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Skeleton Technologies and Siemens are announcing a far-reaching technology partnership for the development, planning and implementation of a fully automated, digitalized manufacturing plant to produce supercapacitors in Germany.

What if you could power the smart thermostats, speakers and lights in your home with a kitchen countertop? Stones, such as marble and granite, are natural, eco-friendly materials that many people building or renovating houses already use. Now, in a step toward integrating energy storage with these materials, researchers have fabricated microsupercapacitors onto the surface of stone tiles.

Researchers have developed a low-cost device that can selectively capture carbon dioxide gas while it charges. Then, when it discharges, the CO2 can be released in a controlled way and collected to be reused or disposed of responsibly.

Like the charged power suit worn by Black Panther of Marvel Comics, researchers have advanced NASA technologies to develop a power suit for an electric car that is as strong as steel, lighter than aluminum and helps boosts the vehicle's power capacity.

Micro supercapacitors could revolutionise the way we use batteries by increasing their lifespan and enabling extremely fast charging. Manufacturers of everything from smartphones to electric cars are therefore investing heavily into research and development of these electronic components. Now, researchers have developed a method that represents a breakthrough for how such supercapacitors can be produced.

Work on hydrogel membranes, like work on hydrogels generally, is mainly medically oriented. In this premium article, we mainly concentrate on hydrogel membranes beyond medical ones, as this is the later-emerging market opportunity.

Engineers have developed a new technique for making wearable sensors that enables medical researchers to prototype test new designs much faster and at a far lower cost than existing methods.

Smartwatches, fitness trackers and other Internet of Things devices could get a significant boost to their "battery" life thanks to new, environmentally friendly energy research.

Researchers have developed a new technology for producing cost-effective batteries from medical waste. The authors of the research claim that their technology could turn waste that is difficult to recycle into raw materials, according to a study published in the Journal of Energy Storage.

A research team has developed a graphene-inorganic-hybrid micro-supercapacitor made of leaves using femtosecond direct laser writing lithography. The advancement of wearable electronic devices is synonymous with innovations in flexible energy storage devices. Of the various energy storage devices, micro-supercapacitors have drawn a great deal of interest for their high electrical power density, long lifetimes, and short charging times.

Researchers have developed a new analysis technique that will help scientists improve renewable energy storage by making better supercapacitors. The team's new approach enables researchers to investigate the complex inter-connected behaviour of supercapacitor electrodes made from layers of different materials.

The miniaturization of microelectronic sensor technology, microelectronic robots or intravascular implants is progressing rapidly. However, it also poses major challenges for research. One of the biggest is the development of tiny but efficient energy storage devices that enable the operation of autonomously working microsystems - in more and more smaller areas of the human body for example.

Presentation from Andrew Burke at the University of California-Davis Institute of Transportation Studies on Advanced Supercapacitors

Research shows potential ways to manufacture graphene-based nano-inks for additive manufacturing of supercapacitors in the form of flexible and printable electronics.

Scientists have created a new generation of low-cost, high-energy supercapacitors to power electric vehicles. Researchers have produced a cheaper, more sustainable and energy-dense electrode material for supercapacitors which could pave the way for wider market penetration of this high-power, quick charging electric vehicle technology.

The prototype will feature a world-first in electric powertrains: a 'hybrid' battery which combines Nawa Technologies' own ultracapacitors, NAWACap, with conventional lithium-ion cells.

Exploration of extremely cold environments, from Earth's polar regions to the moon and Mars, requires technology that can rapidly store and deliver electricity at ultralow temperatures. NASA's Perseverance rover, for example, needs heaters to keep the rover's battery system from freezing in Martian temperatures averaging about -81 F (-62 C).

A sustainable, powerful micro-supercapacitor may be on the horizon. Until now, the high-capacity, fast-charging energy storage devices have been limited by the composition of their electrodes — the connections responsible for managing the flow of electrons during charging and dispensing energy. Now, researchers have developed a better material to improve connectivity while maintaining recyclability and low cost.

In a step towards a new type of energy storage, researchers have developed a hybrid supercapacitor that offers the best of both worlds in energy storage.

A team working has developed a highly efficient supercapacitor. The basis of the energy storage device is a novel, powerful and also sustainable graphene hybrid material that has comparable performance data to currently utilized batteries.