Managed turfgrass areas are being irrigated with saline water due to increased use of reclaimed water, salt water intrusion of coastal areas, and more regulated water-use restrictions. The objective of this study was to evaluate six bermudagrass (Cynodon spp.) cultivars response to varying salinity levels. A sea salt mixture was added to half-strength Hoagland's nutrient solution to provide electrical conductivity levels of 1.1, 10.3, 18.8, 26.9, 34.5, and 41.5 dS m(-1). A split-plot design with five replications was used to evaluate salinity as the main plot effect and cultivar as the sub-plot effect. Turfgrass cultivars differed significantly in response to salinity. `Quickstand' bermudagrass produced the greatest amount of total shoot material (214 g m(-2)). `Tifton-10' (199 g m(-2)), `Tifway' (194 g m(-2)), and `Navy Blue' (191 g m(-2)) all produced more shoot material than `GN-1' (162 g m(-2)) and `Tifsport' (161 g m(-2)). Linear regression analysis found differences in shoot growth by salinity effects for `TifSport' (r(2) = 0.95), `Tifton-10' (r(2) = 0.97), `Tifway' (r(2) = 0.86), and `Quickstand' (r(2) = 0.94). `Navy Blue' (r(2) = 0.95) and `GN-1' (r(2) = 0.85) shoot growth by salinity effects responded quadratically using a second order polynomial regression equation. The greatest reduction in shoot weight was found with Tifway (43%), Quickstand (42%) and Tifton-10 (41%) comparing the control to the highest salinity level. No differences were found in root or crown weights in response to salinity.