In many manufacturing applications, robotic manipulators need to operate in cluttered environments. quickly finding high quality paths is very important in such applications. This paper presents a point-to-point path planning framework for manipulators operating in cluttered environments. It facilitates finding a balance between path quality and planning time. The framework dynamically switches between various strategies to produce high-quality paths quickly. In this work, (1) we extend a previously developed sampling-based modular tree-search, (2) we add new strategies and scheduling logic that decreases the failure rate as well as the planning time compared to our prior work, (3) we also present theoretical reasoning behind strategy switching and how it can help decrease planning times and increase path quality. Specifically, we present a strategy that can sample effectively in challenging regions of the search-space by using local approximations of the configuration space. We also present an inter-tree connection strategy that adapts to collision information gathered over time. We introduce a scheduling rule that regulates the exploitation of focusing hints derived from the workspace obstacles. Together, these new extensions the reduce average failure rate by a factor of 4 and improve the average planning time by 22% over previous work.