Growth in resource consumption and associated environmental degradation threatens food systems, with millions of people living in hunger globally, demonstrating the need for greater socio-ecological efficiency in food provisioning. This paper considers how sustainable consumption can ensure that human needs with regards to food provisioning (food security) are met within globally sustainable limits. It follows a sectoral approach to sustainable consumption corridors (SCCs), to develop an indicator framework for a food provisioning systems SCC.

Bridging social and ecological evaluations of sustainability in food systems has proved to be a challenge, illustrating the need for indicator sets which link environmental impacts and social achievement within a single framework. This work aims to fill that research gap by considering how the sustainable consumption corridor (SCC) framework can be used to examine the socio-ecological efficiency of food provisioning systems and developing a comprehensive SCC framework for food provisioning. The framework uses domains to define the minimum level of consumption needed to meet human needs (social foundation [SF]) and the maximum level of environmental impact the earth system can tolerate (ecological ceiling [EC]) while sustainably meeting those needs. It does so through the production of an indicator set for food provisioning systems that gives indicators and thresholds for the EC and SF domains within a single framework. This output is followed by a discussion of how this global SCC framework could be altered for use in different contexts, and suggestions for how such a framework could inform consumption linked sustainability policy.

This work puts forth a sustainable consumption corridor framework to evaluate if food provisioning systems are meeting human needs within sustainable limits.

Human societies are changing where and how water flows through the atmosphere. However, these changes in the atmospheric water cycle are not being managed, nor is there any real sense of where these changes might be headed in the future. Thus, we develop a new economic theory of atmospheric water management, and explore this theory using creative story-based scenarios. These scenarios reveal surprising possibilities for the future of atmospheric water management, ranging from a stock market for transpiration to on-demand weather. We discuss these story-based futures in the context of research and policy priorities in the present day.

Humanity is modifying the atmospheric water cycle, via land use, climate change, air pollution, and weather modification. Historically, atmospheric water was implicitly considered a ‘public good’ since it was neither actively consumed nor controlled. However, given anthropogenic changes, atmospheric water can become a ‘common-pool’ good (consumable) or a ‘club’ good (controllable). Moreover, advancements in weather modification presage water becoming a ‘private’ good, meaning both consumable and controllable. Given the implications, we designed a theoretical framing of atmospheric water as an economic good and used a combination of methods in order to explore possible future scenarios based on human modifications of the atmospheric water cycle. First, a systematic literature search of scholarly abstracts was used in a computational text analysis. Second, the output of the text analysis was matched to different parts of an existing economic goods framework. Then, a group of global water experts were trained and developed story-based scenarios. The resultant scenarios serve as creative investigations of the future of human modification of the atmospheric water cycle. We discuss how the scenarios can enhance anticipatory capacity in the context of both future research frontiers and potential policy pathways including transboundary governance, finance, and resource management.

Story-based scenarios reveal novel future pathways for the management of the atmospheric water cycle.

This article uses water to examine how the relationships of ethics to science are modified through the pursuit of Earth stewardship. Earth stewardship is often defined as the use of science to actively shape social–ecological relations by enhancing resilience. The changing relations of science to values are explored by considering how ideas of resilience operate to translate different ways of knowing water into the framework of Earth stewardship. This is not a neutral process, and Earth stewardship requires careful appraisal to ensure other ways of knowing water are not oppressed.

Scientific disclosures of anthropogenic impacts on the Earth system – the Anthropocene – increasingly come with ethical diagnoses for value transformation and, often, Earth stewardship. This article examines the changing relationship of science to values in calls for Earth stewardship with special attention to water resilience. The article begins by situating recent efforts to reconceptualize human–water relations in view of anthropogenic impacts on the global water system. It then traces some of the ways that Earth stewardship has been articulated, especially as a framework supporting the use of science to actively shape social–ecological relations by enhancing resilience. The shift in relations of ethics and science entailed by Earth stewardship is placed in historical context before the issues of water resilience are examined. Resilience, and critiques of it, are then discussed for how they operate to translate different ways of knowing water into the framework of Earth stewardship. The ethical stakes of such translations are a core concern of the conclusion. Rather than reducing different ways of knowing water to those amendable to the framework of Earth stewardship, the article advances a pluralized approach as needed to respect multiple practices for knowing and relating to water – and resilience.

Water resilience is key to Earth stewardship; Jeremy Schmidt examines how it changes relations of science and ethics.

There has been a long history of conflicts, studies, and debate over how to both protect rivers and develop them sustainably. With a pause in new developments caused by the global pandemic, anticipated further implementation of the Paris Agreement and high-level global climate and biodiversity meetings in 2021, now is an opportune moment to consider the current trajectory of development and policy options for reconciling dams with freshwater system health.

We calculate potential loss of free-flowing rivers (FFRs) if proposed hydropower projects are built globally. Over 260,000 km of rivers, including Amazon, Congo, Irrawaddy, and Salween mainstem rivers, would lose free-flowing status if all dams were built. We propose a set of tested and proven solutions to navigate trade-offs associated with river conservation and dam development. These solution pathways are framed within the mitigation hierarchy and include (1) avoidance through either formal river protection or through exploration of alternative development options; (2) minimization of impacts through strategic or system-scale planning or re-regulation of downstream flows; (3) restoration of rivers through dam removal; and (4) mitigation of dam impacts through biodiversity offsets that include restoration and protection of FFRs. A series of examples illustrate how avoiding or reducing impacts on rivers is possible – particularly when implemented at a system scale – and can be achieved while maintaining or expanding benefits for climate resilience, water, food, and energy security.

Policy solutions and development pathways exist to navigate trade-offs to meet climate resilience, water, food, and energy security goals while safeguarding FFRs.