Скачать или смотреть How to Burn Water

I've managed to burn water using my microwave oven. I'm looking for individuals who are willing to duplicate my experiments to prove that this really works. The first video of an experiment has been posted, and the next will follow. Maybe YouTube can be utilized to help save the environment. Exactly how hot is in question, I can use melting points and tell you that I have reached temperatures over 1500°C.

At just over 3227 ºC the water molecule breaks down into elemental hydrogen and oxygen, and at a temperature of 1527 ºC water breaks down into a few flammable components such as H2, O2, H2O, O, H and OH. Hydrogen spontaneously ignites at 585°C. I have reached a temperature in 3 to 5 second bursts that melted the mica window on my microwave oven. The melting point of Mica is at 1350 ºC, and that ruined that microwave. As long as that is true and we prove or disprove it, we could possibly use it instead of coal.

The energy density of water is about the same as hydrogen per liter of liquid because, the chemical equation for water is

2 liters of hydrogen + 1 liter of oxygen → 2 liters of water.

So, if the Microwave Irradiated Environment of a Microwave Oven does make the water molecule unstable there is approximately 120 Mega Joules of energy contained in 1 Kilogram of water. But, only if you can actually make the water burn efficiently can it be used as fuel. If 1% of a Kilogram of water burns in 1 second at an efficiency of 100% due to the microwave's energy making the molecule unstable, at the expense of 1 to 45 Kilowatts of electrical energy, the heating energy product would be 1.2 Megawatts. If the co-efficient exists at 1 Kilowatt to burn water at a rate of 10 grams per second the power gain would be 1,200 times the heating energy over microwaves alone. In the worst case requiring 45 Kilowatts to burn 10 grams of water per second the product would be 26.67 times the heating energy.

Reference Link #1:
http://en.wikipedia.org/wiki/Energy_d...

Reference Link #2:
http://cnx.org/content/m12431/latest/

Reference link #3:
http://www.hydrogen.org/Knowledge/w-i...

REQUIRES A 1200 Watt Microwave Oven, with an internal microwave energy level of 950 Watts for results.

Step #1, Find a paper towel, shot glass, and a mason jar.

Step #2, Fill the shot glass quarter full of water, place it inside the microwave oven on top of the paper towel, and place the mason jar over it.

Step #3, Turn on the microwave and bring the water to a boil for about 1 minute to force any atmospheric air out of the mason jar. Hot air or hot steam rise, and the force of convection will push any other gases except steam and water out.

Step #4, Place 12 cm long piece of 30 AWG magnet wire and make a circle with it with a gap no greater than 1mm, and place that into inside the mason jar, and keep it out of the shot glass. Be extra careful to use an oven mitts, only lift the mason jar straight up to place the wire and straight down. You don't want any air to replace steam.

Step #5, Turn the microwave on HIGH for 3 to 5 seconds, and You be Burning Water.

Step #6, repeat steps #1 through #5, but use a classroom Spectrometer, and watch the hydrogen line.

I should have anticipated a threshold energy level. It's common in electrochemistry, electrolysis requires 1.2 volts to start, a xenon bulb requires 2 Kilovolts to fire, and this seems to require around 950 Watts of microwave energy to make water unstable enough to burn.

Your household microwave oven only produces 600 to 950 Watts of microwave energy, and the power supply typically requires 800 to 1200 Watts to run the timer, fan, and magnetron together. An 800 Watt Oven would normally only have 600 watts of microwave energy internally.

Reference Joules to Watts:
http://ourworld.compuserve.com/homepa...

Reference to Plasmolysis:
http://www.chemengr.ucsb.edu/~ceweb/m...