ISSN (online): 2071-1050
Call of the Journal:
- Agricultural Innovation and Sustainable Development
- Applications of Artificial Intelligence in New Energy Technology Systems
- Approaches to the Non-conflictual Use of Resources
- Artificial Intelligence (AI) and Sustainable Development Goals (SDGs) | Exploring the Impact of AI on Politics and Society
- Autonomous Vehicles | Future of Transportation Sustainability
- Belt & Road Initiative in Times of ‘Synchronized Downturn’ | Issues, Challenges, Opportunities
- BIM-Based Life Cycle Sustainability Assessment for Buildings
- Biochar and Greenhouse Gas Emissions during Livestock Bio-Waste Composting
- Bringing Governance Back Home | Lessons for Local Government regarding Rapid Climate Action
- Carbon Neutrality and Sustainability
- Challenges and Opportunities for a Sustainable Tourism Sector
- Circular Economy | A Move towards Economical Viable Sustainability
- Circular Economy Evaluation | Towards a Transparent and Traceable Approach under a Life Cycle Perspective
- Climate Adaptation and Mitigation through Sustainable Energy Solutions
- Considering Irreversibility in Transport Infrastructure Planning
- Construction 4.0 | The Next Revolution in the Construction Industry
- Corporate Sustainability and Sustainable Management in Changing Environments
- Covid-19 and Urban Inequalities | Spatial and Digital Dimensions
- Designing and Implementing Innovative Business Models and Supply Chains | The Digitalization and Sustainability Imperative
- Digital Economy, E-commerce, and Sustainability
- Eco-Didactic Art, Design, and Architecture in the Public Realm
- Economy and Sustainability of Natural Resources
- Educational Spaces and Sustainability
- Effects of Climate Change on Sustainable Agriculture
- Efficient and Non-polluting Biomass and Wastes Thermal Gasification
- Emerging Research on Socio-Technological Sustainability Transitions
- Energy System Sustainability
- Environmental Impacts under Sustainable Conservation Management
- Environmental Management Approaches and Tools to Boost Circular Economy
- Environmental Migration and Displacement-Migration Aspirations in Response to Environmental Changes
- Exploring and Analyzing Links between the Covid-19 Pandemic and Globalization | Levers for Sustainability Transitions?
- Farming System Design and Assessment for Sustainable Agroecological Transition
- Geological Heritage and Biodiversity in Natural and Cultural Landscapes
- Governance of Technology in Smart Cities
- Green Building Technologies II
- High Precision Positioning for Intelligent Transportation System
- Household Food Waste | From an International Perspective
- Hydrological Responses by Climate Change and Human Activities
- IEIE Buildings (Integration of Energy and Indoor Envirornent)
- Influence of Hydrometeorological Hazards on Regional Sustainable Development in Vulnerable Mountain Areas
- Infotainment Systems and Intelligent Vehicles
- Innovations towards Greener and Smarter Mobility for Sustainable Development
- Innovative and Sustainable Technology in Carbon Emission Reduction
- Innovative Food Science and Sustainable Process Management
- Integration of BIM and ICT for Sustainable Building Projects
- Karst and Environmental Sustainability
- Low CO2 Concrete
- Machine Learning for Sustainable Energy
- Maladaptation to Climate Change
- Management and Innovation for Environmental Sustainability
- Management Approaches to Improve Sustainability in Urban Systems
- Mediatization of Social Sustainability | Paradigm of Explicitation and Understanding of the Environment, Society and the Economy
- Modelling and Mapping of Soil
- Natural and Technological Hazards in Urban Areas | Assessment, Planning and Solutions
- Nature-Based Tourism, Protected Areas, and Sustainability
- New Environmental, Economic and Social Challenges for Raw Materials Supply | Sustainable Mining and Extractive Waste Exploitation
- New Evidences of Indoor Thermal Comfort in Residential and Tertiary Buildings | Design and Evaluation Methods
- Organic and Perovskite Photovoltaics | New Materials, New Processes and Stability
- Planning and Design Interventions for Improving the Well-Being of Vulnerable Groups
- Port Governance
- Public Health Related to Climate Change
- Public Transport Accessibility and Sustainability
- Recycling and Sustainability of Plastics
- Regenerative Buildings and Beyond | Scale Jumping Sustainable and Net-Zero Designs to Regenerative Neighbourhoods, Districts, Communities, and Cities
- Renewable Energies for Sustainable Development
- Rural Development | Challenges for Managers and Policy Makers
- Scientific Theory and Methodologies toward a Sustainable Future under Post-Covid-19 Transition Movement
- Sheltering and Housing Displaced Populations
- Smart City Innovation and Resilience in the Era of Artificial Intelligence
- Soil Stabilization in Sustainability
- Sustainability and Agricultural Economics
- Sustainability at the Nexus between Climate Change and Land Use Change
- Sustainability in Water and Wastewater Treatment Technologies
- Sustainable and Safe Two-Wheel Mobility
- Sustainable Building and Sustainable Indoor Environment
- Sustainable Cities | Challenges and Potential Solutions
- Sustainable Construction Engineering and Management
- Sustainable Cropping Practices to Counteract Environmental Stresses
- Sustainable Development and Practices | Production, Consumption and Prosumption
- Sustainable Development of Energy, Water and Environment Systems (SDEWES)
- Sustainable Enterprise Excellence and Innovation
- Sustainable Entrepreneurship, Firm Performance and Innovation
- Sustainable Geotechnics | Theory, Practice, and Applications
- Sustainable Innovation Trends and Global Value Chains in Emerging Markets
- Sustainable Intelligent Manufacturing and Logistics Systems
- Sustainable Railway Systems | Innovation and Optimization
- Sustainable Transportation Management, Governance and Public Policy
- Sustainable Transportation Planning and Policy
- Sustainable Zero Energy Buildings
- Systems Engineering for Sustainable Development Goals
- The Human Side of Sustainable Innovations
- The Value Generation of Social Farming
- Towards a Sustainable Urban Planning for the Green Deal Era
- Urban Microclimate and Air Quality as Drivers of Urban Design
- Urban Renewal, Governance and Sustainable Development | More of the Same or New Paths?
- Urban Sprawl and Sustainability II
- Urban Sustainability | Community-Scale Climate Adaptation
- Urban Sustainability | Re-envisioning Cities to Lead the Way toward to Circular Economy
- Urbanization and Road Safety Management
- Water-Food-Energy Nexus for Sustainable Development
- World Cities in the Era of Globalization
Jan
2021
Feb
2021
Humanity currently faces Covid-19, a large global pandemic comparable to the 1918-1920 influenza, which according to some sources was a main underlying factor ending the First World War. This is an example of a pandemic with indirect long-term outcomes affecting global historical development. In parallel, the ongoing pandemic may contribute to the transition to a sustainable society developing within planetary boundaries. While possible, action is required to mitigate and adapt to climate change, to combat biodiversity loss, to secure long-term sustainable food production, and to protect functional and more equitable societies, to mention just some issues related to the UN Sustainable Development Goals (SDGs). Essentially, a large global transition is required. Different serious measures have been taken to protect human health from the SARS-CoV-2 virus, and we still (as of June 2020) do not know the direct outcomes on human health and their long-term consequences for globally interconnected production and consumption systems, or the economy. Different authors point to possible established and potential links between actions to limit the economic consequences of the Covid-19 pandemic and sustainability transitions (Mazzucato 2020, Sterner et al. 2020). Will the on-going pandemic, and the associated actions of various kinds, be possible levers for a transition in the complex adaptive systems of global production and consumption? Under what conditions are Covid-19-associated measures leading to the fulfillment of SDGs, and when not? Are institutions, which have been guiding the development of the present Anthropocene global problem, likely to shift in a more sustainable direction due to the outcomes and handling of the pandemic? What are the possible lessons from the handling of the pandemic regarding institutional arrangements and power? Can we learn about the global interconnectedness – both its vulnerability and its resilience – and its connections to fulfilling SDGs? Scientific evidence related to larger long-term shifts should acknowledge the limited possibilities in terms of comparing situations in multifactorial nested and open systems. The Anthropocene, with the unprecedented size of the human population, technological possibilities for production, transport and communication, and increasing resource constraints, together with the societal challenges, poses a set of difficult questions, challenging scholars to both look back, trying to learn from evidence and systemic patterns, and to look forward cautiously using evidence, models, and values, such as the Sustainable Development Goals, to try to advise on the change of current unsustainable development paths (Reyers et al. 2018). Industrial development in the energy sector started before the virus appeared, and this, together with societal learning that has changed habits temporarily or permanently, provide a combination of opportunities not previously seen. The Special Issue intends to provide original articles, smaller reviews containing important contributions, together with historical examples of possible links between the pandemic and sustainability transitions from a multidisciplinary perspective, thus providing critical perspectives and selected evidence pro et contra the suggested linkages between pandemic(s) and sustainability. The Special Issue aims to bring together a set of papers that can give readers an overview of the important interfaces in the socio-technical-ecological system connecting short-term large events with long-term structural changes.
Keywords: economic recovery policy; sustainable development; energy transition; globalization; sustainability transitions; socio-technical-ecological systems.
Exploring and Analyzing Links between the Covid-19 Pandemic and Globalization | Levers for Sustainability Transitions?
Humanity currently faces Covid-19, a large global pandemic comparable to the 1918-1920 influenza, which according to some sources was a main underlying factor ending the First World War. This is an example of a pandemic with indirect long-term outcomes affecting global historical development. In parallel, the ongoing pandemic may contribute to the transition to a sustainable society developing within planetary boundaries. While possible, action is required to mitigate and adapt to climate change, to combat biodiversity loss, to secure long-term sustainable food production, and to protect functional and more equitable societies, to mention just some issues related to the UN Sustainable Development Goals (SDGs). Essentially, a large global transition is required. Different serious measures have been taken to protect human health from the SARS-CoV-2 virus, and we still (as of June 2020) do not know the direct outcomes on human health and their long-term consequences for globally interconnected production and consumption systems, or the economy. Different authors point to possible established and potential links between actions to limit the economic consequences of the Covid-19 pandemic and sustainability transitions (Mazzucato 2020, Sterner et al. 2020). Will the on-going pandemic, and the associated actions of various kinds, be possible levers for a transition in the complex adaptive systems of global production and consumption? Under what conditions are Covid-19-associated measures leading to the fulfillment of SDGs, and when not? Are institutions, which have been guiding the development of the present Anthropocene global problem, likely to shift in a more sustainable direction due to the outcomes and handling of the pandemic? What are the possible lessons from the handling of the pandemic regarding institutional arrangements and power? Can we learn about the global interconnectedness – both its vulnerability and its resilience – and its connections to fulfilling SDGs? Scientific evidence related to larger long-term shifts should acknowledge the limited possibilities in terms of comparing situations in multifactorial nested and open systems. The Anthropocene, with the unprecedented size of the human population, technological possibilities for production, transport and communication, and increasing resource constraints, together with the societal challenges, poses a set of difficult questions, challenging scholars to both look back, trying to learn from evidence and systemic patterns, and to look forward cautiously using evidence, models, and values, such as the Sustainable Development Goals, to try to advise on the change of current unsustainable development paths (Reyers et al. 2018). Industrial development in the energy sector started before the virus appeared, and this, together with societal learning that has changed habits temporarily or permanently, provide a combination of opportunities not previously seen. The Special Issue intends to provide original articles, smaller reviews containing important contributions, together with historical examples of possible links between the pandemic and sustainability transitions from a multidisciplinary perspective, thus providing critical perspectives and selected evidence pro et contra the suggested linkages between pandemic(s) and sustainability. The Special Issue aims to bring together a set of papers that can give readers an overview of the important interfaces in the socio-technical-ecological system connecting short-term large events with long-term structural changes.
Keywords: economic recovery policy; sustainable development; energy transition; globalization; sustainability transitions; socio-technical-ecological systems.
AGORA (FAO), AGRIS-Agricultural Sciences and Technology (FAO), Animal Science Datbase (CABI), CAB Abstracts (CABI), Chemical Abstracts (ACS), Current Contents Sciences (Clarivate Analytics), DOAJ, EconPapers (RePEc), FSTA-Food Science and Technology Abstracts (FIS), Genamics Journal Seek, GeoBase (Elsevier), Global Health (CABI), HINARI (WHO), IDEAS (RePEc), Inspec (IET), Journal Citation Reports/Science Edition (Clarivate Analytics), Journal Citation Reports/Social Science Edition (Clarivate Analytics), Norwegian Register for Scientific Journals, Series and Publishers (NSD), RePEC, Review of Agricultural Entomology (CABI), Science Citation Index Expanded-Web of Science (Clarivate Analytics), Scopus (Elsevier), Social Science Citation Index-Web of Science (Clarivate Analytics), Web of Science (Clarivate Analytics), CLOCKSS (Digital Archive), e-Helvetica (Swiss National Library Digital Archive), Academic OneFile (Gale/Cengage Learning), EBSCOhost (EBSCO Publishing), Google Scholar, J-Gate (Informatics India), ProQuest Central (ProQuest), Science in ContexT (Gale/Cengage Learning), WorldCat (OCLC).
Info at: www.mdpi.com/journal/sustainability/apc
Guest Editors
Prof. Dr. Sverker Molander
Prof. Dr. Tomas Kåberger
Dr. Magnus Bengtsson