NURS 6501: ADVANCED PATHOPHYSIOLOGY | FINAL EXAM
REVIEW | 2026–2027 | 100 QUESTIONS AND CORRECT
ANSWERS
Instructions:
This exam review contains 100 multiple-choice questions across 12 domains of advanced pathophysiology,
totaling 200 points (2 points per question). A minimum score of 75% (150 points) is required to pass. The
recommended time limit is approximately 120 minutes. Each question presents a clinical scenario followed
by four answer options (A–D). Select the single best answer. Correct answers are highlighted in bold cyan.
Scoring Summary
Domain Question Range Points Weight
I. Cellular & Molecular Q1–Q10 20 pts ~10%
Basis of Disease
II. Genetic & Epigenetic Q11–Q18 16 pts ~8%
Influences
III. Immune System Q19–Q26 16 pts ~8%
Dysfunction
IV. Hematologic Q27–Q34 16 pts ~8%
Pathophysiology
V. Cardiovascular Q35–Q46 24 pts ~12%
Disorders
VI. Pulmonary Q47–Q54 16 pts ~8%
Pathophysiology
VII. Renal & Urinary Q55–Q62 16 pts ~8%
Disorders
VIII. Endocrine & Q63–Q72 20 pts ~10%
Metabolic Dysfunction
IX. Neurological Q73–Q80 16 pts ~8%
Pathophysiology
X. Gastrointestinal & Q81–Q88 16 pts ~8%
Hepatobiliary Disorders
XI. Musculoskeletal & Q89–Q94 12 pts ~6%
Reproductive
Pathophysiology
XII. Cross-Cutting Q95–Q100Q1–Q100 12 pts200 pts ~6%100%
Advanced Concepts &
Clinical
ReasoningTOTAL
This document is an educational study tool aligned with graduate-level advanced pathophysiology curriculum standards
(MSN/DNP). It is NOT an actual NURS 6501 exam, certification exam, or brain dump. Academic integrity policies prohibit use of
unauthorized exam content. Prepare using authorized course materials, evidence-based pathophysiology references, and approved
study strategies.
DOMAIN I: Cellular & Molecular Basis of Disease (Q1–Q10)
,A 58-year-old male with a history of chronic alcohol abuse presents with jaundice, hepatomegaly, and
elevated liver enzymes (AST 280 U/L, ALT 200 U/L). A liver biopsy reveals macrovesicular lipid droplets
within hepatocytes.
1. Which cellular adaptation is most likely demonstrated in the liver of this patient?
A. Hypertrophy B. Fatty change C. Hyperplasia D. Metaplasia
(steatosis)
A 72-year-old woman with severe peripheral vascular disease develops gangrene of the great toe. Histologic
examination of the amputated tissue shows coagulative necrosis with preserved cell outlines, loss of nuclei,
and eosinophilic cytoplasm.
2. Which mechanism best explains the preserved tissue architecture observed in this type of necrosis?
A. Denaturation of intracellular proteins that B. Autolysis by lysosomal enzymes released from
maintains structural scaffolding damaged cells
C. Apoptotic enzyme caspase-3 activation D. Calcium-dependent phospholipase A2 activation
preserving cellular outlines preserving membranes
A 45-year-old man undergoes a radical prostatectomy for localized prostate cancer. Pathology reveals that
many tumor cells have condensed nuclei, cell shrinkage, intact membranes, and formation of membrane-
bound apoptotic bodies that are being phagocytosed by macrophages.
3. Which intracellular pathway was most likely triggered to produce this form of programmed cell
death in these tumor cells?
A. Necrosis through mitochondrial permeability B. Intrinsic (mitochondrial) apoptotic pathway
transition pore opening via cytochrome c release
C. Extrinsic apoptotic pathway through death D. Pyroptosis through gasdermin D pore formation
receptor TNF-alpha binding
A 28-year-old female with systemic lupus erythematosus (SLE) presents with worsening joint pain and a
malar rash. Laboratory testing reveals elevated anti-dsDNA antibodies, elevated C-reactive protein,
increased erythrocyte sedimentation rate, and elevated IL-6 and TNF-alpha levels.
4. Which sequence of inflammatory events correctly describes the vascular-phase response that
mediates the tissue injury in this patient?
A. Histamine release → vasodilation → B. Bradykinin release → vasoconstriction →
increased vascular permeability → exudation of endothelial activation → leukocyte adhesion
protein-rich fluid
C. Complement C3a/C5a release → platelet D. Prostaglandin E2 release → vasodilation →
aggregation → thrombosis → tissue hypoxia decreased vascular permeability → edema
resolution
A 65-year-old man with a long-standing history of chronic gastroesophageal reflux disease (GERD)
undergoes upper endoscopy, which reveals salmon-pink mucosa replacing the normal squamous epithelium
in the distal esophagus. Biopsy confirms columnar epithelium with intestinal goblet cells.
5. Which cellular adaptation is demonstrated, and what is its most significant clinical implication?
A. Hyperplasia — increased risk of peptic ulcer B. Dysplasia — immediate progression to invasive
formation carcinoma
C. Metaplasia — pre-malignant transformation D. Hypertrophy — risk of esophageal stricture and
risk requiring surveillance obstruction
A 55-year-old woman with breast cancer metastatic to bone develops a pathological fracture of the right
femur. She also reports chronic bone pain and laboratory testing reveals hypercalcemia (Ca²⁺ 13.2 mg/dL).
,6. Which mechanism best explains the pathophysiology of this patient's hypercalcemia and bone
destruction?
A. Osteoclast activation through tumor secretion B. Osteoblast inhibition through direct tumor cell
of parathyroid hormone-related peptide invasion of bone marrow
(PTHrP)
C. Increased intestinal calcium absorption through D. Renal calcium reabsorption through ectopic PTH
tumor-derived calcitriol secretion
A 34-year-old man is exposed to carbon tetrachloride (CCl₄) in an industrial accident. Liver function tests
obtained 48 hours later show AST 850 U/L and ALT 920 U/L. A liver biopsy would most likely demonstrate
centrilobular necrosis with lipid peroxidation of cellular membranes.
7. Which biochemical mechanism is most responsible for the hepatocellular injury in this patient?
A. Competitive inhibition of mitochondrial ATP B. Cytochrome P450-mediated conversion to a
synthase leading to energy depletion free radical causing lipid peroxidation
C. Direct covalent binding of CCl₄ to DNA D. Activation of the mitochondrial intrinsic
inducing strand breaks apoptosis pathway via p53 upregulation
A 48-year-old woman who has been bedridden for 3 weeks following a motor vehicle accident develops a
large sacral pressure ulcer. Wound healing has been delayed, and tissue granulation appears poor.
8. Which phase of wound healing is most impaired in this patient, and what cytokine primarily drives
this impaired phase?
A. Hemostasis phase — driven by thromboxane A2 and platelet-derived growth factor (PDGF)
B. Inflammatory phase — driven by tumor necrosis factor-alpha (TNF-α) and interleukin-1 (IL-1)
C. Proliferative phase — driven by transforming growth factor-beta (TGF-β) and vascular
endothelial growth factor (VEGF)
D. Maturation/remodeling phase — driven by matrix metalloproteinases (MMPs) and tissue inhibitor of
metalloproteinases (TIMPs)
A 60-year-old woman with type 2 diabetes mellitus and chronic kidney disease presents with a non-healing
ulcer on her left foot. Biopsy of the ulcer edge demonstrates excessive collagen deposition, fibroblast
proliferation, and obliteration of the microvasculature.
9. Which process best describes the tissue response observed in this chronic wound?
A. Regeneration — replacement of damaged tissue B. Resolution — complete restoration of normal
with identical cell types tissue architecture without scarring
C. Fibrosis — excessive deposition of D. Granulation — formation of new capillaries and
extracellular matrix leading to scar tissue fibroblasts in a healing wound
A 22-year-old male with Duchenne muscular dystrophy (DMD) experiences progressive muscle weakness.
Laboratory testing reveals significantly elevated creatine kinase (CK-MM). Genetic testing confirms a
deletion in the dystrophin gene on the X chromosome.
10. Which cellular pathophysiological mechanism most directly explains the muscle fiber damage in
this patient?
A. Mitochondrial dysfunction leading to ATP B. Loss of dystrophin → sarcolemma instability
depletion and necrosis → calcium influx → protease activation →
necrosis
C. Autoimmune destruction of muscle fibers D. Accumulation of toxic metabolites due to
mediated by cytotoxic T cells impaired fatty acid oxidation
, DOMAIN II: Genetic & Epigenetic Influences (Q11–Q18)
A 3-year-old boy presents with intellectual disability, a long face with large ears, macroorchidism, and
hyperflexible joints. His mother has a history of premature ovarian failure and mild learning difficulties.
Genetic testing reveals an expansion of CGG trinucleotide repeats on the FMR1 gene.
11. Which genetic mechanism best explains the pattern of inheritance and the increasing severity of
disease in successive generations observed in this family?
A. Point mutation with autosomal dominant B. Trinucleotide repeat expansion demonstrating
inheritance and variable expressivity anticipation
C. Chromosomal nondisjunction leading to D. Uniparental disomy with imprinting defect
aneuploidy
A couple with no family history of genetic disease has a child diagnosed with cystic fibrosis (CF), an
autosomal recessive disorder. Both parents are unaffected carriers. They are planning to have another child
and ask about recurrence risk.
12. What is the probability that their next child will be affected by cystic fibrosis?
A. 100% B. 75% C. 50% D. 25%
A 42-year-old woman with Huntington disease presents with progressive choreiform movements, cognitive
decline, and psychiatric symptoms. Her father died of Huntington disease at age 55. Genetic testing reveals
an expanded CAG repeat sequence in the HTT gene on chromosome 4.
13. Which genetic concept best explains why this patient developed symptoms at age 42, significantly
earlier than the average age of onset in her father's generation?
A. Incomplete penetrance with variable expressivity B. Genomic imprinting with paternal allele
silencing
C. Anticipation due to unstable trinucleotide D. X-inactivation skewing favoring the mutant
repeat expansion during gametogenesis allele
A 68-year-old man is diagnosed with colorectal adenocarcinoma. Genetic analysis of the tumor reveals
mutations in the APC gene, KRAS oncogene, and TP53 tumor suppressor gene. A review of his family
history reveals that his father and paternal grandfather both had colorectal cancer before age 50.
14. Which model of carcinogenesis best describes the sequential genetic events in this patient's tumor
development?
A. Single-hit hypothesis requiring only one B. Knudson two-hit hypothesis with germline and
oncogene activation somatic mutations
C. Multistep model of carcinogenesis with D. Epigenetic silencing model without DNA
sequential accumulation of mutations sequence changes
A 5-year-old girl presents with severe obesity, hyperphagia, small hands and feet, hypogonadism, and mild
intellectual disability. DNA methylation analysis reveals abnormal methylation patterns in the SNRPN gene
region on chromosome 15.
15. Which genetic mechanism is most likely responsible for this patient's condition, and how does it
differ from Angelman syndrome?
A. Maternal deletion of 15q11-13; Angelman B. Paternal deletion of 15q11-13; Angelman
syndrome results from paternal deletion of the same syndrome results from maternal deletion of the
region same region
C. Trisomy 15 mosaicism; Angelman syndrome D. Point mutation in UBE3A; Angelman syndrome
results from monosomy 15 results from SNRPN mutation
REVIEW | 2026–2027 | 100 QUESTIONS AND CORRECT
ANSWERS
Instructions:
This exam review contains 100 multiple-choice questions across 12 domains of advanced pathophysiology,
totaling 200 points (2 points per question). A minimum score of 75% (150 points) is required to pass. The
recommended time limit is approximately 120 minutes. Each question presents a clinical scenario followed
by four answer options (A–D). Select the single best answer. Correct answers are highlighted in bold cyan.
Scoring Summary
Domain Question Range Points Weight
I. Cellular & Molecular Q1–Q10 20 pts ~10%
Basis of Disease
II. Genetic & Epigenetic Q11–Q18 16 pts ~8%
Influences
III. Immune System Q19–Q26 16 pts ~8%
Dysfunction
IV. Hematologic Q27–Q34 16 pts ~8%
Pathophysiology
V. Cardiovascular Q35–Q46 24 pts ~12%
Disorders
VI. Pulmonary Q47–Q54 16 pts ~8%
Pathophysiology
VII. Renal & Urinary Q55–Q62 16 pts ~8%
Disorders
VIII. Endocrine & Q63–Q72 20 pts ~10%
Metabolic Dysfunction
IX. Neurological Q73–Q80 16 pts ~8%
Pathophysiology
X. Gastrointestinal & Q81–Q88 16 pts ~8%
Hepatobiliary Disorders
XI. Musculoskeletal & Q89–Q94 12 pts ~6%
Reproductive
Pathophysiology
XII. Cross-Cutting Q95–Q100Q1–Q100 12 pts200 pts ~6%100%
Advanced Concepts &
Clinical
ReasoningTOTAL
This document is an educational study tool aligned with graduate-level advanced pathophysiology curriculum standards
(MSN/DNP). It is NOT an actual NURS 6501 exam, certification exam, or brain dump. Academic integrity policies prohibit use of
unauthorized exam content. Prepare using authorized course materials, evidence-based pathophysiology references, and approved
study strategies.
DOMAIN I: Cellular & Molecular Basis of Disease (Q1–Q10)
,A 58-year-old male with a history of chronic alcohol abuse presents with jaundice, hepatomegaly, and
elevated liver enzymes (AST 280 U/L, ALT 200 U/L). A liver biopsy reveals macrovesicular lipid droplets
within hepatocytes.
1. Which cellular adaptation is most likely demonstrated in the liver of this patient?
A. Hypertrophy B. Fatty change C. Hyperplasia D. Metaplasia
(steatosis)
A 72-year-old woman with severe peripheral vascular disease develops gangrene of the great toe. Histologic
examination of the amputated tissue shows coagulative necrosis with preserved cell outlines, loss of nuclei,
and eosinophilic cytoplasm.
2. Which mechanism best explains the preserved tissue architecture observed in this type of necrosis?
A. Denaturation of intracellular proteins that B. Autolysis by lysosomal enzymes released from
maintains structural scaffolding damaged cells
C. Apoptotic enzyme caspase-3 activation D. Calcium-dependent phospholipase A2 activation
preserving cellular outlines preserving membranes
A 45-year-old man undergoes a radical prostatectomy for localized prostate cancer. Pathology reveals that
many tumor cells have condensed nuclei, cell shrinkage, intact membranes, and formation of membrane-
bound apoptotic bodies that are being phagocytosed by macrophages.
3. Which intracellular pathway was most likely triggered to produce this form of programmed cell
death in these tumor cells?
A. Necrosis through mitochondrial permeability B. Intrinsic (mitochondrial) apoptotic pathway
transition pore opening via cytochrome c release
C. Extrinsic apoptotic pathway through death D. Pyroptosis through gasdermin D pore formation
receptor TNF-alpha binding
A 28-year-old female with systemic lupus erythematosus (SLE) presents with worsening joint pain and a
malar rash. Laboratory testing reveals elevated anti-dsDNA antibodies, elevated C-reactive protein,
increased erythrocyte sedimentation rate, and elevated IL-6 and TNF-alpha levels.
4. Which sequence of inflammatory events correctly describes the vascular-phase response that
mediates the tissue injury in this patient?
A. Histamine release → vasodilation → B. Bradykinin release → vasoconstriction →
increased vascular permeability → exudation of endothelial activation → leukocyte adhesion
protein-rich fluid
C. Complement C3a/C5a release → platelet D. Prostaglandin E2 release → vasodilation →
aggregation → thrombosis → tissue hypoxia decreased vascular permeability → edema
resolution
A 65-year-old man with a long-standing history of chronic gastroesophageal reflux disease (GERD)
undergoes upper endoscopy, which reveals salmon-pink mucosa replacing the normal squamous epithelium
in the distal esophagus. Biopsy confirms columnar epithelium with intestinal goblet cells.
5. Which cellular adaptation is demonstrated, and what is its most significant clinical implication?
A. Hyperplasia — increased risk of peptic ulcer B. Dysplasia — immediate progression to invasive
formation carcinoma
C. Metaplasia — pre-malignant transformation D. Hypertrophy — risk of esophageal stricture and
risk requiring surveillance obstruction
A 55-year-old woman with breast cancer metastatic to bone develops a pathological fracture of the right
femur. She also reports chronic bone pain and laboratory testing reveals hypercalcemia (Ca²⁺ 13.2 mg/dL).
,6. Which mechanism best explains the pathophysiology of this patient's hypercalcemia and bone
destruction?
A. Osteoclast activation through tumor secretion B. Osteoblast inhibition through direct tumor cell
of parathyroid hormone-related peptide invasion of bone marrow
(PTHrP)
C. Increased intestinal calcium absorption through D. Renal calcium reabsorption through ectopic PTH
tumor-derived calcitriol secretion
A 34-year-old man is exposed to carbon tetrachloride (CCl₄) in an industrial accident. Liver function tests
obtained 48 hours later show AST 850 U/L and ALT 920 U/L. A liver biopsy would most likely demonstrate
centrilobular necrosis with lipid peroxidation of cellular membranes.
7. Which biochemical mechanism is most responsible for the hepatocellular injury in this patient?
A. Competitive inhibition of mitochondrial ATP B. Cytochrome P450-mediated conversion to a
synthase leading to energy depletion free radical causing lipid peroxidation
C. Direct covalent binding of CCl₄ to DNA D. Activation of the mitochondrial intrinsic
inducing strand breaks apoptosis pathway via p53 upregulation
A 48-year-old woman who has been bedridden for 3 weeks following a motor vehicle accident develops a
large sacral pressure ulcer. Wound healing has been delayed, and tissue granulation appears poor.
8. Which phase of wound healing is most impaired in this patient, and what cytokine primarily drives
this impaired phase?
A. Hemostasis phase — driven by thromboxane A2 and platelet-derived growth factor (PDGF)
B. Inflammatory phase — driven by tumor necrosis factor-alpha (TNF-α) and interleukin-1 (IL-1)
C. Proliferative phase — driven by transforming growth factor-beta (TGF-β) and vascular
endothelial growth factor (VEGF)
D. Maturation/remodeling phase — driven by matrix metalloproteinases (MMPs) and tissue inhibitor of
metalloproteinases (TIMPs)
A 60-year-old woman with type 2 diabetes mellitus and chronic kidney disease presents with a non-healing
ulcer on her left foot. Biopsy of the ulcer edge demonstrates excessive collagen deposition, fibroblast
proliferation, and obliteration of the microvasculature.
9. Which process best describes the tissue response observed in this chronic wound?
A. Regeneration — replacement of damaged tissue B. Resolution — complete restoration of normal
with identical cell types tissue architecture without scarring
C. Fibrosis — excessive deposition of D. Granulation — formation of new capillaries and
extracellular matrix leading to scar tissue fibroblasts in a healing wound
A 22-year-old male with Duchenne muscular dystrophy (DMD) experiences progressive muscle weakness.
Laboratory testing reveals significantly elevated creatine kinase (CK-MM). Genetic testing confirms a
deletion in the dystrophin gene on the X chromosome.
10. Which cellular pathophysiological mechanism most directly explains the muscle fiber damage in
this patient?
A. Mitochondrial dysfunction leading to ATP B. Loss of dystrophin → sarcolemma instability
depletion and necrosis → calcium influx → protease activation →
necrosis
C. Autoimmune destruction of muscle fibers D. Accumulation of toxic metabolites due to
mediated by cytotoxic T cells impaired fatty acid oxidation
, DOMAIN II: Genetic & Epigenetic Influences (Q11–Q18)
A 3-year-old boy presents with intellectual disability, a long face with large ears, macroorchidism, and
hyperflexible joints. His mother has a history of premature ovarian failure and mild learning difficulties.
Genetic testing reveals an expansion of CGG trinucleotide repeats on the FMR1 gene.
11. Which genetic mechanism best explains the pattern of inheritance and the increasing severity of
disease in successive generations observed in this family?
A. Point mutation with autosomal dominant B. Trinucleotide repeat expansion demonstrating
inheritance and variable expressivity anticipation
C. Chromosomal nondisjunction leading to D. Uniparental disomy with imprinting defect
aneuploidy
A couple with no family history of genetic disease has a child diagnosed with cystic fibrosis (CF), an
autosomal recessive disorder. Both parents are unaffected carriers. They are planning to have another child
and ask about recurrence risk.
12. What is the probability that their next child will be affected by cystic fibrosis?
A. 100% B. 75% C. 50% D. 25%
A 42-year-old woman with Huntington disease presents with progressive choreiform movements, cognitive
decline, and psychiatric symptoms. Her father died of Huntington disease at age 55. Genetic testing reveals
an expanded CAG repeat sequence in the HTT gene on chromosome 4.
13. Which genetic concept best explains why this patient developed symptoms at age 42, significantly
earlier than the average age of onset in her father's generation?
A. Incomplete penetrance with variable expressivity B. Genomic imprinting with paternal allele
silencing
C. Anticipation due to unstable trinucleotide D. X-inactivation skewing favoring the mutant
repeat expansion during gametogenesis allele
A 68-year-old man is diagnosed with colorectal adenocarcinoma. Genetic analysis of the tumor reveals
mutations in the APC gene, KRAS oncogene, and TP53 tumor suppressor gene. A review of his family
history reveals that his father and paternal grandfather both had colorectal cancer before age 50.
14. Which model of carcinogenesis best describes the sequential genetic events in this patient's tumor
development?
A. Single-hit hypothesis requiring only one B. Knudson two-hit hypothesis with germline and
oncogene activation somatic mutations
C. Multistep model of carcinogenesis with D. Epigenetic silencing model without DNA
sequential accumulation of mutations sequence changes
A 5-year-old girl presents with severe obesity, hyperphagia, small hands and feet, hypogonadism, and mild
intellectual disability. DNA methylation analysis reveals abnormal methylation patterns in the SNRPN gene
region on chromosome 15.
15. Which genetic mechanism is most likely responsible for this patient's condition, and how does it
differ from Angelman syndrome?
A. Maternal deletion of 15q11-13; Angelman B. Paternal deletion of 15q11-13; Angelman
syndrome results from paternal deletion of the same syndrome results from maternal deletion of the
region same region
C. Trisomy 15 mosaicism; Angelman syndrome D. Point mutation in UBE3A; Angelman syndrome
results from monosomy 15 results from SNRPN mutation
