Drug Tissue Level

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The Experts below are selected from a list of 6 Experts worldwide ranked by ideXlab platform

Bianca M. Liederer - One of the best experts on this subject based on the ideXlab platform.

  • An Algorithm for Evaluating Potential Tissue Drug Distribution in Toxicology Studies from Readily Available Pharmacokinetic Parameters
    Journal of pharmaceutical sciences, 2013
    Co-Authors: Patrick Poulin, Donna Dambach, Dylan H. Hartley, Kevin A. Ford, Frank-peter Theil, Eric Harstad, Jason Halladay, Edna F. Choo, Jason Boggs, Bianca M. Liederer
    Abstract:

    ABSTRACT Having an understanding of Drug Tissue accumulation can be informative in the assessment of target organ toxicities; however, obtaining Tissue Drug Levels from toxicology studies by bioanalytical methods is labor-intensive and infrequently performed. Additionally, there are no described methods for predicting Tissue Drug distribution for the experimental conditions in toxicology studies, which typically include non-steady-state conditions and very high exposures that may saturate several processes. The aim was the development of an algorithm to provide semiquantitative and quantitative estimates of Tissue-to-plasma concentration ratios ( K p ) for several Tissues from readily available parameters of pharmacokinetics (PK) such as volume of distribution ( V d ) and clearance of each Drug, without performing Tissue measurement in vivo . The computational approach is specific for the oral route of administration and non-steady-state conditions and was applied for a dataset of 29 Genentech small molecules such as neutral compounds as well as weak and strong organic bases. The maximum success rate in predicting K p values within 2.5-fold error of observed K p values was 82% at low doses ( K p values was presented and applied successfully in most cases. An approach for the interspecies scaling was also applied successfully. Finally, the proposed algorithm was used in a case study and successfully predicted differential Tissue distribution of two small-molecule MET kinase inhibitors, which had different toxicity profiles in mice. This newly developed algorithm can be used to predict the partition coefficients K p for small molecules in toxicology studies, which can be leveraged to optimize the PK drivers of Tissue distribution in an attempt to decrease Drug Tissue Level, and improve safety margins.

Patrick Poulin - One of the best experts on this subject based on the ideXlab platform.

  • An Algorithm for Evaluating Potential Tissue Drug Distribution in Toxicology Studies from Readily Available Pharmacokinetic Parameters
    Journal of pharmaceutical sciences, 2013
    Co-Authors: Patrick Poulin, Donna Dambach, Dylan H. Hartley, Kevin A. Ford, Frank-peter Theil, Eric Harstad, Jason Halladay, Edna F. Choo, Jason Boggs, Bianca M. Liederer
    Abstract:

    ABSTRACT Having an understanding of Drug Tissue accumulation can be informative in the assessment of target organ toxicities; however, obtaining Tissue Drug Levels from toxicology studies by bioanalytical methods is labor-intensive and infrequently performed. Additionally, there are no described methods for predicting Tissue Drug distribution for the experimental conditions in toxicology studies, which typically include non-steady-state conditions and very high exposures that may saturate several processes. The aim was the development of an algorithm to provide semiquantitative and quantitative estimates of Tissue-to-plasma concentration ratios ( K p ) for several Tissues from readily available parameters of pharmacokinetics (PK) such as volume of distribution ( V d ) and clearance of each Drug, without performing Tissue measurement in vivo . The computational approach is specific for the oral route of administration and non-steady-state conditions and was applied for a dataset of 29 Genentech small molecules such as neutral compounds as well as weak and strong organic bases. The maximum success rate in predicting K p values within 2.5-fold error of observed K p values was 82% at low doses ( K p values was presented and applied successfully in most cases. An approach for the interspecies scaling was also applied successfully. Finally, the proposed algorithm was used in a case study and successfully predicted differential Tissue distribution of two small-molecule MET kinase inhibitors, which had different toxicity profiles in mice. This newly developed algorithm can be used to predict the partition coefficients K p for small molecules in toxicology studies, which can be leveraged to optimize the PK drivers of Tissue distribution in an attempt to decrease Drug Tissue Level, and improve safety margins.

Donna Dambach - One of the best experts on this subject based on the ideXlab platform.

  • An Algorithm for Evaluating Potential Tissue Drug Distribution in Toxicology Studies from Readily Available Pharmacokinetic Parameters
    Journal of pharmaceutical sciences, 2013
    Co-Authors: Patrick Poulin, Donna Dambach, Dylan H. Hartley, Kevin A. Ford, Frank-peter Theil, Eric Harstad, Jason Halladay, Edna F. Choo, Jason Boggs, Bianca M. Liederer
    Abstract:

    ABSTRACT Having an understanding of Drug Tissue accumulation can be informative in the assessment of target organ toxicities; however, obtaining Tissue Drug Levels from toxicology studies by bioanalytical methods is labor-intensive and infrequently performed. Additionally, there are no described methods for predicting Tissue Drug distribution for the experimental conditions in toxicology studies, which typically include non-steady-state conditions and very high exposures that may saturate several processes. The aim was the development of an algorithm to provide semiquantitative and quantitative estimates of Tissue-to-plasma concentration ratios ( K p ) for several Tissues from readily available parameters of pharmacokinetics (PK) such as volume of distribution ( V d ) and clearance of each Drug, without performing Tissue measurement in vivo . The computational approach is specific for the oral route of administration and non-steady-state conditions and was applied for a dataset of 29 Genentech small molecules such as neutral compounds as well as weak and strong organic bases. The maximum success rate in predicting K p values within 2.5-fold error of observed K p values was 82% at low doses ( K p values was presented and applied successfully in most cases. An approach for the interspecies scaling was also applied successfully. Finally, the proposed algorithm was used in a case study and successfully predicted differential Tissue distribution of two small-molecule MET kinase inhibitors, which had different toxicity profiles in mice. This newly developed algorithm can be used to predict the partition coefficients K p for small molecules in toxicology studies, which can be leveraged to optimize the PK drivers of Tissue distribution in an attempt to decrease Drug Tissue Level, and improve safety margins.

Dylan H. Hartley - One of the best experts on this subject based on the ideXlab platform.

  • An Algorithm for Evaluating Potential Tissue Drug Distribution in Toxicology Studies from Readily Available Pharmacokinetic Parameters
    Journal of pharmaceutical sciences, 2013
    Co-Authors: Patrick Poulin, Donna Dambach, Dylan H. Hartley, Kevin A. Ford, Frank-peter Theil, Eric Harstad, Jason Halladay, Edna F. Choo, Jason Boggs, Bianca M. Liederer
    Abstract:

    ABSTRACT Having an understanding of Drug Tissue accumulation can be informative in the assessment of target organ toxicities; however, obtaining Tissue Drug Levels from toxicology studies by bioanalytical methods is labor-intensive and infrequently performed. Additionally, there are no described methods for predicting Tissue Drug distribution for the experimental conditions in toxicology studies, which typically include non-steady-state conditions and very high exposures that may saturate several processes. The aim was the development of an algorithm to provide semiquantitative and quantitative estimates of Tissue-to-plasma concentration ratios ( K p ) for several Tissues from readily available parameters of pharmacokinetics (PK) such as volume of distribution ( V d ) and clearance of each Drug, without performing Tissue measurement in vivo . The computational approach is specific for the oral route of administration and non-steady-state conditions and was applied for a dataset of 29 Genentech small molecules such as neutral compounds as well as weak and strong organic bases. The maximum success rate in predicting K p values within 2.5-fold error of observed K p values was 82% at low doses ( K p values was presented and applied successfully in most cases. An approach for the interspecies scaling was also applied successfully. Finally, the proposed algorithm was used in a case study and successfully predicted differential Tissue distribution of two small-molecule MET kinase inhibitors, which had different toxicity profiles in mice. This newly developed algorithm can be used to predict the partition coefficients K p for small molecules in toxicology studies, which can be leveraged to optimize the PK drivers of Tissue distribution in an attempt to decrease Drug Tissue Level, and improve safety margins.

Kevin A. Ford - One of the best experts on this subject based on the ideXlab platform.

  • An Algorithm for Evaluating Potential Tissue Drug Distribution in Toxicology Studies from Readily Available Pharmacokinetic Parameters
    Journal of pharmaceutical sciences, 2013
    Co-Authors: Patrick Poulin, Donna Dambach, Dylan H. Hartley, Kevin A. Ford, Frank-peter Theil, Eric Harstad, Jason Halladay, Edna F. Choo, Jason Boggs, Bianca M. Liederer
    Abstract:

    ABSTRACT Having an understanding of Drug Tissue accumulation can be informative in the assessment of target organ toxicities; however, obtaining Tissue Drug Levels from toxicology studies by bioanalytical methods is labor-intensive and infrequently performed. Additionally, there are no described methods for predicting Tissue Drug distribution for the experimental conditions in toxicology studies, which typically include non-steady-state conditions and very high exposures that may saturate several processes. The aim was the development of an algorithm to provide semiquantitative and quantitative estimates of Tissue-to-plasma concentration ratios ( K p ) for several Tissues from readily available parameters of pharmacokinetics (PK) such as volume of distribution ( V d ) and clearance of each Drug, without performing Tissue measurement in vivo . The computational approach is specific for the oral route of administration and non-steady-state conditions and was applied for a dataset of 29 Genentech small molecules such as neutral compounds as well as weak and strong organic bases. The maximum success rate in predicting K p values within 2.5-fold error of observed K p values was 82% at low doses ( K p values was presented and applied successfully in most cases. An approach for the interspecies scaling was also applied successfully. Finally, the proposed algorithm was used in a case study and successfully predicted differential Tissue distribution of two small-molecule MET kinase inhibitors, which had different toxicity profiles in mice. This newly developed algorithm can be used to predict the partition coefficients K p for small molecules in toxicology studies, which can be leveraged to optimize the PK drivers of Tissue distribution in an attempt to decrease Drug Tissue Level, and improve safety margins.