To scale or not to scale: the principles of dose extrapolation

The principles of inter‐species dose extrapolation are poorly understood and applied. We provide an overview of the principles underlying dose scaling for size and dose adjustment for size‐independent differences. Scaling of a dose is required in three main situations: the anticipation of first‐in‐h...

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Published inBritish journal of pharmacology Vol. 157; no. 6; pp. 907 - 921
Main Authors Sharma, Vijay, McNeill, John H
Format Journal Article
LanguageEnglish
Published Oxford, UK Blackwell Publishing Ltd 01.07.2009
Nature Publishing Group
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Abstract The principles of inter‐species dose extrapolation are poorly understood and applied. We provide an overview of the principles underlying dose scaling for size and dose adjustment for size‐independent differences. Scaling of a dose is required in three main situations: the anticipation of first‐in‐human doses for clinical trials, dose extrapolation in veterinary practice and dose extrapolation for experimental purposes. Each of these situations is discussed. Allometric scaling of drug doses is commonly used for practical reasons, but can be more accurate when one takes into account species differences in pharmacokinetic parameters (clearance, volume of distribution). Simple scaling of drug doses can be misleading for some drugs; correction for protein binding, physicochemical properties of the drug or species differences in physiological time can improve scaling. However, differences in drug transport and metabolism, and in the dose–response relationship, can override the effect of size alone. For this reason, a range of modelling approaches have been developed, which combine in silico simulations with data obtained in vitro and/or in vivo. Drugs that are unlikely to be amenable to simple allometric scaling of their clearance or dose include drugs that are highly protein‐bound, drugs that undergo extensive metabolism and active transport, drugs that undergo significant biliary excretion (MW > 500, ampiphilic, conjugated), drugs whose targets are subject to inter‐species differences in expression, affinity and distribution and drugs that undergo extensive renal secretion. In addition to inter‐species dose extrapolation, we provide an overview of dose extrapolation within species, discussing drug dosing in paediatrics and in the elderly.
AbstractList The principles of inter‐species dose extrapolation are poorly understood and applied. We provide an overview of the principles underlying dose scaling for size and dose adjustment for size‐independent differences. Scaling of a dose is required in three main situations: the anticipation of first‐in‐human doses for clinical trials, dose extrapolation in veterinary practice and dose extrapolation for experimental purposes. Each of these situations is discussed. Allometric scaling of drug doses is commonly used for practical reasons, but can be more accurate when one takes into account species differences in pharmacokinetic parameters (clearance, volume of distribution). Simple scaling of drug doses can be misleading for some drugs; correction for protein binding, physicochemical properties of the drug or species differences in physiological time can improve scaling. However, differences in drug transport and metabolism, and in the dose–response relationship, can override the effect of size alone. For this reason, a range of modelling approaches have been developed, which combine in silico simulations with data obtained in vitro and/or in vivo . Drugs that are unlikely to be amenable to simple allometric scaling of their clearance or dose include drugs that are highly protein‐bound, drugs that undergo extensive metabolism and active transport, drugs that undergo significant biliary excretion (MW > 500, ampiphilic, conjugated), drugs whose targets are subject to inter‐species differences in expression, affinity and distribution and drugs that undergo extensive renal secretion. In addition to inter‐species dose extrapolation, we provide an overview of dose extrapolation within species, discussing drug dosing in paediatrics and in the elderly.
The principles of inter‐species dose extrapolation are poorly understood and applied. We provide an overview of the principles underlying dose scaling for size and dose adjustment for size‐independent differences. Scaling of a dose is required in three main situations: the anticipation of first‐in‐human doses for clinical trials, dose extrapolation in veterinary practice and dose extrapolation for experimental purposes. Each of these situations is discussed. Allometric scaling of drug doses is commonly used for practical reasons, but can be more accurate when one takes into account species differences in pharmacokinetic parameters (clearance, volume of distribution). Simple scaling of drug doses can be misleading for some drugs; correction for protein binding, physicochemical properties of the drug or species differences in physiological time can improve scaling. However, differences in drug transport and metabolism, and in the dose–response relationship, can override the effect of size alone. For this reason, a range of modelling approaches have been developed, which combine in silico simulations with data obtained in vitro and/or in vivo. Drugs that are unlikely to be amenable to simple allometric scaling of their clearance or dose include drugs that are highly protein‐bound, drugs that undergo extensive metabolism and active transport, drugs that undergo significant biliary excretion (MW > 500, ampiphilic, conjugated), drugs whose targets are subject to inter‐species differences in expression, affinity and distribution and drugs that undergo extensive renal secretion. In addition to inter‐species dose extrapolation, we provide an overview of dose extrapolation within species, discussing drug dosing in paediatrics and in the elderly.
The principles of inter-species dose extrapolation are poorly understood and applied. We provide an overview of the principles underlying dose scaling for size and dose adjustment for size-independent differences. Scaling of a dose is required in three main situations: the anticipation of first-in-human doses for clinical trials, dose extrapolation in veterinary practice and dose extrapolation for experimental purposes. Each of these situations is discussed. Allometric scaling of drug doses is commonly used for practical reasons, but can be more accurate when one takes into account species differences in pharmacokinetic parameters (clearance, volume of distribution). Simple scaling of drug doses can be misleading for some drugs; correction for protein binding, physicochemical properties of the drug or species differences in physiological time can improve scaling. However, differences in drug transport and metabolism, and in the dose-response relationship, can override the effect of size alone. For this reason, a range of modelling approaches have been developed, which combine in silico simulations with data obtained in vitro and/or in vivo. Drugs that are unlikely to be amenable to simple allometric scaling of their clearance or dose include drugs that are highly protein-bound, drugs that undergo extensive metabolism and active transport, drugs that undergo significant biliary excretion (MW > 500, ampiphilic, conjugated), drugs whose targets are subject to inter-species differences in expression, affinity and distribution and drugs that undergo extensive renal secretion. In addition to inter-species dose extrapolation, we provide an overview of dose extrapolation within species, discussing drug dosing in paediatrics and in the elderly.The principles of inter-species dose extrapolation are poorly understood and applied. We provide an overview of the principles underlying dose scaling for size and dose adjustment for size-independent differences. Scaling of a dose is required in three main situations: the anticipation of first-in-human doses for clinical trials, dose extrapolation in veterinary practice and dose extrapolation for experimental purposes. Each of these situations is discussed. Allometric scaling of drug doses is commonly used for practical reasons, but can be more accurate when one takes into account species differences in pharmacokinetic parameters (clearance, volume of distribution). Simple scaling of drug doses can be misleading for some drugs; correction for protein binding, physicochemical properties of the drug or species differences in physiological time can improve scaling. However, differences in drug transport and metabolism, and in the dose-response relationship, can override the effect of size alone. For this reason, a range of modelling approaches have been developed, which combine in silico simulations with data obtained in vitro and/or in vivo. Drugs that are unlikely to be amenable to simple allometric scaling of their clearance or dose include drugs that are highly protein-bound, drugs that undergo extensive metabolism and active transport, drugs that undergo significant biliary excretion (MW > 500, ampiphilic, conjugated), drugs whose targets are subject to inter-species differences in expression, affinity and distribution and drugs that undergo extensive renal secretion. In addition to inter-species dose extrapolation, we provide an overview of dose extrapolation within species, discussing drug dosing in paediatrics and in the elderly.
Author Sharma, Vijay
McNeill, John H
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  givenname: Vijay
  surname: Sharma
  fullname: Sharma, Vijay
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  givenname: John H
  surname: McNeill
  fullname: McNeill, John H
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https://www.ncbi.nlm.nih.gov/pubmed/19508398$$D View this record in MEDLINE/PubMed
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Issue 6
Keywords Human
allometric scaling
species difference
physiological time
pharmacodynamics
paediatric dosing
dose extrapolation
Pharmacokinetics
Child
Species
Biological activity
body surface area
Language English
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Snippet The principles of inter‐species dose extrapolation are poorly understood and applied. We provide an overview of the principles underlying dose scaling for size...
The principles of inter-species dose extrapolation are poorly understood and applied. We provide an overview of the principles underlying dose scaling for size...
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SubjectTerms Age Factors
allometric scaling
Animals
Biological and medical sciences
body surface area
dose extrapolation
Dose-Response Relationship, Drug
Drug Delivery Systems - methods
Drug Delivery Systems - standards
Drug Delivery Systems - trends
Drug Evaluation, Preclinical - methods
Drug Evaluation, Preclinical - standards
Drug Evaluation, Preclinical - trends
Humans
Medical sciences
Models, Animal
paediatric dosing
Pharmaceutical Preparations - administration & dosage
Pharmaceutical Preparations - metabolism
Pharmaceutical Preparations - standards
pharmacodynamics
pharmacokinetics
Pharmacology. Drug treatments
physiological time
Practice Guidelines as Topic - standards
Reviews
species difference
Species Specificity
Title To scale or not to scale: the principles of dose extrapolation
URI https://onlinelibrary.wiley.com/doi/abs/10.1111%2Fj.1476-5381.2009.00267.x
https://www.ncbi.nlm.nih.gov/pubmed/19508398
https://www.proquest.com/docview/733569952
https://pubmed.ncbi.nlm.nih.gov/PMC2737649
Volume 157
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