Abstract

Modern industrial agriculture is largely responsible for environmental problems, such as biodiversity loss, soil degradation, and alteration of biogeochemical cycles or greenhouse gas emission. Agroecology, as a scientific discipline as well as an agricultural practice and movement, emerged as a response to these problems, with the goal to create a more sustainable agriculture. Another response was the emergence of permaculture, a design system based on design principles, as well as a framework for the methods of ecosystem mimicry and complex system optimization. Its emphasis, being on a conscious design of agroecosystems, is the major difference to other alternative agricultural approaches. Agroecology has been a scientific discipline for a few decades already, but only recently have design principles for the reorganization of faming systems been formulated, whereas permaculture practitioners have long been using design principles without them ever being scrutinized. Here, we review the scientific literature to evaluate the scientific basis for the design principles proposed by permaculture co-originator, David Holmgren. Scientific evidence for all twelve principles will be presented. Even though permaculture principles describing the structure of favorable agroecosystems were quite similar to the agroecological approach, permaculture in addition provides principles to guide the design, implementation, and maintenance of resilient agroecological systems.

Highlights

  • In the late 19th century, it became clear that a more efficient agricultural system was needed to feed the people, especially in the Global South [1]

  • Agroecology had been a scientific discipline for a few decades when agroecology principles were defined for the redesign of farming systems

  • Permaculture is another design approach for sustainable agriculture, which has always been isolated from scientific research

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Summary

Introduction

In the late 19th century, it became clear that a more efficient agricultural system was needed to feed the people, especially in the Global South [1]. During the 1960s, the green revolution, with the invention of high-yield varieties, synthetic pesticides, and fertilizers, as well as modern machinery, seemed to be the solution to hunger and the prevention of conflicts over nutritional resources [2]. With an increasing yield per unit of land, a decreasing work load, and improved food safety, these technical solutions provided an obvious improvement. These advantages came along with an unforeseen price [3,4,5,6]. Agriculture has a strong impact on (a) biodiversity, (b) soil organic matter, (c) water reservoirs, (d) greenhouse gases, (e) the nitrogen cycle, and (f) the phosphorus cycle: 1.1.

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