Using species interactions for a systems-ecology approach to evaluate conservation habitats for community resilience, disease transmission, and rare species support. I used this approach when evaluating an increasingly popular conservation practice called prairie strips, finding beneficial wild plant-bee community functions (Borchardt et al., 2023) that were not negatively affected by the presence of a honey apiary from early to mid-summer (Borchardt et al., 2025). Currently, I am investigating the potential to design habitats that support a diverse pollinator community while decreasing a bee-related pathogen (Ongoing post-doctoral work).
Investigating the pollination services of wasps and the role of wasps in wider pollinator communities, such as pathogen transmission networks. I found wasp families fill a distinct ecological niche from bees, carry similar pollen compositions on their body to bee families, and paper wasps can deposit similar amounts of pollen in a single visit to a flower as bumble bees (Borchardt et al., 2024). I am currently investigating if a common bee pathogen is present in wild wasps and can be transmitted between bees and wasps (Ongoing post-doctoral work).
Using computer simulation to understand how floral community shifts impact the foraging behavior of generalist pollinators. I built an individual-based model to determine how past foraging experiences influence current behavior specifically regarding the number and effect of each past experience and the cost of switching between plant species. I found that the main driver of foraging behavior is the number of past experiences used to inform behavior, which causes behavior to lag behind shifts in the floral community (Borchardt et al., in prep.).