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MIT Engineers Tiny Polymer Nanodevices That Mimic Neurons and Store Data

Малі полімерні нанопристрої розроблені інженерами MIT, імітують роботу нейронів та здатні зберігати інформацію. Photo: НВ — Техно

Breakthrough in Nanotechnology at MIT

Scientists at the Massachusetts Institute of Technology (MIT) have created ultra-small polymer-based nanomechanical devices that replicate neuron behavior by combining computing and data storage within a single, compact, and energy-efficient unit. These devices leverage soft polymers with exceptional mechanical traits, notably polydimethylsiloxane (PDMS), which is central to their operation.

The design places an ultra-thin PDMS film between two metal electrodes, where the polymer acts as a 'nano-spring' enabling precise and reversible nanomechanical adjustments. Thanks to PDMS’s viscoelastic properties, the device can dynamically remember the history of applied forces. During testing, the device functioned like an artificial neuron: when voltage is applied, the polymer compresses, accumulates stimuli until reaching a threshold, triggers a response, and then returns to its original form.

Future Applications and Potential

These nanomechanical devices offer unprecedented energy efficiency by integrating memory and processing capabilities without the need for complex external circuitry. The concept draws inspiration from the octopus's nervous system, which is decentralized across its tentacles, highlighting the innovative nature of this technology.

Looking ahead, the research team aims to develop integrated sensory systems, intelligent prosthetics, and low-power medical patches. Such advancements promise to impact smart electronics, edge computing, health monitoring technologies, and autonomous robotics.

This innovation could revolutionize how new technologies are designed across various fields, including healthcare and automation. The combination of small size and high energy efficiency makes these nanodevices ideal for integration into diverse systems, potentially driving breakthroughs in robotics and biomedical engineering. Ultimately, this progress may enhance quality of life and broaden access to advanced technologies for a wider population.

As researchers continue to explore groundbreaking advancements in nanotechnology, a recent development at Princeton highlights another remarkable innovation: a light-tunable semiconductor that is just molecules thick. This discovery not only complements the work being done at MIT but also opens new avenues for energy-efficient technologies. To learn more about this fascinating progress in semiconductor technology, visit the details here.