Functional small molecules incorporating heterocycles and stereochemistry for advanced applications
Specialized synthetic chemistry capabilities focused on designing and producing unique small molecule building blocks that integrate heterocyclic scaffolds and defined stereochemistry. These functional molecules serve as versatile intermediates for drug discovery, agrochemical development, and specialty materials research.
Overview
This offering centers on the design and synthesis of functional small molecules that incorporate heterocyclic ring systems and/or defined stereochemistry. Heterocycles are ring-shaped chemical structures containing atoms such as nitrogen, oxygen, or sulfur, and they form the core of many pharmaceuticals, agrochemicals, and functional materials. By combining these scaffolds with precise stereochemistry—the three-dimensional arrangement of atoms in a molecule—this capability produces building blocks with enhanced biological activity, selectivity, and material properties. The work addresses a critical need in early-stage discovery programs where access to novel, well-characterized molecular fragments accelerates lead identification and optimization.
Technical specifications
Key features:
- Design and synthesis of unique heterocyclic building blocks tailored to specific discovery programs
- Incorporation of defined stereochemistry to enable structure-activity relationship studies
- Expertise in functional small molecule construction for use as intermediates or final compounds
- Applicability across pharmaceutical, agrochemical, and specialty chemistry research
- Support for medicinal chemistry campaigns requiring novel scaffolds and chiral centers
Benefits for partners:
- Access to proprietary molecular building blocks not available through standard commercial catalogs
- Custom synthesis tailored to specific target profiles or screening libraries
- Collaboration with a research team experienced in modern synthetic methodology
Technology readiness level
The research hypothesis targets the development of novel functional small molecules, with validation procedures and future plans focused on demonstrating synthetic feasibility and utility of the designed building blocks. The work is positioned at an early-to-mid research stage, suitable for collaborative development with industry partners interested in co-developing custom molecular scaffolds for their discovery pipelines.
About Texas State University
Texas State University is a comprehensive public research university with campuses in San Marcos and Round Rock, serving a large and diverse student body across undergraduate through doctoral programs. Companies engage through the Science, Technology and Advanced Research (STAR) Park—a 58‑acre research and technology park that includes the STAR One incubator—offering co‑location, conference space, and access to shared resources. Situated in the Austin–San Antonio corridor, TXST connects industry to a robust talent pipeline and regional innovation economy, with the Round Rock Campus deepening employer partnerships and workforce pathways. Research is supported by competitive federal and state funding. The Office of Innovation, Commercialization and Engagement, bolstered by new BobCatalyst programming, provides end‑to‑end support for IP, licensing, prototyping, and startup formation.
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