Chemicals and waste

The management of chemicals and waste is a crucial aspect of achieving the Sustainable Development Goals (SDGs), a collection of 17 interlinked global goals designed to be a "blueprint to achieve a better and more sustainable future for all" by 2030. These goals were set up in 2015 by the United Nations General Assembly and are intended to be achieved by the year 2030. They address global challenges, including those related to poverty, inequality, climate change, environmental degradation, peace, and justice.

SDG 12, which focuses on Responsible Consumption and Production, is directly related to the management of chemicals and waste. This goal aims to ensure sustainable consumption and production patterns, which includes the environmentally sound management of chemicals and waste. The mismanagement of these elements can have severe environmental and health impacts, thus undermining the objectives of SDG 12.

One of the critical links between chemical and waste management and the SDGs is to human health, as outlined in SDG 3, which aims to ensure healthy lives and promote well-being for all at all ages. Improper handling and disposal of chemicals and waste can lead to pollution and contamination, which can have direct adverse effects on human health. This includes increased risks of diseases, long-term health conditions, and impacts on the well-being of communities, especially those living in close proximity to waste disposal sites or industrial areas.

The impact of waste management also extends to climate change, addressed in SDG 13. Excessive waste generation, particularly organic waste in landfills, contributes to the production of greenhouse gases like methane, a potent contributor to global warming. Additionally, the production and disposal of plastics, electronic waste, and other non-biodegradable materials contribute significantly to carbon emissions. Effective management and reduction of waste are essential to mitigate climate change impacts.

The preservation of life below water (SDG 14) and life on land (SDG 15) is also heavily influenced by how chemicals and waste are managed. Pollution from chemicals and waste can severely impact aquatic ecosystems, harming marine life and biodiversity. Similarly, terrestrial ecosystems and wildlife are at risk from land pollution and habitat destruction caused by improper waste disposal and chemical spills.

Furthermore, SDG 8, which focuses on promoting sustained, inclusive, and sustainable economic growth, full and productive employment, and decent work for all, is impacted by the management of chemicals and waste. Workers in industries dealing with chemicals and waste are often exposed to hazardous conditions. Ensuring their safety and health is a key aspect of achieving this goal. Moreover, sustainable waste management can create new job opportunities and contribute to economic growth through recycling and waste-to-energy sectors.

The effective and environmentally sound management of chemicals and waste is not only essential for achieving SDG 12 but also intersects with several other SDGs. It is a fundamental component of sustainable development, impacting human health, climate change, biodiversity, and economic growth. Addressing these challenges requires a holistic approach, encompassing strict regulatory frameworks, technological innovation, public awareness, and international cooperation to ensure a sustainable future.

Elsevier, Chem, Volume 1, 1 December 2016
Professor Paul T. Anastas holds the Teresa and H. John Heinz II Chair in Chemistry for the Environment at Yale University and serves as director of the Center for Green Chemistry and Green Engineering at Yale. He has published widely on the subject of green chemistry and has served in the administration of three US presidents. Professor Julie Zimmerman is an internationally recognized engineer whose work is focused on advancing innovations in sustainable technologies.
Dr. Jeannette García is a chemist at IBM Research–Almaden. Her research focuses on the rational design of new polymers and materials through sustainable methods and targeting recyclable materials with previously inaccessible properties. García received her PhD in chemistry at Boston College in 2012 under the guidance of Dr. Amir H. Hoveyda and worked with Dr. Jim Hedrick as a postdoctoral researcher until 2013.
[Figure presented]Profs. Nik Kaltsoyannis and Steve Liddle joined the University of Manchester School of Chemistry in 2015 as co-directors of the Centre for Radiochemistry Research after having previously held chairs at, respectively, University College London and the University of Nottingham. They are also heads of computational and inorganic chemistry, respectively. Each has published ∼150 research articles, reviews, and book chapters and has extensive experience in f-element chemistry. Prof.

[Figure presented] Leif Hammarström is a professor of chemical physics at Uppsala University, Sweden. He is one of the leaders of the Swedish Consortium for Artificial Photosynthesis, founded in the mid-1990s. He is chair of the Swedish Solar Energy Platform and represents Uppsala University as a core member of the Solar Fuels Institute.

ICIS,

ICIS EPCA Supplement 2015, pages 56-57, 26 September 2016

Future progress on managing climate change is in our hands
Landmark emissions targets were outlined at the COP21 meeting in Paris in 2015 and the chemical industry will play an important role in achieving them. The support of the chemical industry is vital for advancing SDG 13.2 to integrate climate change measures into national policies, strategies and planning. This report also emphasises the opportunities that climate action brings to the chemical industry.
Elsevier, Sustainable Materials and Technologies, Volume 9, 1 September 2016
Low-cost by-products from agricultural, household and industrial sectors have been recognized as a sustainable solution for wastewater treatment. They allow achieving the removal of pollutants from wastewater and at same time to contribute to the waste minimization, recovery and reuse. Despite numerous reviews have been published in the last few years, a direct comparison of data obtained using different sorbents is difficult nowadays because of inconsistencies in the data presentation.
In the US, land owners are liable for environmental impacts in relation to contaminated land. This Lexis Practice Advisor practice note explains what due diligence should be carried out in relation to the purchase of land/buildings to assess the environmental risk. Environmental due diligence advances SDG 3.9 to substantially reduce the number of deaths and illnesses from hazardous chemicals and air, water and soil pollution and contamination, and generally supports SDG 11 Sustainable cities and SDG 15 Life on land.
This book chapter advances SDGs 3 and 14 by detailing the most common aquatic contaminants.
ICIS,

Special Report, 3 July 2016

Covestro has produced bio-based PU dispersions for textile applications
Growing demands from brand owners and consumers for fibres and textiles that are more environmentally friendly are now creating a huge market for bio-based polymers produced using renewable feedstocks. The textile and packaging industries have a significant impact on the environment: this report highlights how recent developments in new materials support SDG 9 Industry, Innovation and Infrastructure, and SDG 7 Affordable and Clean Energy.
Energy geotechnics involves the use of geotechnical principles to understand and engineer the coupled thermo-hydro-chemo-mechanical processes encountered in collecting, exchanging, storing, and protecting energy resources in the subsurface. In addition to research on these fundamental coupled processes and characterization of relevant material properties, applied research is being performed to develop analytical tools for the design and analysis of different geo-energy applications.

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