Correction: A bespoke microfluidic pharmacokinetic compartment model for drug absorption using artificial cell
Jaime L Korner1, Elanna B Stephenson1, Katherine S Elvira1
1Department of Chemistry, University of Victoria, Victoria, BC, Canada. kelvira@uvic.ca.
Lab on a Chip
|August 5, 2020
Summary
This correction addresses a previously published study on a microfluidic pharmacokinetic model. The model utilizes artificial cell membranes to simulate drug absorption, enhancing the accuracy of drug development research.
Area of Science:
- Pharmacokinetics and Drug Delivery
- Biomimetic Engineering
- Microfluidic Systems
Background:
- Accurate prediction of drug absorption is crucial for effective pharmaceutical development.
- Existing models often struggle to fully replicate the complex environment of biological membranes.
- Microfluidic devices offer a promising platform for simulating physiological processes with high control.
Purpose of the Study:
- To provide a correction to a previously published microfluidic pharmacokinetic compartment model.
- To refine the understanding of drug absorption using artificial cell membranes.
- To ensure the accuracy and reliability of the model for future research.
Main Methods:
- The study involves a microfluidic device designed to mimic biological membranes.
- Artificial cell membranes are employed to study drug permeation.
- Pharmacokinetic principles are applied to analyze drug absorption data.
Main Results:
- A correction is issued for the original publication.
- The revised model aims to improve the simulation of drug absorption.
- The use of artificial membranes provides a controlled environment for studying drug-membrane interactions.
Conclusions:
- Accurate pharmacokinetic modeling is essential for drug development.
- Microfluidic systems with artificial membranes offer a valuable tool for studying drug absorption.
- This correction ensures the integrity of the research findings for the scientific community.
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