Nach hamburgischem Landesrecht werden Veröffentlichungen durch Abdruck im Hamburgischen Gesetz- und Verordnungsblatt vorgenommen. Rechtsverbindlich ist deshalb ausschließlich die gedruckte Ausgabe des Hamburgischen Gesetz- und Verordnungsblattes Teile I und II (Amtlicher Anzeiger). Eine Inhaltssuche kann nur über die Internetseite der <a href="http://www.luewu.de/anzeiger/">Firma Lütcke & Wulff</a> erfolgen.
The project 4G-PHOTOCAT allies the expertise of 7 academic and 3 industrial partners from 5 EU countries (Germany, United Kingdom, Czech Republic, Poland, and Finland) and 2 ASEAN countries (Malaysia and Vietnam) for the development of a novel generation of low-cost nano-engineered photocatalysts for sunlight-driven water depollution. Through rational design of composites in which the solar light-absorbing semiconductors are coupled to nanostructured redox co-catalysts based on abundant elements, the recombination of photogenerated charges will be suppressed and the rate of photocatalytic reactions will be maximized. In order to achieve fabrication of optimal architectures, advanced chemical deposition techniques with a high degree of control over composition and morphology will be employed and further developed. Furthermore, novel protocols will be developed for the implementation of the photocatalysts into a liquid paint, allowing for the deposition of robust photoactive layers onto flat surfaces, without compromising the photoactivity of immobilized photocatalysts. Such paintable photoreactors are envisaged particularly as low-cost devices for detoxification of water from highly toxic persistent organic pollutants which represent a serious health issue in many remote rural areas of Vietnam and other countries. The 4G-PHOTOCAT project will provide novel scientific insights into the correlation between compositional/structural properties and photocatalytic reaction rates under sunlight irradiation, as well as improved fabrication methods and enhanced product portfolio for the industrial partners. Finally, 4G-PHOTOCAT will lead to intensified collaboration between scientists working at the cutting edge of synthetic chemistry, materials science, heterogeneous photocatalysis, theoretical modelling, and environmental analytics, as well as to unique reinforcement of cooperation between scientists and industry partners from EU and ASEAN countries.
The current project proposal discloses a novel biorefinery process for a sustainable, waste free, low energy conversion route of negative value marine waste streams into high value, high performance chemical intermediates and products for the polymer industry. The project has a strong emphasis on technology development and transfer to low-tech and developing countries in the EU and associated ICPC and therefore will significantly contribute to the technological and economic leadership of the EU. The technologies disclosed in this project will foster the natural growth of sustainable economies in the EU and beyond by eliminating the need for fossil resources to preserve and exceed the current standard of living. The innovative technologies developed in this project will apply novel concepts for the production of bio-based platform chemicals that act as 'drop-ins' for existing and novel polymer production processes with high atom efficiencies. The unique assembly of the current consortium consisting of academics, SME's and large scale chemical industry partners, clearly has the scientific and technical expertise to rapidly transform laboratory based results into novel product lines at an accelerated time frame. As a part of the strategy the consortium has included Demonstration Activities as require by the FP7-KBBE-Call.
Objective: The primary aim of the SIINN ERA-NET is to promote the rapid transfer of the results of nano-science and nanotechnology (N&N) research into industrial application by helping to create reliable conditions. In order to strengthen the European Research Area and to coordinate N&N-related R&D work, the project has the aim of bringing together a broad network of ministries, funding agencies, academic and industrial institutions to create a sustainable transnational programme of joint R&D in N&N. The commercial application of nano-materials (NMs) products is increasing rapidly, but one important question, the safety of NMs, still represents a barrier to their wide innovative use. Therefore the first priority of SIINN is to focus on developing a consolidated framework to address nano-related risks and the management of these risks for humans and the environment by investigating the toxicological behaviour of NMs. European R&D activities in N&N remain largely uncoordinated and fragmented, resulting in the sub-optimal use of available resources, such as human resources, research equipment and funding. Since available data on their toxicological behaviour is often scant, unreliable or contradictory, the SIINN Project will focus on ways of remedying this situation. After defining the criteria important for NM toxicology, the environmental health and safety (EHS) information currently available to Europe will be examined. Liaisons will strategically be established and maintained. They will network with organisations looking into the EHS of NMs within Europe and abroad with the aim of continually exchanging information with these. Available information will be examined for their reliability in respect of the assessment of the risks of NMs towards human health and to the environment and major knowledge gaps identified. At least two joint, transnational calls will be organised during the initial lifetime of SIINN in order to fill these gaps.
A reliable assessment of future climate impacts in Austria makes necessary to provide regional climate model (RCM) runs, and additional tasks to deliver high resolution downscaled datasets for past and future climate targeting the entire eastern alps covering Austria. The project reclip:more (Research for Climate Protection: Model Run Evaluation) is a cooperation of five academic institutions. The major scientific goals are: quantify the uncertainties of regional climate simulations elated to observed climate data, investigate the sensitivity of regional climate simulations and interpolated climate data to the influence of different model parameters and data processing techniques, deliver regional climate change scenarios at mesoscale and microscale resolutions for the eastern Alps covering Austria . To achieve this, data preparations, a set of common model experiments and data evaluations have to be carried out with sensitivity studies. In project year 1 (Nov. 2003 to June 2004, postponed to Oktober 2004) the reclip:more-teams focused on preparative work for the 10-year simulations, using ERA-40 data and ECHAM5 control runs of current climate from the 1990ies. Furthermore a huge number of sensitivity studies aiming at finding the optimal RCM-setup (e.g. extent and position of the nests, nesting strategy, parameterization, etc.) were made. Additionally, different examinations concerning further statistical downscaling and on the preparation of validation data and methods were done. To compare the model results with observation data, monitoring data sets for Austria and synoptic data sets for entire Europe have been prepared. In the 2nd year (Nov. 2004 to June to Oktober 2005) the emphasis lay on the retrospective model runs with the two RCMs and the re-analysis/GCM-datasets for 1981-1990. Also a number of short episode runs and 7 annual runs with different settings were evaluated. At the end a comprehensive benchmarking of the model-outputs was done. At the same time the prospective model runs were prepared. The second main topic was the development of downscaling techniques for the regionalization of observation data and model results in the Alpine region. Downscaling of model results for a resolution of 1 km have been derived for temperature, precipitation and solar radiation with terrain-related response variables (for irradiation additionally with radiation-physics-related numerical functions). For near-surface-wind a method was accomplished by dynamical downscaling via MM5 and CALMET. In year 3 the prospective model runs for 2041-2050 will follow. With the in PJ2 developed techniques the model results will be downscaled to 1km for three study regions in Austria . At the end the transient high resolution results and monitoring data will be provided to the interested climate community.
In spite of a variety of efforts, tropical forests are still threatened by exploitation and conversion to agricultural land-use. Besides legal protection, sustainable management concepts are essential for stable conservation of these ecosystems. This project aims at identifying and optimizing the potentials for forest management for three different ecosystems (Dry Forest, Tropical Mountain Rain Forest, Paramo) along a height- and climate gradient in Southern Ecuador. Therefore, multiple and locally differentiated aspects of forest management have to be considered: the direct provision of goods (timber and non-timber forest products) as well as ecosystem services (carbon sequestration, water regulation), which are of increasing importance; moreover, the effects of forest management on biodiversity and the impacts of climate change on resilience indicators and the potential distribution of selected species with high potential for sustainable management or conservation should be investigated. First of all, the most important forest structure types and possible improvements of management alternatives have to be identified at the three sites for the assessment of different management concepts. The alternatives will be tested on experimental field plots and consequently monitored for their impacts on the locally most important criteria of forest management. A sound decision support tool will be developed, taking into account uncertainties with regard to input parameters and the relevance of different criteria of forest management. Therefore, Multi Criteria Decision Analysis will be used to generate locally adapted management concepts for the different ecosystems. Those concepts should be able to consider the multiple functions of forest management and will represent the forestry component in sustainable land-use models. The comprehensive studies will be carried out in close cooperation with other scientific teams from Germany and Ecuador as well as local institutions of relevance for forest management. The direct involvement of Ecuadorian students and young academics and the integration of the investigations in educational concepts will contribute to capacity building and local efforts for the enhancement of environmental competencies. Moreover, the experimental field plots will serve in parts as demonstration objects for the implementation of sustainable forest management concepts.
There is widespread concern about how production and use of chemicals affect the environment. Yet food production and benefits of chemical products are vital for the functioning of European societies. In order to ensure sustainable use, EU regulations require extensive risk assessment before a chemical is approved for use. Current risk assessments focus on risk at the level of individual organisms, but according to EU directives the protection goal aims at achieving sustainable populations. Population-level effects depend not only on exposure and toxicity, but also on important ecological factors that are impossible to fully address empirically. Mechanistic effect models (MEMs) enable the integration of these factors, thus increasing the ecological relevance of risk assessments as well as providing vital understanding of how chemicals interact with ecosystems. Such understanding is crucial for improving risk mitigation strategies and ecosystem management. So far, however, regulators and industry have lacked understanding of the potential benefits that MEMs can deliver, and academics have been inconsistent in the approaches applied. This has led to scepticism about models, preventing a wider use of MEMs in risk assessment. Examples clearly demonstrating the power of MEMs for risk assessment are urgently needed, and industry, academia and regulatory authorities across Europe need scientists that are trained in both MEMs and regulatory risk assessment. CREAM will develop and experimentally validate a suite of MEMs for organisms relevant for chemical risk assessments. The consortium includes the main sectors involved (industry, academia, regulators) and will formulate Good Modelling Practice that will be followed in all individual projects, thus leading to consistency and transparency. CREAM will provide world class training for the next generation of ecological modellers, emphasizing transparency and rigorous model evaluation as core elements of the modelling process.
Objective: observatoryNANO brings together leading EU organizations who collectively have expertise in the technological; economic; societal/ethical; health, safety, and environmental analysis of nanotechnologies. Its primary aim is to develop appropriate methodologies to link scientific and technological development of nanotechnologies with socio-economic impacts. Both of these aspects will be enhanced by expert opinion, making this project unique in providing relevant web-based reports in a common format across all sectors, considered by all criteria, and widely publicized. observatoryNANO will become an industry leading and opinion forming catalyst for nanotechnology in the EU. The purpose is to avoid the exaggerated socio-economic impact of nanotechnologies and place developments in a realistic time-frame. It will present a reliable, complete, and responsible science-based and economic expert analysis of peer-reviewed literature, patents, national funding strategies, investment trends, and markets; in combination with information derived from questionnaires, interviews and workshops with academic and industry leaders, investors, and other key stakeholders.
ROBUST DSC aims to develop materials and manufacturing procedures for Dye Sensitized Solar Cells (DSC) with long lifetime and increased module efficiencies (7Prozent target). The project intends to accelerate the exploitation of the DSC technology in the energy supply market. The approach focuses on the development of large area, robust, 7Prozent efficient DSC modules using scalable, reproducible and commercially viable fabrication procedures. In parallel with this objective, more fundamental research, employing new materials and device configurations, will target increasing the efficiency of labscale DSC to 14Prozent. Progress on labscale devices will be fed directly into module development. The approach is based on the use of innovative low-cost materials, scalable manufacturing techniques, predictive device models and in-and outdoor lifetime testing. A sound and scientific understanding of the basic procedures to manufacture the cells and a thorough knowledge of the fundamental processes in the cell are important tools for our success. The partnership consists of: two SMEs (Orionsolar and G24i) that are committed to large-scale production of DSC, one industry (Corning) that has proven experience on inorganic frits for sealing of a variety of applications, three research institutes (ECN, IVF, FISE) with expertise in the field of long-term testing, up-scaling and module fabrication and four academic partners, world leaders in both new materials and concepts, and in fundamental research on cell function and modelling (EPFL, IMPERIAL, ICIQ, UAM). We anticipate that this project will result in the demonstration of a new scalable, low cost, photovoltaic technology. It will therefore form the basis of a potentially substantial business opportunity aiming at developing a new solar cell product with cost and payback characteristics strongly advantaged over existing technologies.
Wildfires are a major problem for many European societies threatening human lives and property with disastrous impacts particularly at the wildland-urban interface. On the other hand humans always used fire as a tool to regulate nature and traditional use of fire is known in many regions of Europe. The understanding of this paradox, is thus essential for finding solutions for integrated wildland fire management.This concept requires considering the various aspects of fire, from its use as a planned management practice (prescribed fire) to the initiation and propagation of unplanned fires (wildfires) and to the use of fire in fighting wildfires (suppression fire). Prescribed or suppression fires will therefore set the limits for wildfires by vontrolling their spatial extent, intensity and impacts. This is the main approach adopted aiming at the creation of the scientific and technological bases for new practices and policies under integrated wildland fire management and in the development of strategies for its implementation in Europe. Three major domains of related activities were considered: research, development and dissemination. In research, the project will focus on understanding the machanisms and modelling the processes associated with fire, from physics to biology and social sciences. Experimental and sampling methods will be used. The scientific and technical knowledge gathered will allow the development of a technological platform that will integrate the fire model, the temporal and spatial variability of fuels and weather, and the potential ecological and social-economical impacts. Documentation and demonstration platforms will also be extensively used for dissemination, focusing in the development of stategies for public awarness, academic and professional training using new communication technologies and networks, and for the implementation of new practices, policies and regulations under the concept of integrated wildland fire management. Prime Contractor: Universidade Tecnica de Lisboa, Instituto Superior de Agronomia; Lisboa; Portugal.
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