Tablet dissolution modeling has seen many efforts from both empirical and physical approaches. We present an expandable 3-D Cartesian framework for modeling multiple physical processes involved in tablet dissolution, which allows for a more straightforward generation of models while maintaining powerful model manipulation. Also presented is an experimental technique for quantifying solvent penetration and dynamic surface erosion. Two types of solid oral dosage forms are experimentally characterized and then modeled. One system is governed by drug particle dissolution, the other by surface erosion.Ph. D.Includes bibliographical referencesIncludes vitaby Daniel Braid
The use of mathematical concepts and language aiming to describe and represent the interactions and ...
This thesis provides a piece of comprehensive information on the interrelationship between particle ...
peer-reviewedThe published OA version of this article was added to ULIR on the 07/05/2021Accurate me...
Tablet dissolution modeling has seen multiple eff orts from both empirical and physical approaches. ...
Tablets are the most common form of pharmaceutical solid oral dosages, and they are manufactured by ...
Tablets are the most common form of pharmaceutical solid oral dosages, and they are manufactured by ...
The dissolution characteristics of pharmaceutical tablets are key to determining the bioavailability...
Predictive models for diffusion-controlled particle dissolution are important for designing advanced...
Predictive models for diffusion-controlled particle dissolution are important for designing advanced...
Pharmaceutical solid dosage forms (tablets or capsules) are the predominant form to administer activ...
The swelling and dissolution behavior of pharmaceutical systems containing a drug and a polymer can ...
The use of mathematical concepts and language aiming to describe and represent the interactions and ...
Pharmaceutical solid dosage forms (tablets or capsules) are the predominant form to administer activ...
Pharmaceutical solid dosage forms (tablets or capsules) are the predominant form to administer activ...
Pharmaceutical solid dosage forms (tablets or capsules) are the predominant form to administer activ...
The use of mathematical concepts and language aiming to describe and represent the interactions and ...
This thesis provides a piece of comprehensive information on the interrelationship between particle ...
peer-reviewedThe published OA version of this article was added to ULIR on the 07/05/2021Accurate me...
Tablet dissolution modeling has seen multiple eff orts from both empirical and physical approaches. ...
Tablets are the most common form of pharmaceutical solid oral dosages, and they are manufactured by ...
Tablets are the most common form of pharmaceutical solid oral dosages, and they are manufactured by ...
The dissolution characteristics of pharmaceutical tablets are key to determining the bioavailability...
Predictive models for diffusion-controlled particle dissolution are important for designing advanced...
Predictive models for diffusion-controlled particle dissolution are important for designing advanced...
Pharmaceutical solid dosage forms (tablets or capsules) are the predominant form to administer activ...
The swelling and dissolution behavior of pharmaceutical systems containing a drug and a polymer can ...
The use of mathematical concepts and language aiming to describe and represent the interactions and ...
Pharmaceutical solid dosage forms (tablets or capsules) are the predominant form to administer activ...
Pharmaceutical solid dosage forms (tablets or capsules) are the predominant form to administer activ...
Pharmaceutical solid dosage forms (tablets or capsules) are the predominant form to administer activ...
The use of mathematical concepts and language aiming to describe and represent the interactions and ...
This thesis provides a piece of comprehensive information on the interrelationship between particle ...
peer-reviewedThe published OA version of this article was added to ULIR on the 07/05/2021Accurate me...