Data for: Neuromorphic functions with a polyelectrolyte-confined fluidic memristor

Reproducing the ion channel-based neural functions with artificial fluidic
systems is a long aspirational goal both for neuromorphic computing and
biomedical applications. Herein neuromorphic functions are successfully
accomplished with polyelectrolyte-confined fluidic memristors (PFMs), in
which confined polyelectrolyte-ion interactions contribute to hysteretic
ion transport, resulting in ionic memory effects. Various electric pulse
patterns are emulated by PFM with ultralow power consumption. Benefiting
from the fluidic-based property of PFMs, mimicking chemical-regulated
electric pulse is investigated and accomplished. More importantly,
chemical-electric signal transduction is implemented based on the specific
recognition of PFM. With structural emulation to ion channels, PFM
features versatility and easily interfaces with biological systems, paving
a way to building neuromorphic devices with advanced functions by
introducing rich chemical designs.