neurosurgical consultation
If patient has evidence of cerebral herniation (see Signs and Symptoms),
initiate measures to decrease intracranial pressure:
Mild hyperventilation: 16–20 breaths per minute in adults, 20–24 breaths per
minute in children, and 24–26 breaths per minute in infants to keep PaCO2 about
35, which correlates to an end tidal CO2 of 32–35 mm Hg
Elevating head of bed 20–30°
Mannitol boluses intravenously: Do not administer mannitol unless systolic blood
pressure >100 mm Hg and patient is adequately fluid resuscitated.
Phenytoin intravenously to prevent early posttraumatic seizures
Glucocorticoids are not recommended to lower intracranial pressure in head
trauma patients.
38. ED treatment
Barbiturates are not recommended in the initial emergency department
treatment.
Transfuse as needed to keep hematocrit >30%.
If definitive neurosurgical care is not immediately available, a single burr hole
may preserve life until neurosurgical intervention can be attained:
Perform only in comatose patients with decerebrate or decorticate posturing on
the side of a known mass lesion/hematoma who have not responded to initial
treatment.
Avoid hypothermia, which will increase risks of coagulopathy during surgery.
Maintain NPO status.
Surgery:
Based on clinical and radiologic findings and neurosurgical consultation
39. Medication (Drugs)
Etomidate: 0.2-0.3 mg/kg IV
Fentanyl: 3-5 µg/kg IV:
If systolic blood pressure >100 mm
Hg
Mannitol: 0.25-1 g/kg IV bolus
Morphine sulfate: 2-20 mg IV
(peds: 0.1 mg/kg up to adult
doses)
Phenytoin: 15-20 mg/kg IV up to
1,000 mg
Rocuronium: 0.6 mg/kg IV
Succinylcholine: 1-2 mg/kg IV
Vecuronium bromide: 0.1 mg/kg
IV:
Pretreatment minidose: 0.01
mg/kg IV
40. Follow-up
Disposition
Admission Criteria
Admit all patients to intensive care unit or transport directly to
surgery.
Discharge Criteria
Do not discharge.
41. Head Trauma, Blunt
Blunt trauma to head resulting in a variety of injuries
ranging from closed head injury to death
42. Etiology
Blunt trauma to head may cause several types of closed head injuries:
Concussion: transient loss of consciousness or amnesia with
normal head CT
Subdural hematoma: tearing of subdural bridging veins and bleeding into the
subdural space
Epidural hematoma: dural arterial injury, especially the middle meningeal artery
often associated with a skull fracture:
• Classically, transient loss of consciousness followed
by a lucid interval, then rapid demise
Subarachnoid
hemorrhage:
bleeding into the subarachnoid space following trauma
Cerebral contusion: focal injuries to the brain characterized as coup (beneath
area of impact) or contrecoup (area remote from impact)
Intracerebral hemorrhage: mass intracranial lesion with bleeding into the brain
parenchyma
Diffuse axonal injury: microscopic injuries scattered throughout the brain in a
patient in deep coma
43. Signs and Symptoms
Evidence of trauma to head includes:
Scalp laceration, cephalohematoma, or ecchymosis
Raccoon eyes: bilateral ecchymosis of orbits associated with basilar skull
fractures
Battle sign: ecchymosis behind the ear at mastoid process associated with
basilar skull fracture
Hemotympanum
Cerebral spinal fluid rhinorrhea or otorrhea
Evidence of increasing intracranial pressure includes:
Decreasing level of consciousness, falling Glasgow coma scale score
Cushing response, bradycardia, hypertension, and diminished respiratory
rate
Dilated pupils associated with decorticate or decerebrate posturing
44. Support Examination
Lab
• Rapid check of blood glucose level
• Complete blood count, platelet count, and coagulation
parameters
• Type and cross-match for surgical candidates.
• Baseline electrolytes, blood urea nitrogen, and creatinine
levels
• Blood alcohol level if indicated
45. Support Examination
Imaging
Cervical spine radiographs or helical CT when indicated
Patients on Coumadin or heparin or those with a history of bleeding dyscrasias
must undergo imaging.
Older patients (>age 60–65 years) and alcoholics are at higher risk of intracranial
hemorrhage:
Have a low threshold for obtaining CT scan
Head CT should be performed in patients with any of the following:
Loss of consciousness or amnesia of
events
Progressive headache
Alcohol or drug intoxication
Unreliable history or dangerous
mechanism
Posttraumatic seizure
– Repeated vomiting
– Signs of basilar skull fracture
– Possible skull penetration or
depressed skull fracture
– Glasgow coma scale score <15
– Focal neurologic findings
46. Differential Diagnosis
Penetrating head trauma
Any condition that alters mental status that may have produced
a fall and caused external evidence of head trauma (e.g.,
hypoglycemic episode, seizure)
47. Treatment
Pre Hospital
• Blunt head trauma patients with risk for intracranial lesion must go to
a trauma center:
– High-risk patients include those with depressed consciousness, focal
neurologic signs, multiple trauma, or palpable depressed skull fractures.
• Moderate-risk patients should go to a hospital with availability of
prompt neurosurgical consultation:
– Moderate-risk patients include those with progressive headache, alcohol or
drug intoxication, unreliable history, posttraumatic seizure, repeated
vomiting, posttraumatic amnesia, signs of basilar skull fracture.
• Protect and manage the airway including intubation:
– Routine hyperventilation without signs of cerebral herniation should be
avoided.
48. If evidence of cerebral herniation (see Signs and Symptoms) or
progressive neurologic deterioration, then initiate measures to
decrease intracranial pressure:
Mild hyperventilation to keep PaCO2 about 35:
16–20 breaths per minute in adults
20–24 breaths per minute in children
24–26 breaths per minute in infants
Elevating head of bed 20–30°
Cervical spine precautions must be maintained in all patients.
Cautions:
Avoid hypotension (systolic blood pressure <90 mm Hg); use intravenous
crystalloid solutions to maintain blood pressure.
Avoid hypoxia (oxygen saturation <90%); administer 100% oxygen.
Check blood glucose level.
49. Initial Stabilization
Airway, breathing, and circulation management:
Control airway as needed:
Rapid-sequence intubation if Glasgow coma scale score <8, unable to protect
airway, or evidence of hypoxia
Normalize PCO2, avoid hyperventilation and hypoventilation.
Treatment with etomidate or fentanyl as induction agent, succinylcholine
(pretreat with minidose paralytic), rocuronium, or vecuronium; morphine for
ongoing sedation
Caution with fentanyl in hemodynamically labile patients
Intravenous catheter placement with crystalloid solution as needed to avoid
hypotension (keep systolic blood pressure >90 mm Hg)
Cervical spine precautions
50. ED Treatment
Early neurosurgical consultation
If patient has evidence of cerebral herniation (see Signs and Symptoms),
initiate measures to decrease intracranial pressure:
Mild hyperventilation: 16–20 breaths per minute in adults, 20–24 breaths per
minute in children, and 24–26 breaths per minute in infants to keep PaCO2 about
35, which correlates to an end tidal CO2 of 32–35 mm Hg
Elevating head of bed 20–30°
Mannitol boluses intravenously: Do not administer mannitol unless systolic blood
pressure >100 mm Hg and patient is adequately fluid resuscitated.
Phenytoin to prevent early posttraumatic seizures
The use of glucocorticoids is not recommended to lower intracranial pressure
in head trauma patients.
51. ED Treatment
Barbiturates are not recommended in the initial emergency department
treatment of head-injured patients.
If definitive neurosurgical care is not immediately available, a single burr hole
may preserve life until neurosurgical intervention can be obtained:
Perform only in comatose patients with decerebrate or decorticate posturing on
the side of a known mass lesion who have not responded to hyperventilation and
mannitol.
Transfuse as needed to keep hematocrit >30%.
Avoid hypothermia, which will increase risks of coagulopathy during surgery.
Maintain NPO status.
Surgery:
Surgical procedure based on findings of CT scan and neurosurgical consultation
52. Medication (Drugs)
Etomidate: 0.2-0.3 mg/kg IV
Fentanyl: 3-5 µg/kg IV if systolic blood pressure >100 mm Hg
Mannitol: 0.25-1 g/kg IV bolus
Morphine sulfate: 2-20 mg IV (peds: 0.1 mg/kg IV up to adult doses)
Phenytoin: 15-20 mg/kg IV up to 1,000 mg
Rocuronium: 0.6 mg/kg IV
Succinylcholine: 1-2 mg/kg IV
Vecuronium bromide: 0.1 mg/kg IV; minidose pretreatment: 0.01 mg/kg IV
53. Spinal Trauma
• The most common cause of spinal trauma is motor vehicle
accidents, followed by gunshot wounds.
• Men : women 4 : 1
54. Patofisiology
The initial injury of the spinal trauma occurs through 4
different mecanicsm :
1. Impact with persistent compression in burst fracture.
2. Impact with only transient compression after
hyperextention injury.
3. Distraction resulting in forcible stretching of the spinal
coloum in the axial plane, with shearing of the spinal cord
or its blood supply.
4. Laceration from missile injury, sharp bone fragment
dislocation, or severe distraction, with or without
transection.
55. Gray matter is primarily affected and irreversible damaged
within 1 hour of injury early hemmoragic within the spinal
cord.
White matter spared initially but is irreversible injured
within 72 hours after initial insult as a result of hemorragic,
ischemia, and reperfution,excitotoxicity, calcium-mediated
cellular dysfungtion, fluid and electrolyte disturbances,
immunology mechanicm or appoptosis shock with
bradycardia and hypotension.
56. Spinal Injuries and cauda equina syndrome : Clinical Findings and management
Classification mechanism stability Assosiated injuryes Immaging studies Th/
Upper cervical spine injury
Atlanto-occipital
dislocation
Traction and
disruption of
ligaments between
skull, c1, and c2
Unstable Usually none Lateral ragiograph-
clivus-odontoid
distance > 5mm
Surgical stabilization
C1/atlas fracture
Bilateral posterior
arch fracture
Compression and
extension of cervical
spine
Stable Odontoid fracture Odontoid-view
ragiograph through
patient’s open mouth
CT scan through c1
arch
Orthosis
Lateral mass fracture Fracture of ipsilateral
anterior and
posterior arched
following
compression with
lateral bending
Stable if no lateral
mass widening
Usually none Same as above Orthosis
If intermass widening
> 6.9 mm or atlanto-
dens interval > 3 mm,
traction and halo
immobilization is
required if atlanto-
dens interval > mm,
c1-c2 fusion is
indicated
Jefferson fracture Fractur-part c1
fractures from direct
axial compression
Stable if no lateral
mass widening
Retropharyngeal
swelling
Same as above Same as above
57. Hangman fracture (spondylolisthesis of axis)
I Disruption of
posterior arch,
disk, and posterior
ligament intack
stable Usually none Lateral ragiograph Orthosis
II Anterior
displacement of c2
on c3 through disk,
with intact
posterior ligament
Stable Usually none Lateral ragiograph Traction and halo
immobilization
III Fracture of arch,
facets of c2
attached to
vertebral body
unstable Usually none Same as above Surgical
stabilization
58. Lower cervical spine injuries (c3-c7)
Unilateral or
bilateral facet
dislocation
Flexion with
tension to facet
capsule and
intersponous
ligaments,
subluxation in
25 % of patiens
unstable Nerve root
involment
Lateral,
anteroposterior,
and oblique
radiograph
Traction adn
fusion
Compresion
fracture
Flexion with
25%
compression of
middle coloum
and intact
posterior
ligament
Stable or
unstable
Usually none Lateral flecion
and extension
radiograph
MRI
Orthosis if
posterior
ligament is
stable
Fusion if
posterior
ligament is
injured
Burst fracture Compression and
flexion
Stable or unstable Cord and root
compression
Lateral radiograph
CT scan
MRI
Halo immobilization
if posterior ligament
is intact and there is
no neurologic deficit
Posterior fusion and
halo immobilization
if posterior
ligaments is
ruptured and there is
no neurologic deficit
Anterior corpectomy
and fusion posterior
fusion, and halo
immobilization if
posterior ligaments
59. Thoracolumbar spine injuries
Compression
fracture
Failure of
anterior column
with intact
middle and
posterior
column
Stable Usually none Lateral
radiograph
Hyperextension-
type bracess
Burst fracture Axial load
resulting in
compression of
anterior and
middle columns
and retropulsion
of bone into
canal
Unstable Cord and rood
compression
Lateral
radiograph-
widening of
interpedicle
distance
Surgical
stabilization
Decompression
and internal
fixation if
neurologic
deficit is present
Chance fracture
or seat belt
injury
Flexion and
distraction
resulting in
failure of middle
and posterior
columns with
tension onto
anterior column
stable Ussualy none Lateral
radiograph
Brace
Cauda equina
syndrome
Traction and
pelvic fractures
following
gunshot injuries,
motor vehicle
accidents, and
falls from height
Unstable Root
compression
resulting in
paresthesias
radiating down
legs, leg
weakness,
CT
MRI
Surgical
decompressioon,
spinal nerve
reconstruction,
repair of ventral
nerves and nerve
transfer
60.
61. Anatomy
The Abdomen is out :
Front of Abdomen
The abdomen is superior by a line in the section between
mammary papilla inferiorly by the pubic symphysis pubis and
inguinal ligament and lateral to the anterior axillary line by line
Waist (flank)
Situated between the anterior and posterior axillary line, from
the ICS 6di superior to the inferior iliac krista. In contrast to the
front abdominal wall, the muscles in the thigh thicker and can
be a block of translucent/puncture wound
62. -Your Back
• Is behind the posterior axillary line line of the tip of
the scapula to krista iliac. The muscles in this area
is quite thick as a barrier of invisibility/puncture
wound
• Abdomen in
-The peritoneal cavity
Divided into upper and lower sections. The top
(thoracoabdominal) include the diaphragm, liver,
spleen, stomach, and the transverse colon. The
lower part contains the small intestine and colon
sigmoid
63. Pelvic Cavity
The pelvic bones, was surrounded at the bottom
of the cavity, retroperitoneum contains the
rectum, bladder, blood vessels, and internal iliac
genitalia in women. An examination to determine
the structure of the pelvic injury was
compounded by the bones on it
Space retroperitonium
Include abdominal aorta, inferior vena cava, large
parts of the duodenum, pancreas, kidney, ureter,
colon descendens. Injuries in this area hard
understood both by physical examination or FBC
(diagnostic peritoneal lavage)
64.
65. Abdomen cavity
Jenis organ
Solid organs: hepar, lien
Main symptoms:
bleeding
Intraperitoneal organs: the liver, spleen,
stomach, intestines (colonic mostly), vesika
velea
Retroperitoneal organs: kidneys, ureters,
duodenum, pancreas, rectum, uterine vesika,
urinaria
Lumen Organs: gaster,
small intestine, colon.
Symptoms: peritonitis
66. • One of the emergency on the digestive system,
abdominal trauma is trauma/injuries of the abdomen
which causes the onset of disorders/damage to the
organs in it
• Types of abdominal trauma:
1. trauma translucent
abdominal trauma with penetration into the cavity
caused by the peritonium: wounds, cuts sticks shoot
2. blunt trauma
trauma to the abdomen without penetration into the
cavity caused by the peritonium: blows, concussion,
deselerasi, compression or seat belt
Abdominal trauma
67. • As a result of trauma to the abdomen can be a
perforation or bleeding
• Deaths due to trauma to the abdomen usually occur due
to bleeding or sepsis
• Type of injury:
• Based on the affected organs are:
1. solid Organs: hepar, spleen and the main symptoms of
bleeding
2. the hollow Organs: intestine, bile duct, with the main
symptoms of peritonitis
Abdominal trauma
68. • On the abdominal trauma usually found contusions, abrasio,
lacerasi and echimosis
• Echimosis is an indication of bleeding in intra abdominal
• There is a Echimosis on the umbilikal good Cullen's we call '
Sign ' while echimosis was found on one of the pelvis are
referred to as ' Turner's Sign '
• Sometimes found the presence of abdominal organs, namely
its prominent eviserasi out like the colon, the colonic trauma
that occurs in translucent/sharp
Abdominal trauma
71. abdominal trauma
Translucent trauma Blunt trauma
Laparotomi
signs peritonitis No signs of
peritonitis
Laparotomi Lavase
peritoneum
Positif Negatif
Laparotomi Nursing dan
observation
Laparotomi
Gunfire wounds Knife wounds
No signs of peritonitis
Nursing and observation
A stable haemodynamic Not stable
Shock hipovolemik
72. Translucent Trauma
abdominal trauma with
penetration into the
cavity of the peritonium.
Puncture wounds and
shoot
.
punch, deselerasi,
explosions, collisions,
or compression of the
seat belt
Damage to the
integrity of the
skin
Shock and bleeding
Damage to gas
exchange
The high risk of
infection
Loss of all or part of the
functions of organs
sympathetic dystrophy
stress response to
hemorrhage and blood
clotting
Bacterial Contamination
cell death
Blood loss.
Bruises/injuries on the
abdominal wall.
Damage to the organs.
Pain
trauma to the
abdomen without
penetration into the
peritonium cavity
Blunt Trauma
73. SEE-THROUGH ABDOMEN TRAUMA
Bowel most often exposed on the abdomen, because
translucent wound gut fill most of the abdominal cavity
Clinical manifestations:
Peritonitis and sepsis when regarding intra peritoneal organs
are hollow
When perforation occurs at the top for example in the area of
the stomach symptoms of peritonitis are great
Shock and loss of consciousness difficulty in abdominal
examination
Injuries in the abdominal wall the onset of abdominal trauma
74. BLUNT ABDOMINAL TRAUMA
Due to the presence of deselerasi fast and the organ – organ
that has no flexibility including the liver, pancreas, and kidneys
Clinical manifestations:
The presence of blood or intestinal fluid pain stimulation of
peritoneal tap, aches and pains, bladed and stiffness of the
abdominal wall
Blood is determined by shifting dullness
The presence of free air is lost or the presence of liver pekak
Intestinal noise usually weaken or disappear
The stimulation of the pain over in the peritoneal area
especially the left shoulder
75. • The problems that often arise in abdominal trauma
is:
• 1. Shock hipovolemik
• 2. Impaired sense of ease pain;
• 3. Impaired sense of security; anxious
• 4. fulfillment of nutrition Disorders
• 5. the risk of the spread of infection
• 6. when it is coupled with the presence of a tear in
the diaphragm then nursing problem that appears
accompanied by impaired oxygenation
76. Abdomen acute
Acute abdomen shows a State of emergency in the abdomen that
may end with the death when not be solved with surgery
Due to bleeding, inflammation, perforation or obstruction in the
digestive apparatus
Primary inflammation (inflammation of the digestive apparatus:
appendisitis)/secondary pollution through the peritoneum
(perforation, perforation of peptic payer's patch, on the
abdominal typhus/perforation due to trauma)
Main symptoms: acute pain in abdominal area
diagnosis of enforcement physical examination, anamnesis,
additional and special examination (patient not aware/too sick
anamnesa family/allo-anamnesa)
77. -Nontraumatik Abnormalities that arise unexpectedly with the
main symptoms in the abdomen and required immediate
surgery measures
-The conditions that give rise to acute abdomen:
-Bacterial inflammation Process-chemistry
-Mechanical Obstruction: volvulus, hernia, or adhesions
Neoplasm/tumour:-Carcinoma, polipus, or ectopic pregnancy
-Vascular Disorders: tromboemboli, perforation, emboli, and
fibrosis
-Congenital Abnormalities
78. Causes of acute abdomen of tersering:
Abnormalities of the gastrointestinal traktus: non-specific pain, bowel
obstruction, subtle kapada appendicitis and intestinal, hernia besara strangulata,
perforated bowel perforation, septic ulcers, diverticulitis Meckel, Boerhaeve
syndrome, inflammatory bowel disorders, syndromes Mallary Weiss, acute
gastroenteritis, mesenteric adenitis, gastririts
Abnormalities of the pancreas: acute pancreatitis
Traktus abnormalities urinarius: renal colic or obstruction, acute as
pyelonephritis, cystitis, acute renal infarction
Abnormalities of the liver, the spleen and traktus biliaris: kolesistitis kolangitis
acute, acute, abscess, ruptured liver, hepar spontaneous tumor rupture of the
spleen, splenic infarction, acute hepatitis, Biliary colic
Gynaecological abnormalities: ectopic pregnancy, ovarian tumors is impaired is
twisted ovarian follicle cyst, rupture, acute salpingitis, dysmenorrhoea,
endometriosis
Vascular Disorders: ruptured aortic aneurysm and ischemia of acute visceral,
colitis, mesenteric thrombosis
Peritoneal abnormalities: intrabdomen abscess, peritonitis, peritonitis primary
TBC
retroperitoneal abnormalities: Retroperitoneal hemorrhage
79.
80. Anamnesa
The location of pain
Radiation pain/deployment pains
Forms of pain (constantly/colic)
Changes the physiology of the digestive apparatus
1. appetite, nausea, vomiting
2. Defekasi, diarrhea, obstipasi
3. flatulence, colic attack
4. how long have all these changes take place
Anatomical changes
1. a lump neoplasm
2. the existence of injuries due to trauma
3. Existence former operations
81. Physical examination
Inspeksi
Pain sufferers
The pain caused by coughing
Shallow breathing because of pain in the abdomen
People with pale, cold swea
Anamnesa
82. Palpasi
• Feeling the pain: the pain of feeling it there has been continuous
increase at palpation (pain and soreness off press)
• Pain inflamasi peritoneal
• Pain looks firmly acute kolesistitis , apendisitis, divertikulitis, or acute
salpingitis
• Diffuse pain without emphasis gastroenteritis or intestinal
inflammatory process without other peritonitis
• Mass intraadbdomen
• Iliopsoas sign
• Obturator sign pain in the limb at the time made the rotation
fleksi internal or external
• Pain under ribs bladed inflammatory on diaphragm, hepar,
spleen
• Pain in the kostovertebral Acute pielonefritis
• Muscle cramps (muscular rigidity, defense musculaire): because
of the pain in the stimulation of peritonitis due to palpation
diffusa increases proportionally reflex muscle spasm occurs.
83. Percusion
• Percussion tenderness parietal peritoneal irritation and pain
• Perforasion the air will be gathered under the diaphragm and
the liver removes pekak
• Timpany the air trapped in the gut berdistensi, acute gastric
dilation.
• Free fluid in the peritoneal shifting dullness positif
• Percussion test boxing when there is pain a sign of
inflammation/abscess in the subfrenik between the liver and
diafraghma
Auskultasi
• Noise increases with the intestinal colic the Central intestine
obstruction and early acute pancreatitis
• .Decreased intestinal noise
• Examination of the rectal or rectum with toucher perabaan finger
to detect the trauma to the rectum ampulla recti whether State
contains faeces/palpable tumor
• Examination of the inguinal ring femoral neuropathy
• Pelvic examination
84. Abdominal Trauma multiple trauma, involving trauma
where the thoraks are typically found in each section blunt
tears diaphragm, but more often left hemidafragma injury.
The most common injury is a tear along the 5 – 10 cm and
includes a left posterolateral hemidiaframa.
At the time of the first rontgenthoraks, then that may appear
is the terangkatnya or blurring/kaburnya hemidiafragma,
hemotroaks, the shadow of abnormal gas himidiafragma or
pipes that hide gastrik (NGT) that seems located in the chest.
85. Investigations
For the accuracy of diagnosis
such as Hematology (Hb, Leukocytes, Hematokrit, PT,
APTT), Radiology (BNO/photo plain abdomen,
anteroposterior lateral cervical, thoraks/AP and the
pelvis), Diagnostic Peritoneal
Lavage/FBC, Ultrasound, CT SCAN.
86. Diagnostic examination
Examination of the rectum: the presence of blood indicates abnormalities
in the colon
catheterization, blood shows the presence of lesions on the urethra.
Radiologik: when indicated to do laparatomi.
IVP/sistogram: is only done when there is suspicion of urinary tract trauma.
Abdominal Parasentesis: this action was performed on a blunt abdominal
trauma is beyond doubt the presence of abnormalities in the abdominal
cavity or abdominal blunt trauma accompanied with severe head trauma,
is done using a needle No. 18 or 20 that rapid thrusting through the
bottom quadrant area of the abdominal wall or the Middle, we get under
the center of the jar jar with rub first.
Peritoneal Lavase: a and aspirations/rinsing the abdominal cavity by
inserting saline liquid through physiological kanula inserted into the cavity
of the peritonium (of MEDICINE, 1995).
87. Laboratory examination
Routine blood examination
Examination Of Hb & Ht
Examination of Leukocyte > 20,000/mm without
infection bleeding pretty much
Serum amylase pancreatic trauma/perforated small
intestine
transaminase reactions to trauma in hepar
Urine routine examination: trauma to the urinary tract
when present hematuri
Clear Urine has not been able to get rid of any trauma to
the urogenital tract
88. Radiology examination
• Examination of ultrasonography and CT-scan: sufferers who
have not operated on and the suspected existence of trauma to
the retroperitoneum and hepar.
• Examination of ultrasonography and CT-scan: sufferers who
have not operated on and the suspected existence of trauma to
the retroperitoneum and hepar.
• Photo thoraks upright position remove the disorder/trauma at
thoraks (free air under the diaphragm/description of the
intestine in the cavity thoraks on diafragmatika hernia)
• Plain abdomen erect photos free air in the cavity peritoneum,
retroperitoneal free air near the duodenum, corpus alienum,
changes in bowel description
• IVP (Intravenous Pyelogram): when there is trauma to the
kidneys
89. Special examination
Abdominal paracentesis determine the presence of bleeding
within the peritoneal cavity
> 100,000 erythrocytes/mm after included 100-200 ml of
solution nacl 0.9% for the last 5 minutes of the peritoneal cavity
indication for laparotomi
Laparoscopic examination knowing directly the source cause
Rektosigmoidoskopi when found bleeding at anus
Installation of a nasogastric tube (NGT) check the fluid that
comes out of the stomach in abdominal trauma
90. Laparostomy
• Actions before surgery
• 1. General Situation before the operation after resuscitation
should be stable
• Analgetik narcotic should not given
• Enemas, laxatives should not be given to patients with
constipation until the possibility of an obstruction was removed
• 2. Hose NGT hematemesis or repeated vomiting, bowel
obstruction, suspicions or severe intestinal paralitik
• 3. installation of the dauer-katheter
• 4. Administering parenteral antibiotics in patients with
persangkaan pads bowel perforation, severe multiple trauma or
shock.
• 5. installation of the thorax-drain pads sufferers with fracture of
the ribs, haemothoraks or pneumothoraks
• Laparotomi Incision for exploration should be median
incision/the median length.
91. The steps in the laparotomi emergency are:
1. exploration to find the source of the bleeding.
2. stop the bleeding as soon as possible. When the bleeding comes from
solid organs cessation of bleeding is achieved with abdominal tampons
for a while. Bleeding from the artery of the hams is stopped with the
use of vascular clamps. Bleeding from a vein of terminated with
immediate emphasis.
3. Anesthesia to correct blood volume
4. intestinal Perforation/laserasi closing holes/bowel resection with
anastomosis
5. cleaning of the peritoneal cavity with irrigation solution of NaCl
fisiologik
6. prior to the peritoneal cavity is closed should be a systematic
exploration was held from around the organs in the abdomen from top
right to bottom left retroperitoneal area having regard to the
duodenum and the bursa omentalis.
7. If it appears the peritoneal cavity used drain contamination and
subkutis as well as kutis left open.
92.
93.
94. Complication
See-through abdomen Trauma
Infection or abscess
formation
Abdominal compartment
syndrome
The intra abdominal or
retroperitoneal hemorrhage
Visceral Edema
Blunt Abdominal Trauma
Solid organ injury or a
hollow party continuous
bleeding, infection, or failing
organs, and death
96. Management
• Primary survey
• A: Airway, keeping the airway with cervical spinal
control (cervikal spine control)
• B: Breathing, keep breathing with the vent control
(ventilation control)
• C: Circulation with control of bleeding (bleeding
control)
• D: Disability: neurological status (level of
consciousness/GCS, Pupil Response)
• E: Exposure/environmental control: open the sufferers
but barring suits hypothermia
97. Secondary survey
Did the study in head to toe, and
haemodynamic observation client every
15 – 30 minutes once covering the vital
signs. When stable and could proceed
with the improved observation every 1
hours
Plug the output rate cateter fluid,
fluid therapy given & notice any
bleeding in the urine.
Patients fasted and installed NGT
(Nasogastrik tube) clears the
hemorrhage of the gastrointestinal
tract, minimizing the risk of tract nausea
and aspirations, as well as when there is
no counter indication can be done
lavage.
Mental status observations, vomitus,
nausea, rigid/stiff/noisy, intestines,
urinary output every 15-30 minutes.
Take note and report immediately
when there is a change in a fast
Installation collaboration Central Venous
Pressure (CVP) to see the status of the
hydration of the client, giving the antibiotic,
analgesic and actions necessary
examination support on such diagnosis
Laboratory (AGD, hematology, PT, APTT,
leukocyte counts etc.), radiology
examination and if necessary kolaborasikan
after laparatomi surgery for actions
definitely exploration.
98. The trauma of the diaphragm
Secondary to blunt trauma from happening or
translucent.
Rupture occurs on the left side.
Examination: a CT scan and laparoscopy.
The delay in determining a diagnosis can improve
morbidity and mortality.
99. Duodenum dan pancreas
• Rare
• A direct clash in the stomach
• It could also be because the wound skewer
• Pain in the abdomen of the Middle/back
• The air in the retroperitoneum in plain images (the
air in addition to psoas)
• Elevated blood amylase
• CT: difficult to detect early, go easy
100. Pancreatic trauma
Frequently, often seen after blunt trauma.
The patient feels pain in the epigastric or back.
Serum enzymes pancrease is not specific.
Examination: a CT scan.
101. Hepar
Intra abdominal Organ injuries most frequently
PF is difficult
Suspicion: haemodynamic instability
FBC
CT scan
102. Lien
Especially by blunt trauma
Haemodynamic unstable
Kehr's sign: penjalaran to the left shoulder
Caution on fracture of ribs 9 – 12
FBC & ULTRASOUND in patients not stable
Stable pake CT scan
Operative therapy of splenektomi
103. Gaster
Rarely by blunt trauma
Penetrans Trauma more often
Peritonitis is quick look –> acid stimulation
Blood in the NGT
Free air subdiafragma large wrote
FBC-sensitive
Operative therapy
104. Small intestine
Most often at sores penetrans
Blunt Trauma 5 – 5%
Blow out in pseudoclosed loop
Not as fast as gaster/perforation Peritonitis
Free air +
FBC
the operative
105. Colon and rectum
Most of the cuts came through
Blunt Trauma usually accompanies the pelvic fracture
Free air +
Bleeding per anum
Complications of Peritonitis is slow
106. Bladder Trauma
Occurs in patients who experience a fracture of
the pelvis.
Hematuria.
Review: retrograde cystogram and CT scans.
107. Pelvic Trauma
Together with trauma to the kidneys.
Examination: CT scans
Retroperitoneal hematoma might get false
positive on FBC or ultrasound.
108. RENAL TRAUMA
• Introduction:
-Renal Trauma: often at Urinarius tr.
-Trauma penetrating trauma to small parenkimGeneral:
debridemen, primary repair, drainage
-Extensive Trauma may need partial/total nefrektomi example:
trauma to the hilum
-80% of kidney penetran trauma (+) intra-abd other trauma
• Blunt Trauma minor & major (85%)
-Minor: contusio, usually conservative dith
-Mayor: laserasi cortex in dg extravasasi, perinefrik large
hematoma, trauma of Vascularity
109.
110.
111.
112.
113.
114.
115. Splenic
Injury
Liver Injury Pancreati
c injury
GIT injury Flank
Injury
Diagnos
a
• blunt trauma
•Left upper
quadrant pain
and
tenderness,
often with
radiation to
left shoulder
•May cause
significant
hemodynamic
instability
•CT scan is
noninvasive
and sensitive
in stable
patients; use
FAST
examination or
laparotomy for
unstable
patients
•Most common
in blunt trauma
•Right upper
quadrant pain
and tenderness,
often with
radiation to
right shoulder
•May cause
significant
hemodynamic
instability
•CT scan is
noninvasive and
sensitive in
stable patients;
use FAST
examination or
laparotomy for
unstable
patients
•Uncommo
n, usually
seen after
blunt
trauma
•epigastric
or back
pain
•Serum
pancreatic
enzyme
levels are
not
sensitive
or specific
for injury
•CT scan is
noninvasiv
e and
sensitive
•blunt and
penetrating
injuries
•Peritoneal
signs may be
delayed ,
presentation
•May be missed
on initial plain
X-rays,
ultrasound, and
CT scan
•)
•Strongly
consider the
diagnosis in
patients with
free fluid on CT
scan but no
specific solid
organ injury
identified
•May be
associated
with renal
injuries
•Retroperito
neal
hematoma
may be false
positive on
DPL or
ultrasound
•CT scan is
noninvasive
and sensitive
in stable
patients
127. DEFINITION
Medical or surgical condition in which rapid fluid
loss results in multiple organ failure due to
inadequate circulating volume and subsequent
inadequate perfusion.
Most often, hypovolemic shock is secondary to rapid
blood loss (hemorrhagic shock).
128. CAUSES
Blood loss can be due to:
Bleeding from cuts
Bleeding from other injuries
Internal bleeding, such as in the gastrointestinal tract
The amount of circulating blood in your body may drop
when you lose too many other body fluids, which can
happen with:
Burns
Diarrhea
Excessive perspiration
Vomiting
129. CLASSIFICATION (1)
Class I hemorrhage (loss of 0-15%)
In the absence of complications, only minimal tachycardia is seen.
Usually, no changes in BP, pulse pressure, or respiratory rate occur.
A delay in capillary refill of longer than 3 seconds corresponds to a
volume loss of approximately 10%.
Class II hemorrhage (loss of 15-30%)
Clinical symptoms include tachycardia (rate >100 beats per minute),
tachypnea, decrease in pulse pressure, cool clammy skin, delayed
capillary refill, and slight anxiety.
The decrease in pulse pressure is a result of increased catecholamine
levels, which causes an increase in peripheral vascular resistance and
a subsequent increase in the diastolic BP.
130. CLASSIFICATION (2)
Class III hemorrhage (loss of 30-40%)
By this point, patients usually have marked tachypnea and
tachycardia, decreased systolic BP, oliguria, and significant changes
in mental status, such as confusion or agitation.
In patients without other injuries or fluid losses, 30-40% is the
smallest amount of blood loss that consistently causes a decrease in
systolic BP.
Most of these patients require blood transfusions, but the decision to
administer blood should be based on the initial response to fluids.
Class IV hemorrhage (loss of >40%)
Symptoms include the following: marked tachycardia, decreased
systolic BP, narrowed pulse pressure (or immeasurable diastolic
pressure), markedly decreased (or no) urinary output, depressed
mental status (or loss of consciousness), and cold and pale skin.
This amount of hemorrhage is immediately life threatening.
131. SYMPTOMPS
Anxiety or agitation
Cool, clammy skin
Confusion
Decreased or no urine output
General weakness
Pale skin color (pallor)
Rapid breathing
Sweating, moist skin
Unconsciousness
The greater and more rapid the blood loss, the more severe
the symptoms of shock.
132.
133. Assessment Findings
Medical
Vomiting, history suggesting
fluid loss
Bleeding from the mouth or
rectum
Bright or dark red
Coffee-ground emesis
Melena
Associated signs and symptoms
Dizziness or syncope with
sitting or standing
Orthostatic changes in vital
signs
Dysfunctions In Perfusion
Loss of plasma/fluid
Loss of red blood cells
Inability to deliver enough
oxygen to the cells
134. PHYSICAL EXAMINATION (1)
The physical examination should always begin with an assessment of the
airway, breathing, and circulation. Once these have been evaluated and
stabilized, the circulatory system should be evaluated for signs and
symptoms of shock.
Do not rely on systolic BP as the main indicator of shock; this practice
results in delayed diagnosis. Compensatory mechanisms prevent a
significant decrease in systolic BP until the patient has lost 30% of the
blood volume. More attention should be paid to the pulse, respiratory rate,
and skin perfusion. Also, patients taking beta-blockers may not present
with tachycardia, regardless of the degree of shock.
Classes of hemorrhage have been defined, based on the percentage of blood
volume loss. However, the distinction between these classes in the
hypovolemic patient often is less apparent. Treatment should be aggressive
and directed more by response to therapy than by initial classification.
135. PHYSICAL EXAMINATION (2)
In the patient with trauma, hemorrhage usually is the
presumed cause of shock. However, it must be
distinguished from other causes of shock.
The 4 areas in which life-threatening hemorrhage can
occur are as follows: chest, abdomen, thighs, and outside
the body.
The chest should be auscultated for decreased breath sounds,
because life-threatening hemorrhage can occur from myocardial,
vessel, or lung laceration.
The abdomen should be examined for tenderness or distension,
which may indicate intraabdominal injury.
The thighs should be checked for deformities or enlargement (signs
of femoral fracture and bleeding into the thigh).
The patient's entire body should then be checked for other external
bleeding.
136. PHYSICAL EXAMINATION (3)
In the patient without trauma, the majority of the
hemorrhage is in the abdomen. The abdomen should
be examined for tenderness, distension, or bruits.
Look for evidence of an aortic aneurysm, peptic ulcer
disease, or liver congestion. Also check for other
signs of bruising or bleeding.
In the pregnant patient, perform a sterile speculum
examination. However, with third-trimester
bleeding, the examination should be performed as a
"double set-up" in the operating room. Check for
abdominal, uterine, or adnexal tenderness.
137. TREATMENT GOALS
Goals exist in the emergency department treatment of
the patient with hypovolemic shock as follows:
Maximize oxygen delivery by ensuring an adequate airway and by
improving oxygenation through administration of high-flow oxygen
via a nonrebreather mask or mechanical ventilation.
Control hemorrhage through basic means, such as direct manual
pressure, interventional angiography, or surgical intervention.
Restore and maintain adequate cardiac output. To meet this goal,
I.V. fluid replacement is a top priority. (In early shock from
dehydration, oral fluid replacement may be adequate.) The I.V. fluid
of choice is an isotonic crystalloid, such as 0.9% sodium chloride
solution or Ringer's lactate solution.Also, the patient's disposition
should be rapidly and appropriately determined.
138. INITIAL TREATMENT (AT HOME)
Get immediate medical help. In the meantime, follow
these steps:
Keep the person comfortable and warm (to avoid hypothermia).
Have the person lie flat with the feet lifted about 12 inches to
increase circulation. However, if the person has a head, neck, back,
or leg injury, do not change the person's position unless he or she is
in immediate danger.
Do not give fluids by mouth.
If person is having an allergic reaction, treat the allergic reaction, if
you know how.
If the person must be carried, try to keep him or her flat, with the
head down and feet lifted. Stabilize the head and neck before moving
a person with a suspected spinal injury.
139. HOSPITAL TREATMENT
The goal of hospital treatment is to replace blood and fluids.
An intravenous (IV) line will be put into the person's arm to
allow blood or blood products to be given.
Medicines such as dopamine, dobutamine, epinephrine, and
norepinephrine may be needed to increase blood pressure and
the amount of blood pumped out of the heart (cardiac output).
Other methods that may be used to manage shock and
monitor the response to treatment include:
Heart monitoring, including Swan-Ganz catheterization
Urinary catheter to collect and monitor how much urine is produced
140. Treatment Strategies
↑ the amount of circulating fluid (replace the blood or fluid)
Minimize the loss of red blood cells in uncontrolled bleeding
CASE TREATMENT STRATEGY
Traumatic hemorrhage Direct pressure usually effective in stopping
external hemorrhage
Hemothorax or hemoperitoneum Requires urgent operative intervention
Pelvic fracture Massive blood loss might improve with :
• Manual stabilization in a sling (or sheet tied
around the pelvis)
• Pneumatic antishock trousers, or
• Embolization via angiography
Femur fracture Should be splinted with an external traction
device
Nontraumatic hemorrhagic (shock
from ectopic pregnancy or AAA
Requires operative intervention
141. • FLUID EXCHANGE
A crystalloid infusion (NS or RL solution of 20 cc/kg)
There has been no demonstrated advantage of albumin or
other colloids over crystalloids
Hypertonic (7,5%) saline infusion (with or without
dextran) has shown promise but is still largely of unproven
benefit
• BLOOD AND/OR BLOOD SUBSTITUTE
Should be given early in hemorrhagic shock
patients not readily responding to crystalloid
infusion
Choice is based on the time frame :
• For immediate need in an unstable patient use
un-crossmatched O-negative packed RBCs
• If time allows use type-specific RBC or typed and
crossed packed RBCs
142. Others…
Patients with GI bleeding NGT reduce gastric size and
monitor bleeding
Pharmacology :
Proton pump inhibitor, H2 blockade (for gastric bleeding)
Octreotide infusion (for variceal bleeding)
Endoscopy will likely be necessary for any patient exhibiting signs
of shock and GI bleeding
143. LABORATORY STUDIES
After the history is taken and the physical
examination is performed, further workup depends
on the probable cause of the hypovolemia, as well as
on the stability of the patient's condition.
Initial laboratory studies should include analysis of
the CBC, electrolyte levels (eg, Na, K, Cl, HCO3,
BUN, creatinine, glucose levels), prothrombin time,
activated partial thromboplastin time, ABGs,
urinalysis (in patients with trauma), and a urine
pregnancy test. Blood should be typed and cross-
matched.
144. IMAGING STUDIES
Patients with marked hypotension and/or unstable conditions must
first be resuscitated adequately. This treatment takes precedence over
imaging studies and may include immediate interventions and
immediately taking the patient to the operating room.
The workup for the patient with trauma and signs and symptoms of
hypovolemia is directed toward finding the source of blood loss.
A pregnancy test should be performed in all female patients of
childbearing age. If the patient is pregnant and in shock, surgical
consultation and the consideration of bedside pelvic ultrasonography
should be immediately performed in the ED.
If a traumatic abdominal injury is suspected, a focused abdominal
sonography for trauma (FAST) ultrasonography examination may be
performed in the stable or unstable patient. Computed tomography
(CT) scanning typically is performed in the stable patient.
If long-bone fractures are suspected, radiographs should be obtained.
146. COMPLICATIONS
Neurologic sequelae
Kidney damage
Brain damage
Gangrene of arms or legs, sometimes leading to
amputation
Heart attack
Severe shock can lead to death
147. PROGNOSIS
Hypovolemic shock is always a medical emergency.
However, symptoms and outcomes can vary depending
on:
Amount of blood/fluid volume lost
Rate of blood /fluid loss
Illness or injury causing the loss
Underlying chronic medication conditions, such as diabetes and
heart, lung, and kidney disease
In general, patients with milder degrees of shock tend to
do better than those with more severe shock. In cases of
severe hypovolemic shock, death is possible even with
immediate medical attention. The elderly are more likely
to have poor outcomes from shock.
148. REFERENCES
Medscape Reference www.emedicine.medscape.com
Medline Plus www.nlm.nih.gov/medlineplus/
Wolters Kluwer Health, Lippincott Williams &
Wilkins Journal www.journals.lww.com
University of Maryland Medical Centre
www.umm.edu