New developments in using stochastic recipe for multi-compartment
model: Inter-compartment traveling route, residence time, and
exponential convolution expansion
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1.
School of Pharmacy and Department of Statistics, The Ohio State University, 500 12th West Avenue, Columbus, OH 43210
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Received:
01 November 2007
Accepted:
29 June 2018
Published:
01 June 2009
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MSC :
Primary: 00A69; Secondary: 00A71.
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Drug residence time in ''compartmentalized'' human body system had been studied
from both deterministic and Markovian perspectives. However, probability and
probability density functions for a drug molecule to be (1) in any
compartment of study interest, (2) with any defined inter-compartment
traveling route, and (3) with/without specified residence times in its
visited compartments, has not been systemically reported. In Markovian view
of compartmental system, mathematical solutions for the probability or
probability density functions, for a drug molecule with any defined inter-
compartment traveling routes in the system and/or with specified residence
times in any visited compartments, are provided. Matrix convolution is
defined and thus employed to facilitate methodology development. Laplace
transformations are used to facilitate convolution operations in linear
systems. This paper shows that the drug time-concentration function can be
decomposed into the summation of a series of component functions, which is
named as convolution expansion. The studied probability or probability
density functions can be potentially engaged with physiological or
pharmacological significances and thus be used to describe a broad range of
drug exposure-response relationships.
Citation: Liang Zhao. New developments in using stochastic recipe for multi-compartmentmodel: Inter-compartment traveling route, residence time, andexponential convolution expansion[J]. Mathematical Biosciences and Engineering, 2009, 6(3): 663-682. doi: 10.3934/mbe.2009.6.663
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Abstract
Drug residence time in ''compartmentalized'' human body system had been studied
from both deterministic and Markovian perspectives. However, probability and
probability density functions for a drug molecule to be (1) in any
compartment of study interest, (2) with any defined inter-compartment
traveling route, and (3) with/without specified residence times in its
visited compartments, has not been systemically reported. In Markovian view
of compartmental system, mathematical solutions for the probability or
probability density functions, for a drug molecule with any defined inter-
compartment traveling routes in the system and/or with specified residence
times in any visited compartments, are provided. Matrix convolution is
defined and thus employed to facilitate methodology development. Laplace
transformations are used to facilitate convolution operations in linear
systems. This paper shows that the drug time-concentration function can be
decomposed into the summation of a series of component functions, which is
named as convolution expansion. The studied probability or probability
density functions can be potentially engaged with physiological or
pharmacological significances and thus be used to describe a broad range of
drug exposure-response relationships.
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