Lifeboat Foundation

The next generation of handheld devices requires a novel solution. Spintronics, or spin electronics, is a revolutionary new field in condensed-matter physics that can increase the memory and logic processing capability of nano-electronic devices while reducing power consumption and production costs. This is accomplished by using inexpensive materials and the magnetic properties of an electron’s spin to perform memory and logic functions instead of using the flow of electron charge used in typical electronics.

New work by Florida State University scientists is propelling spintronics research forward.

Professors Biwu Ma in the Department of Chemistry and Biochemistry and Peng Xiong in the Department of Physics work with low-dimensional organic metal halide hybrids, a new class of hybrid materials that can power optoelectronic devices like solar cells, light-emitting diodes, or LEDs and photodetectors.

NoviOcean’s innovative Hybrid Energy Converter combines wave, wind, and solar power, generating double the energy of wind alone.

In a new study, astronomers report novel evidence regarding the limits of planet formation, finding that after a certain point, planets larger than Earth have difficulty forming near low-metallicity stars.

Using the sun as a baseline, astronomers can measure when a star formed by determining its metallicity, or the level of heavy elements present within it. Metal-rich stars or nebulas formed relatively recently, while metal-poor objects were likely present during the early universe.

Previous studies found a weak connection between metallicity rates and planet formation, noting that as a star’s metallicity goes down, so, too, does planet formation for certain planet populations, like sub-Saturns or sub-Neptunes.

Its abundance of sunlight and heavy investment in solar cell technology has positioned Saudi Arabia well in its transition to becoming a leading exporter of renewable energy. Indeed, solar energy currently makes up more than 80% of the Kingdom’s green energy capacity. However, these cells bring a twisted irony, as their operation exposes them to overheating risks. Cooling systems are therefore necessary, but many depend on electricity.

An international research team led by KAUST Professor Qiaoqiang Gan has designed a potential solution. Their device needs no electricity, as it extracts water from the air using nothing more than gravity and relies on cheap, readily available materials.

Along with keeping the solar cells and other semiconductor technologies cool, the water can be repurposed for irrigation, washing, cooling buildings on which the solar cells are placed, and other applications.

You might’ve heard comments about how western powers have been falling behind in the solar game. This chart shows how very real the Chinese dominance in that field is! Source:

The supply chain is key for the renewable energy revolution, and this chart visualizes where the world’s solar panels are manufactured.

In nature, photosynthesis powers plants and bacteria; within solar panels, photovoltaics transform light into electric energy. These processes are driven by electronic motion and imply charge transfer at the molecular level. The redistribution of electronic density in molecules after they absorb light is an ultrafast phenomenon of great importance involving quantum effects and molecular dynamics.

Scientists at the Fraunhofer ISE have succeeded in producing a perovskite silicon tandem solar cell with 31.6 percent efficiency.

Hot carrier solar cells, a concept introduced several decades ago, have long been seen as a potential breakthrough in solar energy technology. These cells could surpass the Shockley–Queisser efficiency limit, which is a theoretical maximum efficiency for single-junction solar cells. Despite their promise, practical implementation has faced significant challenges, particularly in managing the rapid extraction of hot electrons across material interfaces.

Rio Tinto has ambitious goals when it comes to sustainability. According to the company’s website, it aims to transition all its facilities and operations to net-zero greenhouse gas emissions by 2050. To achieve this, the company is working with governments to scale up renewable energy resources where it works. For example, Rio Tinto invested more than $500 million to partner with the Canadian government to decarbonize an iron and titanium mine in Quebec.

Mining companies like Rio Tinto provide necessary metals and minerals for global clients. The company’s products and resources are used all over the world in items that people use in their daily lives. Unfortunately, mining with diesel fuel produces carbon dioxide. Rio Tinto is exploring the effectiveness of renewable energy sources in its operations to try and reduce the negative impacts mining has on the Earth.

The Diavik diamond mine features a historic solar power plant that can produce up to 4.2GW hours of electricity for its operations. The solar panels on-site use both the light of the sun as well as light reflected off of snow to generate electricity.