Open Access
Issue
Ciência Téc. Vitiv.
Volume 40, Number 2, 2025
Page(s) 107 - 124
DOI https://doi.org/10.1051/ctv/20254002107
Published online 02 December 2025
  • Albacete A., Martinez-Andújar C., Martínez-Pérez A., Thompson A.J., Dodd I.C., Pérez-Alfocea F., 2015. Unraveling rootstock x scion interactions to improve food security. J. Exp. Biol., 66, 2211–2226. [Google Scholar]
  • Alifragkis A., Cunha J., Pereira J., Fevereiro P., Eiras Dias J.E.J., 2015. Identity, synonymies and homonynies of minor grapevine cultivars maintained in the portuguese ampelographic collection. Ciência Tec. Vitiv., 30, 43–52. [Google Scholar]
  • Alonso-Forn D., Buesa I., Flor L., Sabater A., Medrano H., Escalona J.M., 2025. Implications of root morphology and anatomy for water deficit tolerance and recovery of grapevine rootstocks. Front. Plant Sci., 16, 1541523. [Google Scholar]
  • Ausari P.K., Gurjar P.K.S., Somkuwar R.G., Naruka I.S., Sharma A.K., Gharate P.S., 2024. Effect of rootstocks on yield and wine quality of Sauvignon Blanc variety. Plant Arch., 24, 1477–1482. [Google Scholar]
  • Baris F., Castro Marin A., Chinnici F., 2024. Oxidative evolution of different model rosé wines affected by distinct anthocyanin and tannin contents. Beverages, 10, 43. [Google Scholar]
  • Blancquaert E.H., Oberholster A., Ricardo-da-Silva J.M., Deloire A.J., 2019. Effects of abiotic factors on phenolic compounds in the grape berry - a review. S. Afr. J. Enol. Vitic., 40, 1–14. [Google Scholar]
  • Boulton R., 2001. The copigmentation of anthocyanins and its role in the color of red wine: A Critical Review. Am. J. Enol. Vitic., 52, 67–80. [Google Scholar]
  • Buesa I., Yeves A., Sanz F., Chirivella C., Intrigliolo D., 2021. Effect of delaying winter pruning of Bobal and Tempranillo grapevines on vine performance, grape and wine composition. Aust. J. Grape Wine Res., 27, 94–105. [Google Scholar]
  • Callili D., Silva M.J.R., Sanchez C.A.P.C., Watanabe C.Y., Macedo B.M.P., Domingues Neto F.J., Teixeira L.A.J., Tecchio M.A., 2022. Rootstock and potassium fertilization, in terms of phenology, thermal demand and chemical evolution, of berries on Niagara Rosada grapevine under subtropical conditions. Bragantia, 81, e2022. [Google Scholar]
  • Carbonneau A., 2011. Tropical viticulture: specificities and challenges for a quality viticulture. Acta Hortic., 910, 15–34. [Google Scholar]
  • Cataldo E., Eichmeier A., Mattii G.B., 2023. Effects of Global Warming on Grapevine Berries Phenolic Compounds: a review. Agronomy, 13, 2192. [Google Scholar]
  • Chen H., Wang M., Zhang L., Ren F., Li Y., Chen Y., Liu Y., Zhang Z., Zeng Q., 2024a. Anthocyanin profiles and color parameters of fourteen grapes and wines from the eastern foot of Helan Mountain in Ningxia. Food Chem. X, 24, 102034. [Google Scholar]
  • Chen Y., Fei Y., Howell K., Chen D., Clingeleffer P., Zhang P., 2024b. Rootstocks for grapevines now and into the future: selection of rootstocks based on drought tolerance, soil nutrient availability, and soil pH. Aust. J. Grape Wine Res., 30, 1–23. [Google Scholar]
  • Cheng S., Wu T., Gao J., Han X., Huang W., You Y., Zhan J., 2023. Color myth: anthocyanins reactions and enological approaches achieving their stabilization in the aging process of red wine. Food Innov. Adv., 2, 255–271. [Google Scholar]
  • Clingeleffer P.R., Krstic M.P., Martin S.R., Whitson I., 2022. Rootstock effects on growth and fruit composition of low-yielding winegrape cultivars grown in a hot Australian climae. Aust. J. Grape Wine Res., 28, 242–254. [Google Scholar]
  • Cretin B.N., Dubourdieu D., Marhal A., 2018. Influence of ethanol content on sweetness and bitterness perception in dry wines. LWT-Food Sci. Technol., 87, 61–66. [Google Scholar]
  • Crook A.A., Zamora-Olivares D., Bhinderwala F., Woods J., Winkler M., Rivera S., Shannon C.E., Wagner H.R., Zhuang D.L., Lynch J.E., Berryhill N.R., Runnebaum R.C., Anslyn E.V., Powers R., 2021. Combination of two analytical techniques improves wine classification by vineyard, region, and vintage. Food Chem., 354, 129531. [Google Scholar]
  • Dantas D.L.L., Pereira G.E., de Souza A.L., Lima, M.S., 2023. Chemometric analysis for authentication of ‘Syrah’ and ‘Tempranillo’ red wines of San Francisco Valley–Brazil compared to wines from other world regions by the molecular profile in HPLC. Food Sci. Technol., 60, 2050–2062. [Google Scholar]
  • de Freitas V., Mateus N., 2001. Structural features of procyanidin interactions with salivary proteins. J. Agric. Food Chem. , 49, 940–945. [CrossRef] [PubMed] [Google Scholar]
  • De Rosas I., Deis L., Baldo Y., Cavagnaro J.B., Cavagnaro P.F., 2022. High temperature alters anthocyanin concentration and composition in grape berries of malbec, merlot, and pinot noir in a cultivar-dependent manner. Plants, 11, 926. [Google Scholar]
  • Enaru B., Drețcanu G., Pop T.D., Stǎnilǎ A., Diaconeasa Z., 2021. Anthocyanins: Factors Affecting Their Stability and Degradation. Antioxidants, 10, 1967. [CrossRef] [PubMed] [Google Scholar]
  • Fan L., Wang Y., Xie P., Zhang L., Li Y., Zhou J., 2019. Copigmentation effects of phenolics on color enhancement and stability of blackberry wine residue anthocyanins: chromaticity, kinetics and structural simulation. Food Chem., 275, 299–308. [Google Scholar]
  • Figueiredo G.M.D., Mota R.V.D., de Souza C.R,D., Peregrino I., Fernandes F.D.P., Rhegina M.A., 2020. Late defoliation of ‘Chardonnay’ grapevine in subtropical highland climate. Bragantia, 79, 268–280. [Google Scholar]
  • Fourment M., Tachini R., Bonnardot V., Collins C., 2024. Assessment of Albariño (Vitis vinifera sp.) plasticity to local climate in the Atlantic eastern coastal terroir of Uruguay. OENO One, 58, 1–15. [Google Scholar]
  • Gashu K., Persi N.S., Drori E., Harcavi E., Agam N., Bustan A., Fait A., 2020. Temperature shift between vineyards modulates berry phenology and primary metabolism in a varietal collection of wine grapevine. Front. Plant Sci., 11, 588739. [Google Scholar]
  • Gordillo B., Cejudo-Bastante M.J., Rodríguez-Pulido F.J., Jara-Palacios M.J., Ramírez-Pérez P., González-Miret M.L., Heredia F.J., 2014. Impact of adding white pomace to red grapes on the phenolic composition and color stability of Syrah wines from a warm climate. J. Agric. Food Chem., 62, 2663–2671. [Google Scholar]
  • Gordillo B., Rivero F.J., Jara-Palacios M.J., González-Miret M.L., Heredia F.J., 2021. Impact of a double post-fermentative maceration with ripe and overripe seeds on the phenolic composition and color stability of Syrah red wines from warm climate. Food Chem., 346, 128919. [Google Scholar]
  • Gordillo B., Sigurdson G.T., Lao F., González-Miret, M.L., Heredia F.J., Giusti M.M., 2018. Assessment of the color modulation and stability of naturally copigmented anthocyanin-grape colorants with different levels of purification. Food Res. Int., 106, 791–799. [Google Scholar]
  • He F., Mu L., Yan G.L., Liang N.N., Pan Q.H., Wang J., Reeves M.J., Duan C.Q., 2010. Biosynthesis of anthocyanins and their regulation in colored grapes. Molecules, 15, 9057–9091. [Google Scholar]
  • Hidalgo-Sanz R., Del-Castillo-Alonso M.A., Monforte-López L., Tomás-Las-Heras R., Núñez-Olivera E., Martínez-Abaigar J., 2023. Application of UV-B radiation in pre- and postharvest as an innovative and sustainable cultural practice to improve grape phenolic composition. In: IVES Conference Series, Logroño, La Rioja, Spain. [Google Scholar]
  • Ibáñez J., Carreño J., Yuste J., Martínez-Zapater J.M., 2015. Grapevine breeding and clonal selection programmes in Spain. In: Grapevine Breeding Programs for the Wine Industry, 183–209. [Google Scholar]
  • Ibáñez J., Muñoz-Organero G., Zinelabidine L.H., de Andrés M.T., Cabello, F., Martínez-Zapater J.M., 2012. Genetic origin of the grapevine cultivar Tempranillo. Am. J. Enol. Vitic., 63, 549–553. [Google Scholar]
  • Kim Y.K., Guo Q., Packer L., 2002. Free radical scavenging activity of red ginseng aqueous extracts. Toxicology, 172, 149–156. [Google Scholar]
  • Klimek K., Kapłan M., Najda A., 2022. Influence of rootstock on yield quantity and quality, contents of biologically active compounds and antioxidant activity in regent grapevine Fruit. Molecules, 27, 2065. [Google Scholar]
  • Kramling T.E., Singleton V.L., 1969. An estimate of the non-flavanoid phenol in wines. Am. J. Enol. Vitic., 20, 86–92. [Google Scholar]
  • Lemos A.M., Machado N., Egea-Cortines M., Barros A.I., 2020. Assessment of quality parameters and phytochemical content of thirty ‘Tempranillo’ grape clones for varietal improvement in two distinct sub-regions of Douro. Sci. Hortic., 262, 109096. [Google Scholar]
  • OIV. Office Internacional de la vigne et du vin. (2014). Recueil des methodes internacionales d’analyse des vins et des moûts. Paris, France. [Google Scholar]
  • OIV. Office Internacional de la vigne et du vin. (2017). Focus OIV 2017. Distribution of the world’s grapevine varieties. Paris, France. [Google Scholar]
  • Oliveira J.B. de, Faria D.L., Duarte D.F., Egipto R., Laureano O., de Castro R., Pereira G.E., Ricardo-da-Silva J. M., 2018. Effect of the harvest season on phenolic composition and oenological parameters of grapes and wines cv. ‘Touriga Nacional’ (Vitis vinifera L.) produced under tropical semi-arid climate, in the state of Pernambuco, Brazil. Ciência Tec. Vitiv., 33, 145–166. [Google Scholar]
  • Oliveira J.B., Egipto R., Laureano O., de Castro R., Pereira G.E., Ricardo-da-Silva J.M., 2019a. Chemical composition and sensory profile of Syrah wines from semiarid tropical Brazil–Rootstock and harvest season effects. LWT-Food Sci. Technol., 114, 108415. [Google Scholar]
  • Oliveira J.B., Egipto R., Laureano O., de Castro R., Pereira G.E., Ricardo-da-Silva J.M. 2019b. Climate effects on physicochemical composition of Syrah grapes at low and high altitude sites from tropical grown regions of Brazil. Food Res. Int., 121, 870–879. [CrossRef] [Google Scholar]
  • Oliveira J.B., Fialho F.B., Laureano O., de Castro R., Pereira G.E., Ricardo-da-Silva J.M., 2024. Impact of aging on the physical-chemical and phenolic stability of tropical red wines from Brazil produced with grapes harvested in the summer season. J. Food Compos. Anal., 125, 105794. [Google Scholar]
  • Oliveira J.B., Laureano O., de Castro R., Pereira G.E., Ricardo-da-Silva J.M., 2020. Rootstock and harvest season affect the chemical composition and sensory analysis of grapes and wines of the Alicante Bouschet (Vitis vinifera L.) grown in a tropical semi-arid climate in Brazil. Oeno One, 4, 1021–1039. [Google Scholar]
  • Otto T., Botelho R., Biasi L., Miljić U.C., Correia A.M., Jordão, A., 2023. Adaptability of Different International Grape Varieties in Diverse Terroirs: Impact on Grape and Wine Composition. In: Recent Advances in Grapes and Wine Production - New Perspectives for Quality Improvement. IntechOpen. Jordão, A.M., Botelho, R.V. and Miljić U.C. (eds.). [Google Scholar]
  • Padilha C.V.S., Biasoto A.C.T., Corrêa L.C., Lima M.S., Pereira G.E., 2016. Phenolic compounds profile and antioxidant activity of commercial tropical red wines (Vitis vinifera L.) from São Francisco Valley, Brazil. J. Food Biochem., 41, 1–9. [Google Scholar]
  • Payan C., Gancel A.L., Jourdes M., Christmann M., Teissedre P.L., 2023. Wine acidification methods: a review. OENO One, 57(3), 113–126. [Google Scholar]
  • Pereira G.E., 2020. The three different winegrowing zones in Brazil according to climate conditions and vine managements. In: Vitis: Biology and Species. 129–148. Jordão, A.M. and Botelho, R.V. (eds.). Nova Science Publishers, New York. [Google Scholar]
  • Pereira G.E., Amorim F.M., Nascimento A.M., Souza J.F., Lima L.L.A., Lima M.S., Padilha C., Protas J.F.S., Zanus M.C., Tonietto J., 2020. Vins tropicaux de la région semi-aride du Brésil Dévoiler le potentiel vitivinicole de cette nouvelle frontière géographique du vin. Territoires du vin, 11, 1–15. [Google Scholar]
  • Plantevin M., Merpault Y., Lecourt J., Destrac-Irvine A., Dijkstra L., Van Leeuwen C., 2024. Characterization of varietal effects on the acidity and pH of grape berries for selection of varieties better adapted to climate change. Front. Plant Sci., 15, 1439114. [Google Scholar]
  • Re R., Pellegrini N., Proteggente A., Pannala A., Yang M., Rice-Evans C., 1999. Antioxidant activity applying an improved ABTS radical cation decolorization assay. Free Radic. Biol. Med., 26, 1231–1237. [CrossRef] [Google Scholar]
  • Ribéreau-Gayon P., 1970. Le dosage des composés phénoliques totaux dans les vins rouges. Anal. Chim. Acta, 52, 627–631. [Google Scholar]
  • Ribéreau-Gayon P., Stonestreet E., 1965. Dosage des tannins du vin rouge et determination de leur structure. Anal. Chim. Acta, 2, 627–631. [Google Scholar]
  • Roggero J.P., Coen S., Ragonnet B., 1986. High performance liquid chromatography survey on changes in pigment content in ripening grapes of Syrah. An approach to anthocyanin metabolism. Am. J. Enol. Vitic., 37, 77–83. [Google Scholar]
  • Rogiers S.Y., Greer D.H., Liu Y., Baby T., Xiao Z., 2022. Impact of climate change on grape berry ripening: An assessment of adaptation strategies for the Australian vineyard. Front. Plant Sci., 13, 1094633. [Google Scholar]
  • Rouxinol M.I., Martins M.R., Salgueiro V., Costa M.J., Barroso J.M., Rato A.E., 2023. Climate Effect on Morphological Traits and Polyphenolic Composition of Red Wine Grapes of Vitis vinifera. Beverages, 9, 8. [Google Scholar]
  • Sadras V.O., Moran M.A., 2012. Elevated temperature decouples anthocyanins and sugars in berries of Shiraz and Cabernet Franc. Aust. J. Grape Wine Res., 18,115–122. [CrossRef] [Google Scholar]
  • Santesteban L.G., Rekarte I., Torres N., Galar M., Villa-Llop A., Visconti F., Intrigliolo D.S., Escalona J.M., de Herralde F., Miranda C., 2023. The Role of Rootstocks for Grape Growing Adaptation to Climate Change. Meta-Analysis of the Research Conducted in Spanish Viticulture. OENO One, 57, 283–290. [Google Scholar]
  • Santos J.A., Costa R., Fraga H., 2019. New insights into thermal growing conditions of Portuguese grapevine varieties under changing climates. Theor. Appl. Climatol., 135, 1215–1226. [Google Scholar]
  • Shi T., Su Y., Lan Y., Duan C., Yu K., 2024. The molecular basis of flavonoid biosynthesis response to water, light, and temperature in grape berries. Front. Plant Sci., 15, 1441893. [Google Scholar]
  • Singh P., Singh A., Choudhary K.K., 2023. Revisiting the role of phenylpropanoids in plant defense against UV-B stress. Plant Stress, 7, 100143. [Google Scholar]
  • Somers T.C., Evans M.E., 1977. Spectral evaluation of young red wines: anthocyanin equilibria, total phenolic, free and molecular SO2 «chemical age». J. Sci. Food Agric., 28, 279–287. [CrossRef] [Google Scholar]
  • Sun B., Ricardo-da-Silva J.M., Spranger M.I., 2001. Quantification of catechins and proanthocyanidins in several portuguese grapevine varieties and red wines. Ciência Tec. Vitiv., 16, 23–34. [Google Scholar]
  • Sun B.S., Leandro M.C., Ricardo-da-Silva J.M., Spranger M.I., 1998a. Separation of grape and wine proanthocyanidins according to their degree of polymerisation. J. Agric. Food Chem. , 46, 1390–1396. [Google Scholar]
  • Sun B.S., Ricardo-da-Silva J.M., Spranger M.I., 1998b. Critical factors of the vanillin assay for catechins and proanthocyanidins. J. Agric. Food Chem., 46, 4267–4274. [CrossRef] [Google Scholar]
  • Sun M., Jordan B., Creasy G., Zhu Y.-F., 2023. UV-B Radiation Induced the Changes in the Amount of Amino Acids, Phenolics and Aroma Compounds in Vitis vinifera cv. Pinot Noir Berry under Field Conditions. Foods, 12, 2350. [Google Scholar]
  • Suriano S., Alba V., di Gennaro D., Surian M.S., Savino M., Tarricone L., 2016. Genotype/rootstocks effect on the expression of anthocyanins and flavans in grapes and wines of Greco Nero n. (Vitis vinifera L.). Sci. Hortic., 209, 309–315. [Google Scholar]
  • Teixeira A.H.de C., Tonietto J., Leivas J.F., 2018. Water balance indices for tropical wine grapes. In: Grapes and wines: advances in production, processing, analysis and valorization. 77–90. Jordão A.M. and Cosme, F. (eds.), IntechOpen. [Google Scholar]
  • Tzachristas A., Pasvanka K., Calokerinos A., Proestos C., 2020. Polyphenols: natural antioxidants to be used as a quality tool in wine authenticity. Appl. Sci., 10, 5908. [Google Scholar]
  • Van Leeuwen C., Destrac-Irvine A., 2017. Modified grape composition under climate change conditions requires adaptations in the vineyard. OENO One, 51, 147–154. [CrossRef] [Google Scholar]
  • Wang C., Li C., Li Y., Zeng Y., Jiang J., Wu L., Yang S., Yuan D., Chen L., Pei Z., Kayima V., Liu H., Qiu Z., Qiu D., 2025. Transcriptomic Insights into Higher Anthocyanin Accumulation in ‘Summer Black’ Table Grapes in Winter Crop Under Double-Cropping Viticulture System. Plants, 14, 26. [Google Scholar]
  • Yin H., Wang L., Xi Z., 2022. Involvement of Anthocyanin Biosynthesis of Cabernet Sauvignon Grape Skins in Response to Field Screening and In Vitro Culture Irradiating Infrared Radiation. J. Agric. Food Chem.., 70, 12807–12818. [Google Scholar]
  • Zhang X.K., Jeffery D.W., Li D.M., Lan Y.B., Zhao X., Duan C.Q., 2022. Red wine coloration: A review of pigmented molecules, reactions, and applications. Compr. Rev. Food Sci. Food Saf., 21, 3834–3866. [CrossRef] [Google Scholar]
  • Zhao J., Guo M., Wang R., Li L., Sun B., 2023. Evaluation of color and stability of ethyl-linked anthocyanin-flavanol pigments in model wine solutions using combined chemical analysis and 3D molecular simulations. Ciência Tec. Vitiv., 38, 67–81. [CrossRef] [EDP Sciences] [Google Scholar]
  • Zhao X., He F., Zhang X.K., Shi Y., Duan C.Q., 2022. Impact of three phenolic copigments on the stability and color evolution of five basic anthocyanins in model wine systems. Food Chem., 375, 131670. [Google Scholar]

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