Borrowing methods from biology, a team of scientists and engineers designed and tested an electrolyte that keeps battery power delivery high, cycle after cycle.
Borrowing methods from biology, a team of scientists and engineers designed and tested an electrolyte that keeps battery power delivery high, cycle after cycle.
In many sectors, sensor networks are composed of thousands of individual sensors, many powered by primary batteries. Certain issues related to limited power autonomy need to be taken into consideration before successfully deploying such networks.
A new electrolyte design for lithium metal batteries could significantly boost the range of electric vehicles. Researchers at ETH Zurich have radically reduced the amount of environmentally harmful fluorine required to stabilise these batteries.
Understanding gate-driver fundamentals, architectures, drive techniques for SiC MOSFETs and GaN HEMTs, protection features, key specifications, and selection guidance for modern power electronics.
Using the world's most powerful neutron source and technology from space telescopes, DTU researchers will create a unique microscope that can look inside batteries and see what happens when they break down. This could lead to better battery materials in the future.
As lithium-ion batteries power more vehicles and energy systems, the risk of thermal runaway grows. Honeywell's BES LITE detects electrolyte vapors at the first vent stage, enabling rapid intervention to prevent failures, protect assets, and ensure safety compliance.
Learn why growing hardware teams slow down as they scale, and how aligned workflows, parallel collaboration, and real-time design visibility restore speed and momentum.
This article is a detailed exploration of crystalline vs amorphous solids, covering atomic order, materials properties, semiconductors, and how they translate into practical semiconductor, hardware and digital design applications.
These devices could pack three times as much energy per pound as today's best EV batteries, offering a lightweight option for powering trucks, planes, or ships.
Borrowing methods from biology, a team of scientists and engineers designed and tested an electrolyte that keeps battery power delivery high, cycle after cycle.
In many sectors, sensor networks are composed of thousands of individual sensors, many powered by primary batteries. Certain issues related to limited power autonomy need to be taken into consideration before successfully deploying such networks.
A new electrolyte design for lithium metal batteries could significantly boost the range of electric vehicles. Researchers at ETH Zurich have radically reduced the amount of environmentally harmful fluorine required to stabilise these batteries.
Researchers from ITMO University have managed to improve the efficacy of perovskite solar cells with the help of silicon nanoantennas, which increase the concentration of light in the material at certain wavelengths.
In 10 years, solid-state batteries made from rock silicates will be an environmentally friendly, more efficient and safer alternative to the lithium-ion batteries we use today.
Visualizing the energy consumption profile of your embedded IoT device marks the initial step toward achieving low-power design and extended battery life. The subsequent step is analysis, where you can make a significant impact on your energy optimization efforts.
Solar energy, which is both abundant and free, is poised to become the world’s leading power source by 2050. That’s thanks largely to technological advances and the unbridled manufacturing of solar cells, which bodes well for a successful energy transition.
TENN, developed by BrainChip, is an efficient AI technology designed for edge and event-based processing, reducing energy and computational demands for applications in various sectors.
Columbia Engineers use nuclear magnetic resonance spectroscopy to examine lithium metal batteries through a new lens -- their findings may help them design new electrolytes and anode surfaces for high-performance batteries
Instead of burning coal or oil to produce cement or steel, in the future solar energy could be used for this purpose. Researchers at ETH Zurich have developed a thermal trap that can absorb concentrated sunlight and deliver heat at over thousand degrees Celsius.
The natural vein structure found within leaves – which has inspired the structural design of porous materials that can maximise mass transfer – could unlock improvements in energy storage, catalysis, and sensing thanks to a new twist on a century-old biophysical law.