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“The Hyperloop exists,” says Josh Giegel, co-founder and chief technology officer of Hyperloop One, “because of the rapid acceleration of power electronics, computational modeling, material sciences, and 3D printing.”

Thanks to these convergences, there are now ten major Hyperloop One projects—in various stages of development—spread across the globe. Chicago to DC in 35 minutes. Pune to Mumbai in 25 minutes. According to Giegel, “Hyperloop is targeting certification in 2023. By 2025, the company plans to have multiple projects under construction and running initial passenger testing.”

So think about this timetable: Autonomous car rollouts by 2020. Hyperloop certification and aerial ridesharing by 2023. By 2025—going on vacation might have a totally different meaning. Going to work most definitely will.

The American X-plane series has a long and storied history stretching all the way back to the Bell X-1 that made supersonic flight a reality. NASA, the Air Force, and other parts of the government have used X-planes to explore the flight mechanics of vertical takeoff and landing (VTOL), movable wings, and much more. Now, NASA is working on the first manned X-plane in decades, the all-electric X-57 Maxwell.

NASA started working on the X-57 in 2015, but it’s not building its electric plane from the ground up. The team started with a Tecnam P2006T twin-engine propeller plane, which it is modifying in stages. NASA hasn’t flown the aircraft yet, but it has deemed the X-57 ready for its public debut. The press was allowed to view the X-57 last week at NASA’s Armstrong Flight Research Center in Edwards Air Force Base.

The X-57 is currently in its “Mod II” configuration, which is the first featuring entirely electric flight hardware. The plane has electric cruise motors where two combustion motors were in the original aircraft. Mod III and IV will complete the X-57’s transformation from a noisy combustion plane to a quieter, more efficient electric one.

Nikola Motor, the Phoenix-based startup that wants to disrupt trucking with futuristic electric semis powered by hydrogen, says it has developed a new type of battery cell with double the energy density, only 40% of the weight and half the cost of current lithium-ion batteries used in Teslas and other consumer-market electric vehicles.

But it’s not providing many details for now, and public demonstrations won’t happen for about 10 months.

Battery packs using the new cells, which don’t use nickel, cobalt and other metals typically found in 2170 lithium-ion cells favored by Tesla, could boost range for current electric passenger cars from 300 miles per charge to as much as 600 miles with “little or no increase to battery size and weight,” the company said. Nikola has subjected its cells to heavy-duty testing and says that charging and depleting them “over 2,000 times has shown acceptable end-of-life performance.”

Tesla’s first Gigafactory in Reno, Nevada, has a well-documented place in the company’s history, both for how it helped Elon Musk ship his first mass-market electric car and because production problems there nearly doomed the automaker. But what’s been harder to come by is an account of the impact the factory has had on the town it was built for — until this week, that is. USA Today’s The City podcast spent an episode vividly retelling how Tesla’s first Gigafactory came to Reno with a deep dive into the way it’s changed the city.

Twentieth Century technology has relied on the use of fuels and chemical propellants to propel our ships, planes, and cars. The propulsion technology of the future will not use chemical combustion to produce thrust, and the 21st century will see the emergence of propellant-less propulsion systems. Such technologies will provide the means to travel faster than ever before at a fraction of current costs and with no pollution by-products.

This becomes absolutely crucial for interplanetary and interstellar travel, as we have stated before in RSF commentary1 reporting on Resonance-based technology may provide inertial mass reduction—the future of space travel will not be performed with chemical propellants. As an example, to date the most viable proposal for an interstellar mission with current technological capabilities is the Breakthrough Starshot project which will use a fleet of light sail probes propelled to 20% percent the speed of light via laser pulses.

Considering the significant limitations of combustion-based propulsion (as well as the harmful environmental impacts), there is a strong drive to develop the next-generation propulsion systems that will move us into the next phase of technological advancement. Torus Tech, a research and development company founded by Nassim Haramein, the founder of the Resonance Science Foundation, is researching quantum vacuum engineering technologies that will enable gravitational control and zero-point energy production.

Anyone who’s owned a vintage car can tell you—and boy, will they tell you—how much time, money, and maintenance is required to keep their baby running. And don’t forget the gasoline, garage oil puddles, or tailpipe pollution involved.

A California startup may have the answer: A plug-and-play innovative motor to convert that finicky old gas-guzzler into an electric car. Eric Hutchison and Brock Winberg first gained attention by rescuing a moldering, V-8-powered 1978 Ferrari 308—you may know it as the model that “Magnum: P.I.” drove on TV—and transforming it into an electric marvel. Now, the co-founders of Electric GT have developed a DIY, electric “crate motor” that will let traditional gearheads or EV fans do the same.

“A lot of guys go out for a weekend in a classic car that’s 40 or 50 years old, but they get a ride home with AAA; it ends up being a one-way trip,” Hutchison says. “Here, you’re taking out 95 percent of the maintenance, which is the biggest problem with classic cars. So this is for enthusiasts who love their cars, but want a fun, reliable car that’s good for 100 or 125 miles on a weekend drive.”