2017
DOI: 10.1590/1678-457x.33216
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Estimation of the shelf life of pezik pickles using Weibull hazard analysis

Abstract: Beta vulgaris L. var. rapa is a variety of beet with edible dark green leaves and stalks, which is a close relative of Swiss chard. It is widely consumed in central Anatolia region in Turkey due to its high nutritional value and desirable sensory attributes. Locally known as 'pezik' , Beta vulgaris L. var. rapa is a highly perishable vegetable. The stalks of pezik are consumed as pickle, allowing longer consumption of this vegetable. In this study, Weibull hazard analysis was applied to the sensory data to det… Show more

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Cited by 9 publications
(6 citation statements)
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“…Among these, electronic sensing for rapid diagnosis of food quality [7] and a multiple linear regression model was reported to predict the shelf-life of roasted coffee, sterilized milk drinks [8] or yogurt [6,9]. In recent years, we have witnessed the development and application of more reliable, effective and fast mathematical modelling, such as the Weibull hazard model used for estimating the shelf-life of pezik pickles, for example [10]. Fast mathematical modeling, such as the Q10 model [11], has been widely used forshelf-life evaluation of food products such as frozen shrimp [12], for kinetics analysis of quality changes in Pangasius fillets at stable and dynamic temperatures, for simulating downstream cold chain conditions [13], and also for analysis of chilled pork [14], ketchup [15] or juice drinks [16].…”
Section: Introductionmentioning
confidence: 99%
“…Among these, electronic sensing for rapid diagnosis of food quality [7] and a multiple linear regression model was reported to predict the shelf-life of roasted coffee, sterilized milk drinks [8] or yogurt [6,9]. In recent years, we have witnessed the development and application of more reliable, effective and fast mathematical modelling, such as the Weibull hazard model used for estimating the shelf-life of pezik pickles, for example [10]. Fast mathematical modeling, such as the Q10 model [11], has been widely used forshelf-life evaluation of food products such as frozen shrimp [12], for kinetics analysis of quality changes in Pangasius fillets at stable and dynamic temperatures, for simulating downstream cold chain conditions [13], and also for analysis of chilled pork [14], ketchup [15] or juice drinks [16].…”
Section: Introductionmentioning
confidence: 99%
“…dairy foods, including some yoghurt (Zhi et al, 2018 ). Many models were developed as a result of research on plant products: modelling of the effect of storage temperature on the respiration rate and texture of fresh cut pineapple (Benítez et al, 2012 ), Weibull hazard analysis for estimation of the shelf-life of pezik pickles (Keklik et al, 2017 ), kinetics of changes in shelf-life parameters during storage of pearl millet (Bunkar et al, 2014 ), non-isothermal kinetic modelling for anthocyanins in bread and crust (Sui et al, 2015 ), prediction of the quality and storage period of soybean at different temperatures (Dong et al, 2015 ). The fast mathematical modelling methods such as the Weibull hazard model and Q10 model have been used with meat products to predict the shelf-life of chilled pork (Tang et al, 2013 ), for the modelling of frozen shrimp shelf-life at variable temperatures (Tsironi et al, 2009 ), the kinetics of changes in the quality of Pangasius fillets at stable and dynamic temperatures, and to simulate downstream cold chain conditions (Mai and Huynh, 2017 ).…”
Section: Introductionmentioning
confidence: 99%
“…To calculate hazard parameters, log (time) vs log (cumulative hazard values) was plotted. The equation obtained from the graph was replaced in Equation 2 (Keklik et al, 2017).…”
Section: 𝐻(𝑡)=∫ℎ(𝑥)𝑑𝑥=(𝑡/𝛼) 𝛽mentioning
confidence: 99%