ABSTRACT ZHOU, XIAOHU. Design and Control of Bi-Directional Grid

Total Page:16

File Type:pdf, Size:1020Kb

ABSTRACT ZHOU, XIAOHU. Design and Control of Bi-Directional Grid ABSTRACT ZHOU, XIAOHU. Design and Control of Bi-Directional Grid-Interactive Converter for Plug- in Hybrid Electric Vehicle Applications. (Under the direction of Dr. Alex Q. Huang). The plug-in hybrid electric vehicle (PHEV) is a promising technology which provides a sustainable approach to transportation that is easily accessible to a large portion of the population that already relies on gasoline-fueled cars. Although the larger scale adoption of plug-in hybrid vehicles is still years away, politicians, electric utilities, and auto companies are eagerly awaiting the opportunities that will arise from reduced emissions, reduced gasoline consumption, new electric utility services, increased revenues, and new markets that will lead to the creation of new jobs. In addition, the electrification of the transportation system would lead to the creation of new avenues for researchers. In the case of power electronics researchers, plug-in hybrid electric vehicles would provide a new candidate for energy storage. Because energy storage is a component of so called “smart grids,” a topic of growing interest to the power engineering research community, PHEVs could be incorporated as a vital part of such a system. However, to enable this functionality, a power electronics interface between the vehicle and grid is required. The motivation of this dissertation is to design a grid-interactive smart charger to enable PHEV as distributed energy storage device which will play an important role in smart grid applications. For grid-connection applications of the proposed converter, adaptive virtual resistor control is proposed to achieve high power quality for plug-in hybrid electric vehicles integration with various grid conditions. High frequency resonance poses a challenge to controller design and moreover the various impedances lead to the variation of the resonant frequency which will make the control design more complicated. The proposed controller behaves as a controllable resistor series with a filter capacitor but does not exist physically. It will be adjusted automatically based on grid conditions in order to eliminate high frequency resonance. For off-grid applications of the proposed converter, a new inductor current feedback controller based on active harmonic injection is proposed. An active harmonics injection loop is proposed to extract the harmonics from the load and add to the inductor current control loop. This method effectively improves the harmonics compensation capability for the inductor current feedback control and achieves a better output voltage with nonlinear loads. For a Solid State Transformer (SST) based smart grid with multiple plug-in hybrid electric vehicles, the instability issue is investigated. When the total demand power from the plug-in vehicles exceeds the capability of one SST, a new power management strategy is proposed in each vehicle to adjust its power demand in order to avoid voltage collapse of the SST. Gain scheduling technique is proposed to dispatch power to each vehicle based on battery’s state of charge. A comprehensive case study is conducted to verify the proposed method. The proposed method can be used as a power electronics converter level control to improve the stability of a solid state transformer. For the DC/DC stage of the proposed converter a high order filter is proposed to be placed between the battery and the converter. The objective is to reduce the filter size which will further reduce the system cost and volume. Another major goal is to largely attenuate the current ripple of the charging current which will yield ripple free charging for a battery. Ripple free charging will eliminate the extra heat generated by the current ripple and will increase the battery life. The new controller is proposed to resolve the potential instability issue resulting from the high order filter. The control loop design and robustness analyses are conducted. Design and Control of Bi-Directional Grid-Interactive Converter for Plug-in Hybrid Electric Vehicle Applications by Xiaohu Zhou A dissertation submitted to the Graduate Faculty of North Carolina State University in partial fulfillment of the requirements for the degree of Doctor of Philosophy Electrical Engineering Raleigh, North Carolina 2011 APPROVED BY: _______________________________ ______________________________ Dr. Alex Q. Huang Dr. Mo-Yuen Chow Committee Chair ________________________________ ________________________________ Dr. Subhashish Bhattacharya Dr. Srdjan Lukic ii DEDICATION To My Parents Lili Huang and Zhigang Zhou iii BIOGRAPHY The author, Xiaohu Zhou, was born in Harbin, China. He received the B.S. and the M.S. degree from Harbin Institute of Technology, Harbin, China in 2004 and 2006, respectively, both in electrical engineering. Since fall of 2006, he started to pursue a Ph.D. degree at Semiconductor Power Electronics Center (SPEC) and later National Science Foundation funded Engineering Research Center: Future Renewable Electric Energy Delivery and Management Center (FREEDM), Department of Electrical and Computer Engineering, North Carolina State University, Raleigh. iv ACKNOWLEDGMENTS I would like to express my sincere appreciation to my advisor Dr. Alex Q. Huang for his guidance, encouragement and support. Dr. Huang’s creative thinking, broad knowledge, insightful vision and warm character always inspires my work and study. To explore something new will always be rooted in my heart. Thank you for giving me this opportunity, I enjoy my study and work in FREEDM Systems Center very much. I am very grateful to my other committee members, Dr. Mo-Yuen Chow, Dr. Subhashish Bhattacharya and Dr. Srdjan Lukic for their valuable suggestion and helpful discussion during so many group and individual meetings. It is my great pleasure to work with you during these five years. I would like also to thank Dr. Gracious Ngaile for serving as the Graduate School Representative for my defense. I want to thank ERC program of the National Science Foundation and Advanced Transportation Energy Center for their financial support of my project and research. I would like to thank all the staff members at FREEDM Systems Center who provide an amazing environment for me to study and work. Special thanks go to Mr. Anousone Sibounheuang and Mrs. Colleen Reid for their help. I want to thank my student colleagues who have helped with many good discussions and gave me so many joyful times: Dr. Chong Han, Dr. Yan Gao, Dr. Bin Chen, Dr. Wenchao Song, Dr. Xiaojun Xu, Dr. Jinseok Park, Dr. Jeesung Jung, Dr. Yu Liu, Dr. Jun Wang, Dr. Jiwei Fan, Dr. Liyu Yang, Dr. Sungkeun Lim, Dr. Xin Zhou, Dr. Tiefu Zhao, Dr. Jun Li, Dr. Rong Guo, Dr. Xiaopeng Wang, Mr. Zhaoning Yang, Mr. Jifeng Qin, Mrs. Zhengping Xi, Mr. Sameer Mundkur, Mr. Zhigang Liang, Mr. Yu Du, Mr. Qian Chen, Mr. Gangyao Wang, v Mr. Xunwei Yu, Mr. Edward Van Brunt, Mr. Babak Parkhideh, Mr. Arvind Govindaraj, Mr. Sanzhong Bai, Mr. Zeljko Pantic, Mr. Xu She, Mr. Xingchen Yang, Mr. Yen-Mo Chen, Mr. Pochin Lin, my Project Partner Mr. Philip Funderburk, Mr. Zhuoning Liu, Miss. Zhan Shen, Miss. Mengqi Wang, Mr. Yalin Wang, Mr. Xing Huang, Mr. Li Jiang, Mr. Fei Wang, Mr. Kai Tan, Mr. Xiang Lu. Finally I want to give my heartfelt appreciation to my parents in China. You always encourage me to pursue my dreams and help me get through tough times. I am so grateful to you for your endless support, trust and love for all of these years. vi TABLE OF CONTENTS LIST OF TABLES ................................................................................................................... ix LIST OF FIGURES .................................................................................................................. x Chapter One Introduction ......................................................................................................... 1 1.1 Research Background: Plug-in Hybrid Electric Vehicles ....................................... 1 1.2 State of the Art of Technology ................................................................................ 7 1.2.1 Survey of SAE Standards for Battery Chargers ............................................ 7 1.2.2 Battery Charger Classifications .................................................................... 9 1.2.3 Bi-directional Charger Topology and Charging Station ............................. 12 1.2.4 Overview of Vehicle to Grid (V2G) Technology ....................................... 15 1.3 Research Motivation: Enable Integration of Distributed Energy Storage Devices (Plug-in Hybrid Electric Vehicles) with Smart Grid ...................................................... 16 1.4 Contributions and Dissertation Outline ................................................................. 19 Chapter Two Design a Grid-Interactive Converter for Plug-in Hybrid Electric Vehicles ......... .......................................................................................................................................... 23 2.1 Definition of Grid-Interactive Converter .............................................................. 23 2.2 Topology Selection of Proposed Grid-Interactive Converter ................................ 25 2.3 Power Stage Design of Proposed Converter ......................................................... 29 2.3.1 Passive Components Design ....................................................................... 29 2.3.2 Efficiency Test ............................................................................................ 34 2.4
Recommended publications
  • Electric Vehicle Infrastructure for the Monterey Bay Area the Associa on of Monterey Bay Area Governments August 2013
    E V Electric Vehicle Infrastructure for the Monterey Bay Area The Associa on of Monterey Bay Area Governments August 2013 The prepara on of this document was funded by a grant awarded by the Monterey Bay Unifi ed Air Pollu on Control District (MUAPCD), as part of the AB2766 program. Project Staff Alan Romero, Monterey Bay Unifi ed Air Pollu on Control District (MBUAPCD) AMBAG Dawn Mathes, Monterey County Resource Management Agency (RMA) Paul Hierling, Planner Carl P. Holm, Monterey County RMA Cody Meyer, Planner Craig Spencer, Monterey County RMA Anais Schenk, Planner Mario Salazar, Monterey County RMA Jason Adelaars, GIS Michael Ricker, City of Salinas Ecology Ac on Veronica Lezama, San Benito Council of Piet Canin, Vice President, Transporta on Governments Group Tegan Speiser, Santa Cruz County RTC Emily Glanville, Program Specialist Michael Zeller, TAMC Monterey Bay Unifi ed Air James Wasserman, Zero Motorcycles, Plug- Pollu on Control District In America Alan Romero, Air Quality Planner III Megan Tolbert, CSU Monterey Bay EV Communi es Alliance Piet Canin, Ecology Ac on Richard Corcoran, PEV Owner Richard Schorske, CEO Teresa Buika, UC Santa Cruz Previous staff contributors Richard Schorske, EV Communi es Alliance John Doughty Randy Deshazo, Principal Planner Linda Meckel, Planner, Project Manager MBEVA Plug-In Electric Vehicle Coordina ng Council Sharon Sarris, Green Fuse Energy Kris Markey, Offi ce of Monterey County Supervisor Parker Andy Hartmann, Interna onal Brotherhood of Electrical Workers Cheryl Schmi , City of Santa Cruz For more informa on regarding this study, contact Anais Schenk at [email protected] 2 E V Electric Vehicle Infrastructure for the Monterey Bay Area Execu ve Summary..............................................................................................................................................
    [Show full text]
  • [En]=> (LV-CAN200)
    [en]=> (LV-CAN200) year program № from Rear right door Total CNG use CNG level (in kilograms) Ignition Engine is working on CNG Front left door Front right door Rear left door Trunk cover Engine cover (Hood) Charging cable connected Charging the battery Electric engine working Oil pressure / level Washer fluid level indicator turned Low AdBlue level Total mileage of the vehicle (dashboard) Vehicle mileage - (counted) Total fuel consumption Total fuel consumption - (counted) Fuel level (in percent) Fuel level (in liters) Engine speed (RPM) Engine temperature Vehicle speed Acceleration pedal position Total CNG consumption - (counted) CNG level (in percent) 1 ABARTH 124 SPIDER 2016 → 12259 2020-06-30 + + + + + + + + + + + + + + 2 ABARTH 595 2016 → 12687 2019-05-30 + + + + + + + + + + + + + + 3 ABARTH 695 2017 → 12687 2019-05-30 + + + + + + + + + + + + + + 4 ACURA RDX 2010 → 11113 2017-09-01 + + + + + + + + + + + + + + + + 5 ACURA RDX 2007 → 11113 2017-09-01 + + + + + + + + + + + + + + + + 6 ACURA TL 2004 → 11167 2017-09-01 + + + + + + + + + + + + 7 ACURA TLX 2015 → 12363 2019-05-19 + + + + + + + + + + + + + + + + 8 ACURA TSX 2009 → 12578 2019-01-16 + + + + + + + + + + + + + + + + 9 ACURA TSX 2004 → 11167 2017-09-01 + + + + + + + + + + + + 10 ALFA ROMEO 159 2005 → 11128 2017-09-01 + + + + + + + + + + + + + + 11 ALFA ROMEO BRERA 2008 → 11128 2017-09-01 + + + + + + + + + + + + + + 12 ALFA ROMEO GIULIA 2017 → 12242 2019-05-22 + + + + + + + + + + + + + + + 13 ALFA ROMEO GIULIETTA 2013 → 11127 2019-04-10 + + + + + + + + + + + + + + 14 ALFA ROMEO
    [Show full text]
  • Hybrid and Electric Vehicles the ELECTRIC DRIVE PLUGS IN
    Hybrid and Electric Vehicles THE ELECTRIC DRIVE PLUGS IN June 2011 www.ieahev.org International Energy Agency Implementing Agreement for co-operation on Hybrid and Electric Vehicle Technologies and Programmes Hybrid and Electric Vehicles The Electric Drive Plugs In June 2011 The IA-HEV, also known as the Implementing Agreement for co-operation on Hybrid and Electric Vehicle Technologies and Programmes, functions within a framework created by the International Energy Agency (IEA). Views, findings and publications of IA-HEV do not necessarily represent the views or policies of the IEA Secretariat or of all its individual member countries. Cover Photo: 2011 Nissan Leaf SL 4dr Hatchback The electric drive plugs in. Cover designer: Kizita Awuakye, New West Technologies, LLC ii www.ieahev.org International Energy Agency Implementing Agreement for co-operation on Hybrid and Electric Vehicle Technologies and Programmes Annual report of the Executive Committee and Task 1 over the year 2010 Hybrid and Electric Vehicles The Electric Drive Plugs In Concept and editing: Kristin Abkemeier (Operating Agent Task 1, New West Technologies, LLC) Co-editing: Alison Mize (New West Technologies, LLC), Richard Todaro (New West Technologies), and Martijn van Walwijk (IA-HEV secretary-general) Design and layout: Kizita Awuakye (New West Technologies, LLC) Contributing authors: Kristin Abkemeier New West Technologies, LLC USA Dick Appels Agentschap NL The Netherlands James Barnes DOE USA David Beeton Urban Foresight United Kingdom Carol Burelle NRCan Canada Mario Conte ENEA Italy Isobel Davidson NRC Canada Jørgen Horstmann Consultant Denmark Christina Ianniciello BC Ministry of Energy and Mines Canada Ulf Jonson Swedish Energy Agency Sweden Sigrid Kleindienst Solarcenter Muntwyler AG Switzerland B.J.
    [Show full text]
  • Resetting Responsibilities Rethinking the Meaning of Responsibility
    Kia Motors Sustainability Magazine 2012 Special Feature Resetting Responsibilities Rethinking the meaning of responsibility Review: Challenges & Opportunities Discovering new opportunities and responsibilities amidst global challenges Reduce, Reuse, Recycle Renovating for Energy Minimizing use, maximizing reuse Efficiency Technological advances for enhanced efficiency Reshaping the Future Reinventing Ourselves Automotive evolution toward zero Casting new light on possibilities and emissions competencies Contents Sustainability Overview 02 Kia around the World Contact Us 04 CEO Message 18 Special Feature Review: Challenges & Opportunities Special Feature Supervisory Board of the Sustainability Economy Society 06 06 Resetting Responsibilities Gui-Hyun Choi Min-Su Park Suk-Jin Choi In 2012 MOVE, Kia Motors’Director, Management2011 activities Strategy Group and Manager, Management Strategy Team Assistant Manager, Human Resources Administration Team Goan-Soo Shin Dae-Jung Kim Dong-Woo Shin achievements are organizedGeneral Manager, by key CSR global Environmental chal Management- Team Deputy General Manager, Management Strategy Team Assistant Manager, Procurement Planning & Strategy Team lenges and issues. ‘Review:Chang-Muk Challenges Choi & Op- Seok-Kee Baik Hyun-Seok Chae General Manager, CSR Environmental Management Team General Manager, Global Planning Team Deputy General Manager, HRD Planning Team 14 Coordination & Regulation portunities’ outlines ourKeuk-Jin commitment Bang to corpo- Jong-Lyoul Jang Nam-Kyu Kim rate citizenship and ourDeputy
    [Show full text]
  • [En]=> (LV-CAN200)
    [en]=> (LV-CAN200) year program № from Engine is working on CNG Front left door Front right door Rear right door Trunk cover Oil pressure / level Total mileage of the vehicle (dashboard) Total fuel consumption Fuel level (in percent) Fuel level (in liters) Engine temperature Vehicle speed Acceleration pedal position Total CNG consumption - (counted) CNG level (in percent) CNG level (in kilograms) Rear left door Engine cover (Hood) Vehicle mileage - (counted) Total fuel consumption - (counted) Engine speed (RPM) Total CNG use 1 ABARTH 124 SPIDER 2016 → 12259 2020-06-30 + + + + + + + + + + + + + 2 ABARTH 595 2016 → 12687 2019-05-30 + + + + + + + + + + + + + 3 ABARTH 695 2017 → 12687 2019-05-30 + + + + + + + + + + + + + 4 ACURA RDX 2010 → 11113 2017-09-01 + + + + + + + + + + + + + + + 5 ACURA RDX 2007 → 11113 2017-09-01 + + + + + + + + + + + + + + + 6 ACURA TL 2004 → 11167 2017-09-01 + + + + + + + + + + + 7 ACURA TLX 2015 → 12363 2019-05-19 + + + + + + + + + + + + + + + 8 ACURA TSX 2009 → 12578 2019-01-16 + + + + + + + + + + + + + + + 9 ACURA TSX 2004 → 11167 2017-09-01 + + + + + + + + + + + 10 ALFA ROMEO 159 2005 → 11128 2017-09-01 + + + + + + + + + + + + + 11 ALFA ROMEO BRERA 2008 → 11128 2017-09-01 + + + + + + + + + + + + + 12 ALFA ROMEO GIULIA 2017 → 12242 2019-05-22 + + + + + + + + + + + + + + 13 ALFA ROMEO GIULIETTA 2013 → 11127 2019-04-10 + + + + + + + + + + + + + 14 ALFA ROMEO GIULIETTA 2010 → 11127 2017-09-01 + + + + + + + + + + + + + 15 ALFA ROMEO GT 2005 → 11128 2017-09-01 + + + + + + + + + + + 16 ALFA ROMEO MITO 2014 → 11127 2017-09-01
    [Show full text]
  • Resetting Responsibilities Rethinking the Meaning of Responsibility
    Kia Motors Sustainability Magazine 2012 Special Feature Resetting Responsibilities Rethinking the meaning of responsibility Review: Challenges & Opportunities Discovering new opportunities and responsibilities amidst global challenges Reduce, Reuse, Recycle Renovating for Energy Minimizing use, maximizing reuse Efficiency Technological advances for enhanced efficiency Reshaping the Future Reinventing Ourselves Automotive evolution toward zero Casting new light on possibilities and emissions competencies Contents Sustainability Overview 02 Kia around the World Contact Us 04 CEO Message 18 Special Feature Review: Challenges & Opportunities Special Feature Supervisory Board of the Sustainability Economy Society 06 06 Resetting Responsibilities Gui-Hyun Choi Min-Su Park Suk-Jin Choi In 2012 MOVE, Kia Motors’Director, Management2011 activities Strategy Group and Manager, Management Strategy Team Assistant Manager, Human Resources Administration Team Goan-Soo Shin Dae-Jung Kim Dong-Woo Shin achievements are organizedGeneral Manager, by key CSR global Environmental chal Management- Team Deputy General Manager, Management Strategy Team Assistant Manager, Procurement Planning & Strategy Team lenges and issues. ‘Review:Chang-Muk Challenges Choi & Op- Seok-Kee Baik Hyun-Seok Chae General Manager, CSR Environmental Management Team General Manager, Global Planning Team Deputy General Manager, HRD Planning Team 14 Coordination & Regulation portunities’ outlines ourKeuk-Jin commitment Bang to corpo- Jong-Lyoul Jang Nam-Kyu Kim rate citizenship and ourDeputy
    [Show full text]
  • E-Mobility Index Q3 2015
    STUDY E-Mobility Index Q3 2015 Roland Berger – Automotive Competence Center & Forschungsgesellschaft Kraftfahrwesen mbH Aachen September 2015 E-MOBILITY INDEX Q3 2015 1 Key takeaways from the E-Mobility Index for Q3 2015 > While the competitive situation in respect of industry remains largely unchanged, France has taken the lead in terms of technology. With regard to the market, Japan has dropped from second to fourth place, and growth in the USA has also slowed significantly. France has increased its lead still further, while Germany has moved into third place on the back of strong growth. However, the average market share of xEVs in the seven leading automotive nations is stagnating at below 1%. > The lack of coherent sales concepts is partly responsible for the weak sales figures. OEMs are not doing enough to win customers over to BEVs and PHEVs. Strategies are lacking for creating lasting incentives for dealers to sell low-emission vehicles. > xEVs are still underperforming on key customer criteria, especially range. Besides developing a new generation of cells with higher energy density, considerable savings are possible by reducing the energy consumption of auxiliary electric devices, especially in the area of climate control. 2 Summary comparison of the competitive positions of the world's seven leading automotive nations In terms of technology, France has overtaken Japan and is now in pole position. Behind this improvement lies a shift in the model mix of French OEMs in favor of smaller BEVs that offer good value for money. Japan is losing out by comparison because its OEM product portfolios exhibit only marginal technical development in the medium term.
    [Show full text]
  • Electric Vehicle Program in Korea
    Electric Vehicle Program in Korea Dr. Chung Youl, Lee 1. Introduction Why supply of electric vehicle is needed? Rise of oil Price, Limited resource : Oil by 40 & Gas by 58 years (World Resource Institute) Greenhouse gases emissions : Transport accounted for 17 % (78.2 % as Road transport) (Greenhouse Gas Information Center) Carcinogenicity of diesel emission : change in dangerous Index (2A → 1st, 06. 2012) ( WHO IARC) *1st : Sufficient material that can lead to cancer 1 1. Introduction However, is it dissatisfied with supply of eco friendly cars? • Because of eco friendly cars, is it OK even expensive? * Size like as small car, but price as much expensive as mid or full size car. When Eco-friendly c ars will be supplied more cheaper? • Because of eco friendly cars, is it OK even uncomfortable? * When we do not worried about concerning such as anxiety about technology, lack of infrast ructure and recharging? • When the timely development of eco friendly cars? Now or after preparing for development and economics? * Do you think that environment will be improved though few eco-friendly cars are supplied? So, It is important that the leading role and support of government for supply of eco friendly cars 2 2. Status of Korea’s Vehicle Market Under continuous growth, but it still requires support! • Continuous growth in domestic automobile • The major eco-friendly vehicle is Hybrid market * account for 3 % in total sales of vehicle (2012) * 12 (1970) ⇒ 53 (1980) ⇒ 339 (1990) ⇒ 1,205 • Launch electric vehicle and fuel cell vehicle recently (2000) ⇒ 1,887 (2012) (Unit : 10 thousand) ~2005 2006 2007 2008 2009 2010 2011 2012 Hybrid CNG EV 1970 1980 1990 1995 2000 2005 2010 2012 (단위 :[ 대Registration) status of eco-friendly vehicle] [Sales status of eco-friendly vehicle] 3 1.
    [Show full text]
  • Quattro Freni Qf40d00006
    QUATTRO FRENI QF40D00006 ПОДШИПНИК ПЕРЕДНЕЙ СТУПИЦЫ КОМПЛЕКТ CROSS-REFERENCE: 5172002000, 517201C000, 5172025000, 5172029100, 5172029150, 5172029400, 5172029300 Характеристики: Применяемость HYUNDAI ACCENT I (X-3) 1.5 i 16V 12.1995 - 01.2000 HYUNDAI ACCENT I (X-3) 1.5 i 12V 10.1994 - 01.2000 HYUNDAI ACCENT I (X-3) 1.5 16V 10.1994 - 01.2000 HYUNDAI ACCENT I (X-3) 1.3 i 12V 10.1994 - 01.2000 HYUNDAI ACCENT I (X-3) 1.3 10.1994 - 01.2000 HYUNDAI ACCENT II (LC) 1.6 12.2002 - 11.2005 HYUNDAI ACCENT II (LC) 1.6 01.2000 - 11.2005 HYUNDAI ACCENT II (LC) 1.5 CRDi 04.2002 - 11.2005 HYUNDAI ACCENT II (LC) 1.5 09.1999 - 10.2002 HYUNDAI ACCENT II (LC) 1.5 09.2000 - 11.2005 HYUNDAI ACCENT II (LC) 1.5 01.2000 - 11.2005 HYUNDAI ACCENT II (LC) 1.5 01.2000 - 10.2002 HYUNDAI ACCENT II (LC) 1.3 08.2002 - 11.2005 HYUNDAI ACCENT II (LC) 1.3 01.2000 - 11.2005 HYUNDAI ACCENT II седан (LC) 1.6 12.2002 - 11.2005 HYUNDAI ACCENT II седан (LC) 1.5 LPG 01.2000 - 12.2006 HYUNDAI ACCENT II седан (LC) 1.5 CRDi 01.2002 - 11.2005 HYUNDAI ACCENT II седан (LC) 1.5 01.2000 - 11.2005 HYUNDAI ACCENT II седан (LC) 1.5 09.1999 - 10.2002 HYUNDAI ACCENT II седан (LC) 1.5 01.2000 - 12.2006 HYUNDAI ACCENT II седан (LC) 1.3 01.2000 - 11.2005 HYUNDAI ACCENT III (MC) 1.6 GLS 11.2005 - 11.2010 HYUNDAI ACCENT III (MC) 1.5 CRDi GLS 11.2005 - 11.2010 HYUNDAI ACCENT III (MC) 1.4 GL 11.2005 - 11.2010 HYUNDAI ACCENT III седан (MC) 1.6 GLS 11.2005 - 11.2010 HYUNDAI ACCENT III седан (MC) 1.5 CRDi GLS 11.2005 - 11.2010 HYUNDAI ACCENT III седан (MC) 1.4 GL 11.2005 - 11.2010 HYUNDAI ACCENT седан
    [Show full text]
  • Mobility 2025 and Beyond
    eMobility in Europe: Status and outlook 1. Fachtagung "e-mobil in niederösterreich" S. Pölten, March 4, 2015 Contents A. Drivers for Powertrain Electrification 3 B. Status eMobility (eMobility Index Q3/14) 9 C. Trends 2020..2025 19 This document shall be treated as confidential. It has been compiled for the exclusive, internal use by our client and is not complete without the underlying detail analyses and the oral presentation. It may not be passed on and/or may not be made available to third parties without prior written consent from Roland Berger Strategy Consultants. RBSC does not assume any responsibility for the completeness and accuracy of the statements made in this document. © Roland Berger Strategy Consultants Status-eMobility-2015-03-04.pptx 2 A. Drivers for powertrain electrification Status-eMobility-2015-03-04.pptx 3 A Drivers for Powertrain Electrification eMobility is driven by customer "Pull" and regulatory "Push" Importance of xEVs 2020 and 2025 high Driven by Customer pull Need for xEVs Regulatory push low ~2020 ~2025 Source: Roland Berger Status-eMobility-2015-03-04.pptx 4 5 A Drivers for Powertrain Electrification Europe will drive the global powertrain electrification – Long term cost competitiveness of xEVs generates additional market pull Regional powertrain trends (illustrative) 2015 2020 2025 Importance 75 g/km (73 94 g/km (58 PHEV platforms mpg) mpg) Flexible powertrain Next gen. Li-Ion Cost architectures 48V batteries competitive next xEV Importance 17 km/l (40 20 km/l (48 mpg) mpg) 2025 standards Cost innovation xEV not yet defined xEV city driving Cost competitive xEV Importance 41 mpg 54 mpg Cost competitive xEV Importance 13 th 5-Year-Plan High efficient ICE xEV Customer pull Technology innovation Milestones framework Page 5 Source: Roland Berger Status-eMobility-2015-03-04.pptx 5 A Drivers for Powertrain Electrification Regulatory requirements push improvements in most regions – In Europe, NA and Japan, there is also a strong customer pull Assessment CO2 emission/fuel consumption regulation and customer pull 2) 4) .
    [Show full text]
  • Hybrid/Electric Drive Vehicles
    Hybrid/Electric Drive Vehicles Fairfax, Virginia March 23, 2011 This workshop made possible through support from the U.S. Department of Energy and partners. Materials for the Clean Transportation Education Project were developed by the NC Solar Center/NC State University and partners with funding from the U.S. Dept of Energy Clean Cities program. The U.S. Government does not assume any legal liability, responsibility for the accuracy, completeness, or usefulness of any information provided, nor endorse any particular product through this support. Topics to be covered today • Review of hybrid technology • Plug in and EV technology overview • Charging technology • Range anxiety • New models coming to market • Heavy duty hybrids Technology Transportation is becoming a mix of technologies taking us toward sustainability through fuel economy (efficiency), advanced power-trains and idle reduction 3 The Future of Transportation Hybrids & Electric Vehicles!! 4 What is a Hybrid Electric Vehicle? • A hybrid is a vehicle powered by two or more power- sources of differing technologies, drawing on the key benefits of each power-source to maximize efficiency - Typically an internal combustion engine (ICE) and one or more electric motors - The ICE can be powered by gasoline or diesel or alternative fuels - A fuel cell can be used in place of the ICE • Hybrids also carry two or more sources of energy- liquid fuel for the ICE and battery pack for electrical storage 5 2000 Honda Insight • First hybrid vehicle available to consumers in the United States • The InsightPhoto Courtesy Carquest carried an EPA rating of 70 MPG hwy. 61 city Courtesy of Honda Motor Sales, U.S.A 6 Hybrid Terminology-Components Full Hybrid = These have two Motor/Generators, Battery Pack, DC/DC Converter, Inverter, Converter & Control Electronics • Battery acts as a storage medium for electricity.
    [Show full text]
  • Exploration & Production (E&P)
    01 Corporate Information | SKMS | Our Commitment | Corporate Governance | At a Glance | Business Value Chain | SK innovation & Subsidiaries SK innovation Exploration & Production (E&P) SK innovation is actively engaged in Exploration and Production (E&P) business around the world, participating in 16 production blocks and four LNG projects in 11 countries as of the end of December 2015. SK innovation’s production blocks in countries such as Peru and Vietnam produce approximately 63 thousand barrels of oil equivalent per day (BPD). With the proven reserves totaling 550 million BPD or the equivalent of an eight-month supply for Korea, SK innovation is helping Korea secure energy resources and contributing to its economic growth. Overview of Blocks Foum Assaka SK Plymouth 04/20 SK Permian 17/03 NC174 15-1 Yemen LNG 15-1 / 05 Oman LNG 8 S 123 Ras Laffan LNG 88(Camisea) WA 34R Peru LNG WA 425P 56 Z-46 LNG Projects Exploration Blocks Production Blocks Country Project Name Participating Country Block Name Participating Country Block Name Participating Since Since Since Yemen Yemen LNG 1997 Morocco Foum Assaka 2013 Libya NC174 2000 Oman Oman LNG 1996 Vietnam 15-1/05 2007 U.S SK Plymouth 2014 Qatar Ras Laffan LNG 1999 123 2008 SK Permian 2014 Peru Peru LNG 2003 Equatorial Guinea S 2009 Vietnam 15-1 1998 Australia WA 34R 1998 Peru 8 1996 WA 425P 2009 88 (Camisea) 2000 China 04/20 2015 56 2004 17/03 2015 Peru Z-46 2008 16 SK innovation Sustainability Report 2015 01 Corporate Information | SKMS | Our Commitment | Corporate Governance | At a Glance | Business Value Chain | SK innovation & Subsidiaries Vietnam Overview After acquiring exploration rights in Block 15-1 in Vietnam, SK innovation carried out exploration of Major and development for five years and started production in 2003.
    [Show full text]