Agroecological Protection of Mango Orchards in La Réunion

  • Jean-Philippe Deguine
  • Maxime Jacquot
  • Agathe Allibert
  • Frédéric Chiroleu
  • Rachel Graindorge
  • Philippe Laurent
  • Guy Lambert
  • Bruno Albon
  • Marlène Marquier
  • Caroline Gloanec
  • Luc Vanhuffel
  • Didier Vincenot
  • Jean-Noël Aubertot
Chapter
Part of the Sustainable Agriculture Reviews book series (SARV, volume 28)

Abstract

Mango is one of the world’s major tropical crops. In Réunion, the crop is plagued by pests, which have, over several decades, led to an over-reliance on agrochemicals. These expensive treatments have limited efficacy, and negative effects on the environment are associated with health risks and ecological imbalances. In addition, these agroecosystems are not ecologically sustainable. That is why in recent years, Agroecological Crop Protection has been applied to mango production in Réunion. The Biophyto project (2012–2014) was co-designed between 2010 and 2011 and brought together a number of agricultural partners in a collective approach to the crisis. It was followed until 2017 with further studies and experiments, as well as an extension phase to transfer knowledge to production areas. The experience broke new ground in Agroecological Crop Protection. A large quantity of data was collected which enabled comparisons between conventional and agroecological orchards. The results of this pioneering experience were very encouraging and the major points are (1) The Agroecological Crop Protection practices, mainly the suppression of pesticides, use of prophylaxis and permanent vegetal cover, which are the bases of conservation biological control, have been widely adopted by farmers. (2) These practices were found to reduce populations of pests and damage caused, e.g. mango bug, mealybugs, and had no negative impact on flowering level. (3) The treatment frequency index (TFI) decreased from 22.4 before the project to 0.3 after the project. Production costs were reduced by 35% without any loss of yield, except in a few specific circumstances. (4) The 124,001 arthropods identified from the 126,753 arthropods collected in orchards belong to 4 classes, 23 orders, 215 families, 451 genera and 797 morphotypes. The parasitoids formed the richest trophic group. (5) Bottom-up and top-down controls of biodiversity within a single community of arthropods were observed, and the role of ants, including invasive species, was quantified. (6) There was a negative effect of parasitoid diversity on the abundance of the Seychelles mealybug; the proportion of mango orchards in the landscape had a positive effect of on the abundance of South African citrus Thrips. (7) This experience also produced a large number of transfer assistance tools, particularly in the field of professional training. For example, a University Certificate of Professional Qualification (UCPQ) entitled “Agroecological Crop Protection”, and aimed at growers, technicians and agricultural advisers, has been available since 2013. (8) Other tools have been implemented by agricultural agencies and policy makers in order to facilitate the extension of agroecological practices: demonstration Dephy Ferme plots, a Biophyto Agri-Environment and Climate Measure and an Economic and Environmental Interest Group.

Keywords

Agroecology Crop protection Co-design Conservation biological control Functional biodiversity Training Transfer assistance Research and development 

Notes

Acknowledgements

The authors of the project wish to thank all mango growers who contributed to this agroecological experience. They were instrumental in informing the general public about the effectiveness of new techniques and the success of the project. Acknowledgments are also extended to all partners involved in the project, especially C. Ajaguin Soleyen, M. Atiama, A. Bailly, J. Brun-Vitelli, C. Cresson, B. Derepas, S. Dinnoo, P. Ferron, S. Gasnier, V. Gazzo, the Gros, K. Le Roux, E. Lucas, R. Michellon, M.-L. Moutoussamy, D. Muru, T. Nurbel, S. Plessix, T. Ramage, A. Reteau, M. Rousse, C. Schmitt, T. Schmitt, W. Suzanne, E. Tarnus, K. Técher and M. Tenailleau. In addition, our gratitude goes to the Ministry of Agriculture, Food and Forestry of the French Government, which enabled us to carry out the Biophyto project through the Trust Account for Agricultural and Rural Development (CASDAR-1138, CASDAR 2011) and the Biophytomang2 project within the framework of Ecophyto 1. The Biophyto project has been approved by Qualitropic. This agroecological experience was co-financed by the European Union (European Regional Development Fund (ERDF) and Agricultural Fund for Rural Development (EAFRD)), the Conseil Régional de La Réunion, the Conseil Départemental de La Réunion and the Centre de Coopération internationale en Recherche Agronomique pour le Développement (CIRAD) to whom we extend our thanks.

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Copyright information

© Springer International Publishing AG, part of Springer Nature 2018

Authors and Affiliations

  • Jean-Philippe Deguine
    • 1
  • Maxime Jacquot
    • 1
  • Agathe Allibert
    • 1
  • Frédéric Chiroleu
    • 1
  • Rachel Graindorge
    • 2
  • Philippe Laurent
    • 3
  • Guy Lambert
    • 7
  • Bruno Albon
    • 4
  • Marlène Marquier
    • 4
  • Caroline Gloanec
    • 5
  • Luc Vanhuffel
    • 5
  • Didier Vincenot
    • 5
  • Jean-Noël Aubertot
    • 6
  1. 1.Cirad, UMR PVBMTSaint-PierreFrance
  2. 2.ARMEFLHORSaint-PierreFrance
  3. 3.University Institute of TechnologyUniversity of RéunionSaint-PierreFrance
  4. 4.FDGDONSaint PaulFrance
  5. 5.Chambre d’agriculture de La RéunionSaint-Denis CedexFrance
  6. 6.INRA, UMR AGIR 1248Castanet-TolosanFrance
  7. 7.Aix Marseille UniversitéAix en ProvenceFrance

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