Uganda's Oil and Refinery Oil Deal
每日鲜活英语3月19日
每日鲜活英语3月19日:今天你吃泔水油了吗?泔水油swill-cooked oil内含有毒致癌物质soaked with poisonous carcinogens泔水油里含有的一种毒素是黄曲霉毒素 A deadly toxin found in swill-oil is aflatoxin最致癌的物质the most carcinogenic substances是违禁砒霜毒性的100倍100 times more poisonous than the forbidding white arsenic倒胃口的消息stomach-turning news阴谋conspiracy搜集泔水油的swill-fishers恶臭的猪食stinking hogwash过滤filtrating沉淀subsiding可食的edible不明真相的顾客unwitting customersthe conspiracy starts at night when swill-fishers hollow out the stinking hogwash from urban sewages, followed by filtrating, heating, subsiding, dividing, and then in the morning comes out the clear-looking "edible" oil for unwitting customers.每个搜集泔水的每次可搜集4桶fetch up to four barrels at a time生意利润太高,难以抵制诱惑 a lucrative deal too tempting to resist,该产业处于无任何麻烦的无政府状态in a trouble-free "anarchy" stateEach fisher could fetch up to four barrels at a time, nearly 300 yuan ($44) easy money every night or over 10,000 yuan ($1,465) a month, a lucrative deal too tempting to resist, especially so when the business was in a trouble-free "anarchy" state问题的关键The crux of the matter和政府的管理有关,而不是检测仪器的事has to do with government management rather than detector gadgets每日鲜活英语3月22日:温总理:不能喝你的水,运点水不容易毫不松懈地抓好called for intensified and consistent efforts抗旱relieve drought帮助受灾群众度过难关help the affected people overcome the difficulty遭遇旱灾的云南省drought-plagued southwestern Yunnan Province遭遇特大旱灾suffered the most from the recent severe drought遭遇旱灾的村庄,农田,水库drought-hit villages, farmlands and reservoirs保证群众的饮水the guarantee of drinking water supply for local people春耕spring farming经济稳定快速发展 a steady and rapid economic growth稳定商品物价stable commodity prices保障食物供给充足provision of enough food supplies避免食品价格明显波动avoid significant fluctuations in food prices满足受灾群众的基本需求fulfill the basic needs of the affected people要根本上解决缺水问题To fundamentally address water-shortage、水资源保护工程建设water conservancy project construction每日鲜活英语10年3月22日:补记教育房奴mortgage slave卡奴credit-card slave输在起跑线上fall behind at the starting line参加各种各样的培训班和提高班forced to participate in a variety of training classes or improvement programs,发掘创造力和好奇心explore their creativity and curiosity每日鲜活英语10年3月22日:再谈地沟油地下窝点 a series of underground dens用从饭馆搜集到的回收油来生产食用油use recycled oil collected from restaurants to produce edible oil食品安全再一次被关注Food safety is once again being put into the limelight相当数量的食用后的油被回收重返饭桌a "significant portion" of used cooking oil is being recycled and returned to people's dining tables 餐饮业内部人士Catering industry insidersCatering industry insiders and food safety experts say huge profits, inadequate supervision and the difficulty of disposing of used cooking oil are the main reasons that used oil is collected from kitchen waste and reused as cooking oil.高额利润,监管不足,泔水油难以处理时回收厨房垃圾并加工成食用油的主要原因。
List of oil refineries
List of oil refineriesFrom Wikipedia, the free encyclopediaThis is a list of oil refineries. The Oil and Gas Journal also publishes a worldwide list of refineries annually in a country-by-country tabulation that includes for each refinery: location, crude oil daily processing capacity, and the size of each process unit in the refinery. For the U.S., the refinery list is further categorized state-by-state. The list usually appears in one of their December issues. It is about 45 pages in length and is updated each year with additions, deletions, name changes,capacity changes, etc.[] World's Largest Refineries (Barrels/Day)Name of Refinery Location Barrels perDayReliance Industries Jamnagar, India1,241,000 Paraguana Refining Complex (CRP) - Amuayand CardónVenezuela940,000 SK Energy Co., Ltd.South Korea840,000 Reliance Industries I1 (merged) Jamnagar, India661,000 GS Caltex South Korea650,000 ExxonMobil Singapore605,000 Reliance Industries II1 (merged) Jamnagar, India580,000 ExxonMobil Baytown, TX, USA 557,000Ras Tanura Aramco, Eastern Province,KSA525,000S-Oil South Korea 520,000 ExxonMobil Baton Rouge, LA, USA 503,000 Hovensa LLC Virgin Islands 495,000 Mina Al-Ahmadi Refinery, KNPC Kuwait470,000 BP Texas City Texas City, TX, USA 460,000 Shell Eastern Singapore458,000 Abadan Refinery Iran 450,000 Citgo Lake Charles Lake Charles, LA, USA 425,000 Shell Pernis Refinery Netherlands416,000 BP Whiting Refinery Whiting IN, USA 410,000 BP Rotterdam Refinery Rotterdam, Netherlands 400,000 Saudi Aramco Yanbu Refinery Yanbu, KSA 400,000REPLAN (Petrobras) Paulínia, BR 365,000 Total Refinery Antwerp Belgium 360,000 ExxonMobil Beaumont TX, USA 348,500Fawley Southampton Refinery Southampton, UnitedKingdom347,000Sunoco Philadelphia, PA, USA 335,000 Chevron Pascagoula, MS, USA 330,000 Valero Port Arthur TX, USA 325,000 Motiva Port Arthur TX, USA 325,000 ConocoPhillips Wood River IL, USA 306,000|:--Source: Oil & Gas Journal1. The Reliance I & Reliance II are adjacent to each other and is the world's largest refinery at a single site. Consisting of 1.2 m capacity.2. Prior to the damage sustained in the Iran-Iraq War (1980-88) the refinery has a capacity of 628,000 bbl/d (99,800 m³/d).This list is incomplete; you can help by expanding it.OceaniaAustraliaNew South Wales∙Kurnell Refinery, (Caltex), 124,500 bbl/d (19,790 m³/d)[1], Botany Bay∙Clyde Refinery, (Royal Dutch Shell), 100,000 bbl/d (16,000 m³/d), Clyde [] Victoria∙Geelong Refinery, (Royal Dutch Shell), 130,000 bbl/d (21,000 m³/d), Geelong ∙Altona Refinery, (ExxonMobil), ~75,000 bpd, Altona North (refinery reduced from 2 trains to 1 train between 2000-2004)[] Queensland∙Bulwer Island Refinery, (BP), 73,000 bbl/d (11,600 m³/d), Bulwer Island∙Lytton Refinery, (Caltex), 104,000 bbl/d (16,500 m³/d), Lytton[] South Australia∙Port Stanvac Refinery, (ExxonMobil), 100,000 bbl/d (16,000 m³/d), Port Stanvac (currently mothballed)[] Western Australia∙Kwinana Refinery, (BP), 138,000 bbl/d (21,900 m³/d), Kwinana[] New Zealand∙Marsden Point Oil Refinery (NZRC), 96,000 b[] Asia[] Bangladesh∙Eastern Refinery limited (Bangladesh Petroleum Corporation), 33,000 bbl/d (5,200 m³/d)[] China∙Zhenhai Refinery (Sinopec), 34,500 bbl/d (5,490 m³/d)∙Shanghai Gaoqiao Company Refinery (Sinopec), 22,000 bbl/d (3,500 m³/d) ∙Beijing Yanshan Company Refinery (Sinopec), 16,500 bbl/d (2,620 m³/d)∙Qilu Company Refinery (Sinopec), 19,500 bbl/d (3,100 m³/d)∙Jinling Company Refinery (Sinopec), 26,500 bbl/d (4,210 m³/d)∙Maoming Company Refinery (Sinopec), 26,500 bbl/d (4,210 m³/d)∙Tianjin Company Refinery (Sinopec), 10,000 bbl/d (1,600 m³/d)∙CPCC Changling Company Refinery (Sinopec), 10,000 bbl/d (1,600 m³/d)∙CPCC Guangzhou Branch Refinery (Sinopec), 15,000 bbl/d (2,400 m³/d)∙Anqing Company Refinery (Sinopec), 11,000 bbl/d (1,700 m³/d)∙Jingmen Company Refinery (Sinopec), 10,000 bbl/d (1,600 m³/d)∙Luoyang Company Refinery (Sinopec), 10,000 bbl/d (1,600 m³/d)∙Jiujiang Company Refinery (Sinopec), 9,800 bbl/d (1,560 m³/d)∙Jinan Company Refinery (Sinopec), 2,100 bbl/d (330 m³/d)∙Wuhan Company Refinery (Sinopec), 8,000 bbl/d (1,300 m³/d)∙Cangzhou Company Refinery (Sinopec), 7,000 bbl/d (1,100 m³/d)∙Beihai Company Refinery (Sinopec), 1,200 bbl/d (190 m³/d)∙Fushun Petrochemical Refinery (CNPC), 18,600 bbl/d (2,960 m³/d)∙Dalian Petrochemical Refinery (CNPC), 14,400 bbl/d (2,290 m³/d)∙Daqing Petrochemical Refinery (CNPC), 12,200 bbl/d (1,940 m³/d)∙Jilin Chemical Refinery (CNPC), 11,500 bbl/d (1,830 m³/d)∙Jinxi Refinery (CNPC), 11,200 bbl/d (1,780 m³/d)∙Lanzhou Refinery (CNPC), 11,200 bbl/d (1,780 m³/d)∙Dushanzi Refinery (CNPC) 120,00 bpd∙Jinzhou Petrochemical Refinery (CNPC), 112,000 bbl/d (17,800 m³/d)∙Urumqi Petrochemical Refinery (CNPC), 101,000 bbl/d (16,100 m³/d)∙West Pacific Petrochemical, Dalian (WEPEC), 200,000 bbl/d (32,000 m³/d) chng choo refinary 20000bbl/d[] India∙Digboi Refinery, Assam (IOC), 13,000 bbl/d (2,100 m³/d)∙Guwahati Refinery Assam (IOC), 20,000 bbl/d (3,200 m³/d)∙Bongaigaon Refinery Assam (IOC), 48,000 bbl/d (7,600 m³/d)∙Numaligarh Refinery Limited Assam (NRL), 58,000 bbl/d (9,200 m³/d)∙Haldia Refinery (IOC), 116,000 bbl/d (18,400 m³/d)∙Panipat Refinery (IOC), 240,000 bbl/d (38,000 m³/d)∙Gujarat Refinery (IOC), 170,000 bbl/d (27,000 m³/d)∙Barauni Refinery (IOC), 116,000 bbl/d (18,400 m³/d)∙Mathura Refinery (IOC), 156,000 bbl/d (24,800 m³/d)∙Manali Refinery (IOC), 185,000 bbl/d (29,400 m³/d)∙Jamnagar Refinery (Reliance Industries), 660,000 bbl/d (105,000 m³/d)∙Mumbai Refinery (HPCL), 107,000 bbl/d (17,000 m³/d)∙Visakhapatnam Refinery (HPCL), 150,000 bbl/d (24,000 m³/d)∙Mumbai Refinery Mahaul (BPCL), 135,000 bbl/d (21,500 m³/d)∙Nagapattnam Refinery (CPCL), 20,000 bbl/d (3,200 m³/d)∙Kochi Refinery (Kochi Refineries Ltd), 172,000 bbl/d (27,300 m³/d)∙Mangalore Refinery (MRPL), 190,000 bbl/d (30,000 m³/d)∙Tatipaka Refinery (ONGC), 1,600 bbl/d (250 m³/d)∙Essar Refinery (Essar), 10.5 MTPA∙Reliance Petroleum Ltd. (Second Refinery - Completed), Jamnagar, 580,000 bbl/d (92,000 m³/d)[] Indonesia∙Musi Refinery (Pertamina), 135,200 bbl/d (21,500 m³/d)∙Balongan Refinery (Pertamina), 125,000 bbl/d (19,900 m³/d)∙Dumai Refinery (Pertamina), 120,000 bbl/d (19,000 m³/d)∙Cilacap Refinery (Pertamina), 348,000 bbl/d (55,300 m³/d)∙Balikpapan Refinery (Pertamina), 260,000 bbl/d (41,000 m³/d)∙Sungai Pakning Refinery (Pertamina), 50,000 bbl/d (7,900 m³/d)∙Pangkalan Brandan Refinery (Pertamina), 5,000 bbl/d (790 m³/d)∙Cepu Refinery (Pertamina), 3,800 bbl/d (600 m³/d)∙Kasim Refinery (Pertamina), 10,000 bbl/d (1,600 m³/d)[] Japan∙Chiba Refinery (Cosmo Oil) (Cosmo Oil), 240,000 bbl/d (38,000 m³/d)∙Yokkaichi Refinery (Cosmo Oil), 175,000 bbl/d (27,800 m³/d)∙Sakai Refinery (Cosmo Oil) (Cosmo Oil), 80,000 bbl/d (13,000 m³/d)∙Sakaide Refinery (Cosmo Oil), 140,000 bbl/d (22,000 m³/d)∙Muroran Refinery (Nippon Oil Corporation (NOC)), 180,000 bbl/d (29,000 m³/d) ∙Sendai Refinery (Nippon Oil Corporation (NOC)), 145,000 bbl/d (23,100 m³/d) ∙Negishi Yokahama Refinery (Nippon Oil Corporation (NOC)), 340,000 bbl/d (54,000 m³/d)∙Osaka Refinery (Nippon Oil Corporation (NOC)) 115,000 bpd∙Mizushima Refinery (Nippon Oil Corporation (NOC)), 250,000 bbl/d (40,000 m³/d)∙Marifu Refinery (Nippon Oil Corporation (NOC)) 127,000 bpd∙Toyama Refinery (Nihonkai Oil/Nippon Oil Corporation (NOC)), 60,000 bbl/d (9,500 m³/d)∙Kubiki Refinery (Teikoku Oil), 4,410 bbl/d (701 m³/d)∙Chiba Refinery (Kyokuto) (Kyokuto Petroleum/ExxonMobil), 175,000 bbl/d (27,800 m³/d)∙Kawasaki Refinery (TonenGeneral Sekiyu/ExxonMobil), 335,000 bbl/d (53,300 m³/d)∙Wakayama Refinery (TonenGeneral Sekiyu/ExxonMobil), 170,000 bbl/d (27,000 m³/d)∙Sakai Refinery (TonenGeneral) (TonenGeneral Sekiyu/ExxonMobil), 156,000 bbl/d (24,800 m³/d)∙Nishihara Refinery (Nansei sekiyu/ExxonMobil), 100,000 bbl/d (16,000 m³/d) ∙Keihin Refinery (Toa Oil/Shell), 185,000 bbl/d (29,400 m³/d)∙Showa Yokkaichi Refinery (Showa Yokkaichi/Shell), 210,000 bbl/d (33,000 m³/d) ∙Yamaguchi Refinery (Seibu Oil/Shell), 120,000 bbl/d (19,000 m³/d)∙Sodegaura Refinery (Fuji Oil Campany), 192,000 bbl/d (30,500 m³/d)∙Kashima Refinery (Kashima Oil Campany/Japan Energy), 210,000 bbl/d (33,000 m³/d)∙Mizushima Refinery (Japan Energy) (Japan Energy), 205,200 bbl/d (32,620 m³/d) ∙Shikoku Refinery (Taiyo Oil), 120,000 bbl/d (19,000 m³/d)∙Ohita Refinery (Kyusyu Oil), 160,000 bbl/d (25,000 m³/d)∙Hokkaido Refinery (Idemitsu Kosan), 140,000 bbl/d (22,000 m³/d)∙Chiba Refinery (Idemitsu) (Idemitsu Kosan), 220,000 bbl/d (35,000 m³/d)∙Aichi Refinery (Idemitsu Kosan), 160,000 bbl/d (25,000 m³/d)∙Tokuyama Refinery (Idemitsu Kosan), 120,000 bbl/d (19,000 m³/d)[] Kazakhstan∙Shymkent Refinery (PetroKazakhstan), 160,000 bbl/d (25,000 m³/d)∙Pavlodar Refinery (KazMunayGas), 162,600 bbl/d (25,850 m³/d)∙Atyrau Refinery (KazMunaiGas), 104,400 bbl/d (16,600 m³/d)[] Malaysia∙Melaka I Refinery (Petronas), 126,000 bbl/d (20,000 m³/d)∙Melaka II Refinery (Petronas/ConocoPhillips), 270,000 bbl/d (43,000 m³/d)∙Kertih Refinery (Petronas), 40,000 bbl/d (6,400 m³/d)∙Port Dickson Refinery (Royal Dutch Shell), 155,000 bbl/d (24,600 m³/d)∙Lutong Refinery (Royal Dutch Shell), 45,000 bbl/d (7,200 m³/d). Has been closed.∙Esso Port Dickson Refinery (ExxonMobil), 86,000 bbl/d (13,700 m³/d)[] Myanmar∙Thanlyin Refinery (Myanma Petro-chemical Enterprise), 25,000 bbl/d (4,000 m³/d) ∙Thanbayakan Refinery (Myanma Petro-chemical Enterprise), 25,000 bbl/d (4,000 m³/d)∙Chauk Refinery (Myanma Petro-chemical Enterprise), 6,000 bbl/d (950 m³/d) [] Pakistan∙Khalifa Refinery (PARCO-II Under Construction), 300,000 bbl/d (48,000 m³/d) ∙Mid Country Refinery (PARCO), 100,000 bbl/d (16,000 m³/d)∙Karachi Refinery (Bosicor Pakistan Limited), 120,000 bbl/d (19,000 m³/d)∙Pakistan Refinery Limited (PRL), 50,000 bbl/d (7,900 m³/d)∙National Refinery Limited (NRL),64,000 bpd∙Attock Refinery Limited (ARL), 46,000 bbl/d (7,300 m³/d)∙Indus Oil Refinery Limited (IRL),90,000 bpd∙Enar Petroleum Refining Facility (EPRF), 3,000 bbl/d (480 m³/d)∙Trans Asia Refinery 100,000 bbl/d (16,000 m³/d)[] Papua New Guinea∙InterOil Refinery, Port Moresby (InterOil), 32,500 bbl/d (5,170 m³/d)[] Philippines∙Limay Refinery (Petron), 180,000 bbl/d (29,000 m³/d)∙Tabangao Refinery (Royal Dutch Shell), 120,000 bbl/d (19,000 m³/d)∙Batangas Refinery (Caltex(Chevron)), 86,000 bbl/d (13,700 m³/d). Has been closed[] Singapore∙ExxonMobil Jurong Island Refinery (ExxonMobil), 605,000 bbl/d (96,200 m³/d) ∙SRC Jurong Island Refinery (Singapore Refining Corporation), 285,000 bbl/d (45,300 m³/d)∙Shell Pulau Bukom Refinery (Royal Dutch Shell), 458,000 bbl/d (72,800 m³/d) [] South Korea∙SK Energy Co., Ltd. Ulsan Refinery (SK Energy), 850,000 bbl/d (135,000 m³/d) ∙S-Oil Ulsan Refinery (S-Oil), 500,000 bbl/d (79,000 m³/d)∙GS-Caltex Yeosu Refinery (GS-Caltex), 650,000 bbl/d (103,000 m³/d)∙SK Energy Co., Ltd. Inchon Refinery (SK Energy), 275,000 bbl/d (43,700 m³/d) ∙Hyundai Daesan Refinery (Hyundai), 275,000 bbl/d (43,700 m³/d)[] Taiwan∙Talin Refinery (CPC), 100,000 bbl/d (16,000 m³/d)∙Kaohsiung Refinery (CPC), 270,000 bbl/d (43,000 m³/d)∙Taoyuan Refinery (CPC), 200,000 bbl/d (32,000 m³/d)∙Mailiao Refinery (Formosa), 450,000 bbl/d (72,000 m³/d)[] Thailand∙Thai Oil Refinery (Thai Oil Company of PTT), 220,000 bbl/d (35,000 m³/d) ∙IRPC Refinery (IRPC PLC of PTT), 215,000 bbl/d (34,200 m³/d)∙Rayong Refinery (Rayong Refinery PLC of PTT), 145,000 bbl/d (23,100 m³/d) ∙SPRC Refinery (Star Petroleum Refining Company of PTT), 150,000 bbl/d (24,000 m³/d)∙Bangchak Refinery (Bangchak Petroleum of PTT), 120,000 bbl/d (19,000 m³/d) ∙Sri Racha Refinery (ExxonMobil), 170,000 bbl/d (27,000 m³/d)∙Rayong Purifier Refinery (Rayong Purifier Company), 17,000 bbl/d (2,700 m³/d) [] Vietnam∙Dung Quat Refinery (Petrovietnam), 130,000 bbl/d (21,000 m³/d)[] Africa[] Algeria∙Arzew Refinery (Sonatrach), 54,000 bbl/d (8,600 m³/d)∙El Harrach Refinery (Sonatrach), 59,000 bbl/d (9,400 m³/d)∙Skikda Refinery (Sonatrach), 323,000 bbl/d (51,400 m³/d)∙Hassi Messaoud Refinery (Sonatrach), 27,000 bbl/d (4,300 m³/d)[] Angola∙Luanda Refinery (Petrofina), 39,000 bbl/d (6,200 m³/d)[] Cameroon∙Limbe Refinery (SONARA), 42,000 bbl/d (6,700 m³/d)[] Congo∙Pointe Noire Refinery (CORAF), 21,000 bbl/d (3,300 m³/d)[] Côte d'Ivoire∙Abidjan Refinery (SIR)(website), 65,000 bbl/d (10,300 m³/d)[] Egypt∙Alexandria MIDOR Refinery (MIDOR), 100,000 bbl/d (16,000 m³/d)∙Wadi Feiran Refinery, 10,000 bbl/d (1,600 m³/d)∙Suez Refinery, 86,000 bbl/d (13,700 m³/d)∙El-Nasr, 146,000 bbl/d (23,200 m³/d)∙Amerya Refinery, 78,000 bbl/d (12,400 m³/d)∙Assiut Refinery, 47,000 bbl/d (7,500 m³/d)∙Cairo Refinery, 145,000 bbl/d (23,100 m³/d)∙Tanta Refinery, 35,000 bbl/d (5,600 m³/d)∙Alexandria Refinery, 100,000 bbl/d (16,000 m³/d)[] Gabon∙Sogara Refinery (Total/Shell/Agip), 21,000 bbl/d (3,300 m³/d)[] Ghana∙Tema Refinery (TORC), 45,000 bbl/d (7,200 m³/d)[] Kenya∙Mombasa Refinery (Kenya Petroleum), 90,000 bbl/d (14,000 m³/d)[] Libya∙Zawia Refinery (NOC), 120,000 bbl/d (19,000 m³/d)∙Ras Lanuf Refinery (NOC), 220,000 bbl/d (35,000 m³/d)∙El-Brega Refinery (NOC), 10,000 bbl/d (1,600 m³/d)∙Tobruk Refinery (NOC), 20,000 bbl/d (3,200 m³/d)∙Sarir Refinery (NOC), 10,000 bbl/d (1,600 m³/d)[] Morocco∙Samir Mohammedia Refinery (Corral Holdings), 104,900 bbl/d (16,680 m³/d) ∙Samir Sidi Kacem Refinery (Corral Holdings), 50,000 bbl/d (7,900 m³/d) [] Nigeria∙Port Harcourt Refinery PHRC 210,000 bbl/d (33,000 m³/d)∙Warri Refinery WRPGC 125,000 bbl/d (19,900 m³/d)[] South Africa∙Sapref Durban Refinery (Shell/BP), 172,000 bbl/d (27,300 m³/d)∙Petronas Durban Refinery (Petronas), 125,000 bbl/d (19,900 m³/d)∙Caltex Capetown Refinery (Caltex(Chevron)), 110,000 bbl/d (17,000 m³/d) ∙Natref Sasolburg Refinery (Sasol/Total), 87,500 bbl/d (13,910 m³/d)[] Sudan∙Khartoum Refinery (CNPC,Sudapet), 100,000 bbl/d (16,000 m³/d)∙El Gily Refinery (CNPC), 50,000 bbl/d (7,900 m³/d)∙Port Sudan Refinery (CNPC), 21,700 bbl/d (3,450 m³/d)∙El Obeid Refinery (CNPC), 10,000 bbl/d (1,600 m³/d)[] Tunisia∙Bizerte Refinery (STIR), 34,000 bbl/d (5,400 m³/d)[] Zambia∙Indeni Refinery (50% Total / 50% Government of Zambia), 23,750 bbl/d (3,776 m³/d)[] Djibouti∙Doraleh oil refinery (efad, kuwait), 250,000 bbl/d (40,000 m³/d)[] Middle East[] Saudi Arabia∙Riyadh Refinery (Saudi Aramco), 120,000 bbl/d (19,000 m³/d)∙Rabigh Refinery (Saudi Aramco), 400,000 bbl/d (64,000 m³/d)∙Yanbu' Refinery (Saudi Aramco), 230,000 bbl/d (37,000 m³/d)∙Jeddah Refinery (Saudi Aramco), 100,000 bbl/d (16,000 m³/d)∙Ras Tanura Refinery (Saudi Aramco), 525,000 bbl/d (83,500 m³/d)∙Aramco/Exxon Yanbu' Refinery (Saudi Aramco/ExxonMobil), 400,000 bbl/d (64,000 m³/d)∙Aramco/Shell Jubail Refinery[] Iran∙Abadan Refinery (NIOC), 450,000 bbl/d (72,000 m³/d)∙Tehran Refinery (NIOC), 225,000 bbl/d (35,800 m³/d)∙Isfahan Refinery (NIOC), 265,000 bbl/d (42,100 m³/d)∙Tabriz Refinery (NIOC), 112,000 bbl/d (17,800 m³/d)∙Shiraz Refinery (NIOC), 40,000 bbl/d (6,400 m³/d)∙Lavan Refinery (NIOC), 20,000 bbl/d (3,200 m³/d)∙Bandar Abbas Refinery (NIOC), 232,000 bbl/d (36,900 m³/d)∙Kermanshah refinery (NIOC),21,000 bpd[] Iraq∙Basrah Refinery (INOC), 126,000 bbl/d (20,000 m³/d)∙Daurah Refinery (INOC), 100,000 bbl/d (16,000 m³/d)∙Kirkuk Refinery (INOC), 27,000 bbl/d (4,300 m³/d)∙Baiji Salahedden Refinery (INOC), 140,000 bbl/d (22,000 m³/d)∙Baiji North Refinery (INOC), 150,000 bbl/d (24,000 m³/d)∙Khanaqin/Alwand Refinery (INOC), 10,500 bbl/d (1,670 m³/d)∙Samawah Refinery (INOC), 27,000 bbl/d (4,300 m³/d)∙Haditha Refinery (INOC), 14,000 bbl/d (2,200 m³/d)∙Muftiah Refinery (INOC), 4,500 bbl/d (720 m³/d)∙Gaiyarah Refinery (INOC), 4,000 bbl/d (640 m³/d)[] Israel∙Haifa Refinery (Oil Refineries Ltd), 170,000 bbl/d (27,000 m³/d)∙Ashdod Refinery (Oil Refineries Ltd), 100,000 bbl/d (16,000 m³/d)[] Kuwait∙Mina Al-Ahmadi Refinery (KNPC), 470,000 bbl/d (75,000 m³/d)∙Shuaiba Refinery (KNPC), 200,000 bbl/d (32,000 m³/d)∙Mina Abdullah Refinery (KNPC), 270,000 bbl/d (43,000 m³/d)[] Oman∙Mina Al Fahal Oman Refinery Company (ORC) 85,000 bbl/d (13,500 m³/d) ∙Sohar Refinery Company (SRC) 116,000 bbl/d (18,400 m³/d)∙Dukum Refinery Company (DRC) 200,000 bpd (Proposed)[] United Arab Emirates∙Al-Ruwais Refinery (Abu Dhabi Oil Refining Company), 280,000 bbl/d (45,000 m³/d)∙Umm Al-Narr Refinery (Abu Dhabi Oil Refining Company), 90,000 bbl/d (14,000 m³/d)∙Jebel Ali Refinery (ENOC), 120,000 bbl/d (19,000 m³/d)∙Hamriyah Sharjah Refinery (Sharjah Oil), 71,300 bbl/d (11,340 m³/d)[] Qatar∙Um Said Refinery (QP Refinery 100%), 147,000 bbl/d (23,400 m³/d)∙Lafan Refinery (Qatar Petroleum 51%, ExxonMobil 10%, Total 10%, Idemitsu 10%, Cosmo 10%, Mitsui 4.5%, Marubeni 4.5%), 146,000 bbl/d (23,200 m³/d) ∙AL-Shahene Refinery (2012), 250,000 bbl/d (40,000 m³/d)[] Bahrain∙Bapco Sitrah Refinery (Bapco), 267,000 bbl/d (42,400 m³/d)[] Yemen∙Aden Refinery, (Aden Refinery Company), 120,000 bbl/d (19,000 m³/d)∙Marib Refinery, (Yemen Hunt Oil Company), 10,000 bbl/d (1,600 m³/d) [] Jordan∙Jordan Refinery ,Zarqa, Az Zarqa, (Jordan Petrolum Refinery Company), 65,000 bbl/d (10,300 m³/d)[] Latin America[] Argentina∙La Plata Refinery (Repsol YPF) 189,000 bpd∙Buenos Aires Refinery (Royal Dutch Shell) 110,000 bpd∙Lujan de Cuyo Refinery (Repsol YPF) 105,500 bpd∙Esso Campana Refinery (ExxonMobil) 84,500 bpd∙San Lorenzo Refinery (Refisan S.A.) 38,000 bpd (start-up 1938)∙Plaza Huincul Refinery (Repsol YPF) 37,190 bpd (start-up 1919)∙Campo Duran Refinery (Refinor) 32,000 bpd∙Bahia Blanca Refinery (Petrobras) 28,975 bpd[] Bolivia∙Gualberto Villarael Cochabamba Refinery (YPFB) 40,000 bpd∙Guillermo Elder Bell Santa Cruz Refinery (YPFB) 20,000 bpd∙Carlos Montenegro Sucre Refinery (Refisur SA) 3,000 bpd∙Reficruz 2,000 bbl/d (320 m³/d)∙Refinería Oro Negro SA 2,000 bbl/d (320 m³/d)[] Brazil∙REFAP (Petrobras and Repsol YPF), Canoas 189,000 bbl/d (30,000 m³/d)∙RECAP (Petrobras), Mauá 53,000 bbl/d (8,400 m³/d)∙REPLAN (Petrobras), Paulínia 365,000 bbl/d (58,000 m³/d)∙REVAP (Petrobras), São José dos Campos 251,000 bbl/d (39,900 m³/d)∙RPBC (Petrobras), Cubatão 170,000 bbl/d (27,000 m³/d)∙REDUC (Petrobras), Duque de Caxias 242,000 bbl/d (38,500 m³/d)∙REMAN (Petrobras), Manaus 46,000 bbl/d (7,300 m³/d)∙Lubnor (Petrobras), Fortaleza 6,000 bbl/d (950 m³/d)∙REGAP (Petrobras), Betim 151,000 bbl/d (24,000 m³/d)∙REPAR (Petrobras), Araucária 189,000 bbl/d (30,000 m³/d)∙RLAM (Petrobras), São Francisco do Conde 323,000 bbl/d (51,400 m³/d)∙Refinaria Ipiranga (Petroleo Ipiranga), Pelotas 12,500 bbl/d (1,990 m³/d)∙Refinaria Manguinhos (Grupo Peixoto de Castro and Repsol YPF), Rio de Janeiro 14,000 bbl/d (2,200 m³/d)[] Chile∙BioBio Refinery (Empresa Nacional de Petroleo), 113,000 bpd (start-up 1966) ∙Aconcagua Concon Refinery (Empresa Nacional de Petroleo), 97,650 bbl/d (15,525 m³/d)∙Gregorio Refinery (Empresa Nacional de Petroleo), 14,750 bbl/d (2,345 m³/d) [] Colombia∙Barrancabermeja-Santander Refinery (Ecopetrol), 252,000 bpd (start-up 1922) ∙Cartagena Refinery (Ecopetrol), 79,000 bpd (start-up 1957)∙Apiay Refinery (Ecopetrol), 2,250 bbl/d (358 m³/d)∙Orito Refinery (Ecopetrol), 1,800 bbl/d (290 m³/d)∙Tibu Refinery (Ecopetrol), 1,800 bbl/d (290 m³/d)[] Costa Rica∙Puerto Limón Refinery (Recope), 8,000 bpd (start-up 1967) 2006, 25,000 bbl/d (4,000 m³/d)[] Ecuador∙Esmeraldas Refinery (Petroecuador), 110,000 bpd (start-up 1978)∙La Libertad Refinery (Petroecuador), 45,000 bbl/d (7,200 m³/d)∙Shushufindi Refinery (Petroecuador), 20,000 bbl/d (3,200 m³/d)[] El Salvador∙Refineria Petrolera de Acajutla SA de CV (RASA) (ExxonMobil) 22,000 bpd (start-up 1962)[] Nicaragua∙Cuesta del Plomo-Managua (ExxonMobil) 20,900 bpd (start-up 1962)[] Paraguay∙Villa Elisa Refinery (Petropar) 7,500 bpd[] Perú∙Refinería La Pampilla Lima (Repsol YPF) 102,000 bpd∙Refinería de Talara (Petroperú) 65,000 bpd (start-up 1917) with FCC unit ∙Refinería Iquitos Loreto (Petroperú) 10,500 bpd (start-up 1982)∙Refinería Conchan (Petroperú) 9,500 bpd (start-up 1961)∙Refinería Purcallpa (Maple Gas) 3,250 bpd∙Refinería El Milagro (Petroperú) 1,500 bpd (start-up 1994)[] Surinam∙Paramaribo (Staatsolie) 7,000 bpd[] Uruguay∙La Teja Montevideo Refinery (ANCAP) 40,000 bpd (start-up 1937)[] Venezuela∙Centro de Refinación de Paraguaná (CRP) (PDVSA) 956,000 bdp (Amuay-Cardón-Bajo Grande) (start-up 1997)o Amuay Refinery (CRP) (PDVSA) 635,000 bpd (start-up 1950)o Cardón Refinery (CRP) (PDVSA) 305,000 bpd (start-up 1949)o Bajo Grande Refinery (CRP) (PDVSA) 16,000 bpd (start-up 1956) ∙Puerto La Cruz Refinery (PDVSA) 200,000 bpd (start-up 1950)∙El Palito Refinery (PDVSA) 140,000 bpd (start-up 1954)∙San Roque Refinery (PDVSA) 5,200 bpd∙Upgraders (Extra Heavy Oil Joint Ventures with PDVSA at Jose)o Petrozuata (PDVSA) 140,000 bpd (start-up 2000)o Operadora Cerro Negro (ExxonMobil, Aral AG, and PDVSA) 120,000 bpd (start-up 2001)o Sincor (Total S.A., Statoil, and PDVSA) 180,000 bpd (start-up 2001)o Ameriven (ConocoPhillips, ChevronTexaco, and PDVSA) 190,000 bpd (start-up 2004)[] Caribbean[] Aruba∙Aruba Refinery (Valero) 275,000 bpd[] Cuba∙Nico Lopez Refinery (Cupet) 122,000 bpd∙Hermanos Diaz Refinery (Cupet) 102,500 bpd∙Cienfuegos Refinery (Cupet) 76,000 bpd[] Netherlands Antilles∙Isla Refinery (PDVSA) 320,000 bpd[] Dominican Republic∙Haina Refinery (REFIDOMSA) 33,000 bpd (start-up 1973)[] Trinidad and Tobago∙Pointe-à-Pierre Refinery (Petrotrin) 165,000 bpd[] US Virgin Islands∙St Croix Refinery (HOVENSA) 494,000 bpd[] Jamaica∙Kingston Refinery (PCJ & PDVSA) 35,000 bpd[] North America[] Canada[] Newfoundland and Labrador∙North Atlantic Refinery, located in Come by Chance, (North Atlantic Refining), 115,000 bbl/d (18,300 m³/d)[] Nova Scotia∙Imperial Oil Refinery - Dartmouth, (Imperial Oil), 89,000 bbl/d (14,100 m³/d)[] New Brunswick∙Saint John, (Irving Oil), 300,000 bbl/d (48,000 m³/d)[] Quebec∙Montreal, (Shell Canada), 161,000 bbl/d (25,600 m³/d)∙Montreal, (Petro-Canada), 160,000 bbl/d (25,000 m³/d)∙Lévis, (Ultramar(Valero)), 215,000 bbl/d (34,200 m³/d)Upgraders∙Montreal, (Shell Canada), 260,000 bbl/d (41,000 m³/d) next to Shell Montreal East Refinery[] Ontario∙Nanticoke, (Imperial Oil), 112,000 bbl/d (17,800 m³/d)∙Sarnia, (Imperial Oil), 115,000 bbl/d (18,300 m³/d)∙Sarnia, (Suncor Energy), 70,000 bbl/d (11,000 m³/d)∙Corunna, (Shell Canada), 72,000 bbl/d (11,400 m³/d)Lubricant Refinery∙Mississauga, (Petro-Canada), 15,600 bbl/d (2,480 m³/d) - aka Clarkson Refinery - base oil production is 13,600 bpd of API Group II capacity and 2,000 bpd of API Group III capacity.[] Saskatchewan∙Lloydminster, (Husky Energy), 27,000 bpd (Asphalt/Heavy Oil Refinery)∙Regina, (Consumers' Co-operative Refineries Limited (CCRL)), 100,000 bbl/d (16,000 m³/d)100 bbl/d (16 m³/d)[] Alberta∙Imperial Oil Refinery, Edmonton, (Imperial Oil), 187,000 bbl/d (29,700 m³/d) ∙Scotford Refinery, Scotford, (Shell Canada), 100,000 bbl/d (16,000 m³/d)∙Petro-Canada Refinery, Edmonton, (Petro-Canada), 135,000 bbl/d (21,500 m³/d) Upgraders (turn bitumen into synthetic crude, which then must be further refined)∙Scotford Upgrader, Scotford, (Shell Canada 60%, Chevron Corporation20%, Marathon Oil 20%), 130,000 bpd (located next to Shell Refinery)[] British Columbia∙Burnaby, (Chevron Corporation), 52,000 bbl/d (8,300 m³/d)∙Prince George, (Husky Energy), 12,000 bbl/d (1,900 m³/d)[] United States[] Alabama∙Tuscaloosa Refinery (Hunt Refining Company), Tuscaloosa 52,000 bbl/d (8,300 m³/d)∙Saraland Refinery (Shell Oil Company), Saraland 80,000 bbl/d (13,000 m³/d) ∙Mobile Refinery (Gulf Atlantic Refining & Marketing), Mobile 16,700 bbl/d (2,660 m³/d)[2][] Alaska∙Kenai Refinery (Tesoro), Kenai 72,000 bbl/d (11,400 m³/d)∙Valdez Refinery (Petro Star), Valdez 50,000 bbl/d (7,900 m³/d)∙North Pole Refinery (Petro Star), North Pole 17,000 bbl/d (2,700 m³/d)∙Kuparuk Refinery (ConocoPhillips), Kuparuk 14,400 bbl/d (2,290 m³/d)∙North Pole Refinery (Flint Hills Resources), North Pole 210,000 bbl/d (33,000 m³/d)∙Prudhoe Bay Refinery (BP), Prudhoe Bay 12,500 bbl/d (1,990 m³/d)[] Arkansas∙El Dorado Refinery (Lion Oil), El Dorado 70,000 bbl/d (11,000 m³/d)∙Smackover Refinery (Cross Oil), Smackover 6,800 bbl/d (1,080 m³/d)[] California∙Bakersfield Refinery (Big West), Bakersfield, 66,000 bbl/d (10,500 m³/d)∙Bakersfield Refinery (Kern Oil), Bakersfield, 25,000 bbl/d (4,000 m³/d)∙Bakersfield Refinery (San Joaquin Refining Company), Bakersfield, 24,300 bbl/d (3,860 m³/d)∙Benicia Refinery (Valero), Benicia, 144,000 bbl/d (22,900 m³/d)∙Carson Refinery (BP), Carson, 260,000 bbl/d (41,000 m³/d)∙El Segundo Refinery (Chevron), El Segundo, 260,000 bbl/d (41,000 m³/d)∙Golden Eagle Refinery (Tesoro), near Martinez, 166,000 bbl/d (26,400 m³/d) ∙Long Beach Refinery (Edgington Oil Company), Long Beach, 26,000 bbl/d (4,100 m³/d)∙Martinez Refinery (Shell Oil Company), Martinez, 154,900 bbl/d (24,630 m³/d) ∙Oxnard Refinery (Tenby Inc), Oxnard, 2,800 bbl/d (450 m³/d)∙Paramount Refinery (Paramount Petroleum), Paramount, 50,000 bbl/d (7,900 m³/d)∙Richmond Refinery (Chevron), Richmond, 242,901 bbl/d (38,618.2 m³/d)。
原油价格与石油产品价格外文翻译文献中英文最新
原油价格与石油产品价格外文文献翻译中英文(节选重点翻译)英文A review of the evidence on the relation between crude oil prices andpetroleum product pricesLouis Ederington, Chitru FernandoAbstractWe review a large body of the empirical literature focusing on the relation between petroleum product prices and oil prices and discuss the evidence on the direction of causality between crude oil prices and petroleum product prices. In addition, we survey the literature on the much-debated question of whether petroleum product prices respond differently to increases versus decreases in oil prices, which Bacon (1991) labeled the “rockets and feathers” phenomenon.Keywords: Oil prices, Petroleum product prices, Energy economics, Commodities1. IntroductionThis survey is the first of a two-part series that reviews the extant empirical evidence regarding the behavior of petroleum productfutures prices. Herein we review the literature focusing on the relation between petroleum product prices and oil prices. In the companion review (Ederington et al., 2018a), we turn to the general distributionalcharacteristics of petroleum product prices, the influence of fundamental factors such as refinery outages and weather on product prices, the way that price discovery occurs for petroleum product prices, the predictive accuracy of petroleum product futures prices for future spot prices, and the impact of speculation on petroleum product prices.Crude oil is the “main ingredient” in refined petroleum products. Two primary hypotheses regarding the causal relation between oil prices and petroleum product prices have been presented in the literature. The first argues that the primary causal relation runs from oil prices to product prices (see the survey of Frey and Manera, 2007; U.S. Energy Information Administration, 2014) and rests on the hypothesis that the marginal price of a barrel of a petroleum product should, in principle, be determined by the highest marginal cost of oil used. An alternative is that causality runs in the opposite direction (Verleger, 1982, 2011; Baumeister et al., 2018). The direction of causality has important implications for the regulation and organization of these markets and the facilitation of trade. Numerous authors investigating the links between oil price changes and product price changes have taken the direction of causation as a given and assumed that the dominant channel is from oil prices to product prices. However, recent evidence suggests that causality may run from product prices to oil prices. Whether there is a causal link running from product prices to oil prices has receivedlimited although increasing attention (Asche et al., 2003; Kaufmann et al., 2009; Kilian, 2010; Bilgin and Ellwanger, 2017; Baumeister et al., 2018). The evidence supporting the first hypothesis rests generally on the analysis of data measured at a monthly or weekly frequency, whereas support for the alternative hypothesis rests generally on the behavior of data measured at a quarterly or longer frequency.One important part of the dialogue about the short-term connection between oil prices and petroleum product prices is the speed and magnitude of product prices' response to changes in oil prices. This response is often referred to as the “rockets and feathers” phenomenon, a phrase coined by Bacon (1991) to describe the fast rise response in gasoline prices to increases in oil prices and the slow fall as oil prices decline. This question forms the basis of a long, ongoing debate about whether gasoline prices (and other product prices) respond more strongly and quickly to oil price increases than to oil price decreases. Prices of refined petroleum products such as gasoline and heating oil have long been a focal point of interest to individual consumers, industrial producers and consumers, as well as public policy makers and academics. When gasoline prices are rising, there is much popular consternation. Allegations of collusion on the part of retail sellers as well as predatory pricing are common. For instance, hearings conducted by the U.S. Senate Comm ittee on Energy and Natural Resources emphasized the mission “Toexplore the effects of ongoing changes in domestic oil production, refining and distribution on U.S. gasoline and fuel prices.” No doubt as a consequence of the regulatory and antitrust attention focused on this industry, a large empirical literature studying gasoline prices has developed.Herein we review the evidence regarding causality and the ways that petroleum product prices respond to increases or decreases in oil prices. As part of our review, we also examine the empirical evidence on which market-determined oil price serves as the principal benchmark for product prices.2. Petroleum product prices2.1. Crude oil prices and product pricesHeating oil, gasoline, and fuel oil are all refined from crude oil. The prices of petroleum products are inextricably linked to the price of crude oil by the technology and economics of refining. Propane is a byproduct of the refining process and is also extracted from natural gas or oil wellhead gas at processing plants.Crude oil is traded in a global market, as is gasoline (Kaminski, 2012; Zavaleta et al., 2015). Indeed, Zavaleta et al. (2015) conclude that “Econometric evidence supports the hypothesis that the U.S. and European markets for oil and re fined products are integrated” (p. 206). A question that has surfaced in recent years is “which oil price is theprimary world benchmark price?” The two benchmark oil prices which receive the most attention are: West Texas Intermediate (WTI) and Brent Blend. In this section, we discuss the empirical evidence regarding the connection between oil prices and product prices, and the evidence regarding whether the WTI or Brent price has the greater influence on product prices, with special emphasis on U.S. gasoline prices.The U.S. Energy Information Administration (EIA) estimates that, in 2017, the cost of crude oil contributed 50% to the retail cost of a gallon of gasoline in the United States, down from 57% in December 2014. The remaining cost includes 19% taxes, 17% distribution and marketing costs, and 14% refining costs. The corresponding figures for diesel are 45% crude oil, 20% taxes, 17% distribution and marketing costs, and 18% refining costs. State-imposed fuel taxes differ, contributing to differential prices across states.Of course, changes in any of the contributing factors mentioned in the prior paragraph could potentially change gasoline or other product prices. Aside from the crude oil price, several additional factors could cause movements at the state level. Inventories are one factor. The theory of storage (Kaldor, 1939; Working, 1949) predicts that price volatility and price level are inversely related to inventory levels. State and federal requirements can vary regarding blending of reformulated gasoline with ethanol and/or fuels with different levels of low Reid VaporPressure (RVP). These requirements have the potential to create supply bottlenecks. For instance, the Energy Independence and Security Act of 2007 (EISA) imposes specific renewable fuel blending standards which increase over time.5 This increase can also cause bottlenecks. A separate but related issue is the cost of ethanol relative to conventional gasoline and reformulated gasoline. Irwin and Good (2014) point out that “The recent drop in gasoline prices has been large enough to potentially threaten the competitiveness of ethanol in gasoline blends.”Another potentially important factor that could affect product prices is the incidence of regional refinery utilization and outages. Planned and unplanned outages can affect supply and cause price disruptions. The data suggest that refiners build inventory in anticipation of planned outages to avoid supply disruptions. Antitrust law prohibits refiners from communicating (and coordinating) outages. However, Section 804 of the EISA required the EIA to prepare a semi-annual analysis of planned refinery outages and their impact on petroleum product supply and price. The EISA further stipulates as follows: “On a determination by the Secretary, based on a report or alert under paragraph (3) or (4) of subsection (b), that a refinery outage may affect the price or supply of a refined petroleum product, the Secretary shall make available to refinery operators information on planned refinery outages to encourage reductions of the quantity of refinery capacity that is out of service at anytime.” Finally, supply can be affected by pipeline disruptions due to natural disasters such as weather-related events. An extreme example followed Hurricane Katrina when the Colonial Pipeline, which includes 5500 miles of pipeline delivering products such as gasoline, heating oil, and aviation fuel, was taken offline because electricity was not available to power pumps. We discuss the empirical evidence about these issues in Part 2 of this survey (Ederington et al., 2018a).A large part of the empirical literature on product prices focuses on gasoline prices and the response of retail or wholesale gasoline prices to oil price changes. Additionally, a segment of the literature has attempted to address geographical variation in gasoline prices and the impact of competition.Although the price series displayed in the figures appear to move together, some authors have presented evidence that movements in product prices follow movements in oil prices when the periodicity of data observations are measured over short horizons (days or weeks), whereas long measurement horizons support the reverse, that product demand drives oil prices. On the short horizon front, many researchers have presented evidence suggesting that the response size and adjustment speed of product prices to changes in oil prices depends upon whether the oil price has increased or decreased. Some have argued that faster product price adjustment in response to oil price increases than to oil pricedecreases is evidence in favor of the so-called “rockets and feathers” (asymmetric response) phenomenon originally studied by Bacon (1991). focuses on whether product price changes (in particular gasoline price changes) follow oil price changes, and whether those prices respond symmetrically to increases versus decreases in oil prices.An alternative hypothesis is that the demand for petroleum products and the resulting prices drive the price of oil. Verleger (1982) has argued that spot market prices for petroleum products are the primary determinants of crude oil prices. Baumeister et al. (2018)describe the economic dynamics as follows: “A common view is that refiners view themselves as price takers in product markets and cut their volume of production when they cannot find crude oil at a price commensurate with product prices. In time, this reduction in the demand for crude oil will lower the price of crude oil and the corresponding reduction in the supply of products will boost product prices (see Verleger, 2011)” (p. 1). In essence, this hypothesis posits that refiners wish to maintain profit margins and therefore adjust their demand for oil in response to changes in the prices of petroleum products. In a study of oil price forecasting predicated on the V erleger thesis, Baumeister et al. (2018) find some evidence in support of the hypothesis, albeit for a model that deviates somewhat from the strict hypothesis. A recent contribution to the literature is Bilgin and Ellwanger (2017), who examine quarterly data andfind evidence that “shifts in the global fuel demand accounted for the bulk of oil price fluctuations over the last decades.” (p. 3). Most studies, however, have tended to emphasize the connection between changes in crude oil prices and wholesale or retail gasoline (or product) prices, under the assumption that changes in oil prices drive changes in product prices. An example of the latter are investigations of the relation between gasoline prices and the two primary oil benchmark prices, the Brent price and the WTI price (U.S. Energy Information Administration, 2014), which we comment on later.Controlling for other factors, a $1-per-barrel change in the price of crude oil results in a $0.024-per-gallon change in the price of wholesale and retail gasoline ($0.024 is 1/42 of $1; there are 42 gallons in one barrel). The evidence suggests that the adjustment occurs with a lag and that about half of the change in crude oil price is reflected in retail prices within two weeks of the price change, all other market factors being equal.2.2. Empirical examinations of oil price/product price relations2.2.1. OverviewThe empirical literature on the general relation between oil prices and petroleum product prices documents that gasoline prices and crude oil prices move together in the long-term. Similar results have been documented for heating oil prices and oil prices. The statistical methodsemployed in these analyses typically involve the estimation of bivariate time-series relations. Studies using data observed at different frequencies and for different time periods, as well as for various regions of the world, generally find a long-term relation between an oil benchmark price and product prices. The usual approach has been to associate product prices in the United States with the WTI price and product prices in Europe with the Brent price. In Section 2.3, we discuss recent empirical results concerning the benchmark oil price.2.2.2. Time series behaviorAs we emphasized in Section 1, two alternative hypotheses have emerged regarding oil prices and product prices: 1) oil price changes drive product price changes, and 2) product demand (and prices) drive oil price changes. Although these hypotheses might seem to be mutually exclusive, we are more agnostic. It seems that in the long-term, both oil prices and product prices should be determined by the supply of crude oil and the demand for products. However, the question of which leads in the short-term is partially a question of which tends to shift more in the short-term: supply or demand. But it also depends on speed of adjustment.A change in product demand might result in a change in crude oil demand quickly so that no lag between gasoline prices and crude oil prices would be observed, or conversely, there may be a lag before the demand for crude is affected. Likewise, a change in the supply of crude might affectgasoline prices almost immediately or with a lag.Two (or more) time series are considered to be cointegrated when they each possess a unit root and a linear combination of the variables is a stationary process (Greene, 2008). The studies in this branch of the literature generally do not attempt to test relations using alternative oil price benchmarks to determine the most appropriate benchmark for a given set of product prices. Rather, for example, U.S. data on product prices are related to WTI prices and European data are related to Brent prices. In Section 2.3, we return to the question of the oil price benchmark. The literature is somewhat segmented. Many papers employ the type of model described above. Other studies modify the framework when addressing the question we will take up later regarding whether product prices adjust differently to increases in oil prices versus decreases in oil prices. Still others have adapted the structure to account for stochastic error variances. In addition, many single-equation time-series models of various specifications have been studied.Gjølberg and Johnsen (1999) analyze the relation between monthly prices for the period 1992–1998 (observed on the Northwestern European market) of crude oil (Brent) and six oil products (gasoline, naphtha, jet fuel, gas oil, light fuel oil 1%, and heavy fuel oil 3.5%). They estimate single-equation models treating crude oil as exogenous and conclude that crude oil determines product prices.Lanza et al. (2005) investigate the relation between crude oil and product price dynamics using weekly and monthly data for the period 1994–2002, presenting a comparison among ten price series of crude oils and fourteen price series of petroleum products, considering four distinct market areas (Mediterranean, Northwestern Europe, Latin America, and North America). However, they do not attempt to distinguish which is the appropriate benchmark, assigning the Brent price to the Mediterranean and Northwestern Europe and the WTI price to the Americas. The researchers are primarily interested in models explaining regional oil prices, but they employ models that relate those prices to benchmark “marker” oil prices such as WTI or Brent, as well as t o two product prices, low-sulfur fuel oil and gasoline. After accounting for the benchmark oil price (WTI or Brent), they find only weak evidence of a long-term relationship between product prices and the regional oil prices they study, and only for prices outside the Americas. However, they do not present tests of the relations between product prices and the benchmark oil prices.Chouinard and Perloff (2007) estimate reduced form models for retail and wholesale gasoline prices utilizing monthly observations for the period from March 1989 to July 1997 for all contiguous 48 states and the District of Columbia. The authors examine both factors that may drive gasoline prices across time as well as across geographic areas and also account for factors such as taxes, refinery outages, various regulationeffects, weather, controls for ownership of stations and vertical relations, refinery mergers, and crude oil prices. They draw two conclusions from the results: 1) “virtually the entire variation in national prices was due to changes in the crude oil price and cyclical fluctuations and not to changes in taxes, content requirements, and other factors” (p. 18); and 2) the primary determinants of price differentials across states are taxes, population density, and age distribution of a state's population. The authors also report results consistent with refinery and retail mergers' having an impact on prices across states.Employing a joint vector autoregression (V AR) model of the global market for crude oil and the U.S. market for gasoline, Kilian (2010)estimates differing magnitudes, patterns, and persistence in response to demand and supply shocks in these two markets. The data examined are measured at a monthly frequency. The variables representative of the global market for crude oil are 1) the percent change of crude oil in world product, 2) a measure of global real economic activity (Kilian, 2009), and 3) the real price of crude oil. The U.S. gasoline market variables are 1) the real price of U.S. gasoline and 2) the percent growth rate of U.S. gasoline consumption. The variables are transformed in a variety of ways (Kilian, 2010).Analyzing the impulse response estimates for supply and demand shocks in the global crude oil markets on real gasoline and crude oilprices, Kilian (2010) finds that 1) unexpected reductions in the supply of crude oil cause the real price of crude oil and gasoline to increase insignificantly; 2) an unpredicted expansion in the global demand for industrial commodities causes a persistent increase in the real price of crude oil and gasoline (smaller response); and 3) an unforeseen increase in oil demand is met with an immediate increase in real crude oil and gasoline prices (smaller response) that gradually declines.The impulse response estimates for supply and demand shocks of the U.S. gasoline markets on real gasoline and crude oil prices provide evidence that 1) an unexpected disruption in U.S. refinery output causes real gasoline prices to spike and gradually decline, while real crude oil prices drop and gradually rise; and 2) an unexpected increase in U.S. demand for gasoline does not cause a significant response in real crude oil or gasoline prices. Collectively, demand and supply shocks from the global crude oil market and the U.S. gasoline market have differential implications on price shocks for crude oil and U.S. gasoline.According to Kilian (2010), a shock to gasoline supply (refining shock) accounts for approximately 80% of the variation in gasoline prices in the short-term, and shocks to aggregate demand and oil-specific demand are responsible for approximately 95% of the variation in gasoline prices in the long-term. The supply side of gasoline appears to be the dominant factor in determining fluctuations in real gasoline prices,whereas the U.S. gasoline consumption is only modestly responsive to shocks in gasoline supply.Ederington et al. (2018b) extend the analysis to a study of the relations between Brent oil futures prices and gasoline and heating oil futures prices for contracts traded on the NYMEX.11 Their results show consistent evidence that causality runs from oil futures prices to product futures prices. The results are based upon weekly price data spanning a 28-year period. The authors also find some evidence of a marginally significant relation running from product futures prices to oil futures prices following 2005 when measured at the weekly frequency. However, an analysis of the response of oil futures prices to shocks to product futures prices reveals that the economic significance is small, so they cannot reject the hypothesis that the responses are equal to zero. The results carry through to a model that includes variables measuring fundamental supply and demand, which may themselves be jointly determined with prices. However, in an analysis of daily data during the post-2005 period, the authors also find evidence that product prices caused oil prices, suggesting that causality ran in both directions during that period when measured at the daily frequency.2.3. Oil price benchmarks and petroleum pricesIn testimony before a committee of the U.S. House of Representatives, Medlock (2014) made the case that petroleum productswill be priced based upon the cost of the marginal internationally traded barrel of oil when there is no constraint on the trading of the refined product but there may be a constraint on the trading of the input (oil). If the Brent price is the appropriate proxy for that barrel, we should see that wholesale gasoline prices are more closely aligned with the Brent price. The recent debate about the relaxing of U.S. export restrictions on crude oil and the implications for oil prices and U.S. gasoline prices is intimately linked to whether an increase in the global supply of oil would reduce global oil prices (reflected in the Brent price). This brings us to the two benchmark oils that have received the most attention in the literature, WTI and Brent. Prior to 2010, the two prices were generally of the same magnitude, but a decoupling occurred in 2010 and has since persisted, although the gap has narrowed recently. Many commentators have attributed this to increased production in the United States and falling production in the North Sea, as well as infrastructure constraints in the United States. These developments have led some participants and reporting agencies to adopt the Brent price as the benchmark, including, for instance, the EIA in its Annual Energy Outlook publication. Fig. 3 displays plots of regional U.S. gasoline prices along with the Brent spot price.Recent EIA research (U.S. Energy Information Administration, 2014) shows that changes in Brent crude oil prices explain more of the variationin U.S. spot gasoline prices than do changes in WTI crude oil prices. Prior to 2011, the Brent and WTI prices tended to be close. Following 2011, however, there were periods when the WTI price traded at a significant discount to Brent. The price gap has shrunk in recent years. The EIA study examines data from the period January 2000 to June 2014 and uses January 2011 as the breakpoint at which WTI prices first moved to a significant discount relative to Brent prices.The models estimated by the EIA researchers posit a lagged relation between changes in oil prices and changes in spot gasoline prices for four regions: U.S. East Coast, U.S. Gulf Coast, U.S. West Coast, and U.S. Midwest. In addition, the authors control for regional gasoline inventories (specifically deviations from previous five-year averages as well as seasonal effects). Weekly averages of daily price data are examined. An error correction term computed following the convention of linear regression of one price on another price (see Engle and Granger, 1987) is included because the EIA researchers identify that the prices studied are cointegrated.The resulting statistical analysis leads the EIA researchers to several conclusions:1. For both the 2000–2010 and 2011–2014 periods, the equations in which the Brent price was used as the independent variable have more explanatory power than the equations in which WTI was the independentvariable. This holds true for all regional markets, including the Midwest.2. The equations that use Brent as the independent variable lose very little explanatory power from period one (2000–2010) to period two (2011–June 2014), while equations with WTI as the independent variable lose considerable explanatory power from period one to period two.3. Introducing the Brent-WTI spread to equations in which WTI is the independent variable significantly improves the explanatory power of the equations, while introducing this spread to equations that use Brent as the independent variable does not significantly improve the explanatory power.These results provide evidence that Brent crude oil prices are more important than WTI prices in determining U.S. gasoline prices. The recent debate about relaxing U.S. export restrictions on crude oil and the potential impact on U.S. gasoline prices therefore revolves around whether an increase in the global supply of oil would reduce global oil prices (reflected in the Brent price), which the EIA's analysis suggests could lead to a decrease in domestic spot gasoline prices. This same conclusion has been drawn by others, such as the private consultancy IHS (2014), which in a recent study of oil markets concludes that: “The shift of the U.S. crude market to free trade will have the effect of lowering U.S. gasoline prices. That is because as new crude supply is added to the global market the international price of crude will fall,putting downward pressure on U.S. gasoline prices. At the same time, free export of U.S. crude oil would actually increase domestic crude prices, which will rise to meet higher international price levels, generating additional U.S. output and adding to international crude supply”.中文原油价格与石油产品价格之间关系的证据综述路易斯·埃德灵顿摘要我们回顾了大量关于石油产品价格和石油价格之间关系的研究文献,并讨论了关于原油价格和石油产品价格之间因果关系方向的证据。
英语作文oilprice
英语作文oilpriceIn recent years, the fluctuation of oil prices has become a significant concern for both developed and developing nations. As a vital energy source, oil plays a pivotal role in driving the global economy. This essay will explore the various impacts that oil prices have on different sectors and economies around the world.Firstly, the cost of oil is directly linked to inflation rates. When oil prices rise, the cost of transportation and energy increases, which in turn raises the prices of goodsand services. This can lead to a decrease in consumerspending as people have less disposable income, affecting the overall economic growth.Secondly, the oil industry is a major employer in many countries. High oil prices can lead to increased investmentin the sector, creating job opportunities and boosting local economies. However, this can also lead to over-reliance onoil revenues, making these economies vulnerable to price volatility.Thirdly, the geopolitical landscape is heavily influenced byoil prices. Countries that are major oil producers often have significant political power due to their control over acritical resource. Conversely, countries that are heavily dependent on oil imports may find themselves in a precarious position when prices surge.Moreover, the environmental implications of oil prices cannot be overlooked. High oil prices may encourage the development of alternative energy sources, which can be beneficial for reducing greenhouse gas emissions. However, low oil prices can discourage investment in renewable energy, slowing down the transition to a more sustainable future.Lastly, the volatility of oil prices can have a destabilizing effect on financial markets. Investors often view oil as a commodity that can act as a hedge against inflation and economic uncertainty. However, sudden price changes can lead to market instability and affect investment decisions.In conclusion, the oil price is a complex economic factor with far-reaching consequences. It affects inflation, employment, geopolitics, the environment, and financial markets. Policymakers and businesses must carefully consider these impacts when making decisions related to energy and economic planning. It is essential for the global community to work towards a more stable and sustainable energy future.。
俄乌战争对石油的影响英语短文
俄乌战争对石油的影响英语短文In the 1970s Arab states used the "oil weapon" of embargoes to punish Western governments for supporting Israel.On May 30th the heads of the 27 EU member governments agreed to turn the weapon on themselves, as part of a fresh round of sanctions against Russia following its invasion of Ukraine.As well as cutting off Sberbank, Russia’s largest bank, from the swift cross-border payment system, the package will also ban purchases of Russian crude oil and refined products, such as diesel, by the end of the year.There would, the eu said, be a "temporary" exemption for oil delivered through pipelines.The price of a barrel of Brent crude leapt above $120 on the news, its highest level since March.In principle, the decision is highly significant.As well as demonstrating unity, and the bloc’s willingness to bear economic pain to punish Russia, it cuts one of the few remaining trade ties with the Kremlin.It also imperils one of Russia’s most lucrative sources of foreign-currency earnings.The eu is Russia’s biggest market for crude, buying about half the country’s oil exports.There are reasons, however, to be sceptical that the move will deprive the Kremlin of much foreign currency.For a start, the ban only applies to seaborne oil, transported via tankers.That is the price of unity: excluding oil delivered by pipelines was necessary to find a compromise with Hungary, which is both more sympathetic to Russia than most eu countries and critically dependent on the Soviet-era Druzhba pipeline (a name meaning "friendship" in Russian).Hungary imports about 65% of its crude from Russia.Seaborne oil makes up a similar share of Europe’s imports from Russia.But the ban is likely to have a limited impact on the oil market.A big question is whether Russian seaborne crude, once placed under sanctions, will go unsold.So far Russia’s oil exports have risen even as the country has come under sanctions.According to analysts at JPMorgan Chase, a bank, much of the increase has gone to India, which has not issued sanctions of its own.Another question is whether Europe does eventually ban piped Russian oil, which is harder to redirect to other countries.。
Atyrau Oil Refinery LLP
Atyrau Oil Refinery LLPAtyrau Oil Refinery is thefirst one in the sphere of oilprocessing in the Republicof Kazakhstan and was builtin 1945.The shareholder of therefineryis «TH KazMunaiGaz» JSC(over 99% share). The mainactivity of Atyrau refineryis oil processing. The plantworks on Kazakhstani oiland is located, as distinctform other refineries, closeto oil fields of Western Kazakhstan where significant growth of oil output is expected which will ensure stable capacity utilization of Atyrau refinery.At present its rated capacity is 4,9 mln. tons per year, actual load in 2008 comprised 3,9 mln. tons. The last technical upgrade during 2003–2006 allowed to replace worn-out equipment, improve quality of gasoline and diesel fuel by sulfur content, increase production of aviation fuel and reduce harmful effect on the environment.Today technology capabilities of Atyrau refinery allow producing oil products which conform to the European standard — Euro-2.In 2007 implementation of the following projects was set up at Atyrau refinery:•Reconstruction of the vacuum block of VDU/CDU and the delayed coking unit.•Construction of aromatic hydrocarbons production complex.A subsidia ry of China’s Sinopec has begun construction of $1.04 billion aromatic hydrocarbons plant in Western Kazakhstan,the company announced on Tuesday.The processing facility, located at the Atyrau refinery on the Caspian Sea coast, is expected to extract 551,156 tons per year of benzene, paraxylene(对二甲苯) and other chemical compounds from crude.The project is scheduled to go online by May 2013, the Platts energy and metals news agency reported China Petrochemical Corp., or Sinopec Group, as saying in the report.Besides building the aromatics processing plant Sinopec Tenth Construction Co. will also construct nine storage tanks to hold light and heavy refined oil products, as well as a power distribution plant and related facilities.(Source: Central Asia Economy Newswire, April 12, 2011) 2011年4月12日–哈萨克斯坦阿特劳炼油厂芳烃装置开工 ... 据悉,普通原油可生产出16%左右的轻重石脑油,而单炼凝析油,可生产出55%左右的轻重石脑油,产量大大提升•Construction of deeper conversion complex.•Development of transport infrastructure at the refineryAtyrau, has been processing crude oil of Kazakhstan exclusively. It is located close to the richest oil fields in the country, such as Tengiz, Zhanazhol and Uzen∙Capacity: 5.0 million tons/annum & 104,000 bbl/day∙Nelson Complexity:∙Refining Depth精制深度: 56%Products Producedmotor gasoline, diesel, vacuum gasoil, jet fuel, different sorts of petroleum coke, LPG and fuel oil。
伊朗买石油的利弊英语作文
伊朗买石油的利弊英语作文Title: The Pros and Cons of Iran Buying Oil。
Iran, as a significant player in the global oil market, has been involved in both buying and selling oil. While purchasing oil might seem counterintuitive for a major oil-producing country like Iran, there are both advantages and disadvantages to this practice.Pros:1. Diversification of Energy Sources: By buying oil from other countries, Iran can diversify its energy sources and reduce its reliance solely on its domestic oil production. This diversification can enhance energysecurity and stability, ensuring a steady supply of oil even in times of domestic disruptions.2. Economic Opportunities: Purchasing oil from other countries can create economic opportunities through tradeand investment. It can foster diplomatic and economic relationships with oil-producing nations, potentially leading to mutually beneficial agreements and partnerships.3. Mitigating Domestic Demand Pressure: Iran's domestic oil consumption has been steadily increasing due to population growth and industrial development. Buying oil from other countries can help alleviate the pressure on domestic oil reserves and infrastructure, ensuringsufficient supply for domestic consumption without overexploiting domestic resources.4. Hedging against Price Volatility: The global oil market is susceptible to price fluctuations due to various geopolitical and economic factors. By purchasing oil from different sources, Iran can hedge against price volatility and stabilize its domestic oil prices, thereby reducing the impact of external market shocks on its economy.Cons:1. Dependency on Foreign Suppliers: Relying on oilimports exposes Iran to risks associated with geopolitical tensions, trade disputes, and supply disruptions in other oil-producing countries. A significant dependency on foreign suppliers could potentially compromise Iran's energy security and sovereignty.2. Impact on Domestic Oil Industry: Buying oil from other countries could negatively affect Iran's domestic oil industry by reducing production incentives and investments in exploration and development. This could lead to a decline in domestic oil production capacity over time, weakening Iran's position as a major oil producer.3. Financial Burden: Purchasing oil from other countries requires significant financial resources, especially if international oil prices are high. This could strain Iran's economy, particularly if oil revenues decline or if there are competing demands for government spending on social programs and infrastructure development.4. Environmental Concerns: Increased reliance on imported oil may hinder Iran's efforts to transition torenewable energy sources and reduce carbon emissions. Continued reliance on fossil fuels could exacerbate environmental degradation and contribute to climate change, posing long-term challenges for Iran's sustainable development.In conclusion, while there are potential benefits to Iran buying oil from other countries, such as diversifying energy sources and fostering economic opportunities, there are also significant drawbacks, including dependency on foreign suppliers, impact on the domestic oil industry, financial burden, and environmental concerns. Any decision regarding oil purchases should carefully consider these factors and weigh the short-term gains against the long-term consequences for Iran's economy, energy security, and environmental sustainability.。
乌干达中英对照
Amb. Solomon Rutega Deputy Head of Mission
Summary Outline 简要概述
Basic facts on Uganda 乌干达的基本情况 Uganda-China Trade Cooperation 乌中贸易合作 Why you should invest in Uganda? 为什么应该在乌干达投资? Investment Incentives and guarantees 投资鼓励和保证 Investment Opportunities in Uganda 乌干达的投资机会 Overview of EAC & Opportunities EAC概况&机会
ቤተ መጻሕፍቲ ባይዱ
Investment Guarantees 投资担保
Uganda is a member of the World Bank’s Multilateral Investment Guarantee Agency (MIGA), provides guarantee against non commercial risks 乌干达是世界银行的多边投资担保机构(多边投资担保机构)之一, 他对非商业风险提供担保。 Coverage is provided for 90% of the cost of investment made in hard currencies originating outside Uganda up to a limit of US$50 mil 涵盖面提供90 %的投资成本所作的硬货币以外的原产乌干达以限额为 五千万美元。 To qualify for protection, a project must be geared toward economic growth , be financially viable, pay due attention to environmental considerations and contribute to Uganda’s needs of job creation, technology transfer and export generation 有资格的保护,一个项目必须面向经济增长,财政上是可行的,给予 应有的重视环境的因素,并有助于乌干达在创造就业机会,技术转让 和出口的一代上的需要。
油气英语
近年来,博主(冯伟)多次为有关石油和天然气(oil and gas)问题的会议承担口译任务,以下是博主(冯伟)总结的有关石油和天然气(oil and gas)问题的中英文词汇。
有关石油的词汇:油价持续上涨的压力sustained upward pressure on oil prices如果油价保持在每桶100美元以上if the oil price stays above $100 a barrel油价越是走高the higher oil prices go投机和囤积行为加剧了价格猛涨的问题the price surge is exacerbated by speculation and hoarding鉴于油价持续高企given continued high oil prices油价大涨a spike in the price of oil投机已将油价吹成一个泡沫speculation has inflated oil prices into a bubble能源期货市场energy futures markets期货交易导致现货价格高于其市场均衡的水平futures trading has driven spot prices above their market equilibrium供需关系决定原油的价格supply-and-demand factors determine the price of crude oil油价的主要决定因素the main drivers of the oil price推高国际油价的一个因素a factor pushing up international oil prices原油价格回落crude prices moderate燃油补贴和价格管制往往带来副作用fuel subsidies and price controls tend to produce unintended consequences扭曲正常的消费模式to distort normal consumption patterns违反供需定律to subvert the law of supply and demand进一步加大供应压力to strain supplies further供需失衡supply-demand imbalance让其国内成品油价格与国际价格接轨to bring its domestic oil product prices in line with international ones深水勘探deep-water exploration分成合同production-sharing contracts重质原油heavy crude超重质原油extra-heavy crude石油品质高oil is of high quality石油品质低oil is of inferior quality含硫量低with a low sulfur content轻质无硫原油light, sweet crude oil油砂tar sands油砂油tar sand oil页岩油shale oil石油瘾oil addiction戒除石油瘾to kick oil addiction石油峰值Peak Oil石油峰值论the notion of Peak Oil达到石油峰值to arrive at Peak Oil石油巨头(大的石油公司)oil majors国家石油公司National Oil Company (NOC)含油盆地oil-bearing basin剩余可采储量remaing recoverable (oil) reserves竞购勘探牌照to bid for exploration licenses勘探权exploration rights石油开采权oil concessions地质敏感be ecologically sensitive调整管道线路to shift the pipeline’s route石油换贷款协议oil-for-loansxx石油公司Rosneft俄罗斯国家石油管道运输公司Transneft在现货市场购买石油to buy oil in the spot market上游生产upstream production向上游延伸to move upstream海运石油出口量sea borne oil exports炼油加工量refinery throughput炼油产能refing capacity在资源民族主义高涨的背景下amid heightened resource nationalism 以优惠价格锁定长期石油供应to lock in long-term oil supplies at favorable prices凝析油condensate油田服务供应商providers of oilfield services区块block每个区块的经营控制权operational control in each block石油开采税oil royalty暴利税a windfall taxxx美孚Exxon Mobilxx能源Devon Energy道达尔Totalxx石油ConocoPhillipsxxxxSaudi Aramco优尼科Unocal枯竭的油气田depleted oil and gas fields深水开采deep-water drilling非作业权益non-operating interest海上油气资源offshore oil and gas resources国际能源署the International Energy Agency (IEA)国际能源署理事会the IEA’s Governing Board国际能源署部长级会议the IEA Energy Ministerial Meetings 总干事Executive DirectorxxxxNubuo Tanaka石油树脂petroleum resin成品油营销oil products marketing回购buyback回购服务合同buyback service contracts深水油田deep-water oilfield有关天然气的词汇:接收液化天然气to take deliveries of LNG天然气比其他化石燃料更清洁natural gas is cleaner than other fossil fuels 燃气电厂gas-fired power plants再气化能力regasification capacity液化天然气运输船LNG tankers液化厂liquefaction plant海上液化厂offshore liquefaction plants天然气管道natural-gas pipelines地球物理geophysics地球物理的geophysical非常规天然气unconventional natural gas致密砂岩气tight sandstone gas页岩气shale gas页岩层shale rock formations页岩气储量shale gas reserves页岩气资源shale gas resources页岩天然气田shale gasfields已探明天然气储量proven gas reserves水平钻井horizontal drilling岩体水力压裂rock hydraulic fracturing水力压裂fracking/hydraulic fracturing可采储量recoverable reserves勘探权exploration right开采权drilling right火炬气flare gas酸气sour gas过渡性燃料bridge fuel天然气开采natural gas extraction开采、加工天然气to extract and process natural gas 气井gas well上游生产upstream production下游市场downstream market上中下游upstream, midstream and downstream向下游延伸to move downstream天然气消费natural gas consumption面临天然气供应过剩to face a glut of natural gas接收站terminals天然气发电的碳排放量低于煤炭gas emits less carbon than coal in power generation跨地区管道inter-regional pipeline天然气定价机制gas-pricing mechanism现货交易spot trading天然气价格指数化gas-price indexation原油向来充当天然气定价的基准crude has historically served as a benchmark for gas prices传递价格信号to transmit price signals与油价挂钩的定价公式oil index pricing formulas天然气放空燃烧gas flaring/to flare the gas承购协议offtake agreements最低承购量minimum offtake volumes下游的承购者downstream offtakers伴生气associated gas垃圾填埋气landfill gas闲置的天然气stranded gas管道利用率pipeline utilization rates泵站pumping stations输入压力input pressure输出压力output pressure输量throughput储气库storage tanks10亿立方米BCM万亿立方米TCM(trillion cubic meters)天然气消费量natural gas consumption管输气pipeline gasLNG产能LNG production capacity亨利中心Henry Hub百万英热单位MMBTU (per million British Thermal Units) 发电用气gas consumption for power generation按热值计算by thermal value管道气进口pipeline gas importsLNG 进口量LNG imports输气价格gas transmission price。
oil中文翻译
oil中文翻译oil的中文翻译是"油"。
油是一种常见的液体,具有黏性和浓郁的气味。
它在许多方面都有重要的用途,包括食品烹饪、燃料、润滑剂和化妆品等。
以下是一些常见的用法和中英文对照例句:1. 食用油:- Olive oil is a healthier option for cooking.(橄榄油是烹饪的较健康选择。
)- Can you pass me the bottle of vegetable oil, please?(请把瓶子里的植物油递给我好吗?)2. 燃料油:- The price of crude oil has been fluctuating recently.(原油价格最近一直在波动。
)- Many vehicles run on diesel oil.(许多车辆使用柴油。
)3. 润滑油:- It's important to regularly change the engine oil in your car.(定期更换汽车发动机油很重要。
)- This machine requires a specific type of lubricating oil.(这台机器需要特定类型的润滑油。
)4. 化妆品油:- Argan oil is known for its moisturizing properties and is commonly used in skincare products.(坚果油因其保湿功效而闻名,常用于护肤产品中。
)- Massage oils are often scented to enhance relaxation.(按摩油通常有香气,以增强放松效果。
)5. 石油:- The Middle East is known for its vast oil reserves.(中东以其丰富的石油储备而闻名。
)- Oil spills can cause serious environmental damage.(石油泄漏会造成严重的环境破坏。
中国原油价格争取成为国际基准指标的进程研判
战略与决策中国原油价格争取成为国际基准指标的进程研判中国原油价格争取成为国际基准指标的进程研判田洪志1,3,姚峰丨,2,罗浩1,李慧1(1.西北大学经济管理学院,陕西西安710127;2.曰本香川大学经济学部,曰本高松7608523;3.西北大学中国西部经济发展研究院,陕西西安710127)摘要:针对研判中国原油期货价格争取成为国际基准油价指标进程中遇到的理论支撑不足问题,基于多变量时间序列因果分析理论,提出国际基准油价指标的价格发现机制、价格影响机制与价格公认机制等概念。
计量经济分析结果显示:上海国际能源交易中心(IN E)油价在不同周期内均对北美原油市场的西德克萨斯(WTI)油价、欧洲原油市场的布伦特油价、东亚原油市场的东京商品交易所(T C E)油价等产生了显著的单方向因果影响,具备了影响机制;同时受到其他油价的单方向因果作用微小,正在逐步形成价格发现机制;在持仓量、媒体报道、学术征引等方面目前尚未获得价格公认机制。
关键词:大宗商品;国际定价权;单方向因果测度;原油期货中图分类号:F832 文献标识码:A 文章编号:1005 - 0566(2020)12 - 0011 -11.Study and Judgethe Process of China' s Oil Price Striving toBecome the International Benchmark IndexTIAN Hong-zhi1'3, YAO Feng1'2, LUO H ao', LI Hui1(1. School of Economics and Management, Northwest University ^XV an 710127, China;2. Faculty of Economics, Kagawa University, Takamatsu 760S523 , Japan;3. China Western Economic Development Research Institute, Northwest University, X i' an 710127, China)Abstract :Faced with insufficient theoretical support to study and judge the process of China * s crude oil futures price to become an international benchmark oil price index, based on the theory of multivariate time series causality analysis, the concepts of price discovery mechanism, price influence mechanism and price recognition mechanism of international benchmark oil price index are proposed. The results of econometric analysis show that the Shanghai International Energy Exchange (INE) oil price has a significant one-way causal effect on the West Texas Intermediate (WTI) oil price, the Brent oil price of the European crude oil market and the Tokyo Commodity Exchange (TCE) oil price of the East Asian crude oil market during different periods and thus has an impact mechanism. At the same time, the one-way causal effect of other oil prices is small, and the price discovery mechanism is gradually forming;the price recognition mechanism has not been obtained in terms of position, media report, academic citation, etc.Key w ords:bulk commodities;international pricing rights;one-way effect causal measure;crude oil futures收稿日期:2020 - 09 - 05 修回日期:2020 - 10 - 30基金项目:西北大学2020年度“国家社科基金孵化项目”(20XNFH011);日本文部科学省科研基金基盤研究(C) (19K01583)。
原油贸易 des 常用英语
原油贸易 des 常用英语Here are some sample paragraphs about crude oil trade in a casual and conversational English style:Hey, did you know that crude oil trade is a huge industry? It's like the backbone of the global economy, really. Companies from all over the world buy and sell crude oil to power their industries and economies.Trading crude oil can be quite risky, though. Prices fluctuate a lot based on supply and demand, political events, and even the weather! But for those who know the market well, it can be a very lucrative business.You've got to be careful when trading crude oil. It's not just about buying low and selling high. You have to keep an eye on things like the geopolitical situation in oil-producing countries, changes in production levels, and even the strength of the dollar.One of the coolest things about crude oil trade is how it connects different parts of the world. You know, oil is shipped from the Middle East to Europe, from North America to Asia. It's like a giant network of ships.。
工业用油脂贸易流程详解
工业用油脂贸易流程详解英文回答:Industrial Edible Oil Trading Process.The industrial edible oil trading process involves several key steps to ensure the smooth and efficient movement of edible oils from producers to consumers. Here's a detailed overview of the process:1. Production:Edible oils are extracted from oilseeds, such as soybeans, canola, sunflower seeds, and palm kernels, through various methods, including pressing, solvent extraction, and refining.Producers, such as farmers and oilseed crushing facilities, supply the extracted oil to the market.2. Transportation:The extracted oil is transported from production facilities to storage terminals or refineries through various modes of transportation, including ships, trucks, and pipelines.Transportation companies specialize in handling bulk liquids and ensure the safe and efficient movement of oil.3. Storage:Storage terminals provide large-scale capacity for storing edible oils until they are ready for further processing or distribution.Terminals are equipped with tanks, temperature-controlled environments, and quality control measures to maintain the integrity of the oil.4. Refining and Processing:Edible oils may undergo further processing, such as refining, bleaching, and deodorization, to improve their quality, stability, and functionality.Refineries specialize in transforming crude oils into finished products that meet specific industry standards and customer requirements.5. Blending:Different types of edible oils can be blended to create customized products with desired characteristics.Blenders combine oils with different fatty acid profiles, flavors, and other properties to meet thespecific needs of various applications.6. Packaging and Distribution:Processed edible oils are packaged in various containers, such as drums, bottles, and bulk tanks, depending on the intended use.Distributors handle the transportation and delivery of packaged oils to end-users, including food manufacturers, restaurants, and retail stores.7. End-Use:Industrial edible oils are used in a wide range of applications, including food manufacturing, frying, baking, and industrial processes.Consumers utilize these oils in various products, such as processed foods, snacks, and personal care items.8. Sustainability and Certification:The edible oil industry is increasingly focused on sustainability and ethical sourcing.Certifications and standards ensure that oils are produced and traded in a responsible manner, considering environmental and social factors.中文回答:工业用油脂贸易流程解析。
关于油干的英语
关于油干的英语The world we live in today is heavily dependent on the use of fossil fuels, particularly oil. This precious resource has been the backbone of our modern society, powering our vehicles, heating our homes, and fueling our industries. However, the reality is that oil is a finite resource, and its depletion is a pressing issue that we must address.The concept of "peak oil" is a widely discussed topic in the energy industry. Peak oil refers to the point in time when the maximum rate of global oil extraction is reached, after which the rate of production begins to decline. This decline is inevitable, as oil reserves are gradually depleted and new discoveries fail to keep up with the growing demand.The consequences of oil depletion are far-reaching and can have significant impacts on our way of life. As oil becomes scarcer and more expensive to extract, the cost of energy will rise, affecting everything from transportation to the production of goods and services. This could lead to economic instability, social unrest, and a decline in the standard of living for many people around the world.Moreover, the environmental impact of our reliance on oil cannot be ignored. The burning of fossil fuels is a major contributor to greenhouse gas emissions, which are widely recognized as the primary driver of climate change. As the world transitions towards a more sustainable future, the need to reduce our dependence on oil becomes increasingly urgent.In response to these challenges, various strategies and technologies have been developed to address the issue of oil depletion. One of the most promising solutions is the shift towards renewable energy sources, such as solar, wind, and hydroelectric power. These clean energy alternatives not only reduce our carbon footprint but also provide a more sustainable and reliable source of energy for the future.Another approach is the development of more efficient and eco-friendly transportation options. Electric vehicles, hybrid cars, and public transportation systems are becoming increasingly popular as viable alternatives to traditional gasoline-powered vehicles. Additionally, advancements in biofuel technology, such as the production of ethanol and biodiesel, offer the potential to reduce our reliance on traditional oil-based fuels.The transition away from oil, however, is not without its challenges.The existing infrastructure and economic systems are deeply rooted in the use of fossil fuels, and the shift to a more sustainable future will require significant investment, policy changes, and public support. Governments, industries, and individuals must work together to implement the necessary changes and ensure a smooth and equitable transition.One of the key factors in addressing oil depletion is the development of new technologies and the optimization of existing ones. Research and development in areas such as energy storage, renewable energy generation, and energy efficiency can help to reduce our dependence on oil and pave the way for a more sustainable future.Furthermore, the role of public awareness and education cannot be overlooked. By educating the public about the importance of reducing our oil consumption and promoting sustainable practices, we can encourage individuals to make conscious choices that support the transition to a more environmentally-friendly society.In conclusion, the depletion of oil is a complex and multifaceted issue that requires a comprehensive and collaborative approach. As we strive to address this challenge, it is crucial that we embrace innovative solutions, implement policy changes, and foster public engagement to ensure a sustainable and prosperous future for generations to come. The transition away from oil may not be aneasy one, but it is a necessary step in safeguarding our planet and securing the well-being of our global community.。
石油消费英语作文
石油消费英语作文With the rapid industrialization and modernization of the world, oil has become one of the most critical resources for powering economies and daily life. However, the consumption of oil has far-reaching implications that are both complex and multifaceted. This essay will explore the environmental and societal impacts of oil consumption, as well as the need for sustainable alternatives.Firstly, the environmental impact of oil consumption is significant. The extraction process can lead to habitat destruction and pollution, as seen in oil spills that have devastated marine life and coastal ecosystems. Additionally, the burning of oil for energy releases greenhouse gases, contributing to global warming and climate change. Theeffects of climate change are widespread, including rising sea levels, more frequent natural disasters, and disruptions to agriculture, which in turn affect food security.Secondly, the societal implications of oil consumption are profound. The global demand for oil has led to geopolitical tensions and conflicts, as nations vie for control over oil-rich regions. The economic reliance on oil has also resulted in price volatility, which can destabilize economies and lead to social unrest. Moreover, the dependence on fossil fuels like oil can hinder the development and adoption of renewable energy sources, which are crucial for a sustainable future.Despite these challenges, there are potential solutions to mitigate the negative effects of oil consumption. One such solution is the development of alternative energy sources, such as solar, wind, and hydroelectric power. These renewable sources have the potential to reduce our reliance on oil and decrease greenhouse gas emissions. Additionally, improving energy efficiency through technological advancements in transportation and industrial processes can also help reduce oil consumption.Furthermore, government policies can play a crucial role in promoting sustainable energy use. Implementing carbon taxes, providing incentives for renewable energy development, and investing in public transportation systems can all contribute to a reduction in oil consumption.In conclusion, while oil has been a driving force behind much of the world's progress, its consumption carries significant environmental and societal costs. It is imperative that we transition towards a more sustainable model of energy usethat minimizes our reliance on oil. By doing so, we can protect our planet for future generations and ensure a more stable and secure society.。
现货原油发言稿英文
现货原油发言稿英文Ladies and gentlemen,Today, we gather here to discuss a topic of great importance in the global economy - crude oil. Crude oil is a vital resource that fuels industries and powers transportation systems worldwide. As the demand for energy continues to rise, the significance of crude oil becomes even more evident.The current state of the global oil market is constantly evolving and influenced by various factors. These factors range from geopolitical tensions, economic growth, changes in regulations, to unexpected events such as natural disasters or pandemics. In recent times, we have witnessed how the COVID-19 pandemic has drastically disrupted the global crude oil market, leading to a significant decrease in demand and a surplus in supply.While the crude oil market is often associated with its fluctuating prices, it is crucial to understand the underlying dynamics that drive these price changes. The supply and demand fundamentals, coupled with geopolitical events, play a crucial role in determining the price of crude oil. The Organization of the Petroleum Exporting Countries (OPEC) and its allies, including non-OPEC nations, have historically influenced crude oil prices through their production quotas and agreements.Moreover, technological advancements have opened new avenues for crude oil extraction, such as shale oil and deep-water drilling. These advancements, along with the diversification of energy sources, have brought about a paradigm shift in the global energylandscape. As governments and industries increasingly focus on renewable and sustainable alternatives, the future of the crude oil market may face significant challenges.Nevertheless, the importance of crude oil in driving economic growth and stability cannot be denied. It remains a critical commodity that powers industries, transports goods, and supports economic development globally. As such, it is essential for stakeholders in the crude oil market to adapt and embrace the changing energy landscape while also ensuring a stable and sustainable supply for future generations.In conclusion, the world's reliance on crude oil as a source of energy continues to shape the global economy. Understanding the dynamics of the crude oil market and its various influences is crucial for all stakeholders involved. As we navigate through these challenging times and explore alternative energy sources, let us not overlook the indispensable role that crude oil plays in our daily lives. Thank you.。
食品石油价格变化的英语作文200字
食品石油价格变化的英语作文200字全文共3篇示例,供读者参考篇1With the rapid changes in global oil prices, the cost of food production and transportation has been significantly affected. The fluctuations in oil prices can have a direct impact on the prices of food items, making them more expensive for consumers.When oil prices increase, the cost of producing food also goes up. This is because oil is used in various stages of the food production process, from planting and harvesting crops to processing and transporting them to markets. Farmers rely on oil for fueling tractors and other machinery, as well as for powering irrigation systems. Additionally, oil is used in the production of fertilizers and pesticides, which are essential for maximizing crop yields.The rise in oil prices also affects the transportation of food products from farms to markets. Trucks, trains, and ships that carry food items all rely on oil as a fuel source. When oil pricesare high, transportation costs increase, leading to higher prices for consumers at the grocery store.On the other hand, when oil prices decrease, the cost of producing and transporting food can go down. This can lead to lower prices for consumers, making food more affordable and accessible.Overall, the relationship between oil prices and food prices is complex and multifaceted. Fluctuations in oil prices can have a ripple effect on the entire food supply chain, impacting farmers, producers, and consumers alike. It is important for policymakers and stakeholders to monitor oil price trends and their implications for the food industry to ensure a stable and sustainable food supply for all.篇2The fluctuation of food and petroleum prices has a significant impact on the global economy. Both food and petroleum are essential commodities that play a crucial role in people's daily lives. The prices of these two commodities are closely interlinked and are subject to various factors such as supply and demand, geopolitical issues, and government policies.The relationship between food and petroleum prices is complex. Petroleum is used in the production and transportation of food, so any changes in the price of petroleum can have a direct impact on the cost of food production. For example, an increase in the price of crude oil can lead to higher transportation costs, which in turn can drive up the price of food. On the other hand, fluctuations in food prices can also affect the demand for petroleum. For instance, a decrease in food prices can lead to lower consumer spending, which can result in a reduction in the demand for petroleum products.Geopolitical issues also play a significant role in the volatility of food and petroleum prices. Political instability inoil-producing countries can lead to disruptions in the supply of crude oil, which can cause prices to spike. Similarly, conflicts in food-producing regions can result in food shortages, leading to an increase in food prices. Government policies, such as subsidies and trade restrictions, can also impact the prices of food and petroleum. Subsidies can artificially lower the prices of these commodities, while trade restrictions can lead to price increases due to limited supply.In recent years, the world has witnessed several instances of sharp fluctuations in food and petroleum prices. The rise in crudeoil prices in 2008, for example, led to a global food crisis as the cost of production and transportation of food increased. In response, many countries implemented measures such as food subsidies and export restrictions to mitigate the impact of high food prices on their populations.To address the issue of price volatility in food and petroleum markets, governments and international organizations need to collaborate and implement policies that promote stability and sustainability. Increasing investment in renewable energy sources can help reduce the dependency on fossil fuels and mitigate the impact of fluctuations in petroleum prices. Additionally, policies that promote food security, such as agricultural subsidies and improved infrastructure, can help stabilize food prices and ensure access to affordable and nutritious food for all.In conclusion, the fluctuation of food and petroleum prices is a complex issue that requires a multi-faceted approach to address. By understanding the interconnected nature of these commodities and implementing effective policies, we can work towards a more stable and sustainable global economy.篇3Changes in food and oil prices play a crucial role in the global economy. The fluctuations in these prices can impact the cost of living, inflation rates, and even international relations. Let's take a closer look at how the price changes in food and oil are interrelated and their effects on the global economy.Firstly, the price of oil has a significant impact on the cost of producing and transporting food. As oil prices increase, the cost of fuel for farming machinery, transportation, and processing also rise. This leads to higher production costs for farmers and food manufacturers, which are often passed on to consumers in the form of higher prices for food products.Secondly, the price of oil directly affects the cost of fertilizers and pesticides used in agriculture. These products are made from petroleum derivatives, so when oil prices rise, the cost of these inputs also increases. This can lead to reduced crop yields and higher food prices, as farmers struggle to maintain profitability in the face of rising production costs.On the other hand, changes in food prices can also impact the price of oil. For example, a surge in demand for biofuels made from crops such as corn or soybeans can put pressure on food prices. This can lead to higher prices for agricultural commodities, which in turn can increase demand for oil asfarmers and agricultural companies use more fuel to meet the growing demand for food.Moreover, the relationship between food and oil prices is not just limited to production costs. Fluctuations in food prices can also affect consumer behavior, leading to changes in demand for oil. For example, when food prices rise, consumers may cut back on spending in other areas, including transportation and travel. This can lead to a decrease in demand for oil and a drop in oil prices.In conclusion, the relationship between food and oil prices is complex and multifaceted. Changes in one commodity can have far-reaching effects on the other, shaping global economic trends and influencing the daily lives of people around the world. It is essential for policymakers, businesses, and consumers to be aware of these interconnections and to consider their implications when making decisions that impact the economy.。
炼油厂成品油销售合同英语
炼油厂成品油销售合同英语REFINERY PRODUCTS SALES AGREEMENT.THIS REFINERY PRODUCTS SALES AGREEMENT (this "Agreement") is made and entered into this [Date] by and between:Seller: [Seller Name], a [Type of Entity] organized and existing under the laws of the [State of Organization],with its principal place of business at [Address] ("Seller");Buyer: [Buyer Name], a [Type of Entity] organized and existing under the laws of the [State of Organization],with its principal place of business at [Address] ("Buyer");Recitals:WHEREAS, Seller is a refiner and supplier of refined petroleum products;WHEREAS, Buyer is a distributor and marketer of refined petroleum products;WHEREAS, the parties desire to enter into a contractfor the sale and purchase of refined petroleum products on the terms and conditions set forth herein;NOW, THEREFORE, in consideration of the mutual covenants and agreements set forth herein, the parties agree as follows:1. Definitions.1.1. "Agreement" means this Refinery Products Sales Agreement, including any amendments or supplements hereto.1.2. "Buyer" means [Buyer Name], its successors and assigns.1.3. "Contract Quantity" means the total quantity of Refined Petroleum Products specified in Section2.1.1.4. "Delivery Point" means the location where the Refined Petroleum Products are to be delivered to Buyer, as specified in Section 3.1.1.5. "Effective Date" means the date first written above.1.6. "Force Majeure Event" means any event beyond the reasonable control of the party affected, including but not limited to acts of God, war, civil unrest, strikes, lockouts, labor disputes, accidents, fires, explosions, embargoes, and government regulations.1.7. "Price" means the price per gallon for the Refined Petroleum Products, as specified in Section 4.1.1.8. "Refined Petroleum Products" means the gasoline, diesel fuel, jet fuel, or other petroleum productsspecified in Section 2.1.1.9. "Seller" means [Seller Name], its successors andassigns.1.10. "Term" means the period of time specified in Section 6.1.2. Sale and Purchase.2.1. Seller agrees to sell and Buyer agrees to purchase the Contract Quantity of Refined Petroleum Products during the Term. The Refined Petroleum Products shall be of the following specifications:[Specify the specifications of the Refined Petroleum Products, including grade, octane, sulfur content, etc.]3. Delivery.3.1. The Refined Petroleum Products shall be deliveredto Buyer at the Delivery Point. The Delivery Point shall be:[Specify the Delivery Point, including address and contact information]3.2. The Refined Petroleum Products shall be delivered in accordance with the following schedule:[Specify the delivery schedule, including frequency, quantity, and time of delivery]3.3. Seller shall be responsible for arranging and paying for all transportation and logistics associated with the delivery of the Refined Petroleum Products.4. Price and Payment.4.1. The Price for the Refined Petroleum Products shall be [Price] per gallon.4.2. Buyer shall pay Seller for the Refined Petroleum Products within [Number] days of receipt of invoice.4.3. Invoices shall be submitted by Seller to Buyer ona monthly basis.5. Representations and Warranties.5.1. Seller represents and warrants that:It has the full power and authority to enter into and perform this Agreement.The Refined Petroleum Products shall conform to the specifications set forth in Section 2.1.It has good and marketable title to the Refined Petroleum Products.There are no liens or encumbrances on the Refined Petroleum Products.5.2. Buyer represents and warrants that:It has the full power and authority to enter into and perform this Agreement.It will use the Refined Petroleum Products for itsintended purpose.6. Term and Termination.6.1. This Agreement shall commence on the Effective Date and shall remain in effect for a period of [Number] years (the "Term").6.2. This Agreement may be terminated by either party upon written notice to the other party, for any reason or no reason, with [Number] days' notice.6.3. In the event of a material breach of this Agreement by either party, the non-breaching party may terminate this Agreement with immediate written notice to the breaching party.7. Force Majeure.7.1. Neither party shall be liable for any delay or failure in performance of its obligations under this Agreement due to a Force Majeure Event.8. Governing Law and Jurisdiction.8.1. This Agreement shall be governed by and construedin accordance with the laws of the [State of Governing Law].8.2. Any dispute arising out of or relating to this Agreement shall be subject to the exclusive jurisdiction of the courts of the [State of Jurisdiction].9. Severability.9.1. If any provision of this Agreement is held to be invalid or unenforceable, such provision shall be severed from the Agreement and the remaining provisions shallremain in full force and effect.10. Entire Agreement.10.1. This Agreement constitutes the entire agreement between the parties with respect to the subject matter hereof and supersedes all prior agreements, understandings,and negotiations, whether written or oral.11. Amendments.11.1. This Agreement may be amended only by a written instrument signed by both parties.IN WITNESS WHEREOF, the parties have executed this Agreement as of the Effective Date.SELLER:BUYER:By: _________________________ By:_________________________。
油价触百绿色翻身英语美文
油价触百绿色翻身英语美文High petroleum prices might hit your wallet hard, but $100-a-barrel oil has some environmentalists quietly celebrating. The more expensive oil gets, the moreattractive alternative — and climate-friendly — fuels bee. Biofuels that would be buried by $17-a-barrel crude — the price as recently as November xx — are suddenly petitive when oil is in the triple digits. Ultra-efficient cars, public transit, plug-in hybrids — they all bee better investments as oil gets and stays expensive. Global greenhouse gas emissions have skyrocketed over the past few decades on the back of relatively cheap oil, but as theprice rises, it pays to decarbonize, and the climate will benefit.高油价也许会让你的钱包瘪下去。
但是,百元一桶的油价却使得一些环保主义者欢欣鼓舞。
油价越高,那种对气候友好的替代性燃料就越受欢送。
像xx年11月,原油价格处于17美元一桶的情况下,生物燃料行将灭绝。
而在油价涨到三位数时,生物燃料突然变得有竞争力了。
当油价高位运行时,高效节能车、公共交通和可充电的混合动力车都成了更好的投资渠道。
食用油脂相关英文书籍
食用油脂相关英文书籍,有需要的请联系QQ1903577741.Diacylglycerol Oil, 2nd EditionYoshihisa Katsuragi, Takuji Yasukawa, Noboru Matsuo, Brent D. Flickinger, Ichiro Tokimitsu,and Mark G. Matlock, Editors2008. Softbound. 310 pages.2.Tocotrienols Vitamin E Beyond TocopherolsRonald Watson and Victor Preedy, Editors2008. Hardbound. 421 pages3.Teaching Innovations in Lipid ScienceRandall J. Weselake, Editor2008. Hardbound. 276 pages.4.Olive Oil Chemistry and Technology, 2nd EditionAOCS MONOGRAPH SERIES ON OILSEEDS, VOLUME 1 Dimitrios Boskou, Editor2006. Hardbound. 288 pages.5.Chemical and Functional Properties of Food LipidsEdited by Zdzislaw E . Sikorski and Anna KolakowskaCRC Press 20036. Flaxseed in Human Nutrition,2nd EditionLilian Thompson and Stephen Cunnane,Editors 2003. Hardbound. 464 pages.7. Single Cell OilsMicrobial and Algal Oils, 2nd EditionZvi Cohen and Colin Ratledge, Editors2010. Softbound. 298 pages8. Crystallization processes in fats and lipid systems Nissim garti and kiyotaka, EditorsCopyright 2001.. 545 pages9. Industrial Uses of V egetable OilsSevim Z. Erhan, Editor2005. Softbound. 192 pages.10.Oil Extraction and Analysis Critical Issues and Comparative StudiesDave Luthria, Editor2004. Hardbound. 288 pages.11. Fats and Oils HandbookMichael Bockisch1998. Hardbound. 848 pages.12. Modifying lipids for use in foodEdited by F Gunstone, University of St Andrews and Honorary Research Professor, Scottish Crop Research Institute, UKCopyright 2006 610 pages.13. Lipid Oxidation PathwaysAfaf Kamal-Eldin, Editor2003. Hardbound. 336 pages.14.Structural Modified Food Fats: Synthesis, Biochemistry, and Use Armand B. Christophe, EditorCopyright 1998 246 pages.15. Beneficial Effects of Fish Oil on Human BrainAkhlaq Farooqui, EditorCopyright 2009 409 pages.16. Extrusion Cooking: Technology and ApplicationsRobin Guy ,EditorCopyright 2001 217pages.17. Handbook of FA T ReplacersSibel Roller , Sylvia A. Jones (Editor)Copyright 1996 295pages.18. Know Your Fats : The Complete Primer for Understanding the Nutrition of Fats, Oils and CholesterolMary G. Enig (Author)Copyright 2000 348pages.19. Olive Oil: Minor Constituents and HealthDimitrios Boskou (Editor)Copyright 2009 244pages.20. Olives and Olive Oil in Health and Disease PreventionRonald Ross Watson (Author, Editor), Victor R. Preedy (Author, Editor) Copyright 2010 1520pages.21. Physical Properties of Lipidsedited by Alejandro G. MarangoniCopyright 2002 565pages.22.Crystallization and Solidification Properties of LipidsNeil Widlak Richard Hartel Suresh NarineCopyright 2001 271pages.23.Enzymes in Lipid ModificationEdited by Uwe T. BornscheuerCopyright 2000 435pages.24.Soy application in foodEdited by Mian N. Riaz, Ph.D.Copyright 2006 302pages.25.Lipid Analysis and Lipidomcs New Techniques and Applications Editors Magdi M. Mossoba John K.G. Kramer J. Thomas Brenna Richard E. McDonaldCopyright 2006 426pages.26. Lipid BiochemistryMichael I. Gurr John L. Harwood Keith N. FraynCopyright 2002 337pages.27.The biodiesel handbookGerhard Knothe Jon V an Gerpen Jürgen KrahlCopyright 2005 303pages.28.Dietary Omega-3 Polyunsaturated Fatty Acids and Cancer Gabriella Calviello ·Simona Serini EditorsCopyright 2010 261pages.29. The Soybean IndustryEdited by RAY A. GOLDBERGCopyright 1952203pages.30.Handbook of VitaminsEdited by Janos Zempleni Robert B. Rucker Donald B. McCormick John W. Suttie 608pages.Copyright 200731. V egetable Oils in Food TechnologyEdited by FRANK D. GUNSTONECopyright 2002 352pages.32. Conjugated linoleic acidJAMES N. PARKER, M.D. AND PHILIP M. PARKER, PH.D., EDITORS Copyright 2003 192pages.33.The Lipid HandbookEdited by Frank D. Gunstone John L. Harwood Albert J. Dijkstra808pages.Copyright 200734. The Oil PalmEdited by R.H.V. Corley and P.B. Tinker608pages.Copyright 200335.The Fats of Life :Essential Fatty Acids in Health and DiseaseEdited by GLEN D. LAWRENCECopyright 2010 297pages.36. The Fats of LifeWith drawings by Mat Cross and Sarah SutcliffeCopyright 1998 344pages.37.Soybeans Chemistry, Production, Processing, and Utilization Editors Lawrence A. Johnson Pamela J. White Richard Galloway Copyright 2008 910pages.38. Omega-3 Fatty Acids and the DHA PrincipleRaymond C. V alentine David L. V alentineCopyright 2010 254pages.39. Omega_Rx_Zone__The_Miracle_of_the_New_High_Dose_Fish_Oil Edited By Dr. Barry SearsCopyright 2002 513pages.40. Food Lipids Chemistry, Nutrition, and BiotechnologyEdited by Casimir C. Akoh David B. MinCopyright 2002 1014pages.41. Food fortification and supplementationEdited by Peter Berry OttawayCopyright 2008 297pages.42.Trans Fats AlternativesEdited by Dharma R. Kodali Gary R. ListCopyright 2005 132pages.43. Beneficial Effects of Fish Oil on Human BrainEdited by Akhlaq A. 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Uganda’s Oil and Refinery Oil DealIn numerous interconnected articles, Bariyo provides information on the progress and hiccups in the formulation and finalization of an oil deal in Uganda for many of the major international oil companies seeking to estab lish an investment in the country’s reportedly large oil deposits. In the articles, Bariyo identifies various issues that have arisen since the discovery of oi l in Uganda’s Lake Albertine Rift basin in 2006 (Bariyo). There have been numerous attempts to acquire tenders to extract the oil by some international oil companies but these deals often fell through until UK Company, Tullow Oil PLC gained a foothold in the running only for more chaos to erupt in the form of corruption allegations. In addition, the demand by the Uganda government to have a refinery built in Uganda in order to create employment opportunities for the local as well as the establishment of a long pipeline from Uganda to the East African Coast made cohesion and corporation between the government and oil companies difficult. Some international and local media referred to the standoff as a war (Bariyo). Both demands by the government represent significant start up costs for any company willing to invest in the venture. However, the projected pay off from the proceeds and the estimated oil reserves indicate the cost may indeed be worthwhile considering the immense international attention the situation receives. This paper analyses the current stand of the situation and the reason the incidents draw significant interest from personalities on Wall Street where the international exchange of energy goods such as oil has an unmatched ripple effect on all other markets.According to Bariyo (Web), Uganda’s oil, reserves stand at approximately 3.5 billion barrels. This would effectively make Uganda one of Africa’s largest oil producing nations after Nigeria and Angola. However, unlike most other oil producing nations in Africa, Ugandaoperates in relative peace and political stability, making it a prime African country to invest in terms of oil. Unfortunately, the discovery and negotiation of development plans on the extraction of oil in Uganda has already taken seven years, comprised mainly of corruption allegations and disagreements between the Ugandan government and the oil companies. Corruption allegations began in 2011 when a Ugandan Member of Parliament presented a motion in Uganda’s Parliament accusing some top Ugandan officials, including the Ugandan Prime Minister, of receiving bribes from the UK oil company, Tullow Oil PLC (Bariyo). Hence, investigations into the graft became necessary, stalling all progress towards the signing of a deal for the extraction of oil. Furthermore, the incident sparked numerous legislative debates in the country because the discovery of oil necessitated the formulation of laws to govern its extraction and management as a national resource. In fact, Tullow Oil PLC’s attempts to sell a portion of its investment to Total and Cnooc limited met much resistance where the Ugandan Parliament insisted the company waits until Parliament passed new laws to protect the country and its resource (Bariyo). Prior to the discovery, Uganda did not have legislation on oil extraction. Hence, the in-house political strife stifled the development of the industry in Uganda.Aside from the internal wrangles, the oil company, Tullow Oil PLC, seemingly could not agree with many of the demands of the Ugandan government. Even though the country does not have a national oil company, the government held various demands and requests of international companies interested in extracting the oil. The main area of contention was on the aspect of the oil refinery. The international companies aimed to extract the oil and retail it on the open market in its crude state using a pipeline from Uganda to the East African coast. However, the Ugandan government demanded the construction of an 180,000-barrels-per-day refinery in Uganda to process the oil and deliver final products to the market as well as meet all the domestic oil needsof the people of Uganda (Bariyo). The two parties finally agreed to construct a 30,000-barrels-per-day refinery this week. In addition, the parties agreed on the construction of an export pipeline after Total stated its project in Uganda would stall if the government did not approve the construction of a pipeline in February. Currently, the negotiations seem close to concluding with the optimal options for both parties attained.These proceedings host significance to Wall Street simply because of the challenges in the international energy sector where oil is becoming an increasingly scarce resource causing the international prices to fluctuate sporadically to even the slightest of changes. In addition, the price of a barrel of oil inadvertently determines the value of the dollar across the entire world. The introduction of a new oil resource from Uganda into the international market would undeniably have repercussions on the international oil market and the stock exchange markets across the entire world. In addition, the price of stocks from the oil companies involved as well as Uganda government investment options such as government bonds would increase in value with the signing of the deal. Wall Street would instigate this change through other international stock exchange markets such as in Asia and the UK.In conclusion, Bariyo’s article on the establishment of an oil refinery deal and all other insights into the development of the Uganda oil plans would be of immense interest to an investor on Wall Street mainly because the information would act as an indication of the changes in stock value for all the international companies involved. In addition, the available Uganda government investment options would increase in value. The oil industry is one of the most lucrative in the world and any company and country involved undoubtedly draws international interest, especially from Wall Street.Work CitedBariyo, Nicholas. “Uganda reaches deal with Oil Companies over Refinery.” Business. Wall Street Journal. 15 April 2013. Web. 15 April 2013.。