| Literature DB >> 34178184 |
Cees Leeuwis1, Birgit K Boogaard1, Kwesi Atta-Krah2.
Abstract
This paper argues that supporting food system transformation requires more than obtaining science-based understanding and analysis of how components in the system interact. We argue that changing the emergent properties of food systems (what we call food system synthesis) is a socio-political challenge that is affected by competing views regarding system boundaries and purposes, and limited possibilities for central steering and control. We point to different traditions of 'systems thinking' that each emphasize particular types of interventions for achieving system change, and argue that food systems are best looked at as complex multi-dimensional systems. This implies that we need to move beyond rational engineering approaches to system change, and look for approaches that anticipate and accommodate inherent social tensions and struggles in processes of changing food system dynamics and outcomes. Through a case study on the persistence of an undesired emergent property of food systems (i.e. poverty) we demonstrate that a multi-level perspective (MLP) on system transformation is useful in understanding both how food system transformation has happened in the past, and how desirable transformations is prevented from happening today. Based on such insights we point to key governance strategies and principles that may be used to influence food system transformation as a non-linear and long-term process of competition, negotiation and reconfiguration. Such strategies include the creation and nurturing of diversity in the system, as well as process interventions aimed at visioning, destabilization and formation of discourse coalitions. Such governance interventions imply a considerable re-orientation of investments in food system transformation as well as a rethinking of the role that policy-makers may play in either altering or reproducing undesirable system outcomes.Entities:
Keywords: Food systems transformation; Governance; Intervention; Policy recommendations; Systems thinking; Transition
Year: 2021 PMID: 34178184 PMCID: PMC8211938 DOI: 10.1007/s12571-021-01178-4
Source DB: PubMed Journal: Food Secur ISSN: 1876-4517 Impact factor: 3.304
Fig. 1Emergent properties and synergy: ‘the whole is more than the sum of the parts’ (source: own elaboration)
Fig. 2Different actors do not have the same conception of the system (source: ‘The blind men and the elephant’, inspired by an Indian parable)
Fig. 3Two different ways of conceptualising a food system. a. The role of farm animals in a circular food system (Van Zanten et al., 2019). b. Food supply chains and food environments (adapted wheel concept from Ranganathan et al., 2016 in HLPE, 2017)
Different strands of systems thinking (adapted from: Leeuwis & Wigboldus, 2017; see also Leeuwis, 2004)
| Type of systems thinking (origin and/or literature sources) | Key metaphor and assumption depicting how systems are seen | Key change strategy implied | Example in a food system context |
|---|---|---|---|
| Hard system thinking (scientific management, Taylor, | Machines Interactions in natural and social systems can be known and predicted | Engineer and optimize towards a given goal | Use crop growth models to decide where and how crops should be grown in order to maximize efficiency or minimize risk. |
| Functionalist systems thinking (human relations management, Roethlisberger & Dickson, | Organisms Systems are functional wholes, depending on relations between components and environment | Re-balance and adapt in a changing environment | Increase the weight of ‘drought tolerance’ as a criterion for variety selection in response to climate change. |
| Soft systems thinking (Checkland, | Meanings Systems consist of people with different worldviews and boundary definitions | Foster dialogue, learning and agreement among actors | Bring all stakeholders in a food system together to exchange goals and views in the hope that they reach agreement on a way forward. |
| Cognitive/Autopoietic systems thinking (Luhmann, | Psychic prisons Biological and social systems tend to perceive the world through their own logic and be blind to others | Shock therapy by creating a crisis | Threaten stakeholders in a food system that draconic measures will be taken unless they come up with an agreed upon plan at a certain deadline. |
| Political/Critical systems thinking (Jackson, | Arenas of struggle Systems are characterized by power structures that constrain system change | Coalition building, competition and negotiation | Bring together those actors in a food system that are in favour of biological pest control, and provide them with resources to lobby against the pesticide industry. |
| Social/Institutional systems thinking (Giddens, | Rules Formal and informal rules are produced and reproduced in interaction, resulting in certain orders | Change rules and incentive structures | Combat obesity by introducing a progressive sugar tax for food processers and retailers that sell sugared foods. |
| Complex systems thinking (Prigogine & Stengers, | Self-organisation New orders emerge without central steering as the unplanned result of multiple intentional actions | Identify existing trends and opportunities arising from these | Install a multi-disciplinary foresight committee to identify simultaneously occurring trends and pressures in food systems, and discuss what latent futures may become more feasible. |
Fig. 4The multi-level perspective on system innovation (adapted from Schot & Geels, 2008)
Box 1 An example of self-organisation: The emergence of an obesogenic pattern in food systems
| In many societies obesity has become an increasing health problem that is clearly related to the functioning of food systems. Thus, overweight can be seen as an emergent property of food systems. According to the literature (see e.g. Swinburn et al., |
Box 2 Pitfalls and opportunities of multi-stakeholder platforms
| There is an increased interest in multi-stakeholder platforms as a governance model for stimulating innovation and development in food systems (Boogaard et al., | |
| Several opportunities: | |
| • Bring interdependent actors together to create meaningful change | |
| • Come to some kind of coordination, agreement and mutual expectation between platform members | |
| • Offer space for communication, learning and dispute resolution | |
| • Jointly define challenges, opportunities and possible solutions and actions | |
| • Provide access to research capacity and jointly identify research questions | |
| Several pitfalls: | |
| • Multi-stakeholder processes are characterized by a certain messiness, tension and competition | |
| • Platform members tend to disagree on the direction ‘development’ should take | |
| • Researchers become involved in politics, ethics and legitimacy issues | |
| • Multi-stakeholder platforms can be hijacked by formal programs | |
| • It is notoriously difficult to elicit relevant research questions | |
| • Platforms may be used for diffusion purposes only, failing to address important social, technical and epistemological constraints. |