Improving the Drug Development Pipeline for Mycobacteria: Modelling Antibiotic Exposure in the Hollow Fibre Infection Model

Mycobacterial infections are difficult to treat, requiring a combination of drugs and lengthy treatment times, thereby presenting a substantial burden to both the patient and health services worldwide. The limited treatment options available are under threat due to the emergence of antibiotic resist...

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Published in:Antibiotics
Main Authors: Arundhati Maitra, Priya Solanki, Zahra Sadouki, Timothy D. McHugh, Frank Kloprogge
Format: Article
Language:English
Published: MDPI AG 2021-12-01
Subjects:
Online Access:https://www.mdpi.com/2079-6382/10/12/1515
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author Arundhati Maitra
Priya Solanki
Zahra Sadouki
Timothy D. McHugh
Frank Kloprogge
author_facet Arundhati Maitra
Priya Solanki
Zahra Sadouki
Timothy D. McHugh
Frank Kloprogge
author_sort Arundhati Maitra
collection DOAJ
container_title Antibiotics
description Mycobacterial infections are difficult to treat, requiring a combination of drugs and lengthy treatment times, thereby presenting a substantial burden to both the patient and health services worldwide. The limited treatment options available are under threat due to the emergence of antibiotic resistance in the pathogen, hence necessitating the development of new treatment regimens. Drug development processes are lengthy, resource intensive, and high-risk, which have contributed to market failure as demonstrated by pharmaceutical companies limiting their antimicrobial drug discovery programmes. Pre-clinical protocols evaluating treatment regimens that can mimic in vivo PK/PD attributes can underpin the drug development process. The hollow fibre infection model (HFIM) allows for the pathogen to be exposed to a single or a combination of agents at concentrations achieved in vivo–in plasma or at infection sites. Samples taken from the HFIM, depending on the analyses performed, provide information on the rate of bacterial killing and the emergence of resistance. Thereby, the HFIM is an effective means to investigate the efficacy of a drug combination. Although applicable to a wide variety of infections, the complexity of anti-mycobacterial drug discovery makes the information available from the HFIM invaluable as explored in this review.
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spelling doaj-art-a671935cbb9a41e886e035edf6f4875f2025-08-19T22:36:32ZengMDPI AGAntibiotics2079-63822021-12-011012151510.3390/antibiotics10121515Improving the Drug Development Pipeline for Mycobacteria: Modelling Antibiotic Exposure in the Hollow Fibre Infection ModelArundhati Maitra0Priya Solanki1Zahra Sadouki2Timothy D. McHugh3Frank Kloprogge4Institute for Global Health, University College London, London WC1N 1EH, UKCentre for Clinical Microbiology, Royal Free Campus, University College London, Rowland Hill Street, London NW3 2PF, UKInstitute for Global Health, University College London, London WC1N 1EH, UKCentre for Clinical Microbiology, Royal Free Campus, University College London, Rowland Hill Street, London NW3 2PF, UKInstitute for Global Health, University College London, London WC1N 1EH, UKMycobacterial infections are difficult to treat, requiring a combination of drugs and lengthy treatment times, thereby presenting a substantial burden to both the patient and health services worldwide. The limited treatment options available are under threat due to the emergence of antibiotic resistance in the pathogen, hence necessitating the development of new treatment regimens. Drug development processes are lengthy, resource intensive, and high-risk, which have contributed to market failure as demonstrated by pharmaceutical companies limiting their antimicrobial drug discovery programmes. Pre-clinical protocols evaluating treatment regimens that can mimic in vivo PK/PD attributes can underpin the drug development process. The hollow fibre infection model (HFIM) allows for the pathogen to be exposed to a single or a combination of agents at concentrations achieved in vivo–in plasma or at infection sites. Samples taken from the HFIM, depending on the analyses performed, provide information on the rate of bacterial killing and the emergence of resistance. Thereby, the HFIM is an effective means to investigate the efficacy of a drug combination. Although applicable to a wide variety of infections, the complexity of anti-mycobacterial drug discovery makes the information available from the HFIM invaluable as explored in this review.https://www.mdpi.com/2079-6382/10/12/1515<i>Mycobacterium</i>tuberculosishollow fibredrug development
spellingShingle Arundhati Maitra
Priya Solanki
Zahra Sadouki
Timothy D. McHugh
Frank Kloprogge
Improving the Drug Development Pipeline for Mycobacteria: Modelling Antibiotic Exposure in the Hollow Fibre Infection Model
<i>Mycobacterium</i>
tuberculosis
hollow fibre
drug development
title Improving the Drug Development Pipeline for Mycobacteria: Modelling Antibiotic Exposure in the Hollow Fibre Infection Model
title_full Improving the Drug Development Pipeline for Mycobacteria: Modelling Antibiotic Exposure in the Hollow Fibre Infection Model
title_fullStr Improving the Drug Development Pipeline for Mycobacteria: Modelling Antibiotic Exposure in the Hollow Fibre Infection Model
title_full_unstemmed Improving the Drug Development Pipeline for Mycobacteria: Modelling Antibiotic Exposure in the Hollow Fibre Infection Model
title_short Improving the Drug Development Pipeline for Mycobacteria: Modelling Antibiotic Exposure in the Hollow Fibre Infection Model
title_sort improving the drug development pipeline for mycobacteria modelling antibiotic exposure in the hollow fibre infection model
topic <i>Mycobacterium</i>
tuberculosis
hollow fibre
drug development
url https://www.mdpi.com/2079-6382/10/12/1515
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