Implant-Related Osteomyelitis Models for the Assessment of Bacteriophage Therapeutics
Date of Degree
Original embargo terms
Visible to MSU only for 1 Year
Graduate Thesis - Open Access
James Worth Bagley College of Engineering
Department of Agricultural and Biological Engineering
Antibiotic resistant strains of bacteria continue to increase in prevalence, hindering the ability of clinicians to treat infection. One disease exacerbated by this trend is osteomyelitis, or bone infection. When osteomyelitis is induced by these antibiotic resistant strains, patients can experience prolonged hospital visits, greater economic burdens, amputation, and even death. Due to the limitations of antibiotics to clear these infections, we sought to identify new therapeutic options for osteomyelitis. Our aim was to first develop an in vivo implant-related model of osteomyelitis. We then wanted to explore the potential of novel CRISPR-Cas9 modified bacteriophage to treat infection. In vitro and in vivo investigations demonstrated that bacteriophage therapeutic may be a viable option for infection mitigation. Furthermore, our in vivo model of osteomyelitis proved to be reliable, consistent, and challenging. Future research will utilize this model as a platform for optimizing therapeutic regimen and delivery vehicle(s) for antimicrobial therapeutics.
Horstemeyer, Leah Kelley, "Implant-Related Osteomyelitis Models for the Assessment of Bacteriophage Therapeutics" (2019). Theses and Dissertations MSU. 2623.