Implantable bioelectronic devices for the simulation of peripheral nerves could be used to
treat disorders that are resistant to traditional pharmacological therapies. However, for many …

Objective. Compared to biomedical devices with implanted batteries, wirelessly powered
technologies can be longer-lasting, less invasive, safer, and can be miniaturized to access …

This article presents a hardware platform including stimulating implants wirelessly powered
and controlled by a shared transmitter (TX) for coordinated leadless multisite stimulation …

Magnetoelectric (ME) transducers, comprising of layered magnetostrictive and piezoelectric
materials, are more efficient than inductive coils in converting low-frequency magnetic fields …

This paper presents a hardware platform for wireless mm-sized bio-implant networks,
exploiting adaptive magnetoelectric power transfer and novel schemes for efficient …

This article presents a miniaturized implant with a diameter of only 14 mm, which houses a
novel system on chip (SoC) enabling two-voltage-level stimulation of up to 16 implants using …

Multisite stimulation has shown enhanced clinical outcomes in different biomedical
applications. This work presents a novel System on Chip (SoC) solution that enables up to …

Minimally invasive neural interfaces can be used to diagnose, manage, and treat many
disorders with substantially reduced risks of surgical complications. Endovascular neural …

Implanted bioelectronic devices have the potential to treat disorders that are resistant to
traditional pharmacological therapies; however, reaching many therapeutic nerve targets …

Implantable bioelectronics, characterized by electronic devices that are integrated within the
human body and capable of perceiving and modulating biological signals, offer immense …