Toyota Environmental Challenge 2050

Similar documents
TOYOTA s Electrification Roadmap

H 2 : Our path to a sustainable society

Toyota s View on the Future Powertrain

HYDROGEN. Turning up the gas. Jon Hunt. Manager Alternative Fuels TOYOTA GB CCS HFC 2019

Fuel Cell Vehicle Development and Initial Market Creation

Toyota s Vision of Fuel Cell Vehicle Akihito Tanke

Eco-Mobility 2025 plus Vienna, On the road to a sustainable mobility

Technology Development towards Sustainable Mobility

11.9% Challenge 1 New Vehicle Zero CO 2 Emissions Challenge. Developing Technologies to Achieve the Leading Fuel Efficiency Performance

High Efficiency SiC Power Semiconductor. May 20, 2014 Toyota Motor Corporation

Toyota. Stephen Stacey - General Manager Arjan Dijkhuizen - Senior Engineer. Government & Technical Affairs Toyota Motor Europe TOYOTA MOTOR EUROPE

Session-III: Mobile Applications (Automotive / Material Handling)

Toyota s Initiatives for Realizing Sustainable Mobility. September 5, 2008 Kazuo Okamoto Toyota Motor Corporation

THE FUTURE DIRECTION OF THE ELECTRIFIED VEHICLE UTILIZING OF BIG DATA

The application of SiC on vehicles and its future

New Vehicle Zero CO₂ Emissions Challenge

Energy Demand & World Oil Production : Forecast. World Oil Production by Source

Challenges for Sustainable Mobility. Toyota Business Strategy Meeting 2007

Pathways to Sustainable Mobility

What the Future Holds for Automotive Powertrains

Yoichi Iida Chief Representative NEDO Europe. 15 June, 2010

[Overview of the Consolidated Financial Results]

Providing Choices for Sustainable Mobility. Takehito Yokoo Toyota Motor Engineering & Manufacturing North America, Inc.

Koji Toyoshima. Toyota Motor Corporation. Toyota Media Tour 2015 Tokyo Motor Show. Chief Engineer / Product Planning Div.

National Engineering 2017: SMART CAR 4.0. Ninnart Chaithirapinyo. Toyota Motor Thailand Co., Ltd. November 16, 2017

Toyota s s 5 year Environmental Action Plans: a case study

Future Automotive Power-trains Does hybridization enable vehicles to meet the challenge of sustainable development?

An approach to the sustainable mobility

ALTERNATIVE ENERGIES AND IMPACT ON STATION OF THE FUTURE. Edouard BOURDIN

Creating Innovation Conducive to Energy and the Environment By Takeshi Uchiyamada Chairman of Toyota Motor Corporation

Q. Is it really feasible to produce a car that offers advanced performance features while also preserving the environment?

The Future By TOYOTA. May 2012 UNION MOTORS LTD.

INNOVATION FROM THE PERSPECTIVE OF AN AUTOMOTIVE SUPPLIER

The Electrification of the Powertrain at Honda, an approach towards sustainable mobility

Analysis of CO2 Emissions to Consider Future Technologies and Integrated Approaches in the Road Transport Sector

Reducing CO2 Emissions in Road Transport Sector

The xev Industry Insider Report

Honda Clarity Fuel Cell HyLAW National Workshop, Budapest, 27. September 2018

Stephen Ellis. Manager Fuel Cell Vehicle Marketing American Honda Motor Co., Inc.

217 IEEJ217 Almost all electric vehicles sold in China are currently domestic-made vehicles from local car manufacturers. The breakdown of electric ve

Toyota s Hybrid Technology. Yoshihiro Onomura General Manager, Planning & Administration Dept. Hybrid Vehicle Engineering Management Div.

Daimler's perspective on alternative propulsion systems and the new Mercedes GLC F-CELL. Dr. rer. nat. Jörg Wind Daimler Group, Kirchheim/Teck-Nabern

A portfolio of power-trains for Europe: a fact-based analysis

Economic Development Benefits of Plug-in Electric Vehicles in Massachusetts. Al Morrissey - National Grid REMI Users Conference 2017 October 25, 2017

New Powertrain Units Based on TNGA

Initiatives for Strengthening Competitiveness of Powertrain Business

AUDI SUSTAINABILITY PROGRAM

The Future of Automobiles in 2035

Impacts of Weakening the Existing EPA Phase 2 GHG Standards. April 2018

Details emerge of new engine, batteries and much more for the 4th-generation Prius

WHEN ARE FUEL CELLS COMPETITIVE? Hans Pohl, Viktoria Swedish ICT AB Bengt Ridell, SWECO AB Annika Carlson, KTH Göran Lindbergh, KTH

LINAMAR Success in a Rapidly Changing Automotive Industry

fuel cell systems for the automotive sector

Electricity Supply System from Nissan LEAF Battery to Houses: LEAF to Home

Toyota Media Tour 2015 Tokyo Motor Show Toyota s More Efficient Powertrain

The xev Industry Insider Report

Future Powertrain Technology for the North American Market: Diesel & Hydrogen

Chapter 3 Promising Solutions for Reduced CO 2 Emissions from Automobiles

Presentation on the acquisition of Torqeedo GmbH: On our way to becoming market leader for innovative drive systems

The Japanese policy and NEDO activity for future mobility

CO2 Reduction in Transportation (Automobile)

Director, Global Warming Prevention Division, Aichi Prefectural Government. Nobuhiro Ito

The Path to Low Carbon Passenger Vehicles

Content. Global Market Outlook Electrification of Heavy Transport - market and technology perspectives. Sten Bergman StonePower AB

The path to electrification. April 11, 2018

2010 Advanced Energy Conference. Electrification Technology and the Future of the Automobile. Mark Mathias

EV, fuel cells and biofuels competitors or partners?

JEE4360 Energy Alternatives

Future trends on critical materials. Patrick Koller June 2018

WG2: Fuel Cell Vehicles WG. Chairperson Prof. Yoichi Hori (The University of Tokyo) Leader Hidemi Onaka (Toyota Motor Corporation)

Global EV Outlook 2017 Two million electric vehicles, and counting

E-mobility opportunities & challenges 1st Green Manufacturing Summit Sectoral Case Automotive. New Dehli, 18 March, 2011

Environmental Friendly Power Creates Hassle-free Driving for a Green City First Ever Toyota Plug-in Hybrid Comes to Hong Kong for Government Testing

Worldwide Sales of Toyota Hybrids Top 6 Million Units

Future Lithium Demand in Electrified Vehicles. Ted J. Miller

Pioneering high volume low carbon vehicle production in the UK

Recent Development of Fuel Cell Vehicles and Related Issues in Japan

Chris Pick. Ford Motor Company. Vehicle Electrification Technologies and Industry Approaches

CHAPTER 8 TRANSPORTATION ENERGY TECHNOLOGIES

THE ELECTRIC VEHICLE REVOLUTION AND ITS IMPACT ON PEAK OIL DEMAND

Mr. Akihito TANKE Toyota Motor Europe

Diverse and Dynamic Automotive Propulsion landscape and it s impact on adoptions of Electric vehicles

POWERTRAIN SOLUTIONS FOR ELECTRIFIED TRUCKS AND BUSES

Toyota s Perspective of European Electromobility

FIA FORMULA E CHAMPIONSHIP VALUE CREATION & SUSTAINABILITY REPORT by EY

Future Low Carbon Vehicles

GHG Emissions and Oil Consumptions from Transportation Sectors in US and China - Current Status and Future Trend

Toyota Project PORTAL [Port Advanced Leadership]

Toyota Mirai Fuel Cell Saloon

Volkswagen Group of America Virginia Energy Conference Session 30: Fossil Fuels Diesel Developments Presented by Stuart Johnson, Engineering and

FUTURE AND MOBILITY A GLIMPSE OF FUTURE TRANSPORTS

The Future of Electric Cars - The Automotive Industry Perspective

Sustainable Solutions for Powering Transit Buses

Why Going EV Direction?

Electric cars: batteries of fuel cells?

Canada s Passenger Automobile and Light Truck Greenhouse Gas Emission Regulations for Model Years

Low Carbon Technologies - Focus on Electric Vehicles. 6 mars 2018 ADEME - French Agency for Environment and Energy Management

MECA0500: FUEL CELL - Part 2: Applications

Future perspectives for electric mobility

Alternative Powertrain and Challenges for Next Decade

Transcription:

Toyota Environmental Challenge 2050 1 Ever-better Cars Challenge 1,2 2 Ever-better Manufacturing 3 Enriching Lives of Communities

Challenge 1: New Vehicle Zero CO2 Emissions Challenge

Forecast international climate change Annual greenhouse gas emissions (1,000 Tg CO2 Eq./year) 140 120 Baseline scenario (+3.7~4.8 ) (RCP8.5) 100 80 60 40 20 Below 2 scenario (RCP2.6) 0 20 2000 2020 2040 2060 2080 2100 Full-scale initiatives to reduce CO2 emissions Zero or less Source: From the IPCC Working Group III 5th Assessment Report (2014) Regarding GHG emissions, there is no time to lose

Challenge 1: New Vehicle Zero CO2 Emissions Challenge Average new vehicle CO2 (TtW) 90% reduction 2010 2050 90% reduction of new vehicle CO2 emissions by 2050 compared to 2010

Development of next generation vehicles Sales Volume Engine HV PHV FCV EV 2010 2020 2050 Next generation vehicles to accelerate technological development to follow market expansion of HV

Cooperation with stakeholders Governments Energy suppliers New Vehicle Zero CO2 Challenge Customers Automotive companies New Vehicle Zero CO2 Challenge in cooperation with stakeholders

CO2 reduction initiatives Energy saving Engine Reduced use of fossil fuels HV CO2 PHV reduction Energy diversity EV Renewable energy CO2-free hydrogen FCV Short-mid term to promote energy saving

Powertrain with improved efficiency Improved (%) Engine thermal efficiency Diesel Hybrid Gasoline thermal efficiency 1995 2000 2005 2010 2015 2050 Aiming for further engine improvement in thermal

HV: Lineup Compact Medium Large/ Premium SUV Minivan Commercial HV lineups for all categories

HV: Sales Cumulative (million) 9 Sales (per year) 8 million Per year (million) 1.8 8 Sales (cumulative) 1.6 7 1.4 6 1.2 5 5 M 1.0 4 3 3 M 0.8 0.6 2 1 1 M 0.4 0.2 0 0 1997 1999 2001 2003 2005 2007 2009 2011 2013 2015 (January to July) More than 8 million HVs in world wide cumulative sales in 2015

HV: Sales Cumulative (million) 9 8 7 6 5 4 3 2 1 Sales (per year) Sales (cumulative) 1 M 0 0 1997 1999 2001 2003 2005 2007 2009 2011 2013 2015 (January to July) 0 0 3 M 5 M 8 million Per year (million) 1.8 1.6 1.4 1.2 1.0 0.8 0.6 0.4 0.2 10 20 30 40 50 CO2 reduction amount (per year) CO2 reduction amount (cumulative) 2 4 6 8 10 60 Cumulative (million t) 58 million t 12 (million t/year) 58 million tons of cumulative CO2 reduction compared to same class gasoline vehicles

HV technology evolution (Target:40) Fuel efficiency (km/l) 29.6 35.5 32.6 38.0 JC08 cycle 10-15 cycle Japanese test cycle 28.0 HV system cost First-generation Prius Second-generation Prius Current Prius Next-generation Prius HV technology significantly evolved in fuel efficiency with reduced cost

Advanced fuel efficiency technology of nextgeneration Prius 1. High efficiency/low fuel consumption engine 2. Hybrid system Downsized/light weight, reduced loss 40% of maximum thermal efficiency High rotation motor Stator Rotor 2ZR-FXE 3. Improved aerodynamics Aerodynamic coefficient (in Cd): 0.24 Battery Lithium ion battery Transaxle &PCU Nickel metal hydride battery Transaxle PCU Next generation Prius is a compilation of world top fuel efficiency technologies

Cumulative sales of HV (million) 15 2020 target Cumulative 15 million HVs 8 1 0 1997 2000 2005 2010 2015 2020 2050 HV target cumulative 15 millions in 2020, to lead next generation vehicles

CO2 reduction initiatives Energy saving Engine Reduced use of fossil fuels HV CO2 PHV reduction Energy diversity EV Renewable energy CO2-free hydrogen FCV Renewable energy, CO2 free hydrogen for further reduction

Application of hybrid technology PHV HV EV FCV HV technology is a core technology included in next generation vehicles

Fuel diversity and uses HV/PHV FCV Vehicle size EV Delivery vehicle EV Short-distance commuter vehicle Personal mobility Passenger car HV PHV FCV Route bus FCV(BUS) Full-size truck Home delivery truck Travel distance Fuel Electricity Gasoline, diesel, biofuels, CNG, synthetic fuels, etc. Hydrogen EV: Short-distance, HV & PHV: Wide-use, FCV: Medium-to-long distance

Development of next generation batteries Output density (W/L) 10000 8000 6000 4000 High capacity Li-ion battery All solid battery Innovative battery Sakichi battery 2000 Current (Research) Target Target (Metal air battery, etc) 0 0 200 400 600 800 1000 10000 Energy density (Wh/L) Develop next generation battery as a key for electrified vehicles to expand

Development of next generation power semiconductor 10% increase in fuel efficiency (Target) Power semiconductor Silicone (current) SiC(future) Transistor Diode Power module Downsized PCU (1/5 in volume (target) Power control unit (PCU) Aim 10% increase in fuel efficiency, 1/5 downsized in volume

Use of hydrogen: FCV Volume production FCV MIRAI Japan launch in 2014 Europe, in September, US in October, 2015

Advantages of FCV Energy diversity Hydrogen sourced from a wide variety of primary energy Zero emissions Zero tailpipe CO2 Fun to drive Electric motor enables smooth, quiet driving Usage Range (gasoline equivalent Refueling (about 3 minutes) Excellent acceleration at start to low/mid speed Power supply (emergency use) High capacity

Development of MIRAI High pressure FC stack hydrogen tank Innovative flow channel structure and Electrodes of cells for higher output Output/volume; 3.1kW/L world top level The light weight structure of carbon fiber reinforced plastic enabled Storage; 5.7 wt%* world top level Humidifier less FC boost converter Internal circulation Reduced number of cells in FC stack Common use of hybrid units FC main components developed in-house to achieve world leading performance *Hydrogen mass/tank mass

Cost reduction of FCV FC technology FC stack High-pressure hydrogen tanks FC system cost FCHV-adv (2008) 1/20 or less (2014) Further Cost reduction Limited introduction Start penetration Popularization Power control unit Motor Battery HV technology Apply HV technology to accelerate cost reduction

FCV market penetration initiatives About 5,680 FCV related Toyota patent Item Number of patents to be free Free use period FC stack Approx. 1,970 High-pressure hydrogen tanks Approx. 290 Until the end of 2020 FC system control Approx. 3,350 Hydrogen station Approx. 70 No expiration Announcement at CES on January 6 by TMS SVP Bob Carter Toyota share all patents for free to accelerate the spread of FCV

FCV market penetration initiatives 3 automakers; Toyota, Nissan, Honda started cooperative promotion of supporting hydrogen station operation until around 2020 1) Support operational cost 2) Refueling network Customer services/convenience Communication for understanding of FCV and hydrogen Support to accelerate preparation of hydrogen stations

Various approaches of Toyota group TOYOTA FCV HINO FC bus Toyota Auto Loom folk lift Aisin Seiki Household fuel cell system Not only FCV but also Toyota group activities to promote hydrogen use

FCV market penetration initiatives FCV sales volume Global : More than 30,000/year around 2020 and later Japan : Approx. 1,000/month around 2020 1X,000/year @2020 and later FC bus introduction to start in FY 2016 for Tokyo, etc 100 or more by 2020 for Tokyo Olympics/Paralympics

Future development of next generation vehicles Sales Volume Engine HV PHV FCV EV 2010 2020 2050 Accelerate next generation vehicle development toward 90% CO2 reduction

Challenge 2 Life Cycle Zero CO2

Challenge 2: Life Cycle Zero CO2 Disposal/recycling Maintenance Specific parts for next generation vehicles increase CO2 Driving Fuel production Parts/vehicle production Material production Gasoline vehicles HV MIRAI (New generation Vehicles) Zero In the future Next generation vehicle approaches zero CO2 during driving however, steps back in material, parts/vehicle production

Challenge 2: Life Cycle Zero CO2 Life cycle Material production Parts/Vehicle production Driving/ Fuel production Disposal/ Recycling Vehicle materials Next Generation Vehicle Specific materials CO2 emissions during material production Steel Aluminum PP Carbon fiber Platinum CO2/Kg 0 10 20 30 0 2000 4000 6000 Develop and more use of low CO2 material Reduced material use Reduced number of parts New materials and recycling materials CO2 per mass Aluminum (New) Aluminum (Recycled) 0 2 4 6 8 10 Recycle bio material Kg-CO2/Kg Better dismantle ability design Enrich and accelerate environmental friendly design considering materials

Challenge 2: Life Cycle Zero CO2 Current life cycle CO2 Maintenance Disposal 2050 life cycle CO2 Maintenance Disposal Future life cycle CO2 to be Zero Parts/ Vehicle production Parts/ Vehicle production Material production Driving/ Fuel production Material production Driving/ Fuel production Continuous challenge toward the future Zero life cycle CO2

Striving for Ever-better cars Fossil fuels Renewable energy CO2 free hydrogen High durability vehicle HV FCV FC folk lift FC bus Roomy/multipurpose vehicle PHV EV Zero for all vehicles used in all regions all over the world