Carlos M. Correia

Prof. Dr. Carlos M. Correia

Universidade de Trás-os-Montes e Alto Douro, Vila Real, Portugal
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Research Focus & Metrics

Academic Career Length

29Years (1998-Present)

(Calculated once Scilit publication data is synced: current year − year of first publication + 1)

Representative Publications

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29 April 2020 in Applied Sciences
Verified
Journal Article
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João A. SantosJoão A. Santos
João A. Santos
Helder FragaHelder Fraga
Helder Fraga
Aureliano C. MalheiroAureliano C. Malheiro
Aureliano C. Malheiro
José Moutinho PereiraJosé Moutinho Pereira
José Moutinho Pereira
L.-T. DinisL.-T. Dinis
L.-T. Dinis
HSHans R. Schultz
Hans R. Schultz
Viticulture and winemaking are important socioeconomic sectors in many European regions. Climate plays a vital role in the terroir of a given wine region, as it strongly controls canopy microclimate, vine growth, vine physiology, yield, and berry composition, which together determine wine attributes and typicity. New challenges are, however, predicted to arise from climate change, as grapevine cultivation is deeply dependent on weather and climate conditions. Changes in viticultural suitability over the last decades, for viticulture in general or the use of specific varieties, have already been reported for many wine regions. Despite spatially heterogeneous impacts, climate change is anticipated to exacerbate these recent trends on suitability for wine production. These shifts may reshape the geographical distribution of wine regions, while wine typicity may also be threatened in most cases. Changing climates will thereby urge for the implementation of timely, suitable, and cost-effective adaptation strategies, which should also be thoroughly planned and tuned to local conditions for an effective risk reduction. Although the potential of the different adaptation options is not yet fully investigated, deserving further research activities, their adoption will be of utmost relevance to maintain the socioeconomic and environmental sustainability of the highly valued viticulture and winemaking sector in Europe.

6 December 2012 in Acta Physiologiae Plantarum
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Journal Article
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Maria Celeste DiasMaria Celeste Dias
Maria Celeste Dias
CMCristina Monteiro
Cristina Monteiro
José Moutinho PereiraJosé Moutinho Pereira
José Moutinho Pereira
Carlos M. CorreiaCarlos M. Correia
Carlos M. Correia
B. Goncalves; Berta GonçalvesB. Goncalves; Berta Gonçalves
B. Goncalves; Berta Gonçalves
Conceição SantosConceição Santos
Conceição Santos

17 July 2019 in Plants
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Cátia BritoCátia Brito
Cátia Brito
L.-T. DinisL.-T. Dinis
L.-T. Dinis
José Moutinho PereiraJosé Moutinho Pereira
José Moutinho Pereira
Carlos M. CorreiaCarlos M. Correia
Carlos M. Correia
Increasing consciousness regarding the nutritional value of olive oil has enhanced the demand for this product and, consequently, the expansion of olive tree cultivation. Although it is considered a highly resilient and tolerant crop to several abiotic stresses, olive growing areas are usually affected by adverse environmental factors, namely, water scarcity, heat and high irradiance, and are especially vulnerable to climate change. In this context, it is imperative to improve agronomic strategies to offset the loss of productivity and possible changes in fruit and oil quality. To develop more efficient and precise measures, it is important to look for new insights concerning response mechanisms to drought stress. In this review, we provided an overview of the global status of olive tree ecology and relevance, as well the influence of environmental abiotic stresses in olive cultivation. Finally, we explored and analysed the deleterious effects caused by drought (e.g., water status and photosynthetic performance impairment, oxidative stress and imbalance in plant nutrition), the most critical stressor to agricultural crops in the Mediterranean region, and the main olive tree responses to withstand this stressor.

1 February 2004 in Tree Physiology
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Eunice BacelarEunice Bacelar
Eunice Bacelar
Carlos M. CorreiaCarlos M. Correia
Carlos M. Correia
José Moutinho PereiraJosé Moutinho Pereira
José Moutinho Pereira
B. Goncalves; Berta GonçalvesB. Goncalves; Berta Gonçalves
B. Goncalves; Berta Gonçalves
JLJoão I. Lopes
João I. Lopes
JTJosé M. G. Torres-Pereira
José M. G. Torres-Pereira
Leaf-level morphological and structural adaptations to reduce water loss were examined in five olive ( Olea europaea L.) tree cultivars (Arbequina, Blanqueta, Cobrançosa, Manzanilla and Negrinha) growing under field conditions with low water availability. Leaf measurements included leaf tissue thickness, stomatal density, leaf area, leaf mass per unit area, density of leaf tissue, relative water content, succulence, water saturation deficit, water content at saturation and cuticular transpiration rate. We found considerable genotypic differences among the cultivars. Negrinha, Manzanilla and Cobrançosa had more morphological and structural leaf adaptations to protect against water loss than the other cultivars. Manzanilla and Negrinha enhanced their sclerophylly by building parenchyma tissues and increasing protective structures like the upper cuticle and both the upper and lower epidermis. Cobrançosa exhibited good protection against water loss through high density of foliar tissue and by thick cuticle and trichome layers. Compared with the Negrinha, Manzanilla and Cobrançosa cultivars, Arbequina leaves had a thinner trichome layer, implying that the leaves were less protected against water loss; however, the development of smaller leaves may reduce water loss at the whole-plant level. Among cultivars, Blanqueta had the largest leaves and some anatomical traits that may lead to high water loss, especially from the adaxial surface. The mechanisms employed by the cultivars to cope with summer stress are discussed at the morpho-structural level.

20 April 2017 in Frontiers in Plant Science
Verified
Journal Article
Open access
Piebiep GoufoPiebiep Goufo
Piebiep Goufo
José Moutinho PereiraJosé Moutinho Pereira
José Moutinho Pereira
TJTiago F. Jorge
Tiago F. Jorge
Carlos M. CorreiaCarlos M. Correia
Carlos M. Correia
MOManuela R. Oliveira
Manuela R. Oliveira
HTHenrique Trindade
Henrique Trindade
Plants usually tolerate drought by producing organic solutes, which can either act as compatible osmolytes for maintaining turgor, or radical scavengers for protecting cellular functions. However, these two properties of organic solutes are often indistinguishable during stress progression. This study looked at individualizing properties of osmotic adjustment versus osmoprotection in plants, using cowpea as the model species. Two cultivars were grown in well-watered soil, drought conditions, or drought followed by rewatering through fruit formation. Osmoadaptation was investigated in leaves and roots using photosynthetic traits, water homoeostasis, inorganic ions, and primary and secondary metabolites. Multifactorial analyses indicated allocation of high quantities of amino acids, sugars, and proanthocyanidins into roots, presumably linked to their role in growth and initial stress perception. Physiological and metabolic changes developed in parallel and drought/recovery responses showed a progressive acclimation of the cowpea plant to stress. Of the 88 metabolites studied, proline, galactinol, and a quercetin derivative responded the most to drought as highlighted by multivariate analyses, and their correlations with yield indicated beneficial effects. These metabolites accumulated differently in roots, but similarly in leaves, suggesting a more conservative strategy to cope with drought in the aerial parts. Changes in these compounds roughly reflected energy investment in protective mechanisms, although the ability of plants to adjust osmotically through inorganic ions uptake could not be discounted.

1 January 2006 in Tree Physiology
Verified
Journal Article
Open access
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B. Goncalves; Berta GonçalvesB. Goncalves; Berta Gonçalves
B. Goncalves; Berta Gonçalves
José Moutinho PereiraJosé Moutinho Pereira
José Moutinho Pereira
ASAlberto Santos
Alberto Santos
Ana Paula SilvaAna Paula Silva
Ana Paula Silva
Eunice BacelarEunice Bacelar
Eunice Bacelar
EREduardo Rosa
Eduardo Rosa
Water relations, leaf gas exchange, chlorophyll a fluorescence, light canopy transmittance, leaf photosynthetic pigments and metabolites and fruit quality indices of cherry cultivars ‘Burlat’, ‘Summit’ and ‘Van’ growing on five rootstocks with differing size-controlling potentials that decrease in the order: Prunus avium L. > CAB 11E > Maxma 14 > Gisela 5 > Edabriz, were studied during 2002 and 2003. Rootstock genotype affected all physiological parameters. Cherry cultivars grafted on invigorating rootstocks had higher values of midday stem water potential (ΨMD), net CO2 assimilation rate (A), stomatal conductance (gs), intercellular CO2 concentration (Ci) and maximum photochemical efficiency of photosystem II (PSII) (Fv/Fm) than cultivars grafted on dwarfing rootstocks. The ΨMD was positively correlated with A, gs and Ci. Moreover, A was positively correlated with gs, and the slopes of the linear regression increased from invigorating to dwarfing rootstocks, indicating a stronger regulation of photosynthesis by stomatal aperture in trees on dwarfing Edabriz and Gisela 5. The effect of rootstock genotype was also statistically significant for leaf photosynthetic pigments, whereas metabolite concentrations and fruit physicochemical characteristics were more dependent on cultivar genotype. Among cultivars, ‘Burlat’ leaves had the lowest concentrations of photosynthetic pigments, but were richest in total soluble sugars, starch and total phenols. Compared with the other cultivars, ‘Summit’ had heavier fruits, independent of the rootstock. ‘Burlat’ cherries were less firm and had lower concentrations of soluble sugars and a lower titratable acidity than ‘Van’ cherries. Nevertheless, ‘Van’ cherries had lower lightness, chroma and hue angle, representing redder and darker cherries, compared with ‘Summit’ fruits. In general, ΨMD was positively correlated with fruit mass and A was negatively correlated with lightness and chroma. These results demonstrate that: (1) water relations and photosynthesis of sweet cherry tree are mainly influenced by the rootstock genotype; (2) different physicochemical characteristics observed in cherries of the three cultivars suggest that regulation of fruit quality was mainly dependent on the cultivar genotype, although the different size-controlling rootstocks also had a significant effect.