New Europe-New Energy: Sustainable Energy in the Expanded EU

2012 ◽  
pp. 254-278
Author(s):  
David Elliott ◽  
Terry Cook
2016 ◽  
Vol 30 (3) ◽  
pp. 226-252 ◽  
Author(s):  
Federica Gasbarro ◽  
Eleonora Annunziata ◽  
Francesco Rizzi ◽  
Marco Frey

Sustainable entrepreneurs are considered to play a crucial role in fostering sustainable development. However, transitions in sociotechnical systems, such as a transition to low-carbon energy solutions, are unlikely to succeed without the coordination with regional political actions, particularly in sectors characterized by path dependency and lock-ins. Based on an empirical analysis of the interplay between firms and public authorities when opening new energy niche markets through Sustainable Energy Action Plans, this article explores the role of sustainable entrepreneurs. We investigate the different levels of engagement with public authorities in co-evolutionary processes toward sustainable development. From this empirical research, four types of co-evolutionist sustainable entrepreneur are derived—hero, visionary, bandwagoner, and explorer. These correspond to the different degrees of interaction with public authorities and system level of action, and extend the definition of the sustainable entrepreneur. The related academic and managerial implications contribute to the current debate on sustainable entrepreneurship.


Author(s):  
Tong Wu ◽  
Mingzi Sun ◽  
Bolong Huang

Demands of clean and sustainable energy have promoted the rapid development of novel materials for various new energy applications. Graphdiyne (GDY), a carbon allotrope with unique carbon hybridization states, electronic...


2006 ◽  
Vol 5 (2) ◽  
pp. 02
Author(s):  
Marcus V. A. Bianchi

The search for sustainable energy solutions has accelerated significantly in recent years driven by concerns caused by supply limitations, such as Peak Oil (or Gas, Coal, and Uranium), and by climate change.  Many communities and industries are now facing the prospect of increased energy costs, potential energy supply disruptions, and carbon emission limits.  Recently, the scientific academies of 13 countries1 (including Brazil) issued a joint statement calling on world leaders to increase energy efficiency, promote a shift to less-polluting energy sources, and intensify research into new energy technologies that produce no emissions.  Also recently, a coalition of 16 of the world’s biggest cities (São Paulo is one of them), under a plan developed by the William J. Clinton Foundation2, pledged investments of billions of dollars to cut building energy use and releases of heat-trapping gases linked to global warming.The field of thermal sciences plays a critical role in managing these challenges.  In a recent initiative, the National Science Foundation3 invited a number of thermal science researchers to identify frontier challenges and associated opportunities in five areas, one of which was sustainable energy technologies (the remaining were biological systems and biotechnology, security, information technology, and nanotechnology).  While a final report was not yet published when this editorial was written, the passionate discussions pointed to action in research and education from academic institutions, government, and industry.  Some of the topics discussed include fuel cells, seawater agriculture, biomass, sustainability metrics, carbon sequestration, and broad education of non-technical individuals on thermal sciences.The research findings published in Engenharia Térmica in the past have shown significant progress in areas related to energy, particularly oil and renewables.  We are confident we will continue to receive articles’ submissions that help enable sustainable energy solutions in the near future.


2019 ◽  
Vol 3 (5) ◽  
pp. 573-578 ◽  
Author(s):  
Kwanwoo Shin

Living cells naturally maintain a variety of metabolic reactions via energy conversion mechanisms that are coupled to proton transfer across cell membranes, thereby producing energy-rich compounds. Until now, researchers have been unable to maintain continuous biochemical reactions in artificially engineered cells, mainly due to the lack of mechanisms that generate energy-rich resources, such as adenosine triphosphate (ATP) and reduced nicotinamide adenine dinucleotide (NADH). If these metabolic activities in artificial cells are to be sustained, reliable energy transduction strategies must be realized. In this perspective, this article discusses the development of an artificially engineered cell containing a sustainable energy conversion process.


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