Dwarf dogwoods (or the bunchberries) are the only suffrutex in Cornaceae. They are attractive ground cover ornamentals with clusters of small flowers surrounded by petaloid bracts. Little has been reported on plant regeneration of dogwoods. As a step toward unraveling the molecular basis of inflorescence evolution in Cornus, we report an efficient regeneration system for a dwarf dogwood species C. canadensis through organogenesis from rejuvenated leaves, and characterize the development of the plantlets. We used the nodal stem segments of vegetative branches as explants. Micropropogated shoots were quickly induced from axillary buds of nodes on an induction medium consisting of basal MS medium supplemented with 4.44 lM BAP and 0.54 lM NAA. The new leaves of adventitious shoots were used as explants to induce calli on the same induction medium. Nearly 65% of leaf explants produced calli, 80% of which formed adventitious buds. Gibberellic acid (1.45 lM) added to the same induction medium efficiently promoted quick elongation of most adventitious buds, and 0.49 lM IBA added to the basal MS medium promoted root formation from nearly 50% of the elongated shoots. The growth of plantlets in pot soil was characterized by the development of functional woody rhizomes, which continuously developed new aboveground vegetative branches, but not flowering branches, within the past 12 months. Potential reasons causing the delay of flowering of the regenerated plants are discussed. The establishment of this regeneration system facilitates developing a genetic transformation system to test candidate genes involved in the developmental divergence of inflorescences in Cornus.