Imidacloprid is the most widely used agricultural pesticide in the world. As a neonicotinoid, it is highly potent against insects while having low toxicity to mammals. One area of concern is its effect on honeybees, possibly playing a role in colony collapse disorder (CCD), a sudden disappearance of worker bees from an otherwise healthy population. Bees are known to be sensitive to imidacloprid at high concentrations, but what is unclear is whether chronic exposure to the low doses used to protect crops can also be harmful. The E.U. and Canada have taken steps to ban the use of imidacloprid as a precaution, and the U.S. EPA has warned users of its potential for leaching into groundwater. It may also persist for years in soil, pollen, and nectar. Due to its low volatility, high boiling point, and high solubility in polar solvents, imidacloprid can be difficult to reliably detect in environmental samples using current gas chromatography (GC) methods. To address this, we evaluated GC-MS detection of imidacloprid in methanol standards, spiked water, and spiked honey. Samples were evaluated after clean-up with both C18 solid-phase extraction (SPE) and dispersive solid-phase extraction (DSPE) methods, using two different GC columns (Restek Rxi-5MS and Rtx-1701). Samples were also subjected to a range of pH conditions, and ionized by both electron ionization (EI) and chemical ionization (CI). As GC is typically faster, cheaper, and easier than liquid chromatography, currently the method of choice for detection of neonicotinoids, our research could benefit the study of imidacloprid toxicity by reducing the attendant time, cost, and training requirements. Preliminary results have shown reliable detection of imidacloprid-urea, the main hydrolysis compound of imidacloprid, at pH 5-7.