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Digestive / GI

Cirrhosis & Its Complications

High-yield Verified · Sep 2026

Cirrhosis is fibrosis and nodule formation of the liver from chronic injury — scarring that destroys the liver’s normal lobular architecture and, with it, the organ’s synthetic and clearance functions.

One disorder, four exams’ worth of complications: portal hypertension explains varices, ascites, splenomegaly, and encephalopathy — and the failing liver itself explains the bleeding, the jaundice, and the drug sensitivity.

What’s going wrong in the body

The normal physiology, where it fails, and why the body’s compensation backfires.

01 Scar tissue replaces the factory

Chronic liver disease is a staged march: hepatitis or steatosis → fibrosis → cirrhosis → risk of hepatocellular carcinoma. The scarring itself has a cellular story: chronic injury and inflammatory cytokines activate the hepatic stellate cells — normally quiet vitamin-A-storing cells — which transform into myofibroblasts and lay down collagen. The sinusoidal endothelial cells lose their fenestrations (the sieve-like pores that let blood and hepatocytes exchange freely), and Kupffer cells release harmful mediators. The result is a hard, nodular organ where a soft, open-circulation one used to be.

Compensated cirrhosis is often silent — found incidentally on labs or imaging. Decompensation is the appearance of any of five events: ascites, jaundice, hepatic encephalopathy, variceal bleeding, or hepatocellular carcinoma. The distinction is the prognosis: 10-year survival is roughly 47% while compensated but falls to about 16% after a decompensating event. Everything the nurse does for this patient — the surveillance, the teaching, the precipitant-hunting — is aimed at delaying that crossing.

02 One pressure, four consequences — portal hypertension

All portal-vein blood must pass through the liver, and the scarred liver resists it — two ways at once. Inside the liver, dysregulated sinusoidal and stellate cells (more endothelin-1, less nitric oxide locally) constrict the sinusoids and raise resistance. Outside the liver, nitric oxide floods the splanchnic bed, dilating it and pouring more blood into the portal system — a hyperdynamic circulation feeding a blocked drain.

The pressure is measured as the hepatic venous pressure gradient (HVPG): normal is ≤ 5 mm Hg, portal hypertension begins at ≥ 6, becomes clinically significant at ≥ 10, and at ≥ 12 mm Hg life-threatening bleeding and other complications become likely. Trapped blood detours through portosystemic collaterals at four classic sites: the distal esophagus and stomach (gastroesophageal varices), the umbilicus (caput medusae), the retroperitoneum, and the anorectal region. The same pressure congests the spleen (splenomegaly, which sequesters platelets and white cells), drives ascites, and — because shunted blood bypasses the liver — delivers unfiltered toxins like ammonia straight to the brain.

One pressure, four consequences: portal hypertension produces varices, ascites, splenomegaly, and the shunting behind encephalopathy — and each has its own emergency.

03 The failing factory: synthesis down, clearance down

The liver’s lab abnormalities sort cleanly into two failures. Synthesis fails: the liver makes albumin and clotting factors, so cirrhosis brings low albumin (feeding ascites and edema through lost oncotic pressure) and a prolonged PT/INR with easy bruising and GI bleeding. PT, albumin, and bilirubin — not the aminotransferases — are the true indicators of hepatic synthetic function.

Clearance fails: ammonia is no longer converted to urea and accumulates (hepatic encephalopathy), bilirubin accumulates (jaundice, with pale stools), and drug metabolism falls — cirrhosis patients have an extra sensitivity to medicines, which is why sedatives, NSAIDs, and unreviewed OTC products are so dangerous in this population. This two-column split is the fastest way to organize the whole disorder: every finding on this page belongs to synthesis, clearance, or pressure.

The failing factory: what the liver stops making (albumin, clotting factors) versus what it stops clearing (ammonia, bilirubin, drugs).

04 Ammonia and the brain — hepatic encephalopathy

Colonic bacteria and mucosal enzymes break dietary protein down to ammonia; the healthy liver clears it through the urea cycle. In cirrhosis, hepatocellular failure plus portosystemic shunting let ammonia bypass the liver entirely. In the brain, astrocytes convert ammonia and glutamate to glutamine — an osmolyte — so the astrocytes swell: cerebral edema, oxidative stress, and neurotransmitter imbalance. Clinically that spectrum is graded on the West Haven scale: subtle attention loss (grade 1) → lethargy, mild disorientation, personality change (grade 2) → somnolence and gross disorientation (grade 3) → coma (grade 4). Asterixis — the flapping tremor with arms extended and hands dorsiflexed — appears in the intermediate grades.

Encephalopathy rarely appears out of nowhere; something precipitates it, and the precipitant list is the exam list: GI bleeding (blood in the gut is a giant protein load), infection including SBP, constipation, dehydration (over-diuresis, vomiting, large paracentesis), electrolyte imbalance (hypokalemia, hyponatremia), sedatives — benzodiazepines and opioids, NSAIDs, kidney dysfunction, TIPS, and alcohol. The treatment logic follows the mechanism: lactulose is metabolized by colonic bacteria to acids, and the acidic colon converts ammonia (NH₃) to ammonium (NH₄⁺) — an ionized form that cannot cross membranes — trapping it in the gut and drawing more in from the blood, while the osmotic effect expels it. That is why the dose is titrated to 2–3 soft stools per day, not to comfort.

The encephalopathy loop: a precipitant raises the ammonia load, the shunted liver can’t clear it, and lactulose traps and expels it — while the nurse hunts the trigger.

Causes & risk factors

Modifiable factors are teaching targets — the patient can act on them.

Hepatitis C — a leading cause in the US; treatable with antivirals modifiable Alcohol-associated liver disease — abstinence is crucial modifiable NASH/MASLD (metabolic dysfunction-associated steatotic liver disease) — linked to obesity, diabetes, hypertension, high cholesterol; weight reduction ≥ 7% is beneficial modifiable Hepatitis B (with C, the leading cause worldwide) — treatable with antivirals modifiable Hepatotoxic drugs modifiable Autoimmune hepatitis Primary biliary cholangitis · primary sclerosing cholangitis Hemochromatosis & Wilson disease — treatable (phlebotomy / chelation) Alpha-1 antitrypsin deficiency Chronic right-sided heart failure (cardiac cirrhosis) · Budd-Chiari · cryptogenic

Signs & symptoms

Each finding tied to the mechanism that produces it — and the triage it calls for.

Fatigue, poor appetite, weight loss, nausea early Expected
Why: The nonspecific opening act of a failing metabolic organ — compensated cirrhosis often announces itself with nothing more than this.
Spider nevi, palmar erythema, gynecomastia, amenorrhea early Expected
Why: The failing liver stops clearing estrogen, so the estrogen-to-testosterone ratio rises — small vascular and hormonal signs that point at the liver years before decompensation.
Jaundice with pale stools late Hold & notify
Why: Bilirubin the liver can no longer clear accumulates — visible once serum bilirubin exceeds about 3 mg/dL. New or worsening jaundice marks decompensation.
Splenomegaly with low platelets and low WBCs
Why: Portal pressure congests the spleen, which then sequesters platelets and leukocytes — thrombocytopenia in a liver patient is a portal-hypertension sign, not a bone-marrow one.
Caput medusae (dilated periumbilical veins)
Why: Portal blood detouring through reopened umbilical collaterals — one of the four classic portosystemic escape routes.
Easy bruising, nosebleeds, bleeding gums Hold & notify
Why: Two failures at once: fewer clotting factors (synthesis) and fewer platelets (splenic sequestration). New or unusual bleeding warrants a provider call.
Vomiting blood · black tarry stools late Report immediately
Why: The presentation of variceal hemorrhage — thin-walled esophageal varices rupturing under portal pressure. Bleeding must be controlled quickly to prevent shock and death.
Abdominal distention, shifting dullness, fluid wave late Expected
Why: Ascites: portal hypertension plus RAAS-driven sodium retention plus low albumin push fluid into the peritoneum. Large volumes compress the diaphragm and cause dyspnea.
Fever or abdominal pain in a patient with ascites late Report immediately
Why: The triad cues of spontaneous bacterial peritonitis — infected ascitic fluid. SBP is also a classic encephalopathy precipitant, so confusion may be the first sign.
New confusion or altered mental status late Report immediately
Why: Hepatic encephalopathy — ammonia reaching a shunted brain. Mental-status change in a liver patient is reported at once — encephalopathy can progress from subtle slowing to coma.
Asterixis (flapping tremor) late Hold & notify
Why: Arms extended, hands dorsiflexed — the hands flap. A hallmark of the intermediate West Haven grades (2–3) of encephalopathy.
Day–night sleep reversal, personality change, short attention span, musty-sweet breath (fetor hepaticus) Hold & notify
Why: The early encephalopathy cues families notice first — dimethyl sulfide on the breath and subtle cortical slowing before overt confusion.
Severe pruritus Expected
Why: Cholestasis — retained bile constituents irritate the skin; a recognized and miserable complication of cirrhosis.

Diagnostics

Test In this disorder Normal
AST & ALT Normal enzymes do not rule out cirrhosis — a burned-out liver has few hepatocytes left to leak enzymes Usually only mildly–moderately elevated, with the ratio reversing to AST > ALT as cirrhosis develops —
Albumin · PT/INR · bilirubin These three (not AST/ALT) are the true indicators of hepatic synthetic function, and all three feed the Child-Pugh score Albumin low, PT/INR prolonged, bilirubin elevated — the synthetic-function trio —
CBC During an active bleed, hemoglobin can read deceptively normal for 6–24 hours until the blood volume re-equilibrates Thrombocytopenia and leukopenia (splenic sequestration); anemia — macrocytic in alcohol-associated disease —
Ascitic fluid analysis (paracentesis) New-onset ascites and every hospitalized patient with ascites warrant a diagnostic paracentesis SAAG ≥ 1.1 g/dL = portal-hypertensive ascites (97% accuracy) · PMN ≥ 250/mm³ = spontaneous bacterial peritonitis —
Ammonia The sample must be tested within 1 hour and kept cool; treat the patient’s mental status, not the number. CT/MRI rule out bleed, stroke, or lesion Usually elevated in encephalopathy — but not definitive; a normal level has high negative predictive value —
Child-Pugh & MELD scores MELD 3.0 sets US liver-transplant waitlist priority; Child-Pugh class drives complication risk — variceal-bleed in-hospital mortality runs 0% in class A vs 32% in class C Child-Pugh (albumin, bilirubin, PT, ascites, encephalopathy): A = 5–6 well-compensated · B = 7–9 · C = 10–15 decompensated. MELD (bilirubin, creatinine, INR, sodium; the US has used MELD 3.0, which adds sex and albumin, since July 2023) predicts 3-month mortality MELD 3.0 (US transplant allocation, July 2023) —

Complications

Warning: Variceal hemorrhage Report immediately
Thin-walled esophageal varices rupture under portal pressure: hematemesis, melena, tachycardia, hypotension → shock. About 25% of newly diagnosed varices bleed within 2 years, the first sign of varices is often the bleed itself, and mortality runs up to ≈ 20% at 6 weeks.
The nurse anticipates the acute bundle: two large-bore (≥ 18-gauge) IVs, restrictive transfusion at hemoglobin < 7 g/dL (over-transfusion raises portal pressure and rebleeding), IV octreotide (50 µg bolus, then infusion), prophylactic ceftriaxone 1 g IV, and urgent EGD within 12 hours (AASLD, as reported by StatPearls). Balloon tamponade is a rescue bridge only — and the patient is intubated first.
Warning: Spontaneous bacterial peritonitis (SBP) Report immediately
Infection of the ascitic fluid: fever, abdominal pain or tenderness, and — because SBP precipitates encephalopathy — often confusion as the presenting sign.
Diagnosis is ascitic-fluid PMN ≥ 250/mm³ on paracentesis. Treatment: broad-spectrum antibiotics narrowed by culture, plus IV albumin 1.5 g/kg. In a cirrhotic with ascites, fever or new confusion means "tap the belly," not "watch and wait."
Warning: Hepatic encephalopathy Report immediately
From sleep reversal and personality change to asterixis, stupor, and coma (West Haven grades 1–4). About 44% of cirrhosis patients develop it within 5 years, and severe episodes carry > 50% one-year mortality.
The nurse’s move is a two-track response: give and titrate lactulose to 2–3 soft stools/day — and hunt the precipitant (GI bleed? infection/SBP? constipation? sedative given? over-diuresis?). Any new mental-status change in a liver patient is reported immediately.
Caution: Hepatorenal syndrome Hold & notify
Functional kidney failure — the kidneys are structurally normal but intensely vasoconstricted. A diagnosis of exclusion with a grim outlook.
Rising creatinine or falling urine output in a cirrhotic is a report-now finding. Treatment pairs vasoconstrictors with albumin (terlipressin or norepinephrine + albumin; midodrine + octreotide + albumin); liver transplant is the only definitive treatment.
Caution: Hepatocellular carcinoma
The end of the chronic-liver-disease staircase — cirrhosis is the major risk state, and HCC is itself a decompensating event.
This is why every cirrhosis patient gets surveillance ultrasound at least every 6 months — the complication is hunted before it declares itself.

Medications for this condition

Why each class is prescribed here — every card links to its full pharmacology page.

Diuretics First-line
Cardiovascular

Ascites is aldosterone’s disease: splanchnic vasodilation fools the kidneys into RAAS activation, so therapy is spironolactone-based — the aldosterone antagonist is the foundation, with furosemide added in a 100 mg : 40 mg ratio. First-line together with the 2,000 mg sodium restriction. Monitor weight, electrolytes (K⁺ moves both ways), BUN/creatinine — because over-diuresis dehydrates the patient into encephalopathy.
Laxatives First-line
Digestive / GI

Lactulose here is not for constipation — it is an ammonia trap. Colonic bacteria turn it into acids; the acidic colon converts NH₃ to non-absorbable NH₄⁺ and expels it. Titrate to 2–3 soft stools/day: fewer means ammonia stays, more means dehydration — itself an encephalopathy precipitant. Rifaximin is added when lactulose alone is not enough.
Beta-Blockers First-line
Cardiovascular · metoprolol

Must be nonselective (propranolol, nadolol, carvedilol — carvedilol preferred): the target is portal pressure, not blood pressure — lower cardiac output means less splanchnic flow and a lower HVPG. Primary prophylaxis cuts first-bleed risk from ≈ 25% to 15%; after a bleed, the beta-blocker is the modality that reduces mortality (banding alone does not).

Beyond medications

  • Absolute alcohol abstinence — plus vaccination against hepatitis A and B, influenza, pneumococcus, and shingles; an injured liver cannot afford a second hit.
  • Sodium 2,000 mg (88 mEq)/day for ascites; fluids are restricted only if the provider orders it — sodium, not water, is the primary target.
  • Nutrition — protein is NOT restricted: ≈ 1.2–1.5 g/kg/day protein and 35–40 kcal/kg/day, as small frequent meals plus a bedtime snack, because the diseased liver stores energy poorly. Avoid excess vitamin A; avoid salt substitutes if kidney disease coexists (potassium load).
  • Endoscopic variceal ligation (banding) — preferred over sclerotherapy, both for active bleeding and prophylactically for medium-to-large varices; TIPS is second-line for refractory bleeding or ascites but precipitates encephalopathy in 30–50%.
  • Surveillance — HCC ultrasound at least every 6 months; screening EGD every 2–3 years (compensated) or yearly (decompensated); liver stiffness < 20 kPa with platelets > 150,000 can forgo screening endoscopy.
  • Liver transplantation for decompensated cirrhosis unresponsive to medical management — ≈ 85% 1-year survival; MELD 3.0 sets waitlist priority.

Nursing considerations

The RN-specific layer — each action paired with the reason it matters.

Assessment & monitoring
Run serial neuro/LOC checks and test for asterixis (arms extended, hands dorsiflexed) each shift; ask family about sleep reversal, personality change, or poor attention or memory.
Why: Encephalopathy climbs the West Haven grades quickly, and the earliest cues are behavioral — the family often notices before the mental-status exam does.
On diuretics: track body weight, electrolytes, BUN/creatinine, and urinary sodium; watch potassium in both directions.
Why: Spironolactone retains K⁺ while furosemide wastes it — and dehydration or hypokalemia from over-diuresis are themselves encephalopathy precipitants.
Count and chart stools on lactulose against the goal of 2–3 soft stools/day; flag watery diarrhea to the provider for dose adjustment.
Why: Fewer stools means ammonia is not being trapped and expelled; dose-dependent diarrhea causes the dehydration and electrolyte derangement that can worsen the very encephalopathy being treated.
In any patient with ascites, treat any fever, new abdominal pain/tenderness, or new confusion as SBP until proven otherwise — anticipate a diagnostic paracentesis.
Why: SBP’s triad is fever, abdominal pain, and confusion — and the diagnosis lives in the ascitic fluid (PMN ≥ 250/mm³), not the blood work.
Watch for bruising, oozing, nosebleeds, and bleeding gums; treat black tarry stools or hematemesis as an emergency.
Why: Low clotting factors (synthesis failure) plus low platelets (splenic sequestration) make every bleed bigger — and GI blood is both a hemorrhage and an ammonia load.
Trend vital signs for occult bleeding — rising heart rate and falling blood pressure may precede any hemoglobin change.
Why: During active bleeding, hemoglobin takes 6–24 hours to equilibrate; a "normal" value in a tachycardic, hypotensive cirrhotic is false reassurance.
When decompensation hits
Suspected variceal bleed: establish/verify two large-bore (≥ 18-gauge) IVs, then deliver one SBAR — anticipate restrictive transfusion (Hgb < 7 g/dL), IV octreotide, prophylactic ceftriaxone, and EGD within 12 hours.
Why: The bundle exists because each piece fixes a different killer: volume access for shock, octreotide lowers portal pressure, ceftriaxone pre-empts the SBP and pneumonia that bacterial translocation causes, and endoscopy stops the bleed.
During resuscitation, do not push for a "normal" hemoglobin; question orders for liberal transfusion or FFP.
Why: Over-transfusion re-expands portal pressure and raises rebleeding risk — FFP in particular may increase blood volume and rebleeding.
If balloon tamponade (Sengstaken-Blakemore-type tube) is needed, the patient is intubated first; esophageal balloon pressure stays ≤ 45 mm Hg, deflated intermittently, inflated no longer than 24 hours.
Why: It is a rescue bridge to repeat endoscopy or TIPS, not a treatment: aspiration and airway obstruction are the immediate risks, and esophageal rupture occurs in up to 6%.
Encephalopathy episode: give lactulose (retention enema if the patient cannot swallow safely) and hunt the precipitant — check for GI bleeding, infection/SBP, constipation, recent sedatives or opioids, and dehydration.
Why: Lactulose treats the ammonia; finding the trigger treats the episode. Miss the GI bleed or the SBP behind the confusion and the encephalopathy keeps returning.
Paracentesis: confirm consent, have the patient void first, position supine; afterward monitor for hypotension, tachycardia, dizziness, site leak, bleeding, and infection — and give ordered IV albumin (6–8 g per liter removed) within 1 hour when more than 5 L came off.
Why: An empty bladder prevents bladder injury; albumin after large-volume paracentesis prevents post-paracentesis circulatory dysfunction (AASLD). Coagulopathy is not a contraindication — routine FFP is unnecessary.
Patient teaching (the discharge difference)
Go to the hospital right away for vomiting blood or black or bloody stools; call immediately for new confusion or sleepiness, fever or chills, belly pain or fast-growing swelling, new or deeper jaundice, easy bruising or bleeding, or new leg swelling.
Why: Each item on the list is one of the complications declaring itself — variceal bleed, encephalopathy, SBP, worsening ascites — and every one moves faster than a routine appointment.
Keep sodium at 2,000 mg/day or less; the provider may set a stricter limit. Limit fluids only if the provider orders it.
Why: RAAS-driven sodium retention is the engine of ascites; the diuretics work against every gram of salt eaten.
Eat protein — do not restrict it: aim for 1.2–1.5 g/kg/day as small meals through the day plus a bedtime snack; spread it out rather than one large load.
Why: The old low-protein teaching is out: restriction worsens the malnutrition a failing liver already causes. The diseased liver stores energy poorly, so grazing plus a bedtime snack prevents overnight fasting.
Medication safety: no NSAIDs (ibuprofen, naproxen); acetaminophen only in the dose the provider sets; no sedatives or sleep aids without the provider; review every OTC drug, herb, and supplement with the provider first.
Why: The cirrhotic liver clears drugs poorly — NSAIDs threaten the kidneys and precipitate encephalopathy, sedatives can tip the brain into it, and "natural" products are still drugs to a failing liver.
Take lactulose exactly to the 2–3 soft stools/day target and keep bowel movements regular — constipation is a trigger for encephalopathy; report watery diarrhea rather than stopping the drug.
Why: Constipation lets colonic bacteria brew ammonia — it is a named encephalopathy precipitant — while overshoot dehydrates, which precipitates it from the other direction.
No alcohol — none — and stay current on hepatitis A/B, influenza, pneumococcal, and shingles vaccines.
Why: Abstinence is the single most modifiable driver of progression, and infection is both a decompensation trigger and an encephalopathy precipitant.

How a real nurse thinks

The clinical-judgment loop, worked for a typical presentation — reasoning, not reference.

  1. 1
    Recognize cues

    The cues that matter: melena in a portal-hypertension patient, a hemoglobin that has fallen from 11.2 to 8.4, HR 108 with BP 96/58, new disorientation with asterixis, three days without a stool, and a K⁺ of 3.3 on furosemide. The mildly elevated temperature and stable SpO₂ are background — though in an ascites patient, any fever would join the headline list as possible SBP.

  2. 2
    Analyze cues

    One thread connects everything: a GI bleed — likely variceal, given the cirrhosis and portal hypertension — has been quietly running. Blood in the gut is a massive protein load; colonic bacteria convert it to ammonia, the shunted liver can’t clear it, and the result is the confusion and asterixis (West Haven grade 2–3). The three days of constipation and the hypokalemia are two more named precipitants stacking on top. And the hemoglobin may still understate the loss — it takes 6–24 hours to equilibrate during active bleeding.

  3. 3
    Prioritize

    Circulation first: an actively bleeding cirrhotic trending tachycardic and hypotensive outranks everything, and the encephalopathy is a consequence of that bleed — treating the cause and the ammonia can proceed in parallel. Sequence: secure IV access → provider notification (bleed + encephalopathy + K⁺ in one SBAR) → lactulose and monitoring. The confusion also makes him an aspiration and safety risk, so nothing by mouth until his swallowing and sensorium are assessed against each dose.

  4. 4
    Generate solutions

    Establish/verify two large-bore (≥ 18-gauge) IVs; anticipate the variceal bundle — restrictive transfusion only if Hgb < 7 g/dL, IV octreotide, prophylactic ceftriaxone, and EGD within 12 hours. Give the ordered lactulose and titrate to 2–3 soft stools/day. Clarify the 2100 diuretics with the provider — diuresing a hypotensive, bleeding, hypokalemic patient risks worsening both the shock and the encephalopathy. Plan serial LOC/asterixis checks, and flag that no sedatives should be given for his nighttime restlessness.

  5. 5
    Take action

    Secure the second IV and deliver one SBAR: "Melena on admission, Hgb 8.4 from 11.2, HR 108, BP 96/58, new grade 2–3 encephalopathy with asterixis, K⁺ 3.3, no stool in 3 days. Anticipating octreotide, ceftriaxone, and EGD; requesting direction on tonight’s spironolactone, furosemide, and propranolol, and potassium replacement." Give the lactulose, start the stool count, and re-check neuro status hourly. The trap is treating the confusion as the whole problem — or sedating it — while the bleed that caused it keeps running.

  6. 6
    Evaluate

    Success looks like: heart rate and blood pressure stabilizing, hemoglobin holding after the EGD treats the source, 2–3 soft stools by tomorrow with the patient re-orienting and the asterixis fading, potassium replaced, and no fever or abdominal tenderness developing (the ceftriaxone is there because bleeding cirrhotics are set up for SBP). Watery diarrhea, deepening lethargy, recurrent melena, or a new fever re-escalates immediately.

Scenario — you’re the nurse

Work each question before revealing the answer. Rationales explain the wrong options too.

Medical unit · 1930, admission from the ED

A 58-year-old man with alcohol-associated cirrhosis (Child-Pugh B) and known ascites, admitted for confusion. Home meds: spironolactone 100 mg + furosemide 40 mg daily, propranolol. His wife reports two days of increasing confusion — "he sleeps all day and wanders at night" — and no bowel movement in three days. While settling him, you note a black, tarry stool.

1930 vitals — HR 108 · BP 96/58 · RR 18 · SpO₂ 96% RA · T 37.2 °C (99.0 °F)
Assessment — lethargic, oriented to person only; asterixis present; distended abdomen with shifting dullness; melena noted on admission
ED labs — Hgb 8.4 g/dL (11.2 one month ago) · platelets 88,000 · INR 1.8 · albumin 2.4 g/dL · bilirubin 3.8 mg/dL · K⁺ 3.3 mEq/L · ammonia elevated
Orders — lactulose 30 mL PO now and q6h, titrate to 2–3 soft stools/day · type & screen · NPO after midnight for EGD
Due at 2100 — home spironolactone, furosemide, propranolol are on the med rec, unverified
Q1 Select all that apply
On the admission assessment, which findings require immediate follow-up? Select all that apply.
  1. A. Black, tarry stool noted on admission
  2. B. New disorientation with asterixis
  3. C. Spider nevi across the chest and shoulders
  4. D. Potassium 3.3 mEq/L
  5. E. Temperature 37.2 °C (99.0 °F)
Reveal answer & rationale
Answer: A, B, D
Melena in a portal-hypertension patient is GI bleeding — possibly variceal — until proven otherwise. New confusion with asterixis is hepatic encephalopathy, a report-immediately change. K⁺ 3.3 is low on a loop diuretic and is itself an encephalopathy precipitant. Spider nevi (C) are a chronic hyperestrogenism finding — expected in cirrhosis, not an acute cue. A temperature of 99.0 °F (E) is not a fever, but in an ascites patient it bears watching — SBP work-up is triggered by fever or by abdominal pain, worsening encephalopathy, kidney dysfunction, or hypotension.
Q2 Multiple choice
The nurse understands that the best explanation connecting the black stools to the new confusion is:
  1. A. Blood loss has lowered cerebral perfusion, causing hypoxic confusion
  2. B. Blood in the GI tract is digested as a protein load, producing ammonia the scarred, shunted liver cannot clear
  3. C. Melena indicates alcohol relapse, and the confusion is early withdrawal
  4. D. The dark stools are an expected effect of spironolactone therapy
Reveal answer & rationale
Answer: B
A GI bleed is the classic encephalopathy precipitant: gut bacteria break the blood down into ammonia, portosystemic shunting carries it past the liver, and astrocytes swell — producing exactly this picture of disorientation plus asterixis (B). Hypoperfusion (A) is plausible reasoning but doesn’t explain the asterixis, elevated ammonia, or the sleep-reversal prodrome that preceded the bleed’s discovery. Nothing supports relapse (C), and asterixis is not a withdrawal sign. Spironolactone does not blacken stools (D) — attributing melena to a medication in a varices-prone patient is the dangerous miss.
Q3 Put in order
Put the nurse’s first four actions in priority order:
  1. A. Notify the provider with a single SBAR covering the bleed, the encephalopathy, and the K⁺ of 3.3
  2. B. Establish/verify two large-bore (≥ 18-gauge) IV lines
  3. C. Administer the ordered lactulose and begin the stool count
  4. D. Document the assessment findings
Reveal answer & rationale
Correct order: B → A → C → D
IV access comes first: this patient is actively bleeding with HR 108 and BP 96/58, access is the nurse-initiated action that protects against circulatory collapse, and every anticipated therapy (octreotide, ceftriaxone, transfusion) runs through it. The SBAR follows immediately — it launches the time-critical bundle (EGD within 12 hours). Lactulose treats the ammonia but is not the life threat. Documentation never precedes stabilization. Calling first (A before B) leaves an unstable patient without access while you are on the phone.
Q4 Multiple choice
The patient’s wife asks, "Why are you giving him a laxative? Diarrhea is the last thing he needs." The nurse’s best response explains that lactulose is given to:
  1. A. Empty the bowel before tomorrow’s endoscopy
  2. B. Acidify the colon so ammonia is converted to a form that cannot be absorbed, then expelled — dosed to 2–3 soft stools a day
  3. C. Prevent the constipation that his pain medications will cause
  4. D. Produce as many stools as possible until his confusion resolves
Reveal answer & rationale
Answer: B
Lactulose here is an ammonia trap, not a routine laxative: colonic bacteria convert it to acids, the acidic colon turns NH₃ into non-absorbable NH₄⁺, and the osmotic effect expels it — which is why the target is 2–3 soft stools/day (B). It is not bowel prep for EGD (A). It is not being given for opioid constipation (C) — and opioids should be avoided in this patient as an encephalopathy precipitant. "As many stools as possible" (D) is the overtitration trap: dose-dependent diarrhea causes dehydration and electrolyte derangement, which themselves precipitate encephalopathy.
Q5 Multiple choice
Which finding on tomorrow evening’s assessment best indicates the plan is working?
  1. A. Three soft stools today, oriented to person and place, asterixis barely elicitable
  2. B. The ammonia level has normalized, though he remains lethargic and disoriented
  3. C. He slept soundly all afternoon after the night shift gave him a dose of a sedative for restlessness
  4. D. Six large watery stools since morning
Reveal answer & rationale
Answer: A
Effectiveness is judged clinically: stools at target with the sensorium clearing and the asterixis resolving (A). Ammonia levels are supportive but not definitive — a "normal" number in a still-confused patient (B) is not success; the mental status is the outcome measure. A sedative (C) is a named encephalopathy precipitant and masks the very LOC trend being followed — that order should have been questioned, not celebrated. Watery diarrhea (D) is overtitration: it dehydrates and deranges electrolytes, both of which can deepen the encephalopathy.

Common questions

What causes cirrhosis & its complications?
Common causes and risk factors include hepatitis c — a leading cause in the us; treatable with antivirals, alcohol-associated liver disease — abstinence is crucial, nash/masld (metabolic dysfunction-associated steatotic liver disease) — linked to obesity, diabetes, hypertension, high cholesterol; weight reduction ≥ 7% is beneficial, hepatitis b (with c, the leading cause worldwide) — treatable with antivirals, hepatotoxic drugs, and others.
What are the early signs of cirrhosis & its complications?
Early findings include Fatigue, poor appetite, weight loss, nausea, Spider nevi, palmar erythema, gynecomastia, amenorrhea.
Which findings should a nurse report immediately in cirrhosis & its complications?
Report immediately: Vomiting blood · black tarry stools, Fever or abdominal pain in a patient with ascites, New confusion or altered mental status, Variceal hemorrhage, Spontaneous bacterial peritonitis (SBP), and others. These signal deterioration that needs rapid intervention.
Do patients with cirrhosis need a low-protein diet?
No — this is the classic myth. Protein restriction is no longer recommended, even in hepatic encephalopathy: current recommendations are 1.2–1.5 g/kg/day of protein and 35–40 kcal/kg/day, eaten as small meals through the day plus a bedtime snack, because the diseased liver stores energy poorly. What is discouraged is a single huge protein load at once — spread it out, don’t restrict it.
Why does a cirrhosis patient with normal blood pressure take a beta-blocker?
The target is portal pressure, not blood pressure. Nonselective beta-blockers (propranolol, nadolol, carvedilol) lower cardiac output and splanchnic blood flow, dropping the hepatic venous pressure gradient — which cuts the risk of a first variceal bleed from about 25% to 15%, and after a bleed they are the therapy shown to reduce mortality.
What is the difference between compensated and decompensated cirrhosis?
Compensated cirrhosis is often symptom-free and found incidentally. Decompensation means one of five events has occurred: ascites, jaundice, hepatic encephalopathy, variceal bleeding, or hepatocellular carcinoma — and it changes the prognosis sharply, from roughly 47% ten-year survival to about 16%.

Sources

Reviewed by Hae Suk Lee, RN

Educational summary for nursing students. Scenarios are fictional teaching cases. Always verify against current guidelines and your institution's protocols before acting in practice. Not medical advice.

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