@inproceedings{BiedermannReichKameieretal.2018, author = {Biedermann, Till M. and Reich, Marius and Kameier, Frank and Adam, Mario and Paschereit, C.}, title = {Assessment of Statistical Sampling Methods and Approximation Models Applied to Aeroacoustic and Vibroacoustic Problem}, series = {NOVEM - 6th conference on Noise and Vibration emerging methods, 07.-09.05.2018, Ibiza / Spain}, booktitle = {NOVEM - 6th conference on Noise and Vibration emerging methods, 07.-09.05.2018, Ibiza / Spain}, address = {Ibiza}, year = {2018}, language = {en} } @inproceedings{MarszalBourelleMusalletal.2010, author = {Marszal, Anna Joanna and Bourelle, Julien S. and Musall, Eike and Heiselberg, Per and Gustavsen, Arild and Voss, Karsten}, title = {Net Zero Energy Buildings - Calculation Methodologies versus National Building Codes}, series = {EuroSun Conference 2010, Graz, 28.9-30.9.2010}, booktitle = {EuroSun Conference 2010, Graz, 28.9-30.9.2010}, address = {Graz}, year = {2010}, abstract = {The international cooperation project IEA SHC Task 40 / ECBCS Annex 52 "Towards Net Zero Energy Solar Buildings", attempts to develop a common understanding and to set up the basis for an international definition framework of Net Zero Energy Buildings (Net ZEBs). Th e understanding of such buildings and how the Net ZEB status should be calculated differs in most countries. This paper presents an overview of Net ZEBs energy calculation methodologies proposed by organisations representing eight different countries: Austria, Canada, Denmark, Germany, Italy, Norway, Switzerland and the USA. The different parameters used in the calculations are discussed and the various renewable supply options considered in the methodologies are summarised graphically. Thus, the paper helps to understand different existing approaches to calculate energy balance in Net ZEBs, highlights the importance of variables selection and identify possible renewable energy supply options which may be considered in calculations. Finally, the gap between the methodology proposed by each organisation and their respective national building code is assessed; providing an overview of the possible changes building codes will need to undergo in the coming years.}, language = {en} } @article{MarszalHeiselbergBourelleetal.2011, author = {Marszal, Anna Joanna and Heiselberg, Per and Bourelle, Julien S. and Musall, Eike and Voss, Karsten and Sartori, Igor and Napolitano, Assunta}, title = {Zero Energy Building - A Review of definitions and calculation methodologies}, series = {Energy and Buildings}, volume = {43}, journal = {Energy and Buildings}, number = {4}, publisher = {Elsevier}, pages = {971 -- 979}, year = {2011}, abstract = {The concept of Zero Energy Building (ZEB) has gained wide international attention during last few years and is now seen as the future target for the design of buildings. However, before being fully implemented in the national building codes and international standards, the ZEB concept requires clear and consistent definition and a commonly agreed energy calculation methodology. The most important issues that should be given special attention before developing anewZEB definition are: (1) the metric of the balance, (2) the balancing period, (3) the type of energy use included in the balance, (4) the type of energy balance, (5) the accepted renewable energy supply options, (6) the connection to the energy infrastructure and (7) the requirements for the energy efficiency, the indoor climate and in case of gird connected ZEB for the building-grid interaction. This paper focuses on the review of the most of the existing ZEB definitions and the various approaches towards possible ZEB calculation methodologies. It presents and discusses possible answers to the abovementioned issues in order to facilitate the development of a consistent ZEB definition and a robust energy calculation methodology.}, language = {en} } @incollection{AeleneiAeleneiGoncalvesetal.2012, author = {Aelenei, Laura and Aelenei, Daniel and Gon{\c{c}}alves, Helder and Lollini, Roberto and Musall, Eike and Scognamiglio, Alessandra and Cubi, Eduard and Noguchi, Masa}, title = {Design Issues for Net Zero-Energy Buildings}, series = {ZEMCH 2012 International Conference Proceedings}, booktitle = {ZEMCH 2012 International Conference Proceedings}, editor = {Noguchi, Masa}, publisher = {ZEMCH Network}, address = {Glasgow}, isbn = {978-0-9574189-0-5}, pages = {37 -- 48}, year = {2012}, abstract = {Net Zero-Energy Buildings (NZEBs) have received increased attention in recent years as a result of constant concerns for energy supply constraints, decreasing energy resources, increasing energy costs and rising impact of greenhouse gases on world climate. Promoting whole, building strategies that employ passive measures with energy efficient systems and technologies using renewable energy, became a European political strategy since the publication of the Energy Performance of Buildings Directive recast in May 2010 by the European Parliament and Council. Designing successful NZEBs however, represents a challenge since the definitions are yet generic assessment method and monitoring approach are under development and the literature is relatively scarce about the best sets of solutions for different typologies and climates likely to deliver an actual and reliable performance in terms of energy balance (consumed vs generated) on a cost-effective basis. Beside this, the lessons learned from already built NZEBs examples are relatively scarce. The authors of this paper, who are participants in the IEA SHC Task 40-ECBCS Annex 52, "Towards Net Zero Energy Solar Buildings", are willing to share insights from on-going research work on some best practice leading NZEBs residential buildings. Although there is no standard approach for designing a Net Zero-Energy Building (there are many different possible combinations of passive and efficient active measures, utility equipment and on-site energy generation technologies able to achieve the net-zero energy performance), a close examination of the chosen strategies and the relative performance indicators of the selected case studies reveal that it is possible to achieve zero-energy performance using well known strategies adjusted accordingly to balance climate driven-demand for space heating/cooling, lighting, ventilation and others energy uses with climate-driven supply from renewable energy resources.}, language = {en} } @inproceedings{ScognamiglioMusallRostvik2012, author = {Scognamiglio, Alessandra and Musall, Eike and R{\o}stvik, Harald N.}, title = {Photovoltaics and (Nearly) Nez Zero Energy Buildings: Architectural Considerations}, series = {ZEMCH 2012 International Conference Proceedings}, booktitle = {ZEMCH 2012 International Conference Proceedings}, editor = {Noguchi, Masa}, publisher = {ZEMCH Network}, address = {Glasgow}, isbn = {978-0-9574189-0-5}, pages = {301 -- 318}, year = {2012}, abstract = {The energy topic has become increasingly important in architecture: since buildings are big consumers of energy and architects and the public are interested in energy as never before. [Scognamiglio 2008] The Energy Performance of Building Directive (EPBD) [EU 2010] establishes that starting from 31st December 2020 all new buildings have to be Nearly Zero Energy. The main architectural implication for this condition is that if up until now the domain of design was the building itself, now it is the building and possibly other spaces, that have to be conceived for placing the energy generation devices. Photovoltaics (PV) is particularly suited for reaching the (Nearly) Net ZEB status, due to its technical features, the existing knowledge on how to use PV in buildings, and since it is the easiest and most reliable way to get the (Nearly) Net Zero Energy objectives. [Torcellini 2006] A relevant international effort on the subject of the Net Zero Energy Buildings (Net ZEBs) - Net ZEB meaning that the buildings are connected to an energy infrastructure - is ongoing in the International Energy Agency (IEA), joint Solar Heating and Cooling (SHC) Task 40 and Energy Conservation in Buildings and Community Systems (ECBCS) Annex 52, titled "Towards Net Zero Energy Solar Buildings" [IEA 2008a]. The authors of this paper, all participating in the IEA research group, investigate how the use of PV for Net ZEBs can influence the building's design, taking into account different building typologies (e. g. new ones vs. existing ones, listed buildings, etc.). Similarities and differences between PV and Solar Thermal (ST) are discussed, too. The paper results in defining some architectural issues for using PV in NZEBs design, which implie to re-think the way buildings are designed.}, language = {en} } @article{VossMusallLichtmess2011, author = {Voss, Karsten and Musall, Eike and Lichtmeß, Markus}, title = {From Low Energy to Net Zero-Energy Buildings: Status and Perspectives}, series = {Journal of Green Building}, volume = {6}, journal = {Journal of Green Building}, number = {1}, publisher = {College Publishing}, doi = {10.3992/jgb.6.1.46}, pages = {46 -- 57}, year = {2011}, abstract = {"Net Zero-Energy Building" has become a popular catchphrase to describe the synergy between energy-efficient building and renewable energy utilisation to achieve a balanced energy budget over an annual cycle. Taking into account the energy exchange with a grid overcomes the limitations of energy-autonomous buildings with the need for seasonal energy storage on-site. Although the expression, "Net Zero-Energy Building," appears in many energy policy documents, a harmonised definition or a standardised balancing method is still lacking. This paper reports on the background and the various effects influencing the energy balance approach. After discussing the national energy code framework in Germany, a harmonised terminology and balancing procedure is proposed. The procedure takes not only the energy balance but also energy efficiency and load matching into account.}, language = {en} } @inproceedings{AeleneiAeleneiMusalletal.2013, author = {Aelenei, Daniel and Aelenei, Laura and Musall, Eike and Cubi, Eduard and Ayoub, Joseph and Belleri, Annamaria}, title = {Design Strategies for Non-Residential Zero-Energy Buildings}, series = {Clima 2013.Proceedings of CLIMA 2013 - The 11th REHVA World Congress and the 8th International Conference on Indoor Air Quality, Ventilation and Energy Conservation in Buildings}, booktitle = {Clima 2013.Proceedings of CLIMA 2013 - The 11th REHVA World Congress and the 8th International Conference on Indoor Air Quality, Ventilation and Energy Conservation in Buildings}, publisher = {Society of Environmental Engineering}, address = {Prag}, organization = {Society of Environmental Engineering}, isbn = {978-80-260-4001-9}, pages = {5414 -- 5423}, year = {2013}, language = {en} } @techreport{HermelinkSchimscharBoermansetal.2013, author = {Hermelink, Andreas and Schimschar, Sven and Boermans, Thomas and Pagliano, Lorenzo and Zangheri, Paolo and Armani, Roberto and Voss, Karsten and Musall, Eike}, title = {Towards nearly zero-energy buildings}, editor = {Ecofys by order of European Commission,}, publisher = {Europ{\"a}ische Kommission}, address = {K{\"o}ln}, organization = {Europ{\"a}ische Kommission}, year = {2013}, language = {en} } @inproceedings{MusallVoss2012, author = {Musall, Eike and Voss, Karsten}, title = {The Passive House Concept as Suitable Basis towards Net Zero Energy Buildings}, series = {Tagungsband / 16. Internationale Passivhaustagung 2012, 4. - 5. Mai 2012, Hannover}, booktitle = {Tagungsband / 16. Internationale Passivhaustagung 2012, 4. - 5. Mai 2012, Hannover}, editor = {Feist, Wolfgang}, publisher = {Passivhaus-Inst.}, address = {Darmstadt}, organization = {Passivhaus-Institut; Internationale Passivhaustagung}, isbn = {978-3-00-037721-1}, pages = {271 -- 276}, year = {2012}, language = {en} } @article{GlembinAdamDeidertetal.2012, author = {Glembin, Jens and Adam, Mario and Deidert, J{\"o}rn and Jagnow, Kati and Rockendorf, Gunter and Wirth, Hans Peter}, title = {Simulation and Evaluation of Different Boiler Implementations and Configurations in Solar Thermal Combi Systems}, series = {Energy Procedia}, volume = {30}, journal = {Energy Procedia}, publisher = {Elsevier}, doi = {10.1016/j.egypro.2012.11.070}, url = {http://nbn-resolving.de/urn:nbn:de:hbz:due62-opus-27350}, pages = {601 -- 610}, year = {2012}, language = {en} }