| EU HyICE project
results in the first ever successful transatlantic hydrogen-cooperation.
Munich/Brussels/Washington--Ten
European partners have completed the HyICE project – Optimization of the
Hydrogen Internal Combustion Engine three years after the project first
began. This initiative, which was promoted by the EU Commission, has resulted
in a combustion engine fueled by hydrogen that offers clear advantages
over other propulsion systems in terms of performance and costs. The project
team consists of companies from the automotive industry, their supplier
companies and two Universities. This project, which was coordinated by
BMW Group Research and Technology, developed two concepts of mixture formation,
which were approved on engines for passenger cars as well as for citybuses.
The necessary key components were also developed. In addition, relevant
simulation tools have been adopted to Hydrogen combustion to support the
development process of future production engines. Furthermore, the top
European hydrogen experts shared their findings on a regular basis with
researchers from the US Department of Energy. This makes HyICE the first
project of its kind within the EU Commission.
EU Commissioner for Science and Research
Janez Poto?nik said: "The HyICE project clearly demonstrates the key role
of EU research in reducing dependency towards fossil fuels. This is an
example of successful EU investment in pre-competitive research, with a
potential impact reaching way beyond Europe's borders. The results achieved
with a hydrogen combustion engine should encourage industry to develop
this form of mobility further. This is a key contribution to preserve the
environment and to keep Europe at the forefront of global competition"
In March 2003, the then EU Commissioner
for Research, Philippe Busquin, and the State Secretary of the US Department
of Energy, Spencer Abraham, decided to share research findings more intensively
between their respective continents. The aim of this project for the EU
was to promote cooperation on topics such as climate change and energy
in the Sixth Framework Program and to develop visions for hydrogen energy
sources and alternative drives.
With a distinct performance of 100
kW per liter cubic capacity (displacement), the experts of HyICE have demonstrated
that the hydrogen engine is a technology for the future which matches performance-wise
with conventional engines. This was the first time researchers were able
to concentrate exclusively on the hydrogen combustion engine and were thus
able to fully utilize the specific properties of hydrogen. Up until now,
hydrogen combustion engines were designed for both, gasoline and hydrogen
usage due to missing hydrogen infrastructure. With this new technology
hydrogen usage can be optimised.
Graz University of Technology, Hoerbiger
Valve Tec, MAN Nutzfahrzeuge, Volvo Technology and BMW Group Research and
Technology developed and tested two concepts of mixture formation for this
purpose: direct injection and external cold mixture formation. In both
methods performance was doubled while consumption was reduced.
Together with BMW Group Research
and Technology, the Swedish company Mecel Engine Systems developed an ignition
system which is accurately tailored to the far-reaching flammability limits
of hydrogen. This has increased efficiency and reduced consumption. In
order to make the properties of hydrogen more transparent for future series
developments, the IFP (French Institut Francais du Petrole) and the German
University of the Federal Armed Forces developed two simulation models
for hydrogen combustion in the cylinder. Using the optical engine from
the Graz University of Technology, the researchers succeeded in observing
the combustion behavior of hydrogen and checking the computer-aided calculation
models. These models were then incorporated into the commercial calculation
tool Ansys CFX, developed by Ansys Germany.
To extract the maximum benefit out
of all efforts made at both sides of the Atlantic Ocean, the Ford Research
Center in Aachen built the transatlantic bridges and coordinated the sharing
of findings between the EU researchers and the US hydrogen specialists.
Alongside HyICE, the US Department of Energy is also promoting a hydrogen
engine project initiated by Ford (USA). It has commissioned two National
Laboratories in Illinois and California, as well as North American Universities
to carry out this work.
In conclusion, Prof. Raymond Freymann,
Head of BMW Group Research and Technology says: "The combustion engine
is one of the most highly developed industrial products. Over one hundred
years have been invested in its development. It demonstrates high performance
levels and variability with low costs and easy maintenance on a daily basis.
With the use of hydrogen, it is already providing a well-developed technical
solution for sustainable mobility. We are convinced that even in the future
individual mobility using the hydrogen combustion engine will remain an
attractive method of transportation."
ANSYS, Inc., founded in 1970, develops
and globally markets engineering simulation software and technologies widely
used by engineers and designers across a broad spectrum of industries.
The Company focuses on the development of open and flexible solutions that
enable users to analyze designs directly on the desktop, providing a common
platform for fast, efficient and cost-conscious product development, from
design concept to final-stage testing and validation. ANSYS employs approximately
1,400 people worldwide and supports CAE tools such as ANSYS FEM, ANSYS
CFX and Fluent which are recognized as market and technology leaders. As
a member of the HyICE project the main objective of ANSYS was the implementation
of advanced combustion models in ANSYS CFX, as a common CFD-platform, which
can be used for reliable simulations of internal combustion engines which
use hydrogen as fuel.
BMW Forschung und Technik GmbH is
a 100% subsidiary of BMW AG and has been in charge of the following research
topics at the BMW Group since 2003: VehicleTechnology, CleanEnergy (hydrogen
technology), EfficientDynamics (intelligent energy management/alternative
drives), ConnectedDrive (driver assistance systems /active safety) and
ITDrive (IT-architecture and communication technology). Legal autonomy
as a limited company guarantees scope for development and maximum flexibility.
Global access to trends and technologies is ensured by an internationally
established network with the support bases Palo Alto and Clemson (USA),
Tokyo (Japan) and Sophia Antipolis (France).
HOERBIGER has a leading global position
in compression, automation and drive technology. 4,700 employees attained
a turnover of around 650 million Euro in 2005. Business is focused on systems,
components and services for compressors and gas engines, pneumatic and
hydraulic components for the automotive industry and mechanical engineering
and on systems for shifting and clutches in powertrains
of passenger cars and commercial
vehicles.
IFP, as an international research
and training center, is developing the transport energies of the 21st century.
It provides public players and industry with innovative solutions for a
smooth transition to the energies and materials of tomorrow – more efficient,
more economical, cleaner and sustainable. To fulfill its mission, IFP has
5 complementary strategic priorities: pushing back the boundaries in oil
and gas exploration and production - converting as much raw material as
possible into transport energy - developing clean, fuel-efficient vehicles
- diversifying fuel sources - capturing and storing CO2 to combat the greenhouse
effect. An integral part of IFP, its graduate engineering school prepares
future generations to take up these challenges.
MAN Nutzfahrzeuge AG is one of the
leading international suppliers for trucks, buses and transport solutions.
MAN trucks and buses produces trucks from 6 to 50 tons overall weight,
heavy special vehicles up to 300 tons, city buses and overland coaches.
Beside of this, MAN develops and manufactures Diesel and gas engines for
a huge amount of mobile as well as stationary applications.
Mecel Engine Systems provides services
and products for combustion monitoring and control on the forefront of
technology. Mecel Engine Systems takes a pride to combine innovative engineering
with quality. As such, Mecel Engine Systems has provided products and services
in a variety of applications such as ion current measurement systems, engine
control systems and ignition systems and other vehicle electronic devices.
UBWM – University of the German Armed
Forces – Aerospace Technology Department - Thermodynamics Institute:The
University of the German Armed Forces is a small campus university for
approximately 2500 military and civil students, who receive their diploma
after 3 ¼ years. The research of the Thermodynamics Institute (2
professors, 25 scientific and technical staff) is focussed on research
in the fields of numerical and experimental combustion research, turbulent
heat transfer, aeroacoustics and aerothermo-dynamics of hypersonic flow.
Volvo Technology Corporation (VTEC)
is an innovation company that on contract basis invents, researches, develops
and integrates new product and business concepts and technology for hard
as well as soft products within the transport and vehicle industry. Work
is primarily done in the key technology areas: soft products, production,
vehicles, propulsion & alternative drives, electronics and methods.
The primary customers are the Volvo Group Business Areas & Units. VTEC
has nearly 400 employees and is located in Gothenburg, and at Volvo's establishments
in Lyon, France and Greensboro, USA.
The core objective of the Institute
for Internal Combustion Engines and Thermodynamics at Graz University of
Technology (TUG) is to carry out innovative and internationally recognised
teaching and research within the interrelated fields of use of energy,
engine and transportation technology and in particular their impact on
the environment. The area of Innovative Combustion Systems investigates
new combustion systems for conventional fuels such as diesel and gasoline,
which still have a high potential concerning part-load efficiency and reduction
of particle- and NOx-emissions, respectively. Additionally, new combustion
systems employing alternative fuels (e.g. natural gas) and energy carriers
(e.g. hydrogen) become more and more important. In general, these research
activities focus on all relevant targets as highest efficiency and power
density as well as lowest emissions.
Ford Research Center Aachen: Innovative
engineering; excellent driving dynamics; individual design; our automobile
research has made us one of the greatest automobile manufacturers worldwide.
Around 190 employees – including 20 in Dunton (UK) – work in the Ford Forschungszentrum
Aachen GmbH on demanding technologies for the vehicles of the future. At
the moment, our research is concentrating on the development of new diesel
engines, vehicle dynamics, telematics and mobility research, the development
of new materials, vehicle electronics, energy management and alternative
powertrains.

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