Researchers at the University of Glasgow are pioneering the next generation of renewable energy with a focus on bladeless wind turbines (BWTs), using advanced computer simulations to pinpoint the most efficient designs yet.

This marks the first time simulations have successfully identified the optimal balance between power output and structural strength in BWTs. These bladeless systems, still in the early stages of development, may soon progress from small-scale trials to grid-level electricity generation.

In a refreshing twist on the typical space race, the Faroe Islands Space Program isn’t about launching rockets—it’s about staying grounded and turning the Moon’s gravitational pull into clean, renewable energy. This ambitious initiative centers around Luna 12, an underwater tidal kite designed to convert ocean currents into electricity, offering a reliable energy source for the remote North Atlantic archipelago.

The program is a collaboration between Swedish industrial giant SKF, marine energy innovator Minesto, and the local Faroese utility Sev. Together, they aim to help the Faroe Islands reach their goal of 100% renewable energy by 2030—and they’re doing it without leaving the planet.

A groundbreaking new technology known as thermal energy storage (TES) is set to transform the future of energy storage. At the heart of this innovation is an advanced thermal emitter that captures heat and converts it into electromagnetic radiation, which is then transformed into electricity through photovoltaic cells. Compared to conventional batteries, this system offers a more scalable and sustainable alternative. If successful, it could pave the way for a more efficient and eco-friendly energy storage solution, potentially replacing existing, less reliable systems.

Renewable energy sources such as solar and wind power hold great promise for reducing our reliance on fossil fuels, but they come with one major obstacle: intermittency. Since these energy sources depend on weather conditions and time of day, their availability is often unpredictable. This unpredictability can lead to instability in power generation, creating challenges for managing electrical grids. To address these fluctuations, large-scale energy storage systems are essential to balance supply and demand.

A new sensor technology developed by Professor Thomas Anthopoulos from the University of Manchester, in collaboration with King Abdullah University of Science and Technology (KAUST), has made significant strides in addressing one of the key challenges to hydrogen adoption as an energy carrier. Published in Nature Electronics, this innovative sensor promises to revolutionize hydrogen safety across industries, homes, and transportation.

Hydrogen, while promising as a clean energy source, presents unique safety challenges. It is colorless, odorless, and highly flammable, making it difficult to detect using human senses. Efficient and reliable hydrogen detection systems are crucial for implementing hydrogen technologies safely, particularly as the world looks to transition away from fossil fuels.

Japan’s renewable energy ambitions have taken a significant step forward with the successful deployment of the AR1100 tidal turbine by Proteus Marine Renewables. Situated in the Naru Strait, between the Goto Islands in Nagasaki Prefecture, this milestone installation marks Japan’s first megawatt-scale grid-connected tidal energy system.

The AR1100 turbine, with a capacity of 1.1 MW, has the potential to play a key role in decarbonizing the Goto Islands’ power grid, helping Japan reduce its reliance on fossil fuels. “Our next immediate focus is the commissioning of the turbine, Japan’s first-ever MW-scale grid-connected tidal system, followed by the testing and accreditation phase,” said Philip Archer, Managing Director of Proteus Operations Japan.

A groundbreaking discovery by scientists at the Massachusetts Institute of Technology (MIT) could revolutionize clean energy production using materials as simple as old soda cans and seawater. By harnessing the power of aluminum and seawater to generate hydrogen fuel, this innovative approach could have far-reaching implications for sustainable energy systems, especially in maritime applications.

Aluminum, a material most commonly found in soda cans and foil wraps, is often overlooked for its potential in energy production. However, when treated correctly, aluminum can react with water to produce hydrogen gas—a clean, efficient fuel that only releases water vapor when burned. Although the basic chemical reaction between aluminum and water has been known for some time, scaling it up for practical and cost-effective use has been a significant challenge—until now.

A groundbreaking new study has revealed a potentially game-changing discovery beneath the Earth’s surface—a massive, untapped reservoir of hydrogen that could revolutionize the global energy landscape. According to scientists, approximately 6.2 trillion tons of hydrogen are stored in rocks and underground reservoirs, a quantity far exceeding the size of known oil reserves by a factor of 261. This remarkable find could offer a sustainable solution to the world’s energy needs and play a crucial role in combating climate change.

The research, led by Geoffrey Ellis, a petroleum geochemist at the U.S. Geological Survey (USGS), was published in the journal Science Advances. The study estimates that just a small fraction of this underground hydrogen could have profound implications for the global energy future. According to Ellis, extracting merely 2% of this hydrogen—equivalent to 124 billion tons—could supply all the hydrogen needed for net-zero carbon goals for centuries. This amount contains nearly twice the energy stored in all the known natural gas reserves on Earth.