AI has just made its next big move! The Humane AI Wearable made its debut on a TED talk. Its coming after iPhones and Android smartphones!
A team of researchers at the U.S. Department of Energy’s Argonne National Laboratory has developed a new scientific tool called Polybot that combines artificial intelligence with robotics. This tool is set to revolutionize polymer electronics research by speeding up the discovery process of materials with multiple applications, from wearable biomedical devices to better batteries, according to a release.
Polymer electronics are the future of flexible electronics. They are efficient and sustainable, used to monitor health and treat certain diseases, among other things. However, the current methods used to prepare these polymers for electronics can take years of intense labor. To achieve targeted performance, there are an overwhelming number of potential tweaks, from spiking the fabrication recipe with different formulations to varying the processing conditions.
MIT
“Delivering drugs this way could offer less systemic toxicity and is more local, comfortable, and controllable,” said Canan Dagdeviren, an associate professor in MIT’s Media Lab and the senior author of the study, in a statement.
Wearable devices like Spiderman’s suit that are thin and soft, yet also feature electrical and optical functionalities? The answer lies in producing novel materials that go far beyond the performance of existing materials and developing technology that enables the precise control of the physical properties of such materials.
Separating transition metal dichalcogenide (TMD) into a single layer just like graphene makes it transform into a thin, two-dimensional (2D) film material that exhibits the characteristics of highly performing semiconductors. By stacking two disparate TMD layers, different combinations of TMD types and stacking methods can produce unique properties.
For this reason, 2D semiconductors based on heterostructures are attracting attention as an important next-generation material for the electronics industry throughout academia and industries around the world. However, it is still quite challenging to commercialize them due to the difficulty of controlling with precision the physical properties of their quasiparticles.
Able to stretch, squish, and bend, this flexible OLED panel could drive future wearable and implantable electronic systems.
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In this educational film scientists and engineers explain the construction of materials beginning at an atomic scale.
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“Introducing the first soft material that can maintain a high enough electrical conductivity to support power hungry devices.” and self-healing.
The newest development in softbotics will have a transformative impact on robotics, electronics, and medicine. Carmel Majidi has engineered a soft material with metal-like conductivity and self-healing properties that, for the first time, can support power-hungry devices.
A Korean research team has developed a large-scale stretchable and transparent electrode for use as a stretchable display. The Korea Institute of Science and Technology (KIST) announced that a research team, led by Dr. Sang-Soo Lee and Dr. Jeong Gon Son at KIST’s Photo-Electronic Hybrids Research Center, has developed a technology to fabricate a large-area (larger than an A4 sized paper) wavy silver nanowire network electrode that is structurally stretchable with a high degree of conductivity and transparency.
Transparent electrodes, through which electricity flows, are essential for solar cell-and touchscreen-based display devices. An indium tin oxide (ITO)-based transparent electrode is currently commercialized for use. The ITO-based transparent electrode is made of a thin layer of metallic oxides that have very low stretchability and is very fragile. Thus, the ITO electrode is not well suited for flexible and wearable devices, which are expected to quickly become mainstream products in the electronic device market. Therefore, it is necessary to develop a new transparent electrode with stretchability as one of its main features.
A silver nanowire is tens of nanometers in diameter, and the nano material itself is long and thin like a stick. The small size of the nanowire allows it to be bent when an external force is applied. Since it is made of silver, a silver nanowire has excellent electrical conductivity and can be used in a random network of straight nanowires to fabricate a highly transparent and flexible electrode. However, despite the fact that silver nanowire is bendable and flexible, it cannot be used as a stretchable material.
Researchers from the Harbin Institute of Technology and Southern University of Science and Technology have fabricated bifunctional flexible electrochromic energy-storage devices based on silver nanowire flexible transparent electrodes.
Publishing in the International Journal of Extreme Manufacturing, the team used silver nanowire flexible transparent electrodes as the current collector for a bifunctional flexible electrochromic supercapacitor.
This bifunctional flexible device can exhibit its energy status through color changes, and can serve as an energy supplier for various wearable electronics, such as physiological sensors. The findings could have a widespread impact on the future development of smart windows for energy-efficient buildings.
