Programm Photovoltaik Ausgabe 2009 ... - Bundesamt für Energie BFE

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5/8 Work Performed and Results Achieved Information exchange – structured and continued The first step in the project towards transnational cooperation was information exchange. Presentations, reports, peer reviews and workshops were means to learning from other’s programmes. Each country reported on its programme(s) with respect to contents, approach, context and international orientation. In a first step, comprehensive information has been made available by describing their (sub-) programmes dealing with PV RTD based on a common structure with the following key topics: � Programme Contents: key features, objectives, priorities, budgets and spends, overview over projects and other PV RTD activities � Programme Approach: general strategy on the programme level, assessment and evaluation of the programme, funding, procedure from proposal to project, dissemination and communication, technology transfer, good practice and lessons learnt � Programme Context: community, interaction and stakeholder involvement, framework and environment, international orientation, current transnational activities, future transnational activities and opportunities as well as barriers and gaps Figure 2: PV ERA NET Survey Report edited on a yearly basis. Database for PV RTD Projects A specific database was developed for collecting information on PV RTD projects. This database facilitates considerably the exchange of information on ongoing research and expertise. Currently, there are around 350 PV RTD projects assessed in the database. Figure 3: The PV ERA NET projects database assesses PV RTD projects in all PV ERA NET states according to a common structure, e.g. projects are categorised along ten main topics and roughly 100 subtopics which facilitates targeted search functions. PV ERA NET, S. Nowak, NET Nowak Energy & Technology 287/290
Topical Areas: Complementarities, Gaps and Opportunities The results of the analysis on subjects and (around 100) sub-topics was presented in synoptic tables. The different sets of subjects and topics with the qualified marks provided by the partners show a wide range of potential complementarities, gaps and opportunities. They can be subdivided into the following three basic categories potentially interesting for joint transnational activities: 1. Thematic areas that are of crosscutting nature and hence by definition of transnational relevance. They most likely relate to system oriented research (examples: balance of systems, grid-connected systems, stand alone systems, grid integration and storage, supportive research). For this category, the aspect of complementarities between national approaches prevails; tackling these issues on a transnational level can have direct benefits for standardisation and cost reduction. 2. Thematic areas which are either sub-critical on the national level and/or scattered across Europe. They mostly relate to new concepts and, more generally speaking, interdisciplinary subjects (examples: polymer and organic solar cells, basic R&D). In this category, the existing gaps between individually (on a national level) developed approaches can be addressed. 3. Finally, a third category can be identified for very specific thematic subjects in mostly well established areas. By their nature, such subjects are more of ad-hoc nature and can best be addressed individually on a case-by-case basis (examples: specific needs for analytical methods, access to special technologies, vertical complementarities along the value chain). In this category, complementarities can be addressed specifically, e.g. through clustering of activities and projects. Common interest can be found for various reasons. For instance, competences in different states can be complementary and mutually strengthen competences in these countries. Or a topic can reach critical mass. The overall picture indicates an important potential for joint transnational activities thanks to i) the expected complementarities in order to mutually improve competences, or ii) to opening new opportunities in fields where individual programmes can (virtually) pool (and maybe increase) their resources in order to reach critical mass. This actually shows that there is considerable potential to strengthen both individual research programmes and PV research in Europe as a whole. This can help overcome the two main weaknesses in the European RTD landscape, i.e. fragmentation of national R&D programmes and (too slow) technology transfer from research to application. Cooperation offers here use of untapped synergies and effectively addressing key issues in research and technology development. Based on this analysis, the subject of Polymer and Molecular Solar Photovoltaic Cells and Modules was selected for a pilot Joint Call that was prepared and launched in 2007. Further topics have been identified for future, transnationally implemented PV RTD activities (e.g. standardisation, grid issues). Joint Call Launching a Joint Call is a crucial element in the ERA NET project and was one of the key activities in the previous year 2007. Major challenges arise due to the fact that different programmes of various nature, e.g. with their evaluation criteria and funding rules, come together. Even basic elements can pose certain difficulty, e.g. a common timeline between different programmes with various call dates and systems. In a Joint Call Laboratory, the consortium elaborated on the framework for the call. A full set of guidelines and forms was developed to be implemented by all programmes involved. A dedicated transnational call “POLYMOL” on Polymer and Molecular Solar Photovoltaic Cells and Modules was finally launched in September 2007 with the participation of Denmark, Flanders (Belgium), The Netherlands, Spain (which joined POLYMOL later in the process), Sweden, Switzerland and the United Kingdom. Nine preproposals respectively eight full proposals were submitted in 2008. Through an evaluation procedure carried out both on a national and transnational level, all proposals were ranked and, finally, four proposals were recommended for funding. Despite the use of common procedures and documents, national rules still apply and prevail mainly for legal reasons. Swiss researcher groups are involved in (the first) two out of four POLYMOL projects: � APOLLO, Efficient Areal Organic Solar Cells via Printing � HIOS-Cell, Nanoscale structuring of heterojunction ionic organic solar cells by liquid-liquid dewetting � POLarge, Polymer solar cells; stabilised morphology and upscaling � PolyStaR, Novel materials and processes for polymer solar cells with improved stability and reliability PV ERA NET, S. Nowak, NET Nowak Energy & Technology 288/290 6/8
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Forschung, April 2009 Programm Phot
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Programm Photovoltaik Ausgabe 2009
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B. Ruhstaller, R. Häusermann, N. A
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PROGRAMM PHOTOVOLTAIK Eidgenössisc
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1. Programmschwerpunkte und anvisie
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Eine zweite Kategorie von Projekten
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Im Integrierten EU-Projekt ATHLET [
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Figur 3: Prototyp eines monolithisc
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SOLARMODULE UND GEBÄUDEINTEGRATION
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BEGLEITENDE THEMEN Das PSI beteilig
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Programme abgeschlossen. Die erste
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Messkampagnen - Messkampagne Wittig
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zielführend eingesetzt werden. Das
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[43] P. Renaud, L. Perret, (pierre.
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11. Verwendete Abkürzungen (inkl.
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D. Güttler, S. Bücheler, S. Seyrl
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Goals of the project The global pro
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1.2. Comparison of ZnO and SiOx int
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2. Processes 2.1. Microcrystalline
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3.2. Amorphous/amorphous silicon ta
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Fig.14: TEM cross section microcrys
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EQE 1.0 0.8 0.6 0.4 0.2 12.4 11.7 1
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4.7 Summary and perspectives for wo
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Acknowledgements We thank all the P
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Goals of the project The goals of t
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Eidgenössisches Departement für U
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3/3 on the front side. All the laye
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Introduction / Project Goals Prior
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3/4 Effective light trapping scheme
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Département fédéral de l’envir
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3/6 The Athlet consortium comprises
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5/6 Large area thin-film silicon ce
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3/4 Der verbesserte Lichteinfang is
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3/5 Results Microstructure characte
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5/5 Mechanical testing: The mechani
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Introduction / Project goals The fo
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Optimization of CdS chemical bath d
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Fig. 5: J-V curve (left) and extern
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3/7 Work performed and results achi
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5/7 Fig. 3: Raman spectra recorded
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7/7 Measurements of solar cells per
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Introduction / project objectives T
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Optimum Na dosage Sodium layer with
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application might become more impor
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In a second experiment the amount o
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3/9 After optimizing the In2S3 buff
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5/9 Indium sulfide layer characteri
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7/9 3) Semitransparent CIGS solar c
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9/9 Steps towards multi-junction so
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Figure 2: SEM picture of laser-abla
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Work progress and achievements duri
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Furthermore, with a good reproducib
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Main achievements - The association
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Introduction Dye-sensitized solar c
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3/4 So far, experiments were perfor
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3/5 Tasks of the collaboration part
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5/5 Figure 4: Maximum achievable sh
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Project Goals The goal is the estab
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Evaluation 2008 and Outlook 2009 L'
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Project Goals NAPOLYDE industrials
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� Organic large solar panel and
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Materials such as the conductive ca
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National and international collabor
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Project Goals The aim of FULLSPECTR
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In addition, every two years, the P
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The table below show the change of
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The table below shows the change of
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4. The UV-A tests with PMMA films c
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Introduction / Project Goals The co
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Fig. 4. Schematic illustration of a
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THINPV Eidgenössisches Departement
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3/6 IR laser source Pumping line IR
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5/6 Figure 2: Scheme of a monolithi
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PECNET Eidgenössisches Departement
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3/10 Projektziele Dieses Forschungs
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5/10 und mit Stichworten katalogisi
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7/10 einer Vorverpflichtung mit rel
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9/10 NanoPEC Partner IEA HIA Annex
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Module und Gebäudeintegration T. S
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Einleitung / Projektziele Obwohl be
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ULTRALIGHT PHOTOVOLTAIC STRUCTURES
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3/8 Task 2. Encapsulation of Si-bas
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5/8 Figure 9: polyester/glass fiber
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7/8 Figure 16: Flexible DSCmodule F
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Systemtechnik D. Chianese, N. Cereg
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Aim of the project The aim of the
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The short circuit current of each P
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TEST cycle 11 In 2008 a new 15 mont
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Evaluation 2008 and prospects for 2
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1. Traceable performance measuremen
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formed with two standard halogen la
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3. Modelling and analysis (SP4) 3.1
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Figure 3 shows a summary of the RR
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Projektziele für 2008 � Fortfüh
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Interessant ist die Beobachtung, da
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Wechselrichtertests Im Bereich der
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Stress limits for bypass diodes for
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Objectives SoS-PV (Security of Supp
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Finally, strategies for demand side
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~ Mains terminal Synchronisation &
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International collaboration SoS-PVi
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Programm Photovoltaik Ausgabe 2009 ... - Bundesamt für Energie BFE

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