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Die klimatischen Veränderungen unserer Erde betreffen alle mit der Natur in Verbindungstehenden Prozesse und daher auch die Pflanzen- und Tierwelt massiv. Die erhöhten Temperaturen wirken sich besonders auf den landwirtschaftlichen Sektor und somit auch auf die Weinanbaugebiete aus, da sie den Reifeprozess der Trauben beschleunigen und Produktionsabläufe verändern. Diese Umstände werden in Zukunft eine Verschiebung der klimatischen Idealbedingungen und der Weinbaugebiete in den Norden Europas nach sich ziehen. Das Konzept der vorliegenden Arbeit beruht auf der nachhaltigen Grundidee, ein Weingut in stufenweisen Abschnitten auf der Insel Ærøin Dänemark zu realisieren, das eine zukunftsweisende Architektur schafft. Besonderer Wert wird auf die Ausarbeitung eines dreistufigen Plans mit zukünftiger Erweiterung gelegt. Außerdem beschäftigt sich diese Arbeit mit dem behutsamen Umgang eines Teils des Bestandsgebäudes(Dreikanthof) im Hinblick auf gerechte Sanierung und Umnutzung für touristische und wirtschaftliche Zwecke. Parallel zu dieser Diplomarbeit entstand eine zweite Arbeit von Hanna Jensen(„Weinerlebnis im hohen Norden - Planung eines Weinguts auf der Insel Ærø unter dem Aspekt der Nachhaltigkeit”),die sich mit demselben Weingut beschäftigt, allerdings andere Schwerpunktesetzt. Die Diplomarbeiten ergänzen sich, können aber auch für sich alleine stehen. Der Entwurf wurde teilweise gemeinsam ausgearbeitet. The climatic changes affecting our planet have a massive impact on all nature-related processes and therefore also on the flora and fauna. The increasing temperatures are affecting the agricultural sector and consequently also the wine-growing areas, as they accelerate the ripening process of the grapes and change production processes. In the future, these circumstances will result in a relocation of the ideal climatic conditions and winegrowing areas to the north of Europe. The concept of this thesis is based on the sustainable idea of realising a winery in stepby-step sequences on the island of Ærøin Denmark, creating a future-oriented architecture. Particular emphasis is placedon the elaboration of a three-stage plan with future expansion. In addition, this work deals with the careful handling of part of the existing building (three-corneredcourtyard) with regard to fair renovationand conversion for tourist and economic purposes.Parallel to this thesis, a second thesis was written by Hanna Jensen (“Wine experiencein the far north - planning a winery on the island of Ærø with focus on sustainability”),which deals with the same winery, but has a different focus. The diploma theses complement each other, but are also able to work independently. The design was partly worked out together.

This article describes two greenhouse gas (GHG) emission scenarios covering the period 1990–2100. The first of these, the B2 scenario, is a successful attempt to provide an internally consistent quantification—checked by the computer models Scenario Generator (SG), MESSAGE, MACRO, and MAGICC—of key variables describing a plausible but unremarkable “storyline” that complements the other storylines discussed in this special issue of Technological Forecasting and Social Change. In the B2 scenario global carbon emissions from energy use and industrial sources rise from 6.5 gigatons of carbon (GtC) in 1990 to 14.2 GtC in 2100. Primary energy use climbs from 350 exajoules (EJ) to 1360 EJ. The global primary energy structure shifts away from gas and oil (28% in 2100 compared to 55% in 1990) and toward non-fossil energy sources (50% in 2100 compared in 18% in 1990). The share of coal is 22% in 2100, only four percentage points lower than in 1990. Among regions there are significant variations in the primary energy structure. Synthetic liquid fuel production grows to 330 EJ in 2100, driven largely by assumptions about the long-term decline of oil and a continuation in current trends towards increasingly flexible, convenient, and cleaner forms of final energy. On the global level sulfur emissions decline from 63 megatons of sulfur (MtS) in 1990 to 43 MtS in 2100. Radiative forcing grows by approximately 1% per year from 1990 through 2100. The “best guess” temperature change (assumed climate sensitivity = 2.5°C) associated with this increase in radiative forcing is 2°C in 2100. The B2S550 scenario is a variation of the B2 scenario constrained to stabilize the atmospheric carbon concentration below 550 parts per million by volume (ppmv). Carbon emissions in the B2S550 scenario peak in 2040 at 10.7 GtC, before dropping to 5.5 GtC by 2100. Roughly 40% of the 8.7 GtC difference in 2100 between the B2 scenario and the B2S550 scenario is due to fuel switching, primarily away from coal. 32% is from carbon scrubbing, 14% is due to price-induced energy demand reductions, and 12% is from hydrogen injection into the natural gas system. The B2S550 scenario's radiative forcing in 2100 is 8% lower than that of the B2 scenario, and its best guess temperature change is 0.2°C lower.

Los nuevos sistemas inteligentes para ayudar a la transición energética y mejorar la sostenibilidad y la vida de las personas se pueden implementar a diferentes escalas, desde una casa hasta una región entera. Los campus universitarios son un tamaño intermedio interesante (lo suficientemente grande como para importar y lo suficientemente pequeño como para ser manejable) para la investigación, el desarrollo, las pruebas y la capacitación sobre la integración de la inteligencia en todos los niveles, lo que llevó a la aparición del concepto de "campus inteligente" en los últimos años. Este artículo de revisión propone un amplio análisis de la literatura científica sobre campus inteligentes de la última década (2010-2020). Las 182 publicaciones seleccionadas se distribuyen en siete categorías de inteligencia: edificio inteligente, entorno inteligente, movilidad inteligente, vida inteligente, personas inteligentes, gobierno inteligente y datos inteligentes. Las principales preguntas y desafíos abiertos con respecto a los campus inteligentes se presentan al final de la revisión y abordan la sostenibilidad y la transición energética, la aceptabilidad y la ética, los modelos de aprendizaje, las políticas de datos abiertos y la interoperabilidad. El presente trabajo se realizó en el marco de la Red de Energía de la Cumbre de Líderes Regionales (RLS-Energy) como parte de sus esfuerzos de investigación multilateral sobre regiones inteligentes. De nouveaux systèmes intelligents pour aider à la transition énergétique et améliorer la durabilité et la vie des gens peuvent être déployés à différentes échelles, allant d'une maison à une région entière. Les campus universitaires sont une taille intermédiaire intéressante (assez grande pour compter et assez petite pour être maniable) pour la recherche, le développement, les tests et la formation sur l'intégration de l'intelligence à tous les niveaux, ce qui a conduit à l'émergence du concept de « campus intelligent » au cours des dernières années. Cet article de synthèse propose une analyse approfondie de la littérature scientifique sur les campus intelligents de la dernière décennie (2010-2020). Les 182 publications sélectionnées sont réparties en sept catégories d'intelligence : smart building, smart environment, smart mobility, smart living, smart people, smart governance et smart data. Les principales questions et défis ouverts concernant les campus intelligents sont présentés à la fin de l'examen et traitent de la durabilité et de la transition énergétique, de l'acceptabilité et de l'éthique, des modèles d'apprentissage, des politiques de données ouvertes et de l'interopérabilité. Le présent travail a été réalisé dans le cadre du Réseau de l'énergie du Sommet des dirigeants régionaux (RLS-Energy) dans le cadre de ses efforts multilatéraux de recherche sur les régions intelligentes. Novel intelligent systems to assist the energy transition and improve sustainability and people's life can be deployed at different scales, ranging from a house to an entire region. University campuses are an interesting intermediate size (big enough to matter and small enough to be tractable) for research, development, test and training on the integration of smartness at all levels, which led to the emergence of the concept of "smart campus" over the last few years. This review article proposes an extensive analysis of the scientific literature on smart campuses from the last decade (2010-2020). The 182 selected publications are distributed into seven categories of smartness: smart building, smart environment, smart mobility, smart living, smart people, smart governance and smart data. The main open questions and challenges regarding smart campuses are presented at the end of the review and deal with sustainability and energy transition, acceptability and ethics, learning models, open data policies and interoperability. The present work was carried out within the framework of the Energy Network of the Regional Leaders Summit (RLS-Energy) as part of its multilateral research efforts on smart regions. يمكن نشر أنظمة ذكية جديدة للمساعدة في انتقال الطاقة وتحسين الاستدامة وحياة الناس على مستويات مختلفة، تتراوح من منزل إلى منطقة بأكملها. تعتبر الجامعات ذات حجم متوسط مثير للاهتمام (كبيرة بما يكفي لتكون مهمة وصغيرة بما يكفي لتكون قابلة للتتبع) للبحث والتطوير والاختبار والتدريب على تكامل الذكاء على جميع المستويات، مما أدى إلى ظهور مفهوم "الحرم الجامعي الذكي" على مدى السنوات القليلة الماضية. تقترح مقالة المراجعة هذه تحليلاً شاملاً للأدبيات العلمية حول الجامعات الذكية من العقد الماضي (2010-2020). يتم توزيع المنشورات الـ 182 المختارة على سبع فئات من الذكاء: البناء الذكي، والبيئة الذكية، والتنقل الذكي، والمعيشة الذكية، والأشخاص الأذكياء، والحوكمة الذكية، والبيانات الذكية. يتم تقديم الأسئلة والتحديات الرئيسية المفتوحة المتعلقة بالحرم الجامعي الذكي في نهاية المراجعة والتعامل مع الاستدامة وانتقال الطاقة والقبول والأخلاقيات ونماذج التعلم وسياسات البيانات المفتوحة وقابلية التشغيل البيني. تم تنفيذ العمل الحالي في إطار شبكة الطاقة التابعة لقمة القادة الإقليميين (RLS - Energy) كجزء من جهودها البحثية متعددة الأطراف حول المناطق الذكية.

Abstract The paper focuses on the long-standing problem of too low renovation rates of existing buildings and on practice-oriented solutions. The European Commission has set the goal of at least doubling the renovation quota with “The European Green Deal” and published the “Strategy for a Renovation Wave for Europe - greening our buildings, creating jobs, improving lives” on 14 October 2020. As in previous years, technical specifications have been defined even more strictly and limit values for energy consumption have been further reduced with the aim to reduce CO2 emissions. The high quality of the renovation measures is ensured within the European Union and its member states. However, this has not yet been the case in relation to the quantity of implemented renovation projects. The thesis investigates which factors were neglected or were not taken into consideration sufficiently in the past, and, because of that, countries like Austria could not achieve their goals with regard to the renovation rates. This is done by identifying, selecting and verifying both specific and potential conflicting goals. On the basis of the description and analysis of the background to these potential conflicts, the actual obstacles are identified and approaches to their solutions are defined. The formulated approaches should form the basis for future in-depth discussion and further development of specific detailed solutions. The implementation of these results in a comprehensive package with technical regulations such as the “Renovation Wave for Europe” and “The European Green Deal”, opens up new opportunities for achieving the set goals. An increase in the renovation rate of existing buildings is the quantitatively measurable outcome.

Background: Sodium oxybate (SMO) has been shown to be effective in the maintenance of abstinence (MoA) in alcohol-dependent patients in a series of small randomized controlled trials (RCTs). These results needed to be confirmed by a large trial investigating the treatment effect and its sustainability after medication discontinuation. Aims: To confirm the SMO effect on (sustained) MoA in detoxified alcohol-dependent patients. Methods: Large double-blind, randomized, placebo-controlled trial in detoxified adult alcohol-dependent outpatients (80% men) from 11 sites in four European countries. Patients were randomized to 6 months SMO (3.3–3.9 g/day) or placebo followed by a 6-month medication-free period. Primary outcome was the cumulative abstinence duration (CAD) during the 6-month treatment period defined as the number of days with no alcohol use. Secondary outcomes included CAD during the 12-month study period. Results: Of the 314 alcohol-dependent patients randomized, 154 received SMO and 160 received placebo. Based on the pre-specified fixed-effect two-way analysis of variance including the treatment-by-site interaction, SMO showed efficacy in CAD during the 6-month treatment period: mean difference +43.1 days, 95% confidence interval (17.6–68.5; p = 0.001). Since significant heterogeneity of effect across sites and unequal sample sizes among sites ( n = 3–66) were identified, a site-level random meta-analysis was performed with results supporting the pre-specified analysis: mean difference +32.4 days, p = 0.014. The SMO effect was sustained during the medication-free follow-up period. SMO was well-tolerated. Conclusions: Results of this large RCT in alcohol-dependent patients demonstrated a significant and clinically relevant sustained effect of SMO on CAD. Trial registration: ClinicalTrials.gov Identifier: NCT04648423

Cities around the world are undergoing significant transformations and are facing substantial challenges in the form of urban densification and extreme weather conditions due to climate change and ongoing urbanisation. Nature-based solutions (NBS) present an approach to address urban challenges through working with nature in order to achieve ecological and resilience objectives, whilstconcurrently creating opportunities for social and economic innovation. UNaLab is a project funded by the European Commission under the Horizon 2020 research and innovation programme, which aims to create a framework for implementation, demonstration and future upscaling of nature-based solutions in three demonstration cities (Tampere, Eindhoven and Genova), as well as for the replication of the solutions in seven replication cities: Basaksehir, Cannes, Castellón de la Plana, Prague, Stavanger, Buenos Aires, Hong Kong. As part of this project, the cities of Cannes (France) and Castellón(Spain) have been working towards a NBS roadmap using different co-creation formats. In a weeklong on-site process, the current state of the urban systems regarding NBS in the city was examined and suitable intervention areas and project ideas were identified and co-developed together with various city stakeholders to enhance the cities’ resilience and climate change adaptation potential. Amongst others, the interventions include the creation of green-themed corridors, the strengthening and revitalization of remaining urban agricultural land, the design and implementation of (circular) water retention systems or the renaturalization of existing rivercourses. Being Mediterranean cities, Cannes and Castellón face similar challenges and opportunities in terms of city greening and urban planning, which will be discussed in this paper. A presentation of the outcomes, impacts and experiences on how NBS are contributing to initiating a positive transformation process and the creation of livable, healthy and feel-good placeswill also be given. SHAPING URBAN CHANGE – Livable City Regions for the 21st Century. Proceedings of REAL CORP 2020, 25th International Conference on Urban Development and Regional Planning in the Information Society, 977-985

In the face of constantly progressing climate and environmental changes that lead to hydrological droughts and, in consequence, to permanent water deficiency, the administration and management of water resources have become priority elements of local policy in rural areas. New water management methods are based on numerous digital tools and solutions. They allow, for instance, the optimising of water consumption, or the accelerating and increasing in the effectiveness of communication with local communities. This governance model fits into the green economy. This paper presents digital tools and ways of using them for water management in rural communities. We assumed that a higher degree of the socio-economic development in rural communities affects the use of high technology in the local governance. According to surveys, suburban communities featuring a higher level of urbanisation more often invest in ‘smart’ technologies, reflected by a more rational management of water resources.

Air pollution is a global concern, especially in cities and urban areas, and has many implications for human health and for the environment. In common with other industrial sectors, the construction industry emits air pollutants. In scientific literature, the contribution the construction industry makes to air pollution is underexposed. This systematic literature review (SLR) paper gives an overview of the current literature regarding air pollution within the construction industry. Air pollution is discussed focusing mainly on three levels: (i) buildings and their building life cycle stages, (ii) construction processes and components, and (iii) building material and interior. The final sample of the SLR comprises 161 scientific articles addressing different aspects of the construction industry. The results show that most articles address the use stage of a building. Particulate matter in different sizes is the most frequently examined air pollutant within the SLR. Moreover, about a third of the articles refer to indoor air pollution, which shows the relevance of the topic. The construction industry can help to develop a healthier built environment and support the achievement of cleaner air within various life cycle stages, e.g., with optimized construction processes and healthier materials. International agreements and policies such as the Sustainable Development Goals (SDGs) can support the sustainable development of the construction industry.