Stephanie Curley
Job Title
Mary H. '80 and Richard K. Templeton '80 Assistant Professor
Steinmetz 215
Phone
Email
External Website
Research interests
My research is focused at the interface of biology and nanotechnology. Specifically, I use
biological nanoparticles (viruses and vesicles) to solve problems in human health. I am interested
in drug delivery, immunoengineering, and vaccine development.
Currently, research in my lab is on three main areas:
- Designing novel vaccines for Lyme disease. This research is directed toward using outer membrane vesicles (OMVs) as a vaccine platform. OMVs are spherical nanoparticles derived from bacteria. They function as immune system-activating compounds. We can genetically engineer the bacteria producing the OMVs to also express Lyme antigen proteins, making this platform multi-functional. We are currently investigating if the OMVs are capable of expressing various Lyme disease antigens on their surface. This project is currently NSF-funded (# 2347479).
- Understanding the effect of particle size on the immune response. There are distinct immunologic differences between bacterial and viral infections. Viruses are on the order of 10-100 nm in size, whereas bacteria are 10-100 times this size. Our goal is to determine if the size difference matters to the immune system by using OMVs. OMVs are about 120 nm in size, putting them on par with viruses. We are investigating ways to increase the size of our OMVs in order to study the immune response.
- Developing mucosal vaccine platforms. Most infectious diseases access our bodies through our mucus membranes. However, most injectable vaccines do not result in robust mucosal immunity. We currently designing thin film vaccines to administer to the oral mucosa, and monitoring film breakdown, antigen release, and storage stability. The Curley Lab is always looking for students to join us! If you’re interested in any of this research, check out the Curley Lab Instagram page, and email Dr. Curley for more information!
Teaching interests
Drug Delivery, immunology, biomaterials, nanotechnology, molecular engineering
Current courses taught:
- BME 311: Advanced Biomechanics
- BME 333: Engineering Principles of Drug Delivery
- BME 331: Cell-Tissue-Material Interactions
Publications
- Kannan, N., Choi, A., Rivera De Jesus, M.A., Wei, Sahler, J.M., Curley, S.M., et al. (2024). “Intranasal vaccination with recombinant TLR2-active outer membrane vesicles containing sequential M2e epitopes protects against lethal influenza A challenge.” Vaccines: 12(7), 724.
- Robertus, C.M., Snyder, S.M., Curley, S.M., Murundi, S.D., Whitman, M.A., Fischbach, C., and Putnam, D. (2023). “Selective Accumulation of Near Infrared-Labeled Multivalent Quinidine Copolymers in Tumors Overexpressing P-Glycoprotein: Potential for Noninvasive Diagnostic Imaging.” ACS Applied Bio Materials: 6(8), 3117-3130.
- Curley, S.M. and Putnam, D. (2022). “Biological nanoparticles as platforms for vaccine development.” Frontiers in Bioengineering and Biotechnology: 10:867119.
- Londhe, A.D., Bergeron, A., Curley, S.M., Zhang, F., Rivera, K.D., et al. (2020). “Regulation of PTP1B activation through disruption of redox-complex formation.” Nature Chemical Biology: 16(2), 122-125.
- Curley, S.M.*, Almehmadi, L.M.*, Tokranova, N.A., Tenenbaum, S.A., and Lednev, I.K. (2019). “Surface enhanced Raman spectroscopy for single molecule protein detection.” Scientific Reports: 9(1), 12356. *Equal contribution
Additional media
Academic credentials
B.S., Cornell University; Ph. D., University at Albany-SUNYSteinmetz Hall 210
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DEPARTMENT CHAIR:
Professor Jennifer Currey
212 Steinmetz Hall
Email: ecbechair@union.edu
Associate Chair:
Professor Takashi Buma
209 Steinmetz Hall
Email: ecbechair@union.edu