APPARATUS AND METHOD FOR ISOLATING HYDROGEN FROM WATER
A hydrogen isolation system includes a protective chamber and a centrifuge situated in the protective chamber. The centrifuge is configured to receive water and configured to rotate within the protective chamber such that constituents inside the centrifuge separate according to their molecular weights. The hydrogen isolation system also includes an energy source configured to provide heat to the centrifuge such that at least some of the water splits into hydrogen and oxygen.
1 . A hydrogen isolation system, comprising:
a protective chamber;
a centrifuge situated in the protective chamber, the centrifuge configured to receive water and configured to rotate within the protective chamber such that constituents inside the centrifuge separate according to their molecular weights; and
an energy source configured to provide heat to the centrifuge such that at least some of the water splits into hydrogen and oxygen.
2 . The hydrogen isolation system of claim 1 , wherein the energy source includes a solar field.
3 . The hydrogen isolation system of claim 2 , further comprising at least one mirror configured to direct heat from the solar field to the protective chamber.
4 . The hydrogen isolation system of claim 2 , wherein the energy source includes at least one laser.
5 . The hydrogen isolation system of claim 4 , wherein the at least one laser is powered at least in part by the solar field.
6 . The hydrogen isolation system of claim 4 , wherein the at least one laser is a multi-kilowatt fiber laser.
7 . The hydrogen isolation system of claim 4 , wherein the laser is a direct diode laser.
8 . The hydrogen isolation system of claim 4 , wherein the laser includes at least two lasers configured to heat the protective chamber.
9 . The hydrogen isolation system of claim 8 , wherein the at least two lasers are evenly circumferentially spaced about the protective chamber.
10 . The hydrogen isolation system of claim 4 , wherein the at least one laser includes a first laser configured to heat the protective chamber and a second laser configured to preheat water to be received in the centrifuge.
11 . The hydrogen isolation system of claim 1 , wherein the centrifuge is configured to receive water via an inlet, and wherein the heat source is configured to preheat water in the inlet.
12 . The hydrogen isolation system of claim 1 , further comprising a pumping system configured to provide vacuum within the protective chamber.
13 . The hydrogen isolation system of claim 1 , further comprising an outlet fluidly connected with the centrifuge and configured to draw off at least some of the hydrogen from the centrifuge.
14 . The hydrogen isolation system of claim 13 , wherein the outlet extends into the approximate radial center of the centrifuge.
15 . The hydrogen isolation system of claim 1 , wherein the protective chamber and the centrifuge comprise materials capable of withstanding at least about 2200 degrees C.
16 . The hydrogen isolation system of claim 15 , wherein the protective chamber and the centrifuge comprise materials capable of withstanding at least about 3000 degrees C.
17 . The hydrogen isolation system of claim 15 , wherein the protective chamber and the centrifuge comprise materials capable of withstanding at least about 4000 degrees C.
18 . The hydrogen isolation system of claim 1 , wherein at least one of the protective chamber and the centrifuge comprises a refractory metal or refractory metal alloy.
19 . The hydrogen isolation system of claim 1 , wherein the centrifuge comprises an outer shell, an inner shell situated in the outer shell, and a void in the inner shell, the void configured to receive the water.
20 . The hydrogen isolation system of claim 1 , wherein the hydrogen isolation system is mobile.