Terroir 2006 banner
IVES 9 IVES Conference Series 9 Characterization and modelling of water flow on vineyard soil. Effect of compaction and grass cover

Characterization and modelling of water flow on vineyard soil. Effect of compaction and grass cover

Abstract

In the Burgundy vineyard, frequent tractor traffic and management of inter-rows alternating grass cover and chemical weed-control lead to structural soil contrast between row and inter-row. The aim of this study was to characterize and model water flow in relation with topsoil structure modifications induced by these practices. Void ratio of the different soil volumes were determined using bulk density measurements. Water flow was measured with tensiometers under two simulated rainfalls. Hydraulics properties of soil volumes defined at the profile level was characterized by water retention curve and infiltrometer measurements. Hydrus 2D software was used for 2D modelling of water flow on a transect perpendicular to the rows. Compaction of the 25 first centimetres of inter-row topsoil was observed in the two types of interrows. It led to a void ratio reduction of 37% and a reduction of the saturated hydraulic conductivity generating less infiltration than in rows. Grass-covered inter-rows were characterized by a macroporous mat root at the soil surface (0-3 cm) in the upper part of the underlying compacted volume. More infiltration was measured in inter-rows with grass cover than in chemically weed-controlled inter-rows. Modelling fairly reproduced contrast of water flow contrast in relation with soil structure for the first 25 centimetres. However, modelling was unable to reproduce flow in volume likely to be affected by preferential flow. Between 25 and 70 centimetres depth, soils containing numerous vine roots would be the seat of preferential flow pathways distributing water laterally from rows to inter-rows. Effectiveness of preferential pathways would increase with soil moisture and rainfall intensity.

DOI:

Publication date: January 12, 2022

Issue: Terroir 2006

Type: Article

Authors

Pierre CURMI (1), Marion CHATELIER (1,2) et Gérard TROUCHE (1)

(1) Établissement National d’Enseignement Supérieur Agronomique de Dijon, 26 bd du Dr Petitjean, 21079 Dijon cedex, France
(2) Université de Bourgogne, UMR INRA A 111 « Microbiologie et Géochimie des sols », Centre des Sciences de la Terre, 6 bd Gabriel, 21000 Dijon cedex, France

Contact the author

Keywords

hydraulics properties, tensiometer, resistivity, infiltration, preferential flow

Tags

IVES Conference Series | Terroir 2006

Citation

Related articles…

Zoning of viticulture in Yugoslavia

The last official zoning of Viticulture in Yugoslavia was performed 1978. year, when (according to recommendation of OIV and European Economic Community), regions, sub regions and vineyards districts were established supposing that the varieties which will be exhibit ail the positive agro biological and technological characteristics.

Anthocyanins in tannat wines rapidly evolve toward unidentified red-coloured pigments

To assess the relationship between the reported low-stability of Tannat colour during wine storage and its pigment composition and evolution

Rootstock x environment interaction shapes shoot system phenotypic variation in grafted ‘Chambourcin’

Recent advances in phenomics and transcriptomics have the enhanced capacity for understanding how clonally propagated perennial crops like grapevines respond to their environments seasonally and over the course of multiple years. Because most grapevines are grafted, above-ground grapevine traits reflect scion genotype and its interaction with the local environment. In addition, traits expressed by the scion reflect rootstock genotype and how that rootstock is interacting with its environment seasonally and across years. To investigate rootstock x environment interaction on shoot systems in grafted grapevines we characterized comprehensive phenotypic variation in an experimental vineyard in Mount Vernon, Missouri, USA where the grapevine cultivar ‘Chambourcin’ is growing on its own roots and is grafted to three different rootstocks (‘1103P’, ‘3309C’, ‘SO4’).

Genome wide association mapping of phenology related traits in Vitis vinifera L

Climate change, with rise in temperatures, is leading to an advance in the dates of phenological stages, with a loss in quality of the grape final product. Therefore, the understanding of the genetic determinants driving the phenological stages of flowering, veraison and the interval between them, represents a target for the development of grapevine’s cultivar adapted to the changing environment.
Here we conducted a GWA study to identify SNPs significantly associated to flowering time, veraison time and to the interval among them. A germplasm collection (CREA-VE in Susegana, Treviso, Italy) including 649 grapevine’s cultivar representing 365 unique genotypes was considered.

MAPPING THE CONCENTRATIONS OF GASEOUS ETHANOL IN THE HEADSPACE OF CHAMPAGNE GLASSES THROUGH INFRARED LASER ABSORPTION SPECTROSCOPY

Under standard wine tasting conditions, volatile organic compounds (VOCs) responsible for the wine’s bouquet progressively invade the glass headspace above the wine surface. Most of wines being complex water/ethanol mixtures (with typically 10-15 % ethanol by volume), gaseous ethanol is therefore undoubtedly the most abundant VOC in the glass headspace [1]. Yet, gaseous ethanol is known to have a multimodal influence on wine’s perception [2]. Of particular importance to flavor perception is the effect of ethanol on the release of aroma compounds into the headspace of the beverage [1].