Terroir 2020 banner
IVES 9 IVES Conference Series 9 Development of the geographic indication vale do São Francisco for tropical wines in Brazil

Development of the geographic indication vale do São Francisco for tropical wines in Brazil

Abstract

Aim: Geographical Indications-GI are commonly used to protect territorial products around the world, such as cheese and wine. This qualification is useful because it improves the producer’s organization, protects and valorizes the distinct origin and quality of the product, increases recognition and notoriety, and adds value for products. Tropical wines are mainly produced in Brazil, India, Thailand, Myanmar and Venezuela. In the 1980’s, Brazil started to produce tropical wines in the São Francisco Valley, where vines are pruned twice per year and grapes are harvested twice a year, due to the natural conditions – high annual average temperature, solar radiation, water availability for irrigation, and vineyard management, using phytoregulators. According to the plot scheduling, wineries can prune and harvest every day throughout the year. In this study, a Research, Development and Innovation (RD&I) project was developed between 2013 and 2018. The objective was to produce a dossier that describes the climate and soil conditions, landscape, topography, agronomical and viticultural parameters, as well as the enological protocols used by all wineries, in Vale do São Francisco, a region producing tropical wines. The dossier will be submitted in 2020 by Vinhovasf, an Association of the wineries, to recognize Vale do São Francisco as a Geographical indication (GI) for tropical wines. This GI will include white, red, and also sparkling wines made from traditional varieties of Vitis vinifera L. to the region.

Methods and Results: The geographical area delimited by the GI, includes eight cities presenting similar climate conditions (33,000 km2 of total area). A characterization of the soils in the GI area, as well as the trellis systems of the vineyards, the rootstocks and varieties adapted and authorized, and the enological protocols adopted for winemaking was made. Grape composition and the physicochemical and sensorial parameters of the wines were also characterized.

Conclusions:

A dossier has been developed with all the information needed to submit a request for Vale do São Francisco, located in northeastern Brazil to become a GI for still and sparkling tropical wines.

Significance and Impact of the Study: It will be the first GI for tropical wines in the world, using a similar structural model adopted by the European Union. It is expected that this will bring benefits to the wineries, as well as for all producers in general and for the working population involved in the grape and wine production chain in the region. The GI will improve the wine quality, recognition, reputation, valuation and promotion of all products, as it was observed for all GI obtained in the south of Brazil since 2002. Hence, the regional wine sector will improve its competitiveness, enotourism and attraction of new investments in the region.

DOI:

Publication date: March 25, 2021

Issue: Terroir 2020

Type : Video

Authors

Giuliano Elias Pereira1*, Jorge Tonietto1, Ivanira Falcade2, Carlos Alberto Flores3, Iêdo Bezerra Sá4, Tony Jarbas Ferreira Cunha4, Tatiana Ayako Taura4, Rosemary Hoff1, Mateus Rosas Ribeiro Filho5, Luciana Leite de Andrade Lima5, Celito Crivellaro Guerra1, Mauro Celso Zanus1, José Fernando da Silva Protas1, Magna Soelma Beserra de Moura4, João Ricardo Ferreira de Lima4, Francisco Macedo de Amorim6, Marcos dos Santos Lima6, Ricardo Henriques7, José Gualberto de Freitas Almeida8

1Embrapa Grape & Wine, Zip Code 95.701-008, Bento Gonçalves-RS, Brazil
2Universidade de Caxias do Sul-UCS, Zip Code 95.070-560, Caxias do Sul-RS, Brazil
3Embrapa Temperate Agriculture, Zip Code 96.010-971, Pelotas-RS, Brazil
4Embrapa Semi-Arid Region, Zip Code 56.302-970, Petrolina-PE, Brazil
5Universidade Federal Rural de Pernambuco-UFRPE, Zip Code 52.171-900, Recife-PE, Brazil
6Instituto Federal do Sertão Pernambucano, Zip Code 56.300-000, Petrolina-PE, Brazil
7Vitivinícola Santa Maria/Global Wines, Zip Code 56.395-000, Lagoa Grande-PE, Brazil
8Vinícola do Vale do São Francisco/Vinhovasf, Zip Code 56.380-000, Santa Maria da Boa Vista-PE, Brazil

Contact the author

Keywords

Vitis vinifera L, grape, wine, quality, typicality

Tags

IVES Conference Series | Terroir 2020

Citation

Related articles…

Phloem anatomy traits predict maximum sugar accumulation rates

Heat and water stress can accelerate berry sugar accumulation and lead to excessive sugar-to-acid ratios at harvest, producing bland, overly-alcoholic wines. Selecting grapevines for slower sugar accumulation could help maintain wine quality under future, hotter conditions, but these efforts have been stymied by our limited understanding of the traits determining sugar accumulation rates. Here, we measured traits characterizing the structure and anatomy of the sugar transport system – the phloem – in 16 winegrape cultivars and tested for relationships with sugar accumulation rates and cultivar climate classifications.

Variations of soil attributes in vineyards influence their reflectance spectra

Knowledge on the reflectance spectrum of soil is potentially useful since it carries information on soil chemical composition that can be used to the planning of agricultural practices. If compared with analytical methods such as conventional chemical analysis, reflectance measurement provides non-destructive, economic, near real-time data. This paper reports results from reflectance measurements performed by spectroradiometry on soils from two vineyards in south Brazil. The vineyards are close to each other, are on different geological formations, but were subjected to the same management. The objective was to detect spectral differences between the two areas, correlating these differences to variations in their chemical composition, to assess the technique’s potential to predict soil attributes from reflectance data.To that end, soil samples were collected from ten selected vine parcels. Chemical analysis yield data on concentration of twenty-one soil attributes, and spectroradiometry was performed on samples. Chemical differences significant to a 95% confidence level between the two studied areas were found for six soil attributes, and the average reflectance spectra were separated by this same level along most of the observed spectral domain. Correlations between soil reflectance and concentrations of soil attributes were looked for, and for ten soil traits it was possible to define wavelength domains were reflectance and concentrations are correlated to confidence levels from 95% to 99%. Partial Least Squares Regression (PLSR) analyses were performed comparing measured and predicted concentrations, and for fifteen out of 21 soil traits we found Pearson correlation coefficients r > 0.8. These preliminary results, which have to be validated, suggest that variations of concentration in the investigated soil attributes induce differences in reflectance that can be detected by spectroradiometry. Applications of these observations include the assessment of the chemical content of soils by spectroradiometry as a fast, low-cost alternative to chemical analytical methods.

Gestión de la mitigación por las empresas vitivinícolas: combinar sostenibilidad y rentabilidad

The transition to a decarbonized economy requires companies to adopt mitigation measures. The wine sector is one of the most affected by climate change and, therefore, interested in its mitigation. The question is how this process develops. To address this, we build on a previous study [1], which identified different types of Spanish wineries based on their sustainability approach.

Agri-photovoltaics: first experience above Riesling vines

Agri-photovoltaics (apv) describes the dual use of an agricultural area for food production and solar power generation. There are already a number of systems in operation around the world with various crops and under a wide range of different set-ups. In large parts, they still allow mechanical cultivation and other positive side effects of an APV system were observed in addition to the increase in utilization in the form of electricity and food: effects on the water balance and passive protection against extreme weather events.

Bio-modulating wine acidity: The role of non-Saccharomyces yeasts

In this video recording of the IVES science meeting 2021, Alice Maria Correia Vilela (University of Trás-os-Montes and Alto Douro, Vila Real, Portugal) speaks about bio-modulating wine acidity: the role of non-Saccharomyces yeasts. This presentation is based on an original article accessible for free on IVES Technical Reviews.