Sustainable consumption and production

Sustainable consumption and production (SCP) is at the core of the United Nations Sustainable Development Goals (SDGs), specifically addressed by SDG 12. This goal aims to "ensure sustainable consumption and production patterns," acting as a cross-cutting theme that feeds into other SDGs such as those related to climate change, poverty, health, and sustainable cities.

SCP involves using services and products in a way that minimizes environmental damage, preserves natural resources, and promotes social equity. The purpose is to decouple economic growth from environmental degradation, which means pursuing economic development in a way that can be sustained by the planet over the long term. SCP requires changes at all levels of society, from individuals to businesses to governments.

At the individual level, SCP implies making lifestyle choices that reduce environmental impact. This might include reducing, reusing, and recycling waste, choosing products with less packaging, and opting for more sustainable forms of transport like cycling or public transport.

For businesses, SCP entails adopting sustainable business models and practices. This could include improving resource efficiency, investing in renewable energy, designing products that are durable and recyclable, and ensuring fair labor practices.

At the government level, SCP involves implementing policies that support sustainable business practices and incentivize sustainable consumer behavior. This might involve regulations to reduce pollution, subsidies for renewable energy, and campaigns to raise awareness about sustainable consumption.

SCP also plays a role in several other SDGs. For example, sustainable production practices can help mitigate climate change (SDG 13) by reducing greenhouse gas emissions. Additionally, by reducing the pressure on natural resources, SCP supports the goals related to life below water (SDG 14) and life on land (SDG 15).

While progress has been made in certain areas, challenges remain in achieving the shift towards SCP. These include existing patterns of overconsumption, limited awareness about the impacts of consumption, and the need for technological innovation to enable more sustainable production.

Elsevier,

Miguel Angel Gardetti, Chapter 1 - Introduction and the concept of circular economy, Editor(s): Subramanian Senthilkannan Muthu, In The Textile Institute Book Series, Circular Economy in Textiles and Apparel, Woodhead Publishing, 2019, Pages 1-11, ISBN 9780081026304,
https://doi.org/10.1016/B978-0-08-102630-4.00001-7.

This chapter advances UN SDG goal 12 by ensuring sustainable consumption and production patterns
Elsevier,

Food Industry Wastes, Assessment and Recuperation of Commodities, 2013, Pages 17-36.

This chapter advances goal 12 by examining the development of green food production strategies; these take a holistic approach while applying principles of industrial ecology and maintaining the integrity of the biosphere.
Sustainable innovation is a key-objective for our Group that has recently integrated the principles of sustainable development into all stages of a product's life cycle, from its design to consumer use. The following ambitious commitment: 100% of its products should bring an environmental (or social benefit) by 2020, will be reached, in particular, by integrating and giving a constant privilege to renewable raw materials -or ingredients-that originate from sustainable resources that fully comply with the green chemistry rules.
Elsevier, Current Opinion in Green and Sustainable Chemistry, Volume 13, October 2018
The United Nations’ Sustainable Development Goals (SDG's) have exceptional value in identifying key areas of challenge that need urgent improvement if we are to move away from the unsustainable trajectory that we are on. The place that is a major shortcoming of these goals is that they take a highly integrated and inextricably linked system, and express them as individual areas such as food, water, poverty, materials, empowerment, etc. In the absence of systems thinking, there is an excellent chance of noble intentions bringing about unintended and perhaps counter-productive consequences.
Since their launch in 2015, the United Nations Sustainable Development Goals have been adopted by a wide range of businesses to capture their efforts in corporate sustainability. This review highlights specific examples from the chemical industry, together with an evaluation of the approaches and tools some companies are using to support the realisation of the goals. A view towards the efforts required by the chemical industry in order to maximise the impact of the goals is also provided.
Elsevier, Current Opinion in Green and Sustainable Chemistry, Volume 13, October 2018
Sustainable green chemistry depends on technically feasible, cost-effective and socially acceptable decisions by regulators, industry and the wider community. The discipline needs to embrace a new suite of tools and train proponents in their use. We propose a set of tools that will bridge the gap between technical feasibility and efficiency on one hand, and social preferences and values on the other. We argue that they are indispensable in the next generation of regulators and chemistry industry proponents.
Producing enough food of sufficient quality to feed an ever increasing population faces many challenges. This will require higher yields from agricultural production to meet the demands of changing population demographics using the limited natural resources available. Crop protection chemicals, developed by the agrochemical industry, are used by growers to ensure that consistently high yields are obtained, provide ease and reliability of harvest and to maintain excellent quality of produce from the crops they grow.
Elsevier, Current Opinion in Green and Sustainable Chemistry, Volume 13, October 2018
Until now, much Green and Sustainable Chemistry has been focused on how chemicals are made. Here we suggest that, if chemistry is to contribute effectively to achieving the SDGs, we need to change the way that things are done at both ends of the chemical supply chain. For chemical research at the start of the chain, we need to rethink how we build the laboratories in which we carry out the research so as to minimize the use of energy.
Elsevier, Current Opinion in Environmental Sustainability, Volume 34, October 2018
Actions on climate change (SDG 13), including in the food system, are crucial. SDG 13 needs to align with the Paris Agreement, given that UNFCCC negotiations set the framework for climate change actions. Food system actions can have synergies and trade-offs, as illustrated by the case for nitrogen fertiliser. SDG 13 actions that reduce emissions can have positive impacts on other SDGs (e.g. 3, 6, 12, 14, 15); but such actions should not undermine the adaptation goals of SDG 13 and SDGs 1, 2, 5 and 10.
Activities in the food-energy-water nexus require ecosystem services to maintain productivity and prevent ecological degradation. This work applies techno-ecological synergy concepts in an optimization formulation to design a system for co-producing food and energy under constraints on ecological sustainability. The system includes land use activities and biomass conversion processes for the production of energy carriers, as well as supporting ecosystems that increase the supply of key ecosystem services.

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