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.

Elsevier, Current Research in Green and Sustainable Chemistry, Volume 3, June 2020
Bio-based aerogels with customizable porosities and functionalities constitute a significant potential for CO2 capture. Developing bio-based aerogels from different polysaccharides and proteins is a safe, economical, and environmentally sustainable approach. Polysaccharides are biodegradable, sustainable, renewable, and plentiful in nature. Because of these advantages, the use of bio-based aerogels with porosity and amine functionality has attracted considerable interest.
Elsevier,

Polymer Science and Innovative Applications, Materials, Techniques, and Future Developments, 2020, Pages 525-543

This chapter supports SDGs 2, 9 and 12 by discussing the critical role that polymeric materials play in terms of food packaging - increasing responsible consumption and sustainability, supporting transport of food, and reducing food waste. The chapter also highlights the latest developments in bio-based/biodegradable food packaging which offers a more sustainable route than traditional synthetic plastic food packaging.
The SDG Impact of COVID-19 podcast series gathers expert opinion exploring the impact of COVID-19 on the Sustainable Development Goals. In this segment, we get the view of Kanika Dewan, President of Bramco Group, Founder of Ka Design Atelier and a World Economic Forum Young Global Leader.
Beyond their traditional use as green solvents, new applications have become available for ionic liquids (ILs) in drug delivery. Their flexible tunability enables task-specific optimization of ILs at molecular level. Thus, ILs have been exploited to improve the solubility and permeability of drugs and relieve the polymorphic problems associated with crystalline active pharmaceutical ingredients (APIs). Controlled preparation of drug nanocarriers are also achieved by using ILs either as media or as functional agents.
Elsevier,

Sustainable Materials and Technologies, Volume 23, April 2020

Lithium-ion batteries (LIBs) have an established role in the consumer electronics markets with minimum risk of replacement from any other contender in the near future. The recent momentum towards electric vehicles and the renewable energy storage market is creating an increased demand for LIBs. The large amount of hazardous waste generated from the disposal of LIBs is driving research into a sustainable approach for LIB treatment and recovery. The positive electrode active materials being the main targeted component as it is the greatest cost contributor to LIBs production.

A possibility of developing an environmental-friendly photovoltaic/thermal (PV/T) solar panel, which can shut high temperature radiation within a panel box, was experimentally confirmed. The panel has a decompression-boiling heat collector, which can absorb heat from the PV module and can keep the air and the cover glass inside the panel box at lower temperature by using lower boiling temperature of working fluid under vacuum condition. The panel also has an emboss-processed cover glass, which can totally reflect the high temperature heat radiation from the PV module within the panel box.
Leaders require new tools to make better strategic decisions in an increasingly complex and uncertain environment. The World Economic Forum offers Strategic Intelligence as an engagement option to help you understand the global forces at play and make informed decisions that will have a positive impact on your organisation. The platform contributes to a range of SDGs, including Goals 9 and 17.
This book chapter advances SDGs 3 and 13 by highlighting the green and sustainable alternatives that have been used so far in the open literature for the production of waterborne polymeric dispersions.
Elsevier, Cold Fusion: Advances in Condensed Matter Nuclear Science, Volume , 14 January 2020
Long-term electrolysis with a thick Pd electrode in 0.1. M LiOD was performed. Some techniques to conduct clean and stable electrolysis are described. The surface morphology of postelectrolysis Pd electrodes was analyzed: it consisted of holes and two long faults without any crack. To understand the evolution of the morphology, the physicochemical properties of hydrated Pd have been studied by in situ potentiometric, resistance, and dilatometric measurements. The results of microstructural changes were further analyzed with reference to knowledge of hydrogen embrittlement.
This book chapter addresses goals 9 and 12 by describing recycling methods including primary, mechanical, chemical and quaternary, to create new valuable products from plastic wastes and keep them out of landfill.

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