Accelerated oxygenation for the production of fortified (mystelle-type) sweet wines: effects on the chemical and flavor profile.

3‐methyl‐2,4‐nonanedione dimethyl sulfide forced oxygenation gamay variety sensory evaluation wine grape dehydration

Journal

Journal of the science of food and agriculture
ISSN: 1097-0010
Titre abrégé: J Sci Food Agric
Pays: England
ID NLM: 0376334

Informations de publication

Date de publication:
22 Oct 2024
Historique:
revised: 18 09 2024
received: 10 05 2024
accepted: 07 10 2024
medline: 22 10 2024
pubmed: 22 10 2024
entrez: 22 10 2024
Statut: aheadofprint

Résumé

Fortified wine is an important category in the wine world with very famous wines such as Porto or Jerez-wine type. The quality of fortified wines increased significantly with barrel aging not only because of a long oxidation process, but also because, in Porto wines such as Ruby or Vintage styles, the long period in bottle permits their fining. Reducing the time of oxidation can favor the development of this technique even for less known sweet wines, making them good quality and less expensive. In the present study, we have used Gamay red variety subjected to postharvest controlled dehydration at 20-22 °C and 70-75% relative humidity with an airflow of 1 m s Wine that was oxygenated had a slightly higher volatile acidity, lower alcohol content (13.00%), and lower anthocyanins and polyphenols content. In term of volatile organic compounds (VOCs), the Control wine had a higher content of alcohols, whereas the OX sample had a higher content of lactones, furans and esters. Sensory evaluation confirmed the VOCs analysis; the two wines had a statistically different profile depending on the oxidation treatment. In general, OX wine was more appreciated in terms of visual attractiveness, taste and olfactory pleasantness. In conclusion, the technique described in the present study could be a valid alternative to traditional aging of fortified sweet wines, reducing time and costs. © 2024 Society of Chemical Industry.

Sections du résumé

BACKGROUND BACKGROUND
Fortified wine is an important category in the wine world with very famous wines such as Porto or Jerez-wine type. The quality of fortified wines increased significantly with barrel aging not only because of a long oxidation process, but also because, in Porto wines such as Ruby or Vintage styles, the long period in bottle permits their fining. Reducing the time of oxidation can favor the development of this technique even for less known sweet wines, making them good quality and less expensive. In the present study, we have used Gamay red variety subjected to postharvest controlled dehydration at 20-22 °C and 70-75% relative humidity with an airflow of 1 m s
RESULTS RESULTS
Wine that was oxygenated had a slightly higher volatile acidity, lower alcohol content (13.00%), and lower anthocyanins and polyphenols content. In term of volatile organic compounds (VOCs), the Control wine had a higher content of alcohols, whereas the OX sample had a higher content of lactones, furans and esters. Sensory evaluation confirmed the VOCs analysis; the two wines had a statistically different profile depending on the oxidation treatment. In general, OX wine was more appreciated in terms of visual attractiveness, taste and olfactory pleasantness.
CONCLUSION CONCLUSIONS
In conclusion, the technique described in the present study could be a valid alternative to traditional aging of fortified sweet wines, reducing time and costs. © 2024 Society of Chemical Industry.

Identifiants

pubmed: 39435533
doi: 10.1002/jsfa.13978
doi:

Types de publication

Journal Article

Langues

eng

Sous-ensembles de citation

IM

Informations de copyright

© 2024 Society of Chemical Industry.

Références

Ossola C, Giacosa S, Torchio F, Río Segade S, Caudana A, Cagnasso E et al., Comparison of fortified, sfursat, and passito wines produced from fresh and dehydrated grapes of aromatic black cv. Moscato nero (Vitis vinifera L.). Food Res Int 98:59–67 (2017).
Perestrelo R, Silva C, Pereira J and Câmara JS, Wines: Madeira, Port and Sherry Fortified Wines – The sui generis and notable peculiarities. Major differences and chemical patterns, in Encyclopedia of Food and Health, ed. by Caballero B, Finglas PM and Toldrá FBT. Academic Press, Oxford, UK, pp. 534–555 (2016).
Abreu T, Perestrelo R, Bordiga M, Locatelli M, Daniel Coïsson J and Câmara JS, The flavor chemistry of fortified wines—a comprehensive approach. Foods 10:1239 (2021).
Perestrelo R, Jaouhari Y, Abreu T, Castillo MM, Travaglia F, Pereira JAM et al., The fingerprint of fortified wines—from the sui generis production processes to the distinctive aroma. Foods 12:2558 (2023).
Pereira V, Pereira AC and Marques JC, Emerging Trends in Fortified Wines: A Scientific Perspective, in Alcoholic Beverages, ed. by Grumezescu AM and Holban AMBT. Woodhead Publishing, Sawston, UK, pp. 419–470 (2019).
Tredoux AGJ and Silva Ferreira AC, Fortified wines: styles, production and flavour chemistry, in Alcoholic Beverages Sensory Evaluation and Consumer Research, ed. by Piggott JBT. Woodhead Publishing, Sawston, UK, pp. 159–179 (2012).
Joshi VK, Sharma S and Thakur AD, Wines: white, red, sparkling, fortified, and cider, in Current Developments in Biotechnology and Bioengineering, ed. by Pandey A, Sanromán MÁ, Du G and Soccol CR. Elsevier, Amsterdam, Netherlands, pp. 353–406 (2017).
Schmidtke LM, Blackman JW and Agboola SO, Production Technologies for Reduced Alcoholic Wines. J Food Sci 77:R25–R41 (2012).
Schneider R, Baumes R, Bayonove C and Razungles A, Volatile compounds involved in the aroma of sweet fortified wines (Vins Doux Naturels) from grenache noir. J Agric Food Chem 46:3230–3237 (1998).
Reboredo‐Rodríguez P, González‐Barreiro C, Rial‐Otero R, Cancho‐Grande B and Simal‐Gándara J, Effects of sugar concentration processes in grapes and wine aging on aroma compounds of sweet wines—a review. Crit Rev Food Sci Nutr 55:1053–1073 (2015).
Pereira V, Leça JM, Freitas AI, Pereira AC, Pontes M, Albuquerque F et al., Unveiling the evolution of Madeira wine key metabolites: a three‐year follow‐up study. Processes 10:1019 (2022).
Mencarelli F, in Sweet, Reinforced and Fortified Wines: Grape Biochemistry, Technology and Vinification, ed. by Tonutti P. John Wiley & Sons, Ltd, Hoboken, NJ (2013).
Cutzach I, Chatonnet P and Dubourdieu D, Study of the formation mechanisms of some volatile compounds during the aging of sweet fortified wines. J Agric Food Chem 47:2837–2846 (1999).
Zhang D, Wei Z, Han Y, Duan Y, Shi B and Ma W, A review on wine flavour profiles altered by bottle aging. Molecules 28:6522 (2023).
Oliveira e Silva H, Guedes de Pinho P, Machado BP, Hogg T, Marques JC, Câmara JS et al., Impact of forced‐aging process on Madeira wine flavor. J Agric Food Chem 56:11989–11996 (2008).
Pereira V, Cacho J and Marques JC, Volatile profile of Madeira wines submitted to traditional accelerated ageing. Food Chem 162:122–134 (2014).
Gabrielli M, Buica A, Fracassetti D, Stander M, Tirelli A and du Toit WJ, Determination of sotolon content in south African white wines by two novel HPLC–UV and UPLC–MS methods. Food Chem 169:180–186 (2015).
Pereira V, Gaspar JM, Zhao Q, Freitas AI and Marques JC, Fructose Implication in the Sotolon Formation in Fortified Wines: Preliminary Results. IVES Conference Series. OENO IVAS, Bordeaux, France, p. 2019 (2019).
Milheiro J, Cosme F, Filipe‐Ribeiro L and Nunes FM, Reductive amination of aldehyde 2,4‐dinitrophenylhydrazones using cyanoborohydride for determination of selected carbonyl compounds in port wines, table wines, and wine spirits. Food Chem 405:134897 (2023).
Santini G, Bianchi A, Pettinelli S, Modesti M, Cerreta R and Bellincontro A, Air speed and plastic crate vent‐holes for wine grape quality during postharvest dehydration: commercial and laboratory studies. J Sci Food Agric 103:7293–7301 (2023).
Bianchi A, Taglieri I, Rimbotti Antinori V, Palla F, Macaluso M, Ferroni G et al., A statistical approach to describe the ripening evolution of sangiovese grapes coming from different chianti classico sub‐areas. Foods 10:2292 (2021).
Bianchi A, Santini G, Piombino P, Pittari E, Sanmartin C, Moio L et al., Nitrogen maceration of wine grape: an alternative and sustainable technique to carbonic maceration. Food Chem 404:134138 (2023).
Modesti M, Shmuleviz R, Macaluso M, Bianchi A, Venturi F, Brizzolara S et al., Pre‐processing cooling of harvested grapes induces changes in berry composition and metabolism, and affects quality and aroma traits of the resulting wine. Front Nutr 8:728510 (2021).
Bianchi A, Venturi F, Zinnai A, Taglieri I, Najar B, Macaluso M et al., Valorization of an old variety of Triticum aestivum: a study of its suitability for breadmaking focusing on sensory and nutritional quality. Foods 12:1351 (2023).
Lytra G, Tempere S, Zhang S, Marchand S, de Revel G and Barbe J‐C, Olfactory impact of dimethyl sulfide on red wine fruity esters aroma expression in model solution. Oeno One 48:75–85 (2014).
Pons A, Lavigne V, Suhas E, Thibon C, Redon P, Loisel C et al., Impact of the closure oxygen transfer rate on volatile compound composition and oxidation aroma intensity of merlot and cabernet sauvignon blend: a 10 year study. J Agric Food Chem 70:16358–16368 (2022).
Donadini G, Fumi MD and Lambri M, A preliminary study investigating consumer preference for cheese and beer pairings. Food Qual Prefer 30:217–228 (2013).
Bianchi A, Taglieri I, Venturi F, Sanmartin C, Ferroni G, Macaluso M et al., Technological improvements on FML in the chianti classico wine production: Co‐inoculation or sequential inoculation? Foods 11:1011 (2022).
Bianchi A, Taglieri I, Zinnai A, Macaluso M, Sanmartin C and Venturi F, Effect of argon as filling gas of the Storage Atmosphere on the shelf‐life of sourdough bread—case study on PDO Tuscan bread. Foods 11:3470 (2022).
Bianchi A, Pettinelli S, Santini G, Taglieri I, Zinnai A, Petriccione M et al., Postharvest wine grape dehydration: ethanol dissipation from grape and biochemical changes. J Sci Food Agric 104:1591–1598 (2024).
Danilewicz JC, Review of reaction mechanisms of oxygen and proposed intermediate reduction products in wine: central role of iron and copper. Am J Enol Vitic 54:73–85 (2003).
Frenkel C, Peters JS, Tieman DM, Tiznado ME and Handa AK, Pectin Methylesterase regulates methanol and ethanol accumulation in ripening tomato (Lycopersicon esculentum) fruit*. J Biol Chem 273:4293–4295 (1998).
Botelho G, Anjos O, Estevinho LM and Caldeira I, Methanol in grape derived, fruit and honey spirits: a critical review on source, quality control, and legal limits. Processes 8:1–21 (2020).
Han Y and Du J, Relationship of the methanol production, pectin and pectinase activity during apple wine fermentation and aging. Food Res Int 159:111645 (2022).
Monagas M, Bartolomé B and Gómez‐Cordovés C, Updated knowledge about the presence of phenolic compounds in wine. Crit Rev Food Sci Nutr 45:85–118 (2005).
Pettinelli S, Pardini L, De AG, Bianchi A, Najar B, Cerreta R et al., Innovative “Soft” Maceration Techniques in Red Grape Fermentation. Beverages 8:62 (2022).
du Toit WJ, Marais J, Pretorius IS and du Toit M, Substrates for oxidation in wine. S Afr J Enol Vitic 27:76–94 (2006).
Gómez‐Plaza E and Cano‐López M, A review on micro‐oxygenation of red wines: claims, benefits and the underlying chemistry. Food Chem 125:1131–1140 (2011).
Pettinelli S, Alfieri G, Bianchi A, Uliva A, Floridia G, Bellincontro A et al., Use of AirMixing M.I.® resonance waves to produce aroma richer Sangiovese wine without sulphites addition in a sustainable way. LWT 198:116075 (2024).
Morata A, López C, Tesfaye W, González C and Escott C, 12 ‐ anthocyanins as natural pigments in beverages, in Value‐Added Ingredients and Enrichments of Beverages. Volume 14: The Science of Beverages, ed. by Grumezescu AM and Holban AMBT. Academic Press, Cambridge, Massachusetts, USA, pp. 383–428 (2019).
Gambuti A and Moio L, Phenolic compounds in wines, in Phenolic Compounds in Food, 1st edn, ed. by Nollet LML and Gutierrez‐Uribe JA. CRC Press, Boca Raton, FL, p. 28 (2017).
Alcalde‐Eon C, Escribano‐Bailón MT, Santos‐Buelga C and Rivas‐Gonzalo JC, Separation of pyranoanthocyanins from red wine by column chromatography. Anal Chim Acta 513:305–318 (2004).
He F, Liang NN, Mu L, Pan QH, Wang J, Reeves MJ et al., Anthocyanins and their variation in red wines II. Anthocyanin derived pigments and their color evolution. Molecules 17:1483–1519 (2012).
Antalick G, Perello M‐C and de Revel G, Esters in wines: new insight through the establishment of a database of French wines. Am J Enol Vitic 65:293–304 (2014).
Tomasino E, Harrison R, Breitmeyer J, Sedcole R, Sherlock R and Frost A, Aroma composition of 2‐year‐old New Zealand pinot noir wine and its relationship to sensory characteristics using canonical correlation analysis and addition/omission tests. Aust J Grape Wine Res 21:376–388 (2015).
Câmara JS, Alves MA and Marques JC, Changes in volatile composition of Madeira wines during their oxidative ageing. Anal Chim Acta 563:188–197 (2006).
Marin M, Baek I and Taylor AJ, Volatile release from aqueous solutions under dynamic headspace dilution conditions. J Agric Food Chem 47:4750–4755 (1999).
Allamy L, van Leeuwen C and Pons A, Impact of harvest date on aroma compound composition of merlot and cabernet‐sauvignon must and wine in a context of climate change: a focus on cooked fruit molecular markers. OENO One 57:99–112 (2023).
Samaniego Solis JA, Luzzini G, Slaghenaufi D and Ugliano M, Dimethyl sulfide (DMS) in Amarone wines: influence of aging, withering, grape variety, and geographical origin. J Agric Food Chem 72:1978–1984 (2024).
Pons A, Lavigne V, Darriet P and Dubourdieu D, Role of 3‐Methyl‐2,4‐nonanedione in the flavor of aged red wines. J Agric Food Chem 61:7373–7380 (2013).
Sano T, Okabe R, Iwahashi M, Imagi J, Sato T, Yamashita T et al., Effect of furan fatty acids and 3‐Methyl‐2,4‐nonanedione on light‐induced off‐odor in soybean oil. J Agric Food Chem 65:2136–2140 (2017).
Sano T, Iwahashi M, Imagi J, Sato T, Yamashita T, Fukusaki E et al., Relationship between 3‐Methyl‐2,4‐nonanedione concentration and intensity of light‐induced off‐odor in soy bean oil. J Oleo Sci 65:447–450 (2016).
Peterson A, Cholet C, Geny L, Darriet P, Landais Y and Pons A, Identification and analysis of new α‐ and β‐hydroxy ketones related to the formation of 3‐methyl‐2,4‐nonanedione in musts and red wines. Food Chem 305:125486 (2020).
Sigrist IA, Manzardo GGG and Amadò R, Aroma compounds formed from 3‐Methyl‐2,4‐nonanedione under photooxidative conditions. J Agric Food Chem 51:3426–3428 (2003).
La Burgade R, De NV, Godet T, Galy N, Tixador D, Loisel C et al., Wine Cork closures impacts on dimethyl sulfide (DMS) and precursors (DMSP) equilibrium of different shiraz wines during accelerated bottle ageing. Beverages 9:15 (2023).

Auteurs

Alessandro Bianchi (A)

Department of Agriculture, Food and Environment, University of Pisa, Pisa, Italy.

Stefano Pettinelli (S)

Department of Agriculture, Food and Environment, University of Pisa, Pisa, Italy.

Elisabetta Pittari (E)

Department of Agricultural Sciences, Division of Vine and Wine Sciences, University of Naples Federico II, Avellino, Italy.

Leonardo Paoli (L)

Department of Agriculture, Food and Environment, University of Pisa, Pisa, Italy.

Chiara Sanmartin (C)

Department of Agriculture, Food and Environment, University of Pisa, Pisa, Italy.

Alexandre Pons (A)

Institut des Sciences de la Vigne et du Vin CS 50008 210, Villenave d'Ornon Cedex, France.
Seguin Moreau cooperage, ZI Merpins, Cognac, France.

Fabio Mencarelli (F)

Department of Agriculture, Food and Environment, University of Pisa, Pisa, Italy.

Paola Piombino (P)

Department of Agricultural Sciences, Division of Vine and Wine Sciences, University of Naples Federico II, Avellino, Italy.

Classifications MeSH