Industry

Industry holds an indispensable relationship with the Sustainable Development Goals (SDGs) formulated by the United Nations, illuminating the fact that sustainable industrial development plays a vital role in achieving these global objectives. Industry, particularly manufacturing, serves as a critical driver for economic growth, employment, and technological advancement. SDG 9, specifically, underlines the importance of industry, innovation, and infrastructure, underscoring the need for resilient infrastructure, inclusive and sustainable industrialization, and fostering innovation. However, the intricate interlinkages between industry and other SDGs must not be overlooked.

For instance, clean and sustainable industrial processes contribute significantly to SDG 13, aiming at climate action, by reducing greenhouse gas emissions, improving energy efficiency, and adopting clean and environmentally sound technologies. Similarly, SDG 12, responsible consumption and production, demands the industries to promote resource and energy efficiency, sustainable infrastructure, and provide access to basic services, green and decent jobs, and a better quality of life for all. It motivates industries to adopt sustainable practices and to integrate sustainability information into their reporting cycle.

The role of industries extends to SDG 8 (Decent work and Economic Growth) as industries stimulate economic activities that lead to job creation and thus, improve living standards. Also, in respect to SDG 5 (Gender Equality), industrial sectors have the potential to provide opportunities for women in the workforce and help bridge the gender wage gap.

Nevertheless, the transformation to a more sustainable industry is not without challenges. The demands of rapid technological changes, the need for significant capital investments in green technologies, and the transition to a circular economy are some of the hurdles industry faces. Further, this transformation requires a multilevel and multi-stakeholder approach, calling for cooperation among governments, private sectors, academia, and civil society to pave the path to achieving SDGs.

The use of biomass for energy production is one way to ensure energy security and address the environmental issues related to the use of fossil fuels in developing countries. Small and medium-sized enterprises (SMEs) need electric power and thermal energy for their activities. In Burkina Faso, this type of thermal energy is generally produced by SMEs from firewood. However, cashew companies produce a large amount of waste (shell, press cake, nut shell liquid) which can be converted into fuel. Separating the cashew nut from the shell requires two energy-intensive steps: roasting and drying.
Bruce H. Lipshutz is currently a professor of chemistry at the University of California, Santa Barbara. His research program has, for decades, focused mainly on the development of new reagents and methodologies that are especially general and useful for the synthetic community. Of late, his group pays special attention to synthetic chemistry that is environmentally responsible.
The authors work at the Green Chemistry Centre of Excellence (GCCE) at the University of York and are all currently involved in the H2020-BBI-funded project ReSolve for the development of safer bio-based solvents. Solvent applications for dihydrolevoglucosenone (Cyrene) and 2,2,5,5-tetramethyloxloane (TMO) are among their prominent discoveries. Dr. James Sherwood leads the Alternative Solvents Technology Platform at the GCCE. His research interests include solvent effects in organic synthesis and the substitution of hazardous solvents with novel bio-based solvents. Dr.
In 2007, John Warner and Jim Babcock founded the Warner Babcock Institute for Green Chemistry and, with Amy Cannon, founded the green chemistry education nonprofit organization Beyond Benign. John is the recipient of the 2004 Presidential Award for Excellence in Science Mentoring and the 2014 Perkin Medal. In addition, John is one of the founders of the field of green chemistry and is co-author of the defining textbook Green Chemistry: Theory and Practice.
Waste Li foils in the spent experimental Li-coin-cells may bring the potential risk and the waste of Li-resource if they aren't reasonably treated in time. For this purpose, waste Li foils were recycled in the form of black LiFePO4/C powders with the recovery of about 80% in this work.
Elsevier,

Sustainable Materials and Technologies, Volume 17, September 2018

There is a need to develop technology to enable a resource-efficient and economically feasible recycling system for lithium-ion batteries and thus assure the future supply of the component materials. Lithium-ion batteries are complex products, and designs and materials are still evolving, which makes planning for future recovery more challenging. Several processes for recycling are proposed or operating, and each has advantages and disadvantages. This paper compares these processes on technical and economic bases, elucidating differences in benefits as a function of cathode composition.

John A. Gladysz is a Distinguished Professor of Chemistry at Texas A&M University, where he holds the Dow Chair in Chemical Invention. He began his academic career at the University of California, Los Angeles and has also held appointments at the University of Utah and Universität Erlangen-Nürnberg. His group's current research centers around organometallic chemistry and branches into catalysis, organic synthesis, enantioselective reactions, stereochemistry, mechanism, and materials and green chemistry. John A.

Who wants to become a business leader? We investigated whether young adults' work values (i.e., the importance placed on different job characteristics and rewards) predict their entrepreneurial aspirations (i.e., the intention to create a venture) and leadership aspirations (i.e., the intention to become a leader in a business context). Furthermore, we illuminated whether gender differences in work values contribute to the pervasive gender gap in these aspirations.
Elsevier, Sustainable Materials and Technologies, Volume 16, July 2018
This paper contributes to the understanding of metal demand development over time by illustrating the impacts of different aspects of technological change using historical data. We provide a direct, quantitative comparison of relative change in global primary production for 30 metals over 21 years (1993–2013), capturing the range and variation of demand development for different metals within this period. The aspects of technological change contributing to this variation are investigated in more depth for nine metals.
Elsevier, Sustainable Materials and Technologies, Volume 16, July 2018
Sensing volatile organic compounds (VOC) is a promising approach in particular for the development of non-invasive, fast and inexpensive tool for the anticipated diagnostic of diseases and monitoring of exposition to toxic molecules. This paper examines for the first time the potential of biobased carbon nanorods (CNR), synthesized by a simple and green method in gram scale via the pyrolysis of castor oil, to build the conducting architecture of quantum resistive vapour sensors (vQRS).

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