Av jord är vi komna, av jord ska vi åter bli. Mellan dessa båda stadier av vår existens strävar jag efter att skapa design som går bortom normer för formgivning av rum och interiör.  I mitt examensarbete i kandidatprogrammet Inred- ningsarkitektur och möbeldesign Konstfack 2024 gestaltar och föreslår jag en bänk, som placerats i en av basarlängorna vid arkitekten Gunnar Asplunds stads- bibliotek vid Observatorielunden. Social hållbarhet, biofiliska och neurovetenskapiska perspektiv, mellan- mänskliga möten och att utforska gränser mellan inne/ ute är centralt i projektet.  Vi har vårt ursprung i naturen och lever i symbios med den men våra moderna livsstilar har i mångt och mycket kopplat bort oss från naturen, i synnerhet i tätbebyggda områden. Det är därför mitt projekt utgår ifrån begreppet biofili; insikten om att vi mår bäst när vi känner oss sammanlänkade med naturen.  Då en central del av projektet har varit att undersöka gränsen mellan inne/ute så har konceptet jordning varit en utgångspunkt i just formsökandet för att undersöka gränsen mellan inne/ute. Jordning innebär att direkt- kontakt med jordens elektronfält har en vetenskapligt bevisad antioxidantisk och antiinflammatorisk effekt på kroppen.  Jag har studerat specifika exempel och referenser från arkitekt Gunnar Asplunds arbete som även om det inte var uttalat harmoniserade med principer inom neu- rodesign och biofilisk design. Platsen jag placerar mitt förslag på är en del av hans ritningar för lokaler och parkmiljöer runt Stockholmstadsbibliotek på Sveavägen byggt 1928.  I designförslaget ”Stötta” har jag materialiserat mina idéer och studier i en bänk som genom sin form, funk- tion och placering kan öppna upp samtal om stödjande design och bidra till att skapa förutsättningar för en hållbar framtid i våra inomhusmiljöer. Genom att in- tegrera mina idéer och studier till bänkens utformning strävar jag efter att vara en del i att ge besökarna på platsen nödvändiga förutsättningar för välbefinnande. Mitt förslag inkluderar att lokalen övergår från att vara en snabbmatsrestaurang till att bli en integrerad del av bibliotekets faciliteter och därmed bli ett offentligt rum tillgängligt för allmänheten. / Ashes to ashes and dust to dust. Between these two stages of our existence, I strive to create designs that go beyond the norms of spatial and interior design. In my thesis for the Bachelor's program in Interior Architecture and Furniture Design at Konstfack 2024, I conceptualize and propose a bench, placed in one of the arcades at architect Gunnar Asplund's city library at Observatorielunden. Social sustainability, biophilic and neuroscientific perspectives, interpersonal interactions, and exploring the boundaries between indoors and outdoors are central to the project. We originate from nature and live in symbiosis with it, but our modern lifestyles have largely disconnected us from nature, especially in densely built areas. Therefore, my project is based on the concept of biophilia; the realization that we feel best when we feel connected to nature. Since a central part of the project has been to explore the boundary between indoors and outdoors, the concept of grounding has been a starting point in the design process to explore this boundary. Grounding means that direct contact with the Earth's electric field has a scientifically proven antioxidant and anti-inflammatory effect on the body. I have studied specific examples and references from architect Gunnar Asplund's work which, although not explicitly stated, harmonized with principles within neurodesign and biophilic design. The place I situate my proposal is part of his drawings for the premises and park environments around the Stockholm City Library on Sveavägen, built in 1928. In the design proposal "Stötta" (Support), I have materialized my ideas and studies in a bench that, through its form, function, and placement, can open up conversations about supportive design and contribute to creating conditions for a sustainable future in our indoor environments. By integrating my ideas and studies into the bench's design, I strive to be part of providing visitors at the location with the necessary conditions for well-being. My proposal includes transforming the premises from a fast-food restaurant into an integrated part of the library's facilities, thereby becoming a public space accessible to everyone.

<p dir="ltr">The modern world faces many challenges related to sustainability, including the ability to make high-level decisions using a sustainability-oriented framework, a matter of increasing importance to the United States military with respect to energetic materials (EMs). Although a few pieces - process flowsheet optimization, life cycle assessment (LCA) studies, and the use of optimization tools to identify an option - have been studied and utilized, there exists no systematic approach that combines all these pieces to create a framework that allows for holistic decision making. This is especially true with EMs, other key critical materials, and new methods of manufacture. An interconnected framework for LCA-based decision making is developed and a tool based on this framework created for use with novel materials. The interconnected framework and tool are utilized in two case studies related to the manufacture of RDX- a lab-scale, batch-mode configuration and a simplified continuous-mode configuration, to determine the optimal reaction temperature.</p>

Doctor of Philosophy / Department of Environmental Design & Planning Program / Lee R. Skabelund / The Restorative Urban Design (RUD) calls for a new urban design and planning approach targeting environmentally responsible re/development of urbanized areas through ecologically responsive impact mitigations. If implemented in a systematic manner, such re/developments can help move urban areas toward the successful restoration of the natural environment of which they are an inseparable part. The RUD model advocates more rigorous assessment and mitigation of urban impacts by carefully evaluating the environmental performance of urban re/developments within five primary dimensions: Atmosphere (emissions, pollutants, ozone depletion); Hydrosphere (stormwater, domestic water, wastewater); Lithosphere (land use, land cover, food and wastes); Ecology (habitat resilience, biodiversity, population and resources); and Energy (renewability, reduction and efficiency, transportation). The model relies on a scenario-comparison process in order to evaluate and optimize the performance of urban re/development projections through four critical scenarios, which are respectively: 1) Natural Baseline (NBASE); 2) Historic Progression (HPROG); 3) Trajectory Forecast (TFORE); and 4) Restorative Projection (RPROJ). The RUD Case Study illustrates how the principles and strategies of Restorative Urban Design can be applied specifically to a typical (densely developed) urban area, namely River North District in Chicago Metropolitan Area. The case study focuses exclusively on mitigation of a single critical human impact on the natural environment: Anthropogenic CO₂ Emissions. The case study focuses on the design assumptions by which the restorative urban re/development scenarios might exceed beyond the full mitigation of emissions into the global remediation by 2040. The restorative projections illustrate that only a certain portion of emissions can be effectively mitigated onsite (5 to 55%), and that the remainder of projected emissions (45 to 95%) need to be mitigated offsite in order to achieve the necessary sequestration and storage. The restorative research suggests that the mitigation of major human impacts on the natural environment – not only CO₂ emissions but also other major impacts – are likely to require significant urban transformations. Moving beyond the strategies of preservation and/or conservation, the restorative approach asserts that comprehensive environmental restoration is achievable if urban impacts are adequately estimated and then entirely mitigated onsite as well as offsite through a systematic process of urban re/development.

Die Konferenz »Entwerfen – Entwickeln – Erleben« bietet ein be­sonderes Podium zum Austausch von Wissenschaftlern und Praxis­vertretern aus den zentralen Bereichen der Produktentwicklung. Der vorliegende Band enthält Beiträge der EEE2014 unter anderem zu Innovationsstudien und Zukunftskonzepten für verschiedenste Bran­chen, zu Design Thinking und Designprozessen von frühen Phasen bis zum Qualitätsmanagement, Methoden und Werkzeugen von Mindcards bis Eye-Tracking sowie zu den Themen User Experience und Nutzererleben, Öko-Design, Universal Design und partizipative Gestaltung. Die Technischen Universität Dresden und technischesdesign.org er­möglichten in Kooperation mit der Gruppe Virtuelle Produktentwick­lung der Wissenschaftlichen Gesellschaft für Produktentwicklung (WiGeP), dem Mathematisch-Physikalischen Salon der Staatlichen Kunstsammlungen Dresden und der Hochschule für Bildende Küns­te Dresden die fachübergreifende Diskussion des Schwerpunkt-The­mas inmitten der Dresdner Altstadt. In diesem Band sind die Bei­träge zum Technischen Design enthalten, ein weiterer Band (http://nbn-resolving.de/urn:nbn:de:bsz:14-qucosa-144963, herausgegeben von Ralph Stelzer) fasst die Beiträge zur Konstruktionstechnik und zur Virtuellen Produktentwick­lung zusammen.

Sustainability has been the focus of intense discussions over the past two decades, with topics around the entire product life cycle. In the manufacturing phase, research has been focused solely on environmental impact assessment or environmental impact and cost analysis in its assessment of sustainability. However, few efforts have investigated sustainable production decision making, where engineers are required to concurrently consider economic, environmental, and social impacts. An approach is developed to assess broader sustainability impacts by conducting economic assessment, environmental impact assessment, and social impact assessment at the work cell level. The results from the assessments are then integrated into a sustainable manufacturing assessment framework, along with a modified weighting method based on pairwise comparison and an outranking decision making method. The approach is illustrated for a representative machining work cell producing stainless steel knives. Economic, environmental, and social impact results are compared for three production scenarios by applying the sustainable manufacturing assessment framework. Sensitivity analysis is conducted to study the robustness of the results. For future research, it is desired that a tool which integrates manufacturing information system information and the sustainable manufacturing assessment approach can be built to assist production engineers in considering sustainability performance when making decisions. / Graduation date: 2012

The study set out to understand and demonstrate the role the ICT sector could play as a critical enabler in the transition and progress towards an energy– efficient, low carbon economy. More specifically, the study of sustaining ICT for sustainability has twofold intent: (2) to investigate the direct footprint of ICT sector and explore how it can be tackled through adopting sustainable design–based solutions; and (2) to highlight the enabling potential of ICT sector to mitigate climate change and massively improve energy efficiency across the economy, identifying and quantifying the global ICT impacts and opportunities in the context of energy and carbon emissions savings. To achieve the aim of this study, a pertinent and extensive literature review covering theoretical, empirical, and critical scholarship was performed to investigate the phenomenon. The study draws on a variety of sources to survey the unsustainability of ICT sector pertaining to energy–intensive consumption and explore potential solutions through espousing environmental design practice, and also to examine the role of ICT in delivering energy–efficient solutions through its products and services. Validity was ensured through using quality academic and industry literature as well as relevant studies carried out by a range of eminent researchers, experts, and stakeholders (i.e. NGOs, research centers). Findings highlight the unsustainability of ICT sector regarding energy– intensive consumption and concomitant GHG emissions associated with its products and services. Of the whole lifecycle, the use phase of ICT is the most critical. Data centers and telecom networks devour energy. Planned obsolescence entrenched in software design shorten upgrade cycle, which makes software utilities a planet killer as to energy consumption. Alternative sustainable design–based solutions entail using renewable energy and most efficient energy required over ICT’s life cycle – de–carbonization strategy. Also, digitization is an effective strategy for ICT sector to slash energy use per unit. To reduce the footprint of data centers and telecom networks, design solutions vary from hardware and software to technological improvements. Designing out built–in obsolescence in software technology is a key factor in the energy equation. As for the enabling role of ICT, the findings are highly illuminating. The ICT sector must step up its efforts in reducing its direct footprint in order to claim a leadership role in an energy–efficient, low carbon economy. Although the ICT sector’s own emissions will increase because of global growing demand for its products and services, the real gains will come from its enabling potential to yield substantial energy efficiency improvements and emissions reductions across the economy. The sheer scale of the climate change challenge presents smart development mitigation opportunities for ICT sector to deliver environmentally sustainable solutions. The largest identified opportunities are: dematerialization; intelligent transport and logistics; intelligent buildings; smart power supply; and efficient industrial processes and systems. This study provides a novel approach into sustainable design in ICT, underlining unsustainable design practices in ICT sector. Review of the literature makes an advance on extant reviews by highlighting the synergic relationship between ICT design, sustainability, and the economy. / +46 704 35 21 35

This study endeavors to investigate the negative environmental impacts of the prevailing ICT design approaches and to explore some potential remedies for ICT design unsustainability from environmental and corporate sustainability perspectives. More specifically, it aims to spotlight key environmental issues related to ICT design, including resource depletion; GHG emissions resulting from energy-intensive consumption; toxic waste disposal; and hazardous chemicals use; and also to shed light on how alternative design solutions can be devised based on environmental sustainability principles to achieve the goals of sustainable technologies. The study highlights the relationship between ICT design and sustainability and how they can symbiotically affect one another. To achieve the aim of this study, an examination was performed through an extensive literature review covering empirical, theoretical, and critical scholarship. The study draws on a variety of sources to survey the negative environmental impacts of the current mainstream ICT design approach and review the potential remedies for unsustainability of ICT design. For theory, central themes were selected for review given the synergy and integration between them as to the topic under investigation. They include: design issues; design science; design research framework for ICT; sustainability; corporate sustainability; and design and sustainability. Findings highlight the unsustainability of the current mainstream ICT design approach. Key environmental issues for consideration include: resource depletion through extracting huge amounts of material and scarce elements; energy-intensive consumption and GHG emissions, especially from ICT use phase; toxic waste disposal; and hazardous substances use. Potential remedies for ICT design unsustainability include dematerialization as an effective strategy to minimize resources depletion, de-carbonization to cut energy consumption through using efficient energy required over life cycle and renewable energy; recyclability through design with life cycle thinking (LCT) and extending ICT equipment’s operational life through reuse; mitigating hazardous chemicals through green design - low or non-noxious/less hazardous products. As to solving data center dilemma, design solutions vary from hardware and software to technological improvements and adjustments. Furthermore, corporate sustainability can be a strategic model for ICT sector to respond to environmental issues, including those associated with unsustainable ICT design. In the same vein, through adopting corporate sustainability, ICT-enabled organizations can rationalize energy usage to reduce GHG emissions, and thereby alleviating global warming. This study provides a novel approach to sustainable ICT design, highlighting unsustainability of its current mainstream practices. Review of the literature makes an advance on extant reviews of the literature by highlighting the symbiotic relationship between ICT design and environmental sustainability from both research and practice perspectives. This study adds to the body of knowledge and previous endeavours in research of ICT and sustainability. Overall, it endeavours to present contributions and avenues for further theoretical and empirical research and development. / +46704352135/+212662815009

Entwerfen – Entwickeln – Erleben. Drei zentrale Begriffe aus dem Alltag der Produktentwicklung stehen als Motto über den Beiträgen dieses Buches und sind das verbindende Element zwischen den differenzierten Sichtweisen der einzelnen Autoren zu einem gemeinsamen Gegenstand: Dieser umspannt das weite Feld der Entwicklung und Gestaltung von Produkten von der ersten Idee bis zu deren Benutzung. Dabei ist für den Designer das Ziel allen Entwerfens und Entwickelns das positive Erleben des Produktes durch dessen Benutzer. Aber bereits beim Entwerfen, d. h. dem Schaffen von Neuem, bei dem Ideen generiert und Wege zur Umsetzung in ein Produkt gesucht werden und beim Entwickeln, dem Ausarbeiten, Erproben, Verändern und detaillierten Festlegung aller Produkteigenschaften, möchte der Designer vorwegnehmen, wie das künftige Produkt auf den Nutzer wirken wird. Doch der Designer tut das nicht allein. Die integrierte Produktentwicklung ist ein sehr komplexer Prozess, in dem viele verschiedene Fachdisziplinen eng zusammenarbeiten müssen, um am Markt erfolgreiche Produkte platzieren zu können. Zum Thema Industriedesign in komplexen und interdisziplinären Entwicklungsprozessen wird durch dieses Buch ein weiterer Baustein hinzugefügt. Dieses Buch enthält die Beiträge zum Technischen Design (Industriedesign, Transportation Design und Produkterleben) der Konferenz Entwerfen Entwickeln Erleben 2012. Ein separater Band, herausgegeben von Ralph Stelzer et al. (ISBN 978-3-942710-80-0) enthält die Textfassungen der Fachvorträge zu den thematischen Schwerpunkten Virtuelle Produktentwicklung (CAD-Einsatzszenarien, Virtual Reality und Product Lifecycle Management), Konstruktion (Konstruktionstechnik und -methodik, Reverse Engineering und Maschinenelemente).

Die Konferenz »Entwerfen – Entwickeln – Erleben« bietet ein besonderes Podium zum Austausch von Wissenschaft und Praxis entlang des Produktentwicklungsprozess mit einem Schwerpunkt Industrial Design. Der vorliegende Band enthält Beiträge der Sessions zum Industrial Design sowie ausgewählte Posterveröffentlichungen der Konferenz 2016. Darin werden Themen und Ansätze von der Anwenderintegration, neuen Prototypen, Service Design, User Experience und der Gestaltung von Emotion über Design in der Digitalen Revolution und für eine nachhaltige Zukunft, Design in mobilen und für Sicherheitsanwendungen bis hin zu Designmanagement, Feasibilitydesign und Reengineering vorgestellt und diskutiert. Die Technische Universität Dresden und technischesdesign.org ermöglichten in Kooperation mit der Gruppe Virtuelle Produktentwicklung der Wissenschaftlichen Gesellschaft für Produktentwicklung (WiGeP) und dem Rat für Formgebung die fachübergreifende Diskussion des Schwerpunkt-Themas inmitten der interdisziplinären Dresdner Wissenschaftslandschaft. Ein zweiter Band »Entwerfen Entwickeln Erleben 2016« (ISBN 978-3-95908-062-0, herausgegeben von Ralph Stelzer) fasst die Beiträge zur Konstruktionstechnik und zur Virtuellen Produktentwicklung zusammen.

Die Konferenz »Entwerfen – Entwickeln – Erleben« bietet ein besonderes Podium zum Austausch von Wissenschaft und Praxis entlang des Produktentwicklungsprozess mit einem Schwerpunkt Industrial Design. Der vorliegende Band enthält Beiträge der Sessions zum Industrial Design sowie ausgewählte Posterveröffentlichungen der Konferenz 2016. Darin werden Themen und Ansätze von der Anwenderintegration, neuen Prototypen, Service Design, User Experience und der Gestaltung von Emotion über Design in der Digitalen Revolution und für eine nachhaltige Zukunft, Design in mobilen und für Sicherheitsanwendungen bis hin zu Designmanagement, Feasibilitydesign und Reengineering vorgestellt und diskutiert. Die Technische Universität Dresden und technischesdesign.org ermöglichten in Kooperation mit der Gruppe Virtuelle Produktentwicklung der Wissenschaftlichen Gesellschaft für Produktentwicklung (WiGeP) und dem Rat für Formgebung die fachübergreifende Diskussion des Schwerpunkt-Themas inmitten der interdisziplinären Dresdner Wissenschaftslandschaft. Ein zweiter Band »Entwerfen Entwickeln Erleben 2016« (ISBN 978-3-95908-062-0, herausgegeben von Ralph Stelzer) fasst die Beiträge zur Konstruktionstechnik und zur Virtuellen Produktentwicklung zusammen.:Hybride Prototypen im Design Sebastian Lorenz · Maria Klemm · Jens Krzywinski 11 Anwenderintegration in strategische Designprozesse von Industriegütern Frank Thomas Gärtner 23 Die Relevanz semiotischer Dimensionen als „System der möglichen Fehler“ für die Usability Klaus Schwarzfischer 37 Service Design = Kognitives Design – Über die Gestaltung von Berührungspunkten und Perzeption in analogen und digitalen Benutzungskontexten Oliver Gerstheimer 51 Design und User Experience in der Flugsicherung – Assistenzsystem zur Fernüberwachung im Multi-Airport-Betrieb Rodney Leitner · Astrid Oehme 63 Die Gestaltung in Zeiten der Digitalen Revolution Gerhard Glatzel 79 Designing a Sustainable Future with Mental Models Anke Bernotat · Jürgen Bertling · Christiane English · Judith Schanz 91 Design in globalen Industrien – Ein Blick hinter die Kulissen von Dräger Herbert Glass · Matthias Willner 105 Untersuchung von emotionalen Wirkungsmechanismen im Produktdesign Mareike Roth · Oliver Saiz 115 Strak als Schnittstelle zwischen Design und Konstruktion – Ergebnisse einer Prozessberatung bei Miele Norbert Hentsch · Matthias Knoke 127 Feasibility Design – „Designqualität in Serie bringen“ Knut Lender 139 Experimenteller Ansatz zu Effekten subjektiven Erlebens in VR-basierter Risikobeurteilung Patrick Puschmann · Tina Horlitz · Volker Wittstock · Astrid Schütz 153 Simulation komplexer Arbeitsabläufe im Bereich der digitalen Fabrik Thomas Kronfeld · Guido Brunnett 169 Vom Wert der designerischen Perspektive des Erlebens beim Re-Engineering von Produkten: ein Best-Practice-Project Philip Zerweck 183 Vorgehensweisen zum Einsatz universitärer Produktentwicklung als Innovationstreiber Bernd Neutschel · Martin Wiesner · Michael Schabacker · Sandor Vajna 197 Considering emotional impressions in product design: Taking on the challenges ahead Susan Gretchen Kett · Sandro Wartzack 215 Methode zur Verbesserung der Usability durch gezielte Förderung mentaler Modelle Marcus Jenke · Karoline Binder · Thomas Maier 233