Ultraflexible probes offer a revolutionary approach to stable neural recording and stimulation by creating a glial scar-free neuronal interface utilizing biocompatible materials in compact cross-sectional areas. However, these probes don’t have an equivalent number of electrodes within the same invasive footprint as rigid probes have. This limitation stems from photolithography, which is used for fabricating ultraflexible probes, is not capable of yielding a similar high electrode density. Here, to record more neurons per implantation, we introduce a novel fabrication technique utilizing elect
ePoster · Neuroscience