NEEP602 Course Notes (Fall 1996)
Resources from Space
Resource Limitations on Earth-Energy
Professor G. L. Kulcinski
Nuclear Engineering and Engineering Physics Department
January 29, 1996
NEEP 602/ EMA 601/ Geology 376
* The World is conveniently broken up into 6 groups of countries according to location and economic strength (Figure 11). The Organization for Economic Co-operation and Development (OECD) is the Major "player" in this grouping.
* The present World reserves of U will provide far less than 1 trillion boe if used in the Light Water Reactor configuration of today's nuclear fission power plants (Figure 22). If the same amount of U were to be used in LMFBR's, the total energy reserve would be ~ 14 trillion boe.
* When comparing the cumulative energy needs against the economically recoverable fossil fuels, it is evident that society will have to switch from a world powered by fossil fuels to perhaps a nuclear powered world in the middle of the 21st century (Figure 23).
* The use of solar energy has the same potential to provide inexhaustible long-term energy if energy storage problems, high capital costs, and geographic heterogeneity problems can be solved (Figure 24).
Environmental & Societal Factors
* Sometime in the mid-21st century, the world will need a new, safe, clean, and economical source of energy to satisfy the needs of both developing and developed nations.
* The real question is now how much energy is needed, when, and where it will come from?
* The connection to Space Resources is that the Moon contains enormous amounts of 3He, a valuable and clean fuel for fusion reactors. More later!
L. C. Ruedisili and M. W. Firebaugh, Perspectives on Energy, Oxford University Press, 1978
W. Hafele, Energy in a Finite World, Ballinger Publishing Company, 1981
"Energy for the Planet Earth", September 1990 Issue of Scientific American
"World Energy Outlook", International Energy Agency Publication, Paris, 1993
"International Energy Annual-1993", U. S. DOE Energy Information Administration Report DOE/EIA-0219(93), 1995
"Annual Energy Review-1994", U. S. DOE Energy Information Administration Report DOE/EIA-0384(94), 1995
"International Energy Outlook-1995", U. S. DOE Energy Information Administration Report DOE/EIA-0484(95), 1995
"World Nuclear Outlook-1995", U. S. DOE Energy Information Administration Report DOE/EIA-0436(95), 1995
"Monthly Energy Review, December 1995", U. S. DOE Energy Information Administration Report DOE/EIA-035(95/11), 1995
"Annual Energy Outlook-1995", U. S. DOE Energy Information Administration Report DOE/EIA-0383(95), 1995
Typical Questions That Stem From This Lecture:
1.) What is the expected CO2 emission rate (billion metric tonnes/y) from the burning of fossil fuels in the year 2025 if the current world mixture of fuels stays the same?
2.) How much does the annual net percentage increase in the World population (as assumed in the U. S. Census Bureau predictions) change from 1994-5 to 2049-50? Hint: you may have to use the Web.
3.) What effect would a doubling of the per capita energy use rate in non-OECD Asia have on the total World energy use rate (in Billions of boe) in 1992? How much effect would a 50% reduction in the U. S. per capita use have on the World energy use rate in 1992?
University of Wisconsin Fusion Technology Institute · 439 Engineering Research Building · 1500 Engineering Drive · Madison WI 53706-1609 · Telephone: (608) 263-2352 · Fax: (608) 263-4499 · Email: email@example.com
Copyright © 2003 The Board of
Regents of the University of Wisconsin System.
For feedback or accessibility issues, contact