The Notions of 'Immortality' and 'Resurrection' in the Wisdom of Essay

The Notions of 'Immortality' and 'Resurrection' in the Wisdom of Solomon - Essay Example Moreover, the rift between the ‘righteous’ and the ‘wicked’ is a pervasive theme in the book which I would like to examine in detail here so as to understand the story line which leads to the phenomena of ‘immortality’ and ‘resurrection’. Therefore, to achieve this, the wider context in which the book was realized will also be analyzed. The final section will deal with the analysis of these concepts in the light of the Wisdom of Solomon and a conclusion is drawn thereof. ‘Immortality’ and ‘Resurrection’: A Conceptual Analysis There can be different interpretations of the word ‘immortality’ as put forth by Wright – â€Å"(a) ongoing physical life without any form of death ever occurring; (b) the innate possession of an immortal part of one’s being, e.g. the soul (which is itself in need of further multiple definitions), which will survive bodily death; (c) the gift from elsewhere, e.g. from Israel’s God to certain human beings, of an ongoing life, not itself innate in the human form, which could then provide continuity of mortal life, across an interim period, between the present bodily life and future resurrection; (d) a way of describing resurrection itself†.2 ‘Immortality’ and ‘resurrection’ are not to be seen as two opposing concepts.3The word ‘immortality’ can refer to ‘a state in which death is not possible’. Unless one is totally held by the Platonic notion of ‘immortality’ (as in point (b) above);4 ‘resurrection’ can also be seen as a variant of immortality, a form in which it is manifested. This point becomes clear when Paul discusses both resurrection and immortality in his first letter to Corinthians – â€Å"For this perishable body must put on imperishability, and this mortal body must put on immortality. When this perishable body puts on imperishab ility, and this mortal body puts on immortality, then the saying that is written will be fulfilled: ‘Death has been swallowed up in victory’†(1 Cor 15: 53-54). Here for Paul ‘resurrection’ is a new form of bodily life which is immortal and imperishable, that is there can be no more death. Hence he presents ‘resurrection’ within the purview of ‘immortality’. This point is stressed by Wright in the fourth meaning of immortality above i.e it being a way of describing resurrection itself. It was widely held by many Jews who believed in resurrection that there existed an ‘intermediate state’ between death and ‘bodily resurrection’. Many of them believed that the body did not go for a resurrection immediately after death. This state can be regarded as a state of immortality when one regards the ‘close ally’ nature of ‘immortality’ and ‘bodily resurrection’5 This state assumes that there is still a continuing state of existence with a unique personal identity until the physical embodiment is attained in ‘bodily resurrection’ which happens at a point of time in future. Many scholars believe that the way ‘Wisdom of Solomon’ teaches clearly about the immortality of the soul, it cannot do the same for the idea of resurrection. Boismard points out that in the Platonic idea there is no scope for resurrection and hence the idea is to be disregarded in the ‘Wisdom of Solomon

Discuss the work of an artist of your choice who engages critically Essay

Discuss the work of an artist of your choice who engages critically with the concept of fashion and consumer culture. Support yo - Essay Example And it is art through which archeologists calculate the age of a certain ‘lost’ civilization. It has been established so far that paintings are the most ancient and noble form of expression. Though art is unique to each artist but each of them fall in a certain epoch where certain trends were famous. It is important to note that these trends are largely influenced by the socio-cultural, economical and political situation of that particular place. Consider the movement of Renaissance, which took birth in Italy and later spread to the whole Europe and Britain as well. The political turmoil had given birth to a want of perfection, towards change and most importantly to a more meaningful approach of life. Towards the 16th century, the hold of the Church had also grown weak and so people started to interpret the holy book through their own intelligence. This attitude is redundant in the works of Michelangelo. Hence, art and especially fine arts gives a glimpse into the societ y as a whole and also represents the fashion of that age too. For it is impossible to ignore such impacts in the lives of human beings and since artists are sensitive beings, they are prone to changes even by the slightest notion. It may differ that whether the fine artist approves of the fashion and consumer culture or disregards it in his paintings or a sculpture, which thoroughly depends on the nature of that artist but these influences, will find their places in the nooks and crevices of the work of art. Being an artist means that they live a life of their own pattern and standard. It is universally accepted that the artists’ especially fine artists do not have a limit and that artists consider art as their religion. For this very reason, artists from various sects in the society are scorned for their waywardness which for the artist is the way of life. This being established, it can be said that most artists live a life of their own choice and that a 9-5 job cannot bound them. There are various universities in the US where 24 hour studio is available for their fine arts students. However this does not mean that the fine artist can just excel in painting and drawing but there are fields like digital and graphic painting and also art marketing where the fine art students do get white collar jobs. Hence, a clear resolution for their profession cannot be drawn with a mathematical formula. In this paper, Max Ernst’s work in regard to fashion and consumer culture shall be discussed. â€Å"Max Ernst was a German-born Surrealist who helped shape the emergence of Abstract Expressionism in America post-World War II. Armed with an academic understanding of Freud, Ernst often turned to his work-whether sculpture, painting, or collage-as a means of processing his experience in World War I and unpacking his feelings of dispossession in its wake.† (Fiedorek) He is best known for promoting collage and it is noted that before him no other fine artist had esteemed the position of a collage as a form of art. According to him, â€Å"Collage is the noble conquest of the irrational, the coupling of two realities, irreconcilable in appearance, upon a plane which apparently does not suit them.† (Rogers) It is said that a childhood trauma made him see that this world is full of different realities existing at the same time. The trauma was of losing a beloved pet and interestingly his baby sister was born that very night. This left a deep mark on him which is obvious in his works of art as

Sonnet anlysis 116 Essay Example for Free

Sonnet anlysis 116 Essay Sonnet 116 is clearly one of the many poems that take part of Shakespeares Quarto1. From the name, we can therefore not deduce any important informations that could be useful in analyzing it, as it was simply given a number as a title. Yet through first impressions we can immediately notice that all rhyming and iambic pentameter specifications; quatrains, couplets and syllables, are followed and respected to perfection and simplicity. Reading through the beautiful lines of this poem, one immediately notices the ease of the words chosen to express the thoughts of the speaker. What the speaker is saying are his thoughts about love. What love is and what love is not. Reading and rereading, I have to be sincere and say that I agree with what Shakespeare wrote 500 years ago. He divides his thoughts within the quatrains and couplets of his sonnet. In the first quatrain he talks about what love is not; in the second, what love is; and in the third, he talks again about what love is not. The opening line of the first quatrain includes, Let me not to the marriage of true minds / admit impediments. here he introduces the fact that he believes that true love is perfect and unchangeable no matter the situation encountered. With the use of an enjambment, there being no form of pause between lines, the poet is capable of grabbing peoples attention and making them immediately aware of what the recurring theme actually is; love being solid despite everything. Another poetic technique used in this first quatrain is alliteration; being when there is a repetition of consonants in words near each other. This can be found in line 1 and 3, with the repetition of Ts. This could then be further developed and said to be a consonance if looking at the first and second quatrains because of the various repetitions of Ts at the end of several words. In love is not love we have the presence of euphony where we hear the repetition of the vowels o creating a phonetic technique. In the second quatrain, we then encounter a fairly easy metaphor to notice which compares the sea, to life. an ever-fixed mark that looks on tempests and is never shaken A person goes through life, just like a ship does through sea. With tempests the speaker refers to obstacles encountered on the way, but as bad weather comes and gos, so do difficulties. As in ever-fixed mark we have to do with a light house, which is fixed and remains in place; just like love. As light houses guide ships through the sea, love guides people through life; the speaker in fact proposes to find your way to navigate through the stars and you will encounter your will, It is the star to every wandering bark. In line 7 we can also find assonance, the repetition of a vowel; in this case the repetition of As which grab peoples attention. Imagery is also very frequent in this poem, worths unknown, although this height be taken. Like stars, love is something we can touch and feel; but the fact that one can use it does not mean that you can quantify it. The true value of love is unknown and cannot be calculated the same way height could be. We simply have to live it day by day and be ready to live new experiences. Love really does take an important role in peoples lives, and really does help them to navigate through the different stages of growth and development. What Shakespeare is trying to explain is that no matter what, we should always feel to have affection, and we should learn to overcome any difficulties as a tempest, always goes away sooner or later. In the third quatrain we go through a series of images and personifications that allow us to reflect much upon what is said to us. Loves not Times fool love is not compassionate about time, and even though beauty changes; love is not fooled and does not change. though rosy lips and cheeks, time is personified into a face and we get the impression that it can be trapped and conquered, as can be a beautiful face with rosy lips. bending sickles compass with a sickle being a menacing harvesting tool, we can deduce once again that physical beauty can vanish. Giving the imagery of a menacing tool like a sickle, we get a very close connection towards death. Love cannot absolutely be measured in brief hours and weeks, it is eternal. Going on, bears it out even to the edge of doom. To doom it refers to dooms day in which the world will end. The speaker declared that love will last until then end, no matter what. In the final couplet, the speaker gives us the idea of truth in his words. He says that if his statements are proved wrong, he would pronounce to not have written a word. He does also know that, it is impossible to have never loved, so this ensures you that what Shakespeare claims to be his view of love, is actually entirely true.

Analysis of Vietnams Energy Supply and Production

Analysis of Vietnams Energy Supply and Production Vietnams economy has expanded rapidly in recent years, with its real gross domestic product (GDP) growing 7.7% in 2004 and 8.4% in 2005. Growth is forecast at 8.0% in 2006. Vietnam has had Normal Trade Relations status with the United States since late 2001, with 2002 marking the first time Vietnam shipped more goods to the United States than to Japan. Despite rising exports, Vietnam currently runs a slight trade deficit, but is projected to begin having trade surpluses by 2007. Much of Vietnams large rural population relies heavily on non-commercial biomass energy sources such as wood, dung, and rice husks. As a result, Vietnams per capita commercial energy consumption ranks among the lowest in Asia. The countrys commercial energy consumption is predicted to rise in coming years, primarily due to increases in the use of natural gas. Vietnam claims ownership of a portion of the potentially hydrocarbon-rich Spratly Islands, as do the Philippines, Brunei, Malaysia, China, and Taiwan. Vietnam, China, and the Philippines agreed in March 2005 to conduct a joint seismic survey for potential oil and natural gas reserves in a portion of the disputed area. Vietnam also claims the Paracel Islands, which China first occupied in 1974. Oil: Vietnams Oil Production and Consumption, 1980-2005. (Source: EIA, International Energy Annual 2003, internal EIA estimates.). Enlarge: Vietnams Oil Production and Consumption, 1980-2005. (Source: EIA, International Energy Annual 2003, internal EIA estimates.) Vietnam has 600 million barrels of proven oil reserves, according to data from Oil and Gas Journal, but that total is likely to increase as exploration continues. Crude oil production averaged 370,000 barrels per day (bbl/d) in 2005, down somewhat from the 403,000 bbl/d level achieved in 2004. Bach Ho (White Tiger), Rang Dong (Dawn), Hang Ngoc, Dai Hung (Big Bear), and Su Tu Den (Ruby) are the largest oil producing fields in the country. Although it is a significant oil producer, Vietnam remains reliant on imports of petroleum products due to a lack of refining capacity. Overall, Vietnam had net exports of 111,000 bbl/d of oil in 2005. Most of Vietnams crude oil is exported to refiners in Japan, Singapore, and South Korea. Vietnams largest oil producer is Vietsovpetro (VSP), a joint venture (JV) between PetroVietnam and Zarubezhneft of Russia. VSP operates Vietnams largest oil field, Bach Ho. Other foreign partners include ConocoPhillips, BP, Petronas, and Talisman Energy. Following the October 2003 commencement of drilling operations in the Su Tu Den (Black Lion) crude field, PetroVietnam reported increasing production volumes. PetroVietnams April 2003 discovery of an oil deposit in Dai Hung, estimated to have a capacity of 6,300 bbl/d, was expected to further increase Vietnamese production. The decline in production overall from 2004 to 2005 was primarily the result of declining production at the Bach Ho field. The planned development of several new oil fields in coming years is expected to increase Vietnamese production. A new well at Block 15-1s Su Tu Trang (White Lion) field flowed 8,682 bbl/d in early 2004 and is scheduled to be developed by 2008. In October 2004, Japanese oil companies Nippon Oil Exploration (35 percent interest), Idemitsu Kosan (35 percent), and Teikoku Oil (30 percent) announced plans to fund the development of Blocks 05.1b and 05.1c in the Nam Con Son Basin. Two months later, the Korean National Oil Corporation (KNOC), along with several Korean partners, finalized terms for the $300 million development of Block 11-2, which includes the Flying Orchid Field. PetroVietnam has a 25 percent interest in the joint venture. Exploration in Vietnam continues to yield new discoveries. In 2002, large oil and gas deposits were discovered in the Ca Ngu Vang (Golden Tuna) and Voi Trang (White Elephant) fields. SOCO Vietnam estimates that its Ca Ngu Vang well may contain up to 250 million barrels of oil. In July 2004, VSP discovered new stocks of oil in its Dragon field. Three months later, a joint venture comprised of American Technologies, Petronas, Singapore Petroleum, and PetroVietnam announced a 100-million-barrel oil discovery off Vietnams northeast coast. In September 2004, the Vietnamese government offered nine exploration blocks in the Phu Khanh basin off its southern coast. In November 2004, Japanese oil companies Nippon Oil Exploration, Idemitsu Kosan, and Teikoku Oil signed an agreement to explore in two offshore blocks southeast of Ho Chi Minh City. They plan to drill a test well in 2006 and complete exploration by 2007. In December 2004, Talisman Energy was awarded the right to conduct exploration in the Cuu Long Basin, and received additional acreage in an adjacent area in April 2005. ONGC of India was awarded drilling rights in the deepwater Block 127 in the Phu Khanh Basinoff Vietnams central coast in October 2005. ChevronTexaco also received acreage in the Phu Khanh Basin in the most recent round of awards, with an award for Block 122 in October 2005. PetroVietnams storage and transportation division, Petrolimex, recently completed a new oil storage facility in the central Khanh Hoa province. The depot is largest in the country, with a total storage capacity of 3.68 million barrels. Refining: Vietnam is in the process of building its first refinery. The $1.5 billion Dung Quat Refinery, located in Quang Ngai province, will have a crude distillation capacity of approximately 140,000 bbl/d. After several years of delays in financing the project, construction finally began in November 2005. Commercial operation of the refinery is expected to begin in early 2009. Vietnams distribution infrastructure is discontinuous, with the north and south of the country functioning largely as separate markets. Completion of the Dung Quat Refinery, located in the center of the country, should lead to greater interaction between the regions. A second refinery project is under consideration at Nghi Son, north of Hanoi in the Thanh Hoa province. The Vietnamese government has estimated the 150,000 bbl/d plant will cost $3 billion. In August 2004, Mitsubishi Corporation agreed to participate in building Nghi Son for completion in 2010. In December 2004, Vietnam contracted the International Business Company (IBC) of the British Virgin Islands to conduct a feasibility study for a third oil refinery, to be located at Vung Ro in the southern Phu Yen province. The Vietnamese government hopes to complete the refinery within 12 years. Natural Gas: Vietnams Oil Production and Consumption, 1980-2005. (Source: EIA, International Energy Annual 2003.). Enlarge: Vietnams Oil Production and Consumption, 1980-2005. (Source: EIA, International Energy Annual 2003.). Vietnam has proven gas reserves of 6.8 trillion cubic feet (Tcf), according to Oil and Gas Journal. Vietnams natural gas production and consumption have been rising rapidly since the late 1990s, with further increases expected as additional fields come onstream. Natural gas is currently produced entirely for domestic consumption. The Cuu Long basin offshore from the Mekong Delta in southern Vietnam, a source of associated gas from oil production, is the largest Vietnamese natural gas production area. Only two fields in Vietnam have been developed specifically for their natural gas potential: Tien Hai, with a potential output of 1.76 million cubic feet per day (Mmcf/d); and Lan Tay/Lan Do of Nam Con Son, which began producing over 5 Mmcf/d in 2002. In the Nam Con Son Basin, a $565 million, 230-mile pipeline was completed in June 2002 connecting the Lan Tay and Lan Do fields to the mainland at Vung Tau. The Nam Con Son project consists of five subsea wells linked to a production platform and a pipeline leading to an onshore treatment plant. Gas is piped to three generating plants at the Phu My industrial complex, where electricity is provided primarily to areas surrounding Ho Chi Minh City. In December 2004, the Vietnamese government announced that output from Nam Con Son was expected to reach 88 billion cubic feet (Bcf), exceeding planned production by 90%. The project currently supplies the Phu My 1, Phu My 3, Phu My 2.1 power plants and the extended Phu My 2.1 plant. Phu My 2.2 will begin using output from the field soon thereafter. In December 2002, a consortium headed by Korea National Oil Corporation (KNOC) signed an agreement to install facilities to pump and supply 130 Mmcf/d of natural gas to Vietnam. The natural gas, located in the Rong Doi and Rong Doi Tay fields on Block 11-2 of the Nam Con Son Basin, is sold to PetroVietnam under a 23-year contract. PetroVietnam resells most this volume to Electricity of Vietnam (EVN). Production at the fields began in mid-2005. In December 2004, KNOC and PetroVietnam signed agreements to further exploit natural gas in both Blocks 11 and 12. Construction of an additional pipeline to bring ashore natural gas from block 11 began in October 2005, and is scheduled for completion in October 2006. The Su Tu Den and Rang Dong oil fields, both of which have considerable Vietnamese reserves of associated natural gas, are located near the 62-mile pipeline from the Bach Ho field. An estimated 60 Mmcf/d of gas from the fields is earmarked for consumption in power plants in southern Vietnam. Both TotalFinaElf and ChevronTexaco (originally Unocal) have found natural gas in exploratory drilling of the Malay basin. Additionally, Talisman Energy has found natural gas at the Cai Nuoc field in block 46. The discovery is close to block PM-3-CAA, which straddles the maritime border with Malaysia, and is expected to contain up to 100 Bcf of recoverable gas reserves. A contract was awarded to McDermott International in March 2006 for construction of a 200-mile pipeline, which will transport natural gas from the PM3-CAA block to Ca Mau province in southern Vietnam. It is scheduled for completion in 2007. In December 2004, PetroVietnam announced that it was reconsidering the $70 million Phu My gas pipeline project from Phu My to Nhon Trach due to increased expenses associated with land costs in compensation areas. The pipeline was initially planned to transport associated gas from the Bach Ho and Rong fields for power generation. Coal: Vietnam contains coal reserves estimated at 165 million short tons (Mmst), the majority of which is anthracite. Production has increased dramatically over the last decade, with Vietnam producing over 18 Mmst in 2003. As a result, Vietnam exported a record 7 Mmst of coal, primarily to Japan and China, in 2003. Although Vietnam has historically relied on hydropower for electricity, it has recently promoted the construction of coal-fired power plants. Vinocoal plans to build eight coal-fueled thermal power plants with a total capacity of 2,900 megawatts (MW) by 2010. Six are currently in various stages of planning and construction. In December 2004, the Vietnamese government approved Vinacoals proposal to invest in a 200-MW, coal-fired thermal power plant in the Son Dong district. The plant is scheduled to begin operation in 2007. Coal-fired power plants are expected to eventually account for 25% of Vietnams total electricity production. The Vietnamese government estimates that 10.2 Mms t of coal is needed per year to meet increasing domestic demand, projected at 20,000 MW by 2010. Vietnam continues to exploit new coal reserves within its borders. In March 2003, a significant coal bed was discovered in the Red River Delta region of northern Vietnam. Vinacoal plans to use the reserve for thermal power plants. In October 2004, Vinacoal entered talks with Chinas Fujian Province Coal Industry Corporation to jointly exploit the Bac Coc Sau mine in the Quang Ninh province. Electricity: Vietnams Electricity Generation, 1980-2003. (Source: EIA, International Energy Annual 2003.). Enlarge: Vietnams Electricity Generation, 1980-2003. (Source: EIA, International Energy Annual 2003.). Although Vietnams per capita electricity consumption is among the lowest in Asia, demand has risen in recent years, straining the countrys limited generating capacity. Rapid commercial sector growth, population migration to major cities, and elevated living standards have all contributed to a growing demand for electricity. In 2003, Vietnam had a total electric generating capacity of 8.8 gigawatts (GW) and generated 39.7 billion kilowatt-hours (kWh) of electricity, of which 52 percent was hydropower. Electricity demand in Vietnam is forecast to grow 15 percent per year until 2010. Vietnam currently buys power from China to prevent shortages in the north, and plans to begin purchasing from Laos in 2008. The majority of thermal electricity generation in Vietnam depends on coal-fired plants, though natural gas use is expanding. EVNs Pha Lai is the largest coal-fired power project in Vietnam, with the second of two 300-MW units coming into service in 2003. In order to meet increased demand, construction or expansion is planned for 32 power stations (7,547 MW) before 2010. The state power company, Elà ©ctricità © of Vietnam (EVN), plans to commission 16 hydropower plants by 2010 and increased capacity at the Uong Bi coal-fired plant to 400 MW in 2005. Vinacoal also has plans to construct eight additional coal-fired power plants. Vietnam currently has five hydroelectric expansions underway. The countrys Son La project, which began construction in late 2005, is anticipated to have a generating capacity of 2,400 megawatts (MW) by 2012, will be the largest hydroelectric project in Vietnam when completed. In September 2004, construction began on the Ban Ve hydroelectric power plant, expected to begin operations in 2008. EVN began work on four additional hydroelectric projects in late 2004. The Dong Nai 3 and Dong Nai 4, both located in the Central Highlands region, are expected to be completed within four years and to provide approximately 520 MW of generating capacity. In December 2004, EVN began construction of the Se San 4 hydropower plant in the central highlands provinces of Gia Lai and Kon Tum. The plant is anticipated to have a capacity of 330 MW and to generate 1,390 million kWh per year. Vietnam also plans to build three additional plants in the region before 2010. In March 2004, EVN announced plans to spend $1.3 billion to build and refurbish power plants with a combined capacity of 1,510 MW. The projects include the combined cycle power plant Phu My 2.1, the hydroelectric facility Can Don, the Phu My 3 and Phu My 4 thermal plants, and Na Duong. Additional projects include the Song Ba Ha, Bac Binh, Se San 4, Dong Nai 3 and Dong Nai 4 hydrostations, the Quang Ninh, Ninh Binh extension, and the O Mon 600-MW thermal plant. The development of natural gas-fired plants in the Phu My complex of the Ba Ria-Vung Tau province has helped to offset Vietnams heavy reliance on hydropower, which can be vulnerable to disruption when monsoon rainfall is unusually low. In March 2003, the 720-MW Phu My 3 power plant commenced operations. The $450 million plant, owned by a consortium led by UKs BP, was Vietnams first foreign-invested, build-operate-transfer (BOT) project. EVN has contracted to purchase the output under a 20-year power purchase agreement. Mitsubishi received an award in February 2006 for the construction of a 330-MW natural gas-fired power plant in the southern Mekong delta. The plant will come online in early 2009, running initially on fuel oil, and switching to natural gas when pipeline infrastructure is completed. More foreign companies are beginning to enter the growing Vietnamese power market in the form of Build-Operate-Transfer (BOT) projects. EVN and a consortium including Tokyo Electric Power (TEPCO), Sumitomo, and Elà ©ctricità © de France (EdF) began BOT construction of the Mekong Deltas 715-MW Phu My 2-2 in January 2003. The plant is fueled by gas from Nam Con Son Basin. EVN plans to develop a national electricity grid by 2020 by patching together several regional grids. The countrys distribution infrastructure is poorly maintained, but has benefited from recent improvements. A North-South power cable transmits electricity from Vietnams largest generator, the Hoa Binh hydropower plant in the North, to large population centers in the South, linking the country into one electricity grid and helping alleviate electricity shortages in Ho Chi Minh City. The $56 million project was funded by the World Bank. Vietnam is considering the construction of a 500-KV, 188-mile power line from Pleiku to Danang city at a cost of $130 million. The Vietnamese government has estimated that an additional 9,300 miles of high-voltage transmission lines and 173,600 miles of medium- and low-voltage transmission lines will be necessary to accommodate new capacity by 2010. In September 2004, EVN announced plans to invest $330 million over five years to upgrade transmission lin es surrounding Hanoi. Vietnam plans to complete its first nuclear power plant by 2020 as an alternate means on meeting demand. In December 2004, the Vietnamese Ministry of Science and Technology submitted a pre-feasibility study for the 2,000-megawatt (MW) nuclear plant to the National Assembly. Fossil Fuels Coal, Oil and Natural Gas: Where Fossil Fuels Come From: There are three major forms of fossil fuels: coal, oil and natural gas. All three were formed many hundreds of millions of years ago before the time of the dinosaurs hence the name fossil fuels. The age they were formed is called the Carboniferous Period. It was part of the Paleozoic Era. Carboniferous gets its name from carbon, the basic element in coal and other fossil fuels. The Carboniferous Period occurred from about 360 to 286 million years ago. At the time, the land was covered with swamps filled with huge trees, ferns and other large leafy plants, similar to the picture above. The water and seas were filled with algae the green stuff that forms on a stagnant pool of water. Algae is actually millions of very small plants. Some deposits of coal can be found during the time of the dinosaurs. For example, thin carbon layers can be found during the late Cretaceous Period (65 million years ago) the time of Tyrannosaurus Rex. But the main deposits of fossil fuels are from the Carboniferous Period. For more about the various geologic eras, go to www.ucmp.berkeley.edu/help/timeform.html. As the trees and plants died, they sank to the bottom of the swamps of oceans. They formed layers of a spongy material called peat. Over many hundreds of years, the peat was covered by sand and clay and other minerals, which turned into a type of rock called sedimentary. More and more rock piled on top of more rock, and it weighed more and more. It began to press down on the peat. The peat was squeezed and squeezed until the water came out of it and it eventually, over millions of years, it turned into coal, oil or petroleum, and natural gas. Coal: Coal is a hard, black colored rock-like substance. It is made up of carbon, hydrogen, oxygen, nitrogen and varying amounts of sulphur. There are three main types of coal anthracite, bituminous and lignite. Anthracite coal is the hardest and has more carbon, which gives it a higher energy content. Lignite is the softest and is low in carbon but high in hydrogen and oxygen content. Bituminous is in between. Today, the precursor to coal peat is still found in many countries and is also used as an energy source. The earliest known use of coal was in China. Coal from the Fu-shun mine in northeastern China may have been used to smelt copper as early as 3,000 years ago. The Chinese thought coal was a stone that could burn. Coal is found in many of the lower 48 states of U.S. and throughout the rest of the world. Coal is mined out of the ground using various methods. Some coal mines are dug by sinking vertical or horizontal shafts deep under ground, and coal miners travel by elevators or trains deep under ground to dig the coal. Other coal is mined in strip mines where huge steam shovels strip away the top layers above the coal. The layers are then restored after the coal is taken away. The coal is then shipped by train and boats and even in pipelines. In pipelines, the coal is ground up and mixed with water to make whats called a slurry. This is then pumped many miles through pipelines. At the other end, the coal is used to fuel power plants and other factories. Oil or Petroleum: Oil is another fossil fuel. It was also formed more than 300 million years ago. Some scientists say that tiny diatoms are the source of oil. Diatoms are sea creatures the Picture of oil formationsize of a pin head. They do one thing just like plants; they can convert sunlight directly into stored energy. Oil has been used for more than 5,000-6,000 years. The ancient Sumerians, Assyrians and Babylonians used crude oil and asphalt (pitch) collected from large seeps at Tuttul (modern-day Hit) on the Euphrates River. A seep is a place on the ground where the oil leaks up from below ground. The ancient Egyptians, used liquid oil as a medicine for wounds, and oil has been used in lamps to provide light. The Dead Sea, near the modern Country of Israel, used to be called Lake Asphaltites. The word asphalt was derived is from that term because of the lumps of gooey petroleum that were washed up on the lake shores from underwater seeps. In North America, Native Americans used blankets to skim oil off the surface of streams and lakes. They used oil as medicine and to make canoes water-proof. During the Revolutionary War, Native Americans taught George Washingtons troops how to treat frostbite with oil. As our country grew, the demand for oil continued to increase as a fuel for lamps. Petroleum oil began to replace whale oil in lamps because the price for whale oil was very high. During this time, most petroleum oil came from distilling coal into a liquid or by skimming it off of lakes just as the Native Americans did. Then on August 27, 1859, Edwin L. Drake (the man standing on the right in the black and white picture to the right), struck liquid oil at his well near Titusville, Pennsylvania. He found oil under ground and a way that could pump it to the surface. The well pumped the oil into barrels made out of wood. This method of drilling for oil is still being used today all over the world in areas where oil can be found below the surface. Oil and natural gas are found under ground between folds of rock and in areas of rock that are porous and contain the oils within the rock itself. The folds of rock were formed as the earth shifts and moves. Its similar to how a small, throw carpet will bunch up in places on the floor. To find oil and natural gas, companies drill through the earth to the deposits deep below the surface. The oil and natural gas are then pumped from below the ground by oil rigs (like in the picture). They then usually travel through pipelines or by ship. Oil is found in 18 of the 58 counties in California. Kern County, the County where Bakersfield is found, is one of the largest oil production places in the country. But we only get one-half of our oil from California wells. The rest comes from Alaska, and an increasing amount comes from other countries. In the entire U.S., more than 50 percent of all the oil we use comes from outside the countrymost of it from the Middle East. Oil is brought to California by large tanker ships. The petroleum or crude oil must be changed or refined into other products before it can be used. Refineries: Oil is stored in large tanks until it is sent to various places to be used. At oil refineries, crude oil is split into various types of products by heating the thick black oil. Oil is made into many different products fertilizers for farms, the clothes you wear, the toothbrush you use, the plastic bottle that holds your milk, the plastic pen that you write with. They all came from oil. There are thousands of other products that come from oil. Almost all plastic comes originally from oil. Can you think of some other things made from oil? The products include gasoline, diesel fuel, aviation or jet fuel, home heating oil, oil for ships and oil to burn in power plants to make electricity. Heres what a barrel of crude oil can make. In California, 74 percent of our oil is used for transportation cars, planes, trucks, buses and motorcycles. Well learn more about transportation energy in Chapter 18. Natural Gas: Sometime between 6,000 to 2,000 years BCE (Before the Common Era), the first discoveries of natural gas seeps were made in Iran. Many early writers described the natural petroleum seeps in the Middle East, especially in the Baku region of what is now Azerbaijan. The gas seeps, probably first ignited by lightning, provided the fuel for the eternal fires of the fire-worshiping religion of the ancient Persians. Natural gas is lighter than air. Natural gas is mostly made up of a gas called methane. Methane is a simple chemical compound that is made up of carbon and hydrogen atoms. Its chemical formula is CH4 one atom of carbon along with four atoms hydrogen. This gas is highly flammable. Natural gas is usually found near petroleum underground. It is pumped from below ground and travels in pipelines to storage areas. The next chapter looks at that pipeline system. Natural gas usually has no odor and you cant see it. Before it is sent to the pipelines and storage tanks, it is mixed with a chemical that gives a strong odor. The odor smells almost like rotten eggs. The odor makes it easy to smell if there is a leak. Energy Safety Note! If you smell that rotten egg smell in your house, tell your folks and get out of the house quickly. Dont turn on any lights or other electrical devices. A spark from a light switch can ignite the gas very easily. Go to a neighbors house and call 9-1-1 for emergency help. Saving Fossil Fuels: Fossil fuels take millions of years to make. We are using up the fuels that were made more than 300 million years ago before the time of the dinosaurs. Once they are gone they are gone. So, its best to not waste fossil fuels. They are not renewable; they cant really be made again. We can save fossil fuels by conserving energy. Natural Gas Distribution System: We learned in Chapter 8 that natural gas is a fossil fuel. It is a gaseous molecule thats made up of two atoms one carbon atom combined with four hydrogen atom. Its chemical formula is CH4. The picture on the right is a model of what the molecule could look like. Dont confuse natural gas with gasoline, which we call gas for short. Like oil, natural gas is found under ground and under the ocean floor. Wells are drilled to tap into natural gas reservoirs just like drilling for oil. Once a drill has hit an area that contains natural gas, it can be brought to the surface through pipes. The natural gas has to get from the wells to us. To do that, there is a huge network of pipelines that brings natural gas from the gas fields to us. Some of these pipes are two feet wide. Natural gas is sent in larger pipelines to power plants to make electricity or to factories because they use lots of gas. Bakeries use natural gas to heat ovens to bake bread, pies, pastries and cookies. Other businesses use natural gas for heating their buildings or heating water. From larger pipelines, the gas goes through smaller and smaller pipes to your neighborhood. In businesses and in your home, the natural gas must first pass through a meter, which measures the amount of fuel going into the building. A gas company worker reads the meter and the company will charge you for the amount of natural gas you used. In some homes, natural gas is used for cooking, heating water and heating the house in a furnace. In rural areas, where there are no natural gas pipelines, propane (another form of gas thats often made when oil is refined) or bottled gas is used instead of natural gas. Propane is also called LPG, or liquefied petroleum gas, is made up of methane and a mixture with other gases like butane. Propane turns to a liquid when it is placed under slight pressure. For regular natural gas to turn into a liquid, it has to be made very, very cold. Cars and trucks can also use natural gas as a transportation fuel, but they must carry special cylinder-like tanks to hold the fuel. When natural gas is burned to make heat or burned in a cars engine, it burns very cleanly. When you combine natural gas with oxygen (the process of combustion), you produce carbon dioxide and water vapor; plus the energy thats released in heat and light. Some impurities are contained in all natural gas. These include sulphur and butane and other chemicals. When burned, those impurities can create air pollution. The amount of pollution from natural gas is less than burning a more complex fuel like gasoline. Natural gas-powered cars are more than 90 percent cleaner than a gasoline-powered car. Thats why many people feel natural gas would be a good fuel for cars because it burns cleanly. Biomass Energy: Biomass is matter usually thought of as garbage. Some of it is just stuff lying around dead trees, tree branches, yard clippings, left-over crops, wood chips (like in the picture to the right), and bark and sawdust from lumber mills. It can even include used tires and livestock manure. Your trash, paper products that cant be recycled into other paper products, and other household waste are normally sent to the dump. Your trash contains some types of biomass that can be reused. Recycling biomass for fuel and other uses cuts down on the need for landfills to hold garbage. This stuff nobody seems to want can be used to produce electricity, heat, compost material or fuels. Composting material is decayed plant or food products mixed together in a compost pile and spread to help plants grow. California produces more than 60 million bone dry tons of biomass each year. Of this total, five million bone dry tons is now burned to make electricity. This is biomass from lumber mill wastes, urban wood waste, forest and agricultural residues and other feed stocks. If all of it was used, the 60 million tons of biomass in California could make close to 2,000 megawatts of electricity for Californias growing population and economy. Thats enough energy to make electricity for about two million homes! How biomass works is very simple. The waste wood, tree branches and other scraps are gathered together in big trucks. The trucks bring the waste from factories and from farms to a biomass power plant. Here the biomass is dumped into huge hoppers. This is then fed into a furnace where it is burned. The heat is used to boil water in the boiler, and the energy in the steam is used to turn turbines and generators . Biomass can also be tapped right at the landfill with burning waster products. When garbage decomposes, it gives off methane gas. Youll remember in chapters 8 and 9 that natural gas is made up of methane. Pipelines are put into the landfills and the methane gas can be collected. It is then used in power plants to make electricity. This type of biomass is called landfill gas. A similar thing can be done at animal feed lots. In places where lots of animals are raised, the animals like cattle, cows and even chickens produce manure. When manure decomposes, it also gives off methane gas similar to garbage. This gas can be burned right at the farm to make energy to run the farm. Using biomass can help reduce global warming compared to a fossil fuel-powered plant. Plants use and store carbon dioxide (CO2) when they grow. CO2 stored in the plant is released when th Analysis of Vietnams Energy Supply and Production Analysis of Vietnams Energy Supply and Production Vietnams economy has expanded rapidly in recent years, with its real gross domestic product (GDP) growing 7.7% in 2004 and 8.4% in 2005. Growth is forecast at 8.0% in 2006. Vietnam has had Normal Trade Relations status with the United States since late 2001, with 2002 marking the first time Vietnam shipped more goods to the United States than to Japan. Despite rising exports, Vietnam currently runs a slight trade deficit, but is projected to begin having trade surpluses by 2007. Much of Vietnams large rural population relies heavily on non-commercial biomass energy sources such as wood, dung, and rice husks. As a result, Vietnams per capita commercial energy consumption ranks among the lowest in Asia. The countrys commercial energy consumption is predicted to rise in coming years, primarily due to increases in the use of natural gas. Vietnam claims ownership of a portion of the potentially hydrocarbon-rich Spratly Islands, as do the Philippines, Brunei, Malaysia, China, and Taiwan. Vietnam, China, and the Philippines agreed in March 2005 to conduct a joint seismic survey for potential oil and natural gas reserves in a portion of the disputed area. Vietnam also claims the Paracel Islands, which China first occupied in 1974. Oil: Vietnams Oil Production and Consumption, 1980-2005. (Source: EIA, International Energy Annual 2003, internal EIA estimates.). Enlarge: Vietnams Oil Production and Consumption, 1980-2005. (Source: EIA, International Energy Annual 2003, internal EIA estimates.) Vietnam has 600 million barrels of proven oil reserves, according to data from Oil and Gas Journal, but that total is likely to increase as exploration continues. Crude oil production averaged 370,000 barrels per day (bbl/d) in 2005, down somewhat from the 403,000 bbl/d level achieved in 2004. Bach Ho (White Tiger), Rang Dong (Dawn), Hang Ngoc, Dai Hung (Big Bear), and Su Tu Den (Ruby) are the largest oil producing fields in the country. Although it is a significant oil producer, Vietnam remains reliant on imports of petroleum products due to a lack of refining capacity. Overall, Vietnam had net exports of 111,000 bbl/d of oil in 2005. Most of Vietnams crude oil is exported to refiners in Japan, Singapore, and South Korea. Vietnams largest oil producer is Vietsovpetro (VSP), a joint venture (JV) between PetroVietnam and Zarubezhneft of Russia. VSP operates Vietnams largest oil field, Bach Ho. Other foreign partners include ConocoPhillips, BP, Petronas, and Talisman Energy. Following the October 2003 commencement of drilling operations in the Su Tu Den (Black Lion) crude field, PetroVietnam reported increasing production volumes. PetroVietnams April 2003 discovery of an oil deposit in Dai Hung, estimated to have a capacity of 6,300 bbl/d, was expected to further increase Vietnamese production. The decline in production overall from 2004 to 2005 was primarily the result of declining production at the Bach Ho field. The planned development of several new oil fields in coming years is expected to increase Vietnamese production. A new well at Block 15-1s Su Tu Trang (White Lion) field flowed 8,682 bbl/d in early 2004 and is scheduled to be developed by 2008. In October 2004, Japanese oil companies Nippon Oil Exploration (35 percent interest), Idemitsu Kosan (35 percent), and Teikoku Oil (30 percent) announced plans to fund the development of Blocks 05.1b and 05.1c in the Nam Con Son Basin. Two months later, the Korean National Oil Corporation (KNOC), along with several Korean partners, finalized terms for the $300 million development of Block 11-2, which includes the Flying Orchid Field. PetroVietnam has a 25 percent interest in the joint venture. Exploration in Vietnam continues to yield new discoveries. In 2002, large oil and gas deposits were discovered in the Ca Ngu Vang (Golden Tuna) and Voi Trang (White Elephant) fields. SOCO Vietnam estimates that its Ca Ngu Vang well may contain up to 250 million barrels of oil. In July 2004, VSP discovered new stocks of oil in its Dragon field. Three months later, a joint venture comprised of American Technologies, Petronas, Singapore Petroleum, and PetroVietnam announced a 100-million-barrel oil discovery off Vietnams northeast coast. In September 2004, the Vietnamese government offered nine exploration blocks in the Phu Khanh basin off its southern coast. In November 2004, Japanese oil companies Nippon Oil Exploration, Idemitsu Kosan, and Teikoku Oil signed an agreement to explore in two offshore blocks southeast of Ho Chi Minh City. They plan to drill a test well in 2006 and complete exploration by 2007. In December 2004, Talisman Energy was awarded the right to conduct exploration in the Cuu Long Basin, and received additional acreage in an adjacent area in April 2005. ONGC of India was awarded drilling rights in the deepwater Block 127 in the Phu Khanh Basinoff Vietnams central coast in October 2005. ChevronTexaco also received acreage in the Phu Khanh Basin in the most recent round of awards, with an award for Block 122 in October 2005. PetroVietnams storage and transportation division, Petrolimex, recently completed a new oil storage facility in the central Khanh Hoa province. The depot is largest in the country, with a total storage capacity of 3.68 million barrels. Refining: Vietnam is in the process of building its first refinery. The $1.5 billion Dung Quat Refinery, located in Quang Ngai province, will have a crude distillation capacity of approximately 140,000 bbl/d. After several years of delays in financing the project, construction finally began in November 2005. Commercial operation of the refinery is expected to begin in early 2009. Vietnams distribution infrastructure is discontinuous, with the north and south of the country functioning largely as separate markets. Completion of the Dung Quat Refinery, located in the center of the country, should lead to greater interaction between the regions. A second refinery project is under consideration at Nghi Son, north of Hanoi in the Thanh Hoa province. The Vietnamese government has estimated the 150,000 bbl/d plant will cost $3 billion. In August 2004, Mitsubishi Corporation agreed to participate in building Nghi Son for completion in 2010. In December 2004, Vietnam contracted the International Business Company (IBC) of the British Virgin Islands to conduct a feasibility study for a third oil refinery, to be located at Vung Ro in the southern Phu Yen province. The Vietnamese government hopes to complete the refinery within 12 years. Natural Gas: Vietnams Oil Production and Consumption, 1980-2005. (Source: EIA, International Energy Annual 2003.). Enlarge: Vietnams Oil Production and Consumption, 1980-2005. (Source: EIA, International Energy Annual 2003.). Vietnam has proven gas reserves of 6.8 trillion cubic feet (Tcf), according to Oil and Gas Journal. Vietnams natural gas production and consumption have been rising rapidly since the late 1990s, with further increases expected as additional fields come onstream. Natural gas is currently produced entirely for domestic consumption. The Cuu Long basin offshore from the Mekong Delta in southern Vietnam, a source of associated gas from oil production, is the largest Vietnamese natural gas production area. Only two fields in Vietnam have been developed specifically for their natural gas potential: Tien Hai, with a potential output of 1.76 million cubic feet per day (Mmcf/d); and Lan Tay/Lan Do of Nam Con Son, which began producing over 5 Mmcf/d in 2002. In the Nam Con Son Basin, a $565 million, 230-mile pipeline was completed in June 2002 connecting the Lan Tay and Lan Do fields to the mainland at Vung Tau. The Nam Con Son project consists of five subsea wells linked to a production platform and a pipeline leading to an onshore treatment plant. Gas is piped to three generating plants at the Phu My industrial complex, where electricity is provided primarily to areas surrounding Ho Chi Minh City. In December 2004, the Vietnamese government announced that output from Nam Con Son was expected to reach 88 billion cubic feet (Bcf), exceeding planned production by 90%. The project currently supplies the Phu My 1, Phu My 3, Phu My 2.1 power plants and the extended Phu My 2.1 plant. Phu My 2.2 will begin using output from the field soon thereafter. In December 2002, a consortium headed by Korea National Oil Corporation (KNOC) signed an agreement to install facilities to pump and supply 130 Mmcf/d of natural gas to Vietnam. The natural gas, located in the Rong Doi and Rong Doi Tay fields on Block 11-2 of the Nam Con Son Basin, is sold to PetroVietnam under a 23-year contract. PetroVietnam resells most this volume to Electricity of Vietnam (EVN). Production at the fields began in mid-2005. In December 2004, KNOC and PetroVietnam signed agreements to further exploit natural gas in both Blocks 11 and 12. Construction of an additional pipeline to bring ashore natural gas from block 11 began in October 2005, and is scheduled for completion in October 2006. The Su Tu Den and Rang Dong oil fields, both of which have considerable Vietnamese reserves of associated natural gas, are located near the 62-mile pipeline from the Bach Ho field. An estimated 60 Mmcf/d of gas from the fields is earmarked for consumption in power plants in southern Vietnam. Both TotalFinaElf and ChevronTexaco (originally Unocal) have found natural gas in exploratory drilling of the Malay basin. Additionally, Talisman Energy has found natural gas at the Cai Nuoc field in block 46. The discovery is close to block PM-3-CAA, which straddles the maritime border with Malaysia, and is expected to contain up to 100 Bcf of recoverable gas reserves. A contract was awarded to McDermott International in March 2006 for construction of a 200-mile pipeline, which will transport natural gas from the PM3-CAA block to Ca Mau province in southern Vietnam. It is scheduled for completion in 2007. In December 2004, PetroVietnam announced that it was reconsidering the $70 million Phu My gas pipeline project from Phu My to Nhon Trach due to increased expenses associated with land costs in compensation areas. The pipeline was initially planned to transport associated gas from the Bach Ho and Rong fields for power generation. Coal: Vietnam contains coal reserves estimated at 165 million short tons (Mmst), the majority of which is anthracite. Production has increased dramatically over the last decade, with Vietnam producing over 18 Mmst in 2003. As a result, Vietnam exported a record 7 Mmst of coal, primarily to Japan and China, in 2003. Although Vietnam has historically relied on hydropower for electricity, it has recently promoted the construction of coal-fired power plants. Vinocoal plans to build eight coal-fueled thermal power plants with a total capacity of 2,900 megawatts (MW) by 2010. Six are currently in various stages of planning and construction. In December 2004, the Vietnamese government approved Vinacoals proposal to invest in a 200-MW, coal-fired thermal power plant in the Son Dong district. The plant is scheduled to begin operation in 2007. Coal-fired power plants are expected to eventually account for 25% of Vietnams total electricity production. The Vietnamese government estimates that 10.2 Mms t of coal is needed per year to meet increasing domestic demand, projected at 20,000 MW by 2010. Vietnam continues to exploit new coal reserves within its borders. In March 2003, a significant coal bed was discovered in the Red River Delta region of northern Vietnam. Vinacoal plans to use the reserve for thermal power plants. In October 2004, Vinacoal entered talks with Chinas Fujian Province Coal Industry Corporation to jointly exploit the Bac Coc Sau mine in the Quang Ninh province. Electricity: Vietnams Electricity Generation, 1980-2003. (Source: EIA, International Energy Annual 2003.). Enlarge: Vietnams Electricity Generation, 1980-2003. (Source: EIA, International Energy Annual 2003.). Although Vietnams per capita electricity consumption is among the lowest in Asia, demand has risen in recent years, straining the countrys limited generating capacity. Rapid commercial sector growth, population migration to major cities, and elevated living standards have all contributed to a growing demand for electricity. In 2003, Vietnam had a total electric generating capacity of 8.8 gigawatts (GW) and generated 39.7 billion kilowatt-hours (kWh) of electricity, of which 52 percent was hydropower. Electricity demand in Vietnam is forecast to grow 15 percent per year until 2010. Vietnam currently buys power from China to prevent shortages in the north, and plans to begin purchasing from Laos in 2008. The majority of thermal electricity generation in Vietnam depends on coal-fired plants, though natural gas use is expanding. EVNs Pha Lai is the largest coal-fired power project in Vietnam, with the second of two 300-MW units coming into service in 2003. In order to meet increased demand, construction or expansion is planned for 32 power stations (7,547 MW) before 2010. The state power company, Elà ©ctricità © of Vietnam (EVN), plans to commission 16 hydropower plants by 2010 and increased capacity at the Uong Bi coal-fired plant to 400 MW in 2005. Vinacoal also has plans to construct eight additional coal-fired power plants. Vietnam currently has five hydroelectric expansions underway. The countrys Son La project, which began construction in late 2005, is anticipated to have a generating capacity of 2,400 megawatts (MW) by 2012, will be the largest hydroelectric project in Vietnam when completed. In September 2004, construction began on the Ban Ve hydroelectric power plant, expected to begin operations in 2008. EVN began work on four additional hydroelectric projects in late 2004. The Dong Nai 3 and Dong Nai 4, both located in the Central Highlands region, are expected to be completed within four years and to provide approximately 520 MW of generating capacity. In December 2004, EVN began construction of the Se San 4 hydropower plant in the central highlands provinces of Gia Lai and Kon Tum. The plant is anticipated to have a capacity of 330 MW and to generate 1,390 million kWh per year. Vietnam also plans to build three additional plants in the region before 2010. In March 2004, EVN announced plans to spend $1.3 billion to build and refurbish power plants with a combined capacity of 1,510 MW. The projects include the combined cycle power plant Phu My 2.1, the hydroelectric facility Can Don, the Phu My 3 and Phu My 4 thermal plants, and Na Duong. Additional projects include the Song Ba Ha, Bac Binh, Se San 4, Dong Nai 3 and Dong Nai 4 hydrostations, the Quang Ninh, Ninh Binh extension, and the O Mon 600-MW thermal plant. The development of natural gas-fired plants in the Phu My complex of the Ba Ria-Vung Tau province has helped to offset Vietnams heavy reliance on hydropower, which can be vulnerable to disruption when monsoon rainfall is unusually low. In March 2003, the 720-MW Phu My 3 power plant commenced operations. The $450 million plant, owned by a consortium led by UKs BP, was Vietnams first foreign-invested, build-operate-transfer (BOT) project. EVN has contracted to purchase the output under a 20-year power purchase agreement. Mitsubishi received an award in February 2006 for the construction of a 330-MW natural gas-fired power plant in the southern Mekong delta. The plant will come online in early 2009, running initially on fuel oil, and switching to natural gas when pipeline infrastructure is completed. More foreign companies are beginning to enter the growing Vietnamese power market in the form of Build-Operate-Transfer (BOT) projects. EVN and a consortium including Tokyo Electric Power (TEPCO), Sumitomo, and Elà ©ctricità © de France (EdF) began BOT construction of the Mekong Deltas 715-MW Phu My 2-2 in January 2003. The plant is fueled by gas from Nam Con Son Basin. EVN plans to develop a national electricity grid by 2020 by patching together several regional grids. The countrys distribution infrastructure is poorly maintained, but has benefited from recent improvements. A North-South power cable transmits electricity from Vietnams largest generator, the Hoa Binh hydropower plant in the North, to large population centers in the South, linking the country into one electricity grid and helping alleviate electricity shortages in Ho Chi Minh City. The $56 million project was funded by the World Bank. Vietnam is considering the construction of a 500-KV, 188-mile power line from Pleiku to Danang city at a cost of $130 million. The Vietnamese government has estimated that an additional 9,300 miles of high-voltage transmission lines and 173,600 miles of medium- and low-voltage transmission lines will be necessary to accommodate new capacity by 2010. In September 2004, EVN announced plans to invest $330 million over five years to upgrade transmission lin es surrounding Hanoi. Vietnam plans to complete its first nuclear power plant by 2020 as an alternate means on meeting demand. In December 2004, the Vietnamese Ministry of Science and Technology submitted a pre-feasibility study for the 2,000-megawatt (MW) nuclear plant to the National Assembly. Fossil Fuels Coal, Oil and Natural Gas: Where Fossil Fuels Come From: There are three major forms of fossil fuels: coal, oil and natural gas. All three were formed many hundreds of millions of years ago before the time of the dinosaurs hence the name fossil fuels. The age they were formed is called the Carboniferous Period. It was part of the Paleozoic Era. Carboniferous gets its name from carbon, the basic element in coal and other fossil fuels. The Carboniferous Period occurred from about 360 to 286 million years ago. At the time, the land was covered with swamps filled with huge trees, ferns and other large leafy plants, similar to the picture above. The water and seas were filled with algae the green stuff that forms on a stagnant pool of water. Algae is actually millions of very small plants. Some deposits of coal can be found during the time of the dinosaurs. For example, thin carbon layers can be found during the late Cretaceous Period (65 million years ago) the time of Tyrannosaurus Rex. But the main deposits of fossil fuels are from the Carboniferous Period. For more about the various geologic eras, go to www.ucmp.berkeley.edu/help/timeform.html. As the trees and plants died, they sank to the bottom of the swamps of oceans. They formed layers of a spongy material called peat. Over many hundreds of years, the peat was covered by sand and clay and other minerals, which turned into a type of rock called sedimentary. More and more rock piled on top of more rock, and it weighed more and more. It began to press down on the peat. The peat was squeezed and squeezed until the water came out of it and it eventually, over millions of years, it turned into coal, oil or petroleum, and natural gas. Coal: Coal is a hard, black colored rock-like substance. It is made up of carbon, hydrogen, oxygen, nitrogen and varying amounts of sulphur. There are three main types of coal anthracite, bituminous and lignite. Anthracite coal is the hardest and has more carbon, which gives it a higher energy content. Lignite is the softest and is low in carbon but high in hydrogen and oxygen content. Bituminous is in between. Today, the precursor to coal peat is still found in many countries and is also used as an energy source. The earliest known use of coal was in China. Coal from the Fu-shun mine in northeastern China may have been used to smelt copper as early as 3,000 years ago. The Chinese thought coal was a stone that could burn. Coal is found in many of the lower 48 states of U.S. and throughout the rest of the world. Coal is mined out of the ground using various methods. Some coal mines are dug by sinking vertical or horizontal shafts deep under ground, and coal miners travel by elevators or trains deep under ground to dig the coal. Other coal is mined in strip mines where huge steam shovels strip away the top layers above the coal. The layers are then restored after the coal is taken away. The coal is then shipped by train and boats and even in pipelines. In pipelines, the coal is ground up and mixed with water to make whats called a slurry. This is then pumped many miles through pipelines. At the other end, the coal is used to fuel power plants and other factories. Oil or Petroleum: Oil is another fossil fuel. It was also formed more than 300 million years ago. Some scientists say that tiny diatoms are the source of oil. Diatoms are sea creatures the Picture of oil formationsize of a pin head. They do one thing just like plants; they can convert sunlight directly into stored energy. Oil has been used for more than 5,000-6,000 years. The ancient Sumerians, Assyrians and Babylonians used crude oil and asphalt (pitch) collected from large seeps at Tuttul (modern-day Hit) on the Euphrates River. A seep is a place on the ground where the oil leaks up from below ground. The ancient Egyptians, used liquid oil as a medicine for wounds, and oil has been used in lamps to provide light. The Dead Sea, near the modern Country of Israel, used to be called Lake Asphaltites. The word asphalt was derived is from that term because of the lumps of gooey petroleum that were washed up on the lake shores from underwater seeps. In North America, Native Americans used blankets to skim oil off the surface of streams and lakes. They used oil as medicine and to make canoes water-proof. During the Revolutionary War, Native Americans taught George Washingtons troops how to treat frostbite with oil. As our country grew, the demand for oil continued to increase as a fuel for lamps. Petroleum oil began to replace whale oil in lamps because the price for whale oil was very high. During this time, most petroleum oil came from distilling coal into a liquid or by skimming it off of lakes just as the Native Americans did. Then on August 27, 1859, Edwin L. Drake (the man standing on the right in the black and white picture to the right), struck liquid oil at his well near Titusville, Pennsylvania. He found oil under ground and a way that could pump it to the surface. The well pumped the oil into barrels made out of wood. This method of drilling for oil is still being used today all over the world in areas where oil can be found below the surface. Oil and natural gas are found under ground between folds of rock and in areas of rock that are porous and contain the oils within the rock itself. The folds of rock were formed as the earth shifts and moves. Its similar to how a small, throw carpet will bunch up in places on the floor. To find oil and natural gas, companies drill through the earth to the deposits deep below the surface. The oil and natural gas are then pumped from below the ground by oil rigs (like in the picture). They then usually travel through pipelines or by ship. Oil is found in 18 of the 58 counties in California. Kern County, the County where Bakersfield is found, is one of the largest oil production places in the country. But we only get one-half of our oil from California wells. The rest comes from Alaska, and an increasing amount comes from other countries. In the entire U.S., more than 50 percent of all the oil we use comes from outside the countrymost of it from the Middle East. Oil is brought to California by large tanker ships. The petroleum or crude oil must be changed or refined into other products before it can be used. Refineries: Oil is stored in large tanks until it is sent to various places to be used. At oil refineries, crude oil is split into various types of products by heating the thick black oil. Oil is made into many different products fertilizers for farms, the clothes you wear, the toothbrush you use, the plastic bottle that holds your milk, the plastic pen that you write with. They all came from oil. There are thousands of other products that come from oil. Almost all plastic comes originally from oil. Can you think of some other things made from oil? The products include gasoline, diesel fuel, aviation or jet fuel, home heating oil, oil for ships and oil to burn in power plants to make electricity. Heres what a barrel of crude oil can make. In California, 74 percent of our oil is used for transportation cars, planes, trucks, buses and motorcycles. Well learn more about transportation energy in Chapter 18. Natural Gas: Sometime between 6,000 to 2,000 years BCE (Before the Common Era), the first discoveries of natural gas seeps were made in Iran. Many early writers described the natural petroleum seeps in the Middle East, especially in the Baku region of what is now Azerbaijan. The gas seeps, probably first ignited by lightning, provided the fuel for the eternal fires of the fire-worshiping religion of the ancient Persians. Natural gas is lighter than air. Natural gas is mostly made up of a gas called methane. Methane is a simple chemical compound that is made up of carbon and hydrogen atoms. Its chemical formula is CH4 one atom of carbon along with four atoms hydrogen. This gas is highly flammable. Natural gas is usually found near petroleum underground. It is pumped from below ground and travels in pipelines to storage areas. The next chapter looks at that pipeline system. Natural gas usually has no odor and you cant see it. Before it is sent to the pipelines and storage tanks, it is mixed with a chemical that gives a strong odor. The odor smells almost like rotten eggs. The odor makes it easy to smell if there is a leak. Energy Safety Note! If you smell that rotten egg smell in your house, tell your folks and get out of the house quickly. Dont turn on any lights or other electrical devices. A spark from a light switch can ignite the gas very easily. Go to a neighbors house and call 9-1-1 for emergency help. Saving Fossil Fuels: Fossil fuels take millions of years to make. We are using up the fuels that were made more than 300 million years ago before the time of the dinosaurs. Once they are gone they are gone. So, its best to not waste fossil fuels. They are not renewable; they cant really be made again. We can save fossil fuels by conserving energy. Natural Gas Distribution System: We learned in Chapter 8 that natural gas is a fossil fuel. It is a gaseous molecule thats made up of two atoms one carbon atom combined with four hydrogen atom. Its chemical formula is CH4. The picture on the right is a model of what the molecule could look like. Dont confuse natural gas with gasoline, which we call gas for short. Like oil, natural gas is found under ground and under the ocean floor. Wells are drilled to tap into natural gas reservoirs just like drilling for oil. Once a drill has hit an area that contains natural gas, it can be brought to the surface through pipes. The natural gas has to get from the wells to us. To do that, there is a huge network of pipelines that brings natural gas from the gas fields to us. Some of these pipes are two feet wide. Natural gas is sent in larger pipelines to power plants to make electricity or to factories because they use lots of gas. Bakeries use natural gas to heat ovens to bake bread, pies, pastries and cookies. Other businesses use natural gas for heating their buildings or heating water. From larger pipelines, the gas goes through smaller and smaller pipes to your neighborhood. In businesses and in your home, the natural gas must first pass through a meter, which measures the amount of fuel going into the building. A gas company worker reads the meter and the company will charge you for the amount of natural gas you used. In some homes, natural gas is used for cooking, heating water and heating the house in a furnace. In rural areas, where there are no natural gas pipelines, propane (another form of gas thats often made when oil is refined) or bottled gas is used instead of natural gas. Propane is also called LPG, or liquefied petroleum gas, is made up of methane and a mixture with other gases like butane. Propane turns to a liquid when it is placed under slight pressure. For regular natural gas to turn into a liquid, it has to be made very, very cold. Cars and trucks can also use natural gas as a transportation fuel, but they must carry special cylinder-like tanks to hold the fuel. When natural gas is burned to make heat or burned in a cars engine, it burns very cleanly. When you combine natural gas with oxygen (the process of combustion), you produce carbon dioxide and water vapor; plus the energy thats released in heat and light. Some impurities are contained in all natural gas. These include sulphur and butane and other chemicals. When burned, those impurities can create air pollution. The amount of pollution from natural gas is less than burning a more complex fuel like gasoline. Natural gas-powered cars are more than 90 percent cleaner than a gasoline-powered car. Thats why many people feel natural gas would be a good fuel for cars because it burns cleanly. Biomass Energy: Biomass is matter usually thought of as garbage. Some of it is just stuff lying around dead trees, tree branches, yard clippings, left-over crops, wood chips (like in the picture to the right), and bark and sawdust from lumber mills. It can even include used tires and livestock manure. Your trash, paper products that cant be recycled into other paper products, and other household waste are normally sent to the dump. Your trash contains some types of biomass that can be reused. Recycling biomass for fuel and other uses cuts down on the need for landfills to hold garbage. This stuff nobody seems to want can be used to produce electricity, heat, compost material or fuels. Composting material is decayed plant or food products mixed together in a compost pile and spread to help plants grow. California produces more than 60 million bone dry tons of biomass each year. Of this total, five million bone dry tons is now burned to make electricity. This is biomass from lumber mill wastes, urban wood waste, forest and agricultural residues and other feed stocks. If all of it was used, the 60 million tons of biomass in California could make close to 2,000 megawatts of electricity for Californias growing population and economy. Thats enough energy to make electricity for about two million homes! How biomass works is very simple. The waste wood, tree branches and other scraps are gathered together in big trucks. The trucks bring the waste from factories and from farms to a biomass power plant. Here the biomass is dumped into huge hoppers. This is then fed into a furnace where it is burned. The heat is used to boil water in the boiler, and the energy in the steam is used to turn turbines and generators . Biomass can also be tapped right at the landfill with burning waster products. When garbage decomposes, it gives off methane gas. Youll remember in chapters 8 and 9 that natural gas is made up of methane. Pipelines are put into the landfills and the methane gas can be collected. It is then used in power plants to make electricity. This type of biomass is called landfill gas. A similar thing can be done at animal feed lots. In places where lots of animals are raised, the animals like cattle, cows and even chickens produce manure. When manure decomposes, it also gives off methane gas similar to garbage. This gas can be burned right at the farm to make energy to run the farm. Using biomass can help reduce global warming compared to a fossil fuel-powered plant. Plants use and store carbon dioxide (CO2) when they grow. CO2 stored in the plant is released when th

e-waste Essay -- Technology, Electronic and Electrical Equipment

Electronic and electrical equipment is essential part of busy world. It substitutes hard human work and makes it faster. Most of people have a computer at home or at work. In recent years changing of electronic equipment becomes faster due to obsolescence and advance (Deathe et al. 2008, 322). The problem of e-waste threatens the future environment of the modern society. E-waste or electronic waste means electrical and electronic equipment, which is not suitable for use and fills the dumps. Electronic equipment, such as mobile phones, computers, and televisions consist of hazardous materials, which pollute the environment and impact on human’s health. Obtaining of 1.6 billion pounds of lead and four times more pounds of plastic from e-waste had been foretold by the National Safety Council (Hosansky 2004, 20). There is a diversity of ways to solve this problem, but for finding the most effective solution there are some criteria such as environmental benefits, accessibility for people and feasibility. This paper using evaluation criteria will introduce and analyse remanufacturing and recycling. This essay will argue that remanufacturing is the most effective solution by evaluation of two proposed solving. According to Kahhat et al. (2008, 956) people buy technologies despite they not required in it. Increasing of using electronic devices has not supplemented the developing of a process after the end of their life. For instance, only 9% of non-using equipment was pending of destruction (ibid. 956).He shows that about 4 % of e-waste can be recycled in the United States. As Hosansky (2004, 20) states computers have the cathode ray tubes (CRTs) which consist of lead. Electronic equipment also contain chemicals which dangerous for hea... ...be disassembled and restored. Remanufacturing seems to have promise and it needs more promoting and expansion. In conclusion, this essay has overviewed the e-waste problem and has analyzed lately recommended solutions. Remanufacturing and recycling was evaluated according to the criteria of environmental benefits, accessibility for people and feasibility. The main criterion is environmental benefit which also means advantage for human health. According to this, it has been determined that, remanufacturing has adequate convenience to choose it. It is limited instances for remanufacturing in life and in scientific sources because it is recently offered solution. Indeed, producers should think about remanufacturing which in compare with recycling gives more benefits for environment and economics and seems to be the most effective solution of the e-waste problem.

Computer and I :: Personal Narrative Writing

Computer and I Well, what can I say about the long history that computers and I have had. I can hardly remember a time when a computer was not part of my life. Ever since I was in elementary school I can remember going to the computer labs to learn all about computers. Back in the day though; this was fun stuff, all you did was go to the labs for a couple of hours and play computer games. I remember playing countless hours of Oregon Trail, but that also has to do with the fact that to play one games takes the longest time. The next step in my history with computers was the word processor. This was something my sister asked for on her birthday. The word processor days were not that bad. It was just like using a typewriter but being able to erase your mistakes. It was also interesting because if you wanted to you could switch it to typewriter mode and it would type without using the computer screen and so it was just like using an old typewriter. Some people might think that a word processor might be a little primitive but it is not. You could do many things with it, why everything the word processor programs have on your computer it used to have. You could do spreadsheet and most of the things that Microsoft programs can do now. Later on; my family purchased a computer, here is where things got kind of hard but better at the same time. Since I was young when we got it there was no need for me to be messing with the complicated things. All I ever did on it was use it for pure entertainment. Computers were fun then; but only when you where playing games. Soon came the years when I actually had to sit down and write a paper for class.

In Jean Paul Sartre’s novel Nausea

In Jean Paul Sartre’s novel Nausea, the origin of Roquentin’s nausea is shown to be the essence by which things are named and which acts as a faà §ade over the more genuine nature of their existence. Throughout his experience, Roquentin realizes that much of what is touted as important in life is really non-essential. In fact, he finds that the deepest mysteries are hidden by a more frivolous veneer of plurality, to which people give names based on their attributes.These plural objects he finds himself disgusted with—beginning with the stone he held in his hand at his moment of epiphany. This nausea that is experienced by Roquentin is in direct contrast to individuality, because at root he believes that all comes down to existence. People and objects exist; that is all that can and should be said about them. All their other attributes are merely decoys blinding people to the real truth about themselves and their world. Therefore, any individualism is a mere illu sion, and further claims made by persons concerning ideologies are simply efforts at distracting oneself from the confounding mystery of existence.Roquentin’s nausea manifests itself as a reaction to the nominal nature of objects. This idea of naming objects (nouns) is one that distracts the mind from the fact that the object is there, in existence, without any real explanation as to why it exists. Roquentin says, â€Å"Everywhere, now, there are objects like this glass of beer on the table there. When I see it, I feel like saying: ‘Enough!’† (Sartre, 8). In fact, this is the way his nausea reacts to all attributes of objects, including color, taste, and other features by which people describe them.The apprehension of an object as a â€Å"blue book,† for instance, explains away the existence of the object and prevents one from marveling at the fact that it exists at all. This kind of â€Å"apprehension† can occur most readily when a thing can be seen, and this explains why Roquentin’s nausea occurs only in the light. The light, according to the reasoning put forth by Roquentin, is where an object’s existence becomes obscured. In the dark (or even in the mind of a subject who thinks of the object) the subconscious is likely to think of the thing only in terms of its being â€Å"there†Ã¢â‚¬â€that is, being in existence. However, in the light, the senses are apt to pick up such things as shape, color, and text. These peripheral things are mere distractions–frivolities that serve to concoct a reason for the things existence and to divert the mind from the profound fact of the thing.In the same way, Roquentin’s nausea rises against personalities of his and past eras, and this can be seen as a method of criticizing any tendency toward individualism. This can be seen as he views certain paintings and portraits of personalities. It can also be seen in his nauseated reaction to such persons as the Self-Taught Man and others, whose past lives he comes to dismiss as being non-existent like all things past. These people, he argues, have succumbed to an illusion of past glory and exploits, and from this have come to deny their own existence by promoting their essence.In contrast, Roquentin views such historical personalities as Robespierre, Lenin, and Cromwell all as one (Sartre, 69). This proceeds from the idea (noted earlier) that the attributes of a given thing act as a glare that prevents the viewing of the more important fact of existence which lies beyond the glare. Following this reasoning, then anything or anyone that seeks to make a name for himself and denies his/her oneness with the inexplicable existence of the universe acts futilely.The work that Roquentin constructs around the marquis Rollebon is described as conjecture rather than reality. In fact, the only reality that Roquentin acknowledges is the present. This underlines the concept within the novel that de bunks individualism, as Roquentin’s mining of the past to create the marquis can only create a false version of the man. This is further demonstrated in the fact that the marquis’ life is recreated only through retelling his actions or describing his features. Yet, these are both examples of the things that nauseate Roquentin—the very attributes that distract from the mystery of the marquis’ existence.In fact, Roquentin says of Rollebon, â€Å"He is a bubble of fog and desire, he is pale as death in the glass, Rollebon is dead,† (Sartre, 102). The significance of this is that, through Roquentin’s book, these attributes attempt to mask the fact that Rollebon is dead and therefore no longer in existence. It is existence that is important. Non-existence equals unimportance, regardless of ones attributes and exploits. Therefore, Roquentin ceases to continue writing Robellon’s history. This idea can be further generalized to all persons wh o somehow become distinct from all others in existence (whether by naming at birth or subsequent celebrity) as this is all meaningless.The nausea experienced by Roquentin is also a reaction to human beings’ tendency to generalize ideas and form them into ideologies. His reaction to Self-Taught Man’s socialism highlights the movement as a frivolous regard for â€Å"brothers,† â€Å"sisters,† â€Å"fellow humans† and â€Å"mankind† which in reality are names and attributes that merely mask a more homogeneous existence that is common to all that are in the world. This existence unites man with animal and with inanimate objects, and any attempt to individualize or distinguish those things around which ideologies are formed is fruitless.Roquentin also refers to what he terms â€Å"contingency.† He writes, â€Å"The essential thing is contingency. I mean that one cannot define existence as necessity† (Sartre, 131). This hints at the idea that any particular reason concocted by the human mind that points toward the need for a thing’s existence is beside the point of existence, which is by no means essential. In Roquentin’s conception, therefore, such explanations are non-essential. The only thing that matters is that a thing exists at all, and not ideologies that explain why it exists.The nausea that is experienced by Roquentin exists as a result of his growing disgust with the nominalization of the homogeneous world. He experiences a vertiginous reaction to the illumination of individual objects, which highlights the thing’s attributes. Yet it is these attributes that most prevent the apprehension of their profound existence, as they offer an illusory reason for the thing’s otherwise inexplicable presence in the world.This represents a form of individualism that Roquentin believes is a faà §ade, as all things (persons, objects, animals, etc.) are one in existence. This idea, which i s the origin of Roquentin’s nausea, presents therefore an argument against individualism. It also presents a similar argument against ideology, as these so-called universal concepts are based on beliefs about (or on attributes of) particular things—and these attributes in reality do not exist.Work CitedSartre, Jean Paul. Nausea. New York: New Directions Publishing Corporation.