6 Major Pre-Production Electric Vehicles Compared
rbgrn writes with a review of six major pre-production electric vehicles. The review offers an easy side-by-side comparison of these six cars with projected release dates of either 2008 or 2010. "With all of the hype surrounding hybrid vehicles today, I thought I'd do some research and post my findings on the next generation of fully electric and plug-in hybrids. The fully-electric EV has had a bad name in the past, mostly due to insufficient battery technology, politics, lack of performance models and other factors. Starting this year with the Tesla Roadster, the EV is going to take on a new form in the eyes of John Q Public. Quiet, efficient EVs will start to become commonplace in the next few years as major manufacturers go into production with the newest generation of vehicle sporting more powerful motors, efficient generators and the latest battery technology."
The site was slashdotted, so here's the google cache
So where do you plan on getting the hydrogen? It doesn't exist naturally on earth.
Steam reformation (currently the most economic method)? Releases CO2 as one of the resulting products from the process.
Electrolysis? Where do you get electricity for this? Coal? CO2 emissions. Solar? Inefficient (as of now). Wind? "costly and unsightly" Nuclear?
The only advantage hydrogen offers is that it can be ultimately converted into mechanical energy through both internal combustion engines and fuel cells producing electricity to power electric motors(read: ELECTRIC CARS).
Just remember, with hydrogen, "the power has to come from somewhere," too.
Allows you to drive up to 640 miles via it's generator. Since it is just a generator, they can optimize it's performance for charging. There is no need to have all the transmission aspects of a I.C.E. attached to a drive-train. This allows it to be very efficient.
Furthermore, having the means to charge your vehicle in the garage (with a net savings for $35-$75 a fill-up times x number of fill-ups per year) alters the value of solar cell roofing.
Those uber-expensive solar panels on your roof that cost you an extra $200/month for the next 10 yrs, all of a sudden are not quite as costly in your budget when they eliminate $100 or more in expenditures on gasoline.
These vehicles will likely spur major growth in solar cell production.
In large portions of the US, we use this new-fangled thing called hydro-electric power,
The problem with hydro which is often overlooked is the fixed capacity of the system. Many are under the illusion that all you need to do is dam a river with a new dam and wow, free power. Often overlooked is that hydro is gravity power from falling water. That is water moving from one elevation to another. Many people have no clue as to why there is no major (or minor) hydro plants on the mighty Mississippi River. The sad fact is Chicago Illinois is at an elevation of only 700 feet. Just how many 80 foot drop dams are you going to put between the gulf and Iowa? If you put in a dam and let the water back-up.. how much land would be under water? The river is over 2,000 miles long, but most of the elevation is below 1,000 feet. There isn't much falling water in there.
http://www.42explore2.com/missriv.htm
The river does have a system of Dams and Locks, but they are for Navigation, not power generation
"Twenty-nine locks and dams on the Mississippi and eight on the Illinois replaced rapids and falls with a stairway of water for commercial and recreational traffic."
They connected it to one of the Great lakes with a canal.
"The history of navigation on the Upper Mississippi River System goes back to the 1820's, when Congress authorized construction of a canal connecting Lake Michigan and the Illinois River and also authorized removal of snags and other obstructions in several reaches of the Mississippi River."
Remember that water flows downhill. Lake Michigan is at elevation 577 feet above sea level. The canal connects to the Illinois river which than empties into the Mississippi river. Let's face it, there just isn't a lot of elevation drop in the river to supoort power generation. There is barely enough elevation drop to drain a heavy rain.
Here is some stats on a couple of the dams. Both of them have a drop of less than 20 feet. These are not suited for commercial power generation.
http://stinet.dtic.mil/oai/oai?verb=getRecord&metadataPrefix=html&identifier=ADA105334
http://stinet.dtic.mil/oai/oai?verb=getRecord&metadataPrefix=html&identifier=ADA104703
Move on to the mighty Columbia, known for it's hydro. There are many dams in Oregon.
The Columbia River has the water from most of Montana, Idaho, Oregon, and Washington. It enters Oregon near the Idaho border. One of the major dams is the McNary dam near Hermiston Oregon. The dam has a nominal pool level of 340 feet above sea level. That dam dumps right into the pool of the next dam which has a pool elevation of 265 feet. This stair step drop from pool to pool continues all the way down to the Boniville dam near Hood river. From there the river has very little drop all the way to the Pacific Ocean. Any more dams along there would simply flood out the powerhouse of the next dam upstream. The last dam the bonivile dam has a pool elevation of 74 feet. It discharges into the lower river near Portland Oregon. The river in Portland is at a nominal elevation of about 9 feet above sea level. That is why there are no dams on the Columbia between Portland and Astoria on the coast 80 miles away. If you put in a dam and allowed the pool to fill, all of downtown Portland would be under water.
Hydro power is cheap to produce, but there just isn't any more places with a good head of water to feed the demand for hydro power. There are a few creeks which can support some small hydro, but these are backyard projects. The environmentalists and outdoors men also resist the damming of every little stream. The lower Deschutes river is known for it's white water rafting. Damming that up would be a major legal battle.
The truth shall set you free!
Lots of coverage on AutoBlogGreen and some videos up on YouTube ( more tubiness)
The skinny: based on popular I car ( selling very well in Europe ) Mitsubishi is planning to market a fully electric version. About 120 miles range, a bit better acceleration performance than gas version and same top speed. Announced pricetag: $24K.
Fully crashtested to european standards at least, performs as well as gas counterpart.
The prototypes are in fleet testing by Tokyo Electric Power Company ( TEPCO ) right now.
There is some competition from Subaru in the form of R1E and Nissan with the Mixim.
I guess the reviewer does not subscribe to ABG electric vehicle news.
http://validator.w3.org/check?uri=http%3A%2F%2Fwww.slashdot.org Errors found while checking this document as HTML5!
What load of bs, quote from link:
"In October 2005, WEST signed a contract to deliver 150 megawatts, which should take roughly 50 windmills. A test turbine is scheduled to be in operation this summer; the rest should be spinning by late 2008. Another 50 or so could follow by 2010 if demand warrants."
So 2x150 MW = 300 MW in 3 years..
"At 500 megawatts, that project is bigger than WEST's, but it won't be completed for several years."
So maybe 800 MW in several years, barely enough for 200K houses. But hey only one year late and 1/70 of 21 GW, seen worse facts modded to 5 Informative before...