DOCSLIB.ORG

EPCOR Coal-Fired Power Plant) Three Generating Units: • Units G1 & G2 – Each 381 MW Net/410 MW Gross (Built in 1989 and 1994, Respectively)

Total Page：16

File Type：pdf, Size：1020Kb

Download full-text PDF Read full-text
EPCOR Coal-Fired Power Plant) Three Generating Units: • Units G1 & G2 – Each 381 MW Net/410 MW Gross (Built in 1989 and 1994, Respectively) Nuclear Power as a Basis for Future Electricity Generation Professor Igor Pioro Faculty of Energy Systems and Nuclear Science University of Ontario Institute of Technology Oshawa, Ontario, Canada October, 2014 Dr. I. Pioro Sources for Electrical Energy Generation It is well known that the electrical power generation is the key factor for advances in any other industries, agriculture and level of living. In general, electrical energy can be produced by: 1) non-renewable sources such as coal, natural gas, oil, and nuclear; and 2) renewable sources such as hydro, wind, solar, biomass, geothermal and marine. However, the main sources for electrical-energy production are: 1) thermal - primary coal and secondary natural gas (also, in some countries oil is used); 2) hydro and 3) nuclear. The rest of the sources might have visible impact just in some countries. In addition, the renewable sources such as wind and solar are not really reliable sources for industrial power generation, because they depend on Mother nature plus relative costs of electrical energy generated by these and some other renewable sources with exception of large hydro-electric power plants can be significantly higher than those generated by non- renewable sources. Dr. I. Pioro Electrical Energy Consumption per Capita in Selected Countries No. Country Population Energy Consumption Year HDI* (2012) Category Millions TW h/year W/Capita Rank Value 1 Norway 5 116 2603 2013 1 0.955 Very high 2 Australia 23 225 1114 2013 2 0.938 Very high 3 USA 316 3,886 1402 2012 3 0.937 Very high 3 Germany 80 607 822 2009 5 0.920 Very high 4 Japan 127 860 774 2012 10 0.912 Very high 5 Canada 33 550 1871 2011 11 0.911 Very high 6 S. Korea 50 455 1038 2012 12 0.909 Very high 7 Italy 60 310 581 2010 25 0.881 Very high 8 United Kingdom 63 345 622 2011 26 0.875 Very high 9 Russia 143 1,017 808 2013 55 0.788 High 10 Ukraine 45 182 461 2012 78 0.740 High 11 Brazil 194 456 268 2012 85 0.730 High 12 China 1,354 4,693 395 2012 101 0.699 Medium 13 World 7,035 19,320 313 2005-12 103 0.694 Medium 14 EU 503 3,037 688 2012 − − − 15 South Africa 53 212 457 2013 121 0.629 Medium 16 India 1,210 959 90 2011 136 0.554 Low 17 Afghanistan 30 0.23 1 2012 175 0.374 Very low 18 Sierra Leone 6 0.54 1 2012 177 0.359 Very low 19 Niger 17 0.63 4 2012 187 0.304 Very low 12 EEC, TW h × 10 W year 365 days × 24 h * EEC, = . Capita 6 Population, Millions × 10 ** HDI – Human Development Index by United Nations (UN); HDI is a comparative measure of life expectancy, literacy, education and standards 3 of living for countries worldwide. HDI is calculated by the following formula: HDI= LEI×EI×II, where LEI - Life Expectancy Index, EI - Education Index, and II - Income Index. It is used to distinguish whether the country is a developed, a developing or an under-developed country, and also to measure the impact of economic policies on quality of life. Countries fall into four broad human-development categories, each of which comprises ~42 countries: 1) Very high – 42 countries; 2) high – 43; 3) medium – 42; and 4) low – 42 (Wikipedia, 2014). Dr. I. Pioro 1.0 Spain USA Norway Germany Canada Poland Japan 0.9 Italy UK S. Korea Iceland Brazil France 0.8 Argentina Kuwait Colombia Mexico Russia Iran Ukraine 0.7 Philippines China Turkey Indonesia Equatorial South Africa 0.6 Guinea Kenya Thailand India Egypt HDI Value HDI Tanzania Nigeria Vietnam 0.5 Pakistan Afghanistan Bangladesh Iraq 1.0 Very high HDI Zimbabwe Ethiopia 0.9 High HDI 0.4 Medium HDI Burma Low HDI Sierra Mozambique 0.8 Leone 0.3 0.7 Chad Democratic Republic of the Congo Niger 0.6 0.2 HDIValue 1 10 100 1000 10000 0.5 HDI 0.2581 0.088 ln EEC Accuracy 20% Energy Consumption, W/Capita 0.4 0.3 Dr. I. Pioro 0.2 1 10 100 1000 10000 Electrical-Energy Consumption, W/Capita Electricity production by source in the world & selected countries 5 (data from 2010 – 2012; Wikipedia) (population in millions) World (2012) China India 7,035 1,354 1,210 USA Germany UK 316 80 63 Electricity production by source in the world & selected countries 6 (data from 2010 – 2012; Wikipedia) (population in millions) Russia Italy Brazil 143 60 194 Canada Ukraine France 33 45 65 Top 11 Largest Power Plants of the World No Plant Country Capacity, Ave. annual el. Capacity Plant MWel generation, TWh factor, % type 1 Three Gorges Dam China 21,0001 84.5 46 Hydro 2 Itaipu Dam Brazil/Paraguay 14,0002 94.7 77 Hydro 3 Guri Dam Venezuela 10,235 53.4 60 Hydro 4 Kashiwazaki-Kariwa NPP Japan 8,2123 24.6 - Nuclear 5 Tucurui Dam Brazil 8,1254 21.4 30 Hydro 6 Bruce NPP Canada 7,2765 35.3 55 Nuclear 7 Grand Coulee Dam USA 6,809 21.0 35 Hydro 8 Longtan Dam China 6,426 18.7 33 Hydro 9 Uljin NPP S. Korea 6,157 48.0 89 Nuclear 10 Krasnoyarsk Dam Russia 6,000 20.4 39 Hydro 11 Zaporizhzhia NPP Ukraine 6,000 40.0 76 Nuclear 1 – another 1,500 MWel under construction; 2 – the maximum number of generating units allowed to operate simultaneously cannot exceed 18 (12,600 MWel); 3 – 4,912 MWel are operational, 3 units (3,300 MWel) have not been restarted since 2007 Chūetsu earthquake; 4 – another 245 MWel under construction; 5 – currently, the largest fully operating NPP in the world. Dr. I. Pioro Largest power plants by energy source Rank Plant Country Installed Plant type Capacity, MWel 1 Three Gorges Dam1 Power Plant China 21,000 Hydro 2 Kashiwazaki-Kariwa NPP Japan 7,965 Nuclear 3 Taichung Power Plant Taiwan 5,780 Coal 4 Surgut-2 Power Plant Russia 5,597 Fuel oil2 5 Futtsu Power Plant Japan 5,040 Natural gas 6 Eesti Power Plant Estonia 1,615 Oil shale 7 Shatura Power Plant Russia 1,020 Peat2 7 Alta Wind Energy Center USA 1,020 Wind 8 Ivanpah Solar Power Facility USA 392 Solar (thermal) 9 Hellisheiði Power Plant Iceland 303 Geothermal 10 Alholmens Kraft Power Plant Finland 265 Biofuel2 11 Sihwa Lake Tidal Power Plant S. Korea 254 Tidal 12 Charanka Solar Park India 214 Solar (photo-voltaic) 13 Vasavi Basin Bridge Diesel Power Plant India 200 Diesel 14 Aguçadoura Wave Farm Portugal 2 Marine (wave3) 1 – another 1,500 MW under construction 2 – it should be noted that actually, some thermal power plants use multi-fuel options, for example, Surgut-2 (15% natural gas), Shatura (peat – 11.5%, natural gas – 78%, fuel oil – 6.8% and coal – 3.7%), Alholmens Kraft (primary fuel – biomass, secondary – peat and tertiary – coal) power plants Dr. I. Pioro 3 – currently, not in operation anymore. Top 6 Largest Coal-Fired Power Plants Rank Plant Country Capacity, MWel 1 Taichung Power Plant Taiwan 5,780 2 Tuoketuo Power Plant China 5,400 3 Bełchatów Power Plant Poland 5,354 4 Guodian Beilun Power Plant China 5,000 4 Waigaoqiao Power Plant China 5,000 4 Guohoa Taishan Power Plant China 5,000 Photo of the largest in the world 5,780-MWel Taichung coal-fired power plant (Taiwan) (photo taken from Wikimedia Commons, author/username 照片_064.jpg; 阿爾特斯). The plant equipped with 550 MWel × 10 coal- fired steam generators‒turbines + 70 MWel × 4 gas-fired steam generators‒turbines and is the world's largest emitter of carbon dioxide with over 40 million tons per year (Source: Wikipedia). Dr. I. Pioro Genesee Power Plant (Alberta, Canada) (EPCOR coal-fired power plant) Three generating units: • Units G1 & G2 – each 381 MW net/410 MW gross (built in 1989 and 1994, respectively) • Unit G3 (the only one in Canada supercritical-pressure coal-fired power plant) – 450 MWel net/490 MWel gross, i.e., internal needs are 40 MWel or 8.2% from gross ($695 M unit recently completed in 2005). Operating design parameters for G3: • Typical net annual production – 3,745 GWh. • Requires 1.8 million t of coal annually, therefore, large surface mine adjacent to plant. • Ash production ~41 tonnes per hour = ~360,000 tonnes annually. • (for comparison: Fuel load into: 1300-MWel PWR – 115 t (3.2% enrichment); 1330- MWel BWR – 170 t (1.9% enrichment)). G3 Supercritical Boiler Technology • Furnace temperatures of supercritical-pressure boiler reaches 1,400°C. • G3 boiler produces steam at 26 MPa - ~50% higher than G1 & G2. Hitachi turbine information: 495 MW, TCDF-40, 3600 rpm, steam primary: 24.1 MPa & 566/566°C (reheat) Genesee Cooling Pond • Artificial pond covering 735 hectares (1 hectare 100 m × 100 m) = 7.35 km2. • Contains 34 million m3 of water. • Can provide cooling water for up to four 400-MWel units (1,600 MWel combined). • Water level in pond maintained by pumping water from North Saskatchewan River. Information taken from EPCOR Genesee Generating Station Phase 3. Project Background. January 9, 2007. CIV E 240 Technical Communications. Dr. W. Kindzierski, Dept. Civil & Environmental Engineering Dr. I. Pioro Top 5 Conventional Hydroelectric Power Plants Dr. I. Pioro Rank Plant Country Capacity, MWel 1 Three Gorges Dam China 21,000 2 Itaipu Dam Brazil / Paraguay 14,000 3 Guri Dam Venezuela 10,200 4 Tucurui Dam Brazil 8,370 5 Grand Coulee Dam United States 6,809 Photo of the largest in the world by installed power 21,100-MWel (planned power in 2012 – 22,500 MWel) hydroelectric power plant (700 MWel × 30 + 2 × 50 MWel Francis turbines) (a) and Francis-turbine runner (Yangtze River, China) (Courtesy of Chinese National Committee on Large Dams).
Load more

Recommended publications
  • Taiwan Power Company Sustainability Report
    Taiwan Power Company Sustainability Report Taiwan Power Company Sustainability Report Corporate Highlights Installed Capacity(40,977MW) Total Assets(million) 1,624,314 Pumped storage Hydro 1,650,000 2,602, 6.3% Nuclear Renewble Energy 1,600,000 5144, 12.6% 2,089, 5.1% 1,550,000 IPPs 1,500,000 7,707, 18.8% Purchased 1,450,000 9,022, 22.0% Cogenration Thermal 622, 1.5% 1,400,000 22,120, 54.0% Others 404, 1.0% 1,350,000 2008 2009 2010 2011 2012 Hydro 289, 0.7% Operating Revenues(million) 600,000 547,164 500,000 Power Generation(211,708GWh) 400,000 Pumped storage Hydro 300,000 2,924, 1.4% Renewble Energy 200,000 5,437, 2.6% Cogenration Nuclear 7,209, 3.4% 100,000 38,887, 18.4% Hydro 0 961, 0.5% 2008 2009 2010 2011 2012 Purchased 46,385, 21.9% Stockholder's Equity(million) Thermal IPPs Others 118,075, 55.8% 37,337, 17.6% 878, 0.4% 600,000 500,000 400,000 300,000 282,642 200,000 100,000 Customers(12,977 Thousand) Sales(198,391GWh) 0 Industrial Others 2008 2009 2010 2011 2012 210, 1.6% Commercial Others 17,323, 8.7% 987, 7.6% 180, 1.4% Loss Before Income Tax(million) 120,000 Residential 100,000 40,462, 20.4% Residential Industrial 11,599, 89.4% 108,980, 54.9% Commercial 80,000 31,625, 15.9% 62,069 60,000 40,000 20,000 0 2008 2009 2010 2011 2012 Power Restoration Time and Frequency of Forced Outages Line Loss min./cus.Yr ◆SAIDI ◆SAIFI % ◆Total system ◆Transmission system ◆Distribution system 4.86 4.76 4.58 4.66 4.42 20.810 19.246 17.663 18.224 19.05 2.65 2.65 2.38 2.53 2.37 0.354 0.298 0.238 2.21 0.196 0.204 freq./cus.Yr 2.20 2.13 2.11 2.05 2008 2009 2010 2011 2012 2008 2009 2010 2011 2012 Editorial Policy Energy Conservation and Carbon Reduction .
    [Show full text]
  • Download Document
    PROJECT DESIGN DOCUMENT FORM (CDM- SSC- PDD) - Version 03 CDM – Executive Board page 1 CLEAN DEVELOPMENT MECHANISM PROJECT DESIGN DOCUMENT FORM (CDM-PDD) Version 03 - in effect as of: 28 July 2006 CONTENTS A. General description of project activity B. Application of a baseline and monitoring methodology C. Duration of the project activity / crediting period D. Environmental impacts E. Stakeholders’ comments Annexes Annex 1: Contact information on participants in the project activity Annex 2: Information regarding public funding Annex 3: Baseline information Annex 4: Monitoring plan PROJECT DESIGN DOCUMENT FORM (CDM- SSC- PDD) - Version 03 CDM – Executive Board page 2 SECTION A. General description of project activity A.1 Title of the project activity: Title: InfraVest Changbin and Taichung bundled Wind Farms Project - Taiwan Version: 01 Date: July 25, 2008 Revision history of the PDD Version Date Comments Version July 25, 2008 First version of PDD prepared for GS assessment. 1.0 A.2. Description of the project activity: Summary The project involves the development of two wind farms in Taiwan: • a 103.5MW onshore wind farm located in Lugang, Siansi and Shengang townships, Changhua County (called hereafter : Changbin’s windfarm) • a 46 MW onshore wind farm in Tachia and Taan, Taichung County (called hereafter : Taichung’s windfarm) The two wind farms are constructed and operated by InfraVest Wind Power Group (hereafter InfraVest) a subsidiary of the german group InnoVent. The project consists in 45 (for Changbin) plus 20 (Taichung) wind turbines, each with a capacity of 2.3MW. The 68 turbines of type Enercon E70 are installed at an altitude of 64 m hub height and have a 71m diameter.
    [Show full text]
  • CO2 Capture from Flue Gas of a Coal-Fired Power Plant Using Three-Bed PSA Process
    energies Article CO2 Capture from Flue Gas of a Coal-Fired Power Plant Using Three-Bed PSA Process Chu-Yun Cheng 1, Chia-Chen Kuo 1, Ming-Wei Yang 2, Zong-Yu Zhuang 2, Po-Wei Lin 1, Yi-Fang Chen 1, Hong-Sung Yang 1 and Cheng-Tung Chou 1,* 1 Department of Chemical and Materials Engineering, National Central University, Zhongli District, Taoyuan City 320, Taiwan; [email protected] (C.-Y.C.); [email protected] (C.-C.K.); [email protected] (P.-W.L.); [email protected] (Y.-F.C.); [email protected] (H.-S.Y.) 2 Chemistry and Environment Laboratory, Taiwan Power Research Institute, Shulin District, New Taipei 23847, Taiwan; [email protected] (M.-W.Y.); [email protected] (Z.-Y.Z.) * Correspondence: [email protected] Abstract: The pressure swing adsorption (PSA) process was used to capture carbon dioxide (CO2) from the flue gas of a coal-fired power plant to reduce CO2 emissions. Herein, CO2 was captured from flue gas using the PSA process for at least 85 vol% CO2 purity and with the other exit stream from the process of more than 90 vol% N2 purity. The extended Langmuir–Freundlich isotherm was used for calculating the equilibrium adsorption capacity, and the linear driving force model was used to describe the gas adsorption kinetics. We compared the results of breakthrough curves obtained through experiments and simulations to verify the accuracy of the mass transfer coefficient. The flue gas obtained after desulphurization and water removal (13.5 vol% CO2 and 86.5 vol% N2) from a subcritical 1-kW coal-fired power plant served as the feed for the designed three-bed, nine-step PSA process.
    [Show full text]
  • Brochure View-E.Pdf
    CONTENTS 1 GENERAL INTRODUCTION 2 MAA VALUES 4 CORPORATE DATA 6 MARKETS AND SERVICES MARKET SEGMENTS EXPERTISE SCOPE OF SERVICES 11 EXPERIENCES INFRASTRUCTURE ENVIRONMENT BUILDINGS LAND RESOURCES INFORMATION TECHNOLOGY BIM 33 CONTACT ounded in 1975, MAA is a leading Asian engineering and Fconsulting service provider in the East and Southeast Asian region focused in the areas of infrastructure, environment, buildings, land resources, and information technology. To meet the global needs of both public and private clients, MAA has a full range of engineering capabilities providing integrated solutions ranging from conceptual planning, general consultancy and engineering design to project management. Today, MAA has over 1000 employees with companies in Beijing, Hong Kong, Macau, Shanghai, Taipei, Bangkok, Singapore and Yangon, creating a close professional network in East & Southeast Asia. 1 MAA VALUES Integrated Solutions for Global Impact Since 1975, MAA has played a key role in technology transfer and professional engineering service provider to many developing countries in Asia. MAA has participated in many projects that are major breakthroughs for these countries. Examples include the then largest BOT project in the world, the Taiwan High Speed Rail project; the Second International Bangkok Airport in Thailand; and Core Pacific Mall, the then largest shopping mall in Taiwan, etc. MAA was also the pioneer in bringing various technologies to local cities and countries. Examples include the Common Utility Ducts in Taiwan and the use of Endless Self Advancing method of tunneling in the Fushing North Road Underpass through Taipei Songshan International Airport. Such projects, including many others, have all played a role, whether directly or indirectly, in bringing the countries into one of the global players in the world economy.
    [Show full text]
  • 102 Nuclear Power As a Basis for Future Electricity Production in The
    Nuclear Power as a Basis for Future Electricity Generation in the World Professor Igor Pioro Faculty of Energy Systems & Nuclear Science University of Ontario Institute of Technology Canada [email protected] 1 Sources for Electrical Energy Generation It is well known that the electrical power generation is the key industry for advances in any other industries, agriculture and level of living. In general, electrical energy can be produced by: 1) non-renewable sources such as coal, natural gas, oil, and nuclear; and 2) renewable sources such as hydro, wind, solar, biomass, geothermal and marine. However, the main sources for electrical-energy production are: 1) thermal - primary coal and secondary natural gas; 2) nuclear and 3) hydro. The rest of the sources might have visible impact just in some countries. In addition, the renewable sources such as wind and solar are not really reliable sources for industrial power generation, because they depend on Mother nature plus relative costs of electrical energy generated by these and some other renewable sources with exception of large hydro-electric power plants can be significantly higher than those generated by non- renewable sources. 2 Electrical energy consumption per capita in selected countries No. Country Watts per person Year HDI* (2010) 1 Norway 2812 2005 1 (very high) 2 Finland 1918 2005 16 (very high) 3 Canada 1910 2005 8 (very high) 4 USA 1460 2011 4 (very high) 5 Japan 868 2005 11 (very high) 6 France 851 2005 14 (very high) 7 Germany 822 2009 10 (very high) 8 Russia 785 2010 65 ( high) 9 European Union 700 2005 - 10 Italy 603 2005 23 (very high) 11 Ukraine 446 2005 69 ( high) 12 China 364 2009 89 ( medium) 13 India 51 2005 119 ( medium) * HDI – Human Development Index by United Nations; The HDI is a comparative measure of life expectancy, literacy, education and standards for living worldwide.
    [Show full text]
  • Evaluation of Nox, Sox and CO2 Emissions of Taiwan's Thermal Power Plants by Data Envelopment Analysis
    Aerosol and Air Quality Research, 13: 1815–1823, 2013 Copyright © Taiwan Association for Aerosol Research ISSN: 1680-8584 print / 2071-1409 online doi: 10.4209/aaqr.2013.03.0070 Evaluation of NOx, SOx and CO2 Emissions of Taiwan’s Thermal Power Plants by Data Envelopment Analysis Chia Hao Liu1, Sue J. Lin2*, Charles Lewis3 1 Institute of Nuclear Energy Research, Lungtan, Taoyuan 32546, Taiwan 2 Sustainable Environmental Research Center (SERC), Department of Environmental Engineering, National Cheng Kung University, Tainan 701, Taiwan 3 Department of Resources Engineering, National Cheng Kung University, Tainan 701, Taiwan ABSTRACT An integrated environmental and operational evaluation model is constructed by data envelopment analysis (DEA) to examine seven thermal power plants operating in Taiwan during 2001–2008. Inputs and desirable outputs along with undesirable outputs, including CO2, SOx, and NOx emissions, were simulated. A slack variable analysis was conducted to identify possible ways to improve the inefficient power plants. In addition, three models were compared to identify the actual magnitude of inefficiency. The results indicate that the integrated efficiency and production scale of some plants were inefficient during 2001–2008. Reductions in fuel consumption and CO2 emissions are identified as the major strategies to improve efficiency. Other options include modifying pre-existing management measures, installing pollution prevention controls and resizing the scale of the power plant. It is anticipated that the findings of
    [Show full text]
  • Pellentesque Gravida, Libero Eu Luctus Porttitor Energy Transition
    Energy Transition and Coal Phaseout: Subnational Cooperation and Progress in Asia-Pacific September 2019 | Buyeo, South Chungcheong Province, South Korea Pellentesque Gravida, Libero eu Luctus Porttitor By Jane Doe Organized by In partnership with More than 50 government energy and environment supervisors, handle the development of renewables in their communi- green finance experts, and civil society members from the Asia- ties. Meanwhile, investors noted that there need to be basic Pacific region convened in Buyeo, South Chungcheong Province, processes at the subnational level in place to properly scope South Korea, September 4-5, 2019, for the “Asia-Pacific Roundtable investment opportunities. on Energy Transition & Coal Phase-out.” The event was co-hosted by Solutions for Our Climate and the Stanley Center for Peace – To accelerate coal phaseout, governments and civil society and Security. need to examine ways to facilitate a just transition. Phasing out coal power requires governments and civil society to Against a backdrop of calls for coal phaseout and stronger climate examine ways to look at financial tools such as securitization action from the United Nations,1 over the course of two days and and retraining programs to secure the livelihoods of workers seven sessions, participants discussed the drivers of energy tran- and communities that have depended on coal power facilities. sition, coal-to-clean transition policies of national and subnational governments in East Asia and around the world, investments for – There are opportunities to increase regional consensus clean energy, and platforms for future collaboration between gov- and accelerate energy transition through cross-border ernments. The key points of the roundtable discourse: collaboration.
    [Show full text]
  • Coal Mining and Public Health
    Julie Devine 20 February 2015. Select Committee into Certain Aspects of Queensland Government Administration PO Box 6100 Parliament House ACT 2600 Please accept this as a submission to the Select Committee on Certain Aspects of Queensland Government Administration related to Commonwealth Government Affairs. COAL MINING AND PUBLIC HEALTH. Please find the attached the report : Health and Social Harms of Coal Mining in Local Communities as evidence supporitng claims concerning coal mining, resulting coal dust and other factors concerned with coal production and use that have serious impacts on public health. The purpose of this report is to provide an objective overview of the available international and local evidence from the health and medical literature about the health effects and social justice impacts of coal mining on local communities and to discuss and relate these issues to the Hunter Region of New Wales. While the study centres on the Hunter Valley, it is safe to assume that the public health risk and resulting illnesses from exposure to coal dust are the same. It is irrefutable in the international scientific literature that coal dust causes serious illness. Successive Queensland governments have ignored this while approving coal mines and the transport of coal. In fact, in all chains of every aspect of coal production, delivery and use, public health is at risk. The key finding of this report is that: "There are clear indications from the international health research literature that there are serious health and social harms associated with coal mining and coal-fired power stations for people living in surrounding communities"(p3).
    [Show full text]
  • Introduction to Ctci Corporation
    CTCI/ Investor Relationship CTCI GROUP Our Vision The Most Reliable Global Engineering Service Provider Company Overview Business Operation Financial Highlights Looking Forward CTCI/ Investor Relationship 2 Introduction • The Largest Engineering, Procurement and Construction (“EPC”) Company in Taiwan -Over 50 years of industry experience (since the founder, CTCI Foundation set up in 1959) -2015 retained 1st in the category of EPC among Top 650 Service Enterprises(Common Wealth Magazine) • Offering Specialized Turn-key EPC Solutions -Ability to execute EPC contracts size over USD 1 billion -Expanded business lines from refinery, chemical and petrochemical into power, infrastructure, environmental protection, steel & nonferrous, storage & terminal, and waste-to-energy fields CTCI/ Investor Relationship • Significant Domestic and Overseas Experiences -Utilized the top-notch technologies transferred from abroad and has become a designated partner for many internationally well-known companies to collaborate with -Hundreds proven track records worldwide, including Taiwan, China, Thailand, Singapore, Malaysia, Vietnam, Philippines, Indonesia, India, KSA, Qatar and USA • One of Major EPC Firms in Asia -Global presence with approximately 7,000s employees stationed in more than 40s affiliates worldwide 3 Company Profile • History 1959 – China Technical Consultants, Inc. (now renamed as CTCI Foundation) established 1979 – CTCI Corporation founded by CTCI Foundation and two financial organizations 1993 – CTCI was listed in TWSE (9933 TT) 2011 – Chiyoda invested CTCI and became the major shareholder • Paid-in Capital ………………………………NTD 7.6 Billion (USD 229.9 Million)* • Market Cap……………………………………NTD 27.3 Billion (USD 0.8 Billion)* st CTCI/ Investor Relationship • Shareholder Structure(latest information as of 31 December , 2015) Local Institutional & Private Investors Foreign Institutional Investors 41.8% 58.2% *: Base date 31st Dec.
    [Show full text]
  • Enabling Clean-Coal Technologies in Emerging Asia Han Phoumin
    2015 Summit Working Paper Enabling Clean-Coal Technologies in Emerging Asia Han Phoumin Han Phoumin is an Energy Economist at the Economic Research Institute for ASEAN and East Asia (ERIA). This working paper was commissioned by the National Bureau of Asian Research (NBR) for the 2015 Pacific Energy Summit. The views in this paper are those of the author and do not necessarily reflect those of NBR or any other organization. 2015 Pacific Energy Summit – Working Paper - Han EXECUTIVE SUMMARY This working paper discusses the rapid increase of coal use in coal-fired power generation to meet growing electricity demand in emerging economies of the East Asia Summit region and calls for policies to support the dissemination of clean-coal technologies (CCT) to abate carbon dioxide (CO2) and greenhouse gas (GHG) emissions. Main Findings Coal will continue to be the dominant energy source for emerging Asia. In order to address rising electricity demand, emerging Asia will likely continue to build low-cost coal-fired power generation—low-efficiency coal-fired power plants. At the same time, compared with past decades, world leaders are taking climate change more seriously. The U.S. and China reached bilateral agreements to cooperate on clean energy development and mitigate GHG emissions, and the Obama administration has attempted to ban coal use abroad in order to abate CO2 and GHG emissions. Although the policy has its merits, it may force emerging Asia to seek non- OECD public financing, particularly from China, which is the largest coal public financier to emerging Asia. This scenario would result in the construction of less efficient coal-fired power plants, leading to increased CO2 and GHG emissions.
    [Show full text]
  • 主要工程實績major Experiences
    主要工程實績 Major Experiences 工程專案部 ① 目錄 EPC Project Department INDEX 製造專案部 ④ Fabrication Project Department 維修專案部 ⑧ Maintenance Project Department 工程專案部 主要實績 Major EPC Experiences 第 1 頁 工程專案部主要實績 (Major EPC Experiences) in processing 客戶/業主 專案名稱(中/英) 工作內容 年產量 製程 合約工期 client Project scope of work Capacity Procee Period 中鼎工程/GCGV GCGV 110萬乙二醇專案儀控人力支援工作 設計( E ) N/A N/A 2020/3-2020/6 CTCI Corp. / FG Corp. GCGV MEG Project Instrument control manpowe support Work 中鼎工程/美商福路 乙二醇專案, 前端設計服務,電機人力支援工作 設計( E ) N/A N/A 2019/8-2020/3 CTCI Corp. / FG Corp. EG-1 Project Manpower Support Work 中鼎工程/台灣中油 台灣中油 第三座液化天然氣接收站儲槽製造工作 製造與建造 N/A N/A 2019/02-2023/3 CTCI Corp. / CPC Corp. CPC Third LNG Receiving Terminal Tank Mechanical Work (F+C) 福懋油脂 台中港區廠房暨四號碼頭新建EPC統包工作 統包(EPC) N/A N/A 2019/1-2021/04 FOPCO Taichung Harbor Oil Refinery Plant EPC Work 中鼎工程/華運倉儲 華運倉儲大林石化油品中心設備人力支援工作 設計( E ) N/A N/A 2019/01-2021/5 CTCI Corp. / CGTD Corp. Talin Tank Farm Project, Equipment Manpower Support Work 中鼎工程/台灣中油 桃園市生質能中心BOT專案結構細部設計工作 設計( E ) N/A N/A 2019/01-2019/10 CTCI Corp. / CPC Corp. Taoyuan Biomass Center BOT Structure Detail Design Work 中鼎工程/台灣電力 TPC大潭電廠Stage-I及南部火力電廠壓力檢測工作 設計( E ) N/A N/A 2018/10-2019/07 CTCI Corp. / TPC Corp. TPC Dah-Tarn Pressure Testing Work 台灣中油股份有限公司 台灣中油煉製事業部中小工程零星設計繪圖工作(107-1) 設計( E ) N/A N/A 2018/11-2020/11 CPC Corp. CPC Refining Division Design and Drawing Work (107-1) 中鼎工程/中科院 中科院藥線遷建案電機設計工作 設計( E ) N/A N/A 2018/9-2019/12 CTCI Corp.
    [Show full text]
  • Taiwan Power Company Sustainability Report
    Taiwan Power Company Sustainability Report Taiwan Power Company Sustainability Report Energy Conservation and Carbon Reduction . Smart Grid . Innovation Editorial Policy This is the sixth issue of the annual Sustainability Report published by the Taiwan Power Company ("Taipower"). This edition of the report follows the G3.1 guidelines of the Global Reporting Initiative (GRI) as well as the accountability principle standard (APS) set forth in AA 1000 APS (2008). The information compiled and disclosed here is based on three principles: inclusivity, materiality and responsiveness. The focus of Taipower Sustainability Report 2012 is on “Sustainability Issues". The purpose of this report is to demonstrate to the public and the stakeholders Taipower's dedication and achievements in the management and implementation of sustainability through the following 3 aspects: management economy, social responsibility, and environmental sustainability. Period Covered by the Report From January 1 to December 31, 2011 (for the sake of complete disclosure, some major issues in this report also cover data in 2010 and part of 2012). Scope of the Report This report contains data and information regarding sustainability issues and achievements within the areas of management economy, social responsibility, and environmental sustainability. Taipower has voluntarily adopted the GRI G3.1 Guidelines and AA 1000 standard for the preparation of this report and this report has been confirmed by SGS-Taiwan to conform to GRI level A+ requirements. Inquiries This report is available in both Chinese and English. The complete report (in the PDF format) can be downloaded from the Taipower website (http://www.taipower.com.tw/). In addition, Taipower has a dedicated webpage of Sustainable Development to communicate with stakeholders about our performance in related sustainability issues.
    [Show full text]