2019
DOI: 10.17660/actahortic.2019.1244.35
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Maturation and quality of ‘Palmer’ and ‘Espada Vermelha’ mango fruits in the Brazilian semi-arid

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Cited by 2 publications
(3 citation statements)
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“…The number of fruits was a determining factor for the SST content, as it directly influences the source-drain relationship. In the second cycle, the lower number of fruits in the DLC and 2DP treatments contributed to the increase in the concentration of solutes, considering the smaller number of drains for the production of photoassimilates such as sugars and organic acids, as was observed in the 'Palmer' mango tree (OLIVEIRA et al, 2019;SIMÕES et al, 2020), melon (DALASTRA et al, 2016 and watermelon (LINS et al, 2013). In the first cycle, possibly, the higher temperature and the exposure of the wet bulb of the MBP treatment to the sun caused a water deficit in the maturation phase, and consequently an increase in the concentration of soluble solids, as was also observed by Andrade et al (2019) in the 'Kent' mango tree and by Reis et al (2013) in the 'Haden' mango.…”
Section: Resultsmentioning
confidence: 89%
“…The number of fruits was a determining factor for the SST content, as it directly influences the source-drain relationship. In the second cycle, the lower number of fruits in the DLC and 2DP treatments contributed to the increase in the concentration of solutes, considering the smaller number of drains for the production of photoassimilates such as sugars and organic acids, as was observed in the 'Palmer' mango tree (OLIVEIRA et al, 2019;SIMÕES et al, 2020), melon (DALASTRA et al, 2016 and watermelon (LINS et al, 2013). In the first cycle, possibly, the higher temperature and the exposure of the wet bulb of the MBP treatment to the sun caused a water deficit in the maturation phase, and consequently an increase in the concentration of soluble solids, as was also observed by Andrade et al (2019) in the 'Kent' mango tree and by Reis et al (2013) in the 'Haden' mango.…”
Section: Resultsmentioning
confidence: 89%
“…Irrigation depths, phenological stages and cultivation cycle influenced the soluble solids content of 'Kent' mango, with interaction between irrigation depths and production cycles (Figure 4). As the water restriction was applied in the flowering and fruit maturation stages, a significant reduction in soluble solids content was observed, probably due to the higher fruit load of these plants, reducing the source/sink ratio and distributing less sugar per fruit, as observed by Oliveira et al (2019) with 'Palmer' and 'Espada' mangoes. In the fruit growth stage, the maximum soluble solids content was obtained when the irrigation depth approached the range that promoted higher gas exchange, between 79.5 and 83.6% ETc, resulting in higher production of photoassimilates, hence contributing to the accumulation of sugars in the fruits.…”
Section: Resultsmentioning
confidence: 93%
“…Regarding titratable acidity (TA) and pH of fruits, there was interaction between the applied irrigation depth and the production cycles, with no difference between phenological stages (Figure 5). The soluble solids (SS) content and titratable acidity (TA) were higher in the first cycle, which can be explained by the lower number of fruits produced, causing greater leaf area per fruit and fewer sinks for the synthesized photoassimilates, such as sugars and organic acids, as observed in 'Palmer' mango by Oliveira et al (2019) and Simões et al (2020b). Fruit pH showed an inverse behavior to that of titratable acidity, which was already expected, because the pH is an inverse logarithmic scale of the concentration of H + and H 3 O + ions.…”
Section: Resultsmentioning
confidence: 99%