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3D Printing: Challenges and Opportunities for its Application in Soil Science
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  • Javier Andrés Arrieta Escobar,
  • Elnaz Asadollahi-Yazdi,
  • Nicolas Valette,
  • Apolline AUCLERC,
  • Delphine Derrien,
  • Stéphanie Ouvrard,
  • Alaa Hassan,
  • Vincent Boly,
  • Véronique Falk,
  • Anne-Julie Tinet,
  • Marie-France Dignac
Javier Andrés Arrieta Escobar
Université de Lorraine

Corresponding Author:arrietae1@univ-lorraine.fr

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Elnaz Asadollahi-Yazdi
Université de Lorraine
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Nicolas Valette
INRAE - Université de Lorraine
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Apolline AUCLERC
Laboratoire Sols et Environnement
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Delphine Derrien
INRAE
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Stéphanie Ouvrard
INRAE - Université de Lorraine
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Alaa Hassan
Université de Lorraine
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Vincent Boly
Université de Lorraine
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Véronique Falk
Université de Lorraine
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Anne-Julie Tinet
Université de Lorraine
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Marie-France Dignac
INRAE
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Abstract

Being at the interface of the geosphere, the biosphere, and the atmosphere makes the soil a particularly challenging object. Nevertheless, its importance in ecological and environmental domains should encourage researchers to make use of new technologies, like 3D printing, to improve their comprehension of soils. With 3D printing we can build up objects by adding materials layer-by-layer based on a three-dimensional model, producing almost any geometrically complex shape or feature in a wide range of materials. Here we present the major challenges and opportunities of 3D printing for its application into soil science. We show that despite the remarkable achievements in 3D printing development during the past few years, it is still under-used in the field of soil science. Besides the 3D printing technology uses considering the soil as a source of mineral raw materials, or as the basis for the development of technical infrastructure, new researches highlight the functioning of the soil itself as an ecological compartment. Indeed, one of the most important challenges for the application of 3D printing in this area is the accurate modeling and replication of the soil structure and composition. This would require 3D-printed objects to be made of biocompatible yet chemically and mechanically stable materials manufactured under controlled conditions, which can mimic the many interactions occurring at this scale. Having 3D-printed objects with strict and controlled composition and structure could help academics and researchers to conduct reproducible experiments and gain a better understanding of the parameters controlling soil ecology and functioning. This opens a new way to broader utilization of 3D printing in soil science in the near future.