Bio-inspired synchronization strategies in wireless ad-hoc sensor networks based on pulse-coupled oscillators have been favorably received as an appealing alternative to traditional message-based synchronization strategies. Their inherent scalability, simplicity, statelessness and lack of hierarchy render pulse-coupled synchronization attractive in wireless ad-hoc networks. However favorable as they are, implementing pulse-coupled techniques towards timing synchronization in a sensor network has its own challenges due to several factors, both internal and external to the algorithm. Internal factors can relate to the level of computation employed by the algorithm. External factors relate to the constraints of the computing platform within which the algorithm is applied. In this thesis, I set out to investigate these factors and characterize the working of such an algorithm. I present the design, implementation, and evaluation of a Linux-based kernel module, geared towards easy deployment and usage, that supports pulse-coupled time synchronization.