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Next stop? Mass production.

With that in mind, we asked Zajac how he believed the AirCar will compete with the oncoming surge of eVTOL aircraft: “AirCar is a completely different category of vehicle,” Zajac replied. “Whereas AirCar is fully taking advantage of the aerodynamic forces during flight and the lifting force is generated by fixed wings and [its] lifting body, the VTOLs are [essentially] helicopters. As a result, VTOL vehicles have low energy efficiency, shorter range, and smaller cruising speeds. I believe both will be used side by side for different purposes.” The question does remain on how many people will be willing to shell out for a flying car that needs access to a runway for takeoff. With Morgan Stanley predicting the flying car sector will be worth $1.5 trillion by 2040 and KleinVision having flight certification under its wings, we may be very close to finding out. has played a central role in the twists and turns of Associate Professor Areg Danagoulian’s life.

As a boy, it led him first to mathematic.

As the world’s energy demands increase, so does our consumption of fossil fuels. The result is a massive rise in greenhouse gases emissions with severely adverse environmental effects. To address this, scientists have been searching for alternative, renewable sources of energy.

A main candidate is hydrogen produced from organic waste, or “biomass,” of plants and animals. Biomass also absorbs, removes, and stores CO2 from the atmosphere, while biomass decomposition can also bring us ways to negative emissions or greenhouse gases removal. But even though biomass heralds a way forward, there is still the question of the best way to maximize its conversion into energy.

There are currently two main methods for converting biomass into energy: gasification and pyrolysis. Gasification puts solid or liquid biomass at temperatures around 1000°C, converting it into gas and solid compounds; the gas is called “syngas” while the solid is “biochar.”

“Penske Truck Leasing and National Grid are among the first companies adding preproduction E-Transit vans to their fleets for a variety of uses, including testing the BlueOval™ Charge Network, America’s largest public charging network, plus depot fleet charging tools that monitor and help manage energy usage,” Ford explained.

Maybe The US Postal Service Will Electrify After All

That brings us to the US Postal Service, owner of a fleet of 231,541 vehicles of various types. USPS expects to roll up to 165,000 new vehicles into the fleet under a 10-year contract signed last spring with the firm Oshkosh Defense, a subsidiary of Oshkosh Corporation.

Indian billionaire Mukesh Ambani is going big on green energy.

His conglomerate, Reliance Industries, announced Thursday that it would allocate a whopping 6 trillion rupees (approximately $80.6 billion) to renewable power projects in the western Indian state of Gujarat, where it hopes to help generate a million new jobs.

The bulk of that money — about $67.7 billion — will go toward a new power plant and hydrogen system, the company said in a stock exchange filing. Reliance plans to make the massive investment over a 10-to-15-year period, and has already begun scouting for land for the 100-gigawatt capacity site.

As NASA prepares to send astronauts further into the cosmos than ever before, the agency aims to upgrade production of a critical fuel source: food. Giving future explorers the technology to produce nutritious, tasty, and satisfying meals on long-duration space missions will give them the energy required to uncover the great unknown.

Energy storage manufacturer CMBlu has developed — in the context of New Energy — an innovative product: the sustainable flow storage unit. This “Organic Flow Battery” can be a solution or a game-changer for the central question of energy supply, which is: How can green energy be stored safely in large quantities?

Organic Flow Batteries from CMBlu are the first of their kind to be developed for commercial use. The technology is based on readily available, fully recyclable, organic materials. The aqueous electrolytes are non-flammable and ensure absolutely safe and reliable operation. The batteries are freely scalable between output and capacity. They can therefore be precisely adapted to the individual requirements of the corresponding application with corresponding cost advantages. The system-inherent separation of electrolyte and actual energy converter not only avoids the effect of self-discharge, but also enables the restoration of the original performance by simply replacing individual components instead of the entire battery.

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Over 70,000 jobs will be created through the rising battery manufacturing in Europe within the next years, new studies predict.


The energy supply in Germany and Europe has never been more in flux. As the success of renewable energies continues to mount, another technology is coming into focus. Energy storage technologies and battery storage systems in particular are becoming increasingly important with the advancement of the energy transition. This development also has significant implications for Germany as an economic center, since battery production is expected to create thousands of jobs here in the future.

Europe has not traditionally played a very significant role as a site for battery cell production, but technical advances, favorable political conditions and an especially promising sales market are making the continent increasingly attractive for battery production. A look at the key role that battery cell production plays in upstream value chains – throughout the renewable energy supply sector and especially in the manufacture of electric vehicles – makes its significance clear. Battery cells represent approximately 40 percent of the value added in the production of an electric vehicle. So it is no wonder that production capacities for lithium-ion batteries are growing faster in Europe than in any other region of the world. Current forecasts predict that the continent’s share in this global manufacturing business will increase from around 6 percent now to 16 to 25 percent by 2030.

Numerous battery cell manufacturing plants are currently being built in Europe. According to Benchmark Mineral Intelligence, Europe is expected to host manufacturing facilities capable of producing more than 300 gigawatt hours (GWh) of battery capacity by 2029. The meta-study “Batteries for electric cars: Fact check and need for action,” commissioned by VDMA and carried out by Fraunhofer Institute for Systems and Innovation Research ISI, even suggests that production capacities of 300 to 400 GWh could be achieved by 2025. The website Battery-News.de anticipates that the German market alone will account for more than 170 GWh of production capacity. By way of comparison, Europe currently has around 30 GWh of production capacity.