  This paper introduces a powerful new tool for topological redescription, the
ISE Methodology. These tools allow us to remove and replace a theory's
topological underpinnings just as easily as we can switch between different
coordinate systems. Aspirationally, these novel topological redescription
techniques can be used to provide new support for a roughly Kantian view of
space and time; Rather than corresponding to any fundamental substances or
relations, we can see the spacetime manifolds which appear in our theories as
merely being an aspect of how we represent the world. This view of spacetime
topology parallels the dynamic-first view of geometry as well as a Humean view
of laws; The spacetime manifolds which feature in our best theories reflect
nothing metaphysically substantial in the world beyond them it being one
particularly nice way (among others) of codifying the dynamical behavior of
matter.
  A parallel publication (namely, Grimmer (2023)) will explicitly characterize
the power and scope of the topological redescription techniques offered to us
by the ISE Methodology. The modest goal of this paper is simply to introduce
the ISE Methodology by applying it to two example theories. Firstly, to
familiarize ourselves with these techniques, I will show how they can be used
to redescribe a spacetime theory via a Fourier transform. Secondly, I will show
how the exact same techniques can be used to redescribe a lattice theory (i.e.,
a theory set on a discrete spacetime, M=RxZ) as existing on a continuous
spacetime manifold,M=RxR.
