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Toyotas Approach to Fuel Cell Vehicles
June 25, 2014
Toyota Motor Corporation
1
The first automobiles
Steam-powered vehicle (1769)
Electric vehicle (1899)
Gasoline vehicle (1886)
Benz Patent-Motorwagen
Price 2,750 marks (approx. $1,000)
Engine Single-cylinder horizontal
984 cc/400 rpm/0.9 hp
Max. speed 16 km/h
Weight 313 kg Source: Toyota Automobile Museum; Wikipedia
2
The electric engine starter
Electric engine starter (1911)
Source: Cadillac 1912 Instruction Book
Manual engine starter
3
The assembly line
Advent of mass production (1913)
Price reductions due to
innovations in production
methods
$290 (1924)
$780 (1910)
Ford Model T assembly line
Ford Model T
$850 (1908) (Rival companies: $1,800)
Sources: Ford Motor Company; Wikipedia; Utah Division of State History;
Amerika jidosha kogyo no kenkyu (Setsuo Kotani, 2001)
4
The road network in the U.S.
Sources: U.S. Department of Transportation Federal Highway Administration;
Cato Handbook on Policy, 6th Edition
Interstate Highways (Dwight D. Eisenhower National System of Interstate and Defense Highways)
Built under the Federal-Aid Highway Act of 1956
Combined length of approx. 66,000 km, at a total cost of 25 billion dollars over 13 years
Funded with Highway Trust Fund (Gasoline tax in 1956: 3 cents/gallon)
5
History of gasoline
Lucas gusher, Spindletop Hill,
Texas (1901) Drive-in gas station (1913)
Sources: Sekiyu no seiki (Daniel Yergin, Yoshiki Hidaka, Naotake Mochida,1991);
The Paleontological Research Institution, Gulf Oil
1901: Oil fields discovered in Texas
1907: First gas station opens in the U.S.
1913: Thermal cracking allows greater quantities of gasoline to be obtained from petroleum
1929: 300,000 stores selling gasoline in the U.S.
6
The age of gasoline-powered automobiles
1950
Electric
vehicles
1900 Year
Gasoline-powered
vehicles
Steam-powered
vehicles
Nu
mbe
r o
f a
uto
mob
iles
Mass
production
Electric
engine
starter
Lincoln Highway Federal-Aid Highway Act
of 1956
Development of thermal
cracking process
Gas stations spread
The first gas station
Increased demand for gasoline Roads
Fuel
Gasoline-powered automobiles
Steam, electricity, and
gasoline-powered automobiles Horse-drawn cart
The simultaneous development of technologies, roads and fuel
gave rise to the age of gasoline-powered automobiles
7
What the automobile has achieved
Enhanced mobility (for people and for goods)
Freedom and convenience (anytime, anywhere)
Mobile personal spaces
Economic,
social, and cultural growth
New possibilities
created by enhanced mobility
=
8
Problems caused by gasoline-powered automobiles
Concern over future oil supply
Increase in
number of
vehicles
Surge in
fossil fuel
consumption
Air pollution
CO2 emissions leading to
global warming
Growth of global
industry and
technology in the
20th century
9
Crude oil supply forecast
Developing non-conventional resources
will increase the global oil supply Source: IEA; ExxonMobil
Others
Biofuels
Crude and condensate resources
Crude oil
(conventional oil fields)
Tight oil Oil sands
Liquid natural gas
Deep-sea oil fields Remaining
resources
Cumulative
production
through 2040
(units: million oil-equivalent
barrels/day) (trillion barrels)
Global liquids supply by type
10
Increase in distance traveled
1985 $1= 250
GDP and distance traveled by region (1950-1997)
North America
Western Europe
Eastern Europe
Australia and New Zealand
Former Soviet Union
Central Asia
South Asia
Latin America
Middle East and Africa
Africa
Asia Pacific
World
25,000
20,000
15,000
10,000
5,000
0 $0 $5,000 $10,000 $15,000 $20,000 $25,000
Per capita GDP in 1985
Dis
tan
ce
tra
ve
led
per
pe
rso
n p
er
ye
ar
(km) 1997
1950
Distance traveled has increased due to economic growth Source: WBCSD Mobility 2001
11
The world in 2050
Global population of 9.6 billion
70% of the worlds population living in cities
Global and urban population
Source: OECD
Environmental
Outlook
Global GDP
Source: U.N. Dept. of
Economic and Social
Affairs
Global GDP to increase more than threefold
Rapid increase in overall/urban population and economy leading to
Intensified environmental problems
(climate change, global warming, air pollution)
Global population
Urban population
Po
pu
lati
on
10
8
6
4
2
0
(billion)
12
What is a sustainable mobility society?
One that allows us all to move freely
in comfort and safety,
in an environment-friendly, sustainable manner
13
A sustainable society
A society which uses diverse energy sources, with electricity and hydrogen infrastructures
EVs/PHVs
Electricity
storage
facilities
Thermal
power
generation
Power generation units
Automotive fuel
Hydrogen
tanks
Biomass
Wastewater
Photovoltaic
generation
Wind power Renewable
Energy
Fossil Fuels Electricity Grid
Hydrogen Grid
Hydrogen-Electricity Conversion
High-volume,
long-term storage
Electrolysis
Industry
Electricity
Energy Flow
Hydrogen
Fossil fuels
FCVs/FC buses
Urban/
residential
HVs
Refineries/chemical plants
Chemical
plants
Urban/
residential
Urban/
residential
14
Toyotas environmental principles
Driving real and positive change by popularizing
these vehicles
Developing efficient, low-emission vehicles
Embracing diverse energy sources
15
Primary energy sources, automotive fuels and powertrains
Primary energy
source Automotive fuel Powertrain
Oil
Co
nserv
e
Div
ers
ify Coal
Plants
Electricity
Hydrogen
Diesel
Conventional
and hybrid
vehicles
EVs
FCVs
PHVs
Natural gas
Uranium
Hydro, solar, geothermal electricity
generation
Gasoline
Biofuels
Gaseous fuels
Synthetic fuels
16
Hybrid vehicle lineup
Toyota has introduced hybrid models in all vehicle categories
Compact
Medium
Large
SUV
Minivan
Commercial As of May 2014
17
Hybrid vehicle sales
As of May 2014 1997 1999 2001 2009 2011 2003 2005 2007 2013
Annu
al sale
s (
mill
ion
s)
1.2
1.4
0
0.2
0.4
0.6
0.8
1
0
1
2
3
4
5
6
7
8
9
Cum
ula
tive s
ale
s (
mill
ion
) HV global sales 2012: Achieved 1 million annual units sales for the first time Dec. 2013: Cumulative sales passed 6 million units
3 million units
2 million units
1 million units
4 million units
5 million units
6 million units
2014
18
Development of hybrid technology
Hybrid technology underpins Toyotas PHVs, EVs and FCVs
EV
HV
PHV
FCV
Motor
Fuel tank
PCU
Battery
Engine
Generator
Motor
Fuel
tank
PCU
Battery
Engine
Generator
Motor
Fuel
tank
PCU
Battery
Engine
Motor
Hydrogen
tank
PCU
Battery
Engine
19
Characteristics of alternative fuels
The strengths of individual alternative fuels
Electricity
Hydrogen
Biofuel
Natural gas
Well-to-wheel CO2 Poor
to Excellent
Poor
to Excellent
Poor
to Excellent Good
Supply volume Excellent Excellent Poor Good
Cruising range Poor Excellent Excellent Good
Fueling/charging time Poor Excellent Excellent Excellent
Dedicated infrastructure Good Poor Excellent Good
Internal combustion
engines
Internal combustion
engines FCV EV
20
Fuel diversity and uses
EVs: Short-distance, HVs & PHVs: Wide-use, FCVs: Medium-to-long distance
Short-distance commuter vehicles
Travel distance
Fuel Electricity Gasoline, diesel, biofuels, CNG, synthetic fuels, etc. Hydrogen
Home delivery vehicles
EVs
HVs