1
NSG 3800 FULL PACKAGE QUESTIONS ANSWERS
AND RATIONALES 2026-27 LATEST UPDATED
VERSION INSTANT DOWNLOAD PDF..!!
INTRODUCTION
The NSG 3800 Nursing Practice – Adult Health II Final Examination is a highly comprehensive, critical
medical-surgical nursing assessment. This examination evaluates a student's capacity to synthesize
advanced pathological mechanisms, integrate complex laboratory profiles, and exert impeccable
clinical judgment during high-stakes patient scenarios. Designed for pre-licensure and transition
nursing students, this course builds directly upon foundational concepts to explore alterations across
critical multi-system homeostatic pathways.
Success on the final exam demands fluid interpretation of hemodynamic data, deep comprehension
of acid-base and fluid shifts, expert knowledge of life-threatening cardiac rhythms, and strict
adherence to prioritization frameworks. This question package has been meticulously constructed to
simulate the highest levels of cognitive difficulty found on the official exam blueprint. Utilizing
application-level, multi-sentence scenario questions, this comprehensive bank guarantees you will
master complex physiological nuances, eliminate confusing distractors, and confidently achieve a
passing score on your first attempt.
CORE DOMAINS TESTED
• Domain 1: Fluid, Electrolyte, and Acid-Base Homeostasis – Evaluates internal environment
regulation. Includes arterial blood gas (ABG) interpretation, electrolyte replacement safety,
and the identification of lethal shifts like severe hyperkalemia or hypernatremia.
• Domain 2: Advanced Oxygenation and Perfusion Alterations – Covers acute respiratory
distress syndrome (ARDS), mechanical ventilation, deep vein thrombosis management, and
chronic pulmonary disease decompensation.
• Domain 3: Alterations in Cardiac Function and Hemodynamics – Focuses on left- and right-
sided heart failure management, acute coronary syndromes (ACS), dysrhythmia
interpretation, shock states, and pulmonary artery wedge pressure (PAWP) analysis.
• Domain 4: Genitourinary and Renal Failure Management – Emphasizes acute kidney injury
(AKI) phases, chronic kidney disease (CKD) staging, hemodialysis vs. peritoneal dialysis
complications, and glomerulonephritis.
• Domain 5: Hepatobiliary, Pancreatic, and Endocrine Crises – Targets acute pancreatitis,
hepatic encephalopathy, gallbladder disorders, and life-threatening metabolic presentations
like DKA or HHS.
,2
Q1: A 64-year-old male with a history of severe chronic obstructive
pulmonary disease (COPD) is admitted to the medical-surgical unit
with an acute exacerbation. His initial arterial blood gas (ABG) on
room air reveals: pH 7.28, PaCO2 62 mmHg, HCO3 30 mEq/L, and
PaO2 54 mmHg. The nurse notes the patient is somnolent but
rousable, utilizing accessory muscles, and exhibiting an asymmetrical
chest rise. Which of the following interpretations and immediate
nursing actions is the highest priority?
A) The patient has uncompensated metabolic acidosis; increase the
oxygen flow rate via nasal cannula to 6 L/min immediately.
B) The patient has partially compensated respiratory acidosis with
severe hypoxemia; notify the physician immediately and prepare
for non-invasive positive pressure ventilation (BiPAP) or
endotracheal intubation.
C) The patient has fully compensated respiratory alkalosis; initiate a
purse-lip breathing coaching protocol.
D) The patient has mixed respiratory and metabolic acidosis;
administer a slow IV push of sodium bicarbonate.
Rationale: The correct answer is B because a pH of 7.28 indicates
acidosis, a PaCO2 of 62 mmHg indicates a respiratory etiology, and
an elevated HCO3 of 30 mEq/L shows that the kidneys have begun
compensating over time, indicating a chronic underlying condition
with an acute overlay. Because the pH is still abnormal, it is partially
compensated. A PaO2 of 54 mmHg signifies severe hypoxemia. Given
his altered level of consciousness (somnolence) and accessory muscle
use, he is at immediate risk for respiratory failure. Option A is
incorrect because the primary disorder is respiratory, not metabolic,
and high-flow unmonitored oxygen in a chronic CO2 retainer can
,3
blunt their hypoxic drive. Option C is incorrect because the pH is
acidotic, not alkalotic. Option D is incorrect because the elevated
bicarbonate indicates a compensatory renal mechanism, not a
primary metabolic acidosis condition, and systemic sodium
bicarbonate is not indicated for primary respiratory failure.
Q2: A nurse on a telemetry unit is monitoring a 58-year-old female
patient recovering from an acute anterior wall myocardial infarction.
The monitor suddenly sounds an alarm, displaying a rapid, chaotic,
wavy line with no identifiable P waves, QRS complexes, or T waves.
The nurse runs to the patient's room and finds the patient
unresponsive, pulseless, and apneic. What is the absolute priority
intervention?
A) Obtain a 12-lead electrocardiogram (ECG) to confirm the specific
structural vectors of the rhythm.
B) Initiate high-quality cardiopulmonary resuscitation (CPR)
immediately until a defibrillator is in the room, then deliver an
immediate unsynchronized shock.
C) Administer a rapid intravenous bolus of amiodarone 300 mg via a
central venous line.
D) Perform immediate synchronized cardioversion at 100 Joules using
the telemetry paddles.
Rationale: The correct answer is B. The patient's telemetry monitor
and clinical presentation describe Ventricular Fibrillation (VF), a
lethal, non-perfusing dysrhythmia. The definitive treatment for VF is
early, immediate defibrillation (unsynchronized shock). While the
defibrillator is being brought to the room, high-quality CPR must be
initiated immediately to maintain coronary and cerebral perfusion.
Option A is incorrect because obtaining a 12-lead ECG causes a
catastrophic delay in life-saving care. Option C is incorrect because
pharmacological antiarrhythmics like amiodarone are secondary
, 4
measures administered after initial shocks and epinephrine cycles
have failed. Option D is incorrect because synchronized cardioversion
requires an organized QRS complex to track; attempting a
synchronized shock during ventricular fibrillation will result in the
machine failing to fire or delivering ineffective therapy.
Q3: A 47-year-old male with an acute abdomen secondary to a
ruptured appendix is admitted to the intensive care unit. The patient
exhibits a temperature of 39.2°C, blood pressure of 82/44 mmHg that
remains unresponsive to a 30 mL/kg isotonic crystalloid fluid bolus, a
heart rate of 124 bpm, and a serum lactate level of 4.2 mmol/L.
Which type of shock state is this patient experiencing, and what is
the next priority medical-surgical nursing intervention?
A) Hypovolemic shock; crossmatch blood and prepare to administer 4
units of packed red blood cells.
B) Cardiogenic shock; initiate an intravenous infusion of dobutamine
at 5 mcg/kg/min.
C) Neurogenic shock; place the patient in a reverse Trendelenburg
position and prepare a dopamine drip.
D) Septic shock; ensure broad-spectrum blood cultures are drawn,
administer prescribed empiric broad-spectrum antibiotics, and
initiate an intravenous norepinephrine infusion titrated to maintain
a Mean Arterial Pressure (MAP) ≥ 65 mmHg.
Rationale: The correct answer is D. Septic shock is defined as
persistent hypotension requiring vasopressors to maintain a MAP ≥
65 mmHg and a serum lactate level > 2 mmol/L despite adequate
fluid resuscitation, occurring in the setting of documented or
suspected infection. The absolute priorities are establishing vascular
tone via vasopressors (norepinephrine is first-line) and prompt
antibiotic execution after blood culture acquisition. Option A is
incorrect because his primary deficit is distributive vasodilation from
NSG 3800 FULL PACKAGE QUESTIONS ANSWERS
AND RATIONALES 2026-27 LATEST UPDATED
VERSION INSTANT DOWNLOAD PDF..!!
INTRODUCTION
The NSG 3800 Nursing Practice – Adult Health II Final Examination is a highly comprehensive, critical
medical-surgical nursing assessment. This examination evaluates a student's capacity to synthesize
advanced pathological mechanisms, integrate complex laboratory profiles, and exert impeccable
clinical judgment during high-stakes patient scenarios. Designed for pre-licensure and transition
nursing students, this course builds directly upon foundational concepts to explore alterations across
critical multi-system homeostatic pathways.
Success on the final exam demands fluid interpretation of hemodynamic data, deep comprehension
of acid-base and fluid shifts, expert knowledge of life-threatening cardiac rhythms, and strict
adherence to prioritization frameworks. This question package has been meticulously constructed to
simulate the highest levels of cognitive difficulty found on the official exam blueprint. Utilizing
application-level, multi-sentence scenario questions, this comprehensive bank guarantees you will
master complex physiological nuances, eliminate confusing distractors, and confidently achieve a
passing score on your first attempt.
CORE DOMAINS TESTED
• Domain 1: Fluid, Electrolyte, and Acid-Base Homeostasis – Evaluates internal environment
regulation. Includes arterial blood gas (ABG) interpretation, electrolyte replacement safety,
and the identification of lethal shifts like severe hyperkalemia or hypernatremia.
• Domain 2: Advanced Oxygenation and Perfusion Alterations – Covers acute respiratory
distress syndrome (ARDS), mechanical ventilation, deep vein thrombosis management, and
chronic pulmonary disease decompensation.
• Domain 3: Alterations in Cardiac Function and Hemodynamics – Focuses on left- and right-
sided heart failure management, acute coronary syndromes (ACS), dysrhythmia
interpretation, shock states, and pulmonary artery wedge pressure (PAWP) analysis.
• Domain 4: Genitourinary and Renal Failure Management – Emphasizes acute kidney injury
(AKI) phases, chronic kidney disease (CKD) staging, hemodialysis vs. peritoneal dialysis
complications, and glomerulonephritis.
• Domain 5: Hepatobiliary, Pancreatic, and Endocrine Crises – Targets acute pancreatitis,
hepatic encephalopathy, gallbladder disorders, and life-threatening metabolic presentations
like DKA or HHS.
,2
Q1: A 64-year-old male with a history of severe chronic obstructive
pulmonary disease (COPD) is admitted to the medical-surgical unit
with an acute exacerbation. His initial arterial blood gas (ABG) on
room air reveals: pH 7.28, PaCO2 62 mmHg, HCO3 30 mEq/L, and
PaO2 54 mmHg. The nurse notes the patient is somnolent but
rousable, utilizing accessory muscles, and exhibiting an asymmetrical
chest rise. Which of the following interpretations and immediate
nursing actions is the highest priority?
A) The patient has uncompensated metabolic acidosis; increase the
oxygen flow rate via nasal cannula to 6 L/min immediately.
B) The patient has partially compensated respiratory acidosis with
severe hypoxemia; notify the physician immediately and prepare
for non-invasive positive pressure ventilation (BiPAP) or
endotracheal intubation.
C) The patient has fully compensated respiratory alkalosis; initiate a
purse-lip breathing coaching protocol.
D) The patient has mixed respiratory and metabolic acidosis;
administer a slow IV push of sodium bicarbonate.
Rationale: The correct answer is B because a pH of 7.28 indicates
acidosis, a PaCO2 of 62 mmHg indicates a respiratory etiology, and
an elevated HCO3 of 30 mEq/L shows that the kidneys have begun
compensating over time, indicating a chronic underlying condition
with an acute overlay. Because the pH is still abnormal, it is partially
compensated. A PaO2 of 54 mmHg signifies severe hypoxemia. Given
his altered level of consciousness (somnolence) and accessory muscle
use, he is at immediate risk for respiratory failure. Option A is
incorrect because the primary disorder is respiratory, not metabolic,
and high-flow unmonitored oxygen in a chronic CO2 retainer can
,3
blunt their hypoxic drive. Option C is incorrect because the pH is
acidotic, not alkalotic. Option D is incorrect because the elevated
bicarbonate indicates a compensatory renal mechanism, not a
primary metabolic acidosis condition, and systemic sodium
bicarbonate is not indicated for primary respiratory failure.
Q2: A nurse on a telemetry unit is monitoring a 58-year-old female
patient recovering from an acute anterior wall myocardial infarction.
The monitor suddenly sounds an alarm, displaying a rapid, chaotic,
wavy line with no identifiable P waves, QRS complexes, or T waves.
The nurse runs to the patient's room and finds the patient
unresponsive, pulseless, and apneic. What is the absolute priority
intervention?
A) Obtain a 12-lead electrocardiogram (ECG) to confirm the specific
structural vectors of the rhythm.
B) Initiate high-quality cardiopulmonary resuscitation (CPR)
immediately until a defibrillator is in the room, then deliver an
immediate unsynchronized shock.
C) Administer a rapid intravenous bolus of amiodarone 300 mg via a
central venous line.
D) Perform immediate synchronized cardioversion at 100 Joules using
the telemetry paddles.
Rationale: The correct answer is B. The patient's telemetry monitor
and clinical presentation describe Ventricular Fibrillation (VF), a
lethal, non-perfusing dysrhythmia. The definitive treatment for VF is
early, immediate defibrillation (unsynchronized shock). While the
defibrillator is being brought to the room, high-quality CPR must be
initiated immediately to maintain coronary and cerebral perfusion.
Option A is incorrect because obtaining a 12-lead ECG causes a
catastrophic delay in life-saving care. Option C is incorrect because
pharmacological antiarrhythmics like amiodarone are secondary
, 4
measures administered after initial shocks and epinephrine cycles
have failed. Option D is incorrect because synchronized cardioversion
requires an organized QRS complex to track; attempting a
synchronized shock during ventricular fibrillation will result in the
machine failing to fire or delivering ineffective therapy.
Q3: A 47-year-old male with an acute abdomen secondary to a
ruptured appendix is admitted to the intensive care unit. The patient
exhibits a temperature of 39.2°C, blood pressure of 82/44 mmHg that
remains unresponsive to a 30 mL/kg isotonic crystalloid fluid bolus, a
heart rate of 124 bpm, and a serum lactate level of 4.2 mmol/L.
Which type of shock state is this patient experiencing, and what is
the next priority medical-surgical nursing intervention?
A) Hypovolemic shock; crossmatch blood and prepare to administer 4
units of packed red blood cells.
B) Cardiogenic shock; initiate an intravenous infusion of dobutamine
at 5 mcg/kg/min.
C) Neurogenic shock; place the patient in a reverse Trendelenburg
position and prepare a dopamine drip.
D) Septic shock; ensure broad-spectrum blood cultures are drawn,
administer prescribed empiric broad-spectrum antibiotics, and
initiate an intravenous norepinephrine infusion titrated to maintain
a Mean Arterial Pressure (MAP) ≥ 65 mmHg.
Rationale: The correct answer is D. Septic shock is defined as
persistent hypotension requiring vasopressors to maintain a MAP ≥
65 mmHg and a serum lactate level > 2 mmol/L despite adequate
fluid resuscitation, occurring in the setting of documented or
suspected infection. The absolute priorities are establishing vascular
tone via vasopressors (norepinephrine is first-line) and prompt
antibiotic execution after blood culture acquisition. Option A is
incorrect because his primary deficit is distributive vasodilation from
