Development of a Filling Sauce Equipment System for Fish Canning Industry

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Development of a Filling Sauce Euipment System for Fish Canning Industry J. Panjamadisorn, P.Kittisupakorn bstract- This work studies development of a filling sauce euipment system for a fish canning industry. filling sauce process is necessary for fish canning industry. The aim of this work is to design and devise filling sauce euipment; consisting of a filling sauce device and a refill sauce storage tank. This type of the tank when using in a sauce filling step causes fluctuations of sauce flow rate into cans. This leads to the possibility of sauce overflow or deficit. In addition, when the hole sizes of a filling sauce device are inappropriately designed, this results in fluctuating of sauce filling into cans. Therefore, this work introduces an approach to overcome the difficulties by adding another tank to maintain the level of the sauce in the feeding tank first. Then, the filling sauce device is properly designed. With this approach, the sauce loss can be reduced by about 84. % per day or the saving of sauce is 4 litres per day. The payback period is less than 9 months. Conseuently, this work is applicable to decrease any sauce loss filling into cans in other canning industries. Index Terms fish canning, canning industry, filling sauce, filling sauce euipment I. INTRODUCTION t present a food canning is effect to lifestyle. Because, having comfortable to eat, low price and can be kept for a long time. Food canning is needed highly for the market, once is fish canning. Therefore, fish canning industry was established mostly in the short time. However, in depressing economy materials are expensive. So the budgets of products also are increasing. If there is not effective in process of fish canning that it would be made the budget highly and certainly make benefit decrease. Therefore, cleaner technology (CT) is necessary to help to reduce the budget of production such as water, electrical, and energy loss of process. For the reducing uantities of sauce loss in fishing canning is very importance. Because, some fish (sardines) canning factory in Thailand have been surveyed a filling sauce process. Found that cans with sardines are filled with sauce J. Panjamadisorn, is with the Department of Chemical Engineering Chulalongkorn University, Bangkok, 33, Thailand (e-mail: Jittiporn.P@student.chula.ac.th) P. Kittisupakorn is now with the Department of Chemical Engineering, Chulalongkorn University, Bangkok, 33, Thailand (emil: Paisan.K@chula.ac.th) using rotary sauce filler and Cans may not be completely filled or overfilled, hence at The factory station, sauce is manually removed or added into the cans by using tablespoons. Because the level of sauce in storage tank cannot be control. This method of a factory makes a lot of uantities of sauce loss which is very expensive. Therefore, reducing and optimizing uantities of sauce loss is reuested. For researchers to develop a liuid filling system: Process and apparatus for metering and introducing a liuid into packaging containers [. Liuid filling system with improved fluid displacement, nozzle and container handing, cleaning, and calibration/set-up capabilities. n improve method and apparatus for a liuid filling system is herein disclose incorporating mean for generating greater overall production rate efficiencies(i.e. number of filled container per minute per filling station) [. pparatus for the simultaneous filling of precise uantities of viscous liuid material to a plurality of containers in a sanitary environment. The invention to provide such an apparatus with working component that are cleanable-in-place (CIP) [3. The objective of this work to develop a filling sauce euipment system by design a sauce filler and level control sauce in the tank to minimize uantities of sauce loss in the process and to minimize washing-up liuid in cleaning process. II. FISH CNNING INDUSTRY Fish canning involves several standard manufacturing process including fish preparation, canning, retorting, and packing. However, several variation exits between tuna canning and sardine canning. For the purpose of this work, the following processes will be focused of discussion with Sardine canning. Sardine canning involves the following processes: receiving, cutting, washing, can filling and pre-cooking, sauce filling, seaming, retorting, and packaging [4. Figure shows the process flow diagram. In the sauce filling: sauce can either be brine, tomato sauce, tomato sauce with chilli, and oil. Prior to sauce filling, sauce is prepared by mixing all ingredients in the sauce kettles. Sauce is cooked for.5 to hours at around 5 C. One cooked, sauce is pumped into the storage bin of the sauce filling euipment. Cans with sardines are filled with sauce by using a rotary sauce filler. Cans may not be completely filled or overfilled. hence at the factory station, sauce is manually removed or added

into the cans by using tablespoons. Each can should have at least 6 millimeter headspace to prevent bulging of seamed cans due to overfilling Pa g va g z a Pb g vb g z b cons tan t () Receiving Cutting Washing Can Filling and Pre-cooking Sauce Filling Where P = pressure (Pa), z = elevation from a chosen datum (m), g = gravitational acceleration (m/s ), and = density (kg/m 3 ). The first three terms on either side of this euation give the pressure head, velocity head, and elevation head respectively at the top of fluid head (a) and the outlet of the tube (b). The IV. DYNMIC MODEL OF EXPERIMENT The purposes of this experiment is to study behavior of liuid flow rate as a function of time at the difference hole sizes of filling liuid device compare with mathematical result. The apparatus, shows in Fig., consisting of pipe cone. The dynamic model and assumption of the experiment can be written as The physical properties, density of liuid to be constant Pipe is smooth, Friction loss are neglected (3) Seaming [ (4) Fig.. Sardine canning process flow diagram. III. BERNOULLI EQUTION Mathematical models can be derived to predict the efflux time. The principles to be applied are [5:. Conservation of mass B. Conservation of energy The euation of continuity for an incompressible fluid can be written as: dv Retorting Packaging Qin Qout va a vb b () Where Q = volumetric flow rate (m 3 /s), v = velocity (m/s), and = area normal to flow (m ). v a and a represent the velocity and cross-sectional area of the tank while v b and b represent the velocity and area for the tube. In order to predict the behavior of the system under different condition, the energy euation can be used between two point, a and b. From a mechanical energy balance, or Bernoulli euation [6, [7 (5) gh gh h and (6) h (t): the level in the cylindrical shape; h (t): the level in the section ; (t): the flow rate in the cylindrical shape; (t): the flow rate in the cone shape; g: the gravitational constant; : the cross-section area in the cylindrical shape; : the cross-section area in the cone shape; h h R h Fig.. pparatus of experiment. h

From simulation result the height (h) vs. time (t) plot shows in Fig.3 was exhibited that the time increasing, the height of liuid was decreasing. nd the time was increasing; the liuid flow rate was decreasing at the difference hole sizes shows in Fig.4..6.5.4 h(m).3. (a)before (b) fter Fig. 5. Measuring uantities of wastage sauce. 5 5 5 3 35 t(s) Fig.3. Relation between heights vs. time of apparatus from experimental 5 (ml/s) 45 4 35 3 5 5 5 5mm 7.5mm mm 5mm (c) 5 5 5 3 35 t(s) Fig.4. Relation between flow of liuid at a difference hole sizes V. DESIGN OF FILLING SUCE DEVICE For design of a filling sauce device have to consider and realize of material specific for food and cost. Procedure for design of filling sauce device. Measuring uantities of sauce wastage by random in a cycle shows in Figure 5.(a). Design of filling tomato sauce device. From simulation result by hole size is 7.5mm,mm,and 5mm shows in Figure 6 3. Measuring uantities of sauce wastage by random in a cycle for new apparatus shows in figure 5. (b) (d) Fig.6. Filling sauce device(c) Before (d) fter The new hole sizes of filling sauce device will minimize the sauce loss by 84.% and also reduce washing-up liuid in cleaning process shows in Table Table : Quantities of sauce loss and washing-up liuid List Unit Before fter Quantity for safe.quantity of g/can.9.3.6 sauce loss.quantity of washing-up liuid l/can /, /,5 /3,

VI. SYSTEM OF TWO STORGE TNK The normal system of filling sauce step, there is only one tank and 3 filling sauce devices (for line of step) which has been made of stainless steel, that it is very difficult to control the level of sauce in storage tank. To control the level of sauce in storage tank, this work was designed the refill sauce storage tank connection to the normal sauce storage tank to control level sauce in tank. and h (t): the level in the tank ; h (t): the level in the tank (cylindrical shape); : the flow rate in the tank; g: the gravitational constant; : the cross-section area in the tank; : the cross-section area in the tank (cylindrical shape); c vi : valve coefficient in various valve h v Each of valves (v, v, v 3, v 4 ) has non-linear characteristic. The valve coefficient depends on corresponding height in tank and the vale coefficients are estimated from flow of liuid and level measurement. Fig.8 shows flow of liuid vs. height plot and Fig.9 shows valve coefficient vs. height plot from experimental data for v 5 v 4 4 v 3 h Fig.7. two liuid storage tank systems 3 v The purpose of this study is to control level in normal sauce tank. The apparatus, shows in Fig.7, consisting of normal sauce tank and one more refill sauce tank. The dynamic model [8 and assumption of the experiment for open v and v can be written as The physical properties, density of liuid to be constant The level of liuid in tank is always greater than cm and less than 4 cm The level of liuid in tank is always greater than cm and less than 7 cm The level of liuid in tank is always greater than tank The desired level of liuid in tank is deemed to be not lower than 6 cm (> volume at cone shape) for all t > Pipe is smooth, Friction loss are neglected (m^3/s).5.45.4.35.3.5..5..5...3.4.5.6 h(m) Experiment Power (Experiment) Fig.8. Relation between flow of sauce and height cv.35.3.5..5..5...3.4.5.6.7.8 srt(h) Experiment Power (Experiment) [ (7) [ 3 (8) Fig.9.Relation between valve coefficient and height From a mechanical energy balance, or Bernoulli euation [6, [7 cv h (9) 3 cv h () Fig.. two sauce storage tank systems (3 D)

[5 David Keffer,Department of chemical engineering University of Tennessee Knoxville,TN version 3,999 [6 Bird, R. B.; Stewart, W. E.; Lightfoot E. N.. Transport phenomena. [7 Christie, J. 3.Transport Process and Separation Process Principles. [8 Seborg D.E; Edgar T.F; Mellichamp D.. 4. Process dynamic and control, Fig.. overall sauce storage tank systems (3 D) VII. CONCLUSION normal sauce storage tank is made of stainless steel with the volume of 8 litres. This type of the tank when using in a sauce filling step causes fluctuations of sauce flow rate into cans. This leads to the possibility of sauce overflow or deficit. In addition, when the hole sizes of a filling sauce device are inappropriately designed with respect to the change of level (pressure) in the tank shows in Fig -, this promotes the variation of sauce filling into cans. Therefore, this work introduces another tank to maintain the level of the sauce in the feeding tank first. Then, the filling sauce device is properly designed to give the exact amount of desired sauce filling subjecting to the level defined in the filling tank. With this approach, the sauce loss can be reduced by about 84. % per day or the saving of sauce is 4 litres per day and. The payback period is less than 9 months. Conseuently, this work is applicable to decrease any sauce loss filling into cans in other canning industries CKNOWLEDGMENT The financial support to this work through local graduate scholarship from the Thailand research fund (TRF), contact no. MRG-WI55E4 and Chumpol Food (Thailand).Co.Ltd. are gratefully acknowledged. REFERENCES [ Werner Mayer, Process and apparatus for metering and introducing a liuid into packaging containers, U.S.Pat. No. 5,89,86, 998 [ Robert. Rosen et all, Liuid filling system with improved fluid displacement, nozzle and container handing, cleaning, and calibration/setup capabilities, US. Pat.No.6, 76,9, 4 [3 Ramon M. Navarro et all, pparatus for the simultaneous filling of precise amounts of viscous liuid material in sanitary environment, US. Pat.No. 7,8,4, 6 [4 n evaluation guide for environmental project in the fish canning industry, 999