Aalborg University is a Danish university located mainly in Aalborg, Denmark with campuses in Aalborg, Esbjerg and Copenhagen. Aalborg University was established in 1974 under the name of Aalborg University Center , but changed its name to Aalborg University in 1994. Today, Aalborg University is the fifth largest university in Denmark based on the number of enrolled students. In Aalborg, the university is mainly located on the main campus in the eastern part of the city, but the university also has departments located in downtown Aalborg. Currently, Aalborg University has approximately 21,606 students and 3,479 employees. In 2011, Aalborg University experienced the largest increase in applicants in Denmark, as the number of new students increased by 31 per cent. Wikipedia.
Lund H.,University of Aalborg
Energy | Year: 2010
Based on 25 years of involvement in a number of important and representative political decision-making processes in Denmark and other countries, this paper presents the unified learning of some of the institutional barriers one will meet when radical technological changes such as the replacement of fossil fuel with renewable energy are to be implemented, and how to overcome such barriers. On the one hand, the cases reveal the lack of ability of organisations and institutions linked to existing technologies to produce and promote proposals and alternatives based on radical changes in technology. On the other hand, the stabilisation of the Danish primary energy supply over more than three decades shows that the ability to act as a society has been possible despite conflicts with representatives of the old technologies. In Denmark, the description of concrete technological alternatives and alternative energy plans has played an important role. © 2010 Elsevier Ltd.
Document Keywords (matching the query): energy planning, renewable energy systems, alternative energy, renewable energy resources, energy market, renewable resource, energy policy.
Parajuli R.,University of Aalborg
Renewable and Sustainable Energy Reviews | Year: 2012
Industrialization, development and social transformation has brought together issues of over exploitation of limited energy resource base (e.g. fossil fuel), accelerated threats of energy insecurity, and liberation of greenhouse gas emissions across the continents. The global challenge for the 21st century and way ahead is to find other means of satisfying energy needs, diversifying the energy supply, up-scaling the make-up of renewable energy to a greater extent, optimization of energy consumption and supply system. Denmark has been continuously moving towards optimization of energy production, usage and its overall management, during and even after the first global oil crisis. The country has been delivering its priority in the development of renewable energy and standing the country an energy self sufficient from last three decades. Country's overall consumption of energy has decreased than that of the decades of 1980 and 1990s, with wider range of energy mix and saving options. The Danish government has strategized to make the country fossil fuel free by 2050, where special attention and interventions is required to boost up its development of renewable energy in the country. The past efforts of the Danish government in the energy development has helped not only making the country 'energy self sufficient', but also lowering the level of carbon dioxide in the atmosphere. Danish energy policy and strategies have been found more conducive and reflective of the joint EU priorities on the matter of dealing with climate change and energy security. All the past progress and its allied policies seem to be quite supportive in fulfilling its strategies for greener future. This review paper will discuss on the past efforts of Danish government in energy management and highlights on some political initiatives, which have been realised to support the country moving towards clean and green energy future. © 2012 Elsevier Ltd. All rights reserved.
Document Keywords (matching the query): limited energy resource, energy resources, energy strategy, energy efficiency, energy insecurity, energy security, energy conservation, renewable energy, renewable energies, energy mix, green energy, consumption of energy, energy supplies, energy development, danish energy strategies, energy productions, energy savings, energy systems, energy utilization, energy policy, energy needs.
Blarke M.B.,University of Aalborg
Applied Energy | Year: 2012
Distributed cogeneration has played a key role in the implementation of sustainable energy policies for three decades. However, increasing penetration levels of intermittent renewables is challenging that position. The paradigmatic case of West Denmark indicates that distributed operators are capitulating as wind power penetration levels are moving above 25%; some operators are retiring cogeneration units entirely, while other operators are making way for heat-only boilers. This development is jeopardizing the system-wide energy, economic, and environmental benefits that distributed cogeneration still has to offer.The solution is for distributed operators to adapt their technology and operational strategies to achieve a better co-existence between cogeneration and wind power.Four options for doing so are analysed including a new concept that integrates a high pressure compression heat pump using low-temperature heat recovered from flue gasses in combination with an intermediate cold storage, which enables the independent operation of heat pump and cogenerator.It is found that an electric boiler provides consistent improvements in the intermittency-friendliness of distributed cogeneration. However, well-designed heat pump concepts are more cost-effective than electric boilers, and in future markets where the gas/electricity price ratio is likely to increase, compression heat pumps in combination with intermediate thermal storages represent a superior potential for combining an intermittency-friendly pattern of operation with the efficient use of electricity in heating and cooling production. © 2011 Elsevier Ltd.
Document Keywords (matching the query): sustainable energy policy, intermittent renewables, energy efficiency, energy systems, energy market, renewables, energy policy.
Ostergaard P.A.,University of Aalborg
Energy | Year: 2012
Increasing penetration of fluctuating energy sources for electricity generation, heating, cooling and transportation increase the need for flexibility of the energy system to accommodate the fluctuations of these energy sources. Controlling production, controlling demand and utilising storage options are the three general categories of measures that may be applied for ensuring balance between production and demand, however with fluctuating energy sources, options are limited, and flexible demand has also demonstrated limited perspective. This article takes its point of departure in an all-inclusive 100% renewable energy scenario developed for the Danish city Aalborg based on wind power, bio-resources and low-temperature geothermal heat. The article investigates the system impact of different types of energy storage systems including district heating storage, biogas storage and electricity storage. The system is modelled in the energy systems analyses model energyPRO with a view to investigating how the different storages marginally affect the amount of wind power that may be integrated applying the different storage options and the associated economic costs. Results show the largest system impact but also most costly potential are in the form of electricity storages. © 2011 Elsevier Ltd.
Document Keywords (matching the query): energy systems analyses, energy storage systems, geothermal energy, renewable energies, renewable resource, renewable energy systems, renewable energy integration, electric energy storage, fluctuating energy, energy storage, energy systems, energy storages, energy systems analysis, energy source.
Agency: European Commission | Branch: H2020 | Program: MSCA-ITN-EID | Phase: MSCA-ITN-2015-EID | Award Amount: 845.84K | Year: 2015
ICONN is a unique European Industrial Doctorate initiative to meet the current and future demand for highly skilled offshore wind and wave energy engineers by developing and advancing European capacity in the design, development and performance optimisation for Offshore Wind and Wave Energy installations. The initiative is strongly shaped by active participation from industries, and will develop and enhance European capacity in the offshore renewable energy area at a critical juncture in time when Europe strives to occupy a lead market position globally in this sector. The ICONN EID will i) provide state-of-the art training to Early Stage Researchers jointly with industries in the scientific and engineering disciplines of power take-off (PTO) and structural control, wave mechanics and hydrodynamics, CFD, sensing and system identification; ii) advance expertise, and research capacity, in the techno-economic-environmental factors that impact on the reliability and operational efficiency of offshore renewable energy installations; iii) instil business, management, entrepreneurship and innovation skills pertaining to offshore wind and combined wind-wave energy sector to encourage entrepreneurship and innovation; iv) promote clearly defined scientific dissemination, public outreach and commercialisation/IP agendas. The three scientific work packages, which scaffold the individual research activities, progress from addressing specific challenges and capability deficiencies that impede the effective and efficient deployment of offshore wind and wave infrastructures (floating systems and optimisation of power take-off (PTO) ) through to activities that seek to create, and innovate in, new control algorithms and in operational efficiency domain (fatigue control, new algorithms for control of PTO).
Agency: European Commission | Branch: H2020 | Program: IA | Phase: LCE-03-2015 | Award Amount: 28.87M | Year: 2016
The aim is to develop and install a pre-commercial wave energy converter (WEC) of 1MW power, the WAVESTAR C6-1000 device, with main targets the device industrialization and the demonstration of wind and wave energy applications. The utility company Parkwind, which develops, builds and operates wind farms in the North Sea, is committed to the achievement of WAVESTARs next development stage. Parkwind provides the installation site with grid connection for the first full-scale WAVESTAR WEC, located within a Belgian offshore wind farm. The UPWAVE project consortium has been developed through the establishment of strong synergies and partnerships, by bringing together key European industrial players and European universities represented by wave energy experts whose overall objectives focus on: 1) Reduction of the devices cost by introducing new design, components and materials. Cost optimization is achieved through new methods on deployment, installation, operation and maintenance. 2) Improvement of the energy efficiency by developing a more advanced Power Take Off based on a second generation digital hydraulic system and innovative control strategy. 3) Integration of wave energy converters in wind farms by considering the interaction between wave and wind devices in terms of operation, cost reduction and maximization of environmental benefits. Public research programs, industrial cooperation and technology transfer from the offshore industry (offshore wind, oil and gas) ensure the development of manufacturing processes, automation and optimisation of the WAVESTAR C6-1000 WEC. New certificates and standards will be made available for the wave energy industry. After the completion of the UPWAVE project, the cost of wave energy will be significantly reduced to a level in line with the cost of offshore wind energy (around 15 c/kWh). The WAVESTAR C6-1000 demonstrator device will lead to a commercial WEC and a hybrid renewable energy device (wind and wave).
Agency: European Commission | Branch: H2020 | Program: CSA | Phase: H2020-TWINN-2015 | Award Amount: 1.05M | Year: 2015
The transition from fossil fuels to renewable and sustainable energy sources has become the European Unions top developmental priority, with low-performing countries in Central Europe facing the most urgent need. As the regions largest country, Polands continuing economic progress has not come without significant costs; due to its history in electricity production, in 2009 it had the highest rate of production by coal of any EU member state. This makes Poland Europes third largest polluter in terms of damage to society, home to six of Europes 30 most damaging power-plants, and to be among Europes worst for public exposure to harmful pollution. At the same time it is experiencing rises in domestic electricity demand twice the EU average. This makes Poland the most urgent nation in the EU with regards to the need for immediate conversion to renewable energy systems and resources. However, unlike traditional power facilities, energy produced by RES often produces unpredictable and variable outputs related to weather, season, and geographical location. While Polish research now has expertise in many of the technologies needed for energy transition, it lacks critical knowledge in modelling, planning, integrating, and managing large-scale renewable energy systems in a flexible and effective manner. The SUPREME project twins one of Polands best energy research centres, the Instytut Maszyn Przeplywowych Im Roberta Szewalskiego Polskiej Akademii Nauk with needed expertise in Denmark (Aalborg University), the Netherlands (University Twente), and Austria (the European Sustainable Energy Innovation Alliance). Focusing on needed knowledge transfer in integrating energy technologies, the projects well-formulated mix of extended staff exchanges, joint work, Summer Schools, and other events will create a long-lasting and effective partnership that will have a very significant impact on Polands energy systems infrastructure.
Agency: European Commission | Branch: H2020 | Program: IA | Phase: LCE-02-2016 | Award Amount: 11.23M | Year: 2016
The GOFLEX project will innovate, integrate, further develop and demonstrate a group of electricity smart-grid technologies, enabling the cost-effective use of demand response in distribution grids, increasing the grids available adaptation capacity and safely supporting an increasing share of renewable electricity generation. The GOFLEX smart grid solution will deliver flexibility that is both general (across different loads and devices) and operational (solving specific local grid problems). GOFLEX enables active use of distributed sources of load flexibility to provide services for grid operators, balance electricity demand and supply, and optimize energy consumption and production at the local level of electricity trading and distribution systems. Building on top of existing, validated technologies for capturing and exploiting distributed energy consumption and production flexibility, GOFLEX enables flexibility in automatic trading of general, localized, device-specific energy as well as flexibility in trading aggregated prosumer energy. Generalized demand-response services are based on transparent aggregation of distributed, heterogeneous resources to offer virtual-power-plant and virtual-storage capabilities. The sources of load flexibility include thermal (heating/cooling) and electric storage (electric vehicles charging/discharging). A backbone data-services platform offers localised estimation and short-term predictions of market and energy demand/generation, and flexibility in order to support effective data-driven decisions for the various stakeholders. Smart-grid technologies, such as increased observability and congestion management, contribute to the platform. Over 36 months, GOFLEX will demonstrate the benefits of the integrated GOFLEX solution in three use-cases, covering a diverse range of structural and operational distribution grid conditions in three European countries.
Agency: European Commission | Branch: FP7 | Program: CP-CSA-Infra | Phase: INFRA-2010-1.1.23 | Award Amount: 11.05M | Year: 2011
Offshore Renewable Conversion systems are mostly at the pre-commercial stage of development. They comprise wave energy and tidal stream converters as well as offshore wind turbines for electrical generation. These devices require research to be undertaken at a series of scales along the path to commercialization. Each technology type is currently at a different stage of development but each one also needs specific research infrastructures to facilitate and catalyze commercialization. The aim of this project is to coordinate research and development at all scales (small models through to prototype scales from Laboratory through to Open Sea tests) and to allow access for researchers and developers into facilities which are not available universally in Europe. The linking together of facilities at different scales together with the incorporation of test facilities for components such as power take-off systems, grid integration, moorings, environmental tests will ensure a focusing of activities in this area. MaRINET brings together an Infrastructure with 42 Facilities from 28 Partners spread across 11 EU countries and 1 ICPC, Brazil. It also brings together a network of expertise in the Offshore Marine Renewable Energy sector with experience at all scales of offshore technology research and development. MaRINET offers over 600 weeks of access to 300 projects and 800 external users. The majority (77%) of the MaRINET budget has been targeted in the areas most prioritized in the EC Call such as networking, training, dissemination and transnational access.
Agency: European Commission | Branch: H2020 | Program: IA | Phase: SCC-01-2015 | Award Amount: 32.20M | Year: 2016
SmartEnCitys main Objective is to develop a highly adaptable and replicable systemic approach towards urban transformation into sustainable, smart and resource-efficient urban environments in Europe through the integrated planning and implementation of measures aimed at improving energy efficiency in main consuming sectors in cities, while increasing their supply of renewable energy, and demonstrate its benefits. The underlying concept of the proposal is the Smart Zero Carbon City concept, where city carbon footprint and energy demand are kept to a minimum through the use of demand control technologies that save energy and promote raised awareness; energy supply is entirely renewable and clean; and local energy resources are intelligently managed by aware citizens, as well as coordinated public and private stakeholders. This approach will be firstly defined in detail, laid out and implemented in the three Lighthouse demonstrators (Vitoria-Gasteiz in Spain, Tartu in Estonia and Sonderborg in Denmark). The three cities will develop a number of coordinated actions aimed at: Significant demand reduction of the existing residential building stock through cost-effective low energy retrofitting actions at district scale. Increase in RES share of energy supply, through extensive leveraging of local potentials. Enhance the use of clean energy in urban mobility, both for citizens and goods, by means of extensive deployment of green vehicles and infrastructure. An extensive use of ICTs is planned to achieve integration and consistency in demo planning and implementation, and to enable further benefits and secure involvement of citizens. These actions will be aligned to city-specific Integrated Urban Plans (IUPs), and the process will be replicated in two Follower cities: Lecce, (Italy), and Asenovgrad (Bulgaria) to ensure adaptability and maximize the project impact. Additionally, a Smart Cities Network will be setup to support project replication at European scale.