WorksheetsNREMT Basic EMT Head Injury Exam
Total questions: 48
Worksheet time: 24mins
You are dispatched to a bicyclist who was struck by a car. The patient is unresponsive. Your initial assessment shows the patient has decorticate posturing. This posturing indicates:
Injury to the lower brainstem, near the medulla
Severe damage to the cerebral hemispheres or tracts above the midbrain
A spinal cord injury below the cervical level
A chemical imbalance, such as hypoglycemia
A 28-year-old male was hit in the temple with a baseball bat. He was briefly knocked out but is now awake and alert, stating he feels fine. This transient loss of consciousness followed by an alert period is a classic presentation often associated with bleeding that causes:
Diffuse axonal injury (DAI)
Subdural hematoma
Epidural hematoma
Subarachnoid hemorrhage
You are assessing an 8-year-old who fell off a swing. Her eyes open to verbal commands, she can only use incomprehensible sounds, and she withdraws from pain. What is her Glasgow Coma Scale (GCS) score?
GCS 9 (E3 V2 M4)
GCS 8 (E3 V3 M2)
GCS 10 (E4 V2 M4)
GCS 7 (E3 V2 M4)
A 62-year-old fell down a flight of stairs. During your primary assessment, you note his right pupil is fixed and dilated, while his left pupil is reactive. This sign is most often caused by:
A spinal cord injury at the C3 level
Compression of the oculomotor nerve (CN III) by a rapidly expanding mass or swelling
Bilateral cerebral hemisphere damage
Simple concussion
A factory worker was struck on the head by a falling crate. He is conscious but confused. The injury primarily affects the outermost layer of the brain and skull, which is the:
Cerebellum
Cerebrum
Brainstem
Corpus callosum
A young adult was involved in a severe rollover MVC. He is unresponsive and breathing rapidly and shallowly. The most common cause of fatal head injury in this scenario is often related to:
A simple skull fracture
Massive increases in intracranial pressure (ICP) leading to herniation
A linear skull fracture
An isolated concussion
When performing a secondary assessment on an unresponsive trauma patient, you find a noticeable depression in the skull near the midline. This finding is classified as a:
Linear fracture
Basilar fracture
Depressed skull fracture
Epidural fracture
The brain requires a constant supply of oxygen and glucose. A prolonged decrease in oxygen supply to the brain is known as:
Hypercapnia
Cerebral hypoxia
Intracranial hypertension
Vasoconstriction
An elderly patient fell and struck the back of her head. Because of the brain's mobility within the skull, the initial injury from the impact (coup) may be at the back of the head, but she may also sustain a contusion at the front of the head (contrecoup). This is due to:
Direct compression of the vertebrae
The brain rebounding off the inside of the skull opposite the impact site
A rupture of the spinal cord
A basilar skull fracture
You shine a light into a trauma patient's eye, and the pupil constricts. You document this as:
Unequal
Fixed
Reactive
Dilated
A patient involved in a motorcycle crash has clear fluid leaking from his nose, and you note bruising behind his ears (Battle's sign). These are classic signs of a:
Depressed skull fracture
Linear skull fracture
Basilar skull fracture
Simple laceration
A boxer sustains a head injury. He has no external signs of trauma, but he is temporarily confused, dizzy, and has a headache. He did not lose consciousness. This presentation is most consistent with a:
Contusion
Epidural hematoma
Concussion
Laceration
A patient has a penetrating head injury from a nail gun. This is classified as an open head injury. The immediate danger with this type of injury is:
Slow, subtle onset of symptoms
Infection, direct brain tissue damage, and profuse bleeding
Delayed onset of a headache
Basilar skull fracture
A patient has a large, deep laceration to the scalp that is bleeding heavily. The major concern with scalp lacerations, even without a major underlying skull fracture, is:
The certainty of a basilar skull fracture
Exsanguination (severe blood loss) and hypovolemic shock, especially in children
The inability to apply an occlusive dressing
Delayed onset of unequal pupils
Which type of skull fracture is the most common and typically the least serious, often not causing any immediate neurological compromise unless the underlying dura mater is torn?
Depressed fracture
Basilar fracture
Linear fracture
Open fracture
A patient with a head injury has Raccoon eyes (periorbital ecchymosis) that develops a few hours after the injury. This is a late-developing sign of:
Subdural hematoma
Diffuse axonal injury
Basilar skull fracture
Simple concussion
You find a responsive patient who slipped on ice and struck his head. He has clear, watery fluid leaking from his right ear. This fluid is likely cerebrospinal fluid (CSF), and its presence indicates a breach of the:
Pia mater
Meninges and potential exposure of the brain to infection
Corpus callosum
Ventricular system
A patient was ejected from a vehicle and sustained severe shearing forces to the brain. She remains in a persistent coma. This injury, involving widespread microscopic damage to the brain's white matter, is called a:
Focal contusion
Epidural hematoma
Diffuse axonal injury (DAI)
Simple linear fracture
When treating a scalp laceration, you should manage the bleeding with:
A tight circumferential dressing around the head
Direct pressure using a sterile gauze dressing
Applying a pressure point in the neck
Removing any embedded foreign objects
A patient falls from a height and lands on his head. He is unconscious. You suspect a Basilar Skull Fracture due to the mechanism. When managing this patient, you must NOT:
Apply a cervical collar
Administer oxygen
Insert a nasopharyngeal airway (NPA)
Stabilize the head manually
A 70-year-old alcoholic falls at home. He is confused and has a gradual worsening headache over 2 days. Due to the atrophy of his brain, his bridging veins are stretched, making him susceptible to a bleed that presents slowly. This is classic for a:
Epidural hematoma
Chronic subdural hematoma
Intracerebral contusion
Simple concussion
Which intracranial hematoma is typically associated with a skull fracture tearing the middle meningeal artery, leading to a rapid accumulation of blood and a quick decline in the patient's condition?
Subdural hematoma
Epidural hematoma
Intracerebral hematoma
Subarachnoid hemorrhage
A patient has bleeding into the space that contains cerebrospinal fluid (CSF). The primary symptom is a sudden, severe headache described as the "worst headache of my life," often accompanied by a stiff neck. This is characteristic of a:
Epidural hematoma
Subdural hematoma
Subarachnoid hemorrhage (SAH)
Intraparenchymal bleed
A localized bruise on the surface of the brain, caused by the brain striking the inside of the skull, is known as a:
Laceration
Contusion
Concussion
Diffuse axonal injury
You are treating a patient with a known intracranial hemorrhage who is unresponsive. His blood pressure is rising, heart rate is dropping, and respirations are irregular. This specific triad of signs is known as Cushing's triad, which indicates:
Early shock from blood loss
Hypoxia
Late-stage, severe increase in intracranial pressure (ICP)
Spinal cord injury
A patient with a severe head injury is now demonstrating decerebrate posturing. Compared to decorticate posturing, this suggests:
A less severe injury
Injury below the midbrain and a worse prognosis
Injury above the midbrain and a better prognosis
Simple concussion
The three protective layers that cover the brain and spinal cord are the meninges. From outermost to innermost, they are:
Pia mater, arachnoid, dura mater
Dura mater, arachnoid, pia mater
Arachnoid, dura mater, pia mater
Pia mater, dura mater, arachnoid
A patient who has suffered a concussion is most likely to complain of:
Immediate, severe paralysis
Fixed and dilated pupils
Headache, nausea, confusion, and sensitivity to light/noise
Absence of pain or symptoms for several days
The most vulnerable patients to developing a subdural hematoma are:
Athletes under 18 years old
Elderly patients and chronic alcoholics due to brain atrophy
Patients with penetrating trauma
Patients with basal skull fractures
A patient has a large hematoma that is rapidly expanding in the epidural space. This expansion creates a "mass effect" that compresses the brain tissue and ultimately leads to an increase in:
Intracranial pressure (ICP)
Cerebral perfusion pressure (CPP)
Blood glucose concentration
Spinal cord perfusion
In Cushing's triad, the widening of the pulse pressure is specifically caused by:
An increase in the heart rate to compensate for pressure.
The body raising the systolic blood pressure to overcome high ICP and perfuse the brain.
Respiratory arrest.
Fluid leaking from the ears.
A patient with a severe head injury is hyperventilating (breathing very fast). In the prehospital setting, your goal for assisted ventilation should be to:
Increase the respiratory rate to 30 breaths/minute to lower CO2.
Ventilate at a normal rate (10-12 breaths/minute for adults) to maintain a normal CO2 level unless signs of herniation are present.
Stop assisted ventilation immediately.
Ventilate at a rate of 4-6 breaths/minute.
When a patient exhibits decorticate posturing, their arms and hands are:
Extended and rotated outward.
Flaccid and lifeless.
Flexed and pulled toward the core (chest).
Moving normally in response to commands.
Which physical exam finding is the most sensitive and reliable indicator of a deteriorating neurological condition in a head-injured patient?
Blood pressure
Level of consciousness/GCS score
Heart rate
Skin color
Brain herniation is the ultimate complication of uncontrolled increased ICP. This condition is life-threatening because the brain tissue is:
Forced downward, compressing the brainstem, which controls vital functions like breathing.
Swelling outward, which compresses the skull.
Rapidly losing glucose.
Healing too quickly.
You are managing a 40-year-old patient with an altered mental status from a fall. After administering oxygen and ensuring adequate ventilation, you must perform frequent reassessments to monitor for:
The development of a fever.
Any decline in the GCS score or a change in pupil size/reactivity.
Sudden onset of a cough.
Increased urine output.
A patient with a head injury and signs of increasing ICP is hypotensive (low blood pressure). The presence of hypotension in a head-injured patient is:
A direct sign of the head injury itself.
Usually due to associated internal bleeding elsewhere (chest, abdomen, pelvis) and must be treated aggressively.
A normal compensatory mechanism.
A sign of a mild concussion.
When assessing the pupillary response of a patient with a suspected head injury, you should look for which change as a key sign of significant intracranial pressure?
Bilateral constriction.
Bilateral dilation.
Sluggishness or fixation/unequal size.
Rapid, normal reaction to light.
A 19-year-old football player sustains a concussion. A complication known as Second Impact Syndrome (SIS) can occur if he:
Strains a neck muscle while playing.
Sustains a second head injury before the first one has fully healed.
Develops a simple headache.
Experiences a mild bout of nausea.
A patient who is unresponsive and in suspected shock from a severe head injury should be managed primarily by addressing the signs of shock. The most critical intervention for shock in this patient is:
Rapid transport and maintaining a systolic BP of at least 90-100 mmHg to ensure cerebral perfusion.
Keeping the patient warm and administering high-flow oxygen.
Elevating the patient's legs.
Controlling the patient's heart rate.
You are managing a trauma patient with a GCS of 6. Given this severe head injury, what is your immediate priority regarding the airway and breathing?
Splint all extremities first.
Apply a tight head bandage.
Insert an airway adjunct, provide high-flow oxygen, and prepare to assist ventilations with a BVM.
Check for a medical alert tag.
Before initiating any care for a trauma patient who is unresponsive after falling, the first step in the primary assessment is to:
Check for a pulse.
Assess skin color and temperature.
Establish manual stabilization of the head and spine.
Obtain a blood pressure.
For a patient with a severe head injury and an associated Basilar Skull Fracture (CSF leak), the most appropriate method for securing the airway and managing secretions is:
Inserting a Nasopharyngeal Airway (NPA).
Careful suctioning and use of an Oropharyngeal Airway (OPA).
Inserting a cuffed endotracheal tube.
Placing the patient prone.
You are packaging an unresponsive patient with an isolated head injury for transport. To help manage potential increases in ICP, the patient should be transported:
Supine with the feet elevated 12 inches.
In the prone position.
Supine on a backboard (or cot) with the head of the backboard/cot slightly elevated (30 degrees) if no spinal injury is suspected.
In the fetal position.
A patient with an isolated head injury is rapidly deteriorating. Which decision is most crucial for the patient's survival?
Spending time on scene to start a peripheral IV line.
Contacting the patient's family.
Initiating immediate, high-priority transport to a trauma center.
Waiting for ALS to arrive on scene.
When providing positive pressure ventilation (PPV) to a patient with a severe head injury and a high blood pressure (Cushing's Triad), you must ensure:
The patient is allowed to hyperventilate naturally.
Ventilations are gentle and not too fast, as excessive PPV can increase ICP by decreasing cerebral perfusion.
You use room air only.
Ventilation is provided only through the nose.
An adult patient has a large, depressed skull fracture, a GCS of 5, and a pulse of 50. You should suspect severe:
Hypoglycemia.
Spinal cord injury.
Increased intracranial pressure (ICP).
Flail chest.
In a patient who is unconscious from head trauma, the possibility of a cervical spinal injury must be assumed. Therefore, your primary stabilization technique for their head and neck should be:
Manual stabilization only when moving the patient.
Applying traction to the head.
Manual in-line stabilization (MILS) at all times until the patient is secured to a device.
Applying a tight, soft collar.
