Susan V Olesik

Title: Innovations of Susan V Olesik

Introduction

Susan V Olesik is a prominent inventor based in Dublin, OH (US). She has made significant contributions to the field of molecularly imprinted materials, with a focus on developing selective detection methods for various analytes. Her work has led to the issuance of 3 patents that showcase her innovative approach to solving complex problems in chemical detection.

Latest Patents

One of her latest patents involves the preparation of molecularly imprinted carbon. This technology features a surface that is imprinted on the molecular level for a specific template molecule, enhancing selectivity for analytes related to the template. For instance, dibutyl butylphosphonate (DBBP), a surrogate for chemical warfare agents, was utilized as a template molecule. The patent describes the development of electrospun molecularly imprinted SU-8 and pyrolyzed polymer solid-phase microextraction (SPME) devices. These devices demonstrated a higher selectivity for DBBP, extracting at least 60% more than non-imprinted counterparts.

Another patent focuses on electrospun fibers and their applications. This invention provides a supported nanofiber medium for segregating chemical species by selecting a polymer and substrate, then electrospinning the polymer to form a nanofiber medium. The resulting medium can be used for chromatographic separation or solid-phase microextraction, depending on the substrate's configuration. The nanofiber media can also be selectively cross-linked and partially carbonized to create carbon nanofibers.

Career Highlights

Susan V Olesik is affiliated with The Ohio State University, where she continues her research and development in innovative materials. Her work has garnered attention for its practical applications in chemical detection and analysis.

Collaborations

Some of her notable coworkers include Joseph W Zewe and Matthew R Callstrom, who have contributed to her research endeavors.

Conclusion

Susan V Olesik's innovative work in molecularly imprinted materials and electrospun fibers has significantly advanced the field of chemical detection. Her contributions continue to influence research and applications in this important area.