Earth’s Core Just Became a Power Source

In a groundbreaking development, scientists have successfully demonstrated the feasibility of harnessing renewable energy from superhot rocks deep beneath the Earth's surface, challenging long-held assumptions and opening new avenues for sustainable power generation.

Recent breakthroughs in laboratory experiments have illuminated a new possibility in the realm of renewable energy—harnessing energy from superhot rocks deep beneath the Earth’s surface. This remarkable discovery challenges previously held beliefs about the impracticality of accessing energy from these semi-solid formations.

The research conducted by a team at the Ecole Polytechnique Fédéral de Lausanne (EPFL) has opened up an exciting avenue for energy production that could significantly contribute to a zero-carbon future. As we delve deeper into this subject, it’s crucial to understand the implications and potential of tapping into this newfound energy source.

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Water Battery for the Car

Electric mobility has just been put on the back burner, even though brands such as Tesla and Volkswagen are still 100% committed to it. However, everything could change now with the first water battery in history that you can carry in your current car. The best part? It will give you infinite autonomy without the need to recharge, something that was thought to be impossible until now.

Could a water battery be real? Scientists think so, and have created this

In the latest scientific news from China, a group of brilliant minds in the field has successfully invented the water battery. This breakthrough technology could overthrow existing energy solutions worldwide. It is the possibility of a breakthrough in energy storage performance.

The water battery has water as its electrolyte and aluminum as the anode material. This enables the adenosine triphosphate (ATP) to store more energy in a smaller unit of volume than the unit weight. Surprisingly, they noticed that a single gram of anode could hold more than 10 times more energy than a lithium battery.

In addition to enhancing driving range to endless distance thus substitute the use of petrol, the technology will offer extended battery life in consumer products and the improved storage facility of power sources from renewable energy.     READ MORE...

The Future of Nuclear Energy

Between 2009 and 2019, global consumption of renewable energy grew at an annual average of 13.4%. Over that time, renewable energy consumption grew from 8.2 exajoules (EJ) globally to 28.8 EJ.


Yet, global carbon dioxide emissions rose by more than 4 billion metric tons per year during that time, reaching an all-time high in 2019.


Between 2009 and 2019, global consumption of renewable energy grew at an annual average of 13.4%. Over that time, renewable energy consumption grew from 8.2 exajoules (EJ) globally to 28.8 EJ.


Yet, global carbon dioxide emissions rose by more than 4 billion metric tons per year during that time, reaching an all-time high in 2019.



The reason for this is that overall global energy consumption — while growing at an average annual rate of only 1.9% — rose by 92 EJ from 2009 to 2019. Renewables are growing at a much faster rate, but it will take decades at the current growth rates before renewables can make a serious dent in global carbon dioxide emissions.


That’s why nuclear power could play a critical supporting role in reining in global carbon dioxide emissions. Yet, nuclear power is concentrated in a handful of countries, and very few are growing their nuclear energy production.


The reason for this is that overall global energy consumption — while growing at an average annual rate of only 1.9% — rose by 92 EJ from 2009 to 2019. Renewables are growing at a much faster rate, but it will take decades at the current growth rates before renewables can make a serious dent in global carbon dioxide emissions.That’s why nuclear power could play a critical supporting role in reining in global carbon dioxide emissions. Yet, nuclear power is concentrated in a handful of countries, and very few are growing their nuclear energy production.  READ MORE...

Undoing Carbon Emissions

Carbon emissions are causing climate change – so rather than sending carbon dioxide into the sky, in Iceland, some are turning it into stone.


The two red-and-white silos of the aluminium smelter at Straumsvík are conspicuous from afar to everyone travelling from Iceland’s international airport to the capital city, Reykjavík. These silos house a mineral called alumina, the raw material used to produce aluminium. 

The alumina makes its way via an automated system to potrooms – three grey, long, low-lying buildings – where the manufacture of aluminium happens. These potrooms are perhaps less noticeable than the towers, yet they are playing a crucial role in reducing Iceland’s carbon emissions.

Heavy industry in Iceland contributes 48% of the country’s carbon dioxide (CO2) emissions, according to the Environment Agency of Iceland, excluding greenhouse gases from land use and forestry.

 Even though these industrial facilities run on renewable energy from hydroelectricity and geothermal power, CO2 is released as part of the process of producing metals like aluminium. 

The larger of the country’s industrial facilities produces silicon metals, which are used in steel manufacturing, as well as aluminium, much of which is exported and used in the automobile industry.

At present, three aluminium smelters, two manufacturing plants and the energy company Reykjavik Energy are investigating becoming carbon neutral by 2040. Together, the facilities release about 1.76 million tonnes of CO2 each year. 

Getting from that figure to zero might seem like a tall order, especially when much of Iceland’s heavy industry already runs on renewables.  TO READ MORE, CLICK HERE...

Artists and Their Private Jets

Artists and bands must swap private jets for trains, festivals and venues need to generate more of their own renewable energy and gig tickets should include free public transport.  

These are just some of the recommendations being made by scientists at the University of Manchester to help the music industry reduce its carbon emissions to stop climate change. 

The roadmap for live music was based on tour data supplied by the band Massive Attack.  The findings are being shared across the industry and, it's hoped, will inspire millions of fans to live more sustainably, too.

What are the recommendations?
Since 2019, scientists at the Tyndall Centre for Climate Change Research have been poring over every detail of Massive Attack's last tour.  They then used lessons learned to create a roadmap for the whole industry.

Their recommendations for "super low carbon practices" deal with how musicians, promoters, tour managers and agents should work in order to keep the rise in global warming restricted to 1.5C.

The suggestions cover how artists move around, the venues they play at, and how fans get to events:

• Plan tour routes in a way that minimises travel and transport
• Include travel by public transport in the ticket price
• Generate renewable energy on site, e.g. solar panels
• Gig and concert venues should use renewable energy
• Use energy efficient lighting and sound equipment
• Use electric vehicles and trains to travel between venues
• Better bike storage at music venues
• Avoiding flying and eliminating private jets
• Perform at venues that are taking action to reduce their building energy use
• Offer incentives to fans who choose to travel by public transport

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