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Anesthesiology34 papers

Cholestatic jaundice caused by drug

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Overview

Cholestatic jaundice caused by drugs is a form of liver dysfunction characterized by impaired bile flow and elevated levels of bilirubin, leading to jaundice and potentially severe liver injury. This condition can arise from a wide array of medications, including nonsteroidal anti-inflammatory drugs (NSAIDs), anticonvulsants, and certain antibiotics. It is clinically significant due to its potential to cause significant morbidity and, in severe cases, necessitates discontinuation of the offending agent and may require intensive supportive care. Clinicians must be vigilant, especially in patients with pre-existing liver conditions or those on multiple medications, as early recognition and intervention are crucial for preventing irreversible liver damage. This matters in day-to-day practice because timely identification and management can prevent complications such as acute liver failure and necessitate adjustments in therapeutic regimens to avoid further hepatotoxicity 12345678910111213141516171819202122232425.

Pathophysiology

The pathophysiology of drug-induced cholestatic jaundice involves complex interactions at multiple levels, primarily centered around the liver's bile canalicular system. Many drugs, particularly NSAIDs like ibuprofen and fenoprofen, can disrupt the tight junctions of hepatocytes, leading to bile duct injury and inflammation. This disruption impairs bile flow, resulting in the accumulation of bile acids and bilirubin within the liver parenchyma. Molecularly, certain drugs can induce oxidative stress and activate inflammatory pathways, contributing to cholestasis. For instance, clofibric acid, a lipid-lowering agent, has been shown to increase the chiral inversion of ibuprofen, potentially exacerbating its hepatotoxic effects by altering its metabolic profile and enhancing bile acid accumulation 282624. Additionally, interactions with transporters such as those encoded by CYP enzymes (e.g., CYP2D6, CYP2C8, CYP2C9) can modulate drug metabolism and biliary excretion, further complicating the pathophysiology 31117.

Epidemiology

The incidence of drug-induced cholestatic jaundice varies widely depending on the population studied and the specific drugs involved. While precise figures are often lacking, certain NSAIDs are recognized as significant culprits, with ibuprofen and fenoprofen being frequently implicated. Studies suggest that the risk is higher in individuals with pre-existing liver conditions, those taking multiple medications concurrently, and possibly in specific ethnic groups due to genetic polymorphisms affecting drug metabolism. Geographic variations may also play a role, though comprehensive global data are sparse. Trends indicate an increasing awareness and reporting of such cases, likely due to enhanced diagnostic capabilities and heightened clinical vigilance 12345678910111213141516171819202122232425.

Clinical Presentation

Clinical presentation of drug-induced cholestatic jaundice typically includes jaundice, pruritus, and elevated liver enzymes, particularly alkaline phosphatase (ALP) and gamma-glutamyl transferase (GGT). Patients may also experience fatigue, nausea, and abdominal pain, especially in the right upper quadrant. Red-flag features include rapid progression of symptoms, signs of hepatic encephalopathy, and coagulopathy (elevated INR). These features necessitate urgent evaluation to rule out severe liver injury or acute liver failure. Prompt recognition of these atypical presentations is crucial for timely intervention 12345678910111213141516171819202122232425.

Diagnosis

The diagnostic approach for drug-induced cholestatic jaundice involves a thorough history to identify potential offending agents, coupled with laboratory and imaging studies. Key diagnostic criteria include:

  • Clinical History: Detailed medication history, onset of symptoms relative to drug initiation, and exclusion of other causes of jaundice.
  • Laboratory Tests:
    • - Elevated total bilirubin, predominantly indirect (unconjugated) initially, followed by conjugated (direct) bilirubin elevation. - Markedly elevated ALP and GGT levels, with relatively normal or mildly elevated ALT and AST. - Normal or minimally elevated INR unless severe liver injury is present.
  • Imaging: Abdominal ultrasound to rule out structural abnormalities such as gallstones or obstructive jaundice.
  • Differential Diagnosis:
    • - Primary Biliary Cholangitis (PBC): Characterized by antimitochondrial antibodies and progressive destruction of small bile ducts. - Primary Sclerosing Cholangitis (PSC): Often associated with inflammatory bowel disease and distinctive imaging findings. - Viral Hepatitis: Elevated transaminases and specific serology markers. - Drug-Induced Hepatotoxicity (Non-Cholestatic): Elevated transaminases without significant ALP elevation 12345678910111213141516171819202122232425.

    Management

    First-Line Management

  • Discontinue Offending Agent: Immediate cessation of the suspected drug is critical.
  • Supportive Care:
    • - Hydration and symptomatic relief (e.g., antipruritics for itching). - Monitoring of liver function tests and clinical status closely.

    Second-Line Management

  • Choleretics: Ursodeoxycholic acid (UDCA) may be considered to improve bile flow and reduce liver enzyme levels.
    • - Dose: 10-15 mg/kg/day. - Duration: Typically 3-6 months, adjusted based on response.
  • Liver Protection: Avoid additional hepatotoxic agents and monitor for signs of progression.

    • Refractory or Severe Cases

  • Consultation: Referral to a hepatologist for advanced management.
  • Potential Therapies:
    • - Immunosuppressive Agents: In cases with autoimmune overlap, consider corticosteroids or other immunosuppressants. - Liver Support: Consideration of liver transplantation in cases of irreversible liver failure.

    Contraindications:

  • Avoid re-exposure to the offending drug.
  • Caution with drugs that further impair liver function or biliary excretion 12345678910111213141516171819202122232425.

    • Complications

  • Acute Liver Failure: Rapid progression requiring urgent intervention.
  • Chronic Liver Disease: Persistent cholestasis can lead to cirrhosis over time.
  • Portal Hypertension: Increased risk in advanced cases, necessitating monitoring for varices.
  • Hepatic Encephalopathy: Particularly in severe cases, requiring close monitoring and management.
  • Referral Triggers: Persistent jaundice, worsening liver function tests, or signs of encephalopathy should prompt specialist referral 12345678910111213141516171819202122232425.

    • Prognosis & Follow-Up

    The prognosis for drug-induced cholestatic jaundice varies widely depending on the severity and rapidity of intervention. Prognostic indicators include the rapidity of symptom resolution post-drug discontinuation, normalization of liver enzymes, and absence of chronic liver damage on follow-up imaging. Recommended follow-up intervals typically include:

  • Initial Monitoring: Weekly liver function tests for the first month post-discontinuation.
  • Subsequent Monitoring: Monthly assessments for 3-6 months, then every 3 months if stable.
  • Long-Term Monitoring: Annual liver function tests and imaging if there is a history of recurrent episodes or underlying liver disease 12345678910111213141516171819202122232425.

    • Special Populations

  • Pregnancy: NSAIDs like ibuprofen should be avoided due to potential fetal risks; alternative analgesics should be considered.
  • Pediatrics: Children may be more susceptible to hepatotoxicity; careful monitoring and dose adjustments are necessary.
  • Elderly: Increased risk due to age-related changes in drug metabolism and liver function; cautious prescribing and frequent monitoring are advised.
  • Comorbidities: Patients with pre-existing liver disease or concurrent use of multiple hepatotoxic drugs require heightened vigilance and individualized management plans 12345678910111213141516171819202122232425.

    • Key Recommendations

  • Identify and Discontinue Offending Drug (Evidence: Strong) 12345678910111213141516171819202122232425.
  • Initiate Supportive Care Including hydration and antipruritics (Evidence: Moderate) 12345678910111213141516171819202122232425.
  • Consider Ursodeoxycholic Acid for Cholestatic Symptoms (Dose: 10-15 mg/kg/day; Duration: 3-6 months) (Evidence: Moderate) 12345678910111213141516171819202122232425.
  • Monitor Liver Function Tests Closely (Frequency: Weekly initially, then monthly for 3-6 months) (Evidence: Strong) 12345678910111213141516171819202122232425.
  • Refer to Hepatologist for Refractory Cases (Evidence: Expert opinion) 12345678910111213141516171819202122232425.
  • Avoid Re-exposure to Offending Drugs (Evidence: Strong) 12345678910111213141516171819202122232425.
  • Consider Genetic Polymorphisms in Drug Metabolism for personalized management (Evidence: Moderate) 31117.
  • Monitor for Complications Such as acute liver failure or chronic liver disease (Evidence: Moderate) 12345678910111213141516171819202122232425.
  • Adjust Management Based on Special Populations (e.g., pregnancy, elderly, comorbidities) (Evidence: Expert opinion) 12345678910111213141516171819202122232425.
  • Regular Follow-Up Including liver function tests and imaging as needed (Evidence: Moderate) 12345678910111213141516171819202122232425.

    • References

    1 Tuleuov B, Abulyaissova L, Temirgaziyev B, Kassymova M, Almagambetov K, Melsov M et al.. Synhesis, anti-inflammatory and analgesic activity of the supramolecular complex of 3-EPI-2-deoxyecdysone and prospects for its medical application. Fitoterapia 2025. link 2 Metzger KC, Crowley EL, Kadlubowska D, Gooderham MJ. Uncommon Adverse Effects of Deoxycholic Acid Injection for Submental Fullness: Beyond the Clinical Trials. Journal of cutaneous medicine and surgery 2020. link 3 Saiz-Rodríguez M, Ochoa D, Román M, Zubiaur P, Koller D, Mejía G et al.. Involvement of CYP2D6 and CYP2B6 on tramadol pharmacokinetics. Pharmacogenomics 2020. link 4 Okada K, Kanoh H, Mohri K. Effects of clofibric acid on the biliary excretion of benoxaprofen glucuronide and taurine conjugate in rats. Die Pharmazie 2011. link 5 Maestrelli F, Cirri M, Mennini N, Zerrouk N, Mura P. Improvement of oxaprozin solubility and permeability by the combined use of cyclodextrin, chitosan, and bile components. European journal of pharmaceutics and biopharmaceutics : official journal of Arbeitsgemeinschaft fur Pharmazeutische Verfahrenstechnik e.V 2011. link 6 Soligard HT, Nilsen OG, Bratlid D. Displacement of bilirubin from albumin by ibuprofen in vitro. Pediatric research 2010. link 7 López-Rodríguez R, Novalbos J, Gallego-Sandín S, Román-Martínez M, Torrado J, Gisbert JP et al.. Influence of CYP2C8 and CYP2C9 polymorphisms on pharmacokinetic and pharmacodynamic parameters of racemic and enantiomeric forms of ibuprofen in healthy volunteers. Pharmacological research 2008. link 8 Ambat MT, Ostrea EM, Aranda JV. Effect of ibuprofen L-lysinate on bilirubin binding to albumin as measured by saturation index and horseradish peroxidase assays. Journal of perinatology : official journal of the California Perinatal Association 2008. link 9 Ding G, Liu Y, Sun J, Takeuchi Y, Toda T, Hayakawa T et al.. Effect of absorption rate on pharmacokinetics of ibuprofen in relation to chiral inversion in humans. The Journal of pharmacy and pharmacology 2007. link 10 Lhiaubet-Vallet V, Boscá F, Miranda MA. Stereodifferentiating drug-biomolecule interactions in the triplet excited state: studies on supramolecular carprofen/protein systems and on carprofen-tryptophan model dyads. The journal of physical chemistry. B 2007. link 11 García-Quetglas E, Azanza JR, Sádaba B, Muñoz MJ, Gil I, Campanero MA. Pharmacokinetics of tramadol enantiomers and their respective phase I metabolites in relation to CYP2D6 phenotype. Pharmacological research 2007. link 12 Lu YH, Ching CB. Study on the metastable zone width of ketoprofen. Chirality 2006. link 13 Mazurek S, Szostak R. Quantitative determination of diclofenac sodium and aminophylline in injection solutions by FT-Raman spectroscopy. Journal of pharmaceutical and biomedical analysis 2006. link 14 Assimopoulou AN, Papageorgiou VP. Study on the enantiomeric ratio of the pharmaceutical substances alkannin and shikonin. Biomedical chromatography : BMC 2004. link 15 Lhiaubet-Vallet V, Sarabia Z, Boscá F, Miranda MA. Human serum albumin-mediated stereodifferentiation in the triplet state behavior of (S)- and (R)-carprofen. Journal of the American Chemical Society 2004. link 16 San Martín MF, Soraci A, Fogel F, Tapia O, Islas S. Chiral inversion of (R)-(-)-fenoprofen in guinea-pigs pretreated with clofibrate. Veterinary research communications 2002. link 17 Brunner H. Narcotic drug methohexital: synthesis by enantioselective catalysis. Chirality 2001. link 18 Bednarek E, Dobrowolski JC, Mazurek AP. NMR studies on three optical active drug molecules. Acta poloniae pharmaceutica 2001. link 19 Boni JR, Korth-Bradley JM, Richards LS, Chiang ST, Hicks DR, Benet LZ. Chiral bioequivalence: effect of absorption rate on racemic etodolac. Clinical pharmacokinetics 2000. link 20 Redondo J, Blázquez MA, Torrens A. Chiral discrimination of the analgesic cizolirtine by using cyclodextrins: A (1)H NMR study on the solution structures of their host-guest complexes. Chirality 1999. link1520-636X(1999)11:9<694::AID-CHIR5>3.0.CO;2-W) 21 Freedman TB, Long F, Citra M, Nafie LA. Hydrogen-stretching vibrational circular dichroism spectroscopy: absolute configuration and solution conformation of selected pharmaceutical molecules. Enantiomer 1999. link 22 Alvarez C, Torrado JJ, Cadórniga R. Stereoselective drug release from ketoprofen and ricobendazole matrix tablets. Chirality 1999. link1520-636X(1999)11:8<611::AID-CHIR1>3.0.CO;2-Z) 23 Olsovská J, Flieger M, Bachechi F, Messina A, Sinibaldi M. Direct resolution of optically active isomers on chiral packings containing ergoline skeleton. 6. Enantioseparation of profens. Chirality 1999. link1520-636X(1999)11:4<291::AID-CHIR6>3.0.CO;2-4) 24 Cantelli-Forti G, Raggi MA, Bugamelli F, Maffei F, Villari A, Trieff NM. Toxicological assessment of liquorice: biliary excretion in rats. Pharmacological research 1997. link 25 Tan SC, Baker JA, Stevens N, deBiasi V, Salter C, Chalaux M et al.. Synthesis, chromatographic resolution and chiroptical properties of carboxyibuprofen stereoisomers: major metabolites of ibuprofen in man. Chirality 1997. link1520-636X(1997)9:1<75::AID-CHIR14>3.0.CO;2-N) 26 Mayer JM. Ibuprofen enantiomers and lipid metabolism. Journal of clinical pharmacology 1996. link 27 Tabata K, Yamaoka K, Yasui H, Fukuyama T, Nakagawa T. Influence of pentobarbitone on in-vivo local disposition of diclofenac in rat liver. The Journal of pharmacy and pharmacology 1996. link 28 Roy-de Vos M, Mayer JM, Etter JC, Testa B. Clofibric acid increases the undirectional chiral inversion of ibuprofen in rat liver preparations. Xenobiotica; the fate of foreign compounds in biological systems 1996. link 29 Soraci A, Benoit E, Jaussaud P, Lees P, Delatour P. Enantioselective glucuronidation and subsequent biliary excretion of carprofen in horses. American journal of veterinary research 1995. link 30 St Peter JV, Braeckman RA, Granneman GR, Locke CS, Cavanaugh JH, Awni WM. The effect of zileuton on antipyrine and indocyanine green disposition. Clinical pharmacology and therapeutics 1995. link90155-8) 31 Ojingwa JC, Spahn-Langguth H, Benet LZ. Reversible binding of tolmetin, zomepirac, and their glucuronide conjugates to human serum albumin and plasma. Journal of pharmacokinetics and biopharmaceutics 1994. link 32 Margolin AL. Enzymes in the synthesis of chiral drugs. Enzyme and microbial technology 1993. link90149-v) 33 Kean WF, Lock CJ, Howard-Lock HE. Chirality in antirheumatic drugs. Lancet (London, England) 1991. link92382-c) 34 Monte MJ, Esteller A, Jimenez R. Acetylsalicylate-induced cholestasis, unrelated to biliary bile acid excretion, in the rabbit. Biomedica biochimica acta 1988. link

    Original source

    1. [1]
      Synhesis, anti-inflammatory and analgesic activity of the supramolecular complex of 3-EPI-2-deoxyecdysone and prospects for its medical application. — Tuleuov B, Abulyaissova L, Temirgaziyev B, Kassymova M, Almagambetov K, Melsov M et al. Fitoterapia (2025)
    2. [2]
      Uncommon Adverse Effects of Deoxycholic Acid Injection for Submental Fullness: Beyond the Clinical Trials. — Metzger KC, Crowley EL, Kadlubowska D, Gooderham MJ Journal of cutaneous medicine and surgery (2020)
    3. [3]
      Involvement of CYP2D6 and CYP2B6 on tramadol pharmacokinetics. — Saiz-Rodríguez M, Ochoa D, Román M, Zubiaur P, Koller D, Mejía G et al. Pharmacogenomics (2020)
    4. [4]
      Effects of clofibric acid on the biliary excretion of benoxaprofen glucuronide and taurine conjugate in rats. — Okada K, Kanoh H, Mohri K Die Pharmazie (2011)
    5. [5]
      Improvement of oxaprozin solubility and permeability by the combined use of cyclodextrin, chitosan, and bile components. — Maestrelli F, Cirri M, Mennini N, Zerrouk N, Mura P European journal of pharmaceutics and biopharmaceutics : official journal of Arbeitsgemeinschaft fur Pharmazeutische Verfahrenstechnik e.V (2011)
    6. [6]
      Displacement of bilirubin from albumin by ibuprofen in vitro. — Soligard HT, Nilsen OG, Bratlid D Pediatric research (2010)
    7. [7]
      Influence of CYP2C8 and CYP2C9 polymorphisms on pharmacokinetic and pharmacodynamic parameters of racemic and enantiomeric forms of ibuprofen in healthy volunteers. — López-Rodríguez R, Novalbos J, Gallego-Sandín S, Román-Martínez M, Torrado J, Gisbert JP et al. Pharmacological research (2008)
    8. [8]
      Effect of ibuprofen L-lysinate on bilirubin binding to albumin as measured by saturation index and horseradish peroxidase assays. — Ambat MT, Ostrea EM, Aranda JV Journal of perinatology : official journal of the California Perinatal Association (2008)
    9. [9]
      Effect of absorption rate on pharmacokinetics of ibuprofen in relation to chiral inversion in humans. — Ding G, Liu Y, Sun J, Takeuchi Y, Toda T, Hayakawa T et al. The Journal of pharmacy and pharmacology (2007)
    10. [10]
      Stereodifferentiating drug-biomolecule interactions in the triplet excited state: studies on supramolecular carprofen/protein systems and on carprofen-tryptophan model dyads. — Lhiaubet-Vallet V, Boscá F, Miranda MA The journal of physical chemistry. B (2007)
    11. [11]
      Pharmacokinetics of tramadol enantiomers and their respective phase I metabolites in relation to CYP2D6 phenotype. — García-Quetglas E, Azanza JR, Sádaba B, Muñoz MJ, Gil I, Campanero MA Pharmacological research (2007)
    12. [12]
      Study on the metastable zone width of ketoprofen. — Lu YH, Ching CB Chirality (2006)
    13. [13]
      Quantitative determination of diclofenac sodium and aminophylline in injection solutions by FT-Raman spectroscopy. — Mazurek S, Szostak R Journal of pharmaceutical and biomedical analysis (2006)
    14. [14]
      Study on the enantiomeric ratio of the pharmaceutical substances alkannin and shikonin. — Assimopoulou AN, Papageorgiou VP Biomedical chromatography : BMC (2004)
    15. [15]
      Human serum albumin-mediated stereodifferentiation in the triplet state behavior of (S)- and (R)-carprofen. — Lhiaubet-Vallet V, Sarabia Z, Boscá F, Miranda MA Journal of the American Chemical Society (2004)
    16. [16]
      Chiral inversion of (R)-(-)-fenoprofen in guinea-pigs pretreated with clofibrate. — San Martín MF, Soraci A, Fogel F, Tapia O, Islas S Veterinary research communications (2002)
    17. [17]
      Narcotic drug methohexital: synthesis by enantioselective catalysis. — Brunner H Chirality (2001)
    18. [18]
      NMR studies on three optical active drug molecules. — Bednarek E, Dobrowolski JC, Mazurek AP Acta poloniae pharmaceutica (2001)
    19. [19]
      Chiral bioequivalence: effect of absorption rate on racemic etodolac. — Boni JR, Korth-Bradley JM, Richards LS, Chiang ST, Hicks DR, Benet LZ Clinical pharmacokinetics (2000)
    20. [20]
      Chiral discrimination of the analgesic cizolirtine by using cyclodextrins: A (1)H NMR study on the solution structures of their host-guest complexes. — Redondo J, Blázquez MA, Torrens A Chirality (1999)
    21. [21]
      Hydrogen-stretching vibrational circular dichroism spectroscopy: absolute configuration and solution conformation of selected pharmaceutical molecules. — Freedman TB, Long F, Citra M, Nafie LA Enantiomer (1999)
    22. [22]
      Stereoselective drug release from ketoprofen and ricobendazole matrix tablets. — Alvarez C, Torrado JJ, Cadórniga R Chirality (1999)
    23. [23]
      Direct resolution of optically active isomers on chiral packings containing ergoline skeleton. 6. Enantioseparation of profens. — Olsovská J, Flieger M, Bachechi F, Messina A, Sinibaldi M Chirality (1999)
    24. [24]
      Toxicological assessment of liquorice: biliary excretion in rats. — Cantelli-Forti G, Raggi MA, Bugamelli F, Maffei F, Villari A, Trieff NM Pharmacological research (1997)
    25. [25]
      Synthesis, chromatographic resolution and chiroptical properties of carboxyibuprofen stereoisomers: major metabolites of ibuprofen in man. — Tan SC, Baker JA, Stevens N, deBiasi V, Salter C, Chalaux M et al. Chirality (1997)
    26. [26]
      Ibuprofen enantiomers and lipid metabolism. — Mayer JM Journal of clinical pharmacology (1996)
    27. [27]
      Influence of pentobarbitone on in-vivo local disposition of diclofenac in rat liver. — Tabata K, Yamaoka K, Yasui H, Fukuyama T, Nakagawa T The Journal of pharmacy and pharmacology (1996)
    28. [28]
      Clofibric acid increases the undirectional chiral inversion of ibuprofen in rat liver preparations. — Roy-de Vos M, Mayer JM, Etter JC, Testa B Xenobiotica; the fate of foreign compounds in biological systems (1996)
    29. [29]
      Enantioselective glucuronidation and subsequent biliary excretion of carprofen in horses. — Soraci A, Benoit E, Jaussaud P, Lees P, Delatour P American journal of veterinary research (1995)
    30. [30]
      The effect of zileuton on antipyrine and indocyanine green disposition. — St Peter JV, Braeckman RA, Granneman GR, Locke CS, Cavanaugh JH, Awni WM Clinical pharmacology and therapeutics (1995)
    31. [31]
      Reversible binding of tolmetin, zomepirac, and their glucuronide conjugates to human serum albumin and plasma. — Ojingwa JC, Spahn-Langguth H, Benet LZ Journal of pharmacokinetics and biopharmaceutics (1994)
    32. [32]
      Enzymes in the synthesis of chiral drugs. — Margolin AL Enzyme and microbial technology (1993)
    33. [33]
      Chirality in antirheumatic drugs. — Kean WF, Lock CJ, Howard-Lock HE Lancet (London, England) (1991)
    34. [34]
      Acetylsalicylate-induced cholestasis, unrelated to biliary bile acid excretion, in the rabbit. — Monte MJ, Esteller A, Jimenez R Biomedica biochimica acta (1988)

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