  Control of quantum entanglement has been considered as elemental physical
resource for quantum applications in Quantum Information and Quantum
Computation. Control of entangled states on a couple of atoms, ions or quantum
dots are milestones in almost all quantum applications towards a scalable
spin-based quantum computers or quantum devices. For magnetic systems, Ising
model is an interaction which generates and modifies entanglement properties of
quantum systems based on matter. In addition, when this interaction includes
driven magnetic fields, it can be controlled to sustain, characterize or modify
entanglement and other quantum properties. In this work, recent results about
evolution in a general anisotropic three dimensional Ising model including an
inhomogeneous magnetic field is considered to obtain some general quantum
control effects for their sustainability, programmed evolution or
transformation: Evolution loops and Exchange operations. This control is
achievable through a set of physical parameters, whose prescriptions are
reported. The use of a non local basis in the model to express time evolution
lets take advantage to describe and control the system, in particular with
those issues associated with entanglement and operations mentioned before.
Finally, some analysis about equivalent gates based on our development is made
including an example with teleportation, using one of the gates constructed.
