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What would trucks look like if they didn’t need to accommodate a human driver? Volvo Trucks’ Vera vehicle is an exploration of this idea, doing away with the cabin entirely so it can more efficiently tow goods around ports and factories. The freewheeling four-wheeler has just been assigned its first task, and will soon go to work delivering containers to a port terminal in Sweden.

Taiga Motors is one of the rare companies working to bring to market an all-electric snowmobile, which is actually a segment of transportation that desperately needs cleaner solutions.

The startup is unveiling today its new lineup of electric snowmobiles with some impressive specs.

With little to no standards and many two-stroke engines, current gas-powered snowmobiles are generally incredibly polluting – sometimes 50 times more polluting than an average car. People operate the machines to experience the great outdoors and it’s a shame to have to pollute your environment to do it.

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Atomtronics manipulates atoms much in the way that electronics manipulates electrons. It carries the promise of highly compact quantum devices which can measure incredibly small forces or tiny rotations. Such devices might one day be used to monitor Earth’s status by sensing water levels in the desert or in the search for minerals and oil. They will also be used in navigation, when GPS fails on planes or ships due to malicious attacks or simply because it is not available, e.g. in the deep seas. They might also one day act as portable quantum simulators solving complex computational tasks.

Coherent atomtronics manipulates atoms in the form of matterwaves originating from Bose-Einstein condensates (a state of matter in which all the atoms lose their individual identity and become one single quantum state with all the atoms being everywhere in the condensate at the same time). The atoms in these matterwaves behave much more like waves rather than individual particles. These matterwaves can be brought to interfere and thus made to respond to the tiniest changes in their environment such as the difference in gravitational pull between light organic material and heavy iron ore. When compared to light, atoms can be 10 billion times more sensitive, e.g. to rotation or acceleration, when compared to the photons that make up light. This sensitivity depends on the measurement time and—just like Newton’s apple—atoms fall due to Earth’s gravity. This forces the most sensitive interferometers to be very tall, reaching 10 meters and in some cases even 100 meters.

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