  A Stark decelerator is an effective tool for controlling motional degrees of
freedom of polar molecules. Due to technical limitations, many of the current
Stark decelerators focus on molecules in low-field-seeking quantum states and
are built based on a fixed electrode size and spacing (type-A architecture).
Here, we present an alternative method based on a different architecture,
so-called type-B, with microstructured electrodes and a simpler electric field
pulse timing with the prospect of producing cold, quasi-CW molecular beams. We
demonstrate with simulations the feasibility of this method and show that a 2
cm decelerator consisting of 100 stages can bring molecules from 200 m/s to a
near standstill in about 150 microseconds. Subsequently, the molecules can be
reaccelerated to 200 m/s in a phase-stable manner. Our simulations focus on the
longitudinal transmission leaving the problem of a transverse confinement for a
future study. This work points to a possible way of integrating polar molecule
accelerators with solid-state electronics.
