Earlier this month, researchers performed a test run of a bus that basically drives itself. It follows a line of magnets embedded in the pavement, coursing exactly along its route and eventually to the bus stop. The tiny magnets on the bus and in the street guide the bus to the perfect parking position at the stop for picking up passengers. It's a cool idea, and a lot of transit agencies are interested. But there are wider applications. Take, for example, my neighborhood, where nobody knows how to park.
Earlier this month, researchers performed a test run of a bus that basically drives itself. It follows a line of magnets embedded in the pavement, coursing exactly along its route and eventually to the bus stop. The tiny magnets on the bus and in the street guide the bus to the perfect parking position at the stop for picking up passengers. It's a cool idea, and a lot of transit agencies are interested. But there are wider applications. Take, for example, my neighborhood, where nobody knows how to park.
If a bus can park itself at a bus stop automatically, why couldn't a car automatically park itself on a street? This magnet bus idea seems simple enough to translate. Let's examine:
The new magnet bus, a project of researchers at the University of California, Berkeley, uses a computer system to sense the subtle directing of small magnets along the intended path of the bus. The computer's detection of these magnetic forces controls a motor attached to the steering wheel of the bus. A human driver has to control the speed and the brakes, but can be literally hands-off while the bus follows the precise path laid out by the magnets -- which are apparently no stronger than the pizza joint fridge magnet that's holding up your kid's report card.
The project has received funding from the state of California and the U.S. Department of Transportation, and could be operational in a public bus system by 2010. It would probably work best on a dedicated bus lane, and that's what the researchers are going for. But even if it couldn't go the whole route, having just the approach to the bus stop magnetized would make the ride a lot more efficient. Anyone who's gotten on a bus (especially those in wheelchairs) knows that the marked bus stop is only a suggestion. Buses typically pull to their stops in slightly different places, and with varying distances from the curb. This variability, say the researchers, creates delays. With their magnet system, the bus pulls up to the exact same spot, a half-inch from the curb, every time.
If only people could park their cars so reliably.
The picture below was taken right next door to my house in Los Angeles and is a perfect example of why this magnet technology is needed on our streets.

The driver of this car was lucky enough to find a spot in my neighborhood, where a three-block post-parking walk home is a way of life. But this driver's sloppy parking job actually takes up two spaces when only one is needed. If there were some of those magnets embedded in the ground here, the car could have been guided into place closer to the driveway behind, leaving room for another car to park in front. Maybe even mine.
Cars, however, do come in different sizes. Setting up a magnet-guided, predetermined parking spot for them all is not exactly reasonable; a Bug has different needs than a Hummer. But with magnets in the street and magnets on cars, couldn't those attractive and repellant forces be harnessed somehow to tell an on-board computer to guide that Bug 6 inches from a driveway or a foot from that Hummer's bumper? If they can park a bus a half-inch away from a curb, there's got to be some magnetic magic they can pull to get this Chevy Cavalier six feet closer to my neighbor's driveway -- and my car right in front.
As someone who primarily rides the bus, though, I'd say any innovation to public transit should be focused on first, before the private automobile. But plenty of people do drive, and most of them can't park, so there's a market out there. Magnetized bus transit would be awesome, but magnetized car parking would probably have a much broader positive impact.
For further explanation of this concept, please consult the video below:
Planetizen Federal Action Tracker
A weekly monitor of how Trump’s orders and actions are impacting planners and planning in America.
Data reveals that NYC’s bet on congestion pricing has paid off
After almost two years of the program, reports show positive impacts on traffic and air quality and no disruptions to parking.
HUD modernizes 50-year-old manufactured housing framework
The Next Generation Manufactured Housing Action Plan establishes new energy-efficiency standards for manufactured homes, and new guidelines for anchoring them.
Chicago city vehicles are on the hunt for illegally-parked cars
Cameras on the vehicles can automatically issue tickets to drivers who park their cars in bus or bike lanes.
Small single-family homes are illegal in most of MA. Voters can change that
Most land zoned for single-family housing in Massachusetts requires at least 40,000 square feet of land per house.
Public steps inside U.S.’s first battery-powered train
Metra’s groundbreaking train feature modern seats and a futuristic battery car.
FREE Course: Walkable City 1: Why Walkability?
After describing his path towards focusing on walkability as the essence of good planning, Jeff Speck marches through his five principal reasons for making more walkable places.
Reinventing Malls: Planning Alchemy—Turning Gray Fields Into Gold
The course focuses on the opportunities and imperatives that shape reinvention of mall sites.
One Hundred Miles
County of Mendocino
planning NEXT
The Architects Foundation
University of Cincinnati Online
Montrose County
Northern Illinois Transit Authority (NITA)
The Pocatello Development Authority