Paramedic FISDAP Final Exam – 190 Multiple Choice Questions
with Correct Answers & Detailed Rationales 2026/2027 (Airway,
Cardiology, Trauma, Medical, OB/Peds, Pharmacology) pdf —
200 Questions and Answers Already Graded A+ Premium Exam
Tested And Verified
Subject Area Paramedicine
Description This comprehensive final exam assesses mastery of advanced paramedic practice,
including airway management, cardiology, trauma, medical emergencies,
obstetrics/pediatrics, and pharmacology, aligned with FISDAP standards for
2026/2027.
Expected Grade A+
Total Questions 200
Duration 3 hours
Learning Outcomes 1. Integrate pathophysiological principles to manage complex patient
presentations.
2. Apply evidence-based protocols for critical interventions in airway, cardiac,
and trauma care.
3. Synthesize pharmacological knowledge with clinical decision-making for
diverse patient populations.
4. Demonstrate advanced reasoning in obstetrical and pediatric emergencies.
Accreditation This exam meets the rigorous standards of US university paramedic programs,
including those at Ivy League and R1 research institutions.
Page 1
,1. A patient with a history of chronic obstructive pulmonary disease presents with
acute respiratory distress. Initial capnography shows a waveform with a gradual
upslope and a prolonged plateau phase. Which of the following best explains this
capnographic pattern?
A. Increased alveolar dead space due to pulmonary embolism
B. Airway obstruction causing uneven alveolar emptying
C. Hypoventilation leading to carbon dioxide retention
D. Leak in the sampling line causing dilution of expired CO2
Answer: B. Airway obstruction causing uneven alveolar emptying
The capnogram described—gradual upslope and prolonged plateau—is characteristic
of obstructive lung disease (e.g., COPD) where uneven alveolar emptying delays CO2
excretion. Increased dead space (A) would show a normal upslope but low plateau;
hypoventilation (C) would show a normal shape but elevated ETCO2; a sampling line
leak (D) would produce a falsely low ETCO2 with a distorted waveform.
2. During a cardiac arrest, a 12-lead ECG obtained immediately after return of
spontaneous circulation (ROSC) reveals ST-segment elevation in leads II, III, and
aVF. The patient remains hemodynamically unstable. Which intervention is most
appropriate before proceeding to the cardiac catheterization laboratory?
A. Administer 300 mg of aspirin orally and 0.4 mg of nitroglycerin sublingually
B. Initiate therapeutic hypothermia targeting 32-34°C for 24 hours
C. Perform a focused cardiac ultrasound to assess for mechanical complications
D. Administer 1 mg of epinephrine intravenously and reassess rhythm
Answer: C. Perform a focused cardiac ultrasound to assess for mechanical
complications
In post-ROSC patients with ST-elevation MI and hemodynamic instability, a focused
cardiac ultrasound (e.g., assessing for ventricular rupture, papillary muscle rupture, or
tamponade) is critical before catheterization, as these mechanical complications require
surgical intervention. Aspirin and nitroglycerin (A) are standard but do not address
instability; hypothermia (B) is indicated but not before ruling out mechanical causes;
epinephrine (D) may worsen ischemia.
Page 2
,3. A team is managing a patient with traumatic cardiac arrest following a high-speed
motor vehicle collision. The patient has no palpable pulses, and point-of-care
ultrasound shows no cardiac activity. Bilateral needle decompression was performed
for suspected tension pneumothorax, but there is no improvement. Which of the
following is the most appropriate next step?
A. Perform a resuscitative thoracotomy with aortic cross-clamping
B. Administer 1 unit of packed red blood cells and reassess
C. Continue cardiopulmonary resuscitation for an additional 10 minutes
D. Obtain a focused assessment with sonography in trauma (FAST) exam
Answer: A. Perform a resuscitative thoracotomy with aortic cross-clamping
In traumatic cardiac arrest with no response to decompression and no cardiac activity
on ultrasound, resuscitative thoracotomy (including aortic cross-clamping) is indicated
to control hemorrhage (e.g., cardiac tamponade, massive hemothorax) and restore
perfusion. Blood transfusion (B) is important but not immediately life-saving without
surgical control; prolonged CPR (C) is futile; FAST (D) would delay definitive
intervention.
4. A patient with a history of type 2 diabetes mellitus presents with altered mental
status, tachypnea, and a fruity odor on the breath. Point-of-care glucose is 450
mg/dL, and serum ketones are positive. The patient's serum sodium is 128 mEq/L,
and calculated serum osmolality is 295 mOsm/kg. Which of the following best
explains the discrepancy between the elevated glucose and relatively normal
osmolality?
A. Pseudohyponatremia due to hypertriglyceridemia
B. Hyperglycemia-induced osmotic diuresis with free water loss
C. Concomitant syndrome of inappropriate antidiuretic hormone (SIADH)
D. Laboratory error in the measurement of serum sodium
Answer: A. Pseudohyponatremia due to hypertriglyceridemia
The low measured sodium (128) with normal calculated osmolality (295) suggests
pseudohyponatremia, often due to hypertriglyceridemia or hyperproteinemia, which
are common in uncontrolled diabetes. Osmotic diuresis (B) would cause hypernatremia
or normal sodium; SIADH (C) would cause hyponatremia with low osmolality;
laboratory error (D) is less likely given the clinical context.
Page 3
, 5. A 34-week pregnant patient presents with severe preeclampsia. Blood pressure is
180/110 mm Hg, and the patient is complaining of a severe headache and visual
disturbances. Which of the following medications is most appropriate for acute
blood pressure control in this setting?
A. Labetalol 20 mg intravenous bolus
B. Hydralazine 5 mg intravenous bolus
C. Nifedipine 10 mg oral immediate-release capsule
D. Sodium nitroprusside 0.3 mcg/kg/min intravenous infusion
Answer: A. Labetalol 20 mg intravenous bolus
Labetalol is a first-line agent for acute hypertension in severe preeclampsia due to its
rapid onset and favorable fetal safety profile. Hydralazine (B) is also used but has a
slower onset and more side effects; oral nifedipine (C) is used but less titratable; sodium
nitroprusside (D) is reserved for refractory cases due to risk of cyanide toxicity.
6. A 6-month-old infant presents with a 2-day history of vomiting and diarrhea. The
infant is lethargic, has sunken fontanelles, and dry mucous membranes. Capillary
refill is 4 seconds, and heart rate is 180/min. The infant weighs 7 kg. Which of the
following fluid resuscitation strategies is most appropriate?
A. Administer a 20 mL/kg bolus of normal saline, then reassess
B. Administer a 10 mL/kg bolus of lactated Ringer's, then reassess
C. Administer a 20 mL/kg bolus of 5% dextrose in normal saline
D. Administer a 10 mL/kg bolus of 3% saline over 30 minutes
Answer: A. Administer a 20 mL/kg bolus of normal saline, then reassess
In pediatric hypovolemic shock (severe dehydration), the initial fluid resuscitation is 20
mL/kg isotonic crystalloid (normal saline or lactated Ringer's), with reassessment after
each bolus. A 10 mL/kg bolus (B) is insufficient; dextrose-containing fluids (C) are not
recommended for initial resuscitation; 3% saline (D) is for hyponatremic seizures, not
hypovolemia.
Page 4
with Correct Answers & Detailed Rationales 2026/2027 (Airway,
Cardiology, Trauma, Medical, OB/Peds, Pharmacology) pdf —
200 Questions and Answers Already Graded A+ Premium Exam
Tested And Verified
Subject Area Paramedicine
Description This comprehensive final exam assesses mastery of advanced paramedic practice,
including airway management, cardiology, trauma, medical emergencies,
obstetrics/pediatrics, and pharmacology, aligned with FISDAP standards for
2026/2027.
Expected Grade A+
Total Questions 200
Duration 3 hours
Learning Outcomes 1. Integrate pathophysiological principles to manage complex patient
presentations.
2. Apply evidence-based protocols for critical interventions in airway, cardiac,
and trauma care.
3. Synthesize pharmacological knowledge with clinical decision-making for
diverse patient populations.
4. Demonstrate advanced reasoning in obstetrical and pediatric emergencies.
Accreditation This exam meets the rigorous standards of US university paramedic programs,
including those at Ivy League and R1 research institutions.
Page 1
,1. A patient with a history of chronic obstructive pulmonary disease presents with
acute respiratory distress. Initial capnography shows a waveform with a gradual
upslope and a prolonged plateau phase. Which of the following best explains this
capnographic pattern?
A. Increased alveolar dead space due to pulmonary embolism
B. Airway obstruction causing uneven alveolar emptying
C. Hypoventilation leading to carbon dioxide retention
D. Leak in the sampling line causing dilution of expired CO2
Answer: B. Airway obstruction causing uneven alveolar emptying
The capnogram described—gradual upslope and prolonged plateau—is characteristic
of obstructive lung disease (e.g., COPD) where uneven alveolar emptying delays CO2
excretion. Increased dead space (A) would show a normal upslope but low plateau;
hypoventilation (C) would show a normal shape but elevated ETCO2; a sampling line
leak (D) would produce a falsely low ETCO2 with a distorted waveform.
2. During a cardiac arrest, a 12-lead ECG obtained immediately after return of
spontaneous circulation (ROSC) reveals ST-segment elevation in leads II, III, and
aVF. The patient remains hemodynamically unstable. Which intervention is most
appropriate before proceeding to the cardiac catheterization laboratory?
A. Administer 300 mg of aspirin orally and 0.4 mg of nitroglycerin sublingually
B. Initiate therapeutic hypothermia targeting 32-34°C for 24 hours
C. Perform a focused cardiac ultrasound to assess for mechanical complications
D. Administer 1 mg of epinephrine intravenously and reassess rhythm
Answer: C. Perform a focused cardiac ultrasound to assess for mechanical
complications
In post-ROSC patients with ST-elevation MI and hemodynamic instability, a focused
cardiac ultrasound (e.g., assessing for ventricular rupture, papillary muscle rupture, or
tamponade) is critical before catheterization, as these mechanical complications require
surgical intervention. Aspirin and nitroglycerin (A) are standard but do not address
instability; hypothermia (B) is indicated but not before ruling out mechanical causes;
epinephrine (D) may worsen ischemia.
Page 2
,3. A team is managing a patient with traumatic cardiac arrest following a high-speed
motor vehicle collision. The patient has no palpable pulses, and point-of-care
ultrasound shows no cardiac activity. Bilateral needle decompression was performed
for suspected tension pneumothorax, but there is no improvement. Which of the
following is the most appropriate next step?
A. Perform a resuscitative thoracotomy with aortic cross-clamping
B. Administer 1 unit of packed red blood cells and reassess
C. Continue cardiopulmonary resuscitation for an additional 10 minutes
D. Obtain a focused assessment with sonography in trauma (FAST) exam
Answer: A. Perform a resuscitative thoracotomy with aortic cross-clamping
In traumatic cardiac arrest with no response to decompression and no cardiac activity
on ultrasound, resuscitative thoracotomy (including aortic cross-clamping) is indicated
to control hemorrhage (e.g., cardiac tamponade, massive hemothorax) and restore
perfusion. Blood transfusion (B) is important but not immediately life-saving without
surgical control; prolonged CPR (C) is futile; FAST (D) would delay definitive
intervention.
4. A patient with a history of type 2 diabetes mellitus presents with altered mental
status, tachypnea, and a fruity odor on the breath. Point-of-care glucose is 450
mg/dL, and serum ketones are positive. The patient's serum sodium is 128 mEq/L,
and calculated serum osmolality is 295 mOsm/kg. Which of the following best
explains the discrepancy between the elevated glucose and relatively normal
osmolality?
A. Pseudohyponatremia due to hypertriglyceridemia
B. Hyperglycemia-induced osmotic diuresis with free water loss
C. Concomitant syndrome of inappropriate antidiuretic hormone (SIADH)
D. Laboratory error in the measurement of serum sodium
Answer: A. Pseudohyponatremia due to hypertriglyceridemia
The low measured sodium (128) with normal calculated osmolality (295) suggests
pseudohyponatremia, often due to hypertriglyceridemia or hyperproteinemia, which
are common in uncontrolled diabetes. Osmotic diuresis (B) would cause hypernatremia
or normal sodium; SIADH (C) would cause hyponatremia with low osmolality;
laboratory error (D) is less likely given the clinical context.
Page 3
, 5. A 34-week pregnant patient presents with severe preeclampsia. Blood pressure is
180/110 mm Hg, and the patient is complaining of a severe headache and visual
disturbances. Which of the following medications is most appropriate for acute
blood pressure control in this setting?
A. Labetalol 20 mg intravenous bolus
B. Hydralazine 5 mg intravenous bolus
C. Nifedipine 10 mg oral immediate-release capsule
D. Sodium nitroprusside 0.3 mcg/kg/min intravenous infusion
Answer: A. Labetalol 20 mg intravenous bolus
Labetalol is a first-line agent for acute hypertension in severe preeclampsia due to its
rapid onset and favorable fetal safety profile. Hydralazine (B) is also used but has a
slower onset and more side effects; oral nifedipine (C) is used but less titratable; sodium
nitroprusside (D) is reserved for refractory cases due to risk of cyanide toxicity.
6. A 6-month-old infant presents with a 2-day history of vomiting and diarrhea. The
infant is lethargic, has sunken fontanelles, and dry mucous membranes. Capillary
refill is 4 seconds, and heart rate is 180/min. The infant weighs 7 kg. Which of the
following fluid resuscitation strategies is most appropriate?
A. Administer a 20 mL/kg bolus of normal saline, then reassess
B. Administer a 10 mL/kg bolus of lactated Ringer's, then reassess
C. Administer a 20 mL/kg bolus of 5% dextrose in normal saline
D. Administer a 10 mL/kg bolus of 3% saline over 30 minutes
Answer: A. Administer a 20 mL/kg bolus of normal saline, then reassess
In pediatric hypovolemic shock (severe dehydration), the initial fluid resuscitation is 20
mL/kg isotonic crystalloid (normal saline or lactated Ringer's), with reassessment after
each bolus. A 10 mL/kg bolus (B) is insufficient; dextrose-containing fluids (C) are not
recommended for initial resuscitation; 3% saline (D) is for hyponatremic seizures, not
hypovolemia.
Page 4
