One appealing method to increase the effectiveness of molecular machines is their positions within materials. Especially confining a reaction media in close proximity to the motion of rotors is expected to enhance dynamic effects. We consider the effect of this by arranging our motor system on the walls of a one-dimensional pore (Fig. ). The pore is constructed using repulsive wall potentials that interact with only fluid particles. This confinement arrangement is analogous to simulations of nanoconfined water, and these repulsive walls are suggested to act like hydrophobic walls. Two azimuthal rotors were positioned on opposite walls and arranged such that the stable configuration of the rotor is aligned with the one-dimensional pore. Unidirectional rotation is directed with the bias torque in the same direction for each rotor. The LJ fluid was added to this system at a density of 0.09 𝜌. A lower density was employed to avoid over saturation. Importantly, two distinct pore sizes were investigated, a larger pore of 20 𝜎 × 20 𝜎 and a smaller pore of 10 𝜎 × 10 𝜎. The axis of the one-dimensional pore was 20 𝜎 and includes periodic boundary contions, only in this dimension.