Joannette Jacqueline Bos

Enabling sustainable urban water management through governance experimentation

A shift towards sustainable urban water management is widely advocated but poorly understood. There is a growing body of literature claiming that social learning is of high importance in restructuring conventional systems. In particular, governance experimentation, which explicitly aims for social learning, has been suggested as an approach for enabling the translation of sustainability ideas into practice. This type of experimentation requires a very different dynamic within societal relations and necessitates a changed role for professionals engaged in such a process. This empirically focused paper investigates a contemporary governance experiment, the Cooks River Sustainability Initiative, and determines its outcome in terms of enabling social learning for attaining sustainable water practice in an urban catchment. Drawing on the qualitative insights of the actors directly involved in this novel process, this paper provides evidence of changes in individual and collective understanding generated through diverse forms of social interaction. Furthermore, the research reveals perceived key-factors that foster and/or hamper the execution of this new form of experimentation, including project complexity, resource intensity and leadership. Overall, this paper highlights that, while implementation of governance experimentation in a conventional setting can be highly challenging, it can also be highly rewarding in terms of learning.

Standing on the shoulders of giants: Understanding changes in urban water practice through the lens of complexity science

Abstract Scholars assert that traditional approaches to urban water management need reforming. These debates have identified the need to move toward systems and complexity thinking. The literature offers limited insight into the utility of complexity theory in enhancing urban water policy and practice. This paper aims to address this gap by: (i) synthesizing the intellectual history of complexity science, (ii) identifying key principles of complexity theory and (iii) providing insights into how complexity theory can contribute to twenty-first century urban water management. We reveal how Newtonian logic is deeply embedded in contemporary Western urban water policy and practice. We identify three insights from complexity science that could potentially yield better urban water policy and practice outcomes: system boundaries; agents and networks; and far from equilibrium. These theoretical insights offer an important contribution to scholarly debates as embedded normative frameworks need to be recognized, understood and addressed before transformative change can materialize.

Realising sustainable urban water management: Can social theory help?

It has been acknowledged, in Australia and beyond, that existing urban water systems and management lead to unsustainable outcomes. Therefore, our current socio-technical systems, consisting of institutions, structures and rules, which guide traditional urban water practices, need to change. If a change towards sustainable urban water management (SUWM) practices is to occur, a transformation of our established social-technical configuration that shapes the behaviour and decision making of actors is needed. While some constructive innovations that support this transformation have occurred, most innovations remain of a technical nature. These innovative projects do not manage to achieve the widespread social and institutional change needed for further diffusion and uptake of SUWM practices. Social theory, and its research, is increasingly being recognised as important in responding to the challenges associated with evolving to a more sustainable form of urban water management. This paper integrates three areas of social theories around change in order to provide a conceptual framework that can assist with socio-technical system change. This framework can be utilised by urban water practitioners in the design of interventions to stimulate transitions towards SUWM.