Recent Advances in Analgesic Drug Discovery: Azole-Based Heterocycles as Key Scaffolds

Session

Medicine and Nursing

Description

This review presents the latest progress in the design and synthesis of small-molecule analgesics incorporating azole-based heterocyclic frameworks. The study highlights how structural variations in rings such as imidazole, triazole, thiazole, indazole, and oxadiazole contribute to diverse analgesic mechanisms, including cyclooxygenase inhibition, opioid receptor modulation, and sodium channel blockade. Structure–activity relationship (SAR) analyses reveal that fine-tuning substituents and introducing bioisosteric replacements enhance both potency and safety profiles. Moreover, azole scaffolds have shown remarkable adaptability in computational drug design (CADD) workflows, facilitating the identification of novel analgesic leads. Emphasis is also placed on optimizing formulation properties alongside pharmacological efficacy, as delivery potential remains a crucial aspect of therapeutic development. Collectively, this work provides a comprehensive insight into the evolving role of azole-based heterocycles as essential pharmacophores in modern analgesic drug discovery and innovation.

Keywords:

Analgesics, heterocyclic compounds, azoles, structure–activity relationship, drug design, bioisosterism, pain modulation

Proceedings Editor

Edmond Hajrizi

ISBN

978-9951-982-41-2

Location

UBT Lipjan, Kosovo

Start Date

25-10-2025 9:00 AM

End Date

26-10-2025 6:00 PM

DOI

10.33107/ubt-ic.2025.357

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Oct 25th, 9:00 AM Oct 26th, 6:00 PM

Recent Advances in Analgesic Drug Discovery: Azole-Based Heterocycles as Key Scaffolds

UBT Lipjan, Kosovo

This review presents the latest progress in the design and synthesis of small-molecule analgesics incorporating azole-based heterocyclic frameworks. The study highlights how structural variations in rings such as imidazole, triazole, thiazole, indazole, and oxadiazole contribute to diverse analgesic mechanisms, including cyclooxygenase inhibition, opioid receptor modulation, and sodium channel blockade. Structure–activity relationship (SAR) analyses reveal that fine-tuning substituents and introducing bioisosteric replacements enhance both potency and safety profiles. Moreover, azole scaffolds have shown remarkable adaptability in computational drug design (CADD) workflows, facilitating the identification of novel analgesic leads. Emphasis is also placed on optimizing formulation properties alongside pharmacological efficacy, as delivery potential remains a crucial aspect of therapeutic development. Collectively, this work provides a comprehensive insight into the evolving role of azole-based heterocycles as essential pharmacophores in modern analgesic drug discovery and innovation.