Terroir 1996 banner
IVES 9 IVES Conference Series 9 Revisión de estudios sobre suelos vitícolas de las tierras del Jerez

Revisión de estudios sobre suelos vitícolas de las tierras del Jerez

Abstract

Dada la importancia de los suelos y de los substratos geológicos en la zonificación vitivinícola, los autores realizan una revisión de estudios sobre las formaciones más importantes en la D.O. Jerez-Xérès-Sherry y Manzanilla-Sanlúcar de Barrameda.
En el concepto de Pago vitícola (PEMARTÍN, 1965; Paneque et al., 1996 a, b, c; González GordOn, 1990; García de LujÁn, 1997) se destaca la singularidad del tipo o clase de suelo, subsuelo y substrato geológico que, conjuntamente con otras circunstancias ambientales, participan e intervienen en su delimitación (Suter y Palacios, 1857), caracterización y funcionamiento (Carbonel y BRAVO, 1820; EchegarAy, 1852; BARBADILLO, 1996).
El marco o región del Jerez y de la Manzanilla representa una de las regiones vitinícolas más antiguas de la Península Ibérica (Sáez fernández, 1995; Hidalgo, 1999). Los suelos citados por Columela como más importantes para el cultivo de la vid (cretosi, sabulosi y palustres) tienen distinta importancia en la calidad del viñedo y del vino, como se manifiesta por algunos autores citados, y especialmente por Boutelou (1807), Fernández Bobadilla (1949), García del Barrio (1972, 1979, 1988) y García de LujÁn (1997). Suelos calizos, silíceos y otros se citan en el Estudio Agrobiológico de la Provincia de Cádiz (CEBAC, 1963) y en el Mapa del INIA (1971), con la descripción morfológica de sus horizontes, la situación en el terreno y la caracterización analítica de los mismos, etc. Sin duda alguna, distintos Calcisols (CL), Cambisols (CB), Vertisols (VR), Leptosols (LP) y otros Grupos de suelos (ISRIC, ISSS, FAO, 1998); y lustrillos, polvillejos y barros rojos sobre albarizas (García del Barrio, 1979) y otros tipos de rocas (GAVALA laborde, 1959; IGME, 1977, 1988), muestran la diversidad de formaciones edafogeológicas en el viñedo del Jerez.

DOI:

Publication date: February 24, 2022

Issue: Terroir 2000

Type: Article

Authors

PANEQUE, G. (1), ROCA, M. (2), PANEQUE, P. (1), PARDO, C. (2), ALDECOA, J. (2)

(1) Departamento de Cristalografía, Mineralogía y Química Agrícola. Facultad de Química. Universidad de Sevilla
(2) Laboratorio de Edafología y Climatología. Escuela Universitaria de Ingeniería Técnica Agrícola. Cortijo de Cuarto. Diputación de Sevilla

Tags

IVES Conference Series | Terroir 2000

Citation

Related articles…

Protected Designation of Origin (D.P.O.) Valdepeñas: classification and map of soils

The objective of the work described here is the elaboration of a map of the different types of vineyard soils that to guide the famers in the choice of the most productive vine rootstocks and varieties. 90 vineyard soils profiles were analysed in the entire territory of the Origen Denominations of Valdepeñas. The sampling was carried out in 2018 (June to October) by making a sampling grid, followed by photointerpretation and control in the field. The studied soils can be grouped into 9 different soil types (according to FAO 2006 classification): Leptosols, Regosols, Fluvisols, Gleysols, Cambisols, Calcisols, Luvisols and Anthrosols. A map showing the soil distribution with different type of soils has been made with the ArcGIS program. Regarding to the choice of rootstock, Calcisoles are soils with a high active limestone content, so the rootstocks used in these soils must be resistant to this parameter; Luvisols are deep soils with high clay content, so they will support vigorous rootstocks. Because the cartographic units are composed of two or more subgroups, with are associated in variable proportions, 9 different soil associations have been established; Unit 1: Leptosols, Cambisols and Luvisols (80%, 15% and 5% respectively); Unit 2: Cambisols with Regosols and Luvisols (40%, 30% and 30% respectively); Unit 3: Cambisols and Gleysols with Regosols (40%, 40% and 20% respectively); Unit 4: Regosols with Cambisols, Leptosols and Calcisols (40%, 30%, 15% and 15% respectively); Unit 5: Cambisols, Leptosols, Calcisols and Regosols (25% each of them); Unit 6: Luvisols with Cambisol and Calcisols (80%, 10% and 10% respectively); Unit 7: Luvisols and Calcisols with Cambisols (40%, 40% and 20% respectively); Unit 8: Calcisols with, Cambisols and Luvisols (80%, 10% and 10% respectively); Unit 9: Anthrosols. These study allow to elaborate the first map of vineyard soils of this Protected Designation of Origin in Castilla-La Mancha.

Phenology, thermal requirements and maturation of the SR 0.501-17 wine grape hybrid cultivated in contrasting climate

The use of hybrids in viticulture is one of the alternatives for sustainable production in hot and rainy regions during grapevine maturation. This sustainable production concerns the reduction of pesticide use, adaptation to climate and control of vine decline. The SR 0.501-17 wine grape hybrid, developed in the grapevine program of the Agronomic Institute of Campinas (IAC), is characterized by producing white grapes with small spherical berries with seeds. The agronomic characterization of this hybrid, especially in different climatic conditions, as well as the evaluation of its performance in winemaking are necessary. The objective of this work was to characterize the duration and thermal requirements of the different phenological stages and the influence of rainfall on the physicochemical characteristics of the must in two contrasting climate regions of the State of São Paulo.

Effect of vigour and number of clusters on eonological parameters and metabolic profile of Cabernet Sauvignon red wines

Vegetative growth and yield are reported to affect grape and wine quality. They can be controlled through different techniques linked to vine management. The objective of this research was to determine the effect of vine vigour and number of clusters per vine on physicochemical composition and phenolic profile of red wines. The experiment was carried out during two vegetative cycles, with cv. Cabernet Sauvignon grafted onto Paulsen 1103. Three vine vigour were defined, according to shoot weight at previous harvests, being low, medium and high. Five treatments of number of clusters were used for each vigour, with 15, 22, 29, 36, and 45 clusters per vine. Grapes from all treatments were harvested in the same day from Brix and total acidity criteria. Thirty days after bottling, classical analyzes and phenolic compounds were performed. As results, different responses were obtained from each vintage. In 2020, a dry season from veraison to harvest, grapes and wines obtained from low vigour treatment and 45 clusters per vine was the highest in sugar and alcohol content respectively, while grapes and wines from high vigour and 15 clusters presented the lowest sugar and alcohol content. Total anthocyanins were higher in treatment with low vigour and 15 clusters, while the lowest amounts were found in low vigour with 45 clusters, as well as medium and high vigour with 36 clusters per vine. Total tannins were higher in high vigour with 22 clusters and medium vigour with 29 clusters, while were lower in low vigour with 36 clusters. In 2021, a wet season at harvest, responses were different, and great variations were observed between treatments. As conclusions, yield and vine vigour had strong influence on grape and wine quality, promoting different enological potentials on which can be indicated/used for aging strategies of red and even rosé wines.

Study of the interactions between wine anthocyanins and proline rich proteins

The interaction between tannins and salivary proteins is considered to be the basis of the phenomenon of wine astringency. Recently, some authors have revealed that some anthocyanins can also contribute to this mouthfeel sensation by interacting with proline rich proteins (PRPs). However, more studies are needed in order to elucidate the affinity of anthocyanins with these proteins.

Regionality in Australian Shiraz: Sensory profiles of wines from six regions and their associations with chemical, geographical and climatic elements

Aim: Regional characters relating to Shiraz in Australia are not well documented. This study aimed to characterize the sensory, chemical and climate profiles of wines from various Australian Shiraz producing regions.