In previous work, we have shown diamond BPEs out-perform round or triangular BPEs with regards to linkage formation. An electrode point was mathematically modelled by two spherical electrodes connected by a wire. Based upon this we hypothesise MW growth will be enhanced by incorporating smaller BPEs close to the larger BPEs which will lower cellular resistance providing directional cues for the pattering of microwire growth. To evaluate this, silver MW growth with smaller BPEs incorporated were investigated. Single droplet BPEs were explored (30-50 mm), herein referred to as satellites. As demonstrated in Figure ), satellite BPEs were printed around larger BPEs, and comparisons to larger BPEs were evaluated. This demonstrated that incorporation of satellite BPEs significantly increased the number of wires grown against BPEs alone (4.1 ± 0.73 to 7.2 ± 0.69, respectively (n=20)). This finding will impact the design of systems for the wireless growth of MWs and suggests that multiple-sized electrodes should be incorporated. We suggest this occurs due to a drop in cell resistance. As per equations 2 and 3, it is hypothesised this observed behaviour is due to smaller volumes possessing a higher charge density resulting in an enhanced electric field. Hence, electrodes with a pointed edge, rather than a smooth/rounded edge, are predicted to possess improved MW growth due to an enhanced electric field at their points. We have recently substantiated this with a nano-bipolar electrode which results in the need to apply smaller currents than predicted. Whilst smaller BPEs concentrate charge to act as nucleation sites for MW growth to initiate, larger scale BPEs are still required to lower the overall impedance of the system and allow for lower potentials to be used. 𝛻 • 𝐸 = 𝜌 𝜖 !