Abstract. We show that there exists a locally compact separable metrizable space L such that C 0 (L), the Banach space of all continuous complex-valued functions vanishing at infinity with the supremum norm, is almost transitive. Due to a result of Greim and Rajagopalan [3], this implies the existence of a locally compact Hausdorff spaceL such that C 0 (L) is transitive, disproving a conjecture of Wood [9]. We totally owe our construction to a topological characterization due to Sánches [8].2000 Mathematics Subject Classification. 54C35, 46B04, 54G99.1. Introduction, main theorem and preliminaries. For a locally compact Hausdorff space L, C 0 (L) denotes the Banach space of all continuous complex-valued functions on L vanishing at infinity, equipped with the supremum norm. A Banach space X is said to be transitive (resp. almost transitive) if the isometry group G(X) acts transitively on the unit sphere S(X) = {x ∈ X| x = 1} (resp. the orbit G(X) · x is dense in S(X) for each x ∈ S(X)). In [9], Wood conjectured that C 0 (L) is not transitive for any locally compact Hausdorff space L unless L is a singleton. In [3], the conjecture was verified for the Banach space C 0 (L : R) of all real-valued continuous functions on L vanishing at infinity. Greim and Rajagopalan proved in [3] that the existence of a locally compact Hausdorff space L with C 0 (L) being almost transitive implies the existence of a locally compact Hausdorff spaceL such that C 0 (L) is transitive. In [7], the verification of the conjecture was reduced to the case in which L has the metrizable onepoint compactification αL. Furthermore, Sánches in [8] gave an explicit topological characterization of the space L with the almost transitive C 0 (L). Theorem 2 and 3 of [8] are restated below. Following [8], we say that a locally compact Hausdorff space L is an Wood space (resp. an almost Wood space) if C 0 (L) is transitive (resp. almost transitive).