Give peas a chance: Transformations in food consumption and production systems

https://doi.org/10.1016/j.techfore.2004.12.005Get rights and content

Abstract

Food production chains can be organised in a variety of ways. Conventional ‘industrial’ agricultural practices are based on advanced breeding techniques and major inputs of chemical fertilisers and pesticides. Food produced in this way is transport-intensive, requires high-energy processing, relies on modern retailing systems and demands high-tech kitchens. Many argue that the industrialised systems should be dismantled and replaced with alternative methods of agriculture, food processing and distribution that emphasise social and environmental sustainability. This paper looks at the environmental and social sustainability of different strategies for food systems by analysing the whole chain of production, processing, distribution and consumption activities of the production of frozen peas, a vegetable that is ‘symbolic’ of modern food systems and the UK diet.

Introduction

Technological innovation and the changes in supporting economic and social structures that come with it (collectively known as “innovation”) will be central to the achievement of sustainable production and consumption in all areas of human activity. If current systems of production and consumption are unsustainable in terms of their resource usage, ecological impact and long-term environmental effects, then new systems of provision will be needed, entailing new processes, new products, new services and new management practices. If these do not exist, they will have to be invented and launched into social and economic use. Conversely, new forms of social relationships that are innovated with environmental improvement as their goal will inevitably use products and processes in new ways. There is thus a strong relationship between innovation in socio–economic arrangements and innovation in the material products and processes in which they are entwined—socio–technical systems of provision as they might be called [1]. Consequently, understanding the processes that are likely to underpin these developments is crucial for policy intervention to achieve desirable forms of sustainability.

In this paper, we begin an exploration of socio–technical systems for the provision of food. As an example of our approach to such explorations, we look at the dynamics of the system for the production and consumption and production of the frozen pea in the UK. We analyse the frozen pea system to identify the sources of technological control and innovative solutions in dealing with the system's ‘unsustainabilities’. We might expect that similar analyses could be done on the systems of provision of other types of food (and indeed these are the subject of a research project from which this paper is derived).

According to Robert White, ex-President of the US National Academy of Engineering, Industrial Ecology is “the study of the flows of material and energy in industrial and consumer activities, of the effects of these flows on the environment and of the influences of economic, political, regulatory and social factors on the flow, use and transformation of resources”[2]. The direction of flow between the ‘physical’/‘material’ world and the ‘social/economic/political’ world is, in this definition, one in which the social ‘influences’ the physical. But, as work in innovation studies continues to show, it is possible to see the physical–social relation in a different way, with the process of innovation being ‘embedded’ in structures of social relations (including those that inform consumption patterns and practices)[3]. A key idea is how we can re-think the link between the flow of materials, a flow which Industrial Ecology is especially skilled at analyzing, with the social, economic, and organizational structures which cause physical flows to be and become ‘clumped’ (concentrated/dispersed) in particular ways. We can also proceed to identify empirically the location(s) of actual innovative change within those structures. We can further identify potential sites for innovation, together with constraints on change and possible reasons for resisting change.

As one of us has argued elsewhere [4], the notion of ‘sustainability’ in its broadest meaning, as opposed only to the reduction in the environmental impact of individual products or agricultural or industrial processes, requires thinking in ‘systemic’ terms. Transforming human activities with respect to food implies a focus on the whole system of agricultural, industrial, retailing and household ‘sectors’ and their interrelationships, with their strongly connecting regional, national and international dimensions. In addition, systemic thinking is concerned with more than the production of food, in agriculture and food processing factories; it also includes distribution and the preparation of final meals whether this be in individual households or in more communal arrangements whether commercial or non-commercial. We can thus define Food Consumption and Production Systems (FCPSs) to include the whole ‘chain’ of human-organized activities concerned with the production, processing, transport, selling, cooking and eating of food and the disposal of the wastes of such activities [5], [6]. Thinking ‘systemically’ allows a focus on an important, if neglected, aspect of sustainability, namely the intimately connected relationships of all stages of production and of production with the institutions of consumption.

Section snippets

Peas: industrial ecology and innovation

The production of frozen peas can be seen as the current example of a Fordist production and consumption system. Fig. 1 presents a “system map” for the frozen pea in the UK. The frozen pea is especially important, symbolically if not quantitatively or nutritionally, for the UK diet. It is the archetypal green vegetable, the first one to be available in a frozen form in the 1950s and the first to have its consumption, in a ‘fresh’ form, detached from its seasonality. It symbolizes other things

Conclusion

The map of the UK frozen pea system in this paper has been presented not just in terms of its materials flow but also of the particular institutional, technological and economic factors that influence and indeed structure it. As such, it presents the opportunity for further research into the implications for the system and the actors within it of working towards different definitions of sustainability. In drawing up a description and graphic representation that cover all elements of the frozen

Acknowledgements

This paper is an output of a project on “Technological Transformations in Food Consumption and Production Systems”, funded by the UK Economic and Social Research Council's Sustainable Technologies Programme. The project is a joint one between the University of Manchester and the University of Cardiff. The paper was originally presented, in a longer version, to the IHDP Open Science Conference, Montreal, October 2003. Thanks to Andrew Flynn, BRASS, University of Cardiff and Sally Randles,

Ken Green is a Director of the Institute of Innovation Research at Manchester Business School where he is Professor of Environmental Innovation Management. He works on the relationship between technological change and sustainable development.

References (19)

  • A.W. Browne et al.

    Organic production and ethical trade: Definition, practice and links

    Food Policy

    (2000)
  • R. Lifset et al.

    Industrial ecology: Goals and definitions

  • K. Green et al.

    Transformations in food consumption and production systems

    J. Environ. Policy Plann.

    (2003)
  • G. Tansey et al.

    The food system: A guide

    (1995)
  • E. Millstone et al.

    The atlas of food: Who eats what, where and why?

    (2003)
  • Forum for the Future/Unilever: In pursuit of the sustainable pea. London, Forum for the Future, no...
  • A fuller exposition is in Green et al.: see Ref....
There are more references available in the full text version of this article.

Cited by (49)

  • Keystones affecting sub-Saharan Africa's prospects for achieving food security through balanced diets

    2018, Food Research International
    Citation Excerpt :

    The food system is responsible for providing diets that have these attributes. It can be broken down into sub-systems (Sobal, Kettel Khan, & Bisogni, 1998): chains of “…human-organized activities concerned with the production, processing, transport, selling, cooking and eating of food and the disposal of the wastes of such activities” (Green & Foster, 2005: 664). These can be represented as episodes taking place in the biophysical, economic, socio-cultural and governance sub-systems of a single food system (see Fig. 1: Onion Diagram of the Food System).

  • The futures of genetically-modified foods: Global threat or panacea?

    2016, Futures
    Citation Excerpt :

    Many reports and articles investigate food and its impact on environment and society; the diversity of these studies is striking and confirms the central role played by food in society, culture, and the world ecosystem. Existing studies outline the challenges raised by the further growth of human population, especially in developing countries that already have food shortages (Agoramoorthy, 2008; Meier, 2007; Tudge, 1988); the problems determined by climate change and environmental degradation (Dahlberg, 1994; Dietrich, Schmitz, Lotze-Campen, Popp, & Müller, 2014; Neuvonen et al., 2014); and the impact of globalization on food production and consumption (Gordon, 1998; Green & Foster, 2005; Pinstrup-Andersen & Pandya-Lorch, 1998; Shiva, 2004). The discipline of futures studies (FS) is called upon to provide potential solutions to these problems (Kreit, Lueck Avery, & Falcon, 2011), by proposing and analyzing alternative scenarios about the future of food: “I am confident that the FS community is suitably diverse, open enough, and supportive enough of each other’s perspectives that we can think and write about food more often and within a spectrum of localised, alternative futures.” (

View all citing articles on Scopus

Ken Green is a Director of the Institute of Innovation Research at Manchester Business School where he is Professor of Environmental Innovation Management. He works on the relationship between technological change and sustainable development.

Chris Foster is a part-time Research Fellow in the Institute of Innovation Research at Manchester Business School; he also runs EuGeos (an environmental consultancy). He specialises in Life-Cycle Analysis and related systemic environmental evaluations.

View full text