Changing carbon dioxide (CO2) into hydrocarbon-based fuels would be one step towards CO2 neutrality. A highly effective photocatalyst based on gold atoms could render this transformation viable.
Karlsruhe Institute of Technology (KIT) is largely involved in a new battery recycling project. LiBinfinity focuses on a holistic concept for recycling materials of lithium-ion batteries.
Scientists at the National Institutes of Health (NIH) and Duke University have been using chips and pressure-driven pumps from Dolomite Microfluidics to develop and optimize a microfluidic flow-focusing technology (MFFT) platform.
A team of researchers have observed and reported for the first time the unique microstructure of a novel ferroelectric material, enabling the development of lead-free piezoelectric materials for electronics, sensors, and energy storage that are safer for human use.
An academic/enterprise partnership that includes Penn State researchers is developing a new dielectric material to enable magnetic resonance imaging (MRI) machines with shorter scan times and higher image resolutions, good news for cutting the cost of MRI scans for the hospitals and for patients who struggle with MRI-related anxiety.
Charging and discharging a battery cell transforms its electrode material into a ?"super" material.
New high-power electronic devices have been developed by engineers that are significantly more energy efficient than previous technology. A new technique for carefully “doping” gallium nitride (GaN) allows for the creation of the devices.
Writing in the journal Materials Today: Proceedings, a team of scientists from Sant Longowal Institute of Engineering and Technology and Chandigarh University in India have investigated the thermal and sonochemical modification of guar gum to enhance the material’s properties and commercial application.
In physics, Schroedinger's cat is an allegory for two of the most awe-inspiring effects of quantum mechanics: entanglement and superposition. Researchers from Dresden and Munich have now observed these behaviors on a much larger scale than that of the smallest of particles.
Thermoelectric devices convert thermal energy into electricity by generating a voltage from the difference in temperature between the hot and cold parts of a device. To better understand how the conversion process occurs at the atomic scale, researchers used neutrons to study single crystals of tin sulfide and tin selenide. They measured changes that were dependent on temperature.
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