Fresnel zone plates (FZPs), with patterns of 1 µm resolution and 108+ textquoteleftpixelstextquoteright, allow the formation of clean, diffraction-limited foci – but have a static phase profile. Spatial light modulators (SLMs) allow dynamic control of spatial beam intensity and phase – but are bulky and currently limited to roughly 10 µm pixel sizes and 1 Mega-pixel formats. Here, we present a textquoteleftbest-of-bothtextquoteright kind of FZP, scalable to rings orders of magnitude larger than those possible via direct SLM generation. It is equivalent to a plano-convex donut lens, whereby lighttextquoterights local intensity and global phase at the FZP map directly onto the focal plane. The same FZP under different SLM illumination can generate: rings and arcs, double-rings, phase windings, and ring lattices (or dynamic combinations thereof). The smooth and adaptable near-field waveguide that this enables will be ideal for Sagnac interferometry with ultracold atoms.