Literature DB >> 1437517

Capacity-limited renal glucuronidation of probenecid by humans. A pilot Vmax-finding study.

T B Vree1, E W Van Ewijk-Beneken Kolmer, E W Wuis, Y A Hekster.   

Abstract

Probenecid shows dose-dependent pharmacokinetics. When in one volunteer the dose is increased from 250 to 1,500 mg orally, the t1/2 increased from 3 to 6 h. The Cmax was 14 micrograms/ml with a dosage of 250 mg, 31 micrograms/ml with 500 mg, 70 micrograms/ml with 1,000 mg and 120 micrograms/ml with 1,500 mg. The tmax remained 1 h for all four dosages. The AUC/dose ratio increased with the dose, indicating nonlinear elimination. The total body clearance declined from 64.5 ml/min for 250 mg to 26.0 ml/min for 1,500 mg. The renal clearance of probenecid remained constant, 0.6-0.8 ml/min. Protein binding of probenecid is high (91%) and independent of the dose. The phase I metabolites show lower protein binding values (34-59%). The protein binding of probenecid glucuronide in vitro (spiked plasma) is 75%. Probenecid is metabolized by cytochrome P-450 to three phase I metabolites. Each of the metabolites accounts for less than 10% of the dose administered; the percentage recovered in the urine is independent of the dose. The main metabolite probenecid glucuronide is only present in urine and not in plasma. The renal excretion rate--time profile of probenecid glucuronide shows a plateau value of approximately 700 micrograms/min (46 mg/h) with acidic urine pH. The duration of this plateau value depends on the dose: 2 h at 500 mg, 10 h at 1,000 mg and 20 h at 1,500 mg. It is demonstrated that probenecid glucuronide must be formed in the kidney during its passage of the tubule. The plateau value in the renal excretion rate of probenecid value reflects its Vmax of formation.

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Year:  1992        PMID: 1437517     DOI: 10.1007/bf01977622

Source DB:  PubMed          Journal:  Pharm Weekbl Sci        ISSN: 0167-6555


  51 in total

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Authors:  A B GUTMAN; T F YU
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2.  Urinary excretion of probenecid and its metabolites in humans as a function of dose.

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Journal:  J Pharm Sci       Date:  1976-06       Impact factor: 3.534

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Authors:  K A Sinclair; J Caldwell
Journal:  Biochem Pharmacol       Date:  1982-03-15       Impact factor: 5.858

7.  Reversed-phase high-performance liquid chromatographic assay for the simultaneous determination of diflunisal and its glucuronides in serum and urine. Rearrangement of the 1-O-acylglucuronide.

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Journal:  J Chromatogr       Date:  1987-09-04

8.  Pharmacokinetics, N1-glucuronidation, and N4-acetylation of sulfa-6-monomethoxine in humans.

Authors:  T B Vree; E W Beneken Kolmer; Y A Hekster; M Shimoda; M Ono; T Miura
Journal:  Drug Metab Dispos       Date:  1990 Nov-Dec       Impact factor: 3.922

9.  Probenecid impairment of acetaminophen and lorazepam clearance: direct inhibition of ether glucuronide formation.

Authors:  D R Abernethy; D J Greenblatt; B Ameer; R I Shader
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Journal:  Pharm Weekbl Sci       Date:  1991-10-18
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3.  Direct measurement of probenecid and its glucuronide conjugate by means of high pressure liquid chromatography in plasma and urine of humans.

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Authors:  T B Vree; M van den Biggelaar-Martea; C P Verwey-van Wissen; E W van Ewijk-Beneken Kolmer
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6.  Direct gradient reversed-phase HPLC analysis and preliminary pharmacokinetics of nalidixic acid, 7-hydroxymethylnalidixic acid, 7-carboxynalidixic acid, and their corresponding glucuronide conjugates in humans.

Authors:  T B Vree; M van den Biggelaar-Martea; E W van Ewijk-Beneken Kolmer; Y A Hekster
Journal:  Pharm World Sci       Date:  1993-06-18

7.  Interindividual variation in the capacity-limited renal glucuronidation of probenecid by humans.

Authors:  T B Vree; E W Van Ewijk-Beneken Kolmer; E W Wuis; Y A Hekster; M M Broekman
Journal:  Pharm World Sci       Date:  1993-10-15

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10.  Physiologically Based Pharmacokinetic Models of Probenecid and Furosemide to Predict Transporter Mediated Drug-Drug Interactions.

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  10 in total

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