With the majority of kinks worked out of the vehicle's design (we ended up adding a light but functional fairing, or shell-shaped windshield, and a sun awning), it was time to address the actual logistics of a cross-country road trip. In a car, it can be as easy as hoping on an Interstate highway and fighting boredom for 2,000 miles. Our vehicle would not be legal on limited access highways, and we had no desire to run it on any type of busy road, which would make planning our trip both trickier and more important.
Unlike a bike, which could cower over on the shoulder of the blacktop, we’d need a full four feet of roadway. Because of our width, overtaking us would require drivers to wait for a gap in oncoming traffic before passing, as if we were driving a regular car (albeit a slow one). This would undoubtedly lead to a few angry honks, but on the plus side, it might eke out a bit more room on the side for cyclists.
In the interest of increasing our visibility on the road, we had already added a roll bar-like structure, with red flashing strobe-lights attached, to the rear of the vehicle. But rather than rely on the legendary vigilance and courtesy of the American driving public, we knew the best strategy would be to avoid confrontation whenever possible. In addition, we had no desire to spend the entire summer on the shoulders of major highways or inching through city traffic.
Long distance cyclists have faced similar challenges for years, and have come up with a network of roads that span the continent, connecting back roads and scenic routes that lead through small towns, countryside and some of the most scenic public lands in the nation. By following one such route known as the TransAmerica Bike Trail, we would ultimately travel 1,200 miles farther than a driver heading for both coasts on four-lane highways, but we saw it as a worthy trade-off, considering the benefits.
The route was well documented, but we would face one additional logistic challenge unique to our choice of vehicle. With fully charged batteries, our realistic range was expected to vary from a low of 30 miles if there were heavy climbs involved, to as much as 60 miles in flatter areas. To keep weight under control, we’d limited the battery pack to a total of 1,400 watt-hours – just better than half of our daily ration of 2,400 watt-hours. Key to our daily strategy would be a mid-day stop for rest, recreation and a quick recharge. Well, actually, not so quick, as it would take about three hours to bring deeply discharged batteries back to full capacity.
The variables of daily mileage expectations, vehicle range, recharge requirements and our desired stops at various points of interest had to be blended into a working itinerary. We ended up spending more than a few evenings at the computer, poring over Map My Ride's trip planner. An added advantage of using this site was that, in addition to providing exact mileage on a Google Maps overlay, the software showed mile-by-mile elevation changes, which would affect our ultralight vehicle immensely.
When we set out on June 2, we'll have an intricate route map that meanders along hundreds of small secondary roads, with a precise schedule of stops. Chances are that weather, breakdowns and a host of other variables will amend that schedule, but we’ve also built in some degree of flexibility to account for such delays.
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Five amazing, clean technologies that will set us free, in this month's energy-focused issue. Also: how to build a better bomb detector, the robotic toys that are raising your children, a human catapult, the world's smallest arcade, and much more.


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We can end our total dependence on oil if we use less alternate fuels not more. If we turn the dials on our alternate fuels, just right, we can reduce the amount of each to bridge the gaps between each other while at the same time reducing the over all price. We use hybrid car batteries to reach far fewer alternate fueling stations. Our 2,000 mile coast to coast trip would only need 80 alternate fueling stations along it. Only 500 alternate fueling stations would be needed to replace our current 10,000 gas stations because of the added distance batteries provide. At five to seven percent new vehicles in the system every year it could take only ten to fifteen years to replace oil for your commute, and only about half that to bust down the price of oil.
First we turn most of the problem into a mobile billing problem. Local electrical home networking is still around, but because of band width never became popular, and for the same reason broadband by electrical power lines never did either. If we take and use these failed networking attempts we can make every plug a mobile billing electric fueling station for your hybrid battery. We are going to update our power metering system anyway so the cost is integrated. A hybrid battery adds $2,000 dollars to the sale price of your hybrid vehicle, but pays for its self in fuel economy. Adding more corrosive resistant tubing to your engine for around $100 dollars at manufacture will allow it to handle alternate fuels like E85 or natural gas, and the battery solves the infrastructure problem for those alternate fuels.
Seventy percent of all commutes are less then 30 miles away. Plugging in at home and at work will allow off the shelf plug in electric hybrid vehicles to power 95% of all commutes without any fuel at all. That will transfer over 60% of gasoline use to be powered by local electric power usually by domestic coal, and double the use of existing oil reserves in the process. Updating the power meters to create a smart power billing smart grid and smart battery network to store solar in car batteries makes sense from just a civil defense stand point. If the Middle East blew its self up you could plug your hybrid vehicle in at work for an emergency.
Is that turn in S Oregon around Ashland/Medford? If so, I could get a lot of people from the area (including Southern Oregon University) to come out and see and support.
I see from the map that you'll be entering Montana on US 93 and then I assume you'll take US 12 west through Idaho. That is pretty country but get ready to put the ultralight through its paces. There's a sign on US 12 in that stretch that says "Windy Road Next 99 Miles" I live up in Missoula, I'll be looking forward to when you're coming through. Missoula being a bit of a hippy-college town has a lot of green initiatives--including a student run house that demonstrates many "green" energy efficiency measures.