Energy in the 1980s - The world energy outlook to the mid-1980s: the effect of an alternative supply path in the United States

A brief review and interpretation of regional and world-wide trends in total energy consumption and its composition since the end of World War II is given. A review of energy-consumption projections into the 1980s — world-wide and regional — focuses on the role of international trade in oil in achieving supply—demand balances. The prospective position of the U.S. as a major oil importer is emphasized. An analysis of the sensitivity of world supply prospects to alternative assumptions concerning the growth of indigenous sources of supply in the United States of America and Western Europe is presented. The post-war growth rate in world energy consumption averaged out to over 5% per annum. Marked shifts in regional shares and variations in regional growth rates have occurred, but regional differences in the level of per capita energy use, while narrowing, remain conspicuously wide. The sharp relative decline of coal during this period was accompanied by a dramatic relative increase in both oil and gas. The rapid growth of world energy consumption as a whole, the continued shift toward oil and the rising volume of U.S. oil imports all failed to be adequately anticipated in past energy projections. A standard projection to the mid-1980s shows: world-wide energy growth of between 5-J- and 6% ; an even faster growth rate for oil, resulting in about 115x10® barrels (18.3 x 10® m3)/day in 1985 (compared to 53 x 102 b (8.4 x 104 m3)/d in 1972); and the addition of the U.S. to the ranks of the major oil importers. The Middle East, along with areas of lesser reserve holdings, is in all likelihood physically capable of accommodating expected oil demand to the mid-1980s. But the acute degree of dependence that this would pose for major consuming regions prompts the question of how a greatly expanded indigenous producing capability in the U.S. could blunt the one-sidedness of the demand-supply picture. Recently completed research suggests that, within an appropriate policy setting, the U.S. could probably meet all but 20% of its oil and gas internally by 1985 - and do so at real prices no higher than the $6/barrel ($38/m3>) delivered price rapidly being approached by Persian Gulf crude. Such a development, along with whatever contribution can be made by Western Europe’s own petroleum-producing capability, can perhaps introduce a stabilizing element of major importance into world energy flows.

2015 ◽  
Vol 07 (03) ◽  
pp. 73-85
Author(s):  
Chi ZHANG

The global energy strategic landscape is undergoing significant changes. Factors leading to such changes include the eastward shift of the world energy consumption centre, the emergence of the United States as a major oil producer and the dramatic waning of the Organisation of Petroleum Exporting Countries’ influence. These developments are shaping a new order of the global energy system and exerting profound influence on China’s international strategic environment.


Energies ◽  
2019 ◽  
Vol 12 (19) ◽  
pp. 3775 ◽  
Author(s):  
Khaled Bawaneh ◽  
Farnaz Ghazi Nezami ◽  
Md. Rasheduzzaman ◽  
Brad Deken

Healthcare facilities in the United States account for 4.8% of the total area in the commercial sector and are responsible for 10.3% of total energy consumption in this sector. The number of healthcare facilities increased by 22% since 2003, leading to a 21% rise in energy consumption and an 8% reduction in energy intensity per unit of area (544.8 kWh/m2). This study provides an analytical overview of the end-use energy consumption data in healthcare systems for hospitals in the United States. The energy intensity of the U.S. hospitals ranges from 640.7 kWh/m2 in Zone 5 (very hot) to 781.1 kWh/m2 in Zone 1 (very cold), with an average of 738.5 kWh/m2. This is approximately 2.6 times higher than that of other commercial buildings. High energy intensity in the healthcare facilities, particularly in hospitals, along with energy costs and associated environmental concerns make energy analysis crucial for this type of facility. The proposed analysis shows that U.S. healthcare facilities have higher energy intensity than those of most other countries, especially the European ones. This necessitates the adoption of more energy-efficient approaches to the infrastructure and the management of healthcare facilities in the United States.


2005 ◽  
Vol 8 (06) ◽  
pp. 520-527 ◽  
Author(s):  
D.R. Harrell ◽  
Thomas L. Gardner

Summary A casual reading of the SPE/WPC (World Petroleum Congresses) Petroleum Reserves Definitions (1997) and the U.S. Securities and Exchange Commission(SEC) definitions (1978) would suggest very little, if any, difference in the quantities of proved hydrocarbon reserves estimated under those two classification systems. The differences in many circumstances for both volumetric and performance-based estimates may be small. In 1999, the SEC began to increase its review process, seeking greater understanding and compliance with its oil and gas reserves reporting requirements. The agency's definitions had been promulgated in 1978 in connection with the Energy Policy and Conservation Act of 1975 and at a time when most publicly owned oil and gas companies and their reserves were located in the United States. Oil and gas prices were relatively stable, and virtually all natural gas was marketed through long-term contracts at fixed or determinable prices. Development drilling was subject to well-spacing regulations as established through field rules set by state agencies. Reservoir-evaluation technology has advanced far beyond that used in 1978;production-sharing contracts were uncommon then, and probabilistic reserves assessment was not widely recognized or appreciated in the U.S. These changes in industry practice plus many other considerations have created problems in adapting the 1978 vintage definitions to the technical and commercial realities of the 21st century. This paper presents several real-world examples of how the SEC engineering staff has updated its approach to reserves assessment as well as numerous remaining unresolved areas of concern. These remaining issues are important, can lead to significant differences in reported quantities and values, and may result in questions about the "full disclosure" obligations to the SEC. Introduction For virtually all oil and gas producers, their company assets are the hydrocarbon reserves that they own through various forms of mineral interests, licensing agreements, or other contracts and that produce revenues from production and sale. Reserves are almost always reported as static quantities as of a specific date and classified into one or more categories to describe the uncertainty and production status associated with each category. The economic value of these reserves is a direct function of how the quantities are to be produced and sold over the physical or contract lives of the properties. Reserves owned by private and publicly owned companies are always assumed to be those quantities of oil and gas that can be produced and sold at a profit under assumed future prices and costs. Reserves under the control of state-owned or national oil companies may reflect quantities that exceed those deemed profitable under the commercial terms typically imposed on private or publicly owned companies.


Energies ◽  
2019 ◽  
Vol 12 (19) ◽  
pp. 3804 ◽  
Author(s):  
Chia-Nan Wang ◽  
Thi-Duong Nguyen ◽  
Min-Chun Yu

Despite the many benefits that energy consumption brings to the economy, consuming energy also leads nations to expend more resources on environmental pollution. Therefore, energy efficiency has been proposed as a solution to improve national economic competitiveness and sustainability. However, the growth in energy demand is accelerating while policy efforts to boost energy efficiency are slowing. To solve this problem, the efficiency gains in countries where energy consumption efficiency is of the greatest concern such as China, India, the United States, and Europe, especially, emerging economies, is central. Additionally, governments must take greater policy actions. Therefore, this paper studied 25 countries from Asia, the Americas, and Europe to develop a method combining the grey method (GM) and data envelopment analysis (DEA) slack-based measure model (SMB) to measure and forecast the energy efficiency, so that detailed energy efficiency evaluation can be made from the past to the future; moreover, this method can be extended to more countries around the world. The results of this study reveal that European countries have a higher energy efficiency than countries in Americas (except the United States) and Asian countries. Our findings also show that an excess of total energy consumption is the main reason causing the energy inefficiency in most countries. This study contributes to policymaking and strategy makers by sharing the understanding of the status of energy efficiency and providing insights for the future.


Author(s):  
Amanda D. Cuellar ◽  
Michael E. Webber

In this work we estimate the amount of energy required to produce the food consumed in the United States in 2002 and 2007. Data from government sources and the scientific literature were used to calculate the energy intensity of food production from agriculture, transportation, manufacturing, food sales, storage and preparation. Most data were from 2002; consequently we scaled all data from other years to 2002 by using ratios of total energy consumption in 2002 to total energy consumption in the year data were reported. We concluded that food production required at least 7,880±733 trillion BTU in 2002 and 8,080±752 trillion BTU of energy in 2007, over a third of which came from food handling in homes, restaurants and grocery stores. The energy used to produce food represents approximately 8% of energy consumption. Our estimate is for the energy required to produce the food consumed in the United States and takes into account food imports and exports. To account for net food exports in the agriculture sector we calculated values for the energy intensity of ten food categories and then used the mass of domestic food consumption in each category to calculate the energy embedded in the food consumed in the United States. The amount of energy required to produce the food consumed in the United States has policy implications because it is a substantial fraction of total energy consumption and is responsible for a commensurate amount of greenhouse gas emissions. There are many opportunities for decreasing the energy intensity of food production at all steps of the food system. Education of the public and policy measures that promote energy efficiency in the food sector have the potential for decreasing food waste and the energy intensity of the food system.


2020 ◽  
pp. c2-63
Author(s):  
The Editors

buy this issue The current massive oil glut is the product of the effects of the tight oil or shale oil revolution, which for a time turned the United States into the biggest oil and gas producer in the world. Now, suddenly as a result of an overproduction of world oil, made far worse by the sudden falloff in demand due to the COVID-19 pandemic, we are witnessing the possible euthanasia of the U.S. tight oil industry, bleeding cash even before the oil price collapse and encumbered with mountains of debt.


2005 ◽  
Vol 2005 (1) ◽  
pp. 223-227 ◽  
Author(s):  
Jeanne M. Grasso ◽  
Allison Fennell

ABSTRACT For decades, the United States has been aggressively enforcing its environmental laws. Beginning in the mid-1990s and continuing through present, this effort has been directed at the maritime industry through the U.S. Department of Justice's “Vessel Initiative.” The U.S. trend is now being felt in Europe, as exemplified by the European Commission ship-pollution directive, focused on criminal enforcement. With this worldwide focus on prosecuting environmental crimes against the maritime industry, companies must take a hard look at their corporate compliance programs to minimize chances of being targeted for criminal prosecution. This paper will identify worldwide trends, discuss recent criminal prosecutions, and make recommendations on how companies can best protect themselves.


2020 ◽  
Author(s):  
David Kurz ◽  
Arthur D. Middleton ◽  
Melissa Chapman ◽  
Kyle Schuyler Van Houtan ◽  
Christine Wilkinson ◽  
...  

Nearly three-fourths of U.S. citizens support strong environmental protection, yet the U.S. Congress has passed little momentous environmental legislation since 1980. This dearth of new bipartisan environmental policy has coincided with increasing political polarization, which has risen to historic levels in the United States. Though broadly supported by the U.S. public, environmental protection has wavered as the Trump administration has left the Paris Climate Agreement, lifted oil and gas regulations, and deprioritized endangered species conservation. This discordance between U.S. public opinion and policy action leads us to ask: How did environmental conservation become so polarized, and how can the U.S. environmental movement recover broad bipartisan support? As conservation scientists in academia, we believe our community has contributed to the partisan breakdown over the environment. We also believe that scientists have a critical role to play in bridging this divide. In this essay, we consider how “the environment” has become a political wedge issue in the United States and identify opportunities for conservation scientists to: (a) better respond to public needs and values; and (b) build support for bipartisan conservation policies through greater proximity with local communities, re-structured academic advancement policies, and 21st century approaches to training environmental science students.


2017 ◽  
Author(s):  
Jacob H. Cecil ◽  
Joshua K. Michener

This manuscript has been authored by UT-Battelle, LLC under Contract No. DE-AC05-00OR22725 with the U.S. Department of Energy. The United States Government retains and the publisher, by accepting the article for publication, acknowledges that the United States Government retains a non-exclusive, paid-up, irrevocable, world-wide license to publish or reproduce the published form of this manuscript, or allow others to do so, for United States Government purposes. The Department of Energy will provide public access to these results of federally sponsored research in accordance with the DOE Public Access Plan (http://energy.gov/downloads/doe-public-access-plan).


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