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Target shortage and less explored multiple targeting: hurdles in the development of novel antifungals but
Anubhuti Jha1, Archana Vimal1, Awanish Kumar1
1Department of Biotechnology, National Institute of Technology, Raipur, Chhattisgarh 492010, India.
Abstract:
Billions of people are affected by fungal infection worldwide, which is a major cause of morbidity and mortality in humans. Regardless of development in the field of antifungal therapeutics over the last three decades, multidrug resistance and limited efficacy of available antifungal drugs are very prominent and still a great hurdle in the patient treatment. The current antifungal pipeline is dry, which is needed to be strengthened. Although several strategies have been implemented over time to discover novel promising antifungal leads, but very little emphasis has been given to address the gap of fungal target identification. Undeniably, the need for identifying novel cellular fungal targets is as vital as discovering novel antifungal leads and a structural bioinformatics approach could be an effective strategy in this regard. To address the issue, we have performed in silico screening to identify a few potent multiple targeting ligands and their respective antifungal targets. Thus, we offer a perspective on the phenomena of 'target shortage' and least explored 'multiple targeting' being the most underrated challenges in antifungal drug discovery. 'Structural bioinformatics' could be an effective approach in the recognition of new/innovative antifungal target and identification/development of novel antifungal lead molecule aiming multiple molecular targets of the fungal pathogen.
Insights
Discovering new antifungal drugs faces challenges like resistance and a weak pipeline. This study uses structural bioinformatics to find novel fungal targets and multi-targeting drug candidates, addressing key hurdles in antifungal discovery.
Area of Science:
- Mycology
- Medicinal Chemistry
- Computational Biology
Background:
- Fungal infections impact billions globally, causing significant morbidity and mortality.
- Existing antifungal drugs face limitations due to multidrug resistance and insufficient efficacy.
- The antifungal drug development pipeline requires strengthening, with a critical need for novel therapeutic strategies.
Purpose of the Study:
- To address the gap in fungal target identification for antifungal drug discovery.
- To explore the potential of structural bioinformatics in identifying novel antifungal targets and leads.
- To investigate the challenges of 'target shortage' and 'multiple targeting' in antifungal research.
Main Methods:
- In silico screening of potential drug candidates.
- Utilizing structural bioinformatics approaches for target identification.
- Analyzing multiple targeting ligands and their corresponding fungal targets.
Main Results:
- Identification of potent multiple targeting ligands.
- Identification of specific antifungal targets for these ligands.
- Highlighting the significance of target identification and multiple targeting strategies.
Conclusions:
- Structural bioinformatics is a viable strategy for identifying new antifungal targets.
- Addressing 'target shortage' and embracing 'multiple targeting' are crucial for advancing antifungal drug discovery.
- Novel antifungal leads targeting multiple molecular pathways offer a promising therapeutic avenue.
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