scholarly journals The MENA Saga

ICR Journal ◽  
2013 ◽  
Vol 4 (3) ◽  
pp. 446-451
Author(s):  
Anis H. Bajrektarevic

The MENA theatre is situated in one of the most fascinating locations of the world, the Middle East and North Africa. It represents, along with the Balkans-Caucasus, the only existing land corridor that connects three continents. It also holds over a half of the world’s proven oil-gas reserves (56 percent - oil, 48 percent - gas). Furthermore, the Gulf OPEC states and Libya have by far the lowest costs of oil extraction, thanks to the high crude purity (measured by overall properties such as the state of aggregation, excavation gravity, viscosity, weight, sulfuric content and other contaminants) which simplifies and reduces the cost of the refinement process. These petrol-exporters also enjoy the close proximity to open warm seas for low-cost, fast and convenient overseas shipments. Hence, the costs per barrel of crude for Libya and the Persian Gulf states are under US$ 5; for other OPEC members, below US$ 10. This is in a sharp contrast to countries such as the US, Russia, Norway, Canada and many others that bear production costs of several tens of US$ per barrel, according to the International Energy Agency (IEA). Therefore, it is an absolute imperative for the external/peripheral powers to dominate such a pivotal geo-economic and geopolitical theatre by simply keeping its centre “soft,” and pre-empting, preventing or hindering any emancipation that might come through any indigenous socio-political modernisation. This is the very same imperative that has remained a dominant rationale of inner European and Asian machtpolitik for centuries.

2016 ◽  
Vol 2 (3) ◽  
pp. 37-53
Author(s):  
Yves Rocha De Salles Lima ◽  
Tatiane Stellet Machado ◽  
Joao Jose de Assis Rangel

The objetive of this work is to analyze the variation of CO2 emissions and GDP per capita throughout the years and identify the possible interaction between them. For this purpose, data from the International Energy Agency was collected on two countries, Brazil and the one with the highest GDP worldwide, the United States. Thus, the results showed that CO2 emissions have been following the country’s economic growth for many years. However, these two indicators have started to decouple in the US in 2007 while in Brazil the same happened in 2011. Furthermore, projections for CO2 emissions are made until 2040, considering 6 probable scenarios. These projections showed that even if the oil price decreases, the emissions will not be significantly affected as long as the economic growth does not decelerate.


Subject Prospects for the global coal market. Significance Seaborne thermal coal prices are on a long-term slide. Having peaked above 130 dollars per metric tonne (mt) for thermal coal delivered into north-western Europe in 2011, prices have sunk to 52.8 dollars/mt on September 7, the lowest level since 2009. At these prices, only the lowest-cost producers can remain profitable. In its 'Medium-Term Coal Market Report 2014', the International Energy Agency estimates that production costs for US Central Appalachian (CAPP) producers and Australian underground mining are close to 90 dollars/mt. Impacts Further coal sector bankruptcies and mine closures are likely. Coal will remain competitive with natural gas for power generation in most markets. Medium-term demand response will be limited by a lack of new coal plant construction and environmental regulation.


2007 ◽  
Vol 29-30 ◽  
pp. 147-152 ◽  
Author(s):  
Gorgees Adam ◽  
De Liang Zhang ◽  
Jing Liang ◽  
I. Macrae

Titanium and titanium alloys are the materials of choice for many industrial applications because of their attractive combination of low density, good mechanical properties, and high corrosion resistance, and titanium is the fourth most abundant metal in the earth crust (0.86 % by weight) behind aluminum, iron, and magnesium. However, titanium and titanium alloys are not widely. The reason for this is the high cost of titanium and titanium alloys! The cost gap for titanium and titanium alloys widens when they are used for fabricating components and structures. Consequently, much effort has been expended to reduce the cost of titanium and titanium alloys. In conjunction with the University of Waikato, Titanox Development Limited-New Zealand has been successful in creating a modified novel process to produce TiAl based alloy powders with different particle sizes and compositions at low cost. The process offers several benefits to the titanium industry the most significant one of which is that it displays the potential to significantly reduce the commercial production costs of Ti-Al based alloys. This paper describes the Titanox Development Limited technology in brief, and shows how it can economically produce titanium alloy powders for different industrial applications and making titanium alloys affordable. The process has been disclosed in a PCT (Patent Corporation Treaty) application which was approved in 2004 [1], and the related patent applications either have been approved or are being filed in different countries.


2002 ◽  
Vol 124 (08) ◽  
pp. 41-45 ◽  
Author(s):  
Harry Hutchinson

This article focuses on the US Energy Information Administration estimates that coal generates 34 percent of the world's electricity today and will still account for more than 30 percent in 2020. The backers of coal say that systems can be—and must be—developed to make coal more efficient to burn and less troublesome to the biosphere. The United States is also a supporter of the International Energy Agency and is one of the member countries that support IEA Coal Research, a program based in London. The plan for a gasification plant feeding a combined-cycle generating station is still in the demonstration stage in the United States. Although the process squeezes more efficiency out of coal and scores points for cleaner air and corporate goodwill, prospective buyers have yet to form a line around the block. New sources in Venezuela, which has South America’s mother lode of petroleum, have come onto the market, and competition is driving down coke prices.


Author(s):  
C. E. Kennedy ◽  
R. L. Swisher

Commercialization of concentrating solar power (CSP) technologies require the development of advanced reflector materials that are low cost and maintain high specular reflectance for extended lifetimes under severe outdoor environments. During the past 9 years, the National Renewable Energy Laboratory (NREL) has funded Science Applications International Corporation (SAIC) in McLean, Virginia, to develop a promising low-cost advanced solar reflective material (ASRM) combining the best of both thin-glass and silvered-polymer reflectors. The alumina (Al2O3) coating is deposited by ion-beam-assisted physical vapor deposition (IBAD). Materials undergoing testing demonstrate excellent durability under accelerated and outdoor weathering. To help commercialize the technology, NREL had a cost analysis performed incorporating realistic web coating assumptions and the technical improvements made in the ASRM. The biggest process cost items are the alumina and machine burden (which collects the cost of the building and office staff). The switch from a polyethylene terethaphalate (PET) to a steel substrate for the ASRM is a significant contributor to the cost. The cost of high-purity alumina should drop from $400/kg to $200/kg when purchased in 20-kg quantities. Alumina deposition rate then becomes the critical cost driver. In a previous study, deposition rates above 100 nm/s were not examined, but deposition rates greater than 100 nm/s are being used routinely for thin alumina coatings deposited on commercial web-coaters as barrier coatings. In addition, multiple (2–3) Al2O3 IBAD zones can be used in one roll-coating machine to deposit thicker alumina at a lower web speed. This means that with increasing deposition rate and/or multiple zones, the total production cost of the SAIC ASRM with 1-μm thick Al2O3 on PET will meet both the 1992 cost goal of $10.76/m2 ($1/ft2) and the equivalent cost goal of $13.79/m2 ($1.31/ft2) when the 1992 cost goal is corrected for inflation. There is a minimum deposition rate needed to reach the cost goal and a maximum deposition rate related to the number of zones after which no significant cost gains are observed. These asymptotic total production costs are $8.06/m2 ($7.39/m2 excluding substrate) for a large commercial web-coating company and $7.62/m2 ($6.94/m2 excluding substrate) for a smaller company. As can be seen by these numbers, the $10.76/m2 cost goal can be reached, but the cost of the substrate is still a major consideration. In addition, the width of the web was increased from 600 to 1200 mm, which decreased the asymptotic total production costs. The results of the cost analysis will be described.


Author(s):  
Ewa  Abramiuk -Lété

According to the 2011 International Energy Agency data, 60 % of natural gas production in the US comes from unconventional sources. Currently in Europe the commercial production of shale gas has not yet been developed. However, the European Commission estimates that conventional production in those countries which have already made some progress could already start as early as 2015. The 2013 A.T. Kearney report outlines that European resources constitute 7 % of world resources, but the success of shale gas exploration in Europe will depend on a series of economic, political and geographical factors. This paper analyses the potential impact of the development of the shale gas industry in Europe, particularly recoverable potential of shale gas, its impact on the economy, overall EU energy mix, energy prices and the European job market. In addition, the paper briefly discusses the potential impact of shale gas extraction on gas imports and security of supply.


2021 ◽  
Vol 11 (1) ◽  
Author(s):  
Josef T. Yap ◽  
Aaron Joseph P. Gabriola ◽  
Chrysogonus F. Herrera

Abstract Background The transition to an energy mix with lower carbon emissions is hampered by the existence of the so-called Energy Trilemma. The primary consequence is a trade-off between various objectives of energy policy, e.g., equity and sustainability. This conflict can lead to policy gridlock if policymakers are unable to prioritize the goals. This paper proposes a framework and methodology to manage the trilemma by applying methods related to multi-criteria decision-making in order to assign weights to the various components of the trilemma. Results Following the International Energy Agency (IEA), an expanded concept of energy security is adopted and translates to a version of the trilemma different from that of the World Energy Council. This study takes into account autarky, price, supply, and carbon emissions. The values of these variables are generated by a software called PLEXOS and are incorporated in a welfare function. Trade-offs and complementarities among the four variables are taken into account by the equations in the PLEXOS model. Meanwhile, weights for each of the components of the trilemma are obtained using the Analytical Hierarchy Process. The experts interviewed for this exercise are considered hypothetical heads of the Philippine Department of Energy (DOE). Conclusion Two scenarios were compared: a market-based simulation and one where a carbon-tax was imposed. As expected, the carbon-tax leads to a fall in the level of carbon emissions but a rise in the cost of electricity. Because the demand for electricity has a higher price elasticity among lower income classes, the carbon-tax will worsen equity. Attempting to resolve the conflict among the goals of energy policy is difficult leading to a possible gridlock. Policy options can, however, be ranked using the values generated by the welfare function. The ranking clearly depends on the preference or priorities of the hypothetical head of the DOE but at least a decision could be reached. In this manner, trade-offs are measured and the trilemma can be managed even if it is not resolved.


2017 ◽  
Vol 10 (1) ◽  
pp. 45
Author(s):  
Indira Roy ◽  
Yelena Naumova ◽  
A. J. Both

Subsistence and smallholder farmers in the Deccan plateau region of India struggle with a predominantly hot and dry climate and often accumulated debt due to the cost of fertilizer that they need to increase yields for profitability. While a low-cost deep-flow technique hydroponic growing system (DFT) as a supplement to soil-based agriculture could help reduce debt, the cost of electricity needed to operate the DFT makes it inaccessible to these farmers. The objective of this project was to test the viability of electricity-free DFT which would substantially reduce production costs. Two DFT systems were set up in a shade net house and prepared with identical nutrients to grow chili pepper seedlings. Each DFT system was oxygenated for 30 minutes per day, one system using an electrical air pump, and the other system was oxygenated manually. After four weeks of growth, the dry mass of the shoots of the chili pepper seedlings in each system was measured. While the pump-oxygenated DFT system produced more dry matter, the manually-oxygenated system produced a larger number of visually healthier plants. Therefore, we conclude that electricity-free DFT hydroponics may be a viable alternative to pump-oxygenated DFT hydroponics, making hydroponic farming a cost-effective option for poor farmers.


2021 ◽  
Vol 43 (3) ◽  
pp. 65-70
Author(s):  
G.G. Geletukha ◽  
Yu.B. Matveev

Biogas upgrading to quality of natural gas (NG) creates possibility to supply biomethane to the NG grid, easy transportation and production of electricity and heat in locations where there is guaranteed consumption of thermal energy. Biomethane as a close NG analogue can be used for heat and electricity production, as soon as motor fuel and raw material for chemical industry. The International Energy Agency (IEA) estimates that the world's annual biomethane production potential is 730 bcm (20% of current world's NG consumption). World biomethane production reached almost 5 bcm/yr in 2019. According to forecast of the European Biogas Association the biogas and biomethane sector may almost double its production by 2030. According to IEA estimates, annual world biomethane production could reach 200 bcm in 2040 in case the sustainable development strategy is implemented Currently, the Bioenergy Association of Ukraine estimates the potential for biogas/biomethane production in Ukraine using fermentation technology as 7,8 bcm/yr (25% of the country's current NG consumption). The roadmap of bioenergy development in Ukraine until 2050 envisages growth of biomethane production to 1,7 bcm in 2035 and up to 3 bcm in 2050. Currently the prospects for green hydrogen development are well known. The authors support the need of hydrogen technologies as one of the way for production and use of renewable gases. However, they believe that biomethane has no less prospects. Transporting of one cubic meter of biomethane through gas pipeline at 60 bar pressure transmits almost four times more energy than transporting of one cubic meter of hydrogen. This is fundamental advantage of biomethane. Another advantage is the full readiness of gas infrastructure for biomethane. Given the cost of gas infrastructure modernization to use hydrogen, it is more cost-effective to convert green hydrogen to synthetic methane. Currently, biomethane is in average three times cheaper than green hydrogen, the cost of the two renewable gases is expected to equalize by 2050, and only further possible reduction in the cost of green hydrogen below $2/kg will make green hydrogen cheaper than biomethane. Therefore, the greatest prospects can be seen in the combination of the advantages of both renewable gases and conversion of green hydrogen into synthetic methane (power-to-gas process). Authors believe that after adoption of legislation to support the development of biomethane production and use in Ukraine, the bulk of biomethane produced in the country will be exported to EU, where more favourable conditions for biomethane consumption are developed. As Ukraine's economy grows, more and more of the biomethane produced will be used for domestic consumption.


Author(s):  
N. N. Shvets ◽  
P. V. Beresneva

When researching such a hot topic as development of oil and gas reserves in Artie it's crucial to answer 3 key questions. What is legal status of Artie reserves and Russian offshore zone in Arctic? Are there any gaps in international lawthatinhibits oil and gas development? How big are Arctic oil and gas reserves? Are they well-explored? What are production costs of oil and gas in Artie? Is it profitable to develop reserves in Artie? The article addresses these vital questions with the detailed analysis. 1982 UN Convention on the Law of Sea partially regulates Artie legal status but countries apply sectorial principal to Arctic territories to claim their rights. There are few border disputes left. The borders of Russian outer continental shelf are shaped by international law and bilateral agreements and undergoing final review within UN processes and mechanisms. Arctic reserves'estimates do vary significantly as the region is barely explored. According to with a high 2008 US Geological Survey and 2006 Wood Mackenzie and Fugro Robertson study Arctic reserves are about 10-15% of global reserves. Most of them are offshore (around 85%), and gas accounts for 80% of reserves. Russia has more than a half of Artie reserves. Under International Energy Agency it's profitable to develop Arctic oil reserves as production costs ($40-100 bbl) are below current and 2035 forecast oil price. On the contrary, gas production is questionable from costs point of view. Gas market is projected to remain regional. With Artie gas production cost of$ 4-12 million BTU, there is no business case to develop Artie gas in America and at the edge of profitability in Europe.


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