Why is the manifold topology in a spacetime taken for granted? Why do we prefer to use Riemann open balls as basic-open sets, while there also exists a Lorentz metric? Which topology is a best candidate for a spacetime; a topology sufficient for the description of spacetime singularities or a topology which incorporates the causal structure? Or both? Is it more preferable to consider a topology with as many physical properties as possible, whose description might be complicated and counterintuitive, or a topology which can be described via a countable basis but misses some important information? These are just a few from the questions that we ask in this Chapter, which serves as a critical review of the terrain and contains a survey with remarks, corrections and open questions. AMSC: 83XX, 83F05, 85A40, 54XX keywords: Zeeman -Göbel topologies, topologising a spacetime, spacetime singularities, causal topologies, manifold topology 1 in the presence of Riemannian basic-open balls fail as well. Zeeman's main arguments against the Euclidean R 4 topology for Minkowski spacetime M (extended by Göbel for curved spacetimes) can be summarised as follows: 1. The 4-dimensional Euclidean topology is locally homogeneous, whereas M is not; every point has associated with it a light cone, separating space vectors from time vectors. 2. The group of all homeomorphisms of 4-dimensional Euclidean space is vast, and of no physical significance.Heathcote's antilogue belongs to (sic) a realist view of spacetime topology as against the instrumentalist position. A realist point of view divides the space intro structural levels, such as metric tensor field, affine connection, conformal structure, differentiable manifold and topology. Heathcote highlights that the manifold topology is present as long as the structure of manifold is present, and there are two "untenable" possibilities for a replacement of the manifold topology, in both cases by finer topologies (see [13], page 255, for more details).