IVAS 2022 banner
IVES 9 IVES Conference Series 9 IVAS 9 IVAS 2022 9 Does Dekkera/Brettanomyces wine spoilage raise the risk of biogenic amines intake? A screening in Portuguese red wines

Does Dekkera/Brettanomyces wine spoilage raise the risk of biogenic amines intake? A screening in Portuguese red wines

Abstract

Wine quality and safety are the main concerns of consumers and health agencies. Biogenic amines and polyamines, depending on their concentration and on individuals, in wine can constitute a potential public health concern due to their physiological and toxicological effects. Biogenic amines can be present in grapes, such as putrescine, spermidine, and spermine [1] or formed by microorganisms during the winemaking process such as histamine, cadaverine, hexylamine, and ethylamine [2]. Histamine is one of the targeted toxins by the Food and Drug Administration and the European Food Safety Authority. Dekkera/Brettanomyces, a wine spoilage yeast, can produce biogenic amines in grape juice [3]. Diamines can produce carcinogenic nitrosamines by reaction with nitrite. Biogenic amines are important causes of wine intolerance [4], producing intoxication symptoms.
The sensitivity to biogenic amines depends on insufficient amino oxidase activity, genetic predisposition, alcohol, acetaldehyde, gastrointestinal disease, or inhibition by other amines. Furthermore, it is worth mentioning that, susceptible persons who are immune-compromised and seniors, may exhibit intolerance to even low levels of biogenic amines and suffer more severe symptoms, these persons are increasing in developed countries. Therefore, factors that influence biogenic amines concentrations are of utmost importance for consumer safety, mainly for susceptible persons. The main objective of this study was to quantify biogenic amines and polyamines in industrially produced red wines available in Portuguese wineries. As well as to understand the impact of the spoilage yeasts Dekkera/Brettanomyces in the biogenic amines and polyamines concentrations. Wine sampling was carried out using a maximum variance/heterogeneous purposive non-probability technique. Ethylphenols were determined by GC-MS and biogenic amines and polyamines were determined by dispersive solid-phase extraction and HPLC-DAD after derivatization with benzoyl chloride. To better understand the real input of Dekkera/Brettanomyces activity in these compounds, a set of 79 Portuguese red wines produced at an industrial scale from 2012 to 2016 vintage were analyzed. A total of nine amines have been detected that range from 19.6 to 331 mg/L and concentrations of 4-ethylphenol of 4.5–5604 μg/L and of 4-ethylguaiacol of 2.3–831.2 μg/L [5]. The most abundant amines on average were putrescine followed by histamine and cadaverine. Simultaneous determination of biogenic amines and volatile phenols in industrial produced red wines permitted to conclude that the wine spoilage activity of Dekkera/Brettanomyces with the production of volatile phenols do not significantly contribute to biogenic amines increase and consequently intake by the consumers. Biogenic amines need to be controlled in order to ensure high levels of wine safety and quality to reduce risk to more vulnerable wine consumers.

References

[1] Bauza et al. Food Chemistry, 105 (2007), pp. 405-413.
[2] Anín-Azpilicueta et al. Critical Reviews in Food Science and Nutrition, 48 (3) (2008), pp. 257-275.
[3] Caruso et al., World Journal of Microbiology & Biotechnology, 18 (2002), pp. 159-163.
[4] Konakovsky et al. Food Additives & Contaminants, 28 (4) (2011), pp. 408-416.
[5] Filipe-Ribeiro et al. LWT – Food Science and Technology 115 (2019) pp.108488.

DOI:

Publication date: June 24, 2022

Issue: IVAS 2022

Type: Poster

Authors

Filipe-Ribeiro Luís1, Milheiro Juliana1, Ferreira Leonor C.1, Correia Elisete2, Cosme Fernanda1 and M. Nunes Fernando

1Chemistry Research Centre-Vila Real (CQ-VR), Food and Wine Chemistry Lab, University of Trás-os-Montes and Alto Douro
2Center for Computational and Stochastic Mathematics (CEMAT), Department of Mathematics, University of Trás-os-Montes and Alto Douro

Contact the author

Keywords

Red wine; Biogenic amines; Dekkera/Brettanomyces; Ethylphenols; Histamine

Tags

IVAS 2022 | IVES Conference Series

Citation

Related articles…

Induction of polyphenols in seedlings of Vitis vinifera cv. Monastrell by the application of elicitors

Contamination problems arising from the use of pesticides in viticulture have raised concerns. One of the alternatives to reduce contamination is the use of elicitors, molecules capable of stimulating the natural defences of plants, promoting the production of phenolic compounds (PC) that offer protection against biotic and abiotic stress. Previous studies on Cabernet-Sauvignon seedlings demonstrated that foliar application of elicitors methyl jasmonate (MeJ) and benzothiadiazole (BTH) increased proteins and PC involved in grapevine defence mechanisms. However, no trials had been conducted on Monastrell seedlings, a major winegrape variety in Spain.

Atmospheric modeling: a tool to identify locations best suited for vine cultivation. Preliminary results in the Stellenbosch region

The choice of sites for viticulture depends on natural environmental factors, particularly climate, as grapevines have specific climatic requirements for optimum physiological performance and berry quality achievement. In the Stellenbosch wine-producing region, the complex topography and the proximity of the ocean create a variety of topoclimates resulting in different growth conditions for vines within short distances.

INOCULATION OF THE SELECTED METSCHNIKOWIA PULCHERRIMA MP1 AS A BIOPROTECTIVE ALTERNATIVE TO SULFITES TO PREVENT BROWNING OF WHITE GRAPE MUST

Enzymatic browning (BE) of must is caused by polyphenol oxidases (PPOs), tyrosinase and laccase. Both PPOs can oxidize diphenols such as hydroxycinnamic acids (HA) to quinones, which can later polymerize to form melanins [1], which are responsible of BE in white wines and of oxidasic haze in red wines. SO₂ is the main tool used to protect must from BE thanks to its capacity to inhibit PPOs [2]. However, the current trend in winemaking is to reduce and even eliminate this unfriendly additive. Among the different possible alternatives for protecting must against BE, the inoculation with a selected Metschnikowia pulcherrima MP1 is without any doubt one of the most promising ones.

Iso-/anisohydric behavior in wine grapes may be a matter of soil moisture

There are claims that wine grape cultivars are either isohydric or anisohydric; the former maintaining, and the latter decreasing, their plant water status as soil moisture declines. However, available information is inconsistent. There are those that show an existence of a continuum in cultivar response to soil moisture rather than a distinct categorization. Others even show both behaviors in the same cultivar grown in different environments. In this study we investigated the behavior of 30 own rooted Vitis vinifera cultivars during successive drydown and rewatering cycles over two growing seasons in arid eastern Washington (<200 mm annual precipitation).

Towards a better understanding of the root system diversity and plasticityin young grafted vines using 2D imaging and 3D modelling tools

Three-dimensional functional-structural root architecture models, which decompose the root system architecture (RSA) into elementary developmental processes such as root emission, axial growth, branching patterns and tropism have become useful tools for (i) reconstructing in silico the spatial and temporal dynamics of root systems in a soil volume, (ii) analyzing their genotypic diversity and plasticity to the environment, and (iii) overcoming the bottleneck associated with their visualization and measurement in situ. Here, we present an original work on RSA phenotyping and modelling in grapevine. First, we developed 2D image-based analysis pipelines to quantify morphological and architectural traits in young grafts. Second, we parametrized and validated the 3D root model Archisimple on two rootstock genotypes (RGM, 1103P) grafted with V. vinifera Cabernet-Sauvignon and grown in different controlled conditions (rhizotrons, pots, tubes).