Mass-Indices (B-Values) of Legumes, Tuber and Sea Food for Mass-Size Reduction Operations

Akpan, Abasiama J., Olosunde, William A., Antia, Orua O.
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Abstract

In an effort to easily use the Orua Antia’s energy and power equations to determine the minimum comminution energy and power requirements of a given material; the mass Index being a constant in these equations is necessary to be provided for materials that could be subjected to comminution. In this study, the mass indices of some selected food materials such as cassava, yam, crayfish, beans and soybeans which finds applications in food industries were evaluated using static impact force technique coupled with graphical and computational approaches. In graphical method Equation 17 obtained from energy expression for mass-size reduction Equation 14 was employed; while Equation 16 which is a combination of Equation 14 and the potential energy Equation 15 was used in the computational method. Also the relative errors of mass indices obtained from these two methods were evaluated. Results showed that computational or graphical method could be used to obtain the mass index of each selected material. It was observed that moisture content had little influence on the value of mass index. Hence, the average mass index per selected food type within its percentage moisture content wet basis range could be utilized in the minimum comminution energy and power Equations 4 to 6 and 12 to 13 respectively, via the equations constants as applicable and expressed as Equations 9, 10 and 11. Further analysis revealed that the average mass indices were 1.71230.5835, 1.89150.6377,20.27043.0846, 18.19601.0337 and 23.77912.3094  for cassava, yam, crayfish, beans and soy beans respectively.
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豆类、块茎类和海产品的质量指数(b值)
为了方便地使用Orua Antia的能量和功率方程来确定给定材料的最小粉碎能量和功率要求;对于可能遭受粉碎的材料,必须在这些方程中提供质量指数为常数。本研究以木薯、山药、小龙虾、豆类和大豆等食品原料为研究对象,采用静态冲击力技术,结合图形和计算方法对其质量指数进行了评价。在图解法中,由质量尺寸缩减的能量表达式得到方程17,采用方程14;计算方法采用方程14和势能方程15的组合公式16。并对两种方法得到的质量指数的相对误差进行了评价。结果表明,计算法和图解法均可获得所选材料的质量指数。结果表明,含水率对质量指数的影响不大。因此,所选食品类型在其百分比含水率湿基范围内的平均质量指数可分别用于最小粉碎能量和功率式4 ~ 6和12 ~ 13,通过适用的方程常数,表示为式9、10和11。进一步分析发现,木薯、山药、小龙虾、豆类和大豆的平均质量指数分别为1.71230.5835、1.89150.6377、20.27043.0846、18.19601.0337和23.77912.3094。
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