Plate tectonic interactions apparently have had a profound influence on the evo lution of basins in the supposedly stable interiors of cratons. Evidence for significant tectonic control of these deceptively simple basins and their stratigraphic successions has been steadily growing, but their evolution remains poorly understood and the mechanisms controlling their development remain conjectural.Data collected from a number of interior cratonic basins suggest that basin form ing, filling, and modifying processes take place under stress fields of far-reaching extent that appear to be directly related to plate tectonics. Some stress fields appear to be propagated from collision fronts, as suggested by contractional foreland defor mation features in interior cratonic basin settings. Such features have been observed in Europe, Asia, and the midcontinent of North America, in some cases more than 1,300 km beyond any readily recognized deformation front. Other supporting evi dence has been found in the regional strain fabric of calcite in Paleozoic rocks of the midcontinent. It thus appears likely that plate collisions have transmitted intraplate stresses well into the interior of continental plates.Unconformity-bounded sequences also provide clues about the impact of regional tectonics and directed stress fields. In North American interior cratonic basins, as well as those of other continents, sequence-bounding unconformities that represent impor tant lacunae are accompanied by structural deformation, including tilting, that indi cates the directionality of stress fields. The geometries of sequences change above and below unconformity surfaces. In many instances, the direction or dip of a sequence and its three-dimensional orientation differs from that of an underlying or overlying sequence on a basin-wide scale.Within a basin, nonlinear, intermittent subsidence curves appear to be the rule. The long history of interior cratonic basins is characterized by recurrent subsidence and uplift. Basins and their sequences appear to respond to pulsating forces that change direction episodically. The stress fields appear to have effective "reaches" that control basin evolution for periods of time and then disappear.Overall, cratonic basins and the continental plates on which they are situated appear to respond to changing stress fields related to divergence, convergence, and collision of plates. The manner in which they respond appears to be a function of inhomogeneities in the crust. Epeirogeny has also played a role, for reasons that are not entirely clear, but possibly the epeirogenic responses are related to the nature of the Earth as a heat engine that induces physical-chemical changes in the Earth's crust and mantle.