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Das Filmkostüm ist ein vergleichsweise wenig untersuchtes diegetisches Gestaltungsmittel. Im Besonderen mangelt es an einem übergreifenden Konzept, Kostüme systematisch beschreibbar und damit, über Einzelfilmanalysen hinaus, analysierbar zu machen. Der MUSE Datensatz will diese Lücke schließen und stellt detaillierte, in eine umfassende Ontologie eingebettete Daten über Filmkostüme zur Verfügung. Die Kostümdaten enthalten sowohl Daten zu den Kostümen selber, zu den einzelnen Kleidungsstücken, den Attributen wie Farbe, Materialien, Zustand und deren Zusammenstellung, wie auch kontextualisierende Daten zu deren Vorkommen im Film., Film costumes as diegetic design elements are only rudimentarily explored. There is especially a lack of an overarching concept to make costumes describable in a systematic way and thus analysable beyond individual film analyses. The MUSE dataset aims to fill this gap by providing detailed data on film costumes embedded in a comprehensive ontology. The costume data set contains both, data on the pieces of clothes that compose the costume, their arrangement, and their attributes such as colour, materials, and condition, as well as contextualizing data on the occurrence of the costumes in the film and the role wearing the costume., Fabrikation von Erkenntnis – Experimente in den Digital Humanities. Hg. von Manuel Burghardt, Lisa Dieckmann, Timo Steyer, Peer Trilcke, Niels Walkowski, Joëlle Weis, Ulrike Wuttke. Wolfenbüttel 2021—2022. (= Zeitschrift für digitale Geisteswissenschaften / Sonderbände, 5)

Many projects in the digital humanities need specialized tools to store and work with their data. MUSE is a digital humanities project researching film costume patterns that uses a custom-built data repository. MUSE4Music is another digital humanities project following the methodology from MUSE. Because the data for the MUSE4Music project has a different structure, a completely new custom data repository had to be built. Although the methodology used in both projects is generic, the tools used are not. Building a custom data repository for a similar project requires a huge upfront investment. A generic data repository could solve this problem and enable a variety of different projects that use similar methods as the MUSE project. This thesis is about the development of such a generic MUSE4Anything repository. Experiences from both the MUSE and MUSE4Music project are used to inform the implementation. The MUSE4Anything repository supports completely user definable ontologies. For this purpose the MUSE4Anything repository contains a taxonomy editor and an editor for the object types of the ontology., Viele Projekte in den Digital Humanities brauchen spezialisierte Werkzeuge um ihre Daten zu speichern und zu verwalten. MUSE ist ein Projekt der Digital Humanites, das Muster in Filmkostümen mithilfe eines speziell angefertigten Daten-Repositorys erforscht. MUSE4Music ist ein weiteres Projekt der Digital Humanites, das die Methoden von MUSE verwendet. Weil die Form der Daten des MUSE4Music Projekts anders ist, musste ein neues auf MUSE4Music angepasstes Daten-Repository angefertigt werden. Obwohl die Methodik beider Projekte generisch ist, sind die Werkzeuge Spezialanfertigungen. Ein speziell angefertigten Daten-Repository zu erstellen erfordert einen großen Einsatz. Dieses Problem kann durch ein generisches Daten-Repository, das unterschiedliche Projekte die die Methodik von MUSE anwenden ermöglicht, gelöst werden. Diese Masterarbeit handelt von der Entwicklung eines solchen generischen Daten-Repositorys, MUSE4Anything. Erfahrungen von MUSE und MUSE4Music werden als Grundlage für das Design von MUSE4Anything genutzt. Das MUSE4Anything Repository unterstützt vollständig benutzerdefinierte Ontologien. Dafür enthält es einen Editor für Taxonomien und einen Editor für die Datentypen von Objekten der Ontologie.

EtipSnet is issuing this White Paper on a transversal topic currently high in R&D and Innovation agendas across Europe and beyond. The purpose is to contribute to the debate with sound, unbiased information and future outlooks from experts spanning the wide and articulated knowledge base constituing the EtipSnet platform. As per definition of White Paper, no specific positions are taken towards or against each technology or process; rather, the objetives are: - to establish a shared ground of definitions, concepts and common language/understandings on the topic; - to propose a structured mindset for analysing in a consistent way the projects proposed in the framework of sector coupling and to assess the relevant business cases; - contents-wise, to provide the state-of-the-art and perspective of conversion and end-use technologies; - to give an outlook at the potential application deployment in the horizon of RD&I Roadmap; - possibly, to identify at early stage the barriers to deployment, both technical and non-technical; - to present some use-cases. The target audience is therefore the energy R&D community in wide sense, decision makers, grid operators, project proponents, companies and utilities involved in the set-up of projects in this field.

Large-scale heat pumps (HPs) are proposed as a technology to efficiently utilize intermittent wind power and other renewable sources. More than 25 large-scale HPs have been installed over the past decade to supply district heating (DH) in Denmark. A continuous increase is expected in the coming years. The HP projects differ in size, configuration, components and heat source. All these have an impact on the investment costs, which poses challenges for estimating costs, e.g. when planning new HP projects. For this paper, the investment costs of existing and planned electrically driven large-scale HPs were analyzed. All analyzed HPs use natural refrigerants and supply DH in Denmark. The total investment costs were divided into different categories to identify cost correlations for each of them depending on the heat source and HP capacity. The developed cost correlations were combined and verified by comparing the resulting correlations with the total investment costs of the considered HPs. Different intervals of the specific total investment costs for HPs depending on the heat source and HP capacity were derived. They identified the most and least expensive heat sources for HP capacities between 0.5 MW and 10 MW. It was shown that a considerable amount (~50 %) of the investment costs was placed on other parts than the HP itself.

The industry sector has an important role in decarbonising the energy system, as recognised by the European Commission in their 2050 roadmap to a low carbon economy. It has a high share in the final energy use of the European Union, which in 2016 relied heavily on fossil fuels. A shift to a more sustainable energy use is thus needed, requiring both an increased share of renewable energy and a reduction in energy use.In this thesis the manufacturing industry was analysed to show its potential to improve energy use on an energy system and process level. For this purpose the inefficiencies of the industry sector of Denmark were taken as an example and quantified using energy and exergy methods. The developed models were used to quantify the amount of industrial excess heat. Based on these mappings, the potential for recovering and exploiting excess heat was analysed, which required the development of new methods to locate potentials. The methods included spatial, temporal and economic elements to have a realistic assessment of national potentials. This was complemented with multiple case studies, for which the model input uncertainties were taken into account. The second part of the thesis considered specific production processes and methods for assessing them. For the case study of a milk powder production system, different engineering and advanced thermodynamic methods were used for the analysis. The different methods, which include pinch and exergy analyses, located and quantified different optimisation potentials, which were compared against each other. At last, specific optimisation opportunities were identified and evaluated. These consisted of a retrofit heat exchanger network and the integration of heat pumps and solar thermal energy.The results show that the energy efficiency of the Danish manufacturing industry was 80 % and only 72 % when taking the utility system into account. The losses are often in the form of recoverable excess heat. It was found that 1.5 TWh of excess heat could be cost-effectively used for district heating. The tool developed for the case studies enables to overcome some of the barriers for the utilisation of excess heat. It assesses heat sources and possible uses considering the uncertainties and determining important model parameters.The analysis of the dairy factory resulted in potentials for improvement and highlighted merits and drawbacks of the applied methods. The advanced methods allowed for a thorough analysis of components and interactions amongst each other, the engineering approach is quick to indicate possible improvement but requires experience. The specific improvement suggestions show that it is technically and economically possible to reduce energy use by means of heat integration and to partly replace the hot and cold utilities with more sustainable ones.

This report contains an evaluation of the potential waste heat sources in Denmark. The evaluation is based on data from Statistics Denmark on the 15 Danish sectors (the 15 sectors are grouped in five categories that have similar consumption/production patterns). Besides the 15 sectors, the accessible heat from three natural energy sources is also included in the evaluation. The quantification of the potential waste heat is based on a number of approaches such as, professional experience within Viegand Maagøe, input from project partners, theoretical calculations, case studies, input from suppliers, input from end-users etc.It must be emphasized that the total energy consumption used in this study covers all end-users and utility companies and therefore the total energy consumption can be higher than what can be found in other statistic. By including both utility companies and end-users a double counting of net energy input can occur, if e.g. the output from the utility company is used as energy input to the end-users.The total potential for heat recovery is calculated to 212 PJ per year (excluding natural energy sources) which correspond to 13% of the net energy input for end users and producers.The large potential is firstly within the transport (36%), secondly within utility (28%), industry (23%), buildings (11%) and finally the construction sector where the potential is relatively small.The potential for waste heat in the transport sector originates from exhaust gas (high temper-ature from 200°C to 400°C), engine and charge air cooling (low temperature below 80°C).In the utility sector, 43 % of the waste heat originates from condensate from steam power plants which is accessible at a temperature of 20 °C. The remaining 57 % of the waste heat originates primarily from exhaust gas at temperatures from 120°C to 180 °C.In the industrial sector 91 % of the waste heat is accessible at temperatures below 100°C. The low temperature waste heat originates mainly from evaporation, distillation, cooling/refrigeration and space heating.In the building sector the all the waste heat is accessible at temperatures below 100°C and originate primarily from refrigeration/cooling and exhaust from boilers.The potential of waste heat in the construction sector is estimated to be relatively low due the fact the majority of the installations are temporary.The potential for utilising “waste heat” from natural resources is theoretically close to infinite, but economically unfeasible. At the stage of completing the report, there has not been sufficient information to evaluate the low temperature potential that is also economically feasible, so the focus in this report is primarily regarding the temperatures from these natural resources. Solar can supply heat at temperatures up to 100°C, geothermal energy can supply heat at temperatures up to 90 °C and air/water average around 2°C during colder seasons and 17 °C in warmer seasons.When looking across all the sectors there are two major energy sources. One of them origi-nates from cooling/refrigeration, condensate and various industrial processes all below 60 °C and the other major waste heat source comes in the form of exhaust gas from various com-bustion and heating processes.