The development of implantable neuroelectrodes is advancing rapidly as these tools are
becoming increasingly ubiquitous in clinical practice, especially for the treatment of …

The acquisition of high-fidelity, long-term neural recordings in vivo is critically important to
advance neuroscience and brain–machine interfaces. For decades, rigid materials such as …

Brain function depends on simultaneous electrical, chemical and mechanical signaling at
the cellular level. This multiplicity has confounded efforts to simultaneously measure or …

Objective. The mechanisms underlying intracortical microelectrode encapsulation and
failure are not well understood. A leading hypothesis implicates the role of the mechanical …

Penetrating intracortical electrode arrays that record brain activity longitudinally are powerful
tools for basic neuroscience research and emerging clinical applications. However …

Intracortical electrodes record neural signals directly from local populations of neurons in the
brain, and conduct them to external electronics that control prosthetics. However, the …

Brain-computer interfaces are being developed to restore movement for people living with
paralysis due to injury or disease. Although the therapeutic potential is great, long-term …

New technologies are key to understanding the dynamic activity of neural circuits and
systems in the brain. Here, we show that a minimally invasive approach based on …

Neural prostheses have already a long history and yet the cochlear implant remains the only
success story about a longterm sensory function restoration. On the other hand, neural …

Designing neural interfaces that maintain close physical coupling of neurons to an electrode
surface remains a major challenge for both implantable and in vitro neural recording …