Thorium the future of Energy & Transportation


In very general and broad terms the Mission of LPS is to create an economic boom for the area in which it is located, providing high paying jobs with full benefits, provide a growing tax base for the expansion of local infrastructure (school, hospitals, roads, utilities, government building and services) wail maintaining a high quality of life. The R&D center will have a secondary spin off effect on the local economy in many other areas such as hospitality, construction, transportation. This in turn will create an industrial base that will impact the world economy with new cutting edge technology in health care, bio-tech, nanotechnology, manufacturing and alternative energy technologies that will provide the world with clean green energy slowing global warming and stimulate and developing sustainable economic progress, There are just as many definitions for it. Ours is "meeting the needs of our stakeholders today, while preserving choices for future generations to meet their needs".

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How much thorium would it take to power the whole world?

“Thorium, if efficiently utilized in a MaxFelasers, is an energy source of such magnitude that it is not difficult to conceive of an entire planet powered by thorium. It is worth considering for a moment that the thorium required to fuel the entire world's electrical needs would fit in a reasonably sized room, and the thorium required would only be about 2% of the mass of uranium mined today.

In a MaxFelaser reaction, thorium-232 will release roughly 190 MeV of energy per reaction. Assuming that the original thorium had a mass of 232 atomic units (u), then that is equivalent to 190 MeV/232 u = 820 keV/u.

How much energy is that? If converted to electricity at 50% efficiency, which can be achieved through the use of a LPS turbine power conversion system, 820 keV/u is equivalent to 11 billion kilowatt-hours per metric ton of thorium. (Note that a billion kilowatt-hours [BKWH] is equivalent to a terawatt-hour [TWH].)

In 2003, it was estimated that the world produced 16.5 trillion kilowatt-hours of electricity. If this had all been produced by liquid-fluoride thorium reactors, this would have required 1500 metric tons of thorium. Future energy projections foresee electrical production reaching 21.4 trillion kilowatt-hours by 2015. To bring the entire world's population up to the level of the average American's electrical consumption would require 80 trillion kilowatt-hours.

Is 1500 metric tons a lot? Thorium is a very dense material, and 1500 metric tones of thorium metal would only occupy 130 cubic meters of volume, or about the volume of a room 23 ft on a side and 9 feet high."

To put the above numbers in perspective a 2000 lb ton (a short ton) of the highest grade coal contains about 20,000,000 BTU of energy; a kilowatt is equal to 3,410 BTU/hr. This means that if coal could be converted to heat energy at 100% efficiency (the ‘real’ conversion efficiency in the production of electricity is at best about 39%) then it would take 2,000,000 short tons of coal to produce as much thermal energy as 1 metric ton of thorium! Keep in mind also that the thorium fueled laser power systems would produce NO greenhouse gases at all while the coal fired power stations produce nearly 8,000,000 short tons of carbon dioxide to produce the equivalent heat. Clearly the world needs to take a hard look at producing energy from thorium. 

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