Story:
25 years ago we were in a hotel in Vancouver, British Columbia, preparing for a
presentation the next day at a conference. We had a lot to do and didn’t want
to take the time to go out for a midnight snack. So instead we brainstormed about a
pizza-sized vehicle. We even figured out that it could run along the ceiling of
the halls, and the tops of elevators, to deliver right into our rooms through a
slot above our door. That way it wouldn’t interfere with anyone, or require a
lot of construction.
For new buildings, there will undoubtedly be clever designs
for placing A-Ways – coming chapters will show sample building designs to
take full advantage of Autonomous Vehicles inside.
So where are we going to put these separate A-Ways in
existing buildings? We’ve already talked about using Autonomous Vehicles to
have a person travel along with someone who is walking. Usually it isn’t
practical to divide hallways into separate areas for Autonomous Vehicles.
However, we can provide a continuous power feed along the wall, perhaps looking
like a baseboard heating fixture. The power level can be low due to slow speeds, and the
power would stop if anything other than an Autonomous Vehicle connected, as a
Ground Fault Interrupt operates today. Autonomous Vehicles aren’t restricted to
traveling along the walls, but they can minimize batteries by recharging as
they travel along.
For smaller items, up to about one foot high, that can’t
hitch a ride on one of those Autonomous Vehicles, there are several
possibilities for placing A-Ways. Many public buildings, such as senior
facilities and hospitals, have high ceilings in the halls, so we could attach
an A-Way to the ceiling. Or, if there is a suspended ceiling, the A-Way could go in
the space between the ceiling and the floor above. These A-Ways would run
throughout the building, providing access to each room or apartment. Access to
either of these A-Ways could be through an access port in the floor above, or
an access port could reach down to the floor. The access ports would implement
Autonomous Door functions.
Another approach is attaching A-Ways to the sides of
buildings. The A-Ways would be high enough to be out of the way of pedestrians
and traffic. The A-Ways are only about 2’ high and a few feet wide, so they
would probably not interfere with windows. Access Ports can be installed in
different configurations: through a window like a window air conditioner, built
into the side of a building, or through an extension to street-level or a
higher level. The street-level access includes a mechanism to move the
Container from the Access Port to the A-Way – suitable mechanisms are described
in the section on Autonomous Elevators. The Access Port also serves as an Autonomous Door, regulating entrance into, and exit from the A-Way. A-Ways could also be suspended
above roads where there are no convenient buildings.
Installation could start with a single A-Way connecting
selected locations. This could be relatively simple and inexpensive. The Postal
Service, and existing package delivery services, such as FedEx and UPS, are
obvious early customers, providing rapid inexpensive delivery to their
buildings for distribution to customers. Frequent users of those services are
also candidates for early connection to the system. Online ordering services,
such as Amazon and other retailers, can use automatic connection to delivery
lockers, as they are deploying now. When your order has been delivered, you
get an electronic notification to go to the specified location, and your
notification includes a code to open the appropriate locker. As these lockers
proliferate, and as more locations are connected to the Autonomous
Transportation System, other uses will emerge. You could have your Starbucks
beverage or your Panera breakfast delivered along your way to work. You could
pick up flowers on the way home for the anniversary you almost forgot. Other
stores will see the advantage of inexpensive, rapid delivery of all types of
items such as: flowers, food to their stores. Then as the concept and
technology are proven, and usefulness demonstrated, the system can be expanded
to a robust grid increasing capacity, coverage, and redundancy.
Buildings directly connected to the Autonomous
Transportation System will begin to attract higher prices because of the
convenience. Congestion on the roads in the city will gradually decrease, while
people get better and faster services. This will make the city more attractive
as a place to live and work, raising property values and improving city
finances.
Our proposal isn’t the first small transport system: leading
large cities around the world had pneumatic transport systems to carry mail and
other items. In 1853 the London Stock Exchange linked to the main telegraph
station over 220 yards. In 1861 a pneumatic system large enough to move people
opened in London. New York City’s system
started operation in 1897 and continued until 1953, when it was deemed too
expensive. Canisters 24” long and 8” in
diameter could hold 600 letters and travel up to 35 mph. The 27 miles of tubes
connected 23 post offices, and at its peak carried 30% of the mail in the city.
The tubes were buried a few feet underground, which proved expensive and
disruptive when a blockage occurred. Pneumatic systems are still used in
hospitals, banks, and some stores; however, moving air around in a hospital
doesn’t seem like a good idea to me.
No comments:
Post a Comment