10 free EMT practice questions: Transport Decision (Rapid vs. Focused)
These are real questions from the same bank the app draws from. Each one is written to the NREMT EMT content specifications and kept inside the EMT scope of practice. Pick an answer and you get the full rationale, including why the other three options are wrong.
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Question 1 of 10
A 45-year-old patient with a history of heavy alcohol use presents with severe, constant epigastric pain that radiates to the back. The pain began after a night of heavy drinking and is somewhat relieved by leaning forward. The patient reports nausea and vomiting. What is the most appropriate EMT-scope management?
Show the answer and rationale
Correct answer · Supportive care, position of comfort, history, and transport
This presentation: severe, constant epigastric pain radiating to the back, worse after a heavy-alcohol episode, somewhat relieved by leaning forward, with nausea/vomiting, is classic for acute pancreatitis. EMT-scope management is supportive: position of comfort, monitoring for signs of shock or deterioration, obtaining a thorough history (alcohol use and gallstone history are the two most common causes), and transport for evaluation. There is no field-level definitive diagnosis or treatment.
Why the others are wrong
Give oral antacids and reassess before deciding on transport: Antacids are a reasonable thought for epigastric pain and are harmless in most cases. They do nothing for pancreatic inflammation, and using the response to them as a transport filter delays a patient whose condition can progress to shock and organ failure.
Treat as gastritis; the pain followed a heavy drinking episode: Alcoholic gastritis follows the same trigger and produces epigastric pain, which makes it the closest competitor. Two features point past it: pain radiating straight through to the back, and relief on leaning forward. Both reflect a retroperitoneal organ, and gastritis does not produce them.
Encourage a small meal to settle the stomach before transport: Eating is exactly the wrong instruction. Food stimulates pancreatic enzyme secretion, which drives the inflammation the patient already has, and these patients are kept with nothing by mouth for that reason.
Question 2 of 10
A 68-year-old patient reports sudden inability to swallow immediately after eating steak at a restaurant. The patient is anxious, drooling, and able to speak clearly and breathe without difficulty. The patient points to their mid-chest as the location of the problem. What is the most appropriate EMT-scope management?
Show the answer and rationale
Correct answer · Keep the patient NPO, allow a position of comfort, and transport for evaluation, since the airway is patent
The deciding finding is that the patient speaks clearly and breathes without difficulty despite the drooling and pointing to the mid-chest: the trachea is open and only the esophagus is blocked. A food bolus, the steak in this case, lodges above the lower esophageal sphincter, so saliva backs up and drools out because it can't be swallowed past the obstruction, while air still moves freely through the larynx. That makes this steakhouse syndrome, not FBAO. EMT care stays supportive, NPO, position of comfort, transport, because clearing the esophagus needs endoscopy at the hospital.
Why the others are wrong
Attempt to manually remove the obstruction by performing a deep blind finger sweep of the throat: A blind finger sweep belongs to a scenario where you can see or feel an object lodged in the oropharynx, and even then it's discouraged. This obstruction sits in the esophagus at the mid-chest, well past where a finger sweep can reach, so the maneuver risks pushing the bolus further, triggering vomiting, or injuring the airway for no benefit.
Perform abdominal thrusts immediately, treating the obstruction as a life-threatening airway emergency: Abdominal thrusts are correct for true FBAO, an object blocking the trachea with poor air exchange or an inability to speak. This patient's clear voice and unlabored breathing show the airway is patent, so thrusts treat an airway emergency that isn't happening here and won't move an esophageal bolus anyway.
Encourage the patient to drink water forcefully to push the impacted food down into the stomach: Forcing fluids to wash the bolus down is a folk remedy, aimed at pushing the impaction into the stomach on the patient's own. Since the esophagus, not the airway, is obstructed, drinking against a blockage tends to trigger vomiting and aspiration rather than clearing anything, and it's not a taught field intervention.
Question 3 of 10
A hiking group calls EMS for a member who has had a headache and mild nausea since arriving at a high-altitude campsite yesterday. Today, other members report the patient is now unsteady on their feet and cannot walk in a straight line, though the patient is still able to answer questions appropriately. What is the most appropriate field management?
Show the answer and rationale
Correct answer · Administer oxygen if available and arrange immediate descent to a lower altitude; do not allow further ascent
The finding that decides this is the new ataxia, the patient's inability to walk a straight line despite normal mentation. That sign means hypoxia has already driven enough cerebral vasodilation and vascular leak to raise intracranial pressure and disrupt cerebellar and vestibular pathways: this is high-altitude cerebral edema, not simple acute mountain sickness anymore. Once that crosses into ataxia, no medication or oxygen substitutes for lowering the patient's altitude. Give oxygen if you have it, but descent starts now and further ascent is off the table.
Why the others are wrong
Continue monitoring at the current altitude and reassess in a few hours before making a decision about descent: This fits isolated AMS, headache and nausea alone, where rest and reassessment at altitude is appropriate. The new ataxia in this question breaks that plan: once gait is affected, waiting hours to decide risks progression to coma before descent starts.
Treat the unsteadiness as dehydration with oral fluids and rest, remaining at the current campsite altitude: Dehydration is common at altitude and causes headache, nausea, and lightheadedness that can resemble unsteadiness. It breaks against the ataxia in this question: true inability to walk a straight line comes from rising intracranial pressure, not fluid loss. Oral fluids and rest at the same altitude leave the swelling untreated and let it worsen.
Have the patient rest in a tent and continue the planned itinerary the next day if he feels better: Mild symptoms sound like they just need rest before continuing the hike, the plan for ordinary fatigue. Ataxia and progressing AMS make further ascent or resuming the itinerary directly dangerous, since altitude gain worsens cerebral edema.
Question 4 of 10
A 45-year-old patient is alert and oriented. Skin is pale and cool to the touch, heart rate is 118/min, and blood pressure is 88/56 mmHg. Respiratory rate is 22/min. The patient reports feeling dizzy when standing 5 minutes ago but denies any obvious bleeding. Which transport decision is most appropriate?
Show the answer and rationale
Correct answer · Immediately load the patient and provide rapid transport to the nearest appropriate facility
The blood pressure of 88/56 mmHg is the finding that decides this: it shows the patient has moved beyond simple compensation into measurable hypotension, on top of a heart rate of 118 and pale, cool skin from peripheral vasoconstriction shunting blood to the core. That combination means cellular perfusion is already failing, not just at risk. The tachypnea of 22 reflects the same compensatory drive. At this point the field intervention that matters is getting the patient to a facility that can address the underlying cause of shock; further assessment, oxygen titration, and IV access all happen en route, not before you move.
Why the others are wrong
Perform a focused assessment on the lower extremities and transport non-emergently: Checking the lower extremities makes sense when you're hunting for a bleeding source behind orthostatic dizziness, and non-emergent transport fits a patient who's stable. A blood pressure of 88/56 with a heart rate of 118 rules out stable, so the transport mode has to be emergent, not calm and delayed.
Perform a complete secondary assessment at the scene before transport: A complete secondary assessment at the scene is the normal next step once the primary assessment is clear, and it feels thorough. Here the primary assessment already found shock, tachycardia at 118 and a pressure of 88/56, so the secondary assessment belongs in the moving ambulance, not holding up the scene.
Place the patient on high-flow oxygen and reassess vitals in 5 minutes before deciding on transport mode: High-flow oxygen is genuine shock treatment, and reassessing vitals is routine, so this option looks careful. A pressure of 88/56 with a heart rate of 118 shows where this patient is heading; waiting five minutes on scene trades time you don't have for data you already have. Oxygen belongs en route, not as a reason to stay parked.
Question 5 of 10
A 68-year-old patient is found unresponsive in the bedroom by family. The scene is safe. On primary assessment, the airway is patent and breathing is adequate at 14/min with good air movement. Skin is warm and dry. Vital signs: P 72/min, BP 130/76 mmHg, SpO₂ 97% on room air. Which transport decision is most appropriate?
Show the answer and rationale
Correct answer · Rapid transport; unresponsiveness is a life threat regardless of vital sign stability
Transport decisions come out of the primary assessment, and the primary assessment has one job: find the immediate life threats in airway, breathing, circulation, and mental status. Unresponsiveness is itself the life threat. It is not a symptom waiting for a vital sign to confirm it. The normal numbers here, a pulse of 72, a pressure of 130/76, a saturation of 97%, and adequate breathing at 14, tell you the body is compensating at this moment, which is genuinely good news, but they say nothing about why the brain is switched off. An unresponsive patient also cannot protect their own airway, so position them, keep suction at hand, and move. The differential behind this presentation is a list of things that all need a hospital quickly: stroke, intracranial bleeding, hypoglycemia, overdose, a post-ictal state, or sepsis.
Why the others are wrong
Non-urgent transport; stable vital signs indicate a minor event: Reasoning from stable vital signs to a non-urgent transport is correct when the primary assessment is also clean and the complaint is genuinely minor. The trap is treating stable numbers as evidence of a stable patient. Here the primary assessment already failed on mental status, and compensating vital signs in an unresponsive patient describe how much reserve is left, not how serious the problem is.
Focused assessment at the scene; transport only if vitals become abnormal: A focused assessment is a real and necessary step, but its place is after life threats are addressed and preferably en route rather than on scene. Making transport contingent on the vital signs going abnormal means waiting for compensation to fail, which is the last possible moment to act and the one where outcomes are worst.
Begin supplemental oxygen and reassess; transport urgently only if the patient regains consciousness: Supplemental oxygen is reasonable supportive care and is not the flaw in this option: the condition attached to it is. Waiting for the patient to regain consciousness before transporting urgently turns a rapid-transport patient into a long scene time, and most of the causes on the differential do not resolve on the bedroom floor.
Question 6 of 10
A 68-year-old patient is found by the patient's daughter unable to speak clearly. The daughter states the patient was well 30 minutes ago. The patient is alert but confused, with obvious slurred speech and drooling. On examination, there is facial asymmetry with drooping on the right side, and the right arm drifts downward when held against gravity. Vital signs: P 82/min, R 16/min, BP 158/92 mmHg, skin warm and dry. Which transport decision is most appropriate?
Show the answer and rationale
Correct answer · Perform primary assessment and rapid transport to the nearest appropriate facility; reassess en route
The daughter's report that the patient was normal just 30 minutes ago is the deciding finding: it places this stroke within the treatment window for fibrinolytics or thrombectomy, on top of the classic FAST findings of Face drooping, Arm drift, Speech difficulty, and Time last known well. Physiologically, an occluded or bleeding cerebral vessel starves neurons of oxygen, and the surrounding penumbra can still be saved if flow is restored quickly. Every minute spent on scene burns into that window, so your priority is a primary assessment and immediate transport to a stroke-capable facility, reassessing along the way.
Why the others are wrong
Perform a complete secondary assessment and detailed neurological exam at the scene: A full secondary assessment with a detailed neurological exam belongs to a stable patient whose complaint isn't time-sensitive, and it feels thorough, which is exactly why it tempts, but the facial droop, slurred speech, and arm drift here already satisfy the FAST stroke screen on their own; a detailed exam adds no new information that changes the transport decision, it only spends minutes the patient doesn't have to give back.
Obtain baseline vital signs and repeat assessment every 5 minutes at the scene: Serial vitals every 5 minutes fit a patient you're trending on scene before committing to transport, not one with a known 30-minute onset whose window is already running.
Contact medical control for guidance before deciding whether rapid transport is necessary: Contacting medical control first fits an unclear protocol or an intervention needing prior authorization; the FAST-positive findings here already meet stroke alert criteria on their own, so the call only delays a transport decision you're already authorized to make.
Question 7 of 10
An EMT responds for a 34-year-old patient pulled from a backyard pool after being submerged for several minutes. The patient is unresponsive, is breathing 8 times per minute with poor chest rise, and has a weak carotid pulse. Bystanders state the patient waded in from the shallow end and that there was no dive and no fall. The EMT's partner has begun positive pressure ventilations. Which physical examination approach is most appropriate?
Show the answer and rationale
Correct answer · A systematic full-body scan of every body region
The secondary assessment is either a systematic full-body scan or an examination focused on the area or system named by the chief complaint, and responsiveness is what selects between them. A focused examination is used for a responsive medical patient or a nonsignificant mechanism of injury. An unresponsive medical patient gets the full-body scan, because the patient cannot report pain and the mechanism cannot be confirmed. The corpus is explicit for submersion specifically: prolonged submersion typically produces an unresponsive patient, and the examination begins with a full-body scan to look for hidden life threats and potential trauma even when trauma is not suspected.
Why the others are wrong
A focused examination of the chest and lungs: A submersion emergency reads as purely a respiratory problem, so the exam should follow the lungs. The finding that decides the exam type is the patient's unresponsiveness, not the suspected organ system.
A focused examination guided by the bystanders' account: A bystander's account of the mechanism gets treated as proof that nothing else is injured, which is the most common way hidden injuries are missed. A patient who cannot answer questions cannot confirm or contradict that account, which is exactly why the whole body is examined.
A neurologic examination with repeated pupil checks: An unresponsive patient reads as a neurologic problem, which narrows the exam to mental status and pupils. That skips the trunk and extremities, where the hidden life threats this exam is designed to find would be located.
Question 8 of 10
An EMT is caring for a 24-year-old patient who caught a foot on a stair tread and fell one step. The patient is alert and oriented, the airway is patent, and breathing is unlabored. The vital signs are BP 124/78 mmHg, P 88/min, R 16/min, and SpO₂ 99% on room air. The left lower leg is painful, swollen, and angulated, with a strong pedal pulse and normal sensation in the foot. No other injury is found. Which action is most appropriate before moving the patient to the ambulance?
Show the answer and rationale
Correct answer · Splint the injured leg to reduce pain during movement
Transport priority follows the primary assessment, not the drama of the complaint. This patient has a patent airway, adequate breathing, intact perfusion, and one isolated extremity injury with distal pulse and sensation preserved, so nothing about the case demands minimal scene time. Under those conditions relief of pain matters more than saving a minute of transport, and an extremity that is painful, swollen, or deformed is splinted before the patient is moved. Splinting also limits further soft-tissue injury and bleeding during the lift and carry.
Why the others are wrong
Complete a systematic full-body scan of every region: Any fall gets treated as a significant mechanism that mandates a head-to-toe scan. A fall of one step with a normal primary assessment and a single obvious injury is a nonsignificant mechanism, which calls for an examination focused on the affected part.
Move the patient to the stretcher and splint en route: Critically injured patients are packaged first and splinted en route, and that rule gets applied to every patient. That rule exists to protect scene time when life threats are present; with a normal primary assessment and an isolated bone injury, splinting first prevents pain and further injury during the move.
Begin high-concentration oxygen before moving the patient: Any painful deformed extremity sounds like it warrants oxygen. Oxygen is given for hypoxia or inadequate breathing, and this patient has unlabored breathing with an SpO₂ of 99% on room air.
Question 9 of 10
An EMT is called for an 84-year-old patient who tripped on a rug and has an isolated deformed, swollen ankle with a strong pedal pulse. The patient is alert and oriented, reports no head strike, and has no chest discomfort at rest. The vital signs are BP 142/84 mmHg, P 86/min, R 16/min, and SpO₂ 97% on room air. A family member reports the patient was hospitalized last month for unstable angina and has had chest discomfort with minimal exertion since. The ankle has been splinted. Which transport decision is most appropriate?
Show the answer and rationale
Correct answer · Prompt transport, completing the remaining assessment en route
Past medical conditions count toward stability even when they are not currently symptomatic. A patient with a history of unstable angina who sustains a simple isolated fracture must be considered to have the potential for an unstable condition, so prompt transport is provided before the stress of the injury worsens the angina and an unstable overall picture develops. In these patients the remainder of the assessment is performed en route to the emergency department. Age reinforces the same decision, because the risk of serious injury and death from trauma rises in older patients and their physical findings are more subtle.
Why the others are wrong
Transport without urgency, since the injury is isolated: Urgency gets graded from the injury in front of you, and an isolated ankle injury with stable vital signs looks routine. The unstable angina makes the patient's overall condition potentially unstable, because the pain and stress of even a minor injury can provoke the cardiac event the history predicts.
Delay transport until a head-to-toe examination is complete: A complete examination feels like the thorough choice for a patient with a complicated history. For a patient whose condition may become unstable, the remainder of the assessment is performed en route rather than on scene.
Delay transport until an advanced life support unit responds: A cardiac history reads as an advanced life support problem. The patient has no chest discomfort at rest and stable vital signs, so there is nothing for an advanced provider to treat right now, and waiting only spends the time the prompt transport is meant to save.
Question 10 of 10
A 45-year-old patient has acute onset chest pain and difficulty breathing. The primary assessment finds an alert and anxious patient with a patent airway, rapid and shallow breathing, and pale, diaphoretic skin. The vital signs are BP 96/62 mmHg, P 118/min, R 24/min, and SpO₂ 90% on room air. Which transport decision is most appropriate?
Show the answer and rationale
Correct answer · Emergent transport with high-concentration oxygen and reassessment en route
The SpO2 of 90% paired with a BP of 96/62, pulse of 118, and pale, diaphoretic skin marks a patient whose tissue oxygen delivery is already failing while the sympathetic nervous system compensates with tachycardia and peripheral vasoconstriction. That combination, especially the saturation of 90%, is the one finding no other option accounts for, and it means the myocardium's oxygen supply is falling as its demand from pain and anxiety rises. Scene time gets minimized, high-concentration oxygen goes on immediately, and reassessment continues en route rather than waiting for further decline.
Why the others are wrong
Non-emergent transport; have the patient walk to the ambulance and position the patient comfortably: This fits a stable patient who can walk without raising oxygen demand, but the BP of 96/62 and SpO2 of 90% here show poor perfusion and hypoxia, so ambulation is contraindicated.
Non-emergent transport by stretcher, reassessing the vital signs every 15 minutes: The stretcher is correct, and vitals do need reassessing, which makes this look like the safe choice, but the 15-minute interval and the non-emergent label fit a stable patient, while the pulse of 118, BP 96/62, and SpO2 90% mark this patient as unstable: reassessment needs to run every 5 minutes and transport has to be emergent.
Delay transport on scene until a paramedic unit arrives to assume patient care: Waiting on scene for a paramedic intercept applies when a crew truly cannot manage a patient, but this patient can be treated and moved now; delaying transport only adds ischemic time to a shock picture already showing BP 96/62 and SpO2 90%.
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