TY - CHAP
T1 - Mathematical modelling of modified atmosphere package
T2 - An engineering approach to design packaging systems for fresh-cut produce
AU - Torrieri, Elena
AU - Mahajan, Pramod V.
AU - Cavella, Silvana
AU - de Sousa Gallagher, Maria
AU - Oliveira, Fernanda A.R.
AU - Masi, Paolo
N1 - Publisher Copyright:
© Springer Science+Buisness Media, LLC 2009.
PY - 2009
Y1 - 2009
N2 - Consumer demand for freshness and for convenience food has led to the evolution and increased production of fresh-cut fruits and vegetables. Moreover, thismay represent away to increase the consumption of fresh fruits and vegetables and therefore be a benefit for the crops-sector economy. Because the increase in convenience for the consumer has a detrimental effect on product quality, attention must be focused on extending shelf-life while maintaining quality. Modified atmosphere packaging (MAP) is a packaging technology that, by making qualitative or quantitative changes to the atmosphere composition around the product, can improve product preservation. However,MAP must be carefully designed, as a poorly designed system may be ineffective or even shorten product shelf-life. Thus, whereas in the past a trial-and-error approach to packaging of food was predominant, nowadays the need has emerged for an engineering approach to properly design a package to improve product shelf-life. Therefore, to ensure an appropriate gas composition during the product’s shelf-life, a model should take into account all the variables that play a critical role, such as product respiration and its mass; packaging material and its geometry; and environmental conditions such as temperature, relative humidity, and gas composition. In this chapter, a procedure to design a package for fresh-cut produce is described. An engineering approach is used to develop a mathematical model with the experimental data obtained for product respiration and package permeability and to solve the mass balance equations using computer software. A case study on fresh-cut apples is reported to validate the model.
AB - Consumer demand for freshness and for convenience food has led to the evolution and increased production of fresh-cut fruits and vegetables. Moreover, thismay represent away to increase the consumption of fresh fruits and vegetables and therefore be a benefit for the crops-sector economy. Because the increase in convenience for the consumer has a detrimental effect on product quality, attention must be focused on extending shelf-life while maintaining quality. Modified atmosphere packaging (MAP) is a packaging technology that, by making qualitative or quantitative changes to the atmosphere composition around the product, can improve product preservation. However,MAP must be carefully designed, as a poorly designed system may be ineffective or even shorten product shelf-life. Thus, whereas in the past a trial-and-error approach to packaging of food was predominant, nowadays the need has emerged for an engineering approach to properly design a package to improve product shelf-life. Therefore, to ensure an appropriate gas composition during the product’s shelf-life, a model should take into account all the variables that play a critical role, such as product respiration and its mass; packaging material and its geometry; and environmental conditions such as temperature, relative humidity, and gas composition. In this chapter, a procedure to design a package for fresh-cut produce is described. An engineering approach is used to develop a mathematical model with the experimental data obtained for product respiration and package permeability and to solve the mass balance equations using computer software. A case study on fresh-cut apples is reported to validate the model.
UR - https://www.scopus.com/pages/publications/84976487070
U2 - 10.1007/978-0-387-75181-8_22
DO - 10.1007/978-0-387-75181-8_22
M3 - Chapter
AN - SCOPUS:84976487070
T3 - Springer Optimization and Its Applications
SP - 455
EP - 483
BT - Springer Optimization and Its Applications
PB - Springer International Publishing
ER -