1 introduction - STandUP for Energy

Transcription

STandUP for Energy –
research proposal
STandUP for Energy – Executive Summary
STandUP for Energy – summary of research proposal
This response to the government’s call in the strategic research field of Energy is unique not
only in scope, size and strength, but also since it marks the first step in the creation of a
Swedish Energy Research Organization that can compete on the highest international level in
terms of volume, quality and impact. Given the global challenges of climate change mitigation
and the transformation to a sustainable energy system, focused university and industry R&D
is essential to reach ambitious national and global targets for the reduction of climate impact
and increased renewable energy production.
An Energy research alliance for the future
Uppsala University (UU) and the Royal Institute of Technology (KTH) in Stockholm both
have very broad and strong - often world leading - energy research capacities ranging from
basic long-term studies to applied research and commercialization in intimate collaboration
with industry. The Swedish University of Agricultural Sciences (SLU), also based in Uppsala,
is leading in many areas of bio-fuel production and use. Together these three universities,
hereafter referred to as STandUP (see Fig. 1), form by far the most significant cluster of
energy research in the country. University management at all three STandUP universities are
committed to building an alliance within Energy research that reaches beyond this particular
call, and into all Energy-relevant areas.
STandUP aims to create an environmentfertilizing interaction between researchers within
STandUP and with industry in order to address
today’s most critical energy problems. The
geographical vicinity of the universities allows for
mobility of personnel, collaboration such as joint
positions and courses, and sharing of laboratory
facilities. The many strong industries within
Energy and transportation also present in the
region add a further dimension for interaction and
mobility. New ideas, new technologies and short
lead times for commercialization of the results in
new or existing industries are equally important as
enhanced academic knowledge, competence and
skills for the future.
Fig. 1 The STandUP vision and
Research themes
The STandUP proposal
The expressed primary aims of this proposal, which covers a large subset of STandUP’s total
energy activities, are to reinforce research on large-scale renewable electricity production and
its integration into the electricity network, and electric (including hybrid) vehicles - which
will be a major future component of the electricity system. In addition, the contribution of
biomass to sustainable and cost efficient production of transport fuels and electricity is a key
focus area.
Within the STandUP group, UU has a strong profile in terms of the generation, storage, and
use of energy. New and mature technologies are studied at both the basic and applied level, as
is their interplay with the grid. At KTH, research is focused within electrical engineering on
integration of renewable electricity into the grid and hybrid and electric propulsion systems.
Within bio-fuel production, SLU is strong within plant biotechnology, plant production
systems, microbial bio-fuels fermentation, ecology and environmental assessment. KTH and
SLU are complementary in the bio energy area, where KTH’s profile includes bio-refining of
lignocelluloses and thermo-chemical conversion of biomass. All three universities also have
strong and unique competence on the Energy system per se, with research on systems
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STandUP for Energy – Executive Summary
analysis, environmental assessment, decision making and socio-technical issues. To optimize
the response to the current call the STandUP group is complemented by Luleå University of
Technology (LTU) with expertise in hydro power, by Halmstad University College (HIH)
with expertise in wind power demonstrators, and a number of research institutes: IVL, STRI
AB, SICS, Skogforsk and JTI.
The STandUP proposal is divided into distinct though strongly coupled research themes. All
themes will be addressed from a systems perspective where our competence and research
within Systems analysis, environmental assessment and decision making will act as a platform
for all our activities to ensure that the most relevant issues are addressed in their true practical
context. For each of the themes we have identified the most important critical problems to
solve:
For Renewable electricity generation: To reduce the cost per kWh for the consumer through
development of new technologies and the optimisation of existing technologies.
For Integration into and management of the Electricity Grid: To enable cost-efficient
transformation of the grid to accommodate large scale variable production of electricity from
intermittent sources such as the wind while retaining high levels of reliability.
For Electric Propulsion and Hybrid Vehicles: To develop technologies and optimised
systems for hybrid and electric vehicles integrating solutions for energy storage, the grid
supply interface, and propulsion systems.
For Biorefineries and Biofuel production: to develop new technologies (Biomass-torefinery) for production of bio fuels for transportation and production of electricity.
Size, focus and management of STandUP
The proposal covers activities amounting to 100 MSEK in annual funding from 2012 and
onwards, primarily for research on renewable production of electricity and its integration into
the grid, but with the other components still being very significant.
An organisation as wide and deep as STandUP needs an effective organisation. The
collaboration will be managed by a program coordinator with a reference council at their
disposal. The STandUP concept is designed to support and develop focused and
complementary research profiles within the collaborating universities, to enhance
collaboration between these, and to optimize interaction with industry. Reporting to the
university management on a regular basis is therefore important to ensure alignment in
strategic issues. Within STandUP, forums for collaboration will be created on several planes
ranging from university level to the individual research group. A central management target is
that the integrated STandUP environment will ensure new and exciting merit-based career
paths for promising younger researchers, both towards academia and industry. Proactive
treatment of gender and equality issues will remove undesirable career hinders.
The European Institute of Technology
STandUP is participating as a core member in a European consortium led by Karlsruhe
Institute of Technology vying for a KIC (Knowledge and Innovation Centre) focused on grid
integration in the coming European Institute of Innovation and Technology. Such a KIC
would further enhance the strong university and industry educational, research and innovation
node in the Stockholm-Uppsala region. The activities described in this proposal would form
an important component in such a KIC, and enhance the chances of successfully building a
KIC in Sweden.
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STandUP for Energy – Research Programme
1 INTRODUCTION
This proposal is a response to the Energy strategic area in the government’s call of 4th Feb
2009 which, in turn, is closely related to the challenges of climate change. The expressed focus of this proposal is to reinforce research on large-scale renewable electricity production
and its integration into the electricity network and electric (including hybrid) vehicles, which
will be a major future component of the electricity system. In addition, the sustainable contribution of biomass and cost efficient production of transport fuels, and electricity will be a key
focus area.
1.1 The STandUP partners and The Priority for Energy Research
The partners of the STandUP group form the single most significant cluster of energy research
competence in the country demonstrating high international standard in vital areas and with
complementary expertise and research methods amongst the partners. Energy research at UU
has a strong profile in terms of the renewable electric generation, storage, and propulsion systems. New and mature technologies are studied at both the basic and applied level. At KTH, a
major area of research focus is integration of renewable electricity into the grid and hybrid
and electric propulsion systems. KTH and SLU are strongly complementary in the bioenergy
area, where KTH’s profile includes biorefining of lignocellulosics and thermo-chemical conversion of biomass while SLU’s focus lies within plant biotechnology, plant production systems, microbial biofuels fermentations, ecology and environmental assessment. As a further
strength, the core group of the STandUP partnership are all located within the Mälardalen
region, adding value for important aspects such as mobility of personnel, collaboration and
sharing of laboratory facilities. The constellation is, for this proposal, complemented by Luleå
University of Technology (LTU) with expertise in hydro- and wind power, by Halmstad University College (HIH) with expertise in wind power and a number of research institutes: IVL,
STRI AB, SICS, Skogforsk and JTI.
An additional activity by core members of the STandUP group is participation in a European
consortium led by Karlsruhe Institute of Technology, vying for a KIC – Knowledge and Innovation Centre in the European Institute of Innovation and Technology (EIT). The aim of
STandUP is to form a strong node in the Stockholm-Uppsala region. Should STandUP also be
successful in establishing a KIC, the activities would be enhanced significantly through additional funding and co-operation with an elite group of universities and research centres at a
European level. This current proposal can supply the increase in public funding necessary to
match the funds from private industry, STandUP and EU as required by the EIT regulations.
1.2 UU - Uppsala University
Since 2003 energy research has been one of five profile areas for Uppsala University. Specifically, renewable energy is a target for several strong research groups targeting the generation,
storage, and use of energy. This research includes the exploitation of sun, wind, waves, marine currents, hydro and geothermal for producing electricity using entirely new technologies.
It also includes integration into electrical power systems and power components. UU has
worked actively to support and enhance the energy research profile, with considerable allocations of new internal research support. For example, in addition to the normal reallocation of
funds, where energy research is already favoured, the Rector (Vice Chancellor) allocated 40%
of his specifically directed “strategic” 2009 funding reinforcement to energy research. Today,
about 20% of the total external funding to the faculty of Engineering and Science is explicitly
allocated for energy research. Uppsala University hosts “The Swedish Centre for Renewable
Electric Energy Conversion” and is a partner in the Swedish Hydro Power Centre” and the
Nordic excellence centre on “Ocean Energy”. Uppsala is active in several 6th and 7th framework programs both on the Renewable generation part, HEV batteries and the European grid
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part. Industrial collaboration and industrialization of new products and systems is especially
outstanding at Uppsala. In the US DoE, and US Amb. Woods 2007 ranking of the “CleanTech” area in Sweden, 5 out of 30 companies originate from Uppsala University.
1.3 KTH – The Royal Institute of Technology
KTH has consistently worked to achieve a productive balance between high-quality basic and
applied research. The university’s 2008 evaluation of its research base1 (RAE) established that
two thirds of its research groups produce basic research at the highest international levels, two
thirds produce applied research at these same levels, and a full half produced both basic and
applied research at the highest international levels. To build on existing research excellence
and strength, KTH has defined five distinct research focus areas; Transport, Energy2, Materials, Information and Communication Technologies, and Technology for Health. Research in
these areas is currently being consolidated under cross-cutting Platforms. Energy research at
KTH has an annual total budget of approximately 300 MSEK, of which about one third comes
from faculty funds. The other two thirds are external (industry, research councils and foundations and EU grants). Energy research and education employ ~35 professors, ~90 senior researchers, and ~270 PhD students in the various KTHschools. Eight energy focused research
centres are located at KTH, in addition to a number of centres3 in which KTH participates
actively. In addition, KTH faculty members are involved, in several cases as coordinators, in a
large number of research projects in the 6th and 7th framework programs related to the Energy
sector. KTH ensures it plays an active role in international research and education networks.
KTH currently chairs “CLUSTER”4, Europe’s leading university network of technology for
Research, Education and Innovation. Amongst other international initiatives, KTH is particularly active in China having established the KTH-China Energy Centre as well as six further
research centres with Chinese universities.
1.4 SLU – Swedish University of Agricultural Sciences
SLU’s “Strategy for research, education and environmental monitoring 2009-2012”5 emphasises bioenergy as a strategic area within the university’s research focus on understanding and
mitigating climate change. SLU is a longstanding strong national and international actor in
research on production systems and environmental impact of bioenergy. The Faculty of Natural Resources and Agricultural Sciences at SLU in Uppsala has recently allocated strategic
resources for excellent research and for thematic programs, co-financed with stakeholders, on
bioenergy research. In order to optimize interaction and cooperation between its departments
the faculty in 2007 launched a faculty Bioenergy program. SLU cooperates with institutions in
more than 120 countries and is a member of several high-quality networks of Life-Science
universities in Europe, such as Euro League, NOVA and BOVA and has long and fruitful cooperation with developing countries. The development work includes missions for international and global organizations, such as the EU, FAO and the World Bank.
2 ENERGY SYSTEM VISION
Concerns about climate change require a reformulation of energy problems in a quest for systems alternatives with low impact on environment and health. Solutions are needed to mitigate
and adapt to climate change while at the same time guaranteeing a sustainable delivery of en-
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5
www.kth.se/forskning/rae?l=en_UK
www.kth.se/forskning/energy?l=en_UK
www.kth.se/forskning/energy/1.24369?l=en_UK,
www.cluster.org
www2.slu.se/eng/aboutslu/2008/strategy_2009_2012.pdf
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ergy services and, ultimately, the welfare of modern society. Solutions are to be explored in a
context of complex human systems with close interaction with natural systems.
The STandUP groups envision a future society that is provided with renewable, highly reliable and cost efficient energy for its residential, commercial, transportation and industrial
needs. This vision implies that electricity is supplied to these sectors predominantly using
renewable sources. For the transport sector, combustible fuels based on biomass will contribute significantly in conjunction with solutions based on electricity as an energy carrier. For
the electricity grid, this demands interconnection of a large number of geographically distributed renewable energy farms. It also requires that the transmission and distribution system be
built with components that exhibit low losses and high reliability and that the system is designed to manage the uncontrollable aspects of some renewable sources using sophisticated
control algorithms and information and communication technologies.
To reach the vision, society in general and the power industry in particular clearly face a series of challenges that must be addressed by researchers that produce knowledge, education,
methods, and products that will work in the true socio-technical context.
Globally, renewable energy technologies still play only a marginal role in electricity provision. To change this, more efficient and cost-effective solutions need to be devised, while
technical, financial and institutional barriers to the dissemination of renewable technologies
are addressed. The integration of large quantities of renewable electricity into the grid system
presents new technical challenges in terms of management and optimization of the grid system from the transmission and distribution levels to the consumer level. New smart power
grids to deal with intermittent renewable generation and to enable the development of efficient
power markets while retaining electricity supply reliability are necessary.
For both society and the business sector, an efficient road transportation system is of paramount importance. We rely today almost entirely on fossil fuel but sustainability requires new
generations of vehicles driven by stored electricity, hydrogen or fuel from biomass. For personal transport electric vehicles will become common, if the cost-effectiveness and range can
be increased. This demands cost efficient, compact, safe and reliable energy storage in combination with efficient electrical propulsion and other on-board systems. The plug-in hybrid is
an important intermediate step for a successful transformation of the transportation system. In
Sweden, the bioenergy sector, already important for heating, is becoming more diversified
including electricity and biofuels for transport. In this context, the conversion of biomass as
well as lignocellulosic remains from various end-products (pulp, paper, packaging, etc.) into
fuels is anticipated to become relevant.
3 DEVELOPMENT OF LEADING-EDGE RESEARCH
Our overriding aims are the reduction of costs for large-scale introduction of renewable and
environmentally sustainable electricity delivered to the consumer, as well as the development
of more cost effective and energy efficient hybrid and electric vehicles. The following research targets will, in the present call, be addressed within the context of their different roles
in relation to our largest man-made system, the electrical power system:
A. New renewable technologies as well as methods for analysis and design for optimisation of available technologies to enable cost-efficient large scale generation of electricity from renewable sources.
B. Technologies and methods, including automation, communication, control, planning
and supervision, that enable cost-efficient transformation of the transmission & distribution system to accommodate large scale variable production of electricity while retaining high levels of reliability.
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C. Technologies and optimised systems for hybrid and electric vehicles including solutions for grid supply.
D. Biomass-to-refinery technologies, incorporating supply of biomass, plant biotechnology through bio/chemical polygeneration, for production of biofuels for transportation
and production of electricity.
All of the above research targets need to be addressed from a systems perspective, integrating
issues such as the environmental and social impact of technologies as well as decision making
in and around socio-technical and technical-ecological systems. This systems approach also
includes that the research targets will all be approached with a philosophy incorporating application of front-line competence from analytical theory, computer simulations, and lab experiments to full scale on-site experiments and commercialisation. All in order to facilitate
that innovations and ideas that arise from the research best lead to:
• Development and implementation of new technologies and practices aiming at new
energy systems solutions that satisfy the criteria of sustainability
• Products and/or systems and/or services, which can be implemented in existing industries or serve as a foundation for new industries
• Practices and policies that will help disseminate technologies and promote desirable
technological paths to benefit society in a sustainable way.
4 RESEARCH THEMES
To reach the above mentioned targets, five research themes will be strengthened and developed within the STandUP partnership. The proposed work within these themes builds on already established research groups with proven excellence and relevance to industry and society. The presentation of the research themes addresses the development needs reflected in the
Government’s call, and since this structure cuts through several traditional scientific disciplines some research groups are present in several of the areas. Additionally, the research
theme on Systems Analysis and Environmental Assessment is a cross-cutting activity that
complements the technically oriented areas.
4.1 Systems analysis, environmental assessment and decision making
To be sustainable, energy systems have to be defined within boundaries set by climate, environment and socio-technical contexts over time. To handle this complexity, a systems analysis
approach is necessary. Technological systems solutions based on renewable resources and
capable of operating at high efficiency need to be devised and disseminated. Yet, a successful
shift towards renewable systems depends not only on technological progress but also on political and social institutions, whereby policies, legislation and cognitive structures are important determinants.
4.1.1 Current quality of the research in international comparison
Within the STandUP partnership, systems analysis is a strong and highly innovative research
area with both theoretical and applied research. Many of these environments at KTH were
highlighted in the RAE 2008. The ability to develop mathematical models for simulation and
optimization, and the application of decision making tools is a main competence in the partnership. In addition, KTH has very strong research groups in historical studies of sociotechnical systems, in industrial dynamics and in strategic environmental studies. At Uppsala
University there is long-standing research at a high international level on political institutions,
legislation, and decision-making. SLU has a strong competence in theory development and
systems analysis of terrestrial ecosystems, as well as in applied systems analysis including
energy efficiency and bioenergy supply in the agricultural sector. SLU also has a unique com-
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petence in environmental effects, as regards production and soil ecology and conservation
biology, of intensive harvesting and mitigating practices.
4.1.2 Plans for development of leading edge research
Systems shifts and systems interactions for climate change mitigation and adaptation
Efficient and sustainable energy solutions demand understanding of the interaction between
society, various infrastructure systems and the natural environment. Conflicts regarding e.g.
water use and river management will arise as use of (intermittent) renewables increases. Energy systems are likely to evolve differently in different countries. Understanding technological path developments is important for seizing market opportunities for Swedish industries.
Institutions, industrial dynamics and decision-making
Historians, political scientists, economists, psychologists, legal experts and policy analysts
will together analyse technological shifts allowing us to pursue a broad spectrum of studies
aimed at analysing obstacles (political, legal, economic etc.) to the introduction of sustainable
energy systems, changing institutional conditions in energy markets in Sweden, the industrial
dynamics and transformations of Swedish energy-related manufacturing industries, and energy innovation and entrepreneurship. We will construct future scenarios of renewable energy
systems and make back-casting analysis of these scenarios. This will allow the evaluation of
decisions needed within a context of political and institutional forces, as well as in relation to
the cultural/psychological and environmental contexts that shape such decisions.
Environmental impact assessment
A major expansion of renewable energy from biomass calls for new tools for limiting the environmental impacts of intensive harvesting systems. Presently ~25% of the energy supply in
Sweden is from biomass, predominantly from conventional forestry. Optimization of decision
making tools for forest energy supply will thus have a profound impact on the energy system.
We intend to develop planning and decision making tools that integrate data from environmental databases with our scientific knowledge of environmental consequences of intensive
harvesting. The “expert system” we aim to develop will be clearly operational in practise and
will be developed in co-operation with The Forest Research Institute (Skogforsk). It will optimize the utilization of biomass, allow for backtracking of certain biomass batches, optimize
estimates of needs of mitigation measures and help balance conflicting environmental goals.
4.2 Renewable Production of Electricity
The overall aim of the research theme, the reduction of cost per kWh of renewable electric
energy delivered to society, requires new generation sustainable technologies, improved existing technologies, and novel solutions for flexible regulatory power systems to stabilize the
impact of intermittent energy sources. Studies of individual components in the chain from
source to consumer will be integrated in a systems approach.
STandUP expertise includes basic and applied competence in electricity generation from
Wind, Wave, Solar, Hydro, Marine Currents, Bio-fuel plants and Geothermal plants. Recently
performed international peer-reviews6 of the groups resulted in evaluations such as“world
leading in generators and systems”, “the work done on aero-elasticity at full scale, unique in
size and sophistication of the measurements among university laboratories”. Several groups rank
high above the international average with regards to field normalized citation scores. Our staff
are outstanding in an international comparison in terms of e.g. citations and patents (see CVs).
6
Uppsala’s KOF report 2007: http://usxs.fysik.uu.se/main.php/KoF07.pdf?fileitem=8225372
KTH’s RAE report 2008: http://www.kth.se/polopoly_fs/1.27967!rae_project_report.pdf
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Some distinguished awards7 such as, the “Chevalier de L’Ordre National du Mérite”, from the
French President and the "ASME Dedicated Service Award". Current external funding to staff
is approx. 90 MSEK/year. Most of the 15PhDs produced per year continue either in (international) university research or in industry. As one of ten groups in Europe and the only one in
Sweden, via the FP 6 program EUSUSTEL 2004 STandUP researchers obtained funds for EU
2020 renewable grid perspective comprising wave power, hydro power, geothermal power
and marine current power. Staff participate in many international bodies including the IEA,
IPCC, CIGRE, WEC (World Energy Council) and EU organs, and coordinate large European
level projects, e.g. FUTURE8 with a budget of over 120 MSEK. STandUP staff also have central roles in the production of national energy reviews under e.g. the auspices of IVA and
KVA9.
One key to experimental success is our unique ability to calculate and simulate electromagnetic power products and systems based on fundamental physics and e.g. FEM solvers. This
approach can model entire systems, including grid interaction together with mechanical, aerodynamical, and fluid mechanical interactions involving turbines and absorbers of high-level
mechanical energy. Today, the partners have world unique operational national and international full-scale laboratories and demonstration plants in Porjus (Hydropower), Lysekil
(Wave power) and Marsta (Wind power). Ongoing research will develop new full scale laboratories in Söderforsen (Marine Current power) and Falkenberg (Wind power) in the near future. Some of the experimental plants are already grid connected. The quality of the applied
science within the units is further demonstrated by the hosting of several very large externally
financed centres, such as the Swedish Centre for Electric Renewable Energy Conversion10,
Molecular devices11, the Linnaeus FLOW centre12 and Turbopower13. Several spin-off electricity production and grid integration companies have been created including Solibro, Seabased, Vertical Wind and Current Power.
In 2008 the US Amb ranked the wave power spinoff company Seabased as No. 1 of Swedens
“CleanTech” companies. In his 30 Best “CleanTech” list 2007, Vertical Wind and Solibro
were also ranked. The group at UU represents world leading competence in developing PM
synchronous generators when it comes to a holistic optimisation of wind parks both with respect to turbine operation and with respect to substation efficiency, as indicated by the “12
Bill Gates” nomination of Vertical Wind by WWF 2008.
Hydro power systems
Hydroelectricity production in Sweden can be increased from today’s ~65TWh/year and will
be increasingly used to regulate intermittent production from e.g. wind. This presents new
technical challenges for hydro-plants, for river system management and for the total management of the grid system. Activities include:
• Analysis for upgrading of existing large-scale hydro-turbines using simulations and
experimental verification. Optimised design of new and upgraded small-scale plants.
• Modelling and analysis of the interaction of components, e.g. turbo rotor string, generator with the grid, given the requirements above.
7
Nominations for Discover Awards and two times for Financial Times Energy Awards
europa.cordis.eu – keyword FUTURE.
9
IVA: The Royal Academy of Engineering. KVA: the Royal Academy of Science.
10
www.el.angstrom.uu.se/CFE/CFE_se.html
11
www.moleculardevices.se/
12
www.flow.kth.se
13
www.turbokraft.se/
8
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•
Models and analysis on the use of hydro power as a balancing resource for power and
energy on the system level under liberalised market conditions.
Thermal fuel-flexible biomass driven polygeneration plants
Biomass is the largest Swedish energy source classified as renewable, and production can be
increased. Especially interesting are combined electricity-heating plants, Challenges include
growth and preparation of the raw material, combustion and thermo/aerodynamics of future
turbines, the use of remaining heat and treatment of the emissions. We will develop:
• Analysis techniques to reach high efficiencies with small-scale machines (optimal
from a user perspective) including catalytic combustion for low emissions.
• Biomass adapted gas turbines and studies on efficiency increases in steam turbines.
• Environmentally sound biomass production and forest harvesting methods cf 4.1.2 and
4.4.2.
Wind energy conversion and integration
Efficient wind electricity generation from groups or “farms” demands development of individual components, park design allowing for wake interactions, and facilities suitable for extreme climate (arctic and offshore). Effective research on real, functioning systems such as
fully electrically controlled turbines must integrate several areas including turbine aeroelasticity, generator design and performance, interconnection in parks, and studies of part-load and
over-load behavior of the grid. Topics include:
• Development and system optimization of parks and individual turbines e.g. vertical
axis turbines connected to direct driven PM synchronous generators on the ground,
which have the potential for producing simple, robust and inexpensive power plants.
• Modelling of traditional wind turbines, including ice build-up models and large scale
simulation tools for accurate modelling of complex terrain as well as aeroelasticity and
spreading of noise from turbines.
Wave energy conversion
Global wave power is estimated as 1-10 TW, and within EU and Nordic territory ~2000
TWh/year and ~700 TWh/year respectively. The buoy-linear generator system concept (Fig.
1) developed at UU represents world leading technology. It is on the threshold of becoming
the first commercial wave energy technology in the world. A successful test station with land
connection of generated power has been demonstrated at
Lysekil since 2006. Continuous operation has been recorded
for almost 13 months, which enables this technology to be
the first accepted by Department of Trade and Industry UK
for grid connection. Main targets are:
•
Fig. 1 Illustration of the buoy-linear
generator system
Optimization of Wave energy plants through analytic calculation, computer simulation and verifying
experiments regarding energy absorption, electricity
conversion with high efficiency, grid integration,
hydrodynamics and environmental impact.
• Design of large scale wave power integration of
plants from 150 -1000 MW and beyond, using both
traditional transmission technology and patented
grid systems.
• Development of power system control and monitoring of large scale parks.
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Marine current energy conversion
Marine currents are a vast, largely untapped and highly predictable energy resource. The experimental plant now under construction will enable experimental verification of the design’s
analytical calculations and computer simulations. The research covers:
•
•
•
•
Analysis and design of vertical-axis technology that can harness energy competitively
from low speed marine currents (<2 m/s), using very low speed PM synchronous generators and power electronic systems with high working efficiency and durability.
Mapping and evaluation of the energy resource in the Nordic countries, including watercourses and tidal waves.
Development of monitoring and control of multi-unit large scale systems.
Research for innovative new concepts.
Sustainable solar energy conversion
The large solar resource can be tapped thermally (steam and turbine), photovoltaically (solar
cells) or via conversion of solar energy to fuels, e.g. hydrogen. Challenges include for thermal
efficient concentration, the materials involved and thermal storage for “solar downtime”, and
for solar cells improved efficiency for e.g. semiconductor thin film (e.g. CIGS) and molecular
and nanosolar cells. Research will focus on nanostructures with the ambition to achieve energy conversion efficiencies beyond the Shockley-Quiesser limit of 32%. The near-term goal
is to break the world record of a thin film solar cell by matching the best layers and bring the
STandUP present 18.5 % technology to 20 % efficiency. The proposed research covers:
• Characterization and modelling of co-evaporation processes for CIGS layers. Development of techniques for improved quality of transparent conducting oxides.
• Development of solar concentration techniques and/for solar thermal turbomachines and storage of thermal solar energy.
Geothermal energy
The vast geothermal resource is used extensively in Sweden for heating, but not yet electricity
production. STandUP is engaged in successful geothermal projects abroad (e.g. Iceland),
prospecting for hot permeable areas. If suitable permeability at sufficient depth can be found
or induced in Sweden, then electricity production becomes viable. We will develop:
• Prospecting tools for deep permeability in (meta)sediments, active faults and episyanites (crystalline rock with up to 10% porosity, common in Sweden)
• Enhanced geothermal extraction by via e.g. better heat exchangers.
4.3 Integration into the Electricity Network
The overall aim is the cost-efficient transformation of the transmission & distribution system
to accommodate large scale variable production of electricity while retaining high levels of
reliability. The mission is twofold; first development of methods and tools for analysis and
design of flexible transmission and distribution systems; second, development of algorithms
and methods for control and operation of such systems including analysis and design of controllable power system components and integrated information and control systems.
The research within this theme brings together expertise from leading groups within integration of wind power into the electricity system, information and control systems for power system management, power electronics and high voltage engineering. Several of the involved
groups has been evaluated as “well organized and in many ways the most advanced university
unit in its field in the Nordic countries”14. This evaluation also showed that the units were of
14
www.kth.se/forskning/rae/1.28085?l=en_UK
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high international scientific standing with a field normalized citation score significantly (34%)
above the international average. As an indicator of the group’s strong industry relevance and
the close industry cooperation, 60% of the annual external funding of 30 MSEK comes from
the power industry. The units together produce on average 9 PhDs per year, with a majority
going into research at universities or in industry nationally and internationally. Staff exhibit
outstanding scholarship as demonstrated by high citation ratings, assignments as principal
investigator for a government study on grid connection of renewable generation, and as advisors in all significant power system control centre projects in the Nordic region.
Staff have been elected to positions such as Fellow of the IEEE, and been awarded prizes such
as the Gold Medal from the Swedish Academy of Engineering Sciences. Several staff serve as
the national representative in international working groups e.g. the IECs Strategic Management Board study group on Smartgrids, IEA’s Annex XXV “Integration of large amounts of
wind power” and CIRED’s session advisory group on Power System Operation. KTH has also
arranged courses in power system control that have been attended by hundreds of power utility managers from 75 different countries across the world.
The applied nature of the field implies close co-operation with industry and access to lab infrastructure both for testing of power system components and for studies of system level phenomena.
Integrated Operation, Control and Design of Flexible transmission grids
For optimal, yet secure, design and operation of the grid it is essential to continuously monitor
the variable power flows induced by intermittent renewable sources and to steer the system
effectively. A number of new technologies are being developed to support these developments. Measurement technologies such as PMU (Phasor Measurement Units) form the foundation for efficient and flexible power system control. Control is also improved by flexible
power components such as FACTS technologies and developments within HVDC/MTDC.
For traditional components, higher levels of demanded manoeuvrability imposes new requirements. Prerequisite for optimised and secure operation of transmission grids is a secure,
high-performing and reliable ICT infrastructure. The work within this area will involve:
• Converter and system design of HVDC and FACTS technologies as well as new designs of FACTS and efficient modelling to allow simulation of large systems.
• Development of linear and non-linear control strategies based on WAMS (Wide Area
Measurement Systems) and FACTS, HVDC and PSS, as well as coordination of such
controllers.
• Development of models and methods for prediction of wide area information and control systems behaviour, including system security, reliability and performance.
• Development of design and modelling techniques for high power electromechanical
systems providing operation endurance of coupling devices with frequent manoeuvres.
• Development of stochastic models and methods for planning and operation of large
power systems including significant variable production sources
Intelligent automation and protection of grids with large amounts of intermittent sources
With large intermittent input from e.g. wind power, traditional power flows will change as
will the electro-mechanical behaviour of the power system. In addition, the increasing use of
technologies including converters, such as HVDC, also means that the number of rotating
masses directly connected to the power system will decrease. It is desirable to utilize renewable energy as much as possible when it can deliver the most, implying that sub-grids must
withstand high stress without jeopardizing the reliability of the system. These developments
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V
together mean that traditional ways of handling faults and contingencies must evolve to new
intelligent automation and protection systems. Research activities will include:
• Development of coordination of protection systems and control systems in HVDC and
FACTS, including DC protection systems, that enable risk mitigation of cascading
faults resulting in black-outs.
• Development of new monitoring techniques to achieve optimum utilisation of components, including DC and PWM controlled equipment, by monitoring the actual thermal, mechanical and electrical stresses thereby cutting design margins.
• Design of robust, safe and secure automation, protection and control systems through
development of models for analysis of reliability, security and performance of the
ICT- systems interaction with the power system management process.
Infrastructure for usage centric electric power systems
Power delivery naturally focused on the balance between production and consumption. Traditionally, however, the consumption side of the market has had little attention and customers
have been no more than “loads”. It is foreseeable that consumers will play a much more active
role on the market. Driving forces in this development may be the introduction of electric vehicles, which in addition to charging needs may also serve as energy storage devices, and
small scale production from e.g. wind and solar power. In order to enable this future scenario,
the grids, the ICT infrastructure and the customer services for power delivery need to be extensively enhanced. The proposed activities, to be conducted in close collaboration with the
Energy management for hybrid and all-electric vehicles activity in section 4.3 are:
• Methods for planning, design and analysis of highly reliable distribution networks that
enable micro-level generation, centralised charging locations for electric vehicles and
distributed energy storage.
• Methods for optimising the performance, security and interoperability of the ICT infrastructure necessary to provide the needed customer services.
4.4 Electric Propulsion and Hybrid Vehicles
Hybrid and all electric vehicles hold the potential to dramatically decrease the energy consumption and environmental impact of road vehicles. In order to succeed with a broad commercial introduction research in battery technology is imperative. The aim is to find cost efficient, compact, safe and reliable energy storage possibilities in combination with efficient
electrical propulsion and other on-board systems. This also involves the development of
highly efficient and cost effective power electronic converters. Hybrid vehicles will to some
extent be dependent on internal combustion engines. It is therefore also important to incorporate a system analysis approach as well as to develop e.g. bio-fuels in order to make the total
ecological footprint as small as possible. Grid connection of vehicles will substantially contribute to lower CO2 emission, given the energy mix of the Swedish electricity system.
The participating groups represent extensive expertise in batteries (see Fig. 2) and fuel cells,
electric propulsion systems, internal combustion engines and energy management for hybrid
and all electric vehicles. The joint activities for battery and fuel cell research at UU and KTH
forms one of the largest groups in Europe with a unique profile spanning from the synthesis of
new materials and battery concepts to the industrial testing and modelling of batteries in real
applications. Concerning electric drive systems, the partners have a long track record filled
with innovative solutions in the automotive industry.
The STandUP partners have a documented strong tradition of engagement in national programs in the area of hybrid and electric vehicles, such as Programrådet för FordonsForskning
(PFF), the Green Car, The Strategic Vehicle Research and Innovation Initiative (FFI), Energy
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systems in road vehicles, Mistra’s Fuel cell programme, as well as centres as the Swedish Hybrid Vehicle Centre (SHC), ECO2 and Cicero, all involving the automotive industry.
STandUP participates in several EU-programs, is national representatives in IEA-annexes and
currently attracts ~55 MSEK in annual external funding for research in the field not including
work on ICEs, involving about a dozen research groups. The ~10 PhD relevant graduates per
year do not satisfy the present needs of industry. Awards of merit include prizes for the battery research. A staff member is an editor of J. Materials Chem., and coordinator of the EUprogram SUPERLION. Staff have also been actively leading an initiative to develop an educational programme for both university students and industrial engineers within the Green Car
project. Strong patents in electric propulsion systems have led to spin-offs e.g. Electric Line.
Vehicle research is a cross-disciplinary activity that requires an environment where key results from different areas can merge and melt together. A joint, unique and long-term initiative between all research groups at UU and KTH involved in driveline and vehicle research
will be achieved through a collaboration to initiate, implement and coordinate research towards realistic demonstration of radically new vehicle concepts of the future. This will be
achieved by establishing one common implementation laboratory, a “vehicle factory” where
batteries, fuel cells, flywheels, internal combustion engines and electric propulsion systems
can be integrated in vehicles. The lab will be the internal and external attraction pole promoting the visibility of STandUP research and innovation excellence, and joint driving forces of
curiosity and need.
Energy storage for mobility
The battery is a key component in all type of hybrid electric or all electric vehicles, either as a
power and energy buffer in hybrids, or as primary energy supply in plug-in hybrids or allelectric vehicles. Activities will be directed towards the development of batteries with lower
cost and high safety, better durability especially for deep cycles, and improved energy and
power density. Even with the most optimistic view of future battery development, there will
still be a demand for sustainable solutions with higher energy density than batteries. Today
internal combustion engines are used for this, but vehicles based on hydrogen fuel cells are
considered as a medium-term possibility. Our work will address limited lifetime and high
costs which still are major obstacles. Efficient storage of hydrogen onboard vehicles is another field of importance. Thus, our work will involve:
Development and characterisation of new battery and fuel cell materials, especially
electrode materials and novel catalysts and electrolytes for low temperature fuel cells
Modelling and experimental investigation of performance and life limiting processes
of batteries and fuel cells. Integration of cells into battery units, state-of-health and
temperature management, and monitoring of battery performance in real vehicles
Conversion of fuels to hydrogen rich gas on board vehicles. Development of solidstate hydrogen storage systems that operate on a fully reversible basis at temperatures
below 100˚C and ambient pressures.
Electric propulsion systems
Future propulsion systems will be largely based on electrical or semi-electrical drive systems
for several reasons: efficiency, controllability and flexibility. Efficiency is addressed by using
new materials, topologies and analysis methods. Controllability and flexibility require new
power electronics to meet the demands on the links between the battery, the grid and the electric machine of an electric or hybrid vehicle. Power conversions at efficiencies of up to 99 %
and high temperature are possible with SiC technology. High-efficiency operation at hightemperatures enables compact designs. The overall aim is to achieve high energy efficiency,
which makes it vital to address losses and size requirements. The research will cover:
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Radical new energy efficient propulsion systems based on electrical drivelines
Development of semiconductors and power electronics based on SiC and diamond
Volume- and weight reduction of sub-systems for increased efficiency
Energy management for hybrid and all-electric vehicles
With a mix of electrical and bio-fuel energy supply onboard, it is imperative to develop
strategies that utilise the energy as efficiently as possible while maintaining the characteristics
of a user-friendly vehicle. The strategies have to consider the capabilities of batteries, internal
combustion engines based on new energy efficient concepts and operating on renewable fuels,
advanced fuel cells and the demands from all onboard loads. We also have to consider the
possibility for energy exchange with an electrical grid. The energy management problem is
partly a technical challenge but it also has to rely on understanding of the habits of a future
driver. Focus areas are:
Energy strategies for new powertrain concepts including human interactions
Grid management and charging strategies, in close collaboration with the Infrastructure for usage centric electric power systems activity, see section 4.2
4.5 Biorefineries and Biofuel production
No single biofuels/biorefinery solution will be sufficient to meet global needs given the current rate of petrochemical and liquid fuel consumption. The problem is further complicated by
issues such as regional variations in biomass availability and production rates, as well as conversion efficiencies and energy balances. Thus, efficient coupling of diverse biomass sources,
including energy crops and waste materials, to both biological (enzymatic/fermentation) and
chemical (thermal) conversion technologies will be necessary to maximize outputs of liquid or
gaseous fuels for the transport sector (as well as high-value chemicals) while minimizing environmental impact.
The research teams involved contribute top-level scientists in the areas of plant cell wall biosynthesis and structure, carbohydrate enzyme structure/function, fermentation microbiology
and gasification. The scientists are integral to a number of leading research centres, research
schools and EU projects with strong links to, and funding from, industrial partners (Appendix
3). Current combined KTH/SLU Uppsala funding in the biomass area is ca. 180 MSEK/y,
with ca. 10% from the EU. SLU Uppsala and KTH staff are members of various journal editorial boards, councils and scientific committees within the area The critical mass of the research groups involved is significant, the Division of Glycoscience at KTH Biotechnology
~25 full-time scientists (P.I.s, post-docs, & Ph.D. students) working on various aspects of cell
wall biotechnology. Microbiology & Molecular Biology has 30 P.I.s, post-docs, & Ph.D. students working on biomass pre-treatments, fermentation, etc. The Salix breeding research program at SLU has ca 14 full-time scientists. In addition, SLU hosts a graduate school in bioenergy with 20 PhD students.
4.5.2 Plans for Development of Leading Edge Resesarch
The vision of this research theme is to synergize core competence areas in biomass production, degradation, and conversion at KTH and SLU Uppsala to create a strong regional conglomerate for bio-based fuel alternatives. Together, this initiative will cover the entire spectrum of development, from environmentally-adapted biomass production (with the first focus
on the northern latitudes), through carbon interconversion. Resulting new technologies in
plant biotechnology, enzyme technology, pre-treatment and extraction, microbial cell factories, and catalytic chemical processes will be patented, developed, and transferred to industry
via established and emerging networks (see Appendix 3).
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Plant biotechnology and ecology for environmentally sound biomass production
Plants have evolved effective mechanisms for resisting assault on their structural sugars from
microbes and animals, creating technical barriers to the cost-effective transformation of lignocellulosic biomass to fermentable molecules. New approaches for designing improved energy
feedstocks, deconstructing cell walls, and solubilizing their polysaccharides are needed. Salix
is an excellent energy crop, which grows fast and has a positive energy balance of >20X. The
Swedish Roadmap ”Bioenergy from agriculture”, SOU 2007:36, concludes that Salix is the
most efficient crop for bioenergy production in Sweden. Salix wood is today used for production of heat, but it also has a high potential to be used for production of biofuels, ethanol and
biogas. Salix is a relevant model system, the results from which will be extended to other
plant biomass sources.
Integrate ecological (insect, fungal pests), physiological (efficient use of resources)
and molecular methods to increase raw-material availability with minimized environmental impact
Develop fundamental knowledge about Salix genetics and production ecology to enable breeding new Salix clones with high content of easily degraded lignocellulosic
biomass.
Unlock molecular-level secrets of cell wall structure and biosynthesis to both guide
plant biotechnology for biomass engineering and to assist the development of efficient
processes to deconstruct lignocelluloses.
Biorefining lignocellulosics for fuel and chemicals
Knowledge of the structure and chemistry of wood and wood components are of primary importance for efficient generation of fuels and chemicals from lignocelluloses. For example, the
selective extraction of plant (wood) cell wall polymers in biorefinery applications will, to a
large extent, derive its technology base from existing wood-based industrial processes, especially pulp production. In harness with plant biomass cell wall engineering, there is an implicit need to develop enzyme cocktails which efficiently saccharify polysaccharides prior to
fermentation. Indeed, microbial cellulases currently stand at the focal point of all current fermentation-based biorefinery processes, while the development of new, selective and more
efficient catalysts of (hemi)cellulose saccharification will improve both biochemical and
thermochemical processes. Finally, improved biochemical conversion processes are required
for the efficient production of liquid and gaseous fuels,, in new biorefinery concepts.
Development of new methods for analysis and selective extraction of ligninpolysaccharide networks, including various physical pre-treatment techniques, e.g.
Cambi steam explosion.
Development of a cutting-edge enzyme discovery platform, involving genome mining,
recombinant protein expression, biochemical characterization, and three-dimensional
enzyme structure analysis leading to enzyme applications.
Improve biofuel and chemical production from biomass through advances in the discovery and engineering of microbes (novel bioethanol and biogas) processes, enzyme
pre-treatment, energy efficient biopreservation, ethanol co-products, and soil incorporation of biogas digestate/residues.
Thermo-chemical conversion of biomass to renewable fuels
Gasification is generally considered as one of the key processes for the production of renewable fuels and the main activities within this area are also centred around gasification of biomass where the STandUp group owns the only pressurised bubbling gasifier in Europe. The
main activities are conducted within the 5-year EU CHRISGAS project. This strategic research examines the possibility to use cheaper, less pure fuels in a fluidised bed. The FischerTropsch synthesis path for the production of fuels provides an integrative process for convert-
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ing the synthesis gas from the gasified of biomass. The planned work for the future as part of
this proposal will involve:
Characterization and screening of fuels by ash analysis, (e g tar and alkali analysis)
Determine where in the process sulphur and other contaminants are best removed, e g
via sharpened process analysis methods through simulation of the gasification process.
Develop catalysts of the nano-particle type with micro emulsions for fuel synthesis
Technical system analysis of renewable fuel productions to determine the most promising paths from an efficiency point of view.
5 FACULTY DEVELOPMENT AND OPPORTUNITIES FOR YOUNG RESEARCHERS
The international competition in research and high-tech industry constantly increases. It is
clear that even large research universities must in the future actively and consciously focus
their resources to enable their research groups to remain in the international forefront. Our
STandUP concept is designed to achieve this by focusing reinforcements, by avoiding overlapping and competing activities at the partners, by proactively seeking synergy effects between research groups throughout STandUP, and by developing a mutual and effective interface to industry partners to enhance technology transfer. The STandUP organisation will, via
inter-partner discussions and agreements, contribute to optimal strategic development of energy research within each university and between universities by e.g. ensuring that all
STandUP activities are “overcritical” in volume and can truly compete internationally. This
coordination will lead to greater productivity at all of the partners, as well as allowing
STandUP as a whole to be a coherent and significant unit in European energy research. As
part of STandUP’s policy of focusing resources, approximately 50% the budget is intended to
reinforce existing research groups, largely via offering young, already employed, researchers
permanent positions. This will build strong profiles for the future. Strengthening will also be
achieved via recruitment of top-talents from outside. Mobility between the involved universities, institute partners and industries will be stimulated.All STandUP partners have identified
the strategic importance of developing and retaining young faculty members to establish and
maintain the diverse competence necessary for the future. The junior faculty organisations
within the universities will have an important place in our post-doc programs.
6 GENDER EQUALITY AND DIVERSITY
The gender equality plan of STandUP is based on and fully complies with the overall gender
equality policy of UU, KTH and SLU. Gender equality work at the three universities is both
short-term and long-term and conducted in accordance with the Swedish Discrimination Act
(SFS 2008:567). Mandatory gender equality plans are drawn up at central, faculty and department levels. All universities have management groups for gender equality issues, and
gender equality officers provide individual employees/students and management at all levels
with information, advice and training in gender equality issues. UU, KTH and SLU all strive
for gender balance, and have initiated activities to increase the proportion of women at senior
positions. UU has allocated extra resources of 4.5 MSEK/year for this cause. Within this initiative, the entire recruitment process is investigated from an equality perspective. Over the
past decade KTH has doubled the number of women starting in research education to 30% and
seven female Professors were recruited to KTH in 2007. Other measures are university cofinancing for departments recruiting female candidates for senior positions, and financial support for persons of the under-represented sex that within the near future could qualify for
promotion to professor. A new leadership program for women, focusing on leadership and
gender issues in the academic environment, has also been launched as a part of this gender
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equality initiative. STandUP will, in addition to adhering to these policies, initiate and fund a
mentor program with special emphasis on gender issues. The diversity plan of STandUP is to
encourage and enhance diversity with respect to different ethnic and religious background to
stimulate creativity at the universities. This also fully complies with present policies at UU,
KTH and SLU.
7 LINKS TO HIGHER EDUCATION
In their Strategic Plans for UU15, KTH16 and SLU17, the link between high quality research
and education at all levels is strongly emphasized. All faculty members will engage in teaching bringing students into contact with key research environments. UU is one of the largest
universities in Sweden with 40 000 students and 2000 research students. KTH is the largest
technical university and training ~1/3 of all masters engineering students in Sweden. SLU a
unique national responsibility for several unique professional educational programs and
~3500 full time undergraduate students. Together, STandUP fosters over 40% of Sweden’s
Master of Engineering students UU, KTH and SLU devote considerable resources to developing the didactic skills of all staff. For example, the KTH Learning Lab supports teachers from
across the university and plays a leading role in developing an approach to engineering education known as CDIO – Conceive, Design, Implement and Operate – together with international partners. The UU Learning Lab trains staff in using advanced information technology in
their teaching. All Masters’ level courses are taught in English to an international audience
with a focus on leading-edge research. Six master programs at KTH, of which two are funded
by the EU, and three master programs at UU are focused on energy. More than 150 courses
with strong energy content are presently being offered by the three universities. The “Energy
systems” engineering programme given by UU and SLU in collaboration emphasizes a systems perspective on conventional and renewable energy sources. At KTH, a unique educational e-learning platform in energy technology has been developed allowing experimental as
well as theoretical remote learning, of particular benefit to students in developing countries. A
new program in Energy and Environment is now starting. At UU the master program System
in Technology and Society has a special profile in energy where economics, law and governmental studies are combined.
8 INFRASTRUCTURE
The partners in the STandUP group own and operate a large base of infrastructure relevant to
the energy area, over the years totalling investments in the range of one billion SEK. This
includes large-scale, in some cases world-unique, sites including wave power plants, experimental wind farms, combustion test-benches, turbine and wind tunnel rigs, and clean rooms
(MyFab) as well as field experiments for production of bioenergy crops. Both for education
and research we envisage the further development of existing computer-based platforms for
remote access to these distributed facilities.
15
Mål och strategier för Uppsala universitet, www.uu.se.
KTH i människans tjänst för framtidens samhälle, utvecklingsplan för 2009-2012, www.kth.se
17
The Life Sciences and Knowledge for a Sustainable Future, SLU’s strategy for research education and environmental monitoring and assessment 2009-2012, www.slu.se
16
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STandUP for Energy – Appendix 3
APPENDIX 3 STANDUP FOR ENERGY
1 INTRODUCTION
This appendix describes the relevance of the proposal to industry and society in general and
to Sweden’s situation in particular.
1.1 Strategic Direction of Swedish Society
If society wants more renewable energy on a large scale it appears that currently used technology
is not good enough. Major advances in design are genuinely necessary. The research areas of
STandUP are responding to the long term vision for renewable energy sources in the EU, by
2020. The overall aim is to deliver renewable energy at reasonable costs.
In Sweden, the use of fossil fuels has been significantly reduced and the total energy demand
in the country is the same today as in the early 70s. Sweden has the largest share of renewables in the EU and also one of the lowest CO2 emissions per inhabitant. The national energy
and climate agenda is aligned with the EU pillars of ecological sustainability, competitiveness and security of supply. This includes also ambitious goals for 2020 including that 50% of
the energy supply shall come from renewable sources and 10% of the energy in the transport
sector shall come from renewable sources. The Government has also underlined the importance of developing renewable electricity production as a complement to hydro and nuclear
power. In the transport sector, the major fossil
fuel consumer in the country, the dependence on
fossil fuels will be broken and overall efficiency
increased. The automotive industry is expected
to have a major role in this process through the
development of electric, hybrid and biofueldriven road vehicles. Present policies and targets
indicate that Sweden can become a major exporter of electricity in the near future.
Fig. 1 A hydro power generator (M. Leijon UU)
1.2 Relevance of the STandUP Proposal
The objectives and activities proposed in the research program of the STandUP group provide necessary scientific support to Swedish energy and climate agendas in their ambitions to
reach the sustainability targets for 2020. The proposed research is innovation driven and
aims at new and more cost-efficient ways of generating and integrating renewable electricity
as well as production of biofuels for transport and production of electricity, in combination
with efficient energy storage solutions.
Innovation in energy-related technologies will contribute to the competitiveness of Swedish
industry within the increasing markets for clean technologies. Research in the STandUP
group is unique in having resulted in the establishment of a large group of companies active
in renewable electricity production, grid integration and the automotive industry. The transformation of the transmission and distribution systems necessary to accommodate large
amounts of electricity from renewable sources will take place under market conditions and
must not risk the security of supply. The STandUP group provides competent solutions to
facilitate and manage this transition.
Perhaps the most important contribution to society from the STandUP research units is competence development in the form of graduate students and PhDs. The impact this has on
Swedish society cannot be overestimated. The units represent more than half of the produc1 (10)
tion of PhDs within electrical power engineering in Sweden. In addition, the STandUP group
is strong in international education at master's level, an important outlet for knowledge dissemination
1.3 Relevance of the Research Themes in Detail
The following four sections provide more detail regarding the individual research themes presented in the research program and their relevance and relation to industry and society. The
important systems, environmental and socio-economic perspectives permeate the other
themes, and are therefore not discussed separately here.
1.4 Renewable Production of Electricity
Increasing the share of renewable electricity production is perfectly feasible. In fact, there is
no shortage of potentially accessible energy around us. The Sun delivers about 15 000 times
the amount of energy we need for today’s society. The real issue becomes the various costs
associated with available energy sources, including e.g. environmental costs.
1.4.1 Relevance of the Research Theme
Despite some issues of preference and e.g. national security, the dominant factor deciding if
e.g. wind power has a long term future is its costs relative to the alternatives. These costs today are probably too high for this to be genuinely viable on a large scale. To significantly reduce the cost per kWh for the consumer improvements of wind, wave, marine current and
other renewable sources are necessary. For instance the costs for construction and maintenance of wind turbines must be reduced; solar technologies need to be further developed to
enable higher degrees of efficiency; hydro power systems need to be optimised both to increase efficiency and to cope with the new requirements from the variability of renewable
sources in the grid system. As is evident from the research program, all of these areas are being addressed by the STandUP group, the ultimate aim being increased amounts of electricity
from renewable sources via more cost-efficient production techniques developed within the
STandUP group.
1.4.2
Industry participation in planning
& implementation
The STandUP partners have significant ties
with the energy production companies in
Sweden and Europe. Units in the group cooperate with and are partially funded by all
large utility companies in the Nordic market,
i.e. Vattenfall, Statkraft, Fortum and E.ON
but also by multinational companies: Draka
Cable, GE, Siemens and ABB. Much of the
work is performed within the Swedish Centre for Renewable Electric Energy Conversion, CFE1. UU is also a member of the
Fig. 2. Large-scale test rig for flow studies in gas turbine. (T. Fransson KTH)
Nordic Renewable Marine Energy Network
which is funded by Statkraft. Research in
hydropower is gradually improving largely due to the efforts of the industrial and academic
partners within the Swedish Hydropower Centre SVC2. The STandUP partners represent a
1
2
http://www.el.angstrom.uu.se/CFE/CFE_se.html
www.svc.nu
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majority of the research within SVC which is supported by numerous industrial partners.
Wind technology research is also strong within STandUP and has lead to the wind power
manufacturing company Vertical Wind3. Research and practical development of wave power
is advanced and expanding and has recently lead to the start-up company Seabased4 opening
a factory on the west-coast of Sweden for manufacturing of complete wave power systems
including wave power devices and off shore grid system to grid connection at different voltage and power ratings. Progress in kinetic energy conversion of moving water led to a number of patents and to the innovation company Current Power AB 2005. An investment company Energy Potential AB was formed in renewable technologies or “Clentech “ already in
2001.
Regarding biomass as a source for renewable electricity, KTH coordinates the national competence centers CICERO5 and TURBOPOWER focused on combustion and turbo generators.
Within the Turbopower centre there are development activities in solar thermal generation in
collaboration with Siemens in Sweden, which is today the world’s largest supplier of solar
driven steam turbines. Staff at KTH is also coordinate of the large-scale European project
FUTURE6.
Within photovoltaics, research at the CIGS solar cell group at UU has led to establishment of
SOLIBRO7 a company producing solar cells. The joint UU-KTH center for solar energy:
“The Center of Molecular Devices (CMD)8” has recently been evaluated for the project
“Grätzel Solar Cells” funded by the Swedish Energy Agency, as the second best in the world.
It focuses on the fundamentals of nano-structured solar cells. It has strong collaboration with
multinational companies such as BASF and BOSCH in Europe, and Toyota, Sharp and Samsung in Asia.
A further example is the role of the research institute IVL9 for the build up of a virtual, multidimensional and interdisciplinary research and educational energy platform, EXPLORE. It is
a platform for research and knowledge transfer between researchers, IVL, the energy industry
and end-users. The research will, from a sustainable system perspective, cover both the production and the use of efficient mixes of energy ware and the dynamic relationships between
components. EXPLORE will further develop and apply methodologies for sustainable technology assessment in a life-cycle perspective.
1.5 Integration into the Electricity Network
Industrial collaboration is extensive among the research groups involved in this research
theme. During 2007, industry and STandUP exchange collaboration, either at university facilities or in industry labs amounted to 50 man-months. Industry collaboration includes the
participation of industry experts, either directly in projects or in reference groups.
1.5.1 Relevance of the research theme
Three boundary conditions for the transformation of the electricity system not always explicitly mentioned are that the transformation will take place in a liberalized market where investments are judged based on return on investment; that the transformation of the power system will include a significant increase in ICT systems for monitoring, control and automation of the power system; and that the future power system must exhibit the same high reliability level as today.
3
www.verticalwind.se
www.seabased.com
5
www.cicero.kth.se
6
cordis.europa.eu – search for FUTURE
7
www.solibro.se
8
www.moleculardevices.se
9
www.ivl.se
4
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The proposed relevance of the research program is especially clear when these additional aspects of the transformation are considered. That STandUP research groups involved have extensive experience in the field of power markets is demonstrated by, for example, staff being
asked to perform government studies on integration of renewable electricity10 and to participate in steering groups and committees for studies on market rules and power balancing.
STandUP also includes a unique combination of competence within ICT and power system
management in the Department of Industrial Information and Control systems. The competence within this group includes system architectures for SCADA/EMS systems as well as
ICT architectures in general. The quality and relevance of the competence is demonstrated by
researchers acting as advisors in all significant power system control centre projects in the
Nordic region. Additionally, courses in power system control have been offered that have
been attended by hundreds of power utility managers from 75 different countries across the
world.
StandUP also includes key excellence in the areas of modelling, diagnostics and maintenance
of electrical components. Many graduates proceed to employment with industry partner research organisations by the relevance of this work. Research in this area has led to the spinoff company, Pax Diagnostics11, which manufactures diagnostics equipment. There is also a
strong group working in the area of high temperature semi-conductors using SiC, which allow the construction of compact power electronic converters. A longer term goal to use diamond for power electronics is a related area. The quality of the work is high and has led to
creation the company, TranSic, which manufactures SC-based power transistors and modules
for industrial power applications all over the world.
1.5.2 Industry participation in planning & implementation
In a recent evaluation it was stated that “The exceptionally close and fruitful connections to
the Swedish power industry and the wide-ranging collaboration and staff exchange with
companies form a firm basis to the applied research. …. and means that the majority of the
[Units] currently perform at a world-leading standard”. As an example of this fact, the planning of this research theme has been performed in close co-operation with EKC2 – the Swedish Centre of Excellence in Electric Power Engineering12. EKC2 is a joint centre hosted by
KTH (29 MSEK annual turnover), with a portfolio of 25 research projects. The EKC2 partners are: ABB, Bombardier Transportation, The Swedish rail administration and Elforsk –
which represents the Swedish utilities (Vattenfall, Fortum, etc) and Swedish Grid (SvK).
Strategic plans for EKC2 have recently been developed covering Controllable Power Systems, ICT applications for power system control and operation, and Maintenance Management.
Powercircle13 is a cluster where academy from KTH and UU actively interacts with industry.
It is hosted by IVA (the Swedish Academy of Engineering Sciences) and it is the world’s
largest cluster in electric power engineering. It acts as a catalyst for the start of development
and demonstration projects within electric power systems. It is taking part in strategic discussions regarding future directions of the industry within the cluster. A further example is the
organization of workshops and seminars on the topic of the future “smart” power grids.
In the implementation stage of the work, interaction will be sought with research institutes.
Here STRI14, plays an important role within the field of automation and control of power systems. STRI has developed a unique testing facility for interoperability testing of ICT and
10
http://www.sou.gov.se/natanslutningsutr/
www.paxdiagnostics.com
12
www.ekc2.org
13
www.powercircle.org
14
www.stri.se
11
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automation systems used for power system management. This facility is an important
“bridge” for knowledge transfer within automation and control systems.
Strong national and international research in the field of electrical and hybrid vehicles will be
beneficial for society as a whole, paving the way for road transportation with lower energy
demands and decreased emissions. However, perhaps of greater importance will be its central
role in the transformation of the Swedish (and international) automotive industry towards
large-scale production of more energy efficient vehicles, a key for future success in a market
with very strong international competition.
STandUP has a long tradition of engagement in the area, almost always in close collaboration
with industry. Most of the activities stem from national programs such as the Swedish Hybrid
Vehicle Centre (SHC), Programrådet för FordonsForskning (PFF), the Green Vehicle, FFI
and Energy systems in vehicles. All these programs rely on a close and demanding involvement of the automotive industry. These initiatives have supported a national base for research
and the activities at STandUP can via this selection process be regarded as being top-of-theline. These programmes continue to provide the major channels for future national cooperation. Within STandUP, the channels already formed via the programs will be used to
give a firm foundation for the coming research.
The Swedish Hybrid Vehicle Centre (SHC). SHC was in 2007 a response to the need to join
forces between Swedish industry and academia in the field of hybrid electric vehicles. It is
used as a national platform for Swedish hybrid electric vehicles research. The centre was
based upon knowledge built in earlier research programmes, such as the Green Car and “Energy systems in vehicles” that had encouraged national collaboration. The partners of SHC
include all relevant industry partners, the Swedish Energy Agency and Swedish universities15. The initiative is a 10-year commitment, with a first phase extending over a 4-year period and with a total turnover of 97,5 MSEK. KTH and UU play an important role in pursuing the research and in centre coordination. The research is divided into three fields: System
studies and tools, Electric machines and drives and Energy storage with a focus on the development of Li-ion based battery systems.
The Strategic Vehicle Research and Innovation Initiative (FFI)16. A new programme
called the Strategic Vehicle Research and Innovation Initiative (FFI) started in 2009. The
yearly budget is USD 100 million. The overall focus will be one third on safety and two
thirds on energy. KTH and UU are active partners in the definition of new projects. FFI is
based on the previous Programrådet för FordonsForskning (PFF) that was established in order
to promote co-operation between the vehicle industry and related authorities. Within PFF, the
Green Car programme started in year 2000 as a collaboration programme for environmentally
sustainable automotive engineering. In addition to engagement in research, KTH has also
been actively leading in the educational component of the programme in hybrid technology
for both university students and practising engineers. More than 600 students have participated.
Energy systems in road vehicles. Researchers at KTH and UU are active in technical research and development in the research programme Energisystem i vägfordon (Energy systems in road vehicles), supported by the Swedish Energy Agency. This work is focused on
15
16
www.chalmers.se/shc
http://www.vinnova.se/Verksamhet/Transporter/FFI/
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long-term knowledge-building to improve energy efficiency of road vehicles. The Agency
believes that bio-fuels will be able to meet a significant part of the transport sector's needs,
but they must be supplemented by the development of more energy-efficient vehicles. The
main priority is system and component issues in the hybrid drive train. The development of
batteries, electric machines, fuel cells and combustion engines for hybrid vehicles is in focus.
International collaboration. At the European level the automotive industry also forms networks to promote new hybrid and electric propulsion techniques. Batteries are seen as one of
the key components and STandUP is also active at this level. There are three different EUprograms: EU-FP6 ALISTORE-ERI linking battery research and European industry (Renualt,
Citroén,Volkswagen, Bosch, etc.); UU is coordinating SUPERLION; and UU is a partner in
HELIOS coordinated by Renault (automotive industry, electric power industry and battery
producers). A long-term STandUP collaboration exists with Argonne National Laboratory.
The electrochemistry group at KTH has been active in several EU-projects related to fuel
cells, among others the Autobrane project involving European automotive industry and
Carisma which brings together all major low-temperature fuel cell companies and research
groups in Europe. The group has also worked together with the Japanese Space Agency
JAXA on the lifetime of lithium-ion batteries for satellites.
Other relevant research, institute and industry connections. The research in silicon carbide (SiC) power device technology at KTH is conducted in close contact with an industrial
reference group. The group consists of representatives from power electronic system companies such as ABB, Bombardier and Danaher Motion, and TranSiC AB (a spin-off company
from KTH) in the field of SiC power devices. The integration of electric vehicles into the
electrical network is studied in the research project GRIDCAR, involving SICS17, Ericsson
and TeliaSonera. SICS has a proven record of promoting industrial deployment of its research
findings, including spin-off companies and licensing.
Among the renewable alternatives, an increased utilisation of plant biomass holds the greatest
promise for replacing more fossil fuels within the next five to ten years period.
In anticipation of the rising significance of bioenergy-related research to society, both KTH
and SLU Uppsala have long supported the establishment of strategic research environments,
centres, and networks. Each has a core technology-transfer component, with the expressed
purpose of delivering new knowledge to industry and – ultimately – society. The funding levels of these current programs should be taken as an indication of the strategic relevance of the
area:
Strong research activities in biomass production and degradation (KTH, SLU): Salix research, practical application of Salix energy forest systems to maximize biomass production.
Several large Salix research programs exist funded by e.g., Energimyndigheten, Formas and
Lantmännen: ”High and sustainable biomass production of Salix”18 MicroDrivE Sustainable
bioethanol and biogas production. SLU, SLF, the National Energy Agency, and industrial
partners: Syngenta seeds, Danisco-Genencor, Jästbolaget, Chr Hansen/ Medipharm, Swedish
Biogas, Chematur engineering, Sala-Heby Energi and Cambi AS. 10 MSEK/y. DOM (Domestication of Microorganisms): safety assessment, fermentation and formulation of novel
microorganisms for environmental applications, e.g. biofuels, biocontrol, biopreservation and
bioremediation. Strong links to the envirobiotech industry and to regulatory authorities. Mis-
17
18
www.sics.se
www.vbsg.slu.se/salixeng
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tra funded, 12 MSEK/y. BioMime – The Swedish Center for Biomimetic Fiber Engineering19
: Strategic research focusing on the biogenesis, structure and properties of woody cell walls.
Operates together with Umeå Plant Sci. Center and STFI-Packforsk. Exploitation of results
through agreements with STFI-Packforsk and SweTree Technologies. 10 MSEK/y. Wallenberg Wood Science Centre: Developing efficient procedures for the separation wood
constituents for new materials derived from the Swedish forest resource. The center is a joint
venture of KTH and Chalmers, and involves also STFI-Packforsk. The yearly budget is 40
MSEK. BiMaC Innovation (KTH)20: A VINN Excellence Centre developing wood-based
biofibre materials through cross-disciplinary research combining material physics, chemistry
and biotechnology. A theme is the connection between the production process, material structure and properties. The center involves several departments at KTH with all the major forest
industrial companies operating in Sweden as partners.
The Swedish Roadmap ”Bioenergy from agriculture”21, concludes that Salix is the most efficient crop for bioenergy production in Sweden. Salix biomass is today used for production of
heat and power, but it also has a major potential to be used for production of biofuels, ethanol
and biogas. The Salix system has already been commercialised in Sweden, thus links for the
transfer of knowledge on the production and utilization of biomass crops are long-established
within the group (e.g. Lantmännen Agroenergi AB, Ena Energi heat and power, EON).
The STandUP group has a long track record of outreach activities in biogas research, including a collaboration agreement with the Swedish Institute of Agricultural and Environmental
Engineering (JTI)22 that will further strengthen transfer of knowledge to society and industry.
The MicroDrivE program at SLU is led by a steering group with representatives from the cofunding companies. In addition, the world leading Danish – American enzyme producer
Genencor is embedded in the MicroDrivE program. Close contact with industry guarantees
rapid practical utilization of findings from microbial and molecular biology research. Program researchers are also very active in outreach activities for biogas plant staff, writing of
educational material, etc (Biogas Öst). One of MicroDrivE´s researchers is the microbiology
expert for the certification process at Avfall Sverige – Swedish Waste Management.
KTH Biotechnology and KTH Fiber & Polmer have built strong links to the Swedish forest
products industry, who have been intimately involved in the Biomime, BiMaC, and various
Wallenberg centers. Likewise, these groups have had a number of bi- and tri-lateral projects
with forest industry partners (e.g., VINNOVA-funded), which have shaped fiber biomass research. Presently, KTH Biotech. is involved in a joint VINNOVA/SenterNovum project on
the expression of carbohydrate-active enzymes with the international enzyme producer Dyadic NL. The Swedish forest biotechnology transfer company, SweTree Technologies, develops intellectual property coming from KTH Biotechnology and SLU. Additionally, KTH Biotech. has an important partnership with Bayer Crop Science in the area of plant cell wall biogenesis.
Gasification is considered one of the absolutely most promising ways of producing reactants
for the forming of renewable fuels by different processes. One indication of the relevance of
the STandUP group is that the new National competence centre for gasification will be
housed at KTH. This will form a strong link for the transfer of knowledge between industry
and universities.
19
www.biomime.org
www.bimacinnovation.kth.se
21
http://www.regeringen.se/sb/d/8963/a/81974
22
www.jti.se
20
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2 STRATEGIES AND PLANS TO GENERATE BENEFITS
The STandUP group combines universities with abilities in both basic and applied research
giving it a powerful position to bring benefits of the research to society. We have identified
several different routes for generating these benefits:
1) In support of established industries, the key channel for competence transfer and
benefit generation is via joint industry-university centres of excellence
2) To enable creation of new companies, and other commercialization models, the process from innovative research to intellectual property will be simplified.
3) To ease the transition from research to implementation of demonstration platform and
pilot projects, collaboration with relevant research institutes will be strengthened.
4) Outreach and support to policy and decision making at local, national and international levels. At the local level, we will work with municipalities.
2.1 Working through centres
The overall strategy of the STandUP group with regards to centres is to secure effective and
accurate utilisation of research results by being engaged in continuous dialogue with industry
and the surrounding society to not only export knowledge, but – equally important – also to
acquire knowledge. Creating platforms and regular meeting places for researchers and industrial representatives to meet and jointly design collaborative research programs where project
resources are shared is one example of this interaction. As this proposal demonstrates, The
STandUP group has a strong track record in establishment of research centres to enable close
interaction with industry and society.
2.2 Supporting the innovation process
There exists today a large set of activities and structures in support of innovation at the universities involved in the STandUP group. It is foreseen that, despite inherent challenges for
start-ups in infrastructure intensive industries such as energy, the activities in the STandUP
group will generate a significant volume of ideas suitable for commercialisation. The
STandUP track record gives confidence that there are effective channels for the export of
these ideas to industry.
2.3 Collaboration with Research Institutes
Research institutes provide an important bridge from research results via pilot or demonstration platforms to implementation and full scale solutions. Especially given the limited amount
of resources available at universities for engineering and support staff, the institutes’ role is
important. Within STandUP it is foreseen that collaboration with institutes will happen in all
of the research themes. The exact details for institute collaboration are given in the description of the research themes above.
2.4 Collaboration with municipalities
STandUP will emphasize collaboration with municipalities. A number of initiatives are already on-going and will be further expanded. In Uppsala, the “Energy House” (Energihuset)
provides a basis for information dissemination and energy business development. KTH has
on-going discussions with the city of Stockholm regarding the development of smart power
networks to give an environmental profile to Norra Djurgårdsstaden close to KTH’s main
campus. In Västerås various industries and KTH are working to launch an Energy Intelligence Centre for exhibition, conference interaction and demonstrations of energy solutions.
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2.5 Outreach and knowledge dissemination
Outreach to society comes in many forms, and a communication policy is presented in Appendix 6. To provide society with access to research results, public presentations, workshops,
and expert studies will be carried out. Through systems studies we will be in the position to
provide support for decision making processes and will be well positioned to participate with
a strong Swedish voice in the global energy debate. In the context of business, we will be in a
position to build upon the Swedish context of SymbioCity23 providing concrete examples using Swedish technologies and systems solutions.
3 CAPACITY AND SUPPORTIVE ACTIVITIES
The capacity of the STandUP group to support utilization of research results is large, partly
via existing supporting structures within the universities. In addition, in the recent government bill for research and innovation, the Swedish government selected Uppsala University
and KTH as two of the seven locations for the establishment of a national “Innovation Office”.
UU - Uppsala University
At Uppsala, UU Innovation (UUI) is the University´s main tool for promoting utilisation of
research results. UUI provides professional support to design and facilitate industrial research
collaborations, licensing and start-up companies and constitutes the strategic advisory group
to the University management regarding utilisation/commercialisation of research. UUI is
organised directly under the Vice-Chancellor and presently consists of 14 persons including
management, project leaders, IPR and legal expertise, and business developers. All key personnel in the unit have academic research backgrounds and experience ranging from 10 to
more than 20 years of managerial positions in industry. For the commercialisation of research, UUI works in close collaboration with the Uppsala University Holding Company
(UUAB) and other organisations in the local innovation system. UUAB is presently involved
in c. 50 start-up companies, spun out from the University, that in total have attracted external
investment capital of more than 2.5 billion SEK. Furthermore VINNOVA’s Key Actors Program contributes to the establishment and development of UUI by an 8-year grant, providing
financial and professional support. The focus of the program is to proactively establish platforms for companies and academic research groups to meet and jointly design collaborative
programs and projects.
KTH – The Royal Institute of Technology
KTH’s long history of interactions with industry and public bodies means that staff have considerable experience in appreciating social needs and managing the complex research relationships that address these needs. Through its School for Business Liaison (BLI), KTH has
developed a world-class innovation system for stimulating and supporting the exploitation of
research results. The BLI School manages licensing agreements and the establishment of research-based spin-off companies. Per unit of research investment, KTH now has a spin-off
rate higher than that achieved at Cambridge, Stanford and MIT; its patenting rates are comparable. The BLI School also promotes KTH’s interactions with industry, providing a gateway
for companies wishing to work with the university and competence for the many Continued
Professional Education and Training programs KTH offers. In addition, it stimulates an entrepreneurial culture on campus. KTH also provides commercalization support via holding
companies like KTH Holding AB.
23
(www.symbiocity.org/)
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SLU – Swedish University of Agricultural Sciences
SLU has a tradition of working with innovations, based on SLU research projects, both via
established companies, and the development of new businesses. SLU Holding provides the
researchers with the best possible options to commercialize their findings. Through its own
Senior Business Advisors and a wide network of partners, SLU Holding is able to offer the
university’s entrepreneurs free consulting, support and tools for business development.
Among the partners are the leading Swedish business incubator Uppsala Innovation Centre
UIC and the patent consultancy Forskarpatent i Uppsala. Both companies are collectively
owned with Uppsala University and offer free-of-charge services to all researchers at SLU.
By building networks between SLU´s innovators and interested parties, SLU Holding will
ensure that society benefits from SLU innovations.
LTU – Luleå University of Technology
LTU focuses increased utilization of research results through support to entrepreneurship,
also enabling job generation. LTU also supports the establishment of new companies and increased competitiveness in already established companies at regional- and national level.
LTU will continue its strong and close cooperation with industrial partners and is also developing a new platform for utilization of research results in the form of a knowledge-transfer
office “LTU Innovation” which was established in 2007. Strong cooperation structures have
also been built together with external partners such as the pre-incubator (Business Lab, within
ABI) and the incubator (Aurorum Business Incubator, ABI) and financiers and venture capital in order to facilitate an increase in utilization of ideas. Common methods of work and
computer support have been developed and agreed by all partners.
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1 NATIONAL PARTNERS TO BE INVOLVED IN THE COLLABORATION
STandUP for energy combines the complementary strengths of three top-ranked
universities (Uppsala University, KTH and Swedish University for Agriculture Science)
in the Stockholm-Uppsala region with clear and well documented research profiles in
renewable energy. The consortium answering the call also includes Luleå University of
Technical that has a specialized competence in hydro- and wind power; the University
College of Halmstad which has competence in large scale wind-power demonstrations;
and five research institutes, STRI, SICS, IVL, Skogforsk and JTI. The intent is to
combine the complementary strengths of the different partners to create a large energy
research environment for new and strategic Swedish technologies, and also enhance their
visibility.
Below, we describe how the partners different profiles are so complementary.
1.1 Uppsala University (UU)
Uppsala University1 is the first of Sweden’s universities in terms of age as well as
scientific rating: UU has been the highest-ranking comprehensive research university in
Sweden – and among the top 20 in Europe – for five consecutive years. The University is
a member of the COIMBRA group that includes, amongst others, the universities of
Bologna, Cambridge, Oxford, Heidelberg, Helsinki, and Leiden. Uppsala University has
nine faculties, about 40,000 students, and 6,000 employees. The university has more than
500 full professors (20% of them women). Some 4,000 undergraduate degrees and about
400 doctorates are conferred every year. The annual turnover of UU is MSEK 4,300;
nearly 70% goes to research and postgraduate education. More than 50% of the research
budget is funded from external sources and 60 research centres are currently active
within, or in association with, the university. UU’s prominent basic research is
complemented by applied research of high international standard (UU was classed as no.
65 in the world in “engineering and computing” in the most recent detailed Shanghai
ranking). In the last decade UU has been particularly successful in attracting early-career,
up-and-coming scientists, receiving more grants and positions for outstanding junior
scientists from e.g. EURYI, ERC, the Royal Swedish Academy of Sciences, the Swedish
Foundation for Strategic Research, and others, than any other Swedish university.
1.2 KTH - the Royal Institute of Technology
KTH2 is Sweden’s largest technical university in terms of research income and is
consistently ranked among Europe’s top technical universities. Almost 10% of KTH’s
research income now comes from the European Union, the highest percentage for any
technical university in Sweden. KTH accounts for one-third of Sweden’s technical
research and engineering education capacity at university level. There are a total of
12 000 BSc and MSc students, 1 500 PhD-students and 2,800 full time equivalent
employees. In addition to the research carried out by KTH’s Schools, a large number of
national Centres of excellence are located at KTH. Various research foundations also
finance a number of research programmes.
KTH has consistently worked to achieve a productive balance between high-quality basic
and applied research. The university’s evaluation of its research base, the KTH
1
2
www.uu.se
www.kth.se
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International Research Assessment Exercise 2008, established that two thirds of its
research groups produce basic research at the highest international levels, two thirds
produce applied research at these same levels, and a full half produced both basic and
applied research at the highest international levels. KTH’s current Strategic Plan (20092012) builds on this excellence.
As well as benchmarking its research internationally, KTH ensures it plays an active role
in international research and education networks; KTH currently chairs “CLUSTER”,
Europe’s leading university network of technology for research, education and
innovation, including TU Karlsruhe, TU Darmstadt and EPFL. Amongst other
international initiatives, KTH is particularly active in China having established the KTHChina Energy Centre as well as six further research centres with leading Chinese
universities.
1.3 Swedish University of Agriculture Sciences (SLU)
SLU3 has a profile with a broad sphere of high-quality activities in areas of great
importance and relevance to society and industry; SLU develops understanding and
sustainable use of biological natural resources. SLU has four faculties that are located at
four main campuses. SLU is a research-oriented university with some 215 professors –
more than 20% women - and a total annual turnover of about MSEK 2,500, of which
more than 70% goes to research and postgraduate education. About 50% of the research
budget is funded from external sources and about 100 students receive their PhD every
year. SLU is the sole Swedish academic player in many areas and has the national
responsibility for several unique professional educational programs, including those for
agronomists, foresters, and veterinarians. SLU has about 3,500 full-time undergraduate
students and due to the high staffing ratio, with an average of 1.4 students per teacher,
SLU can offer direct contact between students and teachers/researchers. SLU research
spans a broad spectrum: from genetic resources to entire ecosystems; from natural
sciences to social sciences and design; from basic to applied research. In addition to basic
research, SLU supports industry, society and government with problem-oriented
activities and information. SLU also has a special task in environmental monitoring and
assessment, which makes the university a key player in interpreting and understanding
changes such as those that may result from a warmer climate.
1.4 STandUP partners in the present proposal
The following university, university college and institutes are important partners of
STandUP and their specific roles in this proposal are described in APPENDIX 3.
Luleå Technical University (LTU) is the northernmost university of technology in
Scandinavia. LTU conducts research in the Faculty of engineering, the Faculty of arts
and social sciences. Research at the University has an annual turnover of more than
MSEK 600 and comprises 69 research subjects in 6 research profiles and 6 development
profiles. The research is characterised by multidisciplinary cooperation between the
University’s research departments and close interaction with trade and industry and
society.
Halmstad University College (HiH) is a relatively new University College situated on
the western coast of Sweden. It has some 50 degree programmes, 11,500 students and
560 employees, including some 40 professors. Research had a turnover of MSEK 84 in
3
www.slu.se
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2008. HiH has research programmes on Wind Energy and its impact regarding local
communities and population. HiH is ideally located for field trials and development
regarding some of the new Renewable Energy sources.
IVL (Swedish Environmental Research Institute) is an independent research body
involved in the development of solutions to environmental problems on behalf of the
business sector and the community. IVL deals with environmental issues from a holistic
perspective with the aim of contributing to sustainable growth. Recently, KTH and IVL
have jointly developed the Center for Sustainable Development (CHU), an initiative
aimed at defining common research programs with particular emphasis on energy issues,
and enhancing the application of research results in collaboration with municipalities and
the industry.
STRI AB is an accredited high voltage laboratory and independent technology consultant
within high voltage technology and power systems. STRI has together with KTH
participated in the implementation of the new standard IEC 61850 for power utility
automation and has implemented a unique testing facility for interoperability of
automation systems based on the standard.
Swedish Institute of Computer Science (SICS), is a non-profit research organization.
The mission of SICS is to contribute to the competitive strength of Swedish industry by
conducting advanced research in strategic areas of computer science. One of the most
interesting future research areas combining energy and ICT is the area of “smart grids”,
where the “information network” (the Internet) and the power grid are overlaid
Skogforsk, the Forestry Research Institute of Sweden, is the central research body for the
Swedish forestry sector, and is financed jointly by Government and the Institute’s
members. Skogforsk pursue demand-driven applied research in a wide variety of fields,
including forest technology, raw-material utilization, environmental impact and
conservation, forest tree breeding, organizational structures, etc.
JTI, the Swedish Institute of Agricultural and Environmental Engineering, is an
industrial research institute working with research, development and innovation in
sustainable agriculture, environment and energy. Biogas research and development on
laboratory, pilot plant and demonstration scale has been a major activity for three decades
in collaboration with the industry and the Department of Microbiology, SLU.
2 FORMS AND CONDITIONS FOR COLLABORATION
We have selected ten scientists with CV’s with a range of characters, in order to illustrate
this aspect of the breadth of our activities. Some of the CVs are outstanding in terms of
bibliometric criteria, such as number of citations per article, others in terms of the
number of patents and demonstrable contacts with industry; some of these researchers are
highly focused, others apply a more systems perspective; some are very applied in their
approach, others focus rather on more basic issues etc. Short CVs can be seen above and
more detailed descriptions of each person can be found in APPENDIX 6. Because the
attached ten CV’s can only represent a tiny proportion of the activities of relevance a list
of some of the many other scientists to be involved in STandUP are also listed in
APPENDIX 6.
2.1 Management Structure
The current call is new in the sense that funding will not be allocated as grants, but as
additions to the Government appropriation, and thus detailed decisions regarding use of
resources will be made within each university. However, in our planning the financing is
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clearly directed as we explain in this document. We are here suggesting a suitable
management model given the predefined boundary conditions (see Fig. 1).
The management structure will consist of a Program Coordinator, a Steering Group and a
Advisory Committee. Formal agreement documents will be signed between the STandUP
universities. The management structure is generally described below and in more detail
in APPENDIX 6.
STandUP
UU Node
STandUP
KTH Node
STandUP
SLU Node
Representation
Representation
Representation
STandUP
Advisory
Committee
Strategic
Advice
STandUP
Steering Group
Chair KE
Fig. 1 the management structure for STandUP
2.1.1 STandUP program coordinator.
This will be Prof. Kristina Edström (KE), from Uppsala University.
2.1.2 Steering Group.
The steering group will meet four times per year in order to discuss the development of
STandUP as a whole. This includes reviewing and assessing ongoing activities within the
program, as well as forward-looking discussions regarding how collaboration can be
further enhanced. One specific task will be to coordinate and share courses regarding
energy related postgraduate studies at the partner universities.
2.1.3 Advisory Committee.
This will be a larger group of at least 25 representatives and include representatives of
the participating universities, industry and of other leading foreign universities. The 10
key principal investigators will also participate. The Advisory Committee will meet at
least once per year in order to review and discuss the development of the program.
2.1.4 Formal agreements between the participating universities.
The interplay of this new, specifically directed, financing and the universities’ and
faculties’ existing internal decision processes will be specified in formal agreements
between the STandUP core partners. The collaboration of partners beyond the STandUP
core group will also be specified in written agreements.
A more detailed management description as well as a communication policy is described
in APPENDIX 6.
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3 DESIRED DISTRIBUTION OF FUNDS BETWEEN THE PARTNERS
The total proposed allocation is 31 MSEK 2010, 63 MSEK 2011 and 100 MSEK per year
from 2012.
Our intended distribution of funding is as follows: Systems (4.1 in APPENDIX 2) 10%,
Renewable electricity (4.2) 32%, grid integration (4.3) 20%, vehicles (4.4) 20% and
biofuel (4.5) 18%. Thus our emphasis is heavily on the first part of the call (renewable
electricity and integration).
The total proposed allocation per university is: KTH 48%, UU 36%, SLU 10%, LTU 6%
and is constant over time.
The other associated partners, HiH, IVL, STRI AB, SICS, Skogsforsk and JTI are
incorporated into the budgets for UU, KTH and SLU, respectively (see APPENDIX 5).
4 DEVELOPMENT OF THE RESEARCH ENVIRONMENT
One of the motivations for the STandUP partners to seek structured collaboration is that
energy research units in Sweden are relatively small in an international perspective. An
important part of the STandUP concept is to make Sweden’s outstanding energy research
more internationally visible, and to create an instance (STandUP) which can be
referenced internationally when contact with Swedish energy research is desired. This
includes e.g. Europe-level negotiations regarding possible or planned energy initiatives.
On the operational level, the close proximity of the core partners, all located in the
Mälardalen region which has a strong electric power and automotive industry, will
contribute significantly to the development of the research environment. Examples of
operational level developments are increased mobility of personnel and sharing of
laboratory facilities between involved universities and the power industry partners active
in the centres at the universities and Powercircle4 cluster. Also, integration of existing
infrastructure spread all over Sweden using ICT technology will provide a unique
nationwide test-bed for demonstration, implementation and testing.
Part of the STandUP partners’ strategy is also to participate in a European Consortium
coordinated by Karlsruhe Institute of Technology for the European Institute of
Innovation and Technology (EIT). EIT is intended to become a key driver of economic
growth through stimulation of world leading innovation. The way to achieve these goals
is to integrate “the knowledge triangle”; i.e. education, research and innovation. KTH is
the leader of CLUSTER, a European network of 12 leading universities in Science and
Technology, and is participating in pre-studies for an EIT as one core member in a
consortium consisting of major companies and universities within the energy sector. The
aim of STandUP is to together with industry form a strong Stockholm-Uppsala node, in
particular in the area of future power grids for integration of renewables. This is
supported by ABB, Vattenfall and the Power Circle. If STandUP successfully establishes
an EIT “KIC” (Knowledge and Innovation Centre”), activities will be significantly
enhanced through additional funding and co-operation with an elite group of universities
and research centres at a European level.
4
www.powercirlce.org
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STandUP for Energy - Appendix 5
STandUP Budget, totals (kSEK)
Period:
Faculty Development
Support Staff
Joint Staff with Institutes/Industry
Infrastructure KFI
Infrastructure, other
Management
Annual subtotals:
Subtotal STandUP (2010-2012):
2010
23 160
3 690
400
660
3 100
250
31 260
2011
2012
2013
2014
50 300
85 330
85 330
85 330
4 600
5 000
5 000
5 000
3 090
3 290
3 290
3 290
810
1 000
1 000
1 000
4 200
5 100
5 100
5 100
450
550
550
550
63 450 100 270 100 270 100 270
194 980
Grand total, STandUP proposal:
395 520
Division of resources over the applicants
Uppsala University (UU)
Royal Institute of Technology (KTH)
Swedish University of Agricultural Sciences (SLU)
Luleå University of Technology (LTU)
36%
48%
10%
6%
Division of resources over the Research Themes
Systems analysis, environmental assessment and decision making
Approximately 10% of the resources are planned to be spent within this area,
shared between the participating universities.
Additionally up to 1 MSEK is anticipated to be spent on joint positions with institutes (Skogforsk)
Renewable production of electricity
mainly at UU and with parts at KTH, LTU and SLU.
Additionally up to 1 MSEK is anticipated to be spent on joint positions with institutes (IVL).
Up to 1 MSEK of the UU resource may be used to support joint UU/HiH research students/postdocs
Integration into the electricity network
mainly at KTH and with parts at UU.
Additionally up to 1 MSEK is anticipated to be spent on joint positions with institutes (STRI)
Electric propulsion and hybrid vehicles
mainly at KTH and with parts at UU.
Additionally up to 1 MSEK is anticipated to be spent on joint positions with institutes (SICS)
Biorefineries and Biofuel production
shared between SLU and KTH.
Additionally up to 0,2 MSEK is anticipated to be spent on joint positions with institutes (JTI)
Contributions by collaborating partners
The requested financing is for reinforcement of already strong research areas which already
have major internal and external (government and industry) support. This is explained in
some more detail in the text, e.g. at various places in appendix 2.
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1. THE STANDUP MANAGER AND THE PRINCIPAL INVESTIGATORS
1.1 The STandUP Coordinator
The STandUP Coordinator from the start will be Prof. Kristina Edström.
Kristina Edström, born 1958, is an experienced leader. She is currently a professor in
chemistry and a Dean of the Chemistry sub-faculty at UU and was previously Senior Advisor
to the Vice Chancellor of Uppsala University. She was early a Deputy Head of UU’s teacher
training college. Other leadership duties have included chairmanship of Uppsala’s (UU and
SLU together) Centre for Sustainable Development. She has also acted as a senior adviser to
the Government on education issues. Her research covers studies of mobile ion systems for
power applications, both electrolytes and electrode materials with the aim of finding new
materials for batteries for a number of different applications. She is now involved in lifetime
studies of materials in HEV and EV batteries in collaboration in several different national and
European programs. Thus both her own research profile and her administrative and leadership
track records make her an ideal choice to lead STandUP.
1.2 The Principal Investigators (PI)
A short summary of the CVs of the PIs are listed below (in alphabetic order)
Henrik Alfredsson: born 1954, is professor of fluid physics at KTH. The Fluid physics
laboratory is involved in research of both fundamental and applied nature, such as turbulence,
vehicle aerodynamics, wind turbine research, and gas management for internal combustion
engines. He is the director of CICERO (Centre for Internal Combustion Engine Research
Opus) which is supported by the Swedish Energy Agency, KTH and the Swedish Vehicle
Industry. He is one of the founding members of the Linné FLOW Centre of excellence.
Hans Bernhoff: born in 1964, is associate professor in Electricity at UU. His research covers
a wide spectrum of physics, such as thin film technology, high temperature superconductors
and diamond as a semiconductor, wave power, pulsed power and wind power technology.
Ground breaking work is performed in the area of Vertical Axis Wind Turbines and drive
lines for future electrical vehicles, where a new power management paradigm is explored. He
has been a project manager at ABB Corporate Research, has been selected “Inventor of the
Year” at ABB for two years and he has 40 international patents.
Anders Hagfeldt: born in 1964, is professor in Physical Chemistry at UU and a guest professor at
KTH. He is a world leading expert in the field of mesoporous dye-sensitized solar cells. His research
interests are physical chemical characterisation of electrodes for different types of opto-electronic
devices. For the materials science aspects he is developing nanostructured oxide particles and films,
ionic liquid redox systems, and chromophores. In applied research he develops dye-sensitized solar
cells based on a monolithic design and investigates the possibilities to produce flexible solar cells
based on plastic substrates.
Mats Leijon: born in 1958, is professor in Electricity at UU. His interest is in
electrodynamics, with real application within the renewable energy systems (hydro, wind,
wave, marine current) from analytic theory to full-scale experimental verification and
integration of production into the grid system. He is engaged in “all electric propulsion
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systems” including high level power electronics and electric energy storages. He is a member
of European Research Council Advanced Grant ERC group PE8B, and of the national board
committees of WEC and CIGRE. He has worked at ABB and has founded 7 companies, and
has more than 1 000 patents: power components, products and systems.
Göran Lindbergh: born in 1959, is Professor in Electrochemical Process and System
Engineering at KTH. His research is directed towards electrochemical power sources and
processes within the field of electrochemical engineering. Present research projects cover
studies of lithium-ion and sodium-nickel chloride batteries, low temperature fuel cells (PEFC
and DMFC) and high temperature fuel cells (MCFC and SOFC). A common theme in the
research projects is the mathematical modelling and electrochemical characterisation of power
systems. He has from the start 2007 been a member of the executive board of the Swedish
Hybrid Vehicle Centre (SHC), and thematic coordinator of the energy storage activities.
Chandur Sadarangani: born in 1946, is professor in Electrical Machines and Drives at KTH.
At KTH the research is focused on permanent magnet drives for hybrid vehicles, generators
for renewable energy sources and high performance drives for industrial applications.
Sadarangani has worked at ABB as Design engineer and later as a Senior Scientist at
Corporate Research. He has initiated 2 major research projects within the field of electric
hybrid vehicles: the 4QT concept (1994 - ) and the FPEC concept (1999 - ). Both these have
led to several prototypes and field tests. All projects have had strong industrial collaboration.
Sadarangani is member of TK2, Cigre WG11-6, ISC for ICEM, ICEMS and LDIA.
Johan Schnürer: born in 1957, is a professor in Microbiology at SLU and Head of the
Department of Microbiology. He is a specialist in the biology and ecology of micro-fungi,
with particular focus on interactions between moulds, yeasts and lactic acid bacteria. He is
directing two large research programs within microbial biotechnology: DOM (Domestication
of Microorganisms), a Mistra funded program developing generic knowledge and technology
for environmental applications, e.g. biofuels; and MicroDrivE (Microbially Derived Energy)
which is a thematic research program on sustainable biofuel production. Johan Schnürer is
active in translational activities, connecting university research to industrial development. He
has founded one company and is board member of SLU Holding.
Lennart Söder: born in 1956, is professor in Electric Power Systems at KTH and Head of the
division of Electric Power Systems. He has been the Responsible Investigator for the Swedish
Government concerning the “Grid Connection Inquiry” and an investigator, together with PB
Power, for the European Commission concerning “Study on the technical security rules of the
European Electricity Network”. He has been the Swedish representative in the EU-projects
Wilmar and DownVind and the IEA Annex XXV Large Scale Integration of Wind Power. His
research concerns power system analysis including wind power integration, power system
dynamics, microgrids, power market simulation, fault detection, power system reliability,
HVDC and hydro power scheduling.
Michael Östling: born in 1955, is professor in Solid State Electronics at KTH and Dean of
the School of Information and Communication Technology. His research interests are
silicon/silicon germanium devices and process technology, as well as device technology for
wide bandgap semiconductors with special emphasis on high power applications. In 2009 he
received the first ERC award for advanced investigator grant of about 2M€. He has been
program director by the Swedish Foundation for Strategic Research for a silicon
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nanoelectronics national program 2000-2007. In 2005 he co-founded the company TranSiC
AB which produces the world’s first commercial SiC bipolar transistor.
2. PARTICIPATING RESEARCH GROUPS
Below we present some of the research groups and individuals who will actively participate in
STandUP. The list is by no means exhaustive but illustrates the collective competence and
dynamic scope of ongoing activities.
2.1 Systems analysis, environmental assessment and decision making
Systems shifts and systems interactions
KTH
Anders Lindquist (Mathematics,), Lars-Göran Mattsson (Transport and Economics,), Lennart
Söder (Electric Power Engineering,), Semida Silveira (Energy Technology,), Leo
Schrattenholzer (Energy Technology, former IIASA), Ulla Mörtberg (LWR)
Institutions, industrial dynamics and decision-making
KTH
Arne Kaijser (Philosophy and History of Technology,), Jonas Åkerman (Urban Planning and
Environment), Staffan Laestadius (Industrial Economics and Management, ITM)
UU – Department of Psychology
Peter Juslin
UU – Department of Government
Hans Blomkvist
UU – Department of Earth Sciences
Roland Roberts
UU – Department of Engineering Science
Marcus Lindahl
Environmental impact assessment
KTH:
Berit Balfors (LWR), Ulla Mörtberg (LWR), Göran Finnveden (Urban Planning and
Environment), Roland Wennersten (Industrial Ecology, ITM)
SLU – Department of Ecology
Göran Ågren, Tryggve Persson, Bengt Olsson, Helene Lundkvist, Lena Gustafsson
SLU – Department of Crop Production Ecology
Pär Aronsson
SLU – Department of Energy and Technology
Per-Anders Hansson
UU
Jan Sundberg, Anders Berglund, Lars Håkanson, Andreas Bryn, Lars Hylander,
2.2 Renewable electricity production
UU - Dept of Engineering Sciences/Division for Electricity:
Mats Leijon, Gabriella Andersson, Ladislav Bardos, Hans Bernhoff, Hana Barankova,
Marcus Berg, Björgvin Hjörvarsson, Niklas Dahlbäck, Olle Eriksson, Sandra Eriksson, Jan
Isberg, Sven Israelsson, Kiran Kovi, Jan Källne, Klaus Leifer, Urban Lundin, Jan Sundberg,
Peter Svedlindh, Karin Thomas, Rafael Waters, Arne Wolfbrandt, Olov Ågren
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UU - Earth Sciences; meteorology, hydrology, geophysics and construction engineering
Hans Bergström, Kennett Axelsson, Sven Halldin, Reynir Bödvarsson, Björn Lund, Ari
Tryggvason, Roland Roberts, Christopher Juhlin, Auli Niemi.
UU - Solar cell systems
Anders Hagfeldt, Gerit Boschloo, Marika Edoff, Lars Stolt.
KTH - School of Engineering Sciences
Henrik Alfredsson Dan Hennignsson
KTH - School of Chemical Science and Engineering
Lars Kloo, Licheng Sun, Anders Hagfeldt (guest professor)
KTH - School of the Built environment
Anders Wörman, Ronald Wennersten, Björn Frostell
KTH - School of Industrial Engineering & Management
Tosten Fransson, Andrew Martin, Etienne Robert, Reza Fahkrai, Damian Vogt, Peter
Hagström, Björn Palm, Joachim Claesson, Viktoria Martin, Jon-Erik Dahlin, Per Lundquist,
Bin Zhu
KTH – School of Electrical Engineering
Chandur Sadarangani, Hans-Peter Nee, Lennart Söder, Mikael Amelin
LTU – Engineering Sciences
Staffan Lundström, Jan-Olov Aidanpaa, Håkan Gustafsson, Erik Höglund, Sergei
Glavatskikh, Thommy Karlsson
HiH
Jonny Hylander, Göran Sidén
2.3 Smart Power Grids
UU - Dept of Engineering Sciences -Division for Electricity:
Mats Leijon, Vernon Cooray, Mahbubur Rahman, Mikael Bergquist, Venugopalan
Kururpath, Jan Isberg
Lennart Söder, Torsten Cegrell, Rajeev Thottappillill, Hans-Peter Nee, Göran Engdahl,
Mehrdad Ghandhari, Valerijs Knazkins, Mikael Amelin, Lars Nordström, Pontus Johnson,
Mathias Ekstedt, Patrik Hilber, Hans Edin.
KTH - School of Information & Communication Technology
Martin Domeij, Mikael Östling
LTU – Engineering Science
Matt Bollen
KTH – School of Chemistry and Chemical Engineering
Göran Lindbergh, Mårten Behm, Carina Lagergren, Rakel Wreland Lindström, Göran
Johansson KTH: Lars Pettersson.
UU – Department of Materials Chemistry
Kristina Edström, Josh Thomas, Torbjörn Gustafsson, Leif Nyholm, Laurent Duda, Håkan
Rensmo, Hans Siegbahn, Yvonne Brandt Andersson, Rejev Ahuja, Joseph Nordgren, Natalia
Skorodumova.
UU - Dept of Engineering Sciences -Division for Electricity:
Mats Leijon, Anders Ahlén, Jan Isberg, Hans Bernhoff, Åsa Kassman, Anders Larsson
Chandur Sadarangani, Hans-Peter Nee, Mats Leksell, Juliette Soulard, Oskar Wallmark
Lennart Ängqvist, Bo Wahlberg
KTH – School of Information & Communication technology
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Mikael Östling , Mietek Bakowski (Acreo), Martin Domeij, Carl-Mikael Zetterling
Martin Törngren, Jan Wikander, Hans-Erik Ångström
KTH – School of Cemistry and Chemical Engineering
Per Alvfors,
KTH – School of Computer Science
Yngve Sundblad
KTH – School of Engineering Sciences
Annika Stensson Trigell, Henrik Alfredsson
Torsten Fransson, Andrew Martin, Etienne Robert, Reza Fahkrai, Peter Hagström, Björn
Palm, Joachim Claesson, Viktoria Martin, Jon-Erik Dahlin, Per Lundquist,
KTH – School of Biotechnology
Harry Brumer, Vincent Bulone, Mikael Lindström, Gunnar Henriksson
KTH – School of Chemical Engineering
Sven Järås, Krister Sjöström, Lars J Pettersson, Jinyue Yan, Per Alvfors and Mats
Westermark.
SLU – Department of Microbiology
Johan Schnürer, Volkmar Passoth, Anna Schnürer, Mikael Pell, Karin Jacobsson
SLU – Department of Molecular Biology
Mats Sandgren, Jerry Ståhlberg
SLU – Department of Plant Biology and Forest Genetics
Sara von Arnold, Ann-Christine Wästljung
SLU – Department of Crop Production Ecology
Martin Weih
SLU – Department Ecology
Christer Björkman
SLU – Department of Forest Mycology and Pathology
Jan Stenlid.
3. THE MANAGEMENT OF STANDUP
3.1 Forms of Collaboration within STandUP
STandUP will actively promote collaboration within the energy area for the whole
Stockholm-Uppsala region. With seminars, workshops and other joint meetings that will be
openly announced STandUP hopes to be a centre for cross-disciplinary contact between
scientist, industries and public bodies.
3.2 The Composition of the Steering Group
Initially, this committee will consist of the STandUP manager, two representatives from KTH
and UU and one each from SLU, LTU and one of the institutes. While some of these will
come from the research groups active within the program, there will also be one representative
each from the leadership of KTH, UU and SLU. This committee will call additional attendees
to meetings as necessary. Each representative will have a personal substitute, and it will be
expected that the ordinary representative and/or their substitute will participate in all
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meetings. Decisions about representation will be made by the individual partners after
consultation with the others
3.3 The Task of the STandUP Coordinator
The Program Coordinator will monitor ongoing STandUP activities and will be responsible
for the annual review. The Coordinatir will chair the Steering Group, participate in the
Advisory Committee meetings and will reporting to the Vice Chancellors of the three
universities (UU, KTH and SLU). The STandUP Manager will secure that transfer of
knowledge, deliverables, information etc between Steering Group partners is working
smoothly and efficiently. If the STandUP Manager leaves, a new will be assigned as stated in
the formal agreements between the participating universities (see APPENDIX 4).
3.4 Administrative Coordinator
An Administrative Coordinator will be appointed as a support for the STandUP Manager and
participate in the meetings of the coordination committee and the research council. The
Coordinator will be responsible for coordination and administration, follow-up, writing and
spreading minutes from the meetings, taking care of the web-site and the internal
communication. If the Administrative Coordinator leaves, a new will be assigned by the
STandUP Manager in discussion with the coordination committee.
The Administrative Coordinator will be recruited before start-up.
3.5 The Advisory Committee and the Principal Investigators
The Advisory Committee will consist of all the Principal Investigators (attached CVs). It will
also include other researchers from the participating universities as well from outside,
including leading foreign universities. Additionally, the group will include representatives
from both industry and relevant government organs, such as the Swedish Energy Agency, and
it will have an important role in maintaining an active interface between industry and the
research program. For this reason, the Advisory Committee is expected to be rather large, with
at least 25 representatives and it will meet regularly (see APPENDIX 4) to discuss issues and
give strategic advice relating to the research topics. The Steering Group will propose a more
detailed research program, which will be discussed by the Advisory Committee before being
forwarded to each partner for internal decisions. This program will be reviewed and updated
once per year. The Advisory Committee will also discuss ongoing progress in the projects and
look for synergy effects related to industry as well as between the collaborators. The chair of
the Advisory Committee will be selected within the group.
4. COMMUNICATION PLAN
4.1 Internal Communication
− Annual center meetings. Once a year, all people involved in STandUP will participate in a
one-day open meeting at which news and activities will be presented. The Swedish Energy
Agency, VR, Vinnova and Formas, will be invited to these meetings. The first year this
will be in the form of a kick-off.
− Meeting minutes. Meetings within the STandUP steering group and Advisory Committee
will be documented by short and stringent minutes, which will be distributed by e-mail.
The minutes will describe status, progress, problems and actions, following a defined
template. The minutes will be stored by the administrative coordinator and be available for
all participants.
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− Project reports. Projects that have been identified by the Advisory Committee as of
common interest will be highlighted. Project reports will be made available.
− Spread of information. E-mail and a web-site will be used as the primary forms for
spreading information.
4.2 External Communication
We have identified the following target groups for the external communication:
− The scientific community. We will continue to publish original research work as well as
reviews in world-class scientific journals. STandUP will be acknowledged in these papers.
It will be important that the members of the Advsiory Committee and collaborators
maintain strong contacts with colleagues around the world, and we will actively engage in
scientific collaborations, locally, nationally, at the EU level and globally.
− Funding agencies. We will report progress at STandUP on an annual basis.
− Journalists. We will invite journalists to public events and will inform journalists about
STandUP progress. We will assist journalists in presenting results from research at
STandUP in news media.
− The general public. We have a strongly positive attitude towards participating at public
events such as science fairs, panel discussions, inquiries, exhibits. We will also encourage
younger colleagues at the center to participate and assist at such events. We will publish
articles in popular journals of various kinds.
− Industry and public bodies. STandUP is already of significant interest to commercial
organizations, and more collaborators within industry will be engaged. STandUP will
strive at finding and strengthening relationships primarily to the local industry within the
Uppsala-Stockholm area but also nationally and internationally.
− The Universities. We will represent the Universities when needed and requested. We will
furthermore assist the Universities in scientific exchanges with collaborating universities
world-wide and we will welcome visitors.
We will furthermore communicate information about STandUP by constructing a webpage.
5. FURTHER ATTACHMENTS
As further attachments the following is included in Appendix 6:
-
A brief description of the five institutes involved
CV for the PIs
Publication lists for the PIs
A few letters of support
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STandUP for Energy - Appendix 6, Institutes
IVL - the Swedish Environmental Research Institute
IVL, the Swedish Environmental Research Institute, is an independent research body that has
been involved since 1966 in the development of solutions to environmental problems on
behalf of the business sector and the community. IVL deals with environmental issues from a
holistic perspective with the aim of contributing to sustainable growth. IVL has around 170
employees mainly working on issues related to a future sustainable industry. A close
cooperation with universities and industry is part of the daily work.
A substantial part of the applied research at IVL, around 50 percent, concerns energy related
issues. Examples are research on frameworks for efficent energy use, e g. impacts of current
and future policies, impacts of emission trade, and adaption to climate change. Other
examples concern sustainable technology assessment studies, life-cycle assessement studies,
and efficient use of energy in industry and society at minimum environmental impacts and
cost, e.g. devepolment and implementation of process integration models of industrial
processes and design of low energy cities.
IVL will be a partner for the buildup of a virtual, multi-dimensional and interdisciplinary
research and educational energy platform, EXPLORE. It is a platform for research and
knowledge transfer between researchers, IVL, the energy industry and end-users. The
research will, from a sustainable system perspective cover both the production and the use of
efficient mixes of energy wares and the dynamic relations between components. Explore will
further develop and apply methodologies for sustainable technology assessment in a life-cycle
perspective.
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SICS – THE SWEDISH INSTITUTE OF COMPUTER SCIENCE
Swedish Institute of Computer Science (SICS) is a part of Swedish ICT Research AB,
a non-profit-distributing research organization owned by the Swedish government
(60%) and industry (40%). SICS’ mission is to contribute to the competitive strength
of Swedish industry by conducting advanced and focused research in strategic areas
of computer science, and actively promoting uptake of new research ideas and results
in industry and society at large. SICS works in a close collaboration with industry and
the national and international research community.
SICS has a significant focus on distributed and networked interactive real-time
systems and applications, spanning from infrastructural issues to software
methodologies to human-computer interaction. In December 2008 SICS had a
research staff of 82, thereof 44 PhDs. SICS publishes approximately 70 refereed
papers and articles in international journals and conferences per year. SICS is an
active participant in collaborative national, European, and other international R&D
programs.
The core of SICS research is supported by major companies associated with
Föreningen för Datateknisk Forskning (FDF), by the state-owned RISE Holding AB,
by the Swedish Agency for Innovation Systems, VINNOVA, and by the Swedish
Foundation for Strategic Research, SSF. Research contracts assigned by the FDF
members and other organizations, Swedish and foreign, speed up dissemination and
uptake of research results in industry and in the public sector. SICS has a proven
record of disseminating and promoting industrial deployment of its research findings,
including establishing of spin-off companies and licensing of its software and patents.
SICS main office is located in Kista (Stockholm), with smaller offices in Uppsala,
Göteborg, and Västerås.
The increased use of ICT technologies, products and services in the energy sector has
opened a new area on SICS research agenda. Examples of SICS past and ongoing
projects include applying wireless sensor networks technology to improve
sophistication and flexibility of climate control in buildings and devising innovative
ways of increasing energy consumption awareness of citizens. One of the most
interesting future research areas combining energy and ICT is the area of “smart
grids”, where the “information network” (the Internet) and the power grid are overlaid
– enabling better energy distribution and novel services and business models. A first
research project, GRIDCAR, has now been started, involving SICS, Ericsson and
TeliaSonera. Here, the focus is on how to integrate electric vehicles in the smart grid.
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Skogforsk
Skogforsk, plays a unique and vital role in satisfying the forest sector’s needs for operational
research and efficient dissemination of new knowledge concerning the sustainable
management of forests. Skogforsk is supported by the forest sector and the Swedish
government through a Framework Program, financed 50% by the Swedish government (via
Formas) and 50% by the ca 100 forest sector members of Skogforsk. Overall, the forestry
sector finances about 70% and government or other public funds about 30% of Skogforsk’s
activities. This has direct implications for the way Skogforsk works.
The organisation pursue demand-driven applied research in a wide variety of fields, including
forest technology, raw-material utilization and bioenergy, environmental impact and
conservation, forest tree breeding, and organizational structures. Through its research efforts
Skogforsk supplies an important public good to the forest sector and the Swedish society. Of
the Institute’s staff of about 100, some 60 are researchers. Because of the rich diversity of
background, education and experience of its staff, Skogforsk’s collective skills, expertise,
knowledge and competence span a wide range of disciplines and specialist fields.
Skogforsk will participate in the research carried out within the strategic research initiative
STandUP as a partner to SLU. Skogforsk will be the node for collecting field data from forest
operations and for distributing operational protocols emanating from the research back to the
forest operation teams working all over Sweden. In addition, Skogforsk will make use of its
supreme position regarding production of operational structures for centralised reporting of
logging for a successful carrying through of the establishment of a powerful back-tracking
system for biomass extraction in forestry and recycling of biofuel ashes. Such back-tracking
will eventually be necessary for efficient environmental monitoring and long-term evaluations
of biomass extraction from forestry.
The research and development foreseen is in perfect line with the core mission and strategic
goals of Skogforsk, and will provide a powerful platform for implementation of basic,
ecological research carried out by SLU and other institutions. The proposed project will boost
the emerging close cooperation between Skogforsk and the applicants in the energy area. It
will thus enable a necessary cross-sectional approach for simultaneous solving of the multidimensional task for society imposed by the ambitious roadmap towards sustainability and
climate neutrality.
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STandUP for Energy
CV Kristina Edström
1. Born
Born 1958 in Gothenburg, Sweden
2. Doctoral degree
Ph.D. in Inorganic Chemistry, 1990, Uppsala University; Diffraction as a tool in the study of
mechanisms for ionic conductivity in solids
3. Longer visits abroad
2001-01-15—2001-04-15, research visit at the Neutron Spallation Source at KEK, Tsukuba Science
City, supported by KVA and JSPS. Host: Dr. Takashi Kamiyama.
4. Docent
1999 in Inorganic Chemistry at Uppsala University
5. Present employment
Since 2005 Professor in Chemistry, Uppsala University
6. Employment history
Associate Professor (Senior Lecturer) in Inorganic Chemistry at Uppsala University, 1999-2005.
Research Associate (Forskarassistent), 1995-1999. Assistant Professor (Universitetsadjunkt) and Study
Counsellor, 1990-1995.
Leadership:
Dean of Chemistry since 2006. Senior Advisor to the President of Uppsala University, for
undergraduate education, 2003-2006. Deputy Dean for the Faculty of Educational Science, 2001-2004.
The two years leadership education: by the Swedish Agency for Higher Education, 2005-2006.
7. Deductible time
Parental leave: 1984-1985 (6 months) and 1987-1988 (9 months). Worked part time due to small
children until 1994. Estimated total time 4 years
8. Prizes, honors, awards
Thureuspriset 2008. Benzeliusbelöningen 2002. Luttemanska stipendiet 2001, ”for one of the most
excellent docents of the faculty”, especially for the ability to combine high quality research, education
and external and societal cooperation”. Vattenfalls energistipendium 1986.
9. Doctoral supervisor
16 in total: A.M. Andersson, 2001; L. Fransson, 2002 (Student Award, from The Electrochemical
Society, 2002); M. Herstedt, 2003; S. Nordlinder, 2005; H. Bryngelsson, 2008; and heavily involved
in the supervision of C. Gejke, Chalmers, 2002.
Supervisor for Current PhD. students: I. Baglien, W. Fredriksson, E. Perre, R. Younesi,
S. Malmgren, K. Ciosek, G. Oltean, R. Eriksson. (J. Högström and H. Hollmark).
10. Postdoctoral supervisor
A. Bishop, 2001-02; K. Kam, 2007-09; D. Ensling, 2008-09; S. Urbonite, 2008-09
CV_Publ p1
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STandUP for Energy
11. National and international assignments
• National expert for the design of a new teacher training education, appointed by the minister of
education 2007-2008.
• Vice chair of the committee for organic, inorganic and analytical chemistry within the Swedish
Research Council 2008
• Member of the Basic Energy Research Committee, STEM, since 2006
• Member of the National Committee of Chemistry, Royal Swedish Academy of Sciences, since 2006
• Member of the educational science committee, Swedish Research Council (VR) 2004-2006
• Member of the programme board of Energy Systems in Road Vehicles, STEM, 2003-2006
• Member of the energy committee at the Swedish Research Council (VR) 2004
• Organizer of the battery and energy tech. session at fall meeting of the Electrochem. Soc. 2005
• Organizer of a number of different conferences, main examples are; Nordic symposium on batteries
and fuel cells 2001, EPDIC 2002, SSPC. 2004 and LiBD 2005, EPDIC microsymposium “time
resolved diffraction” Warsaw 2008 etc.
• Selected by VR and STEM to represent Sweden in Nov. 2005 at the IEA conference “Meeting the
global energy”. Chairman for one work-group
• Reviewer for international journals within the field: Totally ~20 papers/year
• Member of the evaluation board of >25 PhD-dissertations
• Opponent on a thesis at Université de Pau in January 2009
12. Outreach and education
• Leader of nano-alloys thematic group within the EU-FP6 Network of Excellence in Battery
Research (ALISTORE), 2004-still ongoing as an ALISTORE-ERI involving the 16 leading Li-ion
battery research groups in Europe and 12 different large companies.
• Uppsala is coordinating the SUPERLION EU-FP7 Network for 3D microbatteries:
• Three different national networks for the study of batteries for vehicles involving collaboration with
Professor Göran Lindbergh KTH and Per Jacobsson Chalmers.
• On-going collaboration (in addition to the above) with: Argonne National Laboratory (Prof.
Thackeray and Dr. Abraham) on anodes for and interfaces in Li-ion batteries; CTH (Dr. P.
Johansson) on Lithium-air batteries.
• Industrial battery collaboration in Sweden in the “Green car” and SHC projects: Volvo cars, Volvo
Technology AB, AB Volvo, Scania AB, BAE Systems Hägglund AB, ETC AB and in a STEMproject with AB Volvo and Scania AB.
• The ProEnviro project collaboration with Impact Coatings and Cell Impact, 2008-2009
• In the Superlion project collaboration with Philips, Varta Microbatteries and St Jude Medicals:
• In Helios EU FP7 network project with leading European industries (cars, tools and battery makers).
• A number of popular science presentations such as for the network of 20 Female Ambassadors in
Sweden 2009, the energy symposium held for the Royal Family and the Arch Duke of Lichtenstein
by KVA in 2008, The Vallonian Minister of Research 2008, Framtidsakademin at the Uppsala
Library 2008, The Swedish Book Fair in September 2007, The Conference “On-Going Research”
for 700 upper secondary school teachers 2007, The Korean Ambassador 2006, The Swedish
Government and their “utbildningsutskott” 2003, and more
• I have also spent many hours on children of all ages – especially helping the organization “Young
Scientists”
• I have written popular research articles. I am also giving part of courses about batteries for industry
• 2 patents
13. Publications
More than 80 published publications in international refereed journals, a book chapter, ~11 educational publications and more than 100 conference presentations, whereof invited: ~15
Number of citations: 982. H-index: 19
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Publications, Kristina Edström
A selection of 50 publications
1.
A Neutron Diffraction Cell for Studying Lithium Ion Insertion/Extraction Processes
in Electrode Materials. Ö. Bergström, A.M. Andersson, K. Edström & T. Gustafsson.
J. Appl. Cryst. 31 (1998) 823.
2.
Characterisation of the Lithium Intercalation Process at Ambient and Elevated
Temperatures in a Graphite Electrode. A.M. Andersson, K. Edström & J.O. Thomas.
J. Power Sources. 81-82 (1999) 8.
3.
Temperature Dependence of the Passivation Layer on Graphite. A.M. Andersson,
K. Edström, Å. Wendsjö & N. Rao. J. Power Sources. 81-82 (1999) 286.
4.
Electrochemistry and In Situ X-ray Diffraction of InSb in Lithium Batteries.
C. S. Johnson, J. T. Vaughey, M. M. Thackeray, T. Sarakonsri, S. A. Hackney,
L. Fransson, K. Edström & J. O. Thomas. Electrochem. Comm. 2 (2000) 595.
5.
Thermal Stability of the HOPG/Liquid. Electrolyte Interphase Studied by In Situ
Electrochemical Atomic Force Microscopy. K.Edström & M. Herranen. J. Electrochem. Soc. 147 (2000) 3628.
6.
Structural Investigation of the Li+ ion Insertion/Extraction Mechanism in Sn Based
Composite Oxide Glasses. C. Gejke, L. Fransson, E. Zanghellini, L. Börjesson &
K. Edström. J. Phys. Chem. Solids 62 (2001) 1213.
7.
Carbon Electrode Morphology and Thermal Stability of the Passivation Layer.
K. Edström, A.M. Andersson, A. Bishop, L. Fransson, J. Lindgren & A. Hussénius.
J. Power Sources. 97-98 (2001) 87.
8.
The Electrochemistry of Intermetallic Materials in Lithium Batteries. C. S. Johnson,
J.T. Vaughey & M.M. Thackeray, L. Fransson, K. Edström & J.O. Thomas. J. Power
Sources. 97-98 (2001) 194.
9.
The Effect of Lithium Insertion on the Structure of Tin Oxide Based Glasses. C. Gejke,
E. Zanghellini, L. Fransson, K. Edström & L. Börjesson. J. Power Sources. 97-98
(2001) 226.
10.
Phase Transitions in Lithiated Cu2Sb Anodes for Lithium Batteries: An in-situ X-ray
Diffraction Study. L. Fransson, J.T.Vaughey, R. Benedek, K. Edström, J.O. Thomas &
M.M.Thackeray. Electrochem. Comm. 3 (2001) 317.
11.
Electrochemistry of Vanadium Oxide Nanotubes. S. Nordlinder, K. Edström &
T. Gustafsson. Electrochem. and Solid State Lett. 4 (2001) A129.
12.
Influence of Carbon Black and Binder on Li-ion Batteries. L. Fransson, T. Eriksson,
K. Edström, T. Gustafsson & J.O. Thomas. J. Power Sources 101 (2001) 1.
13.
Chemical Composition and Morphology of the Elevated Temperature SEI-layer on
Graphite. A. M. Andersson & K. Edström. J. Electrochem. Soc. 148 (2001) A1100.
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14.
An XRD Furnace for in situ Studies of Insertion Processes in Electrode Materials at
Elevated Temperatures. T. Eriksson, A.M. Andersson, Ö. Bergström, K. Edström,
T. Gustafsson & J.O. Thomas. J. Appl. Cryst. 34 (2001) 654.
15.
The Influence of Lithium Salt on the Interfacial Reactions Controlling the Thermal
Stability of Graphite Anodes. A. M. Andersson, M. Herstedt, A. Bishop & K. Edström.
Electrochim. Acta. 47 (2002) 1885.
16.
Structural Transformations in Lithiated η’-Cu6Sn5 Probed by In situ Mössbauer
Spectroscopy and X-ray diffraction. L. Fransson, E. Nordström, K. Edström, L. Häggström, J.T. Vaughey, C. S. Johnson, R. Benedek & M.M. Thackeray. J. Electrochem.
Soc. 149 (2002) A736.
17.
Infrared and 119Sn Mössbauer Study of Lithiated Tin Borate Glasses. C. Gejke, E. Nordström, L. Fransson, L. Häggström, K. Edström & L. Börjesson. J. Mat. Chem. 12 (2002)
2965.
18.
Structural Transformation in Intermetallic Electrodes – an in situ XRD Study of
Lithiated MnSb and Mn2Sb Anodes. L. Fransson, J.T. Vaughey, K. Edström &
Thackeray. J. Electrochem. Soc., 150 (2003) A86
M.M.
19.
Cycling Performance and Temperature Stability of a Tin-Borate Glass Anode. C. Gejke,
K. Edström & L. Börjesson. Electrochem. Comm., 5 (2003) 27.
20.
Structural Considerations of Intermetallic Electrodes for Lithium Batteries.
M. M. Thackeray, J. T. Vaughey, C. S. Johnson, A. J. Kropf, R. Benedek,
L. M. L. Fransson & K. Edström. J. Power Sources, 113 (2003) 124.
21.
A Theoretical and Experimental Study of the Lithiation of η’-Cu6Sn5 in a Lithium-Ion
Battery. S. Sharma, L. Fransson, E. Sjöstedt, L. Nordström, B. Johansson &
K. Edström. J. Electrochem. Soc. 150 (2003) A330
22.
The Structure and Electrochemical Performance of Na+-, K+- and Ca2+ -Vanadium Oxide
Nanotubes. S. Nordlinder, K. Edström, T. Gustafsson & J. Lindgren. J. Electrochem.
Soc. 150 (2003) E280.
23.
Electrochemically Lithiated Graphite Characterized by Photoelectron Spectroscopy.
A.M. Andersson, A. Henningsson, H. Siegbahn, U. Jansson & K. Edström. J. Power
Sources. 119-121 (2003) 522.
24.
Alternative anode materials for lithium-ion batteries: a study of Ag3Sb. J. T. Vaughey,
L. Fransson, H. A. Swinger, K. Edström and M. M. Thackeray. J. Power Sources, 119121 (2003) 64.
25.
The Influence of an Anion Receptor on the Thermal Stability of the Graphite-Anode
Interphase. M. Herstedt, M. Stjerndahl, T. Gustafsson and K.Edström. Electrochem.
Comm. 5 (2003) 467.
26.
Structural Characterization of Layered Li1+/-xNi0.5Mn0.5O2 Electrodes for Li Batteries.
C.S. Johnsson, J.S. Kim, A. Jeremy Kropf, A.J. Kahaian, J.T. Vaughey, M.M.
Thackeray, L. Fransson & K. Edström. Chem. Mat., 15 (2003) 2313.
27.
The Surface Chemistry of Carbon-Treated LiFePO4-Particles Studied by Photoelectron
Spectroscopy. M. Herstedt, M. Stjerndahl, A. Nytén, H. Rensmo, H. Siegbahn, K.
Edström, T. Gustafsson, and J.O. Thomas. Electrochem. and Solid State Lett. 6 (2003)
A202
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28.
Rate Capability of Swedish Natural Graphite as Anode in Lithium Ion Batteries.
M. Herstedt, L. Fransson & K. Edström. J. Power Sources, 124 (2003) 191.
29.
The Redox Behavior of Vanadium Oxide Nanotubes. S. Nordlinder, A. Augustsson,
T. Schmidt, T. Gustafsson, J. Guo, L. Duda, J. Nordgren & K. Edström. Chem.
Mater., 15 (2003) 3227.
30.
Resonant Soft X-ray Emission Spectroscopy of Lithium Battery Electrodes Based on
Vanadium-Oxide Nanotubes. Augustsson, T. Schmitt, L.-C. Duda, J. Nordgren,
S. Nordlinder, K. Edström, T. Gustafsson & J.-H. Guo. J. Appl. Phys 94 (2003)
5083.
31.
Additives for enhanced thermal stability of the graphite anode interface in a Li-ion
battery. M. Herstedt, K. Edström, H. Rensmo & H. Siegbahn. Electrochim. Acta 49
(2004) 2351
32.
Characterisation of the SEI formed on Natural Graphite in PC-based Electrolytes.
M. Herstedt, A. M. Andersson, H. Rensmo, H. Siegbahn & K. Edström.
Electrochim. Acta 49 (2004) 4939
33.
X-Ray Photoelectron Spectroscopy of Negative Electrodes from High-Power LithiumIon Cells Showing Various Levels of Power Fade. M. Herstedt, D. Abraham, J.B. Kerr
& K. Edström. Electrochim. Acta 49 (2004) 5096
34.
Solid Electrolyte Interphase on Graphite Li-ion Battery Anodes Studied by Soft X-ray
Spectroscopy. A. Augustsson, M. Herstedt, J.-H. Guo, K. Edström, G. V. Zhuang,
P. N. Ross, J.-E. Rubensson & J. Nordgren. Phys. Chem. Chem. Phys. 6 (2004) 4185.
35.
The Cathode-Electrolyte Interface in the Li-Ion Battery. K. Edström, T. Gustafsson &
J. O. Thomas. Electrochim. Acta, 50 (2004) 397
36.
A New Look at the Solid Electrolyte Interphase on graphite anodes in Li-ion batteries
K. Edström, M. Herstedt & D. P. Abraham. J. Power Sources, 153 (2006) 380
37.
Lithium Insertion into Vanadium Oxide Nanotubes: Electrochemical and Structural
Aspects. S. Nordlinder, L. Nyholm, T. Gustafsson & K. Edström. Chem. Mater. 18
(2006) 495
38.
Structural Transformations in Lithiated Mn2Sb Electrodes Probed by Mössbauer
Spectroscopy and X-ray Diffraction. L. Häggström, C.M. Ionica, J.C. Jumas, L. Aldon,
P.E. Lippens and K. Edström. Hyperfine Interactions, 167 (2006) 759.
39.
Surface characterization and stability phenomena in Li2FeSiO4 studied by PES/XPS.
A. Nyten, M. Stjerndahl, H. Rensmo, H. Siegbahn, M. Armand, T. Gustafsson, K.
Edström & J.O. Thomas. J. Mater. Chem., 16 (2006) 3483.
40.
Electrochemical characterisation of electrodeposited Sb-Sb2O3 and Sb nanothin films.
H. Bryngelsson, J. Eskhult, L. Nyholm, M. Herranen, O. Alm & K. Edström. Chem.
Mat. 19 (2007) 1170
41.
Surface chemistry of intermetallic AlSb-anodes for Li-ion batteries. M. Stjerndahl,
H. Bryngelsson, T. Gustafsson, J. Vaughey, M.M. Thackeray & K. Edström.
Electrochim. Acta 52 (2007) 4947
42.
Influence of electrode microstructure on the reactivity of Cu2Sb with lithium. M.
Morcrette, D. Larcher, J.M. Tarascon, K. Edström, J.T. Vaughey & M.M. Thackeray.
Electrochim. Acta, 52 (2007) 5339
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43.
Electrodeposition and electrochemical characterisation of thick and thin coatings
of Sb and Sb/Sb2O3 particles for Li-ion battery anodes. H. Bryngelsson, J. Eskhult,
K. Edström & L. Nyholm. Electrochimica Acta, 53 (2007) 1062
44.
Studies of Layered Lithium Metal Oxide Anodes in Lithium Cells. J. T. Vaughey,
A. M. Geyer, N. Fackler, C. S. Johnson, K. Edstrom, H. Bryngelsson, R. Benedek
& M. M. Thackeray. . Power Sources, 174 (2007) 1052.
45.
How dynamic is the SEI? H. Bryngelsson, M.Stjerndahl, T. Gustafsson & K. Edström.
J. Power Sources, 174 (2007) 970
46.
Recent Findings and prospects in the field of pure metals as negative electrodes
for Li-ion batteries. D. Larcher, S. Beattle, M. Morcrette, K. Edstrom, J.-C. Jumas
& J.-M. Tarascon. J. Mater. Chem, 17 (2007) 3759
47.
Effect of the synthesis temperature on the structure and electrochemical behaviour
of the LiNi0.65Co0.25Mn0.1O2 positive electrode material. I. Saadoune, M. Dahbi, M.
Wikberg, T. Gustafsson, P. Svedlindh & K. Edström. Solid State Ionics, 178 (2008)
1668
48.
Thin films of Cu2Sb and Cu9Sb2 as negative electrodes in Li-ion batteries. H. Bryngelsson, J. Eskhult, L. Nyholm & K. Edström. Electrochim. Acta, 53 (2008) 7226
49.
Direct electrodeposition of aluminium nano-rods. E. Perre, L. Nyholm, T. Gustafsson,
P.-L. Taberna, P. Simon, K. Edström. Electrochem. Com., 10 (2008) 1467
50.
Impact of SOC and Temperature on the Surface Film Characteristics of
LixNi0.8Co0.15Al0.05O2-based Positive Electrodes Harvested from an Accelerated HEV
Ageing Matrix. S. Brown, I. Baglien, G. Lindbergh and K. Edström. Submitted to
Electrochim. Acta
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CV P. Henrik Alfredsson
1. Personal Details
• P. Henrik Alfredsson
• Born 11 March 1954 in Stockholm
2. Academic Degree
• KTH, Engineering Physics, Civ.ing. 1976
• KTH, Mechanics, PhD 1983
• KTH, Mechanics, Docent 1985
3. Career
2007 - Guest professor, Universita di Bologna
2005 - Director of the Competence centre KTH CICERO - Centre for Internal Combustion Engine
Research Opus
1989 - Professor in Fluid Physics, Dept Gasdynamics (-92)/Mechanics (92-), KTH
1986 - 1989 Extra Professor in Applied Mechanics, especially measurement techniques in fluid
dynamics. Dept Mechanics, KTH
4. Further Academic and Professional Activities
Board Memberships
2008 - Member of KTH University Board
2008 - Board member Foundation C.M. Lerici
2007 - Board member Göran Gustafsson Foundation (UU/KTH)
2006 - Board and founding member of the Linné Flow Centre
2005 - Board member of Jacob Wallenberg Research foundation
2005 - Board member of Lars-Erik Thunholm research foundation
2005 - Board member Human Protein Research project (HPR)
1999 - 2007 Member of BiMaC board
1999 - 2003 Chairman of the AlbaNova University Center
1999 - 2003 Dean of the Faculty, KTH
1995 - 1999 Vice Dean and Dean, School of Engineering Physics, KTH
1992 - 2000 Member of "Svenska Nationalkommitten för Mekanik", chairman 1997-2000.
1999 - 2000 Member of TFR (Swedish Research Council of Engineering Sciences) 1999-2000
Graduate Supervision
Barbro Klingmann*, Sept. 1991, unknown present position
John Matsson, Dec. 1993, ORU, USA
Nils Tillmark, May 1995, KTH
Ardeshir Hanifi*, Dec. 1995, FOI
Johan Westin, May 1997, Vattenfall
Per Elofsson, May 1999, Scania AB
Daniel Söderberg*, Sept. 1999, STFI Packforsk
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Carl Häggmark, March 2000, AlfaLaval AB
Fredrik Lundell*, March 2003, KTH
Jens Fransson*, Dec. 2003, KTH
Davide Medici, Feb. 2006, Garrad Hassan Italia
Luca Facciolo March 2006, Vattenfall Power Consultant
Ola Lögdberg Jan. 2009, Scania AB
5 of the my students have obtained the docent degree (marked with *). In addition 4 students have
finished after their licentiate degree. Presently I am supervising 5 graduate students.
5. Awards and Special Commissions
Chairman 6th EUROMECH Fluid Mechanics Conference, EFMC6, Stockholm, June 26-30, 2006
Recipient (together with M. Matsubara) of award from the Japan Society of Fluid Mechanics 2005 for
the paper "Disturbance growth in boundary layer subjected to free-stream turbulence".
Recipient of the Borelius-medal for service to Engineering physics, KTH 2004
Teacher of the year award by students in the School of Vehicle Engineering, KTH, 1995
The research within the Fluid Physics Laboratory, consisting of about 30 staff and students, is funded
through various sources, with more than 80% from external sources. Major external contributions are
from the Swedish Research Council (VR), the Swedish Energy Agency (STEM), KAW, STINT and
EU. Industrial sponsors include Scania CV, GM PT, Volvo PT and Volvo Cars.
P. Henrik Alfredsson has 67 papers published/accepted in journals with referee system (h-index 21,
2008-11-06, ISI Web of Knowledge), more than 50 published conference papers in proceedings and 3
book chapters.
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Publications, P. Henrik Alfredsson
50 selected publications by P. Henrik Alfredsson
1.
Johansson, A.V. & Alfredsson, P.H. 1982 On the structure of turbulent channel flow.
J. Fluid Mech. 122, 293.
2.
Johansson, A.V. & Alfredsson, P.H. 1983 Effects of imperfect spatial resolution on
measurements of wall bounded turbulent shear flows. J. Fluid Mech. 137, 409.
3.
Alfredsson, P.H. & Johansson, A.V. 1984 On the detection of turbulence-generating events.
4.
Alfredsson, P.H. & Johansson, A.V. 1984 Time scales in turbulent channel flow.
Phys. Fluids 27, 1974–1981.
5.
Sahlin, A., Alfredsson, P.H. & Johansson, A.V. 1986 Direct drag measurements for a flat plate
with passive boundary layer manipulators. Phys. Fluids, 29, 696–700.
6.
Alavyoon, F., Henningson, D.S. & Alfredsson, P.H. 1986 Turbulent spots in plane Poiseuille
flow-flow visualization. Phys. Fluids 29, 1328–1331.
7.
Henningson, D.S. & Alfredsson, P.H. 1987 The wave structure of turbulent spots in plane
Poiseuille flow. J. Fluid Mech. 178, 405.
8.
Alfredsson, P.H., Johansson, A.V., Haritonidis, J.H. & Eckelmann, H. 1988 On the fluctuating
wall shear stress and velocity field in the viscous sublayer. Phys. Fluids 31, 1026–1033.
9.
Sahlin, A., Johansson, A.V. & Alfredsson, P.H. 1988 On the possibility of drag reduction by
outer layer manipulators in turbulent boundary layers. Phys. Fluids. 31, 2814–2820.
10. Alfredsson, P.H. & Persson, H. 1989 Instabilities in channel flow with system rotation.
11. Matsson, O.J.E. & Alfredsson, P.H. 1990 Curvature and rotation induced instabilities in channel
flow. J. Fluid Mech. 210, 537–563.
12. Klingmann, B. & Alfredsson, P.H 1990 Turbulent spots in plane Poiseuille flow - measurements
of the velocity field. Phys. Fluids. A 2, 2183–2195.
13. Johansson, A.V., Alfredsson, P.H. & Kim, J. 1991 Evolution and dynamics of shear-layer
structures in near-wall turbulence. J. Fluid Mech. 224, 579–599.
14. Tillmark, N. & Alfredsson, P.H. 1992 Experiments on transition in plane Couette flow.
J. Fluid Mech. 235, 89–102.
15. Matsson, O.J.E. & Alfredsson, P.H. 1992 Experiments on instabilities in curved channel flow.
Phys. Fluids A 4, 1666–1676.
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16. Klingmann, B.G.B., Boiko, A.V., Westin, K.J.A., Kozlov. V.V. & Alfredsson, P.H. 1993 Experiments on the stability of Tollmien-Schlichting waves. Eur. J. Mech. B/Fluids 12, 493–514.
17. Matsson, O.J.E. & Alfredsson, P.H. 1994 The effect of spanwise system rotation on Dean
vortices. J. Fluid Mech. 274, 243–265.
18. Westin, K.J.A., Boiko, A.V., Klingmann, B.G.B., Kozlov. V.V. & Alfredsson, P.H. 1994 Experiments in a boundary layer subjected to free stream turbulence. Part I: Boundary layer structure
and receptivity. J. Fluid Mech. 281, 193–218.
19. Boiko, A.V., Westin, K.J.A., Klingmann, B.G.B., Kozlov. V.V. & Alfredsson, P.H. 1994 Experiments in a boundary layer subjected to free stream turbulence. Part II: The role of TS-waves
in the transition process. J Fluid Mech. 281, 219–245.
20. Bech, K.H., Tillmark, N., Alfredsson, P.H. & Andersson, H.I. 1995 An investigation of
turbulent plane Couette flow at low Reynolds numbers. J. Fluid Mech. 286, 291–325.
21. Matsubara, M. & Alfredsson, P. H. 1996 Experimental study of heat and momentum transfer in
rotating channel flow. Phys. Fluids 8, 2964–2973.
22. Bakchinov, A.A.,Westin, K.J.A., Kozlov, V.V. & Alfredsson, P.H. 1998 Experiments on
localized disturbances in a flat plate boundary layer. Part 2 Interaction between localized
disturbances and TS-waves. Eur. J. Mech. B/Fluids 17, 847-873.
23. Elofsson, P.A. & Alfredsson, P.H. 1998 An experimental study of oblique transition in plane
Poiseuille flow. J. Fluid Mech 358, 177–202.
24. Matsubara, M. & Alfredsson, P.H. 1998 Secondary instability in rotating channel flow.
J. Fluid Mech. 368, 27–50.
25. Söderberg, L.D. & Alfredsson, P.H. 1998 Experimental and theoretical stability investigations
of plane liquid jets. Eur. J. Mech. B/Fluids 17, 689–737.
26. Westin, K.J.A., Bakchinov, A.A., Kozlov, V.V. & Alfredsson, P.H. 1998 Experiments on
localized disturbances in a flat plate boundary layer. Part 1. The receptivity and evolution of a
localized free stream disturbance. Eur. J. Mech. B/Fluids 17, 823–846.
27. Alfredsson, P.H. & Burden, A. 1999 Introduction. Book chapter in Transition, Turbulence
and Combustion Modelling (A. Hanifi et al., eds). Kluwer, pp. 1-35. Kluwer.
28. Häggmark, C.P., Bakchinov, A.A. & Alfredsson, P.H. 2000 Experiments on a two-dimensional
laminar separation bubble. Phil. Trans. R. Soc. Lond. A 358, 3193–3205.
29. Söderberg, L.D. & Alfredsson, P.H. 2000 Experiments concerning the origin of streaky
structures inside a plane water jet. J. Pulp and Paper Science 26, 395–400.
30. Matsubara, M. & Alfredsson, P.H. 2001 Disturbance growth in boundary layers subjected to
free stream turbulence. J. Fluid Mech. 430, 149–168.
31. Shiomi, J., Amberg, G. & Alfredsson, P.H. 2001 Active control of oscillatory thermocapillary
convection. Phys. Rev. E 64, 031205-1-7.
32. Fransson, J.H.M. & Alfredsson, P.H 2003 On the disturbance growth in an asymptotic suction
boundary layer. J. Fluid Mech. 482, 51–90.
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33. Inasawa, A., Lundell, F., Matsubara, M., Kohama, Y. & Alfredsson, P. H. 2003 Velocity
statistics and flow structures observed in bypass transition using stereo PTV.
Exp. Fluids 34, 242–252.
34. Facciolo, L. & Alfredsson, P.H. 2004 The counter-rotating core of a swirling turbulent jet issued
from a rotating pipe flow. Phys. Fluids 16, L71-73.
35. Fransson, J.H.M., Konieczny, P. & Alfredsson, P.H 2004 Flow around a porous cylinder subject
to continuous suction or blowing. J. Fluid and Structures 19, 1031–1048.
36. Yoshioka, S., Fransson, J. H. M. & Alfredsson, P.H. 2004 Free stream turbulence induced
disturbances in boundary layers with wall suction. Phys. Fluids, 16, 3530–3539.
37. Fransson, J.H.M., Matsubara, M. & Alfredsson, P.H. 2004 Transition induced by free stream
turbulence. J. Fluid Mech. 527, 1–25.
38. Brunet, P., Amberg, G. & Alfredsson, P.H. 2005 Control of thermocapillary instabilities far
from threshold. Phys. Fluids 17, 104109.
39. Medici, D, & Alfredsson, P.H. 2006 Measurements on a wind turbine wake: 3D effects and
bluff-body vortex shedding. Wind Energy 9, 219-236.
40. Facciolo, L., Tillmark, N., Talamelli, A. & Alfredsson, P.H. 2007 A study of swirling turbulent
pipe and jet flows. Phys. Fluids 19, 035105.
41. K. Hiwatashi, Alfredsson, P.H., Tillmark, N. & Nagata, M. 2007 Experimental observations of
instabilities in rotating plane Couette flow. Phys. Fluids 19, 048103.
42. Tsuji, Y., Fransson, J.H.M., Alfredsson, P.H. & Johansson, A.V. 2007 Pressure statistics and
their scaling in high-Reynolds-number turbulent boundary layers. J. Fluid Mech. 585, 1 – 40.
43. Örlü, R. & Alfredsson, P.H. 2008 An experimental study of the near-field mixing characteristics
of a swirling jet. Flow, Turbulence and Combustion 80, 323–350.
44. Jacob, B., Casciola, C.M., Talamelli, A. & Alfredsson, P.H. 2008 Scaling of mixed structure
function in turbulent boundary layers. Phys. Fluids 20, 045101.
45. Medici, D. & Alfredsson, P.H. 2008 Measurements behind model wind turbines: further
evidence of wake meandering. Wind Energy 11, 211–217.
46. Maciel, Y., Facciolo, L., Duwig, C., Fuchs, L. & Alfredsson, P.H. 2008 Near field dynamics of
a turbulent round jet with moderate swirl. Int. J. Heat and Fluid Flow 29, 675–686.
47. Lögdberg, O., Angele, K. & Alfredsson, P.H. 2008 On the scaling of turbulent separating
boundary layers. Phys. Fluids 20, 075104.
48. Örlü, R. & Alfredsson, P.H. 2008 Passive scalar flux measurements in the near-field region of a
swirling jet. Heat transfer research 39, 597–607.
49. Lögdberg, O., Fransson, J.H.M. & Alfredsson, P.H. 2009 Streamwise evolution of longitudinal
vortices in a turbulent boundary layer. J. Fluid Mech. 623, 27 – 58.
50. Talamelli, A., Persiani, F., Fransson, J.H.M, Alfredsson, P.H., Johansson, A.V., Nagib, H.M.,
Rüedi, J.-D., Sreenivasan, K.R. & Monkewitz, P.A. 2009 CICLoPE - a response to the need for
high Reynolds number experiments, Fluid Dynamics Research 41, 021407.
CV_Publ p11
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STandUP for Energy
CV Hans Bernhoff
1. Born
Born 1964 in Sweden
2. Doctoral degree
Ph.D. 1992, Royal Institute of Technology (KTH)
3. Postdoctoral appointments
1992-1993, IBM Research Division, Zürich, Switzerland
4. Docent
2001 at Uppsala University
Since 2002 Associate Professor, Department of Engineering Sciences (Division of Electricity),
Uppsala University.
Since 2008 CEO Vertical Wind AB (part-time)
• C.E.O Vertical Wind AB, 2008- (50 %)
• Associate Professor, Uppsala University, 2002• Researcher, Uppsala University, 2001-2002
• Project Manager, ABB Corporate Research, 1993-2001
• Postgraduate Student, Material Physics, KTH, 1988-1992
• The Environment Stipend 2005 (SEK 300 000), The Swedish Association of Graduate Engineers
• Inventor of the Year, ABB Corporate Research, 1995
• Inventor of the Year, ABB Corporate Research, 1994
8. Doctoral supervisor since 2000
8 in total: Adam Lindblom (“Inductive pulse generator with coaxial transformer, opening
switch and Blumlein pulse shaper”), 2004; Sandra Eriksson (“Vertical Axis Wind Turbines
with Direct Driven Generators”), 2006.
Currently supervisor for: Paul Deglaire, Jon Kjellin, Fredrik Bülow, Juan de Santiago, Janaina
Goncalves and Johan Lundin.
CV_Publ p12
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STandUP for Energy
• Member of the board of the FRAM-consortium (Fundamental Research and Application of
Magnetism) from 2002
• Member of the advisory group for Elforsk-project “Elektriskt aktiva gränsytor i ZnO
varistormaterial” from 1998
• Member of board of the Swedish Society of Vacuum Science, 1996-1998
• Co-founder and first CEO of Energy Potential AB, see www.energypotential.se
• Co-founder and first CEO of Seabased AB, see www.seabased.se
• Co-founder and present CEO of Vertical Wind AB, see www.verticalwind.se
• Co-founder and present CEO of Electric Line Uppland AB, see www.electricline.se
• Invited lectures at Open Euro Science Forum, Stockholm, 2004
• Member of board at Ph.D. dissertation, Chalmers Institute of Technology, 2004
• Inventor or co-inventor for 50 patents
CV_Publ p13
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STandUP for Energy
Publications, Hans Bernhoff
[1] Lindblom, A.; Bernhoff, H.; Elfsberg, M.; Hurtig, T.; Larsson, A.; Leijon, M.; Nyholm, S. E.;
"High-Voltage Pulsed-Power Cable Generator", IEEE Transactions on Plasma Science, Volume 37,
Issue 1 Jan. 2009 Page(s):236 - 242
[2] S. Eriksson, A. Solum, H. Bernhoff, M. Leijon “Simulations and experiments on a 12 kW direct
driven PM synchronous generator for wind power”, Renewable Energy, Volume 33, Issue 4, April
2008, Pages 674-681.
[3] P. Deglaire, O Ågren, H Bernhoff, M. Leijon, “Conformal mapping and efficient boundary
element method without boundary elements for fast vortex particle simulations”, European Journal of
Mechanics - B,Fluids, Volume 27, Issue 2, March-April 2008, Pages 150-176
[4] J. Kjellin, S. Eriksson, P. Deglaire, F. Bülow, H. Bernhoff, "Progress of control system and
measurement techniques for a 12 kW vertical axis wind turbine", Proceedings of European Wind
Energy Conference & Exhibition EWEC 2008, March 31- April 3, 2008, Brussels, Belgium.
[5] Sandra Eriksson, Hans Bernhoff and Mats Leijon “Evaluation of different turbine concepts for
wind power” Renewable and Sustainable Energy Reviews, Volume 12, Issue 5, June 2008, Pages
1419-1434.
[6]Urban Henfridsson, Viktoria Neimane, Kerstin Strand, Robert Kapper, Hans Bernhoff, Oskar
Danielsson, Mats Leijon, Jan Sundberg, Karin Thorburn, Ellerth Ericsson and Karl Bergman, "Wave
energy potential in the Baltic Sea and the Danish part of the North Sea, with reflections on the
Skagerrak", Renewable Energy, Volume 32, Issue 12, October 2007, Pages 2069-2084
[7] Björn Bolund, Hans Bernhoff and Mats Leijon, " Flywheel energy and power storage systems ",
Renewable and Sustainable Energy Reviews, Volume 11, Issue 2, February 2007, Pages 235-258
Paul Deglaire, Sandra Eriksson, Jon Kjellin, Hans Bernhoff, "Experimental results from a 12 kW
vertical axis wind turbine with a direct driven PM synchronous generator", Presented at EWEC 2007 European Wind Energy Conference & Exhibition, Milan, Italy, May. 7-10, 2007
[8] A. Larsson, H. Bernhoff, Simon Hogdin, Juan de Santiago, B. Bolund and S. E. Nyholm
"Construction, modelling and evaluation of a low-loss motor/generator for flywheel energy storage",
7th Int. All-Electric Combat Vehicle Conf., Stockholm, Sweden, 11-13 June 2007
[9] A. Lindblom, A. Larsson, H. Bernhoff and M. Leijon, "45 GW pulsed-power generator", 2007
IEEE Pulsed Power and Plasma Science Conference, Albuquerque, USA, 17-22 June 2007
[10] Adam Lindblom - Jan Isberg - Hans Bernhoff - Mats Leijon, "Inductive high voltage pulse
generator based on resonance system", Journal of electrical engineering, Vol. 58, No. 1, 2007, 1-7
[11] Hans Bernhoff, Elisabeth Sjöstedt and Mats Leijon, "Wave energy resources in sheltered sea
areas: A case study of the Baltic Sea", Renewable Energy, Volume 31, Issue 13, October 2006, Pages
2164-2170
CV_Publ p14
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STandUP for Energy
[12] M. Leijon, O. Danielsson, M. Eriksson, K. Thorburn, H. Bernhoff, J. Isberg, J. Sundberg, I.
Ivanova, E. Sjöstedt, O. Ågren, "An electrical approach to wave energy conversion", Renewable
Energy, Volume 31, Issue 9, July 2006, Pages 1309-1319
[13] Lindblom, A.; Bernhoff, H.; Isberg, J.; Leijon, M.;"An Inductive 700-MW High-Voltage Pulse
Generator", IEEE Transaction on Plasma Science, Volume 34, Issue 5, Part 1, Oct. 2006
Page(s):1838 - 1845
[14] Andreas Solum, Paul Deglaire, Sandra Eriksson, Magnus Stålberg, Mats Leijon, Hans Bernhoff,
"Design of a 12kW vertical axis wind turbine equipped with a direct driven PM synchronous
generator", Presented at EWEC 2006 - European Wind Energy Conference & Exhibition, Athen,
Greece, Feb. 27 to Mar. 02, 2006
[15] Sandra Eriksson and Hans Bernhoff "Generator-Damped Torsional Vibrations of a Vertical Axis
Wind Turbine". Wind Engineering (2005) vol. 29, No. 5 p449
[16] I.A. Ivanova, H. Bernhoff, O. Ågren and M. Leijon "Simulated generator for wave energy
extraction in deep water" Ocean Engineering, Volume 32, Issues 14-15, pp. 1664-1678, October 2005
[17] Ivanova, I.A.; Agren, O.; Bernhoff, H.; Leijon, M. “Simulation of wave-energy converter with
octagonal linear generator” Journal of Oceanic Engineering, IEEE Volume 30, Issue 3, July 2005
Page(s):151 – 161
[18] O. Danielsson, M. Leijon, K. Thorburn, M. Eriksson, H. Bernhoff, "A Direct Drive Wave Energy
Converter – Simulations and Experiments" Proceedings of OMAE 2005: 24th International
Conference on Mechanics and Arctic Engineering, Halkidiki, Greece, 12-17 June 2005
[19] Leijon, M.; Bernhoff, H.; Agren, O.; Isberg, J.; Sundberg, J.; Berg, M.; Karlsson, K.E.; Wolfbrandt, A. “Multiphysics Simulation of Wave Energy to Electric Energy Conversion by Permanent
Magnet Linear Generator” Energy Conversion, IEEE Transactions on ,Volume: 20 , Issue: 1 , March
2005 Pages:219 - 224
[20] M. Stålberg , R. Waters, M. Eriksson, O. Danielsson, K. Thorburn, H. Bernhoff, M. Leijon, "
Full-Scale Testing of PM Linear Generator for Point Absorber WEC" , Presented at the 6th EWTEC
conference in Glasgow, 28th of August to 3rd of September 2005
[21] S. Gustafsson, O. Svensson, J. Sundberg, H. Bernhoff, M. Leijon, O. Danielsson, M. Eriksson, K.
Thorburn, K. Strand, U. Henfridsson, E. Ericsson, K. Bergman, "Experiments at Islandsberg on the
west coast of sweden in preparation of the construction of a pilot wave power plant" , Presented at the
6th EWTEC conference in Glasgow , 28th of August to 3rd of September 2005
[22] A. Lindblom, J. Isberg, H. Bernhoff, "Calculating the Coupling Factor in a Multilayer Coaxial
Transformer With Air Core" IEEE Transactions on Magnetics, Volume: 40 , Issue: 5 , Sept. 2004,
Pages:3244 - 3248
[23] Thorburn K., Bernhoff H., and Leijon M, "Wave energy transmission system concepts for linear
generator arrays" Ocean Engineering, 31(11-12), pp 1339 – 1349, August 2004
[24] Ivanova I., Ågren O., Bernhoff H., Leijon M., "Simulation of a 100 kW permanent magnet
octagonal linear generator for ocean wave energy comversion and utilization", Scientific Technical
Review Journal (Nauchno-Tekhnicheskie Vedomosti), Vol.1. pp. 239 – 244, Saint-Petersburg, Russia,
2004
[25] Heljestrand, A.; Bernhoff, H.; Isberg, J.; Larsson, A. "Overstressing of High-Voltage Capacitors "
Plasma Science, IEEE Transactions on , Volume: 32 , Issue: 3 , June 2004, Pages:1337 – 1343
CV_Publ p15
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STandUP for Energy
[26] J. Isberg, J. Hammersberg, H. Bernhoff, D.J. Twitchen, A.J. Whitehead “Charge collection
distance measurements in single and polycrystalline CVD diamond” Diamond and Related Materials,
Vol 13/4-8 (2004) pp 872-875.
[28] M. Eriksson, K. Thorburn, H. Bernhoff, and M. Leijon, "Dynamics of a linear generator for wave
energy conversion" 23rd International Conference on Offshore Mechanics and Arctic Engineering,
Vancouver, Canada, 20–25 June 2004.
[29] I. A. Ivanova, O. Ågren, H. Bernhoff, M. Leijon, "Simulation of cogging in a 100kW permanent
magnet octagonal linear generator for ocean wave conversion", Int. Symp. on underwater technology,
Taipei, Taiwan, 20-23 april, 2004
[30] Bernhoff. H , Leijon. M, "Conversion of wave energy to electricity", The Scandinavian Shipping
Gazette, The Scandinavian Yearbook of Maritime Technology 2004, October 1, 2004
[31] M.Leijon, H.Bernhoff, M.Berg and O. Ågren “Economical Considerations of Renewable Electric
Energy Production Especially Development of Wave Energy”, Renewable Energy Volume 28, Issue 8,
July 2003, Pages 1201-1209
[32] A. Lindblom, P. Appelgren, A. Larsson, S.E. Nyholm, J. Isberg, H. Bernhoff, "Pulsed power
transmission line transformer based on modern cable technology", IEEE Transactions on Plasma
Science, vol 31 no 6 (2003) pp1337- 1343
[33] Lindblom, A.; Appelgren, P.; Larsson, A.; Nyholm, S.E.; Isberg, J.; Bernhoff, H.; "High-voltage
transmission line transformer based on modern cable technology" Digest of Technical Papers. PPC2003. 14th IEEE International Pulsed Power Conference, 2003., Volume: 2 , 15-18 June 2003
Pages:939 - 942 Vol.2
[34] Björn F. Bolund, Mats Berglund, and Hans Bernhoff, ”Dielectric study of water/methanol
mixtures for use in pulsed-power water capacitors” Journal of Applied Physics, Vol. 93, No. 5, March
2003, Pages 2895-2899
[35] Mats Ekberg, Anders Sunesson, Mikael Bergkvist, Arne Gustavsson, Jan Isberg, Hans Bernhoff,
Per Skytt, Jörgen Bengtsson, Sverker Hård, and Michael Larsson “Laser-triggered high-voltage
plasma switching with diffractive optics”, Applied Optics-OT, Vol. 40 Issue 16 Page 2611 (June
2001)
[36] J. Hammersberg, J. Isberg, E. Johansson, T. Lundström, O. Hjortstam and H. Bernhoff
"Injection dependent long carrier lifetimes in high quality CVD diamond”, Diamond and Related
Materials, Volume 10, Issues 3-7, March-July 2001, Pages 574-579
[37] J. Isberg, H. Bernhoff, L. Liljestrand, L. Jonsson, J. Karlsson “A New Powder Based AC/DC
Switching Technology” 20th International Conference on Electrical Contacts 19-23 June 2000,
Stockholm, Sweden.
[38] J. Isberg, H. Bernhoff, L. Liljestrand, L. Jonsson, J. Karlsson, "A New Powder Based AC/DC
Switching Technology", 20th International Conference on Electrical Contacts 19-23 June 2000,
Stockholm, Sweden
[39] Jan Isberg, Per Skytt, Anders Sunesson, Mikael Bergkvist, Arne Gustafsson and Hans Bernhoff
“A Laser triggered plasma switch”, 12:th IEEE Internationa Pulsed Power Conference, Digest of
Technical Papers, Vol 1, 138-141 (1999).
CV_Publ p16
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STandUP for Energy
[40] D. Purdie, H. Bernhoff and B. Reihl, "The electronic structure of Ag(110)c(4 _ 4)C60 and
Au(110)(6 _ 5)C60", Surface Science, Volume 364, Issue 3, 1 September 1996, Pages 279-286
[41] M. Qvarford, G. Chiaia, H. Nylén, R. Nyholm, I. Lindau, S. Söderholm, O. Tjernberg, U. O.
Karlsson and H. Bernhoff, "X-ray absorption study of oxygen in the high-Tc superconductor
Bi2Sr2CaCu2O8 near the interfaces to Cu, Ag and Au, ",
Physica C: Superconductivity, Volume 265, Issues 1-2, 1 July 1996, Pages 113-120
[42] Antonio Cricenti, Hans Bernhoff, and Bruno Reihl “Occupied and unoccupied surface states on
the single-domain Si(100):Sb-2×1 surface” Phys. Rev. B 48, Pages 10983-10986 (1993)
[43] H. Bernhoff, S. Söderholm, U. O. Karlsson, S. A. Flodström, M. Qvarford, J. N. Andersen, R.
Nyholm, and I. Lindau, "Synchrotron-radiation soft-x-ray photoemission study of lead on
Bi2CaSr2Cu2O8", Phys. Rev. B 46, 6488-6494 (1992)
[44] M. Qvarford, J. N. Andersen, R. Nyholm, J. F. van Acker, E. Lundgren, I. Lindau, S. Söderholm,
H. Bernhoff, U. O. Karlsson, and S. A. Flodström "X-ray-absorption and resonant-photoemission
study of Ca in the high-temperature superconductor Bi2Sr2CaCu2O8” Phys. Rev. B 46, Pages 1412614133 (1992)
[45] H. J. Bernhoff, K. Tsushima and J. M. Nicholls “Experimental Dispersions of Conduction Bands
in Bi2CaSr2Cu2O8” Europhys. Lett. 13 No 6 Pages 537-542 (15 November 1990)
[46] R. Dudde, H. Bernhoff, and B. Reihl “Growth of silicon and germanium on Cu(111) studied by
angle-resolved direct and inverse photoemission” Phys. Rev. B 41, Pages 12029-12034 (1990)
[47] H. Bernhoff and A. S. Flodström, Molecular beam epitaxy deposited thin films of bismuth
compound superconductors, Appl. Phys. Lett. 57, pages 712-714 (1990)
[48] J. A. Grange, A. S. Flodström, H. J. Bernhoff ”Annealing effects on MBE deposited thin films of
oriented Bi-Compound superconductors” Journal of the Less Common Metals, Volumes 164-165, Part
1, Pages 703-709, 15 October 1990
Accepted for publication
[49] Sandra Eriksson, Hans Bernhoff, and Mats Leijon "FEM Simulations and Experiments of
different Loading Conditions for a 12 kW Direct Driven PM Synchronous Generator for Wind Power"
accepted for publication in International Journal of Emerging Electric Power Systems Feb 2009
[50] P. Deglaire, S. Engblom, O. Ågren, H. Bernhoff ”Analytical solutions for a single blade in
vertical axis turbine motion in two-dimensions” European Journal of Mechanics - B/Fluids, In Press,
Corrected Proof, Available online 3 December 2008
CV_Publ p17
4 (4)
STandUP for Energy
CV Anders Hagfeldt
1. Born
Born 1964 in Norrköping, Sweden
2. Doctoral degree
Ph.D. in Physical Chemistry, 1993, Uppsala University
3. Postdoctoral appointments
1993 – 1994 at EPFL, Lausanne, Switzerland
4. Docent
1996 in Physical Chemistry at Uppsala University
Professor in Physical Chemistry, Uppsala University, since 2007-10-01 (80%). Head of the Department of Physical and Analytical Chemistry, Uppsala University, since 2008-04-01.
Visiting Professor at the Royal Institute of Technology (KTH), Stockholm, since 2009-01-01 (20%).
• Visiting Professor, Institute of Materials Research and Engineering, Singapore, 2008• Professor chair in Physical Chemistry, Uppsala University, 2007• Visiting Professor, Royal Institute of Technology (KTH), Stockholm, 2005 – 2007
• Professor in Chemical Physics, Uppsala University, 2004
• Associate Professor (Universitetslektor i kemisk fysik), Uppsala University, 2000 – 2004
• Associate Professor (forskare i fysikalisk kemi), Uppsala University, 1998 – 1999
• Junior researcher (Forskarassistent), Uppsala University, 1994 – 1998
• Post-doctoral fellow, EPFL, Lausanne, Switzerland, 1993 – 1994
• Ph.D. student and teaching assistant, Uppsala University, 1989 – 1993
• “The Thuréus award” from Royal Society of Sciences, Uppsala, 2008
• The chemistry student’s IUPAK award for best teacher, Uppsala, 1999
• “The Benzelius award” from Royal Society of Sciences, Uppsala, 1995
• “Bjurzons premium for excellent thesis”, 1993
• “Erik Norelands Stipendium” for best laboratory assistant at the Dept. of Physics, 1992
• The research on dye-sensitized solar cells was ranked as second in the world in an international
evaluation of the Ångström Solar Center, Uppsala University, in 2004. This position was confirmed
by an evaluation in 2008 at the request of the Swedish Energy Agency.
• Visiting Professor at KTH, Stockholm, 2009-, the Institute of Materials Research and Engineering,
Singapore, 2008-, Dalian University of Technology, China, 2006-.
• Nominee for the Göran Gustafsson Award in Chemistry by the Royal Institute of Technology in
2006 and 2007 and by Uppsala University in 2008.
• Nominee as a Wallenberg Scholar by Uppsala University in 2009.
12 in total: H. Lindström, 1997; A. Solbrand, 1998; V. Aranyos, 2000; K. Keis, 2001; K. Westermark,
2001; A. Henningsson, 2002; N. Beermann, 2002; J. Hjelm, 2003; H. Greijer-Agrell, 2003; B. Mahrov,
2004; K. Fredin, 2007; J. Nissfolk, 2009
CV_Publ p18
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STandUP for Energy
15 in total: L. Vaysierres, France, 1996-1998; S. Tingry, France, 1996-1998; J. He, China, 1998-2000;
G. Boschloo, The Netherlands, 1999-2000; C. Bauer, France, 2000-2001; E. Figgemeier, Germany,
2001-2003; V. Aranyos, France, 2000-2001; T. Edvinsson, Sweden, 2004-2007; A. Agrios, 2005- ;
T. Lana, Spain, 2006-2007; K. Nonomura, Japan, 2006- ; H. Zhu, China, 2006-2007; M. Zuleta,
Sweden, 2006- ; E. Gibson, UK, 2007- ; X. Jiang, China, 2008-.
• Member of the Royal Swedish Academy of Engineering Sciences (IVA), Stockholm, 2008• Editor, International Journal of Photoenergy, Hindawi Publishing Corp., 2008• Director, Joint Education and Research Center on Molecular Devices, Dalian University of
Technology, Dalian, China, and KTH, Stockholm, 2006• Director, Center of Molecular Devices (KTH), 2005• Chairman of the International Conference on Photochemical conversion and storage of solar energy
(IPS-16), July 2-7, 2006, Uppsala.
• Member of the International Advisory Board for International Journal of Nanotechnology, 2004• Board member of the Nanodynamics Group, 2000 – 2004, of the Dept. of Physical Chemistry,
Uppsala University, 1999 – 2004, 2008- and of Kemiska Sällskapet, Uppsala 1999 – 2002
• Director of a TFR-Ramanslag, 1999 – 2001
• Project leader in 5 EU-projects
• Member of the Management Group Ångström Solar Center, 1996 – 2004
• Program Secretary, Ångström Solar Center, 1996 – 2004
• 2-3 referee requests/week. Journals include Nature, Science, Nature Materials, Nanoletters, J. Am.
Chem. Soc., Angew. Chem. Int. Ed., Chem. Comm., J. Phys. Chem.
• Steering Committee of the Australian Consortium, DIISR ISL, for organic photovoltaics headed by
Prof. Andrew Holmes, Univ. of Melbourne.
• Advisory Group for the Solid State Dye-Sensitized Solar Cells Project at the Energy Research Institute (ECN), the Netherlands, 2006 – 2008
• 3-4 research evaluations per year. Examples: Swedish Research Council; Swedish Energy Agency;
DoE (USA); Austrian Research Promotion Agency; Research Council of Norway; Israel Science
Foundation; Science Foundation Ireland; Global Climate and Energy Project, Stanford University; EU
COST; Swiss National Science Foundation; Science & Engineering Research Council, Singapore.
• Member of the Swedish Energy Agency’s Committee for Basic research.
• Collaboration with BASG AG, Ludwigshafen, since 2004.
• Consultant for BASF AG, Ludwigshafen, Germany.
• Headed a market assessment study of flexible solar cells for indoor markets in European countries
together with consultant Alan Mitter, MCS, Brussels, 2003.
• LEAD-Fellow. Graduated in 1998 from a two-year international course in Leadership for
Environment and Development (LEAD).
• 10-15 popular science lectures per year at various levels from school children, high schools, education of high school teachers, political parties, environmental organisations, industrial companies, etc.
• Regularly visited by journalists for articles or interviews in public media.
• 8 patent applications.
12. Publications
164 journal publications, 5 invited book chapters, 5 popular science articles, 10 invited talks per year.
Total number of citations: 8 119. H-index: 43
CV_Publ p19
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STandUP for Energy
Publications, Anders Hagfeldt
(Where 10 of special importance/interest are highlighted with an *.)
1.
Hagfeldt, A., N. Vlachopoulos, and M. Gratzel, Fast electrochromic swithching with
nanocrystalline oxide semiconductor-films. Journal of the Electrochemical Society,
1994. 141(7): p. L82-L84.
2.
Sodergren, S., A. Hagfeldt, J. Olsson, and S.E. Lindquist, Theoretical-models for the
action spectrum and the current-voltage characteristics of microporous semiconductorfilms in photoelectrochemical cells. Journal of Physical Chemistry, 1994. 98(21): p.
5552-5556.
3.
*Hagfeldt, A. and M. Gratzel, Light-induced redox reactions in nanocrystalline systems.
Chemical Reviews, 1995. 95(1): p. 49-68.
4.
Hagfeldt, A., L. Walder, and M. Gratzel. Nanostructured TiO2 semiconductor electrodes modified with surface attached viologens: Applications for displays and smart
windows. in Conference on Optical Materials Technology for Energy Efficiency and
Solar Energy Conversion XIV. 1995. San Diego, Ca.
5.
*Lunell, S., A. Stashans, L. Ojamae, H. Lindstrom, and A. Hagfeldt, Li and Na diffusion in TiO2 from quantum chemical theory versus electrochemical experiment. Journal
of the American Chemical Society, 1997. 119(31): p. 7374-7380.
6.
Rensmo, H., S. Sodergren, L. Patthey, K. Westermark, L. Vayssieres, O. Kohle, P.A.
Bruhwiler, A. Hagfeldt, and H. Siegbahn, The electronic structure of the cis-bis(4,4'-dicarboxy-2,2'-bipyridine)-bis(isothiocyanato) ruthenium(II) complex and its ligand 2,2'bipyridyl-4,4'-dicarboxylic acid studied with electron spectroscopy. Chemical Physics
Letters, 1997. 274(1-3): p. 51-57.
7.
Solbrand, A., H. Lindstrom, H. Rensmo, A. Hagfeldt, S.E. Lindquist, and S. Sodergren,
Electron transport in the nanostructured TiO2-electrolyte system studied with time-resolved photocurrents. Journal of Physical Chemistry B, 1997. 101(14): p. 2514-2518.
8.
Liu, Y., A. Hagfeldt, X.R. Xiao, and S.E. Lindquist, Investigation of influence of redox
species on the interfacial energetics of a dye-sensitized nanoporous TiO2 solar cell.
Solar Energy Materials and Solar Cells, 1998. 55(3): p. 267-281.
9.
Beermann, N., L. Vayssieres, S.E. Lindquist, and A. Hagfeldt, Photoelectrochemical
studies of oriented nanorod thin films of hematite. Journal of the Electrochemical
Society, 2000. 147(7): p. 2456-2461.
10.
*Hagfeldt, A. and M. Gratzel, Molecular photovoltaics. Accounts of Chemical Research, 2000. 33(5): p. 269-277.
11.
He, J.J., H. Lindstrom, A. Hagfeldt, and S.E. Lindquist, Dye-sensitized nanostructured
tandem cell-first demonstrated cell with a dye-sensitized photocathode. Solar Energy
Materials and Solar Cells, 2000. 62(3): p. 265-273.
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STandUP for Energy
12.
Keis, K., J. Lindgren, S.E. Lindquist, and A. Hagfeldt, Studies of the adsorption process
of Ru complexes in nanoporous ZnO electrodes. Langmuir, 2000. 16(10): p. 4688-4694.
13.
Bauer, C., G. Boschloo, E. Mukhtar, and A. Hagfeldt, Electron injection and recombination in Ru(dcbpy)(2)(NCS)(2) sensitized nanostructured ZnO. Journal of Physical
Chemistry B, 2001. 105(24): p. 5585-5588.
14.
Boschloo, G. and A. Hagfeldt, Spectroelectrochemistry of nanostructured NiO. Journal
of Physical Chemistry B, 2001. 105(15): p. 3039-3044.
15.
Greijer, H., J. Lindgren, and A. Hagfeldt, Resonance Raman scattering of a dye-sensitized solar cell: Mechanism of thiocyanato ligand exchange. Journal of Physical
Chemistry B, 2001. 105(27): p. 6314-6320.
16.
Keis, K., L. Vayssieres, H. Rensmo, S.E. Lindquist, and A. Hagfeldt, Photoelectrochemical properties of nano- to microstructured ZnO electrodes. Journal of the Electrochemical Society, 2001. 148(2): p. A149-A155.
17.
*Lindstrom, H., A. Holmberg, E. Magnusson, S.E. Lindquist, L. Malmqvist, and A.
Hagfeldt, A new method for manufacturing nanostructured electrodes on plastic substrates. Nano Letters, 2001. 1(2): p. 97-100.
18.
Vayssieres, L., N. Beermann, S.E. Lindquist, and A. Hagfeldt, Controlled aqueous
chemical growth of oriented three-dimensional crystalline nanorod arrays: Application
to iron(III) oxides. Chemistry of Materials, 2001. 13(2): p. 233-235.
19.
*Vayssieres, L., K. Keis, S.E. Lindquist, and A. Hagfeldt, Purpose-built anisotropic
metal oxide material: 3D highly oriented microrod array of ZnO. Journal of Physical
Chemistry B, 2001. 105(17): p. 3350-3352.
20.
He, J.J., G. Benko, F. Korodi, T. Polivka, R. Lomoth, B. Akermark, L.C. Sun, A.
Hagfeldt, and V. Sundstrom, Modified phthalocyanines for efficient near-IR sensitization of nanostructured TiO2 electrode. Journal of the American Chemical Society, 2002.
124(17): p. 4922-4932.
21.
Keis, K., E. Magnusson, H. Lindstrom, S.E. Lindquist, and A. Hagfeldt, A 5% efficient
photo electrochemical solar cell based on nanostructured ZnO electrodes. Solar Energy
Materials and Solar Cells, 2002. 73(1): p. 51-58.
22.
Nister, D., K. Keis, S.E. Lindquist, and A. Hagfeldt, A detailed analysis of ambipolar
diffusion in nanostructured metal oxide films. Solar Energy Materials and Solar Cells,
2002. 73(4): p. 411-423.
23.
Boschloo, G. and A. Hagfeldt, Photoinduced absorption spectroscopy of dye-sensitized
nanostructured TiO2. Chemical Physics Letters, 2003. 370(3-4): p. 381-386.
24.
Henningsson, A., H. Rensmo, A. Sandell, H. Siegbahn, S. Sodergren, H. Lindstrom, and
A. Hagfeldt, Electronic structure of electrochemically Li-inserted TiO2 studied with
synchrotron radiation electron spectroscopies. Journal of Chemical Physics, 2003.
118(12): p. 5607-5612.
25.
Hjelm, J., R.W. Handel, A. Hagfeldt, E.C. Constable, C.E. Housecroft, and R.J. Forster,
Conducting polymers containing in-chain metal centers: Homogeneous charge transport
through a quaterthienyl-bridged {Os(tpy)(2)} polymer. Journal of Physical Chemistry
B, 2003. 107(38): p. 10431-10439.
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STandUP for Energy
26.
Agrell, H.G., G. Boschloo, and A. Hagfeldt, Conductivity studies of nanostructured
TiO2 films permeated with electrolyte. Journal of Physical Chemistry B, 2004. 108(33):
p. 12388-12396.
27.
*Hagfeldt, A., G. Boschloo, H. Lindstrom, E. Figgemeier, A. Holmberg, V. Aranyos, E.
Magnusson, and L. Malmqvist, A system approach to molecular solar cells. Coordination Chemistry Reviews, 2004. 248(13-14): p. 1501-1509.
28.
Pettersson, H., T. Gruszecki, L.H. Johansson, M.O.M. Edwards, A. Hagfeldt, and T.
Matuszczyk, Direct-driven electrochromic displays based on nanocrystalline electrodes.
Displays, 2004. 25(5): p. 223-230.
29.
Wang, P., S.M. Zakeeruddin, J.E. Moser, R. Humphry-Baker, P. Comte, V. Aranyos, A.
Hagfeldt, M.K. Nazeeruddin, and M. Gratzel, Stable new sensitizer with improved light
harvesting for nanocrystalline dye-sensitized solar cells. Advanced Materials, 2004.
16(20): p. 1806-+.
30.
Boschloo, G. and A. Hagfeldt, Activation energy of electron transport in dye-sensitized
TiO2 solar cells. Journal of Physical Chemistry B, 2005. 109(24): p. 12093-12098.
31.
Boschloo, G., L. Haggman, and A. Hagfeldt, Quantification of the effect of 4-tertbutylpyridine addition to I-/I-3(-) redox electrolytes in dye-sensitized nanostructured
TiO2 solar cells. Journal of Physical Chemistry B, 2006. 110(26): p. 13144-13150.
32.
Galoppini, E., J. Rochford, H.H. Chen, G. Saraf, Y.C. Lu, A. Hagfeldt, and G.
Boschloo, Fast electron transport in metal organic vapor deposition grown dye-sensitized ZnO nanorod solar cells. Journal of Physical Chemistry B, 2006. 110(33): p.
16159-16161.
33.
Hagberg, D.P., T. Edvinsson, T. Marinado, G. Boschloo, A. Hagfeldt, and L.C. Sun, A
novel organic chromophore for dye-sensitized nanostructured solar cells. Chemical
Communications, 2006(21): p. 2245-2247.
34.
Nissfolk, J., K. Fredin, A. Hagfeldt, and G. Boschloo, Recombination and transport
processes in dye-sensitized solar cells investigated under working conditions. Journal of
Physical Chemistry B, 2006. 110(36): p. 17715-17718.
35.
Peter, L.M., A.B. Walker, G. Boschloo, and A. Hagfeldt, Interpretation of apparent
activation energies for electron transport in dye-sensitized nanocrystalline solar cells.
Journal of Physical Chemistry B, 2006. 110(28): p. 13694-13699.
36.
Edvinsson, T., C. Li, N. Pschirer, J. Schoneboom, F. Eickemeyer, R. Sens, G. Boschloo,
A. Herrmann, K. Mullen, and A. Hagfeldt, Intramolecular charge-transfer tuning of
perylenes: Spectroscopic features and performance in Dye-sensitized solar cells. Journal
of Physical Chemistry C, 2007. 111(42): p. 15137-15140.
37.
Gorlov, M., H. Pettersson, A. Hagfeldt, and L. Kloo, Electrolytes for dye-sensitized
solar cells based on interhalogen ionic salts and liquids. Inorganic Chemistry, 2007.
46(9): p. 3566-3575.
38.
Halme, J., G. Boschloo, A. Hagfeldt, and P. Lund. Spectral characteristics of light
harvesting, electron injection, and steady-state charge collection in pressed TiO2 dye
solar cells. in 2nd International Conference on the Industrialization of Dye Solar Cells.
2007. St Gallen, SWITZERLAND.
CV_Publ p22
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STandUP for Energy
39.
Pettersson, H., T. Gruszecki, R. Bernhard, L. Haggman, M. Gorlov, G. Boschloo, T.
Edvinsson, L. Kloo, and A. Hagfeldt, The monolithic multicell: A tool for testing material components in dye-sensitized solar cells. Progress in Photovoltaics, 2007. 15(2): p.
113-121.
40.
Qin, P., X.C. Yang, R.K. Chen, L.C. Sun, T. Marinado, T. Edvinsson, G. Boschloo, and
A. Hagfeldt, Influence of pi-conjugation units in organic dyes for dye-sensitized solar
cells. Journal of Physical Chemistry C, 2007. 111(4): p. 1853-1860.
41.
Quintana, M., T. Edvinsson, A. Hagfeldt, and G. Boschloo, Comparison of dye-sensitized ZnO and TiO2 solar cells: Studies of charge transport and carrier lifetime. Journal
of Physical Chemistry C, 2007. 111(2): p. 1035-1041.
42.
*Rochford, J., D. Chu, A. Hagfeldt, and E. Galoppini, Tetrachelate porphyrin chromophores for metal oxide semiconductor sensitization: Effect of the spacer length and
anchoring group position. Journal of the American Chemical Society, 2007. 129(15): p.
4655-4665.
43.
Tian, H.N., X.C. Yang, R.K. Chen, Y.Z. Pan, L. Li, A. Hagfeldt, and L.C. Sun, Phenothiazine derivatives for efficient organic dye-sensitized solar cells. Chemical Communications, 2007(36): p. 3741-3743.
44.
Boschloo, G. and A. Hagfeldt, Photoinduced absorption spectroscopy as a tool in the
study of dye-sensitized solar cells. Inorganica Chimica Acta, 2008. 361(3): p. 729-734.
45.
*Hagberg, D.P., J.H. Yum, H. Lee, F. De Angelis, T. Marinado, K.M. Karlsson, R.
Humphry-Baker, L.C. Sun, A. Hagfeldt, M. Gratzel, and M.K. Nazeeruddin, Molecular
engineering of organic sensitizers for dye-sensitized solar cell applications. Journal of
the American Chemical Society, 2008. 130(19): p. 6259-6266.
46.
Morandeira, A., J. Fortage, T. Edvinsson, L. Le Pleux, E. Blart, G. Boschloo, A.
Hagfeldt, L. Hanmiarstrom, and F. Dobel, Improved photon-to-current conversion efficiency with a nanoporous p-type NiO electrode by the use of a sensitizer-acceptor dyad.
Journal of Physical Chemistry C, 2008. 112(5): p. 1721-1728.
47.
*Qin, P., H.J. Zhu, T. Edvinsson, G. Boschloo, A. Hagfeldt, and L.C. Sun, Design of an
organic chromophore for p-type dye-sensitized solar cells. Journal of the American
Chemical Society, 2008. 130(27): p. 8570-+.
48.
Tian, H.N., X.C. Yang, J.X. Pan, R.K. Chen, M. Liu, Q.Y. Zhang, A. Hagfeldt, and L.C.
Sun, A Triphenylamine Dye Model for the Study of Intramolecular Energy Transfer and
Charge Transfer in Dye-Sensitized Solar Cells. Advanced Functional Materials, 2008.
18(21): p. 3461-3468.
49.
*Yum, J.H., D. Hagberg, S.-J. Moon, K.M. Karlsson, T. Marinado, L. Sun, A. Hagfeldt,
M.K. Nazeeruddin, and M. Grätzel, A Heat and Light Resistant Organic Sensitizers for
Solar Cell Applications. Angew. Chem. Int. Ed., 2009. 48: p. 1576-1580.
50.
Qin, P., M. Linder, T. Brinck, G. Boschloo, A. Hagfeldt, and L. Sun, High incident
photon-to-current conversion efficiency of p-type dye-sensitized solar cells based on
NiO and organic chromophores. Advanced Materials, 2009.
CV_Publ p23
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STandUP for Energy
CV Mats Leijon
1. Born
Born 1958 in Sweden
2. Doctoral degree
Ph.D. 1987, Chalmers University of Technology
Since 2000, Professor in Electricity, Uppsala University
• ABB, International Research Manager – High Voltage Electromagnetics, 1998-2001
• Adj. Professor, University Collage of Borås, 1999 -2002
• Professor (Chair) in High Voltage Engineering, Chalmers (declined), 1995
• ABB Corporate Research, Steering group, 1994-2000
• ABB Corporate Research, Manager, 1993-2000
• ABB Corporate Research, Section Manager, 1990-1993
• ABB Corporate Research, Development, 1987-1990
• Alde Johanssons Innovation Prize, 2004
• The Swedish Association of Graduate Engineers “Environmental fund” – individual grant, 2003
• The Thureus Prize, Royal Academy Society, 2002
• The Grand Energy prize in Sweden, DI and Sweco Sweden, 2001
• Windformer nominated to Financial Times Energy Award (Global nomination), 2001
• The Polhem Prize, The Swedish Association of Graduate Engineers (Highest award in Engineering), 2001
• The Gustav Dahlén-medal, Chalmers, Sweden (Highest award Chalmers), 2000
• The Finnish Academies of Science and Walter Alströms Prize (Global Prize), 1999
• Powerformer nominated to Financial Times Energy Award (Global nomination), 1999
• Powerformer nominated to Discover Awards (Global nomination), 1999
• The KTH Grand Prize, Royal Institute of Technology (KTH),(Highest award KTH), 1998
• The Porjus Hydro Power Prize, Porjus Foundation, 1998
• ”Future leadership”, Nominated to Final (Research and Education), 1996
• John Ericsson-medal, Chalmers, 1984
11+5 in total: J. Blennow, 2000; M. Sjöberg, 2002; P. Holmberg, 2001; A. Kheirmand, 2003; E. Segergren, 2005; B. Bolund, 2006; K. Thorburn, 2006; O. Danielsson, 2006; M. Eriksson, 2007; K. Thomas,
2008; R. Waters, 2008. R. Perers, 2006; A. Solum, 2006; K. Yuen-Larsson, 2008; C. Boström, 2009;
M. Grabbe, 2009.
Today i supervise 11 PhD students as main supervisor.
7 in total: M. Berg 2001- ; E. Sjöstedt, 2003-2005; U. Lundin, 2005- ; A. Wolfbrandt, 2005-2007;
K. Thorburn, 2006-2008; K. Thomas, 2008- ; T. Lembke, 2007-2008.
Within my time at ABB around 45 Ph.D. were employed by me during the years 1990-2000.
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STandUP for Energy
• Elected into European Research Council (ERC) Adv. Grant group PE 8B, 2008• Norwegian Research Council evaluation, 2008• Danish Research Council (“Forskningsstyrelsen”) evaluation, 2004• The Swedish Research Council evaluation, 2003• SSF Scientific Advisory Colloquium, 2003• Swedish Royal Academy of Engineering Science, 2002• World Energy Council, 2002• Inventors Colloquium in Sweden, 20029. Outreach and education
• PIEp KTH Vinnova board member, 2007• Board member of Swedish Inventors Colloquium, 2002-2007
• Board member (Chairman) in SSF FRAM (Magnetic material program), 2000-2007
• Advisory board member in SSF Material programs, 2001-2007
• Chairman of the board in CF:s ”Small Polhem prize”, Best MSc thesis in Sweden, 2001-2007
• Board member of Swedish National Committee of CIGRE, 2005• Board member of Swedish Hydro Power Centre, 2005• Initiator and Program Director of Swedish Centre for Renewable Electric Energy Conversion, 2004• Board member in SSF OXIDE, 2001-2004
• Board member in Strategic Foundation (SSF) - Biomaterials and Polymers, 1997-2004
• Board member Centre for Power engineering EKC/KTH, 2001-2003
• Board member ”Elektra”, Industrial Power Engineering Research, 1995-1996
Boards (Entrepreneurial):
•
•
•
•
•
•
•
Founder and Chairman of the Board Electric Line AB, 2007Founder and CEO in Scandinavian Energy Centre AB, 2005 Founder and Chairman of the board Current Power Sweden AB, 2005 Founder and Chairman of the board Vertical Wind AB, 2002 Founder and Chairman of the board Seabased AB, 2001 Founder and Chairman of the board Energy Potential AB, 2001 Founder and Chairman of the board and CEO in Leijon Engineering AB, 2001 -
Invited lectures of more than 100 invited speaks over the years. Several invited lectures in industry
and academia apart from ABB and Swedish Universities - Toshiba, Alstom, Mitsubishi, Statkraft,
Gothenburg Energy, Elforsk, Westinghouse, Södra Skogsägarna, Vattenfall, Scania, SKF, Kockums,
CF, Swedepower, Svensk Energi, SKGS, and Ericsson.
Recent External Evaluation: Adj pos., DTU Denmark 2008; Prof in Energy, Halmstad Univ College
2006; Prof in Antenna, Lund Univ 2006; Prof in Power Electronics, Chalmers 2006; Prof in Electricity, UMIST Manchester, UK 2004; “Lektor” position, KTH 2003.
I have also been on different TV-appearances internationally; India, China, Korea, Japan, USA, Germany and Switzerland. Invited as international expert in Finland before the election of nuclear power
and in Danish TV regarding Barsebäck I and II. Several times on Swedish TV and frequently also in
newspapers and radio during the years from 1995. I have been involved/active in the IVA Energy
Foresight 2002 and IVA Technical foresight 2004. IVA delegation leader to China 2005, Swedish
export delegation to Chile 2005. US Embassy – Energy discussions 2006.
10. Publications
Over 100 papers (including conference articles) whereof 72 in peer reviewed journals.
Patents: worldwide ca 1300 patent matches on Mats Leijon
CV_Publ p25
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STandUP for Energy
Publications, Mats Leijon
Reviewed articles (see also http://www.el.angstrom.uu.se/ “publications”)
1 Accepted for publication
[1] K.Yuen, K.Thomas, M.Grabbe, P.Deglair, M. Bouquerel, D. Österberg and M.Leijon. “Matching
a permanent magnet synchronous generator to a fixed pitch vertical axis turbine for marine current
energy conversion.”. IEEE Journal on Oceanic Engineering April 2008 – available on IEEE XPLORE
[2] S.Eriksson, H.Bernhoff and M.Leijon. “FEM simulations and experiments on different loading
conditions for a 12 kW direct driven PM synchronous generator for wind power”.
IEEJ Journal of Emerging Energy Aug 2008 – ready for publication
[3] C.Boström, R. Waters, E. Leijerskog, O. Svensson, M. Stålberg Rahm, A. Savin, E. Strömstedt,
J.Engström and M.Leijon. ”Linear generator based wave energy converter connected to rectifier and
filter – experimental results from offshore operation”.
IEEE J on Oceanic Engineering Jan 2008 – ready for publication
[4] M.Leijon A.Skoglund , R.Waters, A.Rehn and M.Lindahl. “On the Physics and Economy within
Renewable Electric Energy Conversion – part I utilization”.
Wseas EPESE Oct 2008 (invited paper) – accepted - to be longer
[5] A.Skoglund, M.Leijon, A.Rehn and M.Lindahl and R.Waters. “On the Physics and Economy
within Renewable Electric Energy Conversion – part II engineering”.
Wseas EPESE Oct 2008 (invited paper) – accepted – to be longer
[6] M.Grabbe, E.Lalander, S.Lundin and M.Leijon. “A review of the tidal current energy resource in
Norway”. Renewable and Sustainable Energy Review – In Press, Corrected Proof, Available online
2 Published
[7] Rafael Waters, Jens Engström, Jan Isberg, Mats Leijon. “Wave climate off the Swedish west
coast”. Renewable Energy, Vol 34, Issue 6, June 2009, pp 1600-1606
[8] C.Boström, E.Leijerskog, M.Stålberg Rahm, K.Thorburn and M.Leijon. “Experimental results of
rectification and filtration from an offshore wave energy system”.
Renewable Energy, Volume 34, Issue 5, May 2009, Pages 1381-1387
[9] Leijon, M.; Waters, R.; Rahm, M.; Svensson, O.; Bostrom, C.; Stromstedt, E.; Engstrom, J.;
Tyrberg, S.; Savin, A.; Gravrakmo, H.; Bernhoff, H.; Sundberg, J.; Isberg, J.; Agren, O.; Danielsson,
O.; Eriksson, M.; Lejerskog, E.; Bolund, B.; Gustafsson, S.; Thorburn, K. ”Catch the wave to
electricity”. IEEE Power and Energy Magazine, Volume 7, Issue 1, January-February 2009
Page(s):50 - 54Digital Object Identifier 10.1109/MPE.2008.930658
CV_Publ p26
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[10] M.Leijon, C. Boström, O.Danielsson, S.Gustavsson, K.Haikonen, O.Langhammer, E.Strömstedt,
M.Stålberg Rahm, J.Sundberg, O.Svensson, S. Tyrberg and R.Waters. “Wave energy from the North
Sea: experience from the Lysekil research site”. Geophysics Survey, Springer Verlag,
doi:10.1007/s10712-008-9047-x,Volume 29, May 2008, 221-240, Invited paper
[11] Jan Isberg, Mikael Eriksson and M.Leijon. “Transport of energy in polychromatic fluid gravity
waves". Journal of Engineering Mathematics doi: 10.1007/s10665-008-9243-1, Springer Verlag 2008
[12] M.Stålberg, R.Waters, O Danielsson and M.Leijon. “Influence of Generator Damping On Peak
Power and Variance of Power for a Direct Drive Wave Energy Converter”. Journal on Offshore
Mechanics and Artic Engineering, Vol. 130, 031003 (2008)
[13] K.Thomas, M.Grabbe, K.Yuen and M. Leijon. “Very low speed generator for Marine Current to
Electric Energy Conversion No Load – Load Experiments”.
Proc IMechE Vol. 222, Part A, Journal of Power and Energy 2008, pp 381-388
[14] S.Eriksson, H.Bernhoff and M.Leijon. “Evaluation of different turbine concepts for wind power”
Renewable and Sustainable Energy Reviews, Volume 12, Issue 5, June 2008, Pp 1419-1434
[15] P.Deglaire, H.Bernhoff, O.Ågren and M.Leijon. “Conformal mapping and efficient boundary
element method without boundary elements for fast vortex particle simulations”. European Journal of
Mechanics – B Fluids, Vol 27, Issue 2, March-April 2008, pp 150-176
[16] B.Bolund , M.Leijon and U.Lundin. “Poynting Theorem for Cable Wounded Generators”.
IEEE Transaction on Dielectrics and Electrical Insulation, Vol 15 No 2 April 2008, pp 600-605
[17] S.Eriksson, A.Solum, H.Bernhoff and M.Leijon. “Simulation and Experiments on a 12 kW
Direct Driven PM Synchronous Generator for Wind Power”.
Renewable Energy, Volume 33, Issue 4, April 2008, pp 674-681
[18] Mikael Eriksson, Rafael Waters, Olle Svensson, Jan Isberg and Mats Leijon. “Wave Power
Absorption: Experiments and Simulation”. Journal of Applied Physics 102, no 084910, 2007
[19] R.Perers, U.Lundin and M.Leijon. “Saturation Effects on the Unbalanced Magnetic Pull in a
Synchronous Generator with an Eccentric Rotor.”.
IEEE Transaction on Magnetics, Vol 43, Issue 10, Oct 2007 pp 3884-3890
[20] A.Solum and M.Leijon. “Investigating the Overload Capability of a Direct Driven Synchronous
Permanent Magnet Wind turbine Generator, Design using High Voltage Technology”. International
Journal on Energy Research, Vol 31, Issue 11, Sept 2007, pp 1076-1086
[21] U.Lundin, B.Bolund and M.Leijon. “Poynting and Slepians vectors in Generators”.
IEEE Transaction on Magnetics Vol 43, Issue 9, Part 1 Sept 2007, pp 3601 - 3606
[22] O.Danielsson and M.Leijon. “Analytic Model of Flux Distribution in Linear PM Synchronous
Machines including Longitudinal End effects”.
IEEE Transaction on Magnetics, Vol 43, Issue 7 July 2007 pp 3197 - 3201
[23] L.Lundström, R.Gustavsson, J-O Aidanpää, N.Dahlbäck and M.Leijon. “Influence on the
Stability of Generator Rotors due to Radial and Tangential Pull Force”.
IET Electric Power Application Vol 1 no 1 Jan 2007 pp1-8
[24] M.Leijon and K.Nilsson. “Direct Electric Energy Conversion System for Energy Conversion of
Marine Currents”.
Proc IMechE Vol. 221 Part A Journal of Power and Energy 2007, Special Issue Paper pp201-205
CV_Publ p27
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STandUP for Energy
[25] U.Henfridsson, V. Neimane, K.Strand, R Kapper, H.Bernhoff, O.Danielsson, M.Leijon,
J.Sundberg, K.Thorburn, E.Eriksson and K.Bergman. “Wave Energy Potential in the Baltic Sea and
the Danish part of the North Sea, with Reflections on the Skagerack”.
Renewable Energy Volume 32, 2007, pp 2069-2084
[26] K.Thorburn and M.Leijon. “Farm Size Comparison with Analytical Model of Linear Generator
Wave Energy Converters”. Ocean Engineering, Volume 34, Issue 5-6, April 2007, pp 908-916
[27] R.Waters, O.Danielsson and M.Leijon. “Measuring Air Gap Width of Permanent Magnet Linear
Generators using Search Coil Sensor”. Journal of Applied Physics 101 15 Jan 2007 024518
[28] R.Waters, M.Stålberg, O.Danielsson, O.Svensson, S.Gustafsson, E.Strömstedt, M.Eriksson,
J.Sundberg and M.Leijon. ”Experimental results from sea trials of an offshore wave energy system”.
Applied Physics Letter 90, Issue 3, 034105 15 Jan 2007
[29] R.Perers, U.Lundin and M.Leijon. “History of Swedish Hydropower Generators”.
Renewable and Sustainable Energy Reviews Volume 11, Issue 5, June 2007, pp 1008-1017
[29] B.Bolund, H.Bernhoff and M.Leijon. “Flywheel energy and power storage system”.
Renewable and Sustainable Energy Reviews, Volume 11, Issue 2, Feb 2007, pp 235-258
[30] M.Eriksson, J.Isberg and M.Leijon. “Dynamics of an elastically moored cylindrical buoy in
ocean waves: comparison between theory and experiment “. IEEE Journal on Oceanic Engineering,
Vol.31, No.4. Oct 2006, pp 959-963
[31] H.Bernhoff, E.Sjöstedt and M.Leijon. “Wave energy resources in sheltered sea areas: A case
study of the Baltic Sea”. Renewable Energy, Volume 31, Issue 13, Oct 2006, pp 2164-2170
Cited 13 times
[32] M.Leijon, O.Danielsson, M.Eriksson, K.Thorburn, H.Bernhoff, J.Isberg, J.Sundberg, I.Ivanova,
E.Sjöstedt, O.Ågren, K-E Karlsson and A.Wolfbrandt. “An Electric Approach to Wave Energy
Conversion”. Renewable Energy 31 July 2006 pp 1309-1319
[33] K.Nilsson, O.Danielsson and M.Leijon. ”Electromagnetic Forces in the Air Gap of a Permanent
Magnet Linear Generator at No-Load”. Journal of Applied Physics 99, (034505) February, 2006
[34] K.Thorburn, Karl-Erik Karlsson, A.Wolfbrandt, M.Eriksson and M.Leijon. “Time Stepping
Finite Element Analysis of Variable Speed Synchronous Generator with Rectifier”.
Applied Energy, Volume 83, Issue 4, April 2006, pp 371-386
[35] I.Ivanova, O.Ågren, H.Bernhoff and M.Leijon. “Simulation of Wave Energy Converter with
Octagonal Linear Generator”.
IEEE Journal of Oceanic Engineering, vol. 30, no 3, July 2005, pp 619- 629 Cited 7 times
[36] M.Eriksson, J.Isberg and M.Leijon. “Hydrodynamic modelling of a Direct Drive Wave Energy
Converter”. International Journal of Engineering Science, Volume 43, Nov 2005, pp 1377-1387
[37] O.Ågren, M.Berg and M.Leijon. ”A time-dependent potential flow theory for the aerodynamics
of vertical axis wind turbines”. Journal of Applied Physics 97, 104913 (2005)
CV_Publ p28
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STandUP for Energy
[38] M. Leijon, H. Bernhoff, O. Ågren, J. Isberg, J. Sundberg, M. Berg, K.-E. Karlsson and A.
Wolfbrandt. ”Multi-Physics Simulation of Wave Energy to Electric Energy Conversion by Permanent
Magnet Linear Generator”. IEEE Energy Conversion, Volume 20, pp 219-224 Mars 2005
Cited 36 times
[39] K.Thorburn and M.Leijon. “Case Study – Small Scale Hydro Power Up-grading”
Renewable Energy, Volume 30, Issue 7, June 2005, pp 1091-1099
[40] K.Thorburn, H.Bernhoff and M.Leijon. "Wave Energy Transmission System Concepts for Linear
Generator Arrays" Ocean Engineering vol. 31 (11-12) pp 1339-1349, 2004
Cited 25 times
[41] B.Bolund, K.Thorburn, E.Sjöstedt, M.Eriksson, E.Segergren and M.Leijon. “Generator Upgrade
Potential Using New Tools and High Voltage Technology.”.
International Journal on Hydro Power and Dams 2004, issue 3 pp 104-108
[42] M.Leijon, H.Bernhoff, M.Berg and O. Ågren. “Economical Considerations of Renewable
Electric Energy Production Especially Development of Wave Energy”.
Renewable Energy, Volume 28, pp 1201-1209, July 2003. Cited 15 times
[43] Leijon, M.; Dahlgren, M.; Walfridsson, L.; Li Ming; Jaksts, A. “A recent development in the
electrical insulation systems of generators and transformers”.
IEEE Electrical Insulation Magazine, Volume: 17 Issue: 3, May-June 2001 Page(s): 10 –15
[44] M.Leijon and T.Andersson. “High and Dry”. IEE Review, July 2000 pp 9-14
Cited 19 times
[45] M.Dahlgren, H.Frank, M.Leijon, F.Owman and L.Walfridsson. “Windformer – Wind Power
Goes Large Scale”. ABB Review 3/2000 pp 31-37
Cited 18 times
[46] M.Leijon. “Powerformer – a radically new rotating machine”. ABB Review 2/1998 pp 21-26
Cited 49 times
3 Reviewed conference papers
[47] M.Leijon, L.Gertmar, H Frank J.Martinsson, T.Karlsson. Breaking Conventions in Electrical
Power Plants Proc Int Conf. Large High Voltage Electric Syst CIGRÉ 1998 paper 11/37-03
(Prize winner) Cited 42 times
[48] Leijon, M.; Johansson, S..; Owman, F.; Alfredson, S.; Karlsson, T.; Lindahl, S.; Parkegren, C.;
Thoren, S. “PowerformerTM -experiences from the application of extruded solid dielectric cables in
the statorwinding of rotating machines”. Power Engineering Society Winter Meeting, 2000. IEEE,
Volume: 1, 2000 Page(s): 736 -744 vol.1 Cited 16 times
4 Books
[49] M.Leijon and R.Liu. “Electric Power Generators”. Landolt-Börnstein New series chapter
VIII/3A pp 153-167, Springer Verlag Jan 2003.
[50] Oskar Danielsson, Karin Thorburn, Mats Leijon, Chapter: 6.2: Direct Drive - Linear Generators,
Book: Ocean Wave Energy - Current Status and Future Perspectives, Editor: João Cruz, Springer
Verlag, Tyskland, 2008
CV_Publ p29
4 (4)
STandUP for Energy
CV Göran Lindbergh
1. Personal Details
Name:
Date and place of birth:
Place of work:
Göran Lindbergh
November 8, 1959, Stockholm, Sweden
Department of Chemical Engineering and Technology
Applied Electrochemistry, KTH Chemical Science and Engineering
2. Academic Degree
1985
Master of Science (Civilingenjörsexamen) in Chemical Engineering at Kungliga Tekniska
Högskolan.
1991
Doctor of Philosophy (Teknologie doktorsexamen) in Applied Electrochemistry and
Corrosion Science, Kungliga Tekniska Högskolan.
1999
Associate professor (docent) in Applied Electrochemistry, Department of Chemical
Engineering and Technology at Kungl Tekniska Högskolan.
3. Career
2005-
Head of Department, Department of Chemical Engineering and Technology at Kungl
Tekniska Högskolan.
2003-
Professor in Electrochemical Process and System Engineering (professor i kemiteknik med
inriktning mot elektrokemi) at Applied Electrochemistry, Department of Chemical
2001-
Senior Lectureship in Electrochemical Process and System Engineering (lektor i kemiteknik
med inriktning mot elektrokemi) at Applied Electrochemistry, Department of Chemical
1998-
Acting professor in Applied Electrochemistry, Department of Chemical Engineering and
Technology at Kungl Tekniska Högskolan.
1995-
Assistant professor (forskarassistent) at Applied Electrochemistry, Department of Chemical
1994- 1995
Acting professor in Applied Electrochemistry, Department of Chemical Engineering and
Technology at Kungl Tekniska Högskolan.
1991, 1992-
Researcher at the Department of Applied Electrochemistry and Corrosion Science, later
Applied Electrochemistry, Department of Chemical Engineering and Technology, Kungliga
Tekniska Högskolan.
1991-1992
Post-doc with scholarship from "The Japan Society for Promotion of Science" at Prof. I.
Uchida, Tohoku University, Sendai, Japan.
Academic experience as main supervisor:
Doctorate thesis:
Baohua Zhu, ”Corrosion of current collector materials in the molten carbonate fuel cell”, KTH, January
2001. Present affiliation: SWEREA KIMAB, Stockholm
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Philip Byrne, ”Mathematical modelling and experimental simulation of chlorate and chlor-alkali cells”,
KTH, June 2001. Present affiliation: Comsol AB, Stockholm
Anton Lundqvist, ”Transient electrochemical methods for investigation of porous battery electrodes.
Applied to the metal hydride and LiMn2O4-electrode”, KTH, December 2001. Present affiliation: Dometic,
Stockholm
Kristine Dannenberg, ”Characterisation and modelling of the PEMFC”, KTH, June 2002. Present
affiliation: Swedish National Space Board, Solna
Anna-Karin Hjelm, ”Kinetic investigation of Mn2O4 for rechargeable lithium batteries”, KTH, November
2002. Present affiliation: Catator, Lund
Ann Cornell, ”Electrode reactions in the chlorate process”, KTH, December 2002. Present affiliation: KTH,
Stockholm
Frédéric Jaouen, ”Electrochemical characterisation of porous cathodes in the polymer electrolyte fuel cell”,
KTH, April 2003. Present affiliation: INRS Énergie, Matériaux et Télécommunications, Montreal, Canada
Peter Georén, ”Characterisation and modelling of lithium-ion battery electrolytes”, KTH, November 2003.
Present affiliation: Chromogenics AB, Uppsala
Jari Ihonen, ”Development of characterisation methods for the components of the polymer electrolyte fuel
cell”, KTH, December 2003. Present affiliation: VTT, Helsinki, Finland
Joakim Nordlund, ”The anode in the direct methanol fuel cell”, KTH, December 2003. Present affiliation:
Cellkraft AB, Stockholm
Peter Gode, ”Investigation of proton conducting polymers and gas diffusion electrodes in the polymer
electrolyte fuel”, KTH, Januari 2005. Present affiliation: Cellkraft AB, Stockholm
Mari Sparr, ”Modelling and experimental investigation of the porous nickel anode in the molten carbonate
fuel cell”, KTH, August 2005. Present affiliation: SWEREA KIMAB, Stockholm
Andreas Bodén, ”The anode and the electrolyte in the MCFC”, KTH 2007. Present affiliation: AB Volvo,
Göteborg
Henrik Ekström, ”Evaluating cathode catalysts in the polymer electrolyte fuel cell”, KTH 2007. Present
affiliation: AB Volvo/Powercell AB, Göteborg
Linda Nylén, ”Influence of the electrolyte in the chlorate process”, KTH, April 2008. Present affiliation:
Vattenfall AB, Stockholm
Shelley Brown, ”Diagnosis of the lifetime performance degradation of lithium-ion batteries”, KTH, May
2008. Present affiliation: The University of Queensland, Brisbane, Australia
Sophie von Kreamer, ”Membrane electrode assemblies based on hydrocarbon ionomers and new catalyst
supports for PEM fuel cells”, KTH October 2008. Present affiliation: Chromogenics AB, Uppsala
Doctoral students presently being supervised: about 15
Program coordination:
Since 2007 member of the executive board of the Swedish Hybrid Vehicle Centre (SHC), and thematic
coordinator of the energy storage activities.
5. Knowledge Exchange and Entrepreneurial Achievements
Our projects are normally formulated based on applications, and in close contact with stakeholders. Thus
industrial partners are always more or less involved in the project, either in steering groups or as active
project partners. Our industrial partners involve Scania, Volvo, Volvo Cars, Saab/GM, Hägglunds/BAE
Systems, Akzo Nobel and ABB. We are also working closely together with small innovation-based
companies. One industrial based PhD-student (industridoktorand) is looking at design tools for smart
windows together with Chromogenics AB. Another industrial based student, and also one of the founders of
the company, is working at Replisaurus AB.
The research work in the group has resulted in three new companies. PowerCell AB, working with fuel
cells for automotive applications and founded by AB Volvo, is initially based on results and patents that has
evolved out of the Mistra fuel cell program. myFC, working with micro fuel cells, was founded by a former
researcher in the group. The ideas and patents origins from research work in the group. Cellkraft AB,
working with systems for uninterrupted power supply (UPS) based on fuel cells, was founded by two PhDstudents and a former master student, all trained in the group.
CV_Publ p31
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Publications, Göran Lindbergh
A h-index compilation yielded 18 in early 2009 (a total of >1000 citations were found in ISI).
50 selected peer reviewed journal articles related to the application (from a total of 94):
1. ”Investigation of porous electrodes by current interruption. Application to molten carbonate
fuel cell cathodes”, Carina Lagergren, Göran Lindbergh, and Daniel Simonsson, J.
Electrochem. Soc., 142, 787, 1995.
2. ”An electrochemical impedance spectroscopy method for prediction of the state of charge of a
nickel-metal hydride battery at open circuit and during charge”, Kenneth Bundy, Mikael
Karlsson, Göran Lindbergh, and Anton Lundqvist, J. Power Sources, 72, 118, 1998.
3. ”Kinetic study of a porous metal hydride electrode”, Anton Lundqvist and Göran Lindbergh,
Electrochim. Acta, 44, 2523, 1999.
4. ”Mathematical model of the PEMFC”, Kristine Dannenberg, Per Ekdunge and Göran
Lindbergh, J. Applied Electrochemistry, 30, 1377, 2000.
5. ”A novel polymer electrolyte fuel cell for laboratory investigations and in-situ contact
resistance measurements”, Jari Ihonen, Frédéric Jaouen, Göran Lindbergh and Göran
Sundholm, Electrochim. Acta, 46, 2899, 2001.
6. ”Characterisation and modelling of the transport properties in lithium battery polymer
electrolytes”, Peter Georén and Göran Lindbergh, Electrochim. Acta, 47, 577, 2001.
7. ”Investigation of Mass-Transport Limitations in the Solid Polymer Fuel Cell Cathode. Part I:
Mathematical Model”, Frédéric Jaouen, Göran Lindbergh and Göran Sundholm, J.
Electrochem. Soc., 149, A437, 2002.
8. ”Investigation of Mass-Transport Limitations in the Solid Polymer Fuel Cell Cathode. Part II:
Experimental”, Jari Ihonen, Frédéric Jaouen, Göran Lindbergh, Anders Lundblad and Göran
Sundholm, J. Electrochem. Soc., 149, A448, 2002.
9. ”Experimental and theoretical analysis of LiMn2O4 cathodes for use in rechargeable lithium
batteries by electrochemical impedance spectroscopy (EIS)”, Anna-Karin Hjelm and Göran
Lindbergh, Electrochim. Acta, 47, 1747, 2002.
10. ”The influence of electrode morphology on the performance of a DMFC anode”, Joakim
Nordlund, Albert Roessler and Göran Lindbergh, J. Applied Electrochemistry, 32, 259, 2002.
11. ”A model for the porous DMFC anode”, Joakim Nordlund and Göran Lindbergh, J.
12. ”Electrochemical investigation of LiMn2O4 cathodes in gel electrolyte at various
temperatures”, Anna-Karin Hjelm, Tom Eriksson and Göran Lindbergh, Electrochim. Acta,
48, 171, 2002.
13. ”Oxygen reduction catalysts for polymer electrolyte fuel cells from the pyrolysis of iron
acetate adsorbed on various carbon supports ”, Frédéric Jaouen, Sébastien Marcotte, Jean-Pol
Dodelet, and Göran Lindbergh, J. Phys. Chem. B, 107, 1376, 2003.
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14. ”Reduced two-dimensional one-phase model for analysis of the anode of a DMFC”, Erik
Birgersson, JoakimNordlund, Henrik Ekström, Michael Vynnycky, Göran Lindbergh, J.
Electrochemical Soc., 150, A1368, 2003.
15. ””Influence of composition on the structure and electrochemical characteristics of the PEFC
cathode”, Peter Gode, Frédéric Jaouen, Göran Lindbergh, Anders Lundblad, Göran Sundholm,
16. ”Transient techniques for investigating mass-transport limitations in gas diffusion electrodes.
I. Modelling of the PEFC cathode”, Frédéric Jaouen, Göran Lindbergh, J. Electrochem. Soc.,
150, A1699, 2003.
17. ”Transient techniques for investigating mass transport limitations in gas diffusion electrodes.
II. Experimental characterization of the PEFC cathode”, Frédéric Jaouen, Göran Lindbergh,
Katarina Wiezell, J. Electrochem. Soc., 150, A1711 2003.
18. ”Reduced two-phase model for analysis of the anode of a DMFC”, Erik Birgersson, Joakim
Nordlund, Michael Vynnycky, Cyril Picard, Göran Lindbergh, J. Electrochem. Soc., 151,
A2157, 2004.
19. ”Current distribution measurements in a PEFC with net flow geometry”, Matti Noponen, Jari
Ihonen, Anders Lundblad, Göran Lindbergh, J. Applied Electrochemistry, 34, 255, 2004.
20. ”Characterisation and modelling of the transport properties in lithium battery gel electrolytes Part I. The binary electrolyte PC/LiClO4”, Peter Georen, Göran Lindbergh, Electrochim. Acta,
49, 3497, 2004.
21. ”The design and usage of a visual direct methanol fuel cell”, Joakim Nordlund, Cyril Picard,
Erik Birgersson, Michael Vynnycky, Göran Lindbergh, J. Applied Electrochemistry, 34, 763,
2004.
22. ”A Two-Phase Non-Isothermal PEFC Model: Theory and Validation”, Matti Noponen, Erik
Birgersson, Jari Ihonen, Michael Vynnycky, Anders Lundblad, Göran Lindbergh, Fuel Cells,
4, 365, 2004.
23. ”Flooding of gas diffusion backing in PEFCs - Physical and electrochemical characterization”,
Jari Ihonen, Mikko Mikkola, Göran Lindbergh, J. Electrochem. Soc., 151, A1152, 2004.
24. ””Experimentally validated model for CO oxidation on PtRu/C in a porous PEFC electrode”,
Sofia Enbäck, Göran Lindbergh, J. Electrochem. Soc., 152, A23, 2005.
25. ”In situ micro-Raman on the membrane in a working PEM cell”, Hanna Matic, Anders
Lundblad, Göran Lindbergh, Per Jacobsson, Electrochemical and Solid State Letters, 8, A5,
2005.
26. ”Investigation of mass transport in gas diffusion layer at the air cathode of a PEMFC”, Yann
Bultel, Katarina Wiezell, Frédéric Jaouen, Patric Ozil and Göran Lindbergh, Electrochim.
Acta, 51, 474, 2005.
27. ”Oxygen reduction by Fe-based catalysts in PEM fuel cell conditions: Activity and selectivity
of the catalysts obtained with two Fe precursors and various carbon supports”, C. Médard, M.
Lefèvre, J.P. Dodelet, F. Jaouen and G. Lindbergh, Electrochim. Acta, 51, 3202, 2006.
28. ”A novel sulfonated dendritic polymer as the acidic component in proton conducting
membranes”, Peter Gode, Anders Hult, Patric Jannasch, Lina E. Karlsson, Mats Johansson,
Göran Lindbergh, Eva Malmström, David Sandquist, Solid State Ionics, 177, 787, 2006.
29. ”A novel approach for measuring catalytic activity of planar model catalysts in the polymer
electrolyte fuel cell environment”, Henrik Ekström, Per Hanarp, Mari Gustavsson, Erik
Fridell, Anders Lundblad, Göran Lindbergh, J. Electrochem. Soc., 153, A724, 2006.
30. ”Steady-state and EIS investigations of hydrogen electrodes and membranes in polymer
electrolyte fuel cells I. Modeling”, Katarina Wiezell, Peter Gode, Göran Lindbergh, J.
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31. ”Steady-state and EIS investigations of hydrogen electrodes and membranes in polymer
electrolyte fuel cells II. Experimental”, Katarina Wiezell, Peter Gode, Göran Lindbergh, J.
32. ”Experimental determination of effective surface area and conductivities in porous anode of
molten carbonate fuel cell”, Masahiro Yoshikawa, Andreas Bodén, Mari Sparr, Göran
Lindbergh, J. Powers Sources, 158, 94, 2006.
33. ”Integration of the components in a small-scale stationary research PEFC system”, Cecilia
Wallmark, Sofia Enbäck, Markku Rissanen, Per Alvfors and Göran Lindbergh, J. Powers
Sources, 159, 613, 2006.
34. ”A method for evaluation of well-defined catalysts on nonporous electrodes in realistic DMFC
environment”, Dan Pettersson, Marie Gustavsson, Carina Lagergren, Göran Lindbergh,
35. ”A steady-state model of the porous MCFC anode for investigation of kinetics and mass
transfer”, Mari Sparr, Andreas Bodén, Göran Lindbergh, J. Electrochem. Soc., 153, A1525,
2006.
36. ”Gas diffusion electrodes and membrane electrode assemblies based on a sulfonated
polysulfone for high-temperature PEMFC”, Sophie von Kraemer, Mario Puchner, Patric
Jannasch, Anders Lundblad, Göran Lindbergh, J. Electrochem. Soc., 153, A2077, 2006.
37. ”A model for mass transport of molten alkali carbonate mixtures applied to the MCFC”,
Andreas Bodén, Göran Lindbergh, J. Electrochem. Soc., 153, A2111, 2006.
38. ””Nanometer-thick films of titanium oxide acting as electrolyte in the polymer electrolyte fuel
cell”, Henrik Ekström, Björn Wickman, Mari Gustavsson, Per Hanarp, Lisa Eurenius, Eva
Olsson, Göran Lindbergh, Electrochim. Acta, 52, 4239, 2007.
39. ”On the influence of Pt particle size on PEMFC cathode performance”, Kjell Wikander,
Henrik Ekström, Anders E.C. Palmqvist, Göran Lindbergh, Electrochim. Acta, 52, 6848,
2007.
40. ”The influence of the gas diffusion layer on water management in polymer electrolyte fuel
cells”, Nicklas Holmström, Jari Ihonen, Anders Lundblad, Göran Lindbergh, Fuel Cells, 7,
306, 2007.
41. ”Conductivity of SDC and (Li/Na)2CO3 composite electrolytes in reducing and oxidising
atmospheres”, Andreas Bodén, Jing Di, Carina Lagergren, Göran Lindbergh, Cheng Yang
Wang, J. Powers Sources, 172, 520, 2007.
42. ”Impedance as a tool for investigating aging in lithium-ion porous electrodes – I. Physically
Based Electrochemical Model”, Niklas Mellgren, Shelley Brown, Michael Vynnycky, Göran
Lindbergh, J. Electrochem. Soc., 155, A304, 2008.
43. ”Impedance as a tool for investigating aging in lithium-ion porous electrodes - II. Positive
electrode examination”, Shelley Brown, Niklas Mellgren, Michael Vynnycky, Göran
Lindbergh, J. Electrochem. Soc., 155, A320, 2008.
44. ”Evaluation of TiO2 as catalyst support in Pt-TiO2/C composite cathodes for the proton
exchange membrane fuel cell”, Sophie von Kraemer, Kjell Wikander, Göran Lindbergh,
Anders Lundblad, Anders E. C. Palmqvist, J. Powers Sources, 180, 185, 2008.
45. ”The influence of CO2, CO and air bleed on the current distribution of a polymer electrolyte
fuel cell”, Thomas Tingelöf, Lars Hedström, Nicklas Holmström, Per Alvfors, Göran
Lindbergh, International Journal of Hydrogen Energy, 33, 2064, 2008.
46. ”Electrochemical characterisation and modelling of the mass transport phenomena in LiPF6EC-EMC electrolyte”, Andreas Nyman, Mårten Behm, Göran Lindbergh, Electrochim. Acta,
53, 6356, 2008.
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47. ”Pore size distribution and water uptake in hydrocarbon and perfluorinated proton exchange
membranes as studied by NMR cryoporometry”, Sophie von Kraemer, Alexender I.
Sagidullin, Göran Lindbergh, Istvan Furo, Elin Persson, Patric Jannasch, Fuel Cells, 8, 262,
2008.
48. ”Substitution of nafion with sulfonated polysulfone in membrane-electrode assembly
components for 60-120 degrees C PEMFC operation”, Sophie von Kraemer, Göran
Lindbergh, Benoit Lafitte, Mario Puchner, Patric Jannasch, J. Electrochem. Soc., 155, B1001,
2008.
49. ”Cycle life evaluation of 3Ah LixMn2O4-based lithium-ion secondary cells for low-earth-orbit
satellites I. Full cell results”, Shelley Brown, Keita Ogawa, Youichi Kumeuchi, Shinsuke
Enomoto, Masatoshi Uno, Hirobumi Saito, Yoshitsugu Sone, Daniel Abraham, Göran
Lindbergh, J. Powers Sources, 185, 1444, 2008.
50. ”Cycle life evaluation of 3Ah LixMn2O4-based lithium-ion secondary cells for low-earth-orbit
satellites II. Harvested electrode examination”, Shelley Brown, Keita Ogawa, Youichi
Kumeuchi, Shinsuke Enomoto, Masatoshi Uno, Hirobumi Saito, Yoshitsugu Sone, Daniel
Abraham, Göran Lindbergh, J. Powers Sources, 185, 1454, 2008.
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CV Chandur Sadarangani
1. Personal Details
Born:
December 4, 1946, Hyderbad Sind, India
Phone:
+46855010154 (home), +4687907741 (office), +46705933123 (mobile)
Email:
[email protected]
2. Academic Degree
1979
Doctor of Technology, School of Electrical Engineering, Chalmers University of
Technology, Gothenburg
1969
Bachelor of Science, University of Manchester Institute of Science and Technology
(UMIST), Manchester
3. Career
1993 1992 1992 1984 - 1992
1979 - 1984
1970 - 1971
Head of Department, KTH, Dept. of Electrical Machines and Power Electronics
Professor, KTH, Electrical Machines and Drives
Consultant Adviser, ABB Corporate Research, Västerås, Sweden
Research Engineer, ABB Corporate Research, Västerås, Sweden
Design Engineer, ABB Motors, Västerås, Sweden
Work Study Engineer, Phillips, Mullards, Blackburn, England
Board Membership
1995-
Member of the Executive Board for the Center of Competence in Electrical Power
Engineering at KTH
Committee Memberships
19921992200420052005-
Member of the Swedish Standardizing Committee (TK2) for Rotating Machines
Member of the Cigré Working group Committee WG 11-6
Member of the International Steering Committee for the ICEM Conference
Member of the International Steering Committee for the ICEMS Conference
Member of the International Steering Committee for the LDIA Conference
Sadarangani has been principal adviser for 19 PhD students. He is at present principal adviser of 9
PhD students.
Name
Sture Eriksson
Yung-Kang Robert Chin
Lilantha Samaranayake
CV_Publ p36
PhD exam
2007
2006
2006
Present Affiliation
Consultant
ABB Corporate Research
University of Peradenyia
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STandUP for Energy
Sylvain Chatelet
Erik Nordlund
Torbjörn Lembke
Freddy Magnussen
Fredrik Carlsson
Ola Aglén
Waqas Arshad
Peter Thelin
Jörgen Engström
Thomas Kumm
Kelvin Maliti
Sanath Alahakoon
Eckart Nipp
Anders Malmqvist
Lennart Harnefors
Hans-Peter Nee
2005
2005
2005
2004
2004
2003
2003
2002
2001
2000
1999
1999
1999
1999
1997
1996
Eltek AB
Gothia Power AB
Uppsala University
Vattenfall Utveckling AB
SJ AB
Scania AB
Bombardier Transportation AB
Ericson AB
University of Peradenyia
Bosch
Compower AB
ABB Power Systems
KTH
Awards and Special Commissions
199920042008
Jan. 2005
May 1991
Swedish Coordinator for Sida program for Research Capacity Building at the
University of Dar es Salam, Tanzania
Expert reviewer of project applications for the Academy of Finland
Expert reviewer for research application (Swedish National Agency for Research)
Honorary Professor at Harbin Institute of Technology (HIT), China
Appointed Senior Scientist in Electrical Machines and Drives at ABB Corporate
Research, Västerås, Sweden.
March 2007
2004-2007
Invited lectures at motor manufacturing company WEG at their headquarters at Jaragua
de Sol, Brazil
Annual visits to Harbin Institute of Technology (approximately. 2 weeks/year). Task:
Giving seminars, teaching courses, supervising PhD students
Major Research Projects
1993 -
1995 -1997
1997-
1995-
CV_Publ p37
4QT transducer for Hybrid Electric Vehicles
Total finance = 60MSEK 5 PhD + 1 Licentiate examinations. Strong industrial
collaboration, tests ongoing in a vehicle
Refurbishment of the KTH Electrical Machines Laboratory
Total finance = 16MSEK by Wallenberg Stiftelse, ABB, Vattenfall
Free Piston Energy Transducer
Total Finance = 10MSEK 1 PhD + 1 Licentiate examinations. Several European
partners. Strong industrial collaboration, tests ongoing on a novel linear generator
concept
Center of Competence – Permanent Magnet (High Performance) Drives
Total Finance = 30MSEK, 6 PhD + 3 Licentiate examination
Strong industrial collaboration
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STandUP for Energy
Publications, Chandur Sadarangani
The following is a list of 50 references that are most closely related to the
proposed project:
A. Books
[1]
C. Sadarangani, “Electrical Machines – Design and Analysis of Induction and Permanent
Magnet Motors “, KTH, Stockholm, Aug 2000, revised 2006.
660 pages
B. Conference and Journal Papers
[2]
Reza Rajabi Moghaddam, Chandur Sadarangani, “New Theoretical Approach to the
Synchronous Reluctance Machine Behavior and Performance”, Proc. ICEM conference held at
Villamoura, Portugal, Sept. 2008
[3]
Ping Zheng, R. Liu, Peter Thelin, Erik Nordlund, Chandur Sadarangani, “ Research on the
Parameters and Performances of a 4QT Prototype Machine Used for HEV”, IEEE
Transactions on Magnetics, Vol. 43, Pages 443-446, January 2007
[4]
Ping Zheng, R. Liu, Peter Thelin, Erik Nordlund, Chandur Sadarangani, “ Research on the
Cooling System of a 4QT Prototype Machine Used for HEV”, IEEE Transactions on Energy
Conversion, January 2007
[5]
Ping Zheng, Peter Thelin, Erik Nordlund, Chandur Sadarangani, “Two-dimensional Finite
Element Method Simulation of a Four-quadrant Transducer Prototype Machine Considering
Skewed Slots”, Journal of Applied Physics, June 2006.
[6]
Dmitry Svechkarenko, Juliette Soulard, Chandur Sadarangani, “ A Novel Transverse Flux
Generator in Direct-Driven Wind Turbines “, Proceedings Nordic Workshop on Power and
Industrial Electronics, June 2006.
[7]
Dmitry Svechkarenko,Juliette Soulard,Chandur Sadarangani, “Analysis of a Novel Transverse
Flux Generator in Direct-driven Wind Turbines “, Proceedings International Conference on
Electrical Machines, September 2006.
[8]
A. Cosic, C. Sadarangani and F. Carlsson, “A Novel Concept of a Transverse Flux Linear
Free-Piston Generator “, Proceedings of the 5th International Symposium on Linear Drives for
Industry Applications (LDIA2005), Kobe-Awaji, Japan, September 2005.
[9]
J. Hansson, M. Leksell, F. Carlsson and C. Sadarangani , “ Operational Strategies for a Free
Piston Energy Converter “, Proceedings of the 5th International Symposium on Linear Drives
for Industry Applications (LDIA2005), Kobe-Awaji, Japan, September 2005.
[10]
Ping Zheng, Erik Nordlund, Peter Thelin, Chandur Sadarangani, “Investigation of the winding
current distribution in a 4-quadrant-transducer prototype machine”, IEEE Transactions on
Magnetics, Vol. 41, Pages1972-1975, May 2005
[11]
F. Magnussen, D. Svechkarenko, P.Thelin and C. Sadarangani , “ Analysis of a PM Machine
with Soft magnetic Composite Core “, Proceedings of the IEEE Vehicular Power and
Propulsion Symposium, VPP 04, Paris, France, 6-8 October 2004.
CV_Publ p38
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[12]
P. Zheng, P. Thelin, E. Nordlund, S. Eriksson and C. Sadarangani , “ Consideration of Skewed
Slots in Performance Calculations of a Four-Quadrant Transducer “, Proceedings of the IEEE
Vehicular Power and Propulsion Symposium, VPP 04, Paris, France, 6-8 October 2004.
[13]
F. Magnussen, Y.K. Chin, J. Soulard, A. Broddefalk, S. Eriksson and C. Sadarangani , “ Iron
Losses in Salient Permanent Magnet Machines at Field-Weakening Operation “, Proceedings
of the IEEE Industry Applications Society 39th Annual Meeting, IAS 04, Seattle, Washington,
USA, 3-7 October 2004.
[14]
W.M. Arshad, P. Thelin, T. Bäckström and C. Sadarangani, “ Use of Transverse Flux
Machines in a Free-Piston Generator“, Proceedings of the IEEE Transactions on Industry
Applications, Volume: 40, Issue: 4, July-Aug. 2004.
[15]
P. Zheng, E. Nordlund, P. Thelin and C. Sadarangani , “ Investigation of the Winding Current
Distribution in a 4-Quadrant Transducer Prototype Machine “, Proceedings of the Eleventh
Biennial IEEE Conference on Electromagnetic Field Computation (CEFC2004), June 2004,
Seoul, Korea.
[16]
F. Magnussen, D. Svechkarenko, P. Thelin and C. Sadarangani, “Analysis of a PM Machine
with Concentrated Fractional Pitch Windings “, Proceedings of the Nordic Workshop on
Power and Industrial Electronics (NORpie), Trondheim, Norway, 12-14 June 2004.
[17]
F. Magnussen, P. Thelin and C. Sadarangani , “ Performance Evaluation of Permanent Magnet
Synchronous Machines with Concentrated and Distributed Windings Including the Effect of
Field-Weakening “, Proceedings of the IEE International Conference on Power Electronics
and Electrical Machines (PEMD), Edinburgh, United Kingdom, March – April 2004.
[18]
W. M. Arshad, P. Thelin, C. Sadarangani and T. Bäckström, “Analytical Analysis and
Dimensioning of a Low-Leakage Linear Transverse-Flux Machine “ Proceedings of the IEE
International Conference on Power Electronics and Electrical Machines (PEMD), Edinburgh,
United Kingdom, March – April 2004.
[19]
W. M. Arshad, P. Thelin, T. Bäckström and C. Sadarangani, “Alternative Electric Machine
Solutions for a Free Piston Generator “International Power Engineering Conference (IPEC),
Singapore, November 27-29, 2003.
[20]
F. Magnussen, E. Nordlund, S. Chatelet and C. Sadarangani, “Measurement on Slip Ring
Units for Characterisation of Performance “, International Power Engineering Conference
(IPEC), Singapore, November 27-29, 2003.
[21]
F. Magnussen, P. Thelin and C. Sadarangani, “Design of Compact Permanent Magnet
Machines for a Novel HEV Propulsion System “ , Electric Vehicle Symposium (EVS20),
Long Beach, USA, November 15-19, 2003.
[22]
F. Magnussen and C. Sadarangani, “ Winding Factors and Joule Losses of Permanent Magnet
Machines with Concentrated Windings “ , IEEE International Electric Machines and Drives
Conference (IEMDC´03), pp 1035 – 1041, Madison, Wisconsin, USA, June 1-4, 2003.
[23]
F. Magnussen, E. Nordlund, S. Chatelet and C.Sadarangani, “Measurements on Slip Rings
Units for Characterisation of Performance “, Proceedings of the International Power
Engineering Conference 2003 (IPEC), Singapore, November 27-29, 2003.
[24]
W. M. Arshad, P. Thelin, T. Bäckström and C. Sadarangani, “Use of Transverse Flux
Machines in a Free-Piston Generator “ , Proceedings of the IEEE International Electric
Machine and Drive Conference, IEMDC, Madison, Wisconsin, USA, June 2003.
[25]
F. Carlsson, H.- P. Nee and C. Sadarangani, “ Analysis of peak Torque of Line-operated
synchronous Machines subjected to symmetrical Voltage Sags “ , Proceedings of the IEE
International conference on Power Electronics and Electrical Machines (PEMD), Bath, United
Kingdom, April 2002.
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[26]
W. M. Arshad, T. Bäckström and C. Sadarangani, “ Investigating a Transverse Flux Machine
with Intermediate Poles “, Proceedings of the IEE International conference on Power
Electronics and Electrical Machines (PEMD), Bath, United Kingdom, April 2002
[27]
W. M. Arshad, T. Bäckström, P. Thelin and C. Sadarangani, “Integrated Free-Piston
Generators: An Overview “, Proceedings of the Nordic Workshop on Power and Industrial
Electronics (NORpie), Stockholm, Sweden, August 2002.
[28]
S. Eriksson, C. Sadarangani, ’ A four quadrant hybrid electric drive system ’, Proceedings of
the IEE Vehicular Technology Conference, September 2002, Vancouver, Canada.
[29]
S. Chatelet, C. Sadarangani,’ Four quadrant energy transducer test bench ’, EVS19, October
2002, Busan, Korea.
[30]
E. Nordlund, C. Sadarangani,’ The four quadrant energy transducer ’, IEEE Industry
Application Society, Annual meeting, October 2002, Pittsburgh, USA.
[31]
E. Nordlund, C. Sadarangani,’Four quadrant energy transducer for hybrid Electric Vehiclesimulations and system description ’, EVS19, October 2002, Busan, Korea.
[32]
E. Nordlund, C. Sadarangani, ’Four quadrant energy transducer for hybrid electric vehicle ’,
Proceedings International Conference on Electrical Machines, ICEM 2002, Brugge, Belgium,
August 2002.
[33]
F. Magnussen, C. Sadarangani, ’ Electromagnetic transducer for hybrid electric vehicle ’,
Proceedings of the Nordic Workshop on Power and Industrial Electronics ( NORpie),
Stockholm, Sweden, August 2002.
[34]
S. Chatelet, C. Sadarangani, P. Thelin, ’ Test bench for Electromagnetic Energy Tranducer in
Hybrid Electric Vehicles ’, Proceedings of the Nordic Workshop on Power and Industrial
Electronics ( NORpie), Stockholm, Sweden, August 2002.
[35]
M. Cirani, C. Sadarangani, P. Thelin, ’ Analysis of an innovative design of an axial flux Torus
machine ’, Proceedings International Conference on Electrical Machines, ICEM 2002,
Brugge, Belgium, August 2002.
[36]
F. Carlsson, J. Engström, C. Sadarangani, “ Simulation of a Synchronous Machine affected by
Voltage Sags “, Proceedings of the European Conference on Power Electronics (EPE), Graz,
Austria, August 2001.
[37]
W. Qiang, C. Sadarangani, T. Bäckström, “ A Novel Drive Strategy for Hybrid Electric
Vehicles “, Proceedings of the International Electrical Machines and Drives Conference
(IEMDC), Boston, USA, June 2001
[38]
W. Arshad, T. Bäckström, C. Sadarangani, “ Analytical Design and Analysis Procedure for a
Transverse Flux Machine “, Proceedings of the International Electrical Machines and Drives
Conference (IEMDC), Boston, USA, June 2001
[39]
T. Bäckström, C. Sadarangani, “ Novel Concept for Hybrid Electric Parallel Drives,
ICEET’99, Dar es Salaam, Tanzania, Sept. 1999.
[40]
T. Bäckström, H. Engströmer, S. Östlund, C. Sadarangani, “ Control of the Integrated Energy
Transducer Drive for Hybrid Electric Vehicles “, 14th International Electric Vehicle
Symposium EVS-14, Orlando, Florida, USA, Dec. 1997.
[41]
T. Bäckström, C. Sadarangani, S. Östlund, “Integrated Energy Transducer for Hybrid Electric
Vehicles “, 7th European Conference on Power Electronics EPE’97, Trondheim, Norway,
Sept. 1997
[42]
T. Bäckström, C. Sadarangani, S. Östlund, “Integrated Energy Transducer for Hybrid Electric
Vehicles”, IEE 8th International Conference on Electrical Machines and Drives EMD’97,
Cambridge, Aug. 1997.
CV_Publ p40
3 (4)
STandUP for Energy
[43]
H-P Nee, C. Sadarangani, “ The influence of Load and Rotor Slot Design on Harmonic Losses
of Inverter-Fed Induction Motors “, IEE, Proc. Conference on Electrical Machines and Drives,
Oxford 8-10 Sept. 1993, pp. 173-178.
[44]
L. Gertmar, C. Sadarangani, “Rotor Design for Inverter-Fed High Speed Machines “, Proc.
EPE Conference 1989 (pp. 51-56).
[45]
L. Gertmar, C. Sadarangani, “On Modeling, Design and Measurements of Inverter-Fed High
Speed Induction Machine”, Proc. Conference on High Speed Technology, Lappeenranta,
Finland, pp 266-277, 1988
C. Patents
[46]
C. Sadarangani, Pat. Nr. SE-P0401120, “Hybrid transverse flux machine with high torque
density “, 2007
[47]
C. Sadarangani, Pat. Nr. SE-P0401110, “Transverse flux linear machine with a tubular
translator construction “, 2007
[48]
C. Sadarangani, Pat. Nr. 00030510, “Axial-axial 4QT concept with concentric pole windings“,
2002
[49]
C. Sadarangani,S. Östlund,T. Bäckström,A. Malmquist, N. Berg, S. Eriksson, Pat. Nr.
98042617, “Energy Converter with Double Rotors and Windings“, 1998
[50]
C. Sadarangani, S. Östlund, T. Bäckström, Pat. Nr. 95030433, “ Hybrid Drive System“, 1995.
CV_Publ p41
4 (4)
STandUP for Energy
CV Johan Schnürer
1. Born
Born 1957
2. Doctoral degree
Ph.D. 1985, Swedish University of Agricultural Sciences (SLU)
3. Docent
1988 at the Swedish University of Agricultural Sciences (SLU)
4. Present employment and research
Since 2000 Professor in Microbiology, SLU. Head of Department since 1996.
Directing 10 co-workers within three research projects in fundamental and applied research on
interactions of food- and feedborne microorganisms: i) Antifungal lactic acid and propionic acid
bacteria; ii) Yeasts as biocontrol agents of grain storage moulds and iii) Biology of the xerophilic
fungus Xeromyces bisporus.
Principal investigator for the interdisciplinary research programme DOM with 15 co-workers on
fermentation, formulation and safety assessment of enviro/biotech microorganisms.
Principal investigator for ”MicroDrivE – Microbially derived energy” with 20 co-workers, funded by
industry, SLF, National Energy Board and NL-faculty, SLU.
Head of Department (prefekt) from 1996 and onwards. The department has 70 employees and shortterm visitors (including associated research groups), a turnover of more than 40 MSEK (70% external
grants), 20 PhD students, and 51 FTE students in undergraduate courses.
6. Deductible time
Paternal leave: 6 months 1995 – 96; 4 months 1998; 3 months 2003-2004
Main supervisor for Matilda Olstorpe, 2008; Xinmei Feng, 2006; Katrin Ström, 2005; Elisabeth
Fredlund, 2004; Ulrika Druvefors, 2004; Jesper Magnusson, 2003; Petter Melin, 2002; Johan Olsson,
2000; Marianne Boysen, 1999; Stina Petersson, 1998; Emma Frändberg,1997; Thomas Börjesson,
1993.
Assistant supervisor for Jörgen Sjögren, 2005; Christina Krantz-Rülckert, 1993.
(Present employments: Linköping University (1), SLU (3) Pharmaceutical industry (4), Food industry
(1), National Food Administration (2), Agricultural research organisation (1), Nutritional research
organisation (1), PR-company (1))
Presently main supervisor for two PhD students (J. Jennesson, H Lind) and assistant supervisor for
three PhD students(Å. Schoug, J. Blomqvist, Å. Svanström).
CV_Publ p42
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8. International research activities
Research collaboration with Drs Rob Samson, Jan Dijksterhuis, and Teun Boekhout at CBS, The
Netherlands and Drs Jens Frisvad, Kristian Fog Nielsen and Thomas Larsen, Danish Technological
University, on metabolism and taxonomic relationships of the tempeh fungus Rhizopus oligosporus,
the xerophilic fungus Xeromyces bisporus and novel Cryptococcus yeast species. Two publications,
one submitted ms and two ms. in prep.
• Programme director and PI for MISTRA Programme ”Domestication of Microorganisms”
(DOM) with a staff of 15 scientists and a budget of 70 MSEK for 2003-2010.
• Programme director and PI for ”MicroDrivE – Microbially derived energy” with 20 co-workers.
Budget 27 MSEK 2007-2009, Industry SLF, National Energy Board and NL-faculty.
• Assistant Programme Director for the MISTRA programme "Microbial antagonism against
fungi”. The interdisciplinary research programme, with 20 scientists, postdocs, PhD students
and technicians, ran between 1996-2003 with a total budget 65 MSEK.
• Member of External Scientific Board for the Swedish National Food Administration, 1999 • Elected member (ledamot), Royal Society of Sciences, Uppsala
• Chairman and founder of Olligon AB in 2000, a food biotech company that developed new
fermented vegetable food using the filamentous fungus Rhizopus oligosporus. Olligon AB was
bought by CerealiaFoods,
• Board member of Micafun AB, that aims at commercialising innovations for biocontrol of fungi
through license agreements with ”agrobiotech” companies.
• Member of the advisory scientific committee for Agrivir AB, biotech company working with
purification and structural elucidation of novel antifungal microbial metabolites for potential use
in agriculture, human/veterinary medicine (2000-2003)
• Board member of SLU Holding AB, that aims to commercialise innovations from SLU (2004)
• Three licensed patents: “Storage of moist grain”, licensed to BioAgri AB; ”Fermentation of
cereal grain “, sold to Cerealia Foods; “Antifungal applications of lactic acid bacteria”, licensed
to Medipharm AB. One patent pending: “Novel microorganisms for biofuel production”
• Invited speaker at more than 30 international symposia in Australia, Holland, UK, Japan,
Ukraine, Mexico, Slovenia, Hungary, Belgium, Denmark, US, Spain, France, Brazil, Italy and
Finland
• One of 18 specialist members of the International Commission on Food Mycology (ICFM), a
commission under the International Union of Microbiological societies (IUMS).
• Editorial board member: FEMS Microbiology Ecology(-2005) FEMSYeast Research(2006-)
• PhD thesis examiner (international): Denmark (3), Ireland, UK, Australia, Finland
• Present major grants as principal investigator from FORMAS (1.2 MSEK/yr for two PhDgrants), Mistra (1.7 MSEK/yr during 2004-2007 for Biopreservation of feed, MASE), Mistra
(64 MSEK during 2003-2010 for ”Domestication of Microorganism”) and various funding of
4.5 MSEK/year during 2007 -2012 (SLF, Industry forMicroDrivE).
11. Publications (peer reviewed) 2000-2009
55 publications, in total 95 primary publications and reviews (refereed), 9 book chapters/conference
proceedings since first publication 1981.
Total number of citations (Nov 2008): 2 090 citations. H-index: 24
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Publications, Johan Schnürer
(The total production is about 95 primary publications and reviews (refereed), and 9 book
chapters/conference proceedings since the first publication in 1981)
50. Passoth, V, Eriksson, A, Sandgren, M, Ståhlberg, J, Piens, K and Schnürer, J. Airtight storage of
moist wheat grain increase ethanol yields. Submitted to Biotechnology for Biofuels.
49. Olstorpe, M, Schnürer, J and Passoth, V. Screening of yeast strains for phytase activity. FEMS
Yeast Research (In press)
48. Schoug, Å, Fischer, J, Heipieper, HJ, Schnürer, J and Håkansson, S. 2008. Impact of fermentation
pH and temperature on freeze-drying survival and membrane lipid composition of Lactobacillus
coryniformis Si3. Journal of Industrial Microbiology and Biotechnology. 35:175-181.
47. Leong, Su-Lin, Schnürer, J and Broberg, A. 2008. Verrucine F, a quinazoline from Penicillium
verrucosum. Journal of Natural Products. 71:1455-1457
46. Olstorpe M, Lyberg, K, M, Schnürer, J, Lindberg, JE and Passoth, V. 2008. Population diversity
of yeasts and lactic acid in pig feed fermented with whey, wet wheat distillers´ grain or water at
different temperatures. Applied and Environmental Microbiology 74:1696-1703.
45. Jennessen J, Schnürer, J, Olsson, J, Samson, RA and Dijksterhuis, J. 2008. Morphological
characteristics of sporangiospores of the tempeh fungus Rhizopus oligosporus differentiates it
from other taxa of the R. microsporus group. Mycological Research 112: 547-563.
44. Lyberg, K, Olstorpe, M, Passoth, V, Schnürer, J and Lindberg, JE. 2008. Microbiological and
biochemical properties of a cereal mix fermented with whey, wet wheat distillers´ grain or water at
different temperatures. Animal Feed Science and Technology 144:137-148.
43. Broberg, A, Jacobsson, K, Ström, K, and Schnürer, J. 2007. Metabolite profiling of lactic acid
bacteria in silage. Applied and Environmental Microbiology 73:5547-5552.
42. Passoth, V, Blomqvist, J, and Schnürer, J. 2007. Dekkera bruxellensis and Lactobacillus vini form
a stable ethanol-producing consortium in a commercial alcohol process. Applied and Environmental Microbiology 73:4354-4356.
41. Melin, P, Sundh, I, Håkansson, S and Schnürer, J. 2007. Biological preservation of plant derived
animal feed with antifungal microorganisms – Safety and formulation aspects. Biotechnology
Letters 73:1008-1016
40. Lind, H., Sjögren, J., Gohil, S., Kenne, L., Schnürer, J,, and Broberg, A. (2007). Antifungal
compounds from cultures of dairy propionibacteria type strains. FEMS Microbiology Letters
271:310-315.
39. Börjesson,T, Stenberg, B and Schnürer, J. 2007. Near Infrared Spectroscopy for Estimation of
Ergosterol Content in Barley – A Comparison Between Reflectance and Transmittance
Techniques. Cereal Chemistry 84:231-23.
38. Sugunan, A, Mellin, P, Schnürer, J, Hilborn, J and Dutta, J. (2007). Nutrition-driven assembly of
colloidal nanoparticles: Growing fungi assemble gold nanoparticles as microwires. Advanced
Materials 19:77-.
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37. Feng, XM, Olsson, J, Swanberg, M, Schnürer, J and Rönnow, D (In press). Image analysis for
monitoring the barle tempeh process. Journal of Applied Microbiology 00:000-000.
36. Melin, P, Håkansson, S and Schnürer, J. 2007. Optimisation and comparison of liquid and dry
formulations of the biocontrol yeast Pichia anomala J121. Applied Microbiology and
Biotechnology 73:1008-1016.
35. Feng, X M, Larsen, T and Schnürer, J. 2007. Production of volatile compounds by Rhizopus
oligosporus during soybean and barley tempeh fermentation. International Journal of Food
Microbiology, 113:133-141.
34. Feng, X M, Passoth, V, Eklund-Jonsson, C, Alminger, M and Schnürer, J. 2007. Rhizopus oligo-
sporus and yeast co-cultivation during barley tempeh fermentation – Nutritional impact and realtime PCR quantification of fungal growth dynamics. Food Microbiology 24:393-402.
33. Melin, P, Håkansson, S, Eberhard, T and Schnürer, J. 2006. Survival of the biocontrol yeast Pichia
anomala after long-term storage in liquid formulations at different temperatures, assessed by flow
cytometry. Journal of Applied Microbiology 100:264-271.
33. Schoug, Å, Olsson, J, Carlfors, J, Schnürer, J and Håkansson, S. 2006. Freeze-drying of Lactobacillus coryniformis Si3 – effects of sucrose concentration, cell density, and freezing rate on cell
survival and thermophysical properties. Cryobiology 53:119-127.
31. Fredlund, E, Beerlage,C, Melin, M, Schnürer, J and Passoth, V. 2006. Oxygen and carbon-source
regulated expression of PDC and ADH genes in the respiratory yeast Pichia anomala. Yeast 23:1137-49.
30. Passoth, Volkmar, Fredlund, Elisabeth, Druvefors, Ulrika, and Schnürer, Johan. 2006 Biotechnology, physiology and genetics of the yeast Pichia anomala. FEMS Yeast Research 6:3-13.
29. Schnürer, A and Schnürer, J. 2006 Fungal survival during anaerobic digestion of organic
household waste. International Journal of Waste Management 26:1205-1211.
28. Melin, P, Håkansson, S, Eberhard, T and Schnürer, J. (2006). Survival of the biocontrol yeast
Pichia anomala after long-term storage in liquid formulations at different temperatures, assessed
by flow cytometry. Journal of Applied Microbiology 100:264-271.
27. Ädel Druvefors, Ulrika, Mokiou, Stella, Magan, Naresh, Hökeberg, Margareta, Jonsson, Nils, and
Schnürer, Johan (In press). Biocontrol potential of dry formulated and freshly harvested Pichia
anomala J121 cells during long term airtight storage of wheat grain. Journal of Applied
Microbiology 00:000-000.
26. Feng, X, Eriksson, ARB and Schnürer, J. 2005. Growth of lactic acid bacteria and Rhizopus oligosporus during barley tempeh fermentation. International Journal of Food Microbiology 104:249-256.
25. Jennessen, J, Nielsen, KF, Houbraken, J, Lyhne, EK, Schnürer, J, Frisvad, JC, Samson, RA. 2005.
Secondary metabolite and mycotoxin production by the Rhizopus microsporus group. Journal of
Agricultural and Food Chemistry 53:1833-1840.
24. Ström, K, Schnürer, J and Melin, P. 2005. Co-cultivation of antifungal Lactobacillus plantarum
MiLAB 393 and Aspergillus nidulans, evaluation of effects on fungal growth and protein
expression. FEMS Microbiology Letters 246:119-124.
23. Lind, H, Jonsson, H and Schnürer, J. 2005. Antifungal activity of propionic acid bacteria –
contribution of organic acids. International Journal of Food Microbiology 98:157-165.
22. Druvefors, U.Ä, Passoth, V and Schnürer, J. 2005. Nutrient effects on biocontrol of Penicillium
roqueforti by Pichia anomala J121 during airtight storage of wheat. Applied and Environmental
Microbiology 71: 1865-1869.
21. Druvefors, U.Ä and Schnürer, J. 2005. Mold inhibitory activity of different yeast species during
airtight storage of wheat grains. FEMS YEAST RESEARCH 5:373-378.
20. Schnürer, J and Magnusson, J. 2005. Antifungal lactic acid bacteria as biopreservatives Trends in
Food Science and Technology 16:70-78 (Invited review).
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19. Fredlund, E, Blank, LM, Schnürer, J, Sauer, U, and Passoth, V. 2004. Oxygen and glucose
dependent regulation of central carbon metabolism in Pichia anomala. Applied and Environmental
18. Fredlund, E, Druvefors, U.Ä., Olstorpe Nilsson, M, Passoth, V, and Schnürer, J, 2004. Influence of
ethyl acetate production and ploidy on the anti-mould activity of Pichia anomala. FEMS
Microbiology Letters 238:133-137.
17. Melin P, Schnürer J, Wagner, EGH. 2004. Disruption of the gene encoding the V-ATPase subunit
A results in inhibition of normal growth and abolish sporulation in Aspergillus nidulans.
Microbiology -SGM 150:743-748.
16. Fredlund, E, Boysen, M, Schnürer, J, Broberg, A, and Kenne, J. 2003. Metabolite profiles of the
bio-control yeast Pichia anomala J121 grown under oxygen limitation. Applied Microbiology and
Biotechnology 64:403-409.
15. Sjögren, J, Magnusson, J, Broberg, A, Schnürer, J and Kenne, L. 2003. Antifungal 3-hydroxy fatty
acids from Lactobacillus plantarum MiLAB 14. Applied Environ. Microbiology 69:7554-7557.
14. Melin, P, Schnürer J, Wagner, EGH. 2003. Characterization of phiA, a gene essential for phialide
development in Aspergillus nidulans. Fungal Genetics and Biology. 40:234-41
12. Melin, P, Schnürer J, Wagner, EGH. 2002. Proteome analysis of Aspergillus nidulans reveals
proteins associated with the response to the antibiotic concanamycin A, produced by Streptomyces
species. Molecular Genetics and Genomics. 267: 695-702.
11. Magnusson, J, Ström, K, Sjögren J and Schnürer, J. 2003. Broad and complex antifungal activity
among environmental isolates of lactic acid bacteria. FEMS Microbiology Letters 219:129-135.
10. Druvefors, U, Jonsson, J, Boysen, M and Schnürer, J. 2002. Efficay of the biocontrol yeast Pichia
anomala during long term storage of moist feed grain under different oxygen and carbon dioxide
regimes. FEMS YEAST RESEARCH 2:398-402.
9.
Fredlund, E, Druvefors, U, Lingsten, K-J, Boysen, M and Schnürer, J. 2002. Physiological
characteristics of the non-conventional biocontrol yeast Pichia anomala J121. FEMS YEAST
RESEARCH 2:395-402.
8.
Ström, K, Sjögren, J, Broberg, A and Schnürer, J. 2002. Lactobacillus plantarum MiLAB393
produces the antifungal cyclic dipeptides cyclo(L-Phe-L-Pro) and cyclo(L-Phe-trans-4-OH-L-Pro)
and 3-phenyllactic acid. Applied and Environmental Microbiology, 68: 4322-4327.
7.
Magnusson, J, Jonsson, H, Schnürer, J and Roos, S. 2002. Weissella soli sp. nov., a lactic acid
bacterium isolated from soil. International Journal of Systematic Microbiology 52:831-834.
6.
Olsson, J, Börjesson, T and Schnürer, J. 2002. Detection of ochratoxin A and deoxynivalenol in
barley grains by GC/MS and electronic nose. International J. of Food Microbiology 72:203-214.
5.
Naumov, GI, Naumova, ES and Schnürer, J. (2001). Genetic characterization of the nonconventional yeast Hansenula anomala. Research in Microbiology. 152:551-562
4.
Magnusson, J and Schnürer, J. 2001. Lactobacillus coryniformis subsp. coryniformis strain Si3
produces a broad spectrum proteinaceous antifungal compound. Applied and Environmental
3.
Olsson, J, Börjesson, T, Lundstedt, T and Schnürer, J. 2000. Volatiles for mycological quality
grading of barley grains – determinations using gas chromatography-masspectrometry and
electronic nose. International Journal of Food Microbiology 59:167-178.
2.
Frändberg E, Petersson, C, Lundgren, L. and Schnürer J. 2000. Streptomyces halstedii produces
the antifungal bafilomycins B1 and C1. Canadian Journal of Microbiology 46:753-7
1.
Boysen, M, Jacobsson, K-G and Schnürer, J. 2000. Molecular identification of species from the
Penicillium roqueforti group associated with spoiled animal feed. Applied and Environmental
CV_Publ p46
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STandUP for Energy
CV Lennart Söder
1. Personal Details
Born: November 9, 1956 in Solna, Sweden.
2. Academic Degree
- Master of Science Electrical Engineering, KTH, September 1982
- Licentiate degree, KTH, 1986
- PhD, KTH, 1988
3. Career
- Current position: Professor in Electric Power Systems, KTH, Stockholm, Sweden. Head of the
division of Electric Power Systems.
- Docent at KTH, from May 24 1996
- University Lecturer at KTH, 1988-1999
- PhD student at KTH, 1982-1988
Board Memberships
-
Board of School of Electrical Engineering, KTH, 2009Member of Cigre Swedish National Committee, 2008Member in Sida’s Council for Development Research, 2006Board of Competence Center of Electric Power Systems, KTH, 2006Steering board of the university research program ELEKTRA, sponsored by Elforsk, ABB and the
Swedish National Energy Administration: 2000-2005
Member of the steering board of the research program VINDFORSK, sponsored by the Swedish
National Energy Administration: 2002-2004
Member of the board of the Nordic Energy Research Program – Technical Systems in a liberalized
market: 2001-2003
Editorial Board Memberships
-
Second Editor for Encyclopedia of Sustainability Science and Technology, 2009
Swedish expert in the Danish research project “Flexible electric energy production” conducted by
Risö National Laboratory, 2005-2007
Participant in the reference group for a national committee concerning treatment of bottlenecks,
“STEM:s flaskhalsprojekt”: 2004
Participant in the national committee concerning how to obtain enough capacity in the Swedish
power market “Effektbalansutredningen”: 2001-2002
Project leader within the Centre of excellence in electric power engineering for the project New
Electric Energy Systems: 1996-2000
Member of IEEE, 1992
CV_Publ p47
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STandUP for Energy
Graduate Supervision (supervised PhD projects, title shows thesis, year of thesis)
Dr Olof Nilsson – Vattenfall AB (1997)
Dr Erik Thunberg – Svenska Kraftnät (2001)
Lic Anders Nilsberth – Fortum (1999)
DrYing He – Vattenfall (2002)
Lic Magnus Öhrström – ABB (2003)
Lic Paulo Fischer de Toledo – ABB (2003)
Dr Julija Matevosyan – PB Power (2006)
Dr Thomas Ackermann – Energynautics (2004)
Lic Magnus Lommerdal – Vattenfall (2004)
Lic Torbjörn Solver – Energia (2005)
Dr Mikael Amelin – KTH (2004)
Lic Anders Wikström – Ericsson (2001)
Dr Valery Knazkins – KTH (2004)
Dr Jonas Persson – Vattenfall (2006)
Lic Magnus Olsson – KTH (2005)
Lic Elin Broström – Svenska Kraftnät (2007)
Dr Daniel Salomonsson – Vattenfall (2008)
Lic Hector Latorre – KTH (2008)
Lic Lars Abrahamsson – KTH (2008)
Lic Robert Eriksson – KTH (2008)
Lic Karin Alvehag – KTH (2008)
Currently I supervise 6 PhD students out of the above noted projects, who continue for a PhD. In
addition to this I supervise 4 other PhD students who have not published any thesis yet.
-
-
Responsible Investigator for the Swedish Government concerning the “Grid Connection Inquiry”,
SOU-2008:13, 2007-2008
Investigator, together with PB Power, for the European Commission Directorate-general for
Energy and Transport concerning “Study on the technical security rules of the European
Electricity Network”, 2006
the Gunnar Engström award, 1988
Published educational material:
-
Compendium in “Static Analysis of Power Systems”, 171 pages, last edition 2008
Compendium in “Efficient Operation and Planning of Power Systems”(together with Dr Mikael
Amelin), 222 pages, last edition 2008
Compendium in “Analysis of Electricity Markets”, 118 pages, last edition 2009
Received external research funding:
-
2001: In total 6.5 MSEK (Elforsk, Energimyndigheten, Vetenskapsrådet, ABB, Nordisk
energiforskning)
energiforskning)
energiforskning, EU, EPRI)
energiforskning, EU, Krisberedskapsmyndigheten, Svenska Kraftnät, SIDA)
energiforskning, EU, Krisberedskapsmyndigheten, Svenska Kraftnät, SIDA, Banverket)
2006: In total 6.6 MSEK (Elforsk, Energimyndigheten, Vetenskapsrådet, ABB, EU,
Krisberedskapsmyndigheten, Svenska Kraftnät, SIDA, Banverket)
2007: In total 6.2 MSEK (Elforsk, Energimyndigheten, ABB, EU, Krisberedskapsmyndigheten,
Svenska Kraftnät, SIDA, Banverket)
CV_Publ p48
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STandUP for Energy
Publications, Lennart Söder
Details of articles available from
http://www.kth.se/ees/forskning/publikationer?l=sv_SE
Article in Journal
1. Söder L, Reichelt D, Höckel M, Bakirtzis A, Banales S, Charousset S, Mo B, Jhutti A, Rincon
J, Strindbaek U, "Portfolio and risk management for Power Producers and traders in an open
market", CIGRE Task force 38.05.12, summary published in ELCTRA, (no. 199,), (dec) 2001
2. Ackermann T, Andersson G, Söder L, "Distributed generation: A defenition", Electric Power
System Research pp. 195-204, (aug) 2001
3. Hector Latorre , Mehrdad Ghandhari , Lennart Söder, "Active and Reactive Power Control of
a VSC-HVdc", Electric Power Systems Research, vol. 78 pp. 1756-1763, (oct) 2008
4. Lennart Söder, Lutz Hofmann, Antje Orths, Hannele Holttinin, Yih-huei Wan, Aidan Tuohy,
"Experience From Wind Integration in Some High Penetration Areas", IEEE Transactions on
energy conversion, vol. 22, (no. 1,), (mar) 2007
5. Thunberg E, Söder L, "A norton approach to distribution network modelling for harmonic
studies", IEEE Transactions on Power Delivery, (no. 1,) pp. 272-266, (jan) 1999
6. Magnus Olsson, Magnus Perninge, Lennart Söder, "Simulation of real-time balancing
demands in power systems with wind power", IEEE Transactions on Power Systems, (dec)
2008, submitted
7. Magnus Olsson, Lennart Söder, "Modeling real-time balancing power market prices using
combined SARIMA and Markov processes", IEEE Transactions on Power Systems, vol. 23
pp. 443-450, (may) 2008
8. Julija Matevosyan, Lennart Söder, "Minimization of imbalance costs trading wind power on
the short-term power market", IEEE Transactions on Power Systems, (no. 3,) pp. 1396-1404,
(aug) 2006
9. Lennart Söder, Hannele Holttinen, "On methodology for modelling wind power impact on
power systems", International Journal of Global Energy Issues, vol. 29, (no. 1-2,) pp. 181198, (feb) 2008
10. Söder L, "Wind power system", published in Encyclopedia of Physical Science and
Technology, (aug) 2001
11. Lennart Söder, "On limits for Wind Power Generation", Published in International Journal of
Global Energy Issues, (no. 3,) pp. 243-254, (mar) 2004
12. Thomas Ackermann, Lennart Söder, "An Overview of Wind Energy - Status
2002", Renewable and Sustainable Energy Reviews (Elsevier), (no. 6,) pp. 67-128, (jun) 2002
CV_Publ p49
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STandUP for Energy
13. Ackermann T, Söder L, "Wind energy technology and current status - a review", Renewable
and Sustainable energy reviews, Pergamon 4(2000) pp. 315-374, (apr) 2000
14. Ackermann T, Andersson G, Söder L, "Overview of government and market driven programs
for the promotion o renewable power generation", Renewable Energy 22(2001), Elsevier
Science Ltd pp. 197-204, (apr) 2000
15. Julija Matevosyan Lennart Söder, "Short-term hydropower planning coordinated with wind
power in areas with congestion problems", Wiley Wind Energy, vol. 10 pp. 195-208, (may)
2007
16. Elin Lindgren, Lennart Söder, "Minimizing Regulation Costs in Multi-area Systems with
Uncertain Wind Power Forecasts", Wind Energy - Wiley Interscience, (no. 11,) pp. 97-108,
(nov) 2007
Book
17. Thomas Ackermann, Eva Centeno-Lopez, Lennart Söder, Grid Issues for Electricity
Production Based on Renewable Energy Sources in Spain, Portugal, Germany, and United
KingdomFritzes - Statens offentliga utredningar, 2008, Appendix to SOU 2008:13
18. Lennart Söder, Annika Atterwall, Susann Persson, Bättre kontakt via nätet - om anslutning av
förnybar elproduktionFritzes - Statens offentliga utredningar, 2008, SOU 2008:13
Article in book/collection
19. Lennart Söder, Thomas Ackermann, Wind Power in Power Systems: an Introduction, "Wind
Power in Power Systems: an Introduction," Wind Power in Power Systems, (pp. 25-52,) John
Wiley & Sons, Ltd, 2005
20. Lennart Söder, The Value of Wind Power, "The Value of Wind Power," Wind Power in
Power Systems, (pp. 169-195,) John Wiley & Sons, Ltd, 2005
In Proceedings
21. Söder L, "Wind energy impact on the energy reliability of a hydro-thermal power system in a
deregulated market", 13th PSCC, Trondheim, Norway, 1999
22. Söder L, "The value of wind power for an owner of a local distribution network", 15th
International Conference on Electricity Distribution, CIRED, Nice, France, 1999
23. Lennart Söder, "Modelling Approach impact on estimation of integration cost of wind
power", 7th IAEE, Bergen, Norway, 2005
24. Ackermann T, Andersson G, Söder L, "Electricity market regulations and their impact on
distributed generation", DRPT 2000, City University London, UK, pp. 608-613, 2000
25. Magnus Lommerdal, Lennart Söder, "Combination of Two Methods for congestion
Management", DRPT 2004, Hong Kong, 2004
26. Sveca J, Söder L, "Wind Power Integration in Areas with Congestion Problems and Storage
Capabilities", European Wind Energy Conference, Madrid, Spain, 2003
CV_Publ p50
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27. Lennart Söder, Peter Meibom, Hans Ravn, Weber Christoph, "Market Integration of wind
power", EWEC, London UK, 2004
28. Elin Lindgren, Lennart Söder, "Wind Power Impact on Costs for Regulating Power in MultiArea Markets", Fifth International Workshop on Large-Scale Integration of Wind Power and
Transmission Networks for Offshore Wind Farms, Glasgow, Scotland, 2005
29. Matevosyan J, Söder L, "Evaluation of Wind Energy Storage in Hydro Reservoirs in Areas
with Limited Transmission Capacity", Fourth International Workshop on Large-Scale
Integration of Wind Power and Transmission Network for Offshore Wind Farms, Billund,
Denmark, 2003
30. Olsson M, Söder L, "Hydropower Planning including Trade-off between Energy and Reserve
Markets", IEEE Bologna Power Tech 2003, Bologna Italy, 2003
31. Knyazkin V, Söder L, Canizares C, "Control Challenges of Fuel Cell Driven Distributed
Generation", IEEE Bologna Power Tech, Bologna Italy, 2003
32. Sveca J, Söder L, "Wind Power Integration in Power Systems with Bottleneck
Problems", IEEE Bologna Power Tech, Bologna Italy, 2003
33. Hector Latorre, Mehrdad Ghandhari, Lennart Söder, "Control of a VSC-HVdc Operating in
Parallel with AC Transmission Lines", IEEE PES T&D C&E, 2006
34. Persson J, Söder L, "Linear Analysis of a Two-Area System including a Linear Model of a
Thyrostor-Controlled Series Capacitor", IEEE Porto Power Tech Conference 200, Porto,
Portugal, pp. 289, 2001
35. Mikael Amelin, Lennart Söder, "On Monte Carlo Simulation of Electricity Markets with
Uncertainties and Load Forecasts", IEEE Porto Power Tech Proceedings, Porto, Portugal,
2001
36. Julija Matevosyan, Lennart Söder, "Minimisation of Imbalance Costs Trading Wind Power on
the short Term Power Market", IEEE Power Tech, St. Petersburg, Russia, 2005
37. Ackermann T, Söder L, "Impact of Electricity Market Regulation on the Development of
Distributed Power Generation", ISES 2001 Solar World Congress, Adelaide, Australia, 2001
38. Mikael Amelin, Lennart Söder, "A fast multi-area economic hydro-thermal power system
model", NAPS, 1999
39. Julija Matevosyan, Thomas Ackermann, Sigrid Bolik Sigrid, Lennart Söder, "Comparison of
International Regulations for Connection of Wind Turbines to the Network", Nordic Wind
Power Conference, Gotheburg, 2004
40. Söder L, "The operation value of wind power in the deregulated Swedish market", NWPC
2000, Trondheim, Norway, 2000
41. Mikael Amelin, Lennart Söder, "The Strata Tree: A Useful Tool for Simulation of Electricity
Markets", PMAPS 2002, Naples, Italy, 2002
42. Lennart Söder, Mikael Amelin, "A review of different methodologies used for calculation of
wind power capacity credit", Power and Energy Society General Meeting - Conversion and
Delivery of Electrical Energy in the 21st Century, 2008 IEEE 20-24 July 2008, pp. 1-5, 2008,
Presented
43. Elin Lindgren, Lennart Söder, "Minimizing Regulation Costs In Multi-Area Markets", Power
Systems Computation Conference PSCC'05, Liège, Belgium, 2005
CV_Publ p51
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STandUP for Energy
44. Robert Eriksson, Valerijs Knazkins, Lennart Söder, "On the assessment of the impact of a
conventional HVDC on a test power system", Presented at IREP 2007 symposium, 2007,
45. Valerijs Knazkins, Lennart Söder, Claudio Canizares, "Control challenges of fuel cell-driven
distributed generation", Proceedings of 2003 IEEE Bologna Power Tech Conference, 2003
46. Magnus Olsson, Lennart Söder, "Estimating real-time balancing prices in wind power
systems", Proceedings of 2009 Power Systems Conference & Exposition, 2008, To appear
47. Julija Matevosyan Magnus Olsson Lennart Söder, "Short-term hydropower planning
coordinated with wind power in areas with congestion problems", Proceedings of 6th
International Workshop on Large-Scale Integration of Wind Power and Transmission
Network for Offshore Wind Farms, 2006
48. Julija Matevosyan, Lennart Söder, "Optimal daily planning for hydro power system
coordinated with wind power in areas with limited export capability", Proceedings
Probabilistic Methods Applied to Power Systems Conference, 2006
49. Lennart Söder, Jonas Rendelius, "Two-Station equivalent of hydro power systems", PSCC
2005, Liège, Belgium, 2005
50. Magnus Olsson, Lennart Söder, "Optimal regulating market bidding strategies in hydropower
systems", PSCC 2005, Liège, Belgium, 2005
CV_Publ p52
4 (4)
STandUP for Energy
CV Mikael Östling
1. Personal Details
Born:
August 26, 1955, Sundsvall, Sweden
Phone:
+4618320092 (home), +4687904301 (office), +46705658007 (mobile)
Email:
[email protected]
2. Academic Degree
1987
Docent, (Assoc. prof degree), KTH, Stockholm
1983
Doctor of Technology, Electronics, Uppsala University, Dept of Technology
1980
Master of Science, Engineering Physics, Uppsala University; Dept of Technology
3. Career
2004/12 2001 - 2004
2000-2001
1996 1995 - 2000
1990 - 1995
1983 - 1996
Dean KTH, School of Information and Communication
Head of Department, KTH, Dept of Microelectronics and IT
Head of Department, KTH, Department of Electronics
Professor, KTH, Department of Electronics
Head of graduate studies, KTH, Department of Electronics
Head of undergraduate studies, KTH, Department of Electronics
Researcher, Assistant professor and Associate professor, KTH, Dept. of Solid State Electronics
Board Memberships
-
SINANO Institute (EU-institute) Elected Board Member 2008ENIAC, Swedish rep. in the EU ENIAC Scientific Community Committee Management Team
Member 2006ANNA, EU FP6 Scientific Advisory Board Member “European Integrated Activity of Excellence
and Networking for Nano and Micro- Electronics Analysis” 2007Chair, Section D: Electronics and Photonics Section, Swedish National Committee for Radio
Sciences, Royal Swedish Academy of Sciences, 2003 –
Chair, Sveriges Elektro- och Dataingenjörers Riksförening, 2005-2007, Board Member since 2003.
Co-founder and Board Member, TranSiC AB 2005Board Member, Sweden ICT Research Institute AB, 2005-07
Board Member, Swedish national program “Thin film Technology Program”(SSF) 2000-2005
AdCom Elected Member, IEEE Electron Devices Society, 1999- 2005
Chair (founding), IEEE Sweden Electron Devices Chapter1995- Editorial Board Memberships
Society Memberships
IEEE since 1985 (Fellow 2004), American Vacuum Society 1985, Electrochemical Society 1984- ,
Rotary International Stockholm-Kista 2005Editorial Board Memberships
2005- Editor IEEE Electron Device Letters (impact factor 2.9)
2004 Guest Editor IEEE Trans. Electron Devices, special issue on Rf Applications
2001 Guest editor, Applied surface science, Proceedings of the 5th European
Workshop Materials for Advanced Metallization
1996-2002
Editor, IEEE Electron Devices Society Newsletter
1991 Guest editor, Applied surface science
CV_Publ p53
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STandUP for Energy
Committee Memberships (past 10 years)
-
Device Research Conference (DRC), member of the technical program committee, 2009ESSDERC (European Solid State Devices Conference), Technical Program Committee, 1997present, sub-committee chair 2005, 06, 07, 08,
International Symposium on Device Research (ISDRS), European Chair, 2003IEEE IEEE Bipolar/BiCMOS Circuits and Technology Meeting (BCTM), Executive committee
member and Chair and co-chair short course 2002- 2003
European Workshop on Materials for advanced Metallization (MAM), Co-Chairman, 2001
European Solid State Circuits Conference (ESSCIRC 2000), Co-Chairman,
Member, IEEE Graduate Student Fellowship Committee, 2001-2003
Int. Conference on Microelectronics (MIEL), program committee 1999GigaHertz ´97, General Chairman,
IEEE EDS Power Devices & Integrated Circuits Committee 1999- present
IEEE EDS TCAD Technical Committee 2000- 2004
IEEE EDS Membership Committee 1999- 2007
Program Director
SSF Nanoelectronic MOSFET program 2006-2007
SSF High Frequency Silicon Program 2000-2005
VINNOVA HF Bipolar program 1994-1999
Co-ordinator of EU Projects
FP7 NANOSIL NoE, WP leader 2008FP6 SINANO NoE, WP leader KTH, 2004-2006
FP5 SIGMOS, WP leader KTH, 2000-2002
MEDEA/MEDEA+, Project leader KTH for 3 project 1996-2000
Östling has been the principal- /co-advisor for 26 PhD students in total.
During the past 5 years the following students have been supervised.
Name
PhD exam
Present affilifation
Erik Haralson
2004
Intel, Hillsborough, USA
Wei Liu
2004
Ericsson Kista,
Christian Isheden
2005
AMD, Dresden, Germany
Martin von Haartman
2006
Intel, Hillsborough
Zhen Zhang
2008
IBM Watson Research, New York
Hyung-Seok Lee
2008
Post-doc, MIT
Current PhD students
Planned exam
Patrik Möller
2011
Industry PhD in own startup
Jun Luo
2011
Reza Gandhi
2011
Muhammad Reza
2011
Stanley Wissmar
2012
Industry PhD Student, ACREO
Fellow IEEE 2004. Distinguished Lecturer, IEEE Electron Devices Society 1997Senior Research Scholar, J. William Fulbright Scholarship, 1993-94. Alm Scholarship 1991 and 1993, KTH
2005 Co-founded the company TranSiC AB, (presently 10 employees)
2002- Member of the advisory board, Stockholm Innovation and Growth
2006- Board member of the Electrum Foundation for the ICT development in Stockholm
2007- Boardmember of KTH Education AB, (KTHs company for continuing education)
2004- PhD student advisor for Patrik Möller in his startup company Replisaurus
1995- Founder of CM Integrated Knowledge AB, Own Consultancy company
CV_Publ p54
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STandUP for Energy
Publications, Mikael Östling
Selected over the past 6 years in higher profile journals and a few top conferences from a
total list of 380+-publications. NB -The following list is not optimized for highest citation
record since it is showing the most recent publications.
A Hirch index compilation yielded 20 in early 2008, a total of >1700 citations was found in ISI.
[1]
H.-S. Lee, M. Domeij, C.-M. Zetterling, M. Östling, A. F., and S. E., "Surface passivation
oxide effects on the current gain of 4H-SiC Bipolar Junction Transistors, Applied Physics
Letters, vol. 92, 2008.
[2]
Z. Qiu, Z. Zhang, M. Östling, and S.-L. Zhang, "A comparative study of two different
schemes to dopant segregation at NiSi/Si and PtSi/Si interfaces for Schottky barrier height
lowering," IEEE Transactions on Electron Devices, vol. 55, pp. 396-403, 2008.
[3]
Z. Zhang, Z. Qiu, P.-E. Hellstrom, G. Malm, J. Olsson, J. Lu, M. Östling, and S.-L. Zhang,
"SB-MOSFETs in UTB-SOI featuring PtSi source/drain with dopant segregation," IEEE
Electron Device Letters, vol. 29, pp. 125 - 127, 2008.
[4]
Z. Zhang, Z. Qiu, P.-E. Hellstrom, M. Östling, and S.-L. Zhang, "Origin of performance
fluctuation of FinFETs with Schottky barrier source/drain, IEEE Electron Device Letters,
2008.
[5]
A. Berrier, M. Mulot, G. Malm, M. Östling, and S. Anand, "Carrier transport through a dryetched InP-based two-dimensional photonic crystal," Journal of Applied Physics, vol. 101, pp.
123101, 2007.
[6]
H.-S. Lee, M. Domeij, C.-M. Zetterling, M. Östling, A. F., and S. E., "1200 V, 5.2mohmcm2
4H-SiC BJTs with a high common emitter current gain," IEEE Electron Device Letters, 2007.
[7]
H.-S. Lee, M. Domeij, C.-M. Zetterling, M. Östling, and Sveinbjornsson.E.O, "A comparative
study of surface passivation on SiC BJTs with high current gain," Materials Science Forum,
vol. 556-557, pp. 631-634, 2007.
[8]
M. Östling, B. G. Malm, M. Von Haartman, J. Hallstedt, Z. Zhang, P.-E. Hellstrom, and S.
Zhang, "Challenges for 10 nm MOSFET process integration," Journal of Telecommunications
and Information Technology, pp. 25-32, 2007.
[9]
M. von Haartman and M. Östling, Text book "Low-Frequency Noise in Advanced MOS
devices," in Low-Frequency Noise in Advanced MOS devices: Springer, 2007.
[10]
M. von Haartman, B. G. Malm, P.-E. Hellstrom, M. Östling, T. J. Grasby, T. E. Whall, E. H.
C. Parker, K. Lyutovich, M. Oehme, and E. Kasper, "Impact of strain and channel orientation
on the low-frequency noise performance of Si n- and pMOSFETs," Solid-State Electronics,
vol. 51, pp. 771-777, 2007.
[11]
M. Von Haartman and M. Östling, "Effect of channel positioning on the 1/f noise in siliconon-insulator metal-oxide-semiconductor field-effect transistors," Journal of Applied Physics,
vol. 101, pp. 034506, 2007.
CV_Publ p55
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STandUP for Energy
[12]
Z. Zhang, Z. Qiu, R. Liu, M. Östling, and S.-L. Zhang, "Schottky-barrier height tuning by
means of ion implantation into preformed silicide films followed by drive-in anneal," IEEE
Electron Device Letters, vol. 28, pp. 565-568, 2007.
[13]
M. Domeij, H.-S. Lee, C.-M. Zetterling, M. Östling, and S. A, "High Current Gain Silicon
Carbide bipolar Power Transistors, ISPSD" Proceedings of 18th International Symposium on
Power Semiconductor Devices and IC's, pp. 141-144, 2006.
[14]
M. Domeij, H.-S. Lee, C.-M. Zetterling, M. Östling, and A. Schoner, "Current gain
dependence on emitter width in 4H-SiC BJTs," Materials Science Forum, vol. 527-529, pp.
1425-1428, 2006.
[15]
J. Hallstedt, P.-E. Hellstrom, Z. Zhang, B. G. Malm, J. Edholm, J. Lu, S.-L. Zhang, H. H.
Radamson, and M. Östling, "A robust spacer gate process for deca-nanometer high-frequency
MOSFETs," Microelectronic Engineering, vol. 83, pp. 434-439, 2006.
[16]
J. Hallstedt, M. von Haartman, P.-E. Hellstrom, M. Östling, and H. H. Radamsson, "Hole
mobility in ultrathin body SOI pMOSFETs with SiGe or SiGeC channels," IEEE Electron
Device Letters, vol. 27, pp. 466-468, 2006.
[17]
T. Johansson, B. G. Malm, H. Norstrom, U. Smith, and M. Östling, "Influence of SOIgenerated stress on BiCMOS performance," Solid-State Electronics, vol. 50, pp. 935-942,
2006.
[18]
H.-S. Lee, M. Domeij, C.-M. Zetterling, M. Östling, and J. Lu, "Investigation of TiW contacts
to 4H-SiC bipolar junction devices," Materials Science Forum, vol. 527-529, pp. 887-90,
2006.
[19]
G. Malm, J. Grahn, and M. Östling, "Bipolar Technology," in The VLSI Handbook: Taylor &
Francis Group, 2006, pp. 1.3-1.25.
[20]
S. H. Olsen, E. Escobedo-Cousin, J. B. Varzgar, R. Agaiby, J. Seger, P. Dobrosz, S.
Chattopadhyay, S. J. Bull, A. G. O'Neill, P.-E. Hellstrom, J. Edholm, M. Östling, K. L.
Lyutovich, M. Oehme, and E. Kasper, "Control of self-heating in thin virtual substrate
strained Si MOSFETs," IEEE Transactions on Electron Devices, vol. 53, pp. 2296-2305,
2006.
[21]
M. Östling, B. G. Malm, M. Von Haartman, J. Hallstedt, P.-E. Hellstrom, and S. Zhang,
"Critical technology issues for deca-nanometer MOSFETs," presented at ICSICT-2006: 2006
8th International Conference on Solid-State and Integrated Circuit Technology, Shanghai,
China, 2006.
[22]
M. von Haartman, B. G. Malm, and M. Östling, "Comprehensive study on low-frequency
noise and mobility in Si and SiGe pMOSFETs with high-κ gate dielectrics and TiN
gate," IEEE Transactions on Electron Devices, vol. 53, pp. 836-43, 2006.
[23]
Y.-B. Wang, Y. Assefaw-Redda, M. Gabig-Ciminska, S.-O. Enfors, M. Östling, and S.-L.
Zhang, "A novel dual mode capacitor biosensor for real-time, label-free DNA detection,"
presented at 2006 IEDM “International Electron Devices Meeting, 11-13 Dec. 2006, San
Francisco, CA, USA, 2006.
[24]
Z. Zhang, P.-E. Hellstrom, J. Lu, M. Östling, and S.-L. Zhang, "A novel self-aligned process
for platinum silicide nanowires," Microelectronic Engineering, vol. 83, pp. 2107-2111, 2006.
[25]
Z. Zhang, P.-E. Hellstrom, M. Östling, S.-L. Zhang, and J. Lu, "Electrically robust ultralong
nanowires of NiSi, Ni2Si, and Ni31Si12," Applied
Physics Letters, vol. 88, p. 43104, 2006.
CV_Publ p56
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STandUP for Energy
[26]
Z. Zhang, J. Lu, P.-E. Hellstrom, M. Östling, and S.-L. Zhang, "Ni2Si nanowires
of extraordinarily low resistivity," Applied Physics Letters, vol. 88, p. 213103-1, 2006.
[27]
Z. Zhang, S.-L. Zhang, M. Östling, and J. Lu, "Robust, scalable self-aligned platinum silicide
process," Applied Physics Letters, vol. 88, p. 142114, 2006.
[28]
M. Östling, S.-M. Koo, M. Domeij, E. Danielsson, and C.-M. Zetterling, "SiC Device
Technologies," in Encyclopedia of RF and Microwave Engineering: John Wiley & Sons, Inc.,
2005, pp. 4613-4619.
[29]
M. Domeij, H.-S. Lee, E. Danielsson, C.-M. Zetterling, M. Östling, and A. Schoner,
"Geometrical effects in high current gain 1100-V 4H-SiC BJTs," IEEE Electron Device
Letters, vol. 26, pp. 743-745, 2005.
[30]
M. v. Haartman, B. Gunnar Malm, P.-E. Hellstrom, and M. Östling, "Noise in Si-based
MOSFETs with High-k Gate Dielectrics," 18th International Conference on Noise in Physical
Systems and 1/f Fluctuations, Salamanca, Spain, 19-23 Sept., 2005.
[31]
J. Hallstedt, A. Parent, M. Östling, and H. H. Radamson, "Incorporation of boron in SiGe(C)
epitaxial layers grown by reduced pressure chemical vapor deposition," Materials Science in
Semiconductor Processing, vol. 8, pp. 97-101, 2005.
[32]
E. Haralson, E. Suvar, B. Gunnar Malm, H. Radamson, Y.-B. Wang, and M. Östling, "NiSi
integration in a non-selective base SiGeC HBT process," Materials Science in Semiconductor
Processing, vol. 8, pp. 245-248, 2005.
[33]
H.-S. Lee, M. Domeij, E. Danielsson, C.-M. Zetterling, and M. Östling, "Electrical
Characteristics of 4H-SiC BJTs at Elevated Temperatures," Materials Science Forum, vol.
483-485, pp. 897-900, 2005.
[34]
B. G. Malm and M. Östling, "Network Analyzer Measurements and Physically Based
Analysis of Amplitude and Phase Distortion in SiGeC HBTs," International Solid State
Device Research Symposium, Bethesda, MD, USA, 2005.
[35]
B. G. Malm, E. Haralson, T. Johansson, and M. Östling, "Self-heating effects in a BiCMOS
on SOI technology for RFIC applications," IEEE Transactions on Electron Devices, vol. 52,
pp. 1423-1428, 2005.
[36]
B. G. Malm, E. Haralson, E. Suvar, H. H. Radamson, Y.-B. Wang, and M. Östling, "Base
resistance scaling for SiGeC HBTs with a fully nickel-silicided extrinsic base," IEEE Electron
Device Letters, vol. 26, pp. 246-248, 2005.
[37]
M. Östling, B. G. Malm, P.-E. Hellstrom, H. H. Radamson, C. Isheden, J. Seger, M. Von
Haartman, and S.-L. Zhang, "Novel integration concepts for sige-based rf-MOSFETs,"
presented at 207th ECS Meeting, Quebec, Canada, 2005.
[38]
J. Seger, P.-E. Hellstrom, J. Lu, B. G. Malm, M. von Haartman, M. Östling, and S.-L. Zhang,
"Lateral encroachment of Ni-silicides in the source/drain regions on ultrathin silicon-oninsulator," Applied Physics Letters, vol. 86, p. 253507-1, 2005.
[39]
M. Von Haartman, J. Westlinder, D. Wu, B. G. Malm, P.-E. Hellstrom, J. Olsson, and M.
Östling, "Low-frequency noise and Coulomb scattering in Si0.8Ge
0.2 surface channel pMOSFETs with ALD Al2O3
gate dielectrics," Solid-State Electronics, vol. 49, pp. 907-914, 2005.
[40]
D. Wu, J. Lu, E. Vainonen-Ahlgren, E. Tois, M. Tuominen, M. Östling, and S.-L. Zhang,
"Structural and electrical characterization of Al/sub 2/O/sub 3//HfO/sub 2//Al/sub 2/O/sub
3/on strained SiGe," Solid-State Electronics, vol. 49, pp. 193-197, 2005.
CV_Publ p57
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STandUP for Energy
[41]
D. Wu, M. Von Haartman, J. Seger, E. Tois, M. Tuominen, P.-E. Hellstrom, M. Östling, and
S.-L. Zhang, "Ni-salicided CMOS with a poly-SiGe/Al2O3/HfO
2/Al2O3 gate stack," Microelectronic Engineering,
vol. 77, pp. 36-41, 2005.
[42]
E. Haralson, B. G. Malm, T. Johansson, and M. Östling, "Influence of self heating in a
BiCMOS on SOI technology," presented at Proceedings of the 34th European Solid-State
Device Research Conference, Leuven, Belgium, 2004.
[43]
E. Haralson, E. Suvar, G. Malm, H. Radamson, Y.-B. Wang, and M. Östling, "The effect of C
on emitter-base design for a single-polysilicon SiGe:C HBT with an IDP emitter," Applied
Surface Science, vol. 224, pp. 330-335, 2004.
[44]
C. Isheden, P.-E. Hellstrom, H. H. Radamson, S.-L. Zhang, and M. Östling, "MOSFETs with
recessed SiGe source/drain junctions formed by selective etching and growth,"
Electrochemical and Solid-State Letters, vol. 7, pp. 53-55, 2004.
[45]
C. Isheden, H. H. Radamson, E. Suvar, P.-E. Hellstrom, and M. Östling, "Formation of
shallow junctions by HCl-based Si etch followed by selective epitaxy of B-doped Si/sub 1x/Ge/sub x/ in RPCVD," Journal of the Electrochemical Society, vol. 151, pp. 365-368, 2004.
[46]
S. Persson, D. Wu, P.-E. Hellstrom, S.-L. Zhang, and M. Östling, "Quantifying hole mobility
degradation in pMOSFETs with a strained-Si0.7Ge0.3 surface-channel under an ALD
TiN/Al2O3/HfAlOx/Al2O3 gate stack," Solid-State Electronics, vol. 48, pp. 721-729, 2004.
[47]
M. von Haartman, D. Wu, B. G. Malm, P.-E. Hellstrom, S.-L. Zhang, and M. Östling, "Lowfrequency noise in Si/sub 0.7/Ge/sub 0.3/ surface channel pMOSFETs with ALD HfO/sub
2//Al/sub 2/O/sub 3/ gate dielectrics," Solid-State Electronics, vol. 48, pp. 2271-2275, 2004.
[48]
D. Wu, J. Lu, P.-E. Hellstrom, M. Östling, and S.-L. Zhang, "Notched-Gate pMOSFET with
ALD TiN/High-κ gate stack formed by selective wet etching," Electrochemical and
Solid-State Letters, vol. 7, pp. 228-230, 2004.
[49]
D. Wu, J. Lu, H. Radamson, P.-E. Hellstrom, S.-L. Zhang, M. Östling, E. Vainonen-Ahlgren,
E. Tois, and M. Tuominen, "Influence of surface treatment prior to ALD high- kappa
dielectrics on the performance of SiGe surface-channel pMOSFETs," IEEE Electron Device
Letters, vol. 25, pp. 289-291, 2004.
[50]
S.-M. Koo, C.-M. Zetterling, M. Östling, S. I. Khartsev, and A. M. Grishin, "Multifunction
Integration of Junction-MOSFETs and Nonvolatile FETs on a Single 4H-SiC Substrate for
300oC Operation," IEDM, pp. 23.4.1-4, 2003.
CV_Publ p58
4 (4)
Expressions of support from industry
With regard to industry support, in addition to the extensive information in appendix 3
we attach as an illustration a few representative letters of support for some activities at
the formal primary applicant, Uppsala University.
STandUP for Energy - Appendix 6, Letters of Support
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