C-N Bond-Forming Methodologies for the Synthesis of Small Molecules and Peptides
Project Number5R00GM097095-05
Former Number5K99GM097095-02
Contact PI/Project LeaderSTOCKDILL, JENNIFER LYNN
Awardee OrganizationWAYNE STATE UNIVERSITY
Description
Abstract Text
PROJECT SUMMARY/ABSTRACT Stockdill, Jennifer L.
The focus of the proposed research is the development of efficient methods for the construction of C-N
bonds in the context of biologically active natural products and peptidic structures such as glycoproteins. There
is significant demand for efficient syntheses of heterocyclic and peptidic structures because of their prevalence
as pharmaceutical lead targets. The mentored K99 phase research will focus on the development of a
methodology to access angularly-substituted decahydroquinolines. This method will enable rapid access to the
recently isolated acetylcholinesterase inhibitor lycojapodine A. The independent R00 phase research will be
centered on the use of nitrogen-centered radicals for new reaction methods. First, efforts will be directed
toward a method for the formation of polycyclic structures containing a tertiary amine at a ring junction. This
method will be utilized in the synthesis of the leuconicine family of alkaloids, which reverse vincristine
resistance in KB cells. Additionally, a novel approach to the long-standing challenge of peptide ligation will be
pursued. Together, the proposed methods will enable more efficient access to challenging architectures that
are prevalent in natural products and will streamline the synthesis of homogeneous glycoproteins. Thus, the
proposed research will improve access to important lead targets for the treatment of illnesses and to
homogeneous versions of glycoproteins, which will enable studies of their function in cellular processes and
diseases.
Public Health Relevance Statement
PROJECT NARRATIVE Stockdill, Jennifer L.
The proposed research is relevant to public health because it will enable rapid access to fused and bridged
polycyclic tertiary amine products, thereby expediting the synthesis of bioactive small molecules. Furthermore,
it will allow for an epimerization-free peptide ligation, substantially simplifying the synthetic approach toward
homogeneous glycoproteins. These projects are supported by the NIH's mission to foster fundamental creative
discoveries directed toward improving the Nation's ability to cure human diseases.
No Sub Projects information available for 5R00GM097095-05
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