  Abrikosov Vortices have long been considered as means to encode classical
information in low-temperature logic circuits (1) and memory devices (2-4).
Although it is possible to control individual vortices using local probes
(5-11), scalability towards the control of of multiple vortices remains
challenging. Vortex logic devices require means to shuttle selected vortices
reliably over long distances between engineered pinning potentials.
Concomitantly, all other vortices should remains fixed to their precise
locations. Here we demonstrate such capabilities using Nb loops patterned below
a NbSe$_2$ layer. SQUID-on-Tip (SOT) microscopy reveals that the loops can
position vortices in sites designated to a precision better than 100 nm; they
can realize "push" and "pull" operations of vortices as far as 3$\mu$m.
Successive application of such operations shuttles a vortex between adjacent
loops. Our results may be used as means to integrate vortices in future quantum
circuitry. Strikingly, we are able to demonstrate a winding operation. Such
winding, if realized in topological superconductors, is considered an essential
part of future topological quantum information processing (12-17).
