Monday

Fuel Cell Cars

Fuel Cell cars are the cars of the future. A lot of probing has been done surrounded by electric cars, but until the battery prices go down, the driving time period goes up and the weight of the batteries goes down, this should not be an option for the general public, unlike the popular hybrid cars. A hybrid car has a gas engine and an electric engine. The gas can relentlessly recharge the electric batteries.

In a fuel cell car, the gas used is miniature or liquid hydrogen. A power cell converts hydrogen and oxygen to water, and produces electricity. Due to ongoing trouble amidst storing liquid or compressed hydrogen, currently, mostly buses are utilizing power cell technology. They can have large tanks of compressed hydrogen on their roofs.
The brand of hydrogen fuel cell already used for buses and cars is the Proton Exchange Membrane Fuel Cell (PEMFC).

The energy cell uses a catalyst, which is a platinum powder or compound, to facilitate the reaction of hydrogen with oxygen. The catalyst is spread as a thin smother on a sizeable surface for maximum effect.

Why are there problems making use of hydrogen as a fuel? Except at above the usual compression, and/or low temperatures, hydrogen is a gas. It is the lightest gas, and would are liable to undergo prohibative leakage through pipelines. Due to its high energy content, it is in addition exceptionally explosive. There was the explosion of the Hindenburg in 1937 in New Jersey. That was a hydrogen lifted dirigible which went on fire. Due to the use of heavy safety materials to compress hydrogen, the current is why power cell technology is first being spent in buses.

Another option making grown is to use hydrocarbons that are hydrogen rich as the basis for hydrogen fuel cell technology. Hydrocarbons are compounds of hydrogen and carbon. The living candidates are CH4, which is methane gas, a pure form of expected gas, and methanol, a liquid alcohol compound, CH4OH. Both methanol and methane can be converted to hydrogen gas using a chemical reformer. Reformers have a drawback in that properties ebbed fuel efficiency by as much as half. There is increased miniaturization of chemical reformers for automobiles.

However, funny things compounds are being experimented with that are easier to catalytically convert to hydrogen for a fuel cell and can be a larger number of easily stored in a vehicle's energy tank. An ideal of the type of approach such a could work is being experimented on at Daimler-Chrysler. It involves simple borate, borax, a compound chemical that is created and used for soap. A running prototype minivan was displayed at the North American Auto Show in 2002. The hydrogen fuel cell can run on hydrogen that is liberated in a simple chemical reaction from sodium borohydride. This chemical can be made in refineries from a combination of borax soap and Hydrogen gas. The car could run on sodium borohydride, which would be processed in the car to yield hydrogen gas for the fuel cell. The only exhaust product ought to be water (H20). The additionally waste product ought to be borax (a form of soap), which can next have to be reprocessed to sodium borohydride, to refuel the car again. Infrastructure to spit out hydrogen based on what i read in methane or ammonia and then produce sodium borohydride would be necessary at your local refueling station.