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When it comes to automobiles and personal
mobility, California has long been king.
California (Silicon Valley in particular) has
also been a wellspring for technology, which more often than not
makes its way into the auto industry. That’s why we maintain an
important Research & Development presence in Palo Alto, keeping
a finger on the pulse of the Valley.
Roughly 10 percent of world demand for
printed circuit boards is destined for automotive use, as is
about 6 percent of total world demand for semiconductor devices.
Electronics content, not including components such as wiring,
batteries, or electric motors, makes for nearly 8 percent of the
total cost of producing a motor vehicle – and that percentage is
increasing. There are also from 20 to 30 microprocessors in the
average vehicle – with 80 or more in high-end luxury vehicles.
California is where mobility, technology and
environmental concern intersect. The state embodies the
question: How do we wisely apply new technology to retain our
personal mobility, while balancing environmental concerns?
Again, we find ourselves asking which
technology will power our personal mobility into the future.
However, in spite of our extensive experience with one dominant
technology during the past century, the answer again is less
than clear cut. Some of the choices are familiar. Our options
today include electricity, hybrid power trains, fuel cell
technology, the trusty internal combustion, and, of course, all
of the above.
Although battery technology has greatly
improved since the early days of the automobile, issues related
to packaging, driving range and high replacement costs still
make electricity impractical for the vast majority of customers.
Nevertheless, many manufacturers have brought electric vehicles
to the market, including us.
We sold EPIC (Electric Powered Interurban
Commuter) minivans in the mid-1990s, mostly in California and
New York, until, much as its predecessors, it fell prey to its
inherent disadvantages of cost and range. However, as quiet,
economical non-emitting vehicles, electric vehicles are
well-suited for certain applications.
In fact, DaimlerChrysler is the leader in the
sales of street-legal electric vehicles with our GEM
neighborhood vehicle line. This class of vehicle represents an
excellent mobility solution in corporate, academic or government
campus environments; major manufacturing facilities; and higher
density new urban developments and master-planned communities.
Next, let’s consider the alternative that
aspires to transcend the limitations of batteries – hybrid power
trains.
Toyota, Honda and, more recently, Ford, have
won acclaim for their hybrid sedans and sport-utilities and
found a growing market. There’s no doubt that hybrid technology
is an important component in the propulsion portfolio and is
demonstrating potential.
Frankly, the domestic industry (along with
European and the majority of Japanese manufacturers)
underestimated the interest that hybrids would generate.
At the Chrysler Group, we’ve tested the
hybrid waters in small volume with a diesel-electric hybrid
version of our Dodge Ram 2500/3500 Quad Cab heavy-duty pickup,
targeted at the contractor and military market.
In addition to using the electric motor to
improve the fuel efficiency of the turbo-diesel engine, this Ram
pickup is also a powerful mobile electric generator. These
trucks were sold to construction and utility companies in North
America – most before they were built.
We are working with General Motors to jointly
develop a state-of the art, two-mode, full hybrid propulsion
architecture for applications in GM, Chrysler Group and Mercedes
Car Group vehicles. Several auto companies have expressed an
interest in joining this technology partnership, and we
anticipate adding another partner by the end of this year.
We believe that the DaimlerChrysler/GM
two-mode system has the potential to leapfrog traditional hybrid
designs. The two-mode system has a technological advantage at
higher speeds when the electric and gas (or diesel) motor work
together to keep the internal combustion engine operation at
maximum efficiency. It will achieve fuel economy savings of up
to 25 percent. The Chrysler Group will first introduce this
technology in our 2008 Dodge Durango sport-utility vehicle.
This joint-development arrangement allows us
to share the capital investment and risk and to leverage
economies of scale. However, we believe that our combined hybrid
development efforts will more quickly yield the next-generation
of hybrid technology, positioning our companies as leaders in
this technology. As my wife often says, if you know that you’re
going to arrive a bit late to the dinner party, be sure you
bring the best wine.
The third propulsion alternative is hydrogen
fuel-cell-electric vehicle technology. It is still years away
from commercialization, but it holds the greatest promise for
ultimately displacing fossil fuels. We can’t strike it off the
list. So far, we’ve made good technical progress.
At DaimlerChrysler, we’ve taken a leadership
role in developing fuel-cell technology and putting vehicles to
the test on the road around the world. We’ve put a total of 100
hydrogen fuel-cell powered vehicles on the road around the world
already – significantly more vehicles than any other
manufacturer.
We’ve had our share of success with fuel
cells, but we still have many significant hurdles to overcome to
prove the commercial viability of this technology.
Infrastructure will be one of the primary hurdles with migration
to a hydrogen economy. A recent report from the U.S. National
Academy of Science summarized the three key challenges: Hydrogen
production, transportation, and refueling stations.
These challenges will have to be addressed
with short-and long-term strategies to enable successful
deployment to the retail customer. In the vehicle itself, we
still have some tough challenges related to cost. For example,
the fuel cell stack — in which hydrogen and oxygen are brought
together to produce energy — requires the use of advanced
manufacturing processes and high cost materials such as the
noble metal platinum.
The current cost of the stack will have to be
cut significantly to make it commercially viable at high volume.
We’re now working to reduce the space and cost required to store
the hydrogen. The leading concept is pressurized tanks to
provide the driving range demanded by customers, but also
require a cost of several thousands of dollars to achieve
acceptable levels of safety. These are all tough technical
challenges, but we’re gaining valuable data and experience by
putting the technology into real-world use to see how it
performs.
So, while the industry continues to work on
and perfect technologies such as fuel cells and improving hybrid
power trains, car and truck buyers can find a lot of benefit in
other technologies that are available today. That brings us to
an existing alternative, the trusty internal combustion engine.
Even from a purely environmental perspective,
you can’t rule it out. In fact, the progress that’s being made
in reducing tailpipe and evaporative emissions from gas engines
goes widely unrecognized.
The EPA’s stringent Tier 2 emissions
standards — adopted in 1999 in a collaborative effort of
government, auto manufacturers and the fuel industry — have been
a success by any objective measure. Combustion engines are
getting very clean. In fact, they are so clean that the
equipment vendors are trying to invent new sampling systems to
measure the low levels of pollutants they produce.
Today, many new cars and light trucks produce
just one percent of the smog-forming emissions of similar
pre-emissions controlled vehicles. And all cars and light trucks
will have to meet the same standards, regardless of the fuel, in
the 2009 model year. Today, our 2005 Chrysler Sebring and Dodge
Stratus with the 2.4L engine are 99.8 percent clean and among
the cleanest-burning internal combustion vehicles in the world,
qualifying as Partial Zero Emission Vehicles,
To put this in perspective, consider that you
would have to drive a PZEV vehicle from San Francisco to Chicago
(more than 2,000 miles) to equal the ozone-forming emissions
created by a single hour of lawn mowing. As an engineer, I
personally find it amazing that – largely thanks to electronic
controls - we also continue to wring better fuel-efficiency out
of the modern gasoline engine.
One of the latest innovations to join
sophisticated electronic engine controls is cylinder
deactivation. We were the first to offer a Multi Displacement
System (MDS) in North America on modern large-volume vehicles.
It’s a standard feature in the HEMI V-8 engine available in our
Chrysler 300C, Dodge Magnum RT, and in our new Jeep Grand
Cherokee. The MDS HEMI transitions from running on eight
cylinders to four in just forty milliseconds.
The customer only feels the difference at the
gas pump, as MDS technology improves fuel economy by up to 20
percent, with a corresponding reduction in green house gas
emissions. Several of our competitors, both domestic and import,
are attempting to follow in our footsteps with their own
versions of MDS technology.
Internal combustion engines also have
alternative-fuel and flex-fuel options with attractive benefits.
Through years the Chrysler Group and other manufacturers have
built thousands of vehicles that run on Compressed Natural Gas.
However, the absence of a public re-fueling infrastructure
limited their market. Nevertheless, CNG remains a very clean
alternative for centrally-fueled fleets, such as shuttles and
delivery vehicles.
So, we may re-visit CNG as alternative fuel
option in some of our new generation of vehicles. We also
provided E-85 flex-fuel (a gas-ethanol mix) capability at no
cost to more than one million U.S. and Canadian customers in all
of our 3.3L V-6 minivans between 1998 and 2002. Unfortunately,
virtually all of those minivans (some of you may even be driving
them) are running on pure gasoline.
Yet there are successful precedents for
flex-fuel adoption. In Brazil, for example, where ethanol is
widely available, sales of flex-fuel vehicles approaches 40
percent. We currently offer E-85 flex-fuel capability in the
Chrysler Sebring and Dodge Stratus, Dodge Ram pickup to fleet
buyers, and new flex-fuel offerings will be available in the
future. And we’re looking at offering a FFV option in our new
generation of minivans.
Incentives for the introduction of E-85 FFVs
should continue to help reach the critical mass of vehicles on
the road required to help spur the necessary fuel infrastructure
development.
Continuing the internal combustion engine
story is modern diesel technology. Diesel is a near-term
opportunity to reducing fuel consumption that has largely been
ignored in the United States. That’s not the case in Europe,
where 40 percent of the new car market is diesel. In some
countries like France, almost 70 percent of the market is
diesel. In fact, 67 percent of all of the Chrysler and Jeep
vehicles that we sell in Europe are diesel powered.
Our international dealers are pounding the
table and asking us for more diesel models. So, within the next
four years, we plan to more than double the number of models
available outside of NAFTA with diesel engines. Modern clean
diesel engines are totally different animals from the old
diesels, on which most of the data and perceptions in the United
States are based.
Today’s lean-burning diesels can improve fuel
economy by up to 30 percent, reduce CO2 emissions by an average
of 12 percent, and provide durable and smooth gasoline
engine-like performance. They provide maximum benefit in highway
drive cycles which dominate the experience of many customers in
NAFTA markets.
According to the Department of Energy, a 30
percent market penetration of diesel vehicles by 2020 would
reduce U.S. net crude oil imports by 350,000 barrels per day.
Diesel engines have long been popular in the United States in
heavy-duty pickup truck applications. But American car and
sport-utility buyers are now also catching on to the benefits of
diesels.
Last year the Chrysler Group became the first
North American-based manufacturer to offer a modern diesel
engine in this market (Joining our sister company,
Mercedes-Benz, and our competitor, Volkswagen.)
Another advantage of diesels is that they can
run on bio-fuels. In fact, every Jeep Liberty CRD leaves the
assembly line in Toledo, Ohio, with a full tank of B5 – a
renewable fuel with a five percent biodiesel mix derived from
locally-grown soy beans. DaimlerChrysler is committed to the
development and introduction of a renewable synthetic fuel from
biomass, known as SunDiesel.
So, given today’s concerns for the
environment and alternatives for mobility – electric, hybrid,
hydrogen, and internal combustion - which technology do we
choose as the future winner?
Well, in 2005, much as in 1905, no clear
winner has emerged. And recall that, even though the internal
combustion engine did take center stage by the mid-teens, the
old Stanley Steamer survived until 1927, and electric vehicles
never completely went away. So, the intelligent guess for now is
all of the above.
Dieter Zetsche is CEO and President of the
Chrysler Group. His remarks are excerpted from a speech
presented at the Commonwealth Club in San Francisco.
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