  This study presents a mechanism that enables the stabilization of Floquet
systems indefintely; albeit in a manner that allows for noise during each
Floquet cycle. This is due to the fact that external qubits are added after
each Floquet cycle and these external qubits obtain information about the
Floquet system (in this case the Floquet system is the Anomalous
Floquet-Anderson Insulator). This information is used to correct the system for
noise after which these qubits are removed. The fact that these external qubits
are added and then removed after performing operations on the system is what
allows for this process to be referred to as non-Hermitian driving. The
external qubits effectively act to carry away entropy of the system and
therefore allow for the Floquet system to be cooled. In addition, another
mechanism is found where the periodic implementation of entanglement for every
site of the system at a high frequency during the normal time evolution allows
for the system to be highly localized in a manner similar to Anderson
localization.
