Terroir 1996 banner
IVES 9 IVES Conference Series 9 The origin and the discovery of “terroir”

The origin and the discovery of “terroir”

Abstract

Le mot “terroir” dérive du latin “terra”, mais déjà les Romains l’indiquaient comme “locus” ou”loci”, c’est-à-dire un lieu ayant le “genius”destiné à la production d’un produit d’excellente qualité. Les Égyptiens, les Juifs, les Grecs et les Romains employèrent les premiers le nom du lieu d’origine pour indiquer le vin sur le “pittacium” en argile qui était apposé sur les amphores en terre cuite qui contenaient le vin. De cette façon naquit la dénomination d’origine. Les peuples anciens de la Méditerranée n’ont pas utilisé le nom des variétés de vigne pour distinguer les différentes typologies de vin, mais leur lieu d’origine.
Les Grecs anciens, déjà à l’époque de Homère, choisissaient pour les vignes les terroirs qui permettaient la vie aux plantes du maquis méditerranéen, puisqu’ils étaient surs que le climat de ces lieux permettraient aux baies de mûrir parfaitement et de fournir des vins très corsés, fort structurés, riches en sucre et en alcool, mais pauvres en acides et en arômes facilement oxydables. Ce furent les anciens Romains qui en partant de la ”Provincia” de la Gaule transalpine remontèrent le Rhône, le Rhin, la Moselle, le Danube, et d’autres fleuves, en rependant la vigne dans le nord de l’Europe et en créant ce que l’on peut appeler la “viticulture fluviale”, qui s’oppose à la viticulture méditerranéenne pour la production de vins plus légers de corps, moins alcooliques, plus aromatiques, plus acides etc … Les Romains démontrèrent que la vigne peut mûrir même dans des climats plus septentrionaux, où les Grecs n’osèrent pas s’engager, en atteignant la limite septentrionale de culture du vignoble dans l’hémisphère Nord, c’est à dire jusqu’à 50° de latitude Nord.
Le premier exemple de délimitation géographique et territoriale nous vient de Pline (N.H., livre 14, chapitre V) qui avait étudié de façon approfondie le plus ancien cru Romain, c’est-à­-dire le Falernum.
Dans le premier siècle après J.-C., Pline décrit ainsi la zone de production du Falernum : “toute cette zone de la Campania qui s’étend en rive gauche du pont Campanus à la colonie urbaine de Silla est pleine de collines à vignobles très renommés à cause du très généreux vin qui prend le nom du village Falerne.”
C’est encore Plinius qui précise “à la gauche du pont commence la campagne de Falerne”.
Le pont cité existe encore sur le fleuve Liri et il lie l’ancienne Sineussa à la mer.
Son nom comme le dit Pline dérive du pays Falernum.
Le “genius loci” a été encore confirmé pendant le moyen-âge et pendant les époques historiques suivantes, jusqu’au moment où des règlements et des lois ont établi les premières délimitations de ces lieux. Plus tard, après la découverte de l’Amérique, la viticulture du nouveau Monde se développa, comprenant les Etats Unis, le Canada, l’Australie, la Nouvelle Zélande, l’Afrique du Sud et toute l’Amérique Latine, des pays qui, récemment, ont découvert l’importance du terroir.
Dans l’hémisphère sud, la vigne trouve sa limite de culture à 45° environ de latitude sud.
En 1700 fut délimitée par un document officiel (décret) la zone de production du Tokay Hongrois, suivie par celle du Chianti (1716) et celle du Porto (1755).
L’essence du terroir fut toutefois amplifiée en 1855 à Bordeaux avec la publication de la liste des “crus”. En effet, le “cru” est produit par un terroir ayant le “genius loci ” pour un vin d’excellente qualité. On fait remonter l’origine du terme “cru” à deux mots différents. Normalement on le définit comme participe passé du verbe “croître”, c’est-à-dire crû sur un terroir spécifique, mais, selon l’interprétation de certains latinistes d’anciennes abbayes françaises, cela signifie également “cru”, c’est-à-dire considéré comme “célèbre”, ayant une renommée auprès des consommateurs. C’est justement à travers les “crus” que les Français ont inventé le terme terroir, désormais utilisé dans tout le monde de la viticulture.

DOI:

Publication date: February 16, 2022

Issue: Terroir 2002 

Type: Article

Authors

M.FREGONI

Université Catholique – Piacenza (Italie)
Via E. Parmense, 84
29100 PIACENZA – Italie

Keywords

Histoire, Terroir, Appellation d’origine contrôlé

Tags

IVES Conference Series | Terroir 2002

Citation

Related articles…

The plantation frame as a measure of adaptation to climate change

The mechanization of vineyard work originally led to a reduction in planting densities due to the lack of machinery adapted to the vineyard. The current availability of specific machinery makes it possible to establish higher planting densities. In this work, three planting densities (1.40×0.80 m, 1.80×1 m and 2.20×1.20 m, corresponding to 8928, 5555 and 3787 plants/ha respectively) were studied with four varieties autochthonous of Galicia (northwestern Spain): Albariño and Treixadura (white), Sousón and Mencía (red). The vines were trained in a vertical shoot positioning system using a single Royat cordon, and pruned to spurs with two buds each. Agronomic data (yield, pruning wood weight, Ravaz index) and oenological data in must were collected. The higher planting density (1.40×0.80 m) had no significant effect on grape yield per vine in white varieties, although production per hectare was much higher due to the greater number of plants. In red varieties, this planting density resulted in a significantly lower production per vine, compensated by the greater number of plants. In addition, it significantly reduced the Brix degree in the must of the Albariño, Treixadura and Sousón varieties, and increased the total acidity in the latter two and Mencía. It also caused an increase in extractable and total anthocyanins and IPT in red grapes. The effects of high planting density on grapes are of great interest for the adaptation of varieties in the context of climate change. In the future, it could be advisable to modify the limits imposed by the appellations of origin on the planting density of these varieties in order to obtain more balanced wines.

Use of multispectral satellite for monitoring vine water status in mediterranean areas

The development of new generations of multispectral satellites such as Sentinel-2 opens possibilities as to vine water status assessment (Cohen et al., 2019). Based on a three years field campaign, a model of Stem Water Potential (SWP) estimation on vine using four satellite bands in Red, Red-Edge, NIR and SWIR domains was developed (Laroche-Pinel et al., 2021). The model relies on SWP field measures done using a pressure chamber (Scholander et al., 1965), which is a common, robust and precise method to assess vine water status (Acevedo-Opazo et al., 2008). The model was mainly developed from from SWP measures on Syrah N (Laroche Pinel E., 2021).

A large scale monitoring was organized in different vineyards in the Mediterranean region in 2021. 10 varieties amongst the most represented in this area were monitored (Cabernet sauvignon N, Chardonnay B, Cinsault N, Grenache N, Merlot N, Mourvèdre N, Sauvignon B, Syrah N, Vermentino B, Viognier B). The model was used to produce water status maps from Sentinel-2 images, starting from the beginning of June (fruit set) up to September (harvest). The average estimated SWP for each vine was compared to actual field SWP measures done by wine growers or technicians during usual monitoring of irrigation programs. The correlations between mean estimated SWP and mean measured SWP were at the same level than expected by the model. (Laroche Pinel, 2021) The general SWP kinetics were comparable. The estimated SWP would have led to same irrigation decisions concerning the date of first irrigation in comparison with measured SWP.

Acevedo-Opazo, C., Tisseyre, B., Ojeda, H., Ortega-Farias, S., Guillaume, S. (2008). Is it possible to assess the spatial variability of vine water status? OENO One, 42(4), 203.
Cohen, Y., Gogumalla, P., Bahat, I., Netzer, Y., Ben-Gal, A., Lenski, I., … Helman, D. (2019). Can time series of multispectral satellite images be used to estimate stem water potential in vineyards? In Precision agriculture ’19, The Netherlands: Wageningen Academic Publishers, pp. 445–451.
Laroche-Pinel, E., Duthoit, S., Albughdadi, M., Costard, A. D., Rousseau, J., Chéret, V., & Clenet, H. (2021). Towards vine water status monitoring on a large scale using sentinel-2 images. remote sensing, 13(9), 1837.
Laroche-Pinel,E. (2021). Suivi du statut hydrique de la vigne par télédétection hyper et multispectrale. Thèse INP Toulouse, France.
Scholander, P.F., Bradstreet, E.D., Hemmingsen, E.A., & Hammel, H.T. (1965). Sap pressure in vascular plants: Negative hydrostatic pressure can be measured in plants. Science, 148(3668), 339–346.

Bioclimatic shifts and land use options for Viticulture in Portugal

Land use, plays a relevant role in the climatic system. It endows means for agriculture practices thus contributing to the food supply. Since climate and land are closely intertwined through multiple interface processes, climate change may lead to significant impacts in land use. In this study, 1-km observational gridded datasets are used to assess changes in the Köppen–Geiger and Worldwide Bioclimatic (WBCS)

Impact on leaf morphology of Vitis vinifera L. cvs Riesling and Cabernet Sauvignon under Free Air Carbon dioxide Enrichment (FACE)

Atmospheric carbon dioxide (CO2) concentration has continuously increased since pre-industrial times from 280 ppm in 1750, and is predicted to exceed 700 ppm by the end of 21st century. For most of C3 plant species elevated CO2 (eCO2) improve photosynthetic apparatus results in an increased plant biomass production. To investigate the effects of eCO2 on morphological leaf characteristics the two Vitis vinifera L. cultivars, Riesling and Cabernet Sauvignon, grown in the Geisenheim VineyardFACE (Free Air Carbon dioxide Enrichment) system were used. The FACE site is located at Geisenheim University (49° 59′ N, 7° 57′ E, 94 m above sea level), Germany and was implemented in 2014 comparing future atmospheric CO2-concentrations (eCO2, predicted for the mid-21st century) with current ambient CO2-conditions (aCO2). Experiments were conducted under rain-fed conditions for two consecutive years (2015 and 2016). Six leaves per repetition of the CO2 treatment were sampled in the field and immediately fixed in a FAA solution (ethanol, H2O, formaldehyde and glacial acetic acid). After 24 h leaf samples were transferred and stored in an ethanol solution. Subsequently, leaf tissue was dehydrated using ethanol series and embedded in paraffin. By using a rotary microtomesections of 5 µm were prepared and fixed on microscopic slides. Subsequent the samples were stained using consecutive staining and washing solutions. Afterwards pictures of the leaf cross-sections were taken using a light microscope and consecutive measurements were conducted with an open source image software. Differences found in leaf cross-sections of the two CO2 treatments were detected for the palisade parenchyma. Leaf thickness, upper and lower epidermis and spongy parenchyma remained less affected under eCO2 conditions. The observed results within grapevine leaf tissues can provide first insights to seasonal adaptation strategies of grapevines under future elevated CO2 concentrations.

The combined effects of climate, soils, and deficit irrigation on yield and quality of Touriga Nacional under high atmospheric demand in the Douro Region

Global warming is one of the biggest environmental, social and economic threats in several viticultural regions. In the Douro Valley, changes are expected in the coming years, namely an increase in temperature and a decrease in precipitation. These changes are likely to have consequences for the production and quality of wine.
The aim of this study was to explore the effects of different soil characteristics combined with several deficit irrigation strategies, managed throughout ETc references and predawn leaf water potentials thresholds, on physiology, yield, and qualitative attributes on the Touriga Nacional variety under years of mild to severe water and heat stress.
The studies were conducted over seven years (2015 to 2021) in two plots of a commercial vineyard located at Quinta do Ataíde (Symington Family Estates) planted in 2011 and 2014 at 170 meters elevation, growing under three water regimes: non-irrigated (NI) and two deficit irrigation strategies (30% and 60% ETc) assessed weekly by Ψpd. The site has an annual rainfall below 500 mm, with high atmospheric demand. Climate data was collected from a weather station, located on site. Berry ripening was followed weekly for fruit analysis. At harvest, yield, vigour and pruning weight per vine were determined from 90 vines by treatment. Each season at veraison the NDVI Index was accessed by a drone. The soils physic-chemistry in the experimental blocs were analysed and grouped by SWHC. Delta C-13 analyses were also performed per treatment in two years.Irrigation had a positive effect on yield per vine, mostly due to an increase in berry and cluster weight, and fertility index through the years. A significant increase in sugar content, colour and phenols was observed with deficit irrigation in some years, but vine vigour related to soil characteristics had by far the greatest impact on quality.