Papertronics devices achieve dual neuromorphic and security functions
Researchers develop versatile paper-based electronic devices demonstrating both neuromorphic computing capabilities and physically unclonable functions for security applications.
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Researchers develop versatile paper-based electronic devices demonstrating both neuromorphic computing capabilities and physically unclonable functions for security applications.
Researchers have created a 3D printable conductive hydrogel that can be extruded directly onto skin to form high-performance wearable electrodes with enhanced signal quality and stimulation efficiency.
Researchers create fully memristive neuromorphic chip integrating trainable dendritic neurons and high-density RRAM, enabling energy-efficient brain-inspired computing architectures.
Researchers have developed 3D printable conducting polymer hydrogels for implantable bioelectronics, enabling long-term electrophysiological monitoring and modulation of organs.
Scientists have developed a highly deformable, adhesive electronic hydrogel inspired by amoebas that could enable customizable epidermal electronics.
Researchers printed high-performance organic transistor arrays and logic circuits with an amorphous polymer semiconductor, achieving 100% yield, excellent uniformity, and the highest reported density of 100 printed transistors per square centimeter.
Innovative quantum neuroelectronic devices mimic key functions of brain synapses, demonstrating promise for reducing effects of age-related cognitive decline.
Researchers have created a novel memristive hardware framework that enables artificial intelligence systems to efficiently explain their decision-making process.