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This is SINTEF Energy Research
SINTEF Energy ResearchAnnual Report 2012
Publisher SINTEF Energy Research Phone + 47 73 59 72 00 www.sintef.no/energy
Design and production SINTEF Energy Research
Cover photo:Chief Scientist Svend Tollak Munkejord and hus colleagues provide knowledge of how different conditions influence on the behaviour of CO
2 by pipeline transport.
Photo: SINTEF / Thor Nielsen
The Institute is developing systems in the fields of power production, conversion, transmission
and distribution, and the efficient end use of energy onshore, offshore and subsea. We are working
on everything from the indoor environment and the use of energy in buildings, to gas technology,
combustion, bioenergy, CO2 capture and transport, environmental impact, refrigeration technology
and thermal food processing.
The high technical profile built up by the Institute through activities such as assisting the Norwegian
Parliament (Storting) to achieve its climate policy means that the Institute’s research community is
now at the forefront of European energy research.
By january 2013 SINTEF Energy Research had a staff of 219 and the institute have six research
departments. In cooperation with Norwegian University of Science and Technology (NTNU), we have
7000 m2 of modern laboratories available for research, developmentand education.
SINTEF Energy ResearchAnnual report 2012 - 1
Board’s Annual Report 2012
The Company is a general research institute
that cooperates with the Norwegian University
of Science and Technology (NTNU) in the
research and teaching activities that are
naturally associated with our range of
operations. We enjoy close contact with
industrial interest groups and organizations
in our sector.
The Company does not declare dividends.
The resources generated by our activities
are allocated exclusively to realizing our
corporate objectives and SINTEF’s mission
statement. The European Commission has
given SINTEF Energy Research the status of a
non-profit organization.
The Company is located on the Gløshaugen
university campus in Trondheim, and its
registered address is Sem Sælands vei 11,
NO-7465 Trondheim, Norway. The Company
is owned by the SINTEF Foundation (61 %),
Energy Norway (33.4 %) and Norsk Industri -
The Federation of Norwegian Industries (5.6 %).
SINTEF Energy Research has a strong research profile and together with industry
and other research centres is involved in seven of the Norwegian Research Council’s
Centres for Environment-friendly Energy Research (FME). The Company has a strong
position in the EU’s Framework Programme for research with extensive activities
in sectors including energy planning, wind power, transport of CO2, and purification
technology for gas and coal power. The Company’s scientific standing has been
advanced by the realization of The Storting’s (Norwegian parliament’s) climate
agreement. This has placed us among the leaders of European energy research.
Technology for a better society
The Company is engaged in research and
development in order to promote cost-
effective and environmentally friendly
solutions for energy consumption and the
supply of power and heating. This contributes
to reducing environmental loads, increasing
value creation for the companies in this sector
and thereby achieving better utilization of
energy resources for society.
SINTEF Energy Research also makes
significant contributions towards increasing
the development of Norwegian petroleum
resources in an environmentally friendly and
secure manner thanks to new technologies
developed for oil companies and the related
supply industry.
Customers
As a result of the Climate Agreement, The
Storting made considerable increases in
the public investment allocations in energy
research in 2008, 2009 and 2010 and this
new level of funding has been maintained.
The Research Council of Norway established
11 new Centres for Environment-friendly
SINTEF Energy ResearchAnnual report 2012 - 2
Energy Research and the first group of
these are undergoing a mid-term evaluation
which will enable the Research Council to
decide which of the centres will be funded
after 2013. The results of the evaluation
are expected in August or September 2013.
SINTEF Energy Research hosts three of them
and participates as a partner in four of the
others. These centres will bring industrial
partners into direct contact with Norwegian
and international research institutes. The
technological centres that we are involved
with cover wind power technology, carbon
capture and storage, environmental design
of renewable energy, bioenergy, and zero
emission buildings. The two social science
centres focus on the significance of
framework conditions and sustainable energy
research.
The Company is also heavily involved in
the Research Council’s Knowledge-building
Projects for Industry (KPN, formally KMB).
These are important initiatives that help
develop new knowledge among our staff.
These projects involve the public and
private sectors to ensure that the research
is relevant for society. We launched 12 new
KPN and IPN (Innovation Projects for the
Industrial Sector) projects in 2012. In addition,
we have had 15 other projects accepted that
will start in 2013. Central topics are water
resource management, secure offshore
power networks, safe offshore cables,
wireless battery storage, pressure resistant
electronics in petroleum exploration, market
modelling for el-certificates, CO2 capture by
chemical looping, cryogenic CO2 separation,
energy efficiency, CO2 transport and a new
type of “super researcher” project with the
USA in combustion research.
SINTEF Energy Research places emphasis
on its participatory and coordinating roles
in the EU research projects. These provide
resources for skills development and
establish networks with customers and
research institutes in Europe. In 2012, the
Company participated in 25 EU projects
representing a turnover of about NOK 27
million and coordinated three of them.
In addition, we actively participate in a
number of the EU’s technology platforms
which design the strategies related to our
various disciplinary areas. Another area of
involvement is strategic fora such as the
European Research Area Board (ERAB), the
European Energy Research Alliance (EERA)
and EARTO which is the umbrella organization
for Europe’s specialized research and
technology organizations.
12 % of the Company’s income comes from
international partners in countries such as
Australia, Brazil, France, the Netherlands,
Poland and the USA.
SINTEF Energy Research has a broad portfolio
of projects where most of the projects have a
duration of several years. 40 % of our income
comes from the Research Council and 12 %
is generated by international projects. These
projects provide a useful buffer in relation to
fluctuations in demand for our services.
Research work
The international community is facing
considerable challenges in meeting the
demand for energy and transforming its
energy systems so that solutions to our
climate challenges can be found as quickly
and as cost effectively as possible. The
Company has broad disciplinary scope that
covers numerous relevant areas in energy
SINTEF Energy ResearchAnnual report 2012 - 3
supply, energy consumption and oil and gas
technology. We have the ambition to become
a leading global player in energy savings, CO2
management, specific areas in renewable
energy (hydropower, bioenergy, offshore wind
power and integration of systems), power
networks/smart grids, subsea power supply,
LNG, and gas technology, as well as being in
the international forefront in energy policy
making. A brief description of two selected
disciplinary activities follows.
In aviation, biofuels have been identified as
the most feasible energy carriers on the short
and medium terms. In 2011, the state-owned
aviation corporation, Avinor launched a project
to study the potential of “Sustainable and
profitable biofuel production for non-military
aviation in Norway” within 2020-2025. This
work will have significance for the future
development of biofuel for jet aircraft in
Norway. SINTEF Energy Research completed
a benchmarking study of conversion and
production technologies for aviation biofuel
to recommend which technologies are most
effective and suitable for Norway.
Since 1990, SINTEF Energy Research has
developed condition monitoring methods
for maintaining and renewing Norwegian
transformer units which comprise over 1900
transformers with a total value of over NOK
13 billion. This work has enabled our research
group to be rated among the international
leaders in this field. The methods that have
been developed have led to a significant
extension in the operative life of transformers,
which represents billions in savings as the
reinvestment dates can be postponed.
Our cooperation with and close proximity
to the Norwegian University of Science
and Technology (NTNU) is a significant
scientific asset that few can match. Both
institutions share common resources such
as laboratories, workshops and instrument
services. In some cases both organizations
are involved in the other’s research activities.
The cooperation between SINTEF and
NTNU is systematic at all levels in the two
organizations. We are participating in the
evaluation and further development of
the university’s Energy and Environment
programme of study.
In 2012, a new Gemini centre was established
in energy process research. The Gemini
centres are important means of achieving
close on-going cooperation between SINTEF
Energy Research and the respective research
groups at NTNU.
SINTEF Energy Research has carried out an
extensive new investment programme to so
that we have the most modern laboratory
equipment in areas such as subsea power
supply, smart grids, bioenergy, efficient
energy consumption, CO2 capture, and oil-
water separation.
Staff
On 31 December 2012, we had a staff of 219,
172 of these are university graduates. In
addition, there are 10 engineers and the rest
of the staff has technical or administrative
positions. The average age was 45. The
Company has contracts with 59 members
of the staff at NTNU. Seven of our staff has
academic positions at NTNU as adjunct
professors or adjunct associate professors.
SINTEF Energy Research has seven
employees in Oslo who maintain scientific
focus on policy and control in energy and
climate issues.
SINTEF Energy ResearchAnnual report 2012 - 4
In cooperation with NTNU, NVE, BKK Nett,
Lyse Nett, Statnett and Energy Norway we
have established a trainee agreement through
which we employ one to two new people every
year. This has become a popular arrangement
with a high level of female participation that
has received attention outside the Company.
The Summer Project was carried out for
the fifth time with 21 students in 2012. The
project attracted some of the best students
from NTNU and is an excellent recruitment
measure. Several of these have since become
permanent members of staff at SINTEF Energy
Research. Every autumn we arrange a one-day
seminar for supervisors and management
where the students present their project
assignments. The Summer Project is
attractive to students from several disciplines
at NTNU. A few students are also recruited
from outside NTNU.
Ethical issues
SINTEF Energy Research adheres to SINTEF’s
ethical guidelines for the group. SINTEF has
developed a code of ethics manual which is
available both on our Intranet and as a printed
pocket-sized booklet. The manual is a useful
tool in our daily activities.
The SINTEF Group has established an Ethics
Council and an Ethics Ombudsman who can be
contacted for confidential discussion by staff
who experience ethical issues that they wish
to keep outside the line management.
SINTEF Energy Research is a member of the
anti-corruption organization Transparency
International and the UN Global Compact that
work in the areas of human rights, labour
rights, environment and anti-corruption.
Diversity and equality
SINTEF Energy Research meets the needs of
employees with special needs for adaptation,
including access. We obtained recognition as
an inclusive working life (IA) organization in
2011 and we enjoy good cooperation with the
Norwegian Social Services.
SINTEF was awarded the diversity prize
in 2012. This was awarded by the Ministry
of Children, Equality and Social Inclusion.
The jury supported its decision by the fact
that SINTEF had managed to create an
international environment of highly competent
people from different cultural backgrounds
who are found in positions at most levels in
the organization.
To ensure the integration of non-Norwegian
staff, SINTEF has established a free
integration programme for them and
their families. The programme offers ex-
pat services, free Norwegian language
classes and English courses at the SINTEF
School. When recruiting staff, we consider
qualifications in accordance with the
intentions of the law.
Gender equality work is rooted in our
corporate management. Our personnel policy
and personnel administrative procedures
are in accordance with the requirements
of the Gender Equality Act. The Company
has 29 % female staff and the proportion of
women among management is 33 %. We plan
to increase the proportion of women when
recruiting new staff and have plans to develop
initiatives for female senior researchers.
On the Company’s Board, 38 % of the
shareholders’ representatives and 33 % of the
staffs’ representatives are women. We have
SINTEF Energy ResearchAnnual report 2012 - 5
flexibility with regard to working hours and
welfare schemes and also contribute to the
operation of kindergartens through the Aurora
Foundation.
Anonymous surveys to measure the work
environment are done every two years. They
show our staff considers that the gender
equality work in the Company functions well
and there are equal opportunities for women
and men. An internal survey conducted at
SINTEF Energy in 2008 found that women
and men have equal pay. Wages and working
conditions are determined by negotiations
and discussions with union representatives
from the respective trade unions. SINTEF
Energy has implemented the agreements
that NHO has with Tekna, NITO, NTL and
Forskerforbundet. The Company has few
temporary staff.
Health, environment and safety (HES)
Absence due to illness amounted to 3.8 %,
which represents a reduction of 0.3 %
compared to 2011.
The Company has an active internal sports
club which it funds. The successful “Kom
i Form” (Get in Shape) project emphasizes
knowledge related to health, a common
measurement of fitness and individual
coaching.
HES is a regular discussion topic at company
meetings. Systematic efforts are being
made to reduce the risk of injury, accidents
and undesirable incidents. In 2012, SINTEF
Energy Research registered six accidents
where six were classified as injury to staff.
However, none of these resulted in absence
due to injury. There were 17 near-accidents
and 75 dangerous situations/observations
were registered and remedial measures and
suggestions were made to remove such risk
in the future. Most of these HES matters
were concluded or approved during the
year. In 2012 a coordinated initiative was
started in the SINTEF Group to ensure that
its companies can provide documentation
that SINTEF satisfies the environmental
management standard ISO 14001:2004.
SINTEF Energy Research has effective
routines to ensure that our activities comply
with external environmental considerations
and include measures such as the treatment
of different kinds of waste and hazardous
waste. We carry out systematic risk
assessments which consider the external
environment. The Company’s activities do not
lead to any pollution of the environment that
conflict with legislation in force.
SINTEF’s decentralized contingency plan was
operative in 2010 and has been continued
without changes. The contingency managers
have monthly meetings to discuss emergency
preparedness so that they are in a position
to take remedial action if an emergency
should occur. Local emergency preparedness
exercises are conducted at all SINTEF
companies and SINTEF has a joint exercise
where SINTEF’s executive management
participate with the company contingency
managers and the group’s contingency
manager. The theme for the central exercise in
2012 was research dishonesty. The theme for
the local exercise in June 2012 was explosion
and fire that led to extensive injuries in one
of our labs. In October there was a realistic
evacuation exercise in NTNU premises where
SINTEF Energy Research has offices and
laboratories.
SINTEF Energy ResearchAnnual report 2012 - 6
In 2012, SINTEF’s travel agents started an
arrangement where the SINTEF companies
are notified of any members of staff who are in
or are on the way to countries or areas where
there is a natural disaster or there are other
situations that could be hazardous for their
staff.
Financial issues
The Company’s annual profit amounted to
NOK 24.9 million after tax. The net operating
income was 306.2 million.
The net operating profit was NOK 21.6
million which is a satisfactory result that
demonstrates effective management. The
annual profit before tax was NOK 33.2 million.
The net financial profit was NOK 11.6 million.
The Company’s equity as of 2012-12-31
amounts to NOK 359.0 million this constitutes
64.7 % of the total capital of which the
Company’s share capital is NOK 7.5 million.
This is an adequate basis for continued
operation, which is noted in the accounts. The
liquidity situation is satisfactory.
SINTEF Energy Research is to some extent
exposed to fluctuations in the currency
market as 3.5 % of the project income is in
a foreign currency while all or part of the
project costs are calculated in Norwegian
kroner. The exposure is primarily towards the
EUR and USD. In order to avoid this risk and
the Company has set up forward contracts
in the currency in question. Nevertheless,
the Company operates in an internationally
competitive market where many of our
competitors are located in eurozone areas.
SINTEF has established a common
arrangement for placing liquidity reserves.
The portfolio is subject to “the Rules for
financial management”. These are updated
annually and the latest version is dated
2013-03-20.
The Board has no knowledge of conditions
that may arise after the date the accounts
were balanced which may be significant for
the assessment of the Company’s financial
position.
The Board is of the opinion that the accounts
presented here give a correct overview of the
real financial development of SINTEF Energy
Research per 2012-12-31.
Planning and organization
Since 1999, the Company has worked
systematically to introduce value-based
management. Organizational development
efforts are continuously on-going at all levels
of the organization. Focus on developing
our human capital and core values involve
the ability to build up networks and be
continuously innovative. Part of this work has
been a 12-month management development
programme for all of our managers.
SINTEF’s quality system was approved in
June 2007 as a certifiable quality system
that is in accordance with ISO 9001:2000 and
OHSAS 18001 of TI – Teknologisk Institutt
Sertifisering AS. During 2011 and 2012, the
SINTEF Group’s Quality Forum has worked
to continuously improve this QC system and
most efforts were focused on integrating the
control system with SINTEF’s new IT system
for financial and project management in 2013.
These new tools will have a significant impact
SINTEF Energy ResearchAnnual report 2012 - 7
on the work processes of research staff in the
Company.
Customer satisfaction surveys are carried out
in connection with the completion of selected
projects. The results generally show a high
degree of satisfaction with our deliverables
and services. Any non-conformances that are
found are followed up.
All institutes in the SINTEF Group have
introduced a system involving risk reporting
each quarter. The reports in the Company are
discussed by its Board and risk-reduction
measurements are implemented. Important
risk and uncertainty factors for us are related
to the market, our major customers, our
cooperation with NTNU, our reputation, our
responsibilities related to major contracts,
loss of key skills, handling IPR, recruitment,
and safety in laboratory and field work.
Future possibilities and challenges
The global financial situation has meant that
many companies have reduced their research
budgets in recent years. However, solving the
challenges posed by climate issues means
that substantial public sector investments
will be made in research and technology
development. It is likely that R&D in energy
issues will have more support in the years to
come than many other sectors. The Norwegian
Climate Agreement gives a clear signal that
increased priority will be given to R&D in
renewable energy and CO2 management.
Oil and gas are important energy carriers in a
long-term perspective also in the scenarios
where global warming is to be limited to +2° C.
Investments in the oil and gas sector have
been increased since the financial crisis and
there is reason to expect that there will be a
high level of R&D activities in this sector in
the years to come.
In 2012, the Company prepared a new strategy
with a 10-year perspective. This was based on
the SINTEF Group’s main strategy but there
was a focus on energy. Central elements in
this strategy are:
1. Safe and economical energy solutions for
Norway
2. Value-creation based on Norwegian
energy resources
3. Technology development in the
international market
There are 11 strategic priority areas:
1. Energy savings
2. CO2 capture, transport and storage
3. Hydropower
4. Offshore wind power
5. Bioenergy
6. Integration of renewable energy in the
grid
7. Distribution and consumption of
electrical energy
8. Transmission and connecting Norwegian
power to Europe
9. Gas technology and LNG
10. Subsea power supply and processing
11. Framework conditions for energy policy
The EU’s dynamic long-term initiatives in
energy research provide a good foundation for
international cooperation where the Company
can work in partnership with others. It is
positive that the EU’s strategies in energy
research cover the entire range of activities
in the energy sector. SINTEF’s participation
in the strategic energy fora in the EU, our
willingness to assume the role of project
coordinator, and last but by no means least,
our strong standing in this area all strengthen
SINTEF Energy ResearchAnnual report 2012 - 8
our chances to participate in cooperative
projects.
The end of the EU’s 7th Framework Programme
in 2013 will open many new opportunities
in the new Horizon 2020 programme. The
Company is in an excellent position to take
advantage of this new programme and has
been proactive in most of the relevant areas.
For years the Company has focused its efforts
to build up academic cooperation with the USA
in selected research areas. We are working
with NTNU to develop cooperation with R&D
institutes in India and China. This means that
apart from European cooperation, we are
positioning ourselves for further cooperation
with existing and emerging powers in the
global economy.
In the future, adjustments will be necessary
and focus will be placed on areas where
SINTEF Energy Research already is or
potentially can be internationally outstanding.
It is crucial to develop the correct type
of alliances at national and international
levels. Our customers will increasingly look
for the best international research groups.
This is a challenge that offers considerable
possibilities for the Company. The focus of
SINTEF Energy Research is on the needs
of industry and it is this close contact with
our industrial customers that provides an
excellent means to grasp these opportunities.
Acknowledgements
The Board wishes to thank the management
and staff for a successful year that has
yielded sound research work and satisfactory
financial results.
Trondheim 2012-03-15
SINTEF Energy ResearchAnnual report 2012 - 9
MNOK 2008 2009 2010 2011 2012
Result
Gross operating income 299 376 401 404 401
Net operating income 214 256 284 288 306
Operating result 21 20 41 30 22
Annual result 30 33 46 30 25
Balance sheet
Fixed assets 70 83 95 101 98
Liquid assets 324 390 430 433 457
Sum of assets 394 473 525 533 555
Equity capital 226 258 304 334 359
Debt 169 215 220 199 196
Sum of equity and debt 394 473 524 533 555
Profitability
Operating margin % 9.8 7.8 14.3 10.5 7.5
Total profitability % 8.4 7.7 10.5 7.4 6.1
Profitability of equity capital % 14.3 13.2 17 12.2 9.6
Liquidity
Net cash flow from operation 22 63 90 14 38
Degree of liquidity 2.2 2.0 2.0 2.2 2.3
Solidity
Equity capital % 54 55 58 63 64.7
Operating working capital 167 190 168 216 236
Key financial figures
SINTEF Energy ResearchAnnual report 2012 - 10
Organisation
PresidentInge R. Gran
Vice President ResearchPetter Støa
Electric Power Systems
Research DirectorKnut Samdal
Energy Systems
Research DirectorMagnus Korpås
Gas Technology
Research DirectorMona J. Mølnvik
Thermal Energy
Research DirectorPetter E. Røkke
Energy Efficiency
Research DirectorAnne Karin T. Hemmingsen
Electric Power Technology
Research DirectorDag Eirik Nordgård
Electrotechnical LaboratoriesLaboratory Manager Rolf Hegerberg
- Ass. HSE coordinator Oddgeir Kvien
Thermal Engineering LaboratoriesLaboratory Manager Harald Mæhlum
- Ass. HSE coordinator
Executive Vice PresidentMarie BysveenStaff functions:• Operations• HSE and Quality• Personnel• Finance
Key figures
4,7 %35,5 %
9,8 %37,7 %11,9 %
0,4 %
RCN basic grantRCN project supportPublic sectorBusiness and industryInternational contractsOther sources of income
Total 401 MNOK
Sources of finance(% of gross operating income)
28 9
10 172*
*of whom 87 hold doctorates
AdministrationTechnical personnelEngineersResearchers
Total 219
Employees
189
52
11120
1
Academic articles in journals,series or anthologiesAcademic lecturesand posters ReportsPopular articles and talksTextbooks, etc.
Totalt 373
Publications(including popular dissemination)
SINTEF Energy ResearchAnnual report 2012 - 11
Integration of marketing models and grid modelling
Developments in renewable energy and improved connections to Europe
are putting more pressure on the Norwegian electrical power grid. New
investments in both production and the grid are becoming essential. If
the grid and power companies are to make the best possible decisions on
investments, they need new methods and planning tools that describe as
realistically as possible the links between production, the market and the
power grid. In the research project ‘Power System Analyses and Transmission
Planning in a Changing Environment’, our role was to expand our knowledge
base to support new planning methods. We and some of our project partners
are now continuing to develop and test several of the methods and prototype
models which arose from this project.
Biofuels for aviation – the Avinor project
Biofuels have the potential to resolve two of the main issues associated with
today’s fossil fuel-based transport sector; the reduction of our dependency
on petroleum, and pollution mitigation, achieved by restricting greenhouse
gas emissions. Biofuels have been identified as the most likely alternative
energy source for aviation, both in the short and long terms. In 2011, Avinor
established a major Norwegian analytical project aimed at investigating
the potential for ‘Viable and profitable biofuel production for civil aviation
in Norway’ by 2020–2025. This is an extensive analytical project, even by
international standards, and is expected to be highly significant for further
developments in biojet fuel in Norway. SINTEF Energy Research conducted a
benchmarking study of conversion and production technologies for synthetic
biofuels for aviation, in order to be able to recommend the most efficient
technologies and those most suitable for application in Norway. This included
a technology review, which studied which biomass resources are most
suitable for each technology, as well as the strengths and weaknesses of the
technologies in question.
Barriers against moisture penetration into undersea cables
Traditionally, an outer sheath of lead has been used to prevent moisture
penetration into high-voltage undersea cables. SINTEF Energy Research has
been working with Nexans Norway to develop a completely new and attractive
barrier design based on light polymer materials as an alternative to the lead
sheath. The design has now been successfully manufactured on a full-scale
basis, as a step towards the qualification of this cable type.
Technical highlights of 2012
SINTEF Energy ResearchAnnual report 2012 - 12
Mikrokapsel som
inneholderhelende
monomer
Elektriskfelt
Hulrom
Katalysator
Self-healing insulation material
Thermoset plastic electric insulation is vulnerable to damage in the form of cracks which can form deep within the material, where they are difficult to detect and practically impossible to repair. These cracks can initiate electrical degradation in the form of partial discharges and electrical tree growth, which eventually results in the breakdown of the insulation. Several self-healing technologies for polymer materials have been developed over the last ten years. One promising technology is the incorporation of micro-capsules containing liquid healing particles in the polymer, and a hardening catalyst dispersed through the polymer material. Through a project financed by grant funding, we have tested methods for making these micro-capsules, and the results have been excellent. This has generated exciting prospects for the development of self-healing electrical insulating materials.
Offshore energy recovery
Offshore oil and gas production are highly energy-intensive processes. About 80 per cent of the CO
2 emissions from offshore activities are derived from the gas turbines
used to generate electricity on the installations. The turbines employ natural gas from the reservoirs as their energy source. One of the keys to improving energy efficiency offshore is a new, space-saving technology that will make gas-fired energy
production more efficient. Such technologies are already in use onshore. Research at the Institute has focused on the potential of using waste heat from the gas turbines to generate electricity ‘one more time’, using an extra turbine ‘hooked up’ to the power plant and recovering energy that would otherwise have been lost. The aim of this research is also to adapt these technologies to the demanding constraints which must be taken into account on offshore installations, and make them suitably compact and robust.
Transporting CO2 in pipelines
Large-scale carbon capture and storage means being able to capture CO2 and store
it in geological formations in such a way that it cannot escape. CO2 transport is the
final element that needs to be in place. Safe and efficient transport systems can be achieved when we know how CO
2 mixtures behave during transportation and the
different phases of the operation (filling, decompression and varying quantities of CO
2). When CO
2 is transported in pipelines, it is often in liquid form. Our research
is examining the development of cracks in CO2 transport pipelines, since it is thermodynamics and fluid dynamics that affect the course of events. To obviate the need for expensive research and to improve our understanding of what actually happens while a crack is growing, we are developing physics-based calculation models. In 2012, we established the EU IMPACTS project: The impact of the quality of CO
2 on transport and storage behaviour.
Generator
Power Power
Turbine andgenerator
Heat exchangewith seawater
Pump
Natural gas in
Gas turbine Bottoming cycle
Combustion chamber
Hot
exh
aust
va
rms
CO2/s
team
Gassturbinerunning a generator
Kond
ensa
tor
Air in
TurbineCompressor
Microcapsule containing
healing agent
Electricfield
Void
Catalyst
SINTEF Energy ResearchAnnual report 2012 - 13
Cost reductions for offshore wind power
Offshore wind power is globally recognised as an essential part of the means required to increase the share of energy supply provided by renewables. Europe has set itself some ambitious targets, and the North Sea is an arena in which these can be achieved. SINTEF Energy Research and our business partners in research and industry are in a good position to deliver innovative solutions. In 2012, we have been working on new concepts such as the robotised maintenance of offshore wind turbines (remote presence), new, cost-effective solutions for power transmission from offshore wind farms to the onshore grid, and new generator designs that save on volume and weight.
Innovation award for superconductor
Last year, research scientists Magne Runde and Niklas Magnusson were awarded EARTO’s Innovation Award. They received the award as recognition for their work with superconducting materials, which conduct electricity entirely without resistance. The development of the superconductor was achieved in collaboration with Zenergy Power Gmbh in Germany, resulting in a new generation of induction furnaces which utilise high-temperature superconductivity. The furnaces are used to heat raw aluminium prior to its extrusion as profiles used in products such as light fittings and window frames. The concept could result in annual savings of millions for the manufacturers of aluminium profiles.
Smart grids and supply reliability
Tomorrow’s electrical distribution systems will utilise metered data as a tool in the planning, operation and maintenance of power grids to a much greater extent than is the case today. This will place strict requirements on the instruments employed to obtain these metered data, and on the reliability of systems designed to process the volumes of data involved. Last year, the research project Power Quality Management enabled us to increase our understanding of how metered electricity and voltage data can be better utilised. The project also resulted in a prototype low-cost metering instrument, and a tool used for the automatic recognition of different disturbances in the distribution grid.
Wood-burning stoves and fireplaces
Wood used as a heating fuel makes up half of Norway’s biomass consumption. According to the Norwegian Bioenergy Strategy, the intention is to double biomass consumption by 2020, and wood-burning stoves and fireplaces represent the most important means of achieving this target. In 2011 we continued our work to develop the next generation of stoves and fireplaces, and achieved excellent results. Modern wood-burning stoves have succeeded in reducing particle emissions by more than 75 per cent and have increased their efficiency from 35 to 75 per cent over a period of only a few years. We are now heading several research projects in which the stove/fireplace industry is involved. The aim is to develop stoves and fireplaces which produce lower and more consistent levels of heat output and achieve even greater reductions in particle emissions.