Oaks are a defining species in New England forests and have proven to be resilient to partial disturbances. They play a crucial role in carbon uptake and sequestration, contributing to a vital carbon sink forest ecosystem. However, emerging threats, including the non-native spongy moth and increasing climate stress, threaten oak population stability. While partial disturbance has historically been a regular and even beneficial factor in forest ecosystems, human impacts on the climate and the forest are accelerating disturbances and creating novel ones. In this study, I contributed to and integrated multiple long-term Harvard Forest datasets to investigate red oak (Quercus rubra) population dynamics in response to three partial disturbance conditions: (1) hurricanes, (2) spongy moth (Lymantria dispar) defoliation, and (3) commercial logging. I evaluated mortality and growth (in basal area increment), as well as canopy health metrics specific to certain studies. While mortality rates recover within 10 years of the initial disturbance, these disturbances can cause increased growth rates for survivors for more than 20 years post-disturbance. Canopy health in response to hurricanes and defoliation also appears to recover within 5-10 years. These results indicate that while initial mortality can cause a major decline in a population, the effects of ongoing mortality and canopy health are limited to a relatively short span of time and give way to lingering, complex effects on growth. The continuation and evaluation of long-term data collection efforts like these are crucial in understanding the impacts of these disturbances before they pass a point of no return for oak population resilience.