1990
DOI: 10.1002/jsfa.2740500411
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Effects of postharvest treatment on the sensory qualities of kiwifruit harvested at different maturities

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Cited by 26 publications
(5 citation statements)
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“…'Hayward' fruit can be stored for more than 8 weeks at low temperature since the fruit were firmer with high acidity even after 8 weeks at 5 and 10°C. Since consumer preference for kiwifruit is based on fruit firmness, SSC, and acidity, ethylene treatment is usually performed after storage to ensure fruit show uniform ripening characteristics before being brought to market (Boquete et al, 2004;MacRae et al, 1990). The present study shows that for 'Rainbow Red' and 'Sanuki Gold' fruit, 5 or 10°C can be recommended for storage periods of 4 or 8 weeks without ethylene treatment before shipping.…”
Section: Implications Of Storage Temperature In Kiwifruit Cultivarsmentioning
confidence: 99%
“…'Hayward' fruit can be stored for more than 8 weeks at low temperature since the fruit were firmer with high acidity even after 8 weeks at 5 and 10°C. Since consumer preference for kiwifruit is based on fruit firmness, SSC, and acidity, ethylene treatment is usually performed after storage to ensure fruit show uniform ripening characteristics before being brought to market (Boquete et al, 2004;MacRae et al, 1990). The present study shows that for 'Rainbow Red' and 'Sanuki Gold' fruit, 5 or 10°C can be recommended for storage periods of 4 or 8 weeks without ethylene treatment before shipping.…”
Section: Implications Of Storage Temperature In Kiwifruit Cultivarsmentioning
confidence: 99%
“…In other fruit, it has been reported that consumer preferences or acceptance are mainly based on SSC but other quality attributes may also be important (Sozzi et al, 1980;Ben-Arie et al, 1982;Matsumoto et al, 1983;Young and Paterson, 1985;Robertson and Meredith, 1989;MacRae et al, 1990). Among these other quality attributes, TA may play an important role in consumer preferences or acceptance (Lawes and Sawanobori, 1984;Pehrson and Ivans, 1988;Crisosto et al, 1997).…”
Section: Introductionmentioning
confidence: 99%
“…Michaelis-Menten type models are monotonic models that represent firmness loss, and contain different parameters for characterising the dataset (Benge, De Silva, Banks, & Jeffery, 2000), while reciprocal, power and reciprocal quadratic models (Westcott & Callan, 1990) represent models that can be used to fit storage potential parameters. The most studied physiological mechanisms that regulate decreasing kiwifruit firmness include the disassembly of polysaccharide networks in cell walls, pectin degradation, hydrolysis of starch celluloses and hemicellulose (Hertog, Nicholson, & Jeffery, 2004;Macrae, Lallu, Searle, & Bowen, 1989;Macrae, Stec, & Triggs, 1990;Paliyath & Murr, 2008;Pyke, Hopkirk, Alspach, & Cooper, 1996).…”
Section: Michaelis-menten Type Complementary Gompertz and Jointedmentioning
confidence: 99%
“…Simple exponential, Boltzmann, inverse exponential polynomial (Jordan & Loeffen, 2009), complementary Michaelis–Menten type, complementary Gompertz and jointed Michaelis–Menten type models are monotonic models that represent firmness loss, and contain different parameters for characterising the dataset (Benge, De Silva, Banks, & Jeffery, ), while reciprocal, power and reciprocal quadratic models (Westcott & Callan, ) represent models that can be used to fit storage potential parameters. The most studied physiological mechanisms that regulate decreasing kiwifruit firmness include the disassembly of polysaccharide networks in cell walls, pectin degradation, hydrolysis of starch celluloses and hemicellulose (Hertog, Nicholson, & Jeffery, ; Lallu, Searle, & Macrae, ; Macrae, Lallu, Searle, & Bowen, ; Macrae, Stec, & Triggs, ; Paliyath & Murr, ; Pyke, Hopkirk, Alspach, & Cooper, ). Cellular turgor decreases due to water loss by transpiration (Biswas, East, Hewett, & Heyes, ; Saladie et al, ), and the softening processes of fruits is known to be affected by storage conditions.…”
Section: Introductionmentioning
confidence: 99%