JP2013059355A - System for producing compression-packed body - Google Patents

Abstract

PROBLEM TO BE SOLVED: To provide a system for producing compression-packed bodies which can attain high productivity at low cost.SOLUTION: The system for producing the compression-packed body at least comprises: a forming apparatus 4 for compression-forming mixed feed to be formed into a predetermined shape; a packing apparatus 5 for packing the compression-formed body delivered from the forming apparatus 4; a carrying apparatus 6 for carrying the compression-packed body delivered from the packing apparatus 5. In the system, one or more of the first storage tanks 13 are provided in front of the forming apparatus 4 and the mixed feed is temporally stored in the first storage tanks 13.

Description

  The present invention relates to a compressed package manufacturing system for compressing and molding a mixed feed into a predetermined shape.

  When raising cattle, feeding is a labor that places the greatest burden on farmers, along with excrement disposal.

  The feed fed to cattle is generally divided into three types: roughage, concentrated feed and special feed. Among these, roughage refers to feed that has low digestible nutrients for a large amount of coarse fiber and a large volume. Raw grass, hay, green-cutting crops (blue-cutting corn, etc.), straws, etc. are used for roughage. Concentrated feed refers to feed that has a relatively high nutrient content and a low moisture or coarse fiber content. Cereals, grain by-products (rice cakes), oil cakes, etc. are used for the concentrated feed.

  Currently, there are two types of feeding methods that are widely used: a separate feeding method and a TMR (Total Mixed Ration) method.

  The separate feeding method is a method of separately feeding roughage, concentrated feed and special feed. For example, a method is used in which a roughage is fed in the morning and when the roughage is eaten, and only the roughage is fed at noon and fed in the same manner as in the morning at night. This separate feeding method has been used for a long time because it does not require any special machinery or equipment, and is still mainly used by small and medium-sized farmers. However, in the separate feeding method, since the time to feed each feed is fixed, the cow's stomach works in a biased manner depending on the feeding time, causing unevenness in the rumen fermentation and absorbing sufficient nutrients. There was a problem that I could not.

  Thus, a method of feeding a rough feed and a concentrated feed in advance is performed. However, in this method, rough feed and concentrated feed must be mixed each time feeding is performed, which is very laborious. In order to reduce this work burden, the TMR method has been developed.

  TMR is a feed made by mixing rough feed, concentrated feed, and special feeds such as minerals and vitamins in advance, and is also called completely mixed feed or complete feed. The TMR method continuously feeds this TMR little by little and keeps the cows ready to eat at any time, keeping the cow's stomach constant and allowing the rumen fermentation to be carried out evenly and efficiently. Absorb.

  FIG. 8 shows a general TMR manufacturing method. First, each of roughage, concentrated feed and special feed is weighed according to the blending ratio, and then stirred and mixed with a mixer. The mixture is then packed into a transbag, degassed with a vacuum pump, compressed, and sealed with a pressure sealer. Thereafter, it is stored for about one month in a sealed state and fermented and matured to finally obtain TMR. Patent Document 1 discloses a method for producing a fermented feed that is convenient to handle and can be fed completely by utilizing by-products associated with food production, such as beer lees, in connection with this TMR production method. ing.

  The production of TMR requires large-scale machinery and equipment in each process such as stirring, mixing, bagging, degassing, and sealing. Therefore, the TMR method is limited to the introduction of large-scale farmers, and is still used by small and medium-sized farmers. The introduction is not progressing.

  In recent years, there are an increasing number of small and medium-sized farmers who increase the number of breeding heads and pasture area for further efficiency. On the other hand, for small and medium-sized farmers, due to the labor shortage, it is difficult to properly harvest forage and adjust good quality roughage. For this reason, further spread of the TMR method that can reduce the burden of feeding work is desired, and further, there is an increasing demand for contractors who undertake the production of TMR.

  Here, in relation to the present invention, conventionally, a “bale forming apparatus” that has been used for compression molding a material such as a feed crop into a cylindrical roll bale, and the outer periphery of the compression molded roll bale A “bale packing device” used for airtight packaging by wrapping a film around a film will be described.

  A “bale forming apparatus”, a so-called roll baler, is an apparatus that compresses a material to be formed such as a feed crop into a cylindrical roll bale. There are two types of roll balers: a towed type driven by a tow vehicle such as a tractor and driven by the supply of rotational power from the tow vehicle, and a self-propelled type that can be driven and driven by itself. There is a thing. Some have a pick-up device that picks up a material to be molded such as forage crops that have been cut down, and some have a hopper that receives the material to be harvested by a harvester instead of the pick-up device.

  The molding material supplied from the pickup device or the hopper is fed into a molding chamber mounted on the machine body, and is compression-molded into a cylindrical roll bale in the molding chamber. The material to be molded is continuously conveyed quantitatively into the molding chamber until the molding pressure of the roll veil molded in the molding chamber reaches a predetermined set pressure. When the molding pressure in the molding chamber reaches the set pressure and the molding of the roll bale is completed, the supply of the molding material into the molding chamber is stopped, and the molded roll bale is released from the opened molding chamber.

  Patent Document 2 discloses a towed bale forming apparatus including a hopper. This roll baler is installed on the front side of the hopper body by connecting a rotating hopper that tilts and rotates so that the internal capacity of the hopper body increases or decreases by the rotation and tilts and rotates the rotating hopper. When the mechanism is installed and the molding material supplied from the hopper is reduced, the operation mechanism is automatically controlled to extend and contract. This roll baler is an automated rotation operation of a rotating hopper that requires skill.

  A “bale packing device”, a so-called wrapping machine, is a device that wraps a film around the outer periphery of a roll bale that is compression-molded by a roll baler and wraps it airtightly. As with the roll baler, the wrapping machine includes a towed type and a self-propelled type, and some have a pickup device for picking up the roll bale and some do not.

  Patent Document 3 discloses a mounting unit for supporting a roll bale so as to be able to roll in order to perform a lapping work, and then on the body frame so as to reduce a drop when the roll bale after wrapping is dropped toward the ground surface. To reduce the urge to roll and release the roll bale to reduce laceration in the wrapped film, and to stabilize the wrapping work by lowering the height position of the loading part A wrapping machine is disclosed.

JP 2002-218914 A JP 2006-14657 A JP 2001-258385 A

  As described above, a technique for producing TMR at a lower cost is required for the spread of the TMR method capable of reducing the burden of feeding work, while further efficiency is required mainly for small and medium-sized farmers.

  Therefore, a main object of the present invention is to provide a compressed package manufacturing system capable of realizing high productivity at low cost.

A compressed package manufacturing system according to the present invention includes a molding device that compresses and forms a mixed feed into a predetermined shape, a packing device that packs a compression molded product that is sent from the molding device, and a compressed package that is sent from the packing device. And at least one first storage tank that temporarily stores the mixed feed is provided in front of the molding apparatus.
The compressed package manufacturing system may be provided with a mixed feed detection unit that detects the amount of mixed feed supplied from the first storage tank before the compression molding.
For example, when a hopper that accommodates the mixed feed supplied from the first storage tank is disposed in front of the molding apparatus, the mixed feed detection unit detects a load of the mixed feed accumulated in the hopper. be able to.
Moreover, you may provide the measurement part which measures the weight of the compression package body packed with the said packing apparatus.
Further, a plurality of second storage tanks having a mixing and stirring function may be provided in front of the first storage tank, and the mixed feed mixed in the second storage tank may be put into the first storage tank. it can.
In that case, when the mixed feed supplied from one 2nd storage tank is less than predetermined weight, you may control automatically so that the mixed feed for an insufficient weight may be supplied from another 2nd storage tank.
On the other hand, the mixed feed is, for example, a complete mixed feed (TMR).

  According to the present invention, it is possible to realize a compressed package manufacturing system with low cost and high productivity.

It is the top view (A) and side view (B) which show 1st Embodiment (compression package manufacturing system A) of the compression package manufacturing system which concerns on this invention. It is a simple perspective view which shows the compression molding body (A) compression-molded by the shaping | molding apparatus 4 in the column shape, and the compression packaging body (B) obtained by packing this compression molding body. It is a simple perspective view which shows the compression molding body (A) compression-molded in the shape of a rectangular parallelepiped with the shaping | molding apparatus 4, and the compression packaging body (B) obtained by packing this compression molding body. FIG. 6 is a top view (A) and a side view (B) for explaining the configuration of the terminal end 61 of the transport device 6. It is the block diagram (A) which showed the structure of the compression package manufacturing system A typically, and the flowchart (B) which shows the automatic control method of the whole system. It is the top view (A) and side view (B) which show 2nd Embodiment (compression package manufacturing system B) of the compression package manufacturing system which concerns on this invention. It is the block diagram (A) which showed the structure of the compression package manufacturing system B typically, and the flowchart (B) which shows the automatic control method of the whole system. It is a flowchart which shows the manufacturing method of a general TMR.

  Preferred embodiments for carrying out the present invention will be described with reference to the drawings. In addition, embodiment described below shows an example of typical embodiment of this invention, and, thereby, the range of this invention is not interpreted narrowly.

1. First Embodiment (1) System Configuration FIG. 1 is a top view (A) and a side view (B) for explaining a configuration of a compressed package manufacturing system A according to a first embodiment of the present invention.

  In FIG. 1, the code | symbols 11 and 12 show the storage tank which stores molding materials, such as a feed crop. The storage tanks 11 and 12 are preferably configured to have a mixing and stirring function. Thereby, when manufacturing TMR using the compressed package manufacturing system A, it is possible to uniformly mix and stir these after putting a predetermined amount of roughage, concentrated feed and special feed into the storage tanks 11 and 12. Become. As the storage tanks 11 and 12 having a mixing and stirring function, for example, a conventionally known mixer wagon can be suitably employed.

  Further, it is desirable that the storage tanks 11 and 12 are configured so as to be able to measure the weight of the molding material put into the storage tanks 11 and 12. Thus, for example, when the roughage, concentrated feed, and special feed are put into the storage tanks 11 and 12, it is possible to feed while measuring the respective weights according to the mixing ratio of TMR. The weight of the molded material that has been added can be measured using, for example, a load cell.

  The molding materials stored in the storage tanks 11 and 12 are supplied from the discharge devices 111 and 121 provided in the storage tanks 11 and 12 to the molding material feeding device indicated by reference numeral 2. At this time, the storage tanks 11 and 12 automatically measure the weight of the internal molding material by the above-described load cell and the like, and the molding material having a predetermined weight set in advance is input from the discharge devices 111 and 121. Supply to device 2. Thereby, when manufacturing TMR using the compressed packaging body manufacturing system A, the mixture of the roughage, concentrated feed and special feed stored in the storage tanks 11 and 12 is fed into the molding material, for example, for each packing body. It can be supplied to the device 2.

  The material to be molded can be supplied from the storage tanks 11 and 12 to the material charging apparatus 2 from the storage tank 11 and the storage tank 12 at the same time. In this case, the storage tanks 11 and 12 are configured so that the total weight of the molding material supplied from the discharging device 111 and the molding material supplied from the discharging device 121 becomes a predetermined weight by weight measurement using the load cell. 111 and 121 are automatically controlled.

  Moreover, the supply of the molding material from the storage tanks 11 and 12 to the molding material feeding device 2 can be performed preferentially from either one of the storage tanks 11 or 12. For example, when the molding material is preferentially supplied from the storage tank 11, a molding material having a predetermined weight is measured by the load cell, and is continuously supplied from the discharge device 111 to the molding material feeding device 2. When the remaining amount of the molding material in the storage tank 11 is insufficient for the predetermined weight and the weight of the molding material supplied from the discharge device 111 is less than the predetermined weight, the storage tank 12 is loaded with the insufficient weight. The molding material is automatically weighed and supplied from the discharge device 121. After the molding material having a predetermined weight in total from the storage tank 11 and the storage tank 12 is supplied to the molding material feeding device 2, the remaining amount of the molding material in the storage tank 12 is insufficient to the predetermined weight. Until then, the material to be molded is preferentially supplied from the storage tank 12.

  In this way, when a plurality of storage tanks are provided and the weight of the molding material supplied from one storage tank is less than the predetermined weight, the molding material for the insufficient weight is continuously supplied from the other storage tank. By performing automatic control to supply, it is possible to efficiently manufacture the compressed package without stopping the supply of the molding material to the molding material feeding device 2. When TMR is manufactured using the compressed package manufacturing system A, the mixture is always supplied preferentially only from one storage tank, so that the supply is performed from one storage tank. In addition, it becomes possible to perform the mixing, stirring and mixing operations of the roughage, concentrated feed and special feed in other storage tanks. Accordingly, the supply of the molding material to the molding material feeding device 2 does not stop due to the time required for the charging / stirring mixing operation, and the production efficiency of the compressed package can be further increased.

  In addition, although the case where the two storage tanks 11 and 12 were arrange | positioned was shown in the compression package manufacturing system A, the storage tank to install can also be made into 3 or more as needed. In particular, when the capacity of the storage tank is large and it takes a long time for the charging / stirring / mixing operation, three or more storage tanks are provided in order to keep supplying the molding material to the molding material feeding device 2. It is effective to do. Moreover, when there is a restriction | limiting in the installation space of the compressed package manufacturing system A, it is naturally possible to use one storage tank.

  In FIG. 1, the code | symbol 3 shows the hopper which accommodates a to-be-molded material, the code | symbol 4 shows a shaping | molding apparatus, and the code | symbol 5 shows a packing apparatus.

  The molding materials supplied from the discharge devices 111 and 121 of the storage tanks 11 and 12 are conveyed onto the hopper 3 by the molding material feeding device 2 and dropped into the hopper 3. The molding material feeding device 2 is not particularly limited as long as it can continuously convey the molding material, and a belt conveyor, a roller conveyor, or the like that is normally used can be adopted.

  The molding device 4 takes the material to be molded supplied from the hopper 3 into a molding chamber (not shown) mounted on the machine body, and compresses the molding material into a predetermined shape in the molding chamber. For the molding device 4, for example, a conventionally used roll baler or a suitably improved one can be adopted. As a conventional roll baler, for example, a bale molded body in which both end portions of a large number of endlessly arranged molding bars are connected to each other from a hopper 3 while continuously running on an annular traveling path from which a part is missing. It is possible to employ a material that is molded by compressing and reducing the material to be molded that has been put into the molding chamber inside the annular traveling path from both the radial and axial directions. In the molding apparatus 4 employing this conventional roll baler, the material to be molded can be compression molded into a cylindrical shape. FIG. 2A shows a compression-molded body that is compression-molded into a cylindrical shape.

  In addition, as the molding device 4, for example, a material to be molded put into a molding frame formed in a predetermined shape (for example, a rectangular parallelepiped shape) from the hopper 3 is compressed by a pressure plate that reciprocates by an expansion / contraction operation of the cylinder device. -It is also possible to adopt one that is reduced in volume and molded. In this shaping | molding apparatus 4, a to-be-molded material can be compression-molded in the shape (for example, rectangular parallelepiped shape) along a molding frame. FIG. 3A shows a compression molded body that is compression molded into a rectangular parallelepiped shape.

  The molding apparatus 4 continuously takes the material to be molded from the hopper 3 into the molding chamber until the compression pressure of the molded body compressed in the molding chamber or the molding frame reaches a predetermined set pressure. Then, when the molding pressure in the molding chamber reaches the set pressure and the molding of the compression molded body is completed, the supply of the molding material into the molding chamber is stopped, and the molding body molded by opening the molding chamber is removed. Send it out. For this reason, in particular, when molding a bulky workpiece, the molding pressure is set at the stage where the molding material with a small weight is compressed as a result of filling the molding chamber relatively loosely into the molding chamber. The compression molded body with a small weight is sent out, and the case where a compression molded body with a large weight is delivered as a result of relatively dense filling of the molding material into the molding chamber or the like, Variations may occur in the weight of the compressed package produced.

  Therefore, in the compression molded body manufacturing system A, as described above, a molding material having a predetermined weight that has been weighed in advance by the storage tanks 11 and 12 is supplied from the discharge devices 111 and 121 to the molding material feeding device 2, and the hopper 3 Then, it is taken into the molding chamber or the like. As a result, in the compression molded body manufacturing system A, it is possible to feed the molding material that has been previously weighted for one package into the molding chamber, and to suppress variation in the weight of the compression molded body to be manufactured. Become.

  The packing device 5 winds a film around the outer periphery of the compression molded body sent out from the molding device 4 and performs airtight packaging. As the packing device 5, for example, a conventionally used wrapping machine or an appropriately improved version thereof can be adopted. As a conventional lapping machine, for example, the axis of a cylindrical compression molded body is supported by a rotary table with the horizontal axis being substantially horizontal, and the rotary table is rotated around the vertical axis while rotating the compression molded body at a low speed in the circumferential direction. It is possible to employ a configuration in which the whole surface of the compression molded body is wound continuously with a packing film and hermetically packaged by being continuously rotated. FIG. 2B shows a compressed package obtained by packing a compression-molded product that has been compression-molded into a cylindrical shape.

  Moreover, the thing of the following structures can be employ | adopted as the packing apparatus 5 in case the compression molding body is compression-molded by the rectangular parallelepiped shape, for example. That is, the film is wound around the compression molding body together with the conveyor mechanism while the compression molding body fed from the molding apparatus 4 is conveyed to the downstream side by the conveyor mechanism. At this time, the conveyor mechanism conveys the compression molded body downstream, and simultaneously sends the film wound on the lower side of the conveyor mechanism to the downstream at the same speed as the compression molded body. Thereby, a film is extended | stretched, moving a compression molding body, and a film is wound helically on 4 surfaces of a compression molding body. Next, after the film is cut once, the compression-molded body wound around the four surfaces is rotated 90 degrees in the horizontal direction to run backward on the conveyor mechanism. Then, the film is wound around the compression molded body together with the conveyor mechanism while the compression molded body is conveyed downstream by the conveyor mechanism, and the film is wound spirally on the remaining two surfaces. FIG. 3B shows a compressed package obtained by winding a film on the compression molded body that has been compressed into a rectangular parallelepiped shape in this way.

  The rectangular parallelepiped compressed package as shown in FIG. 3B can be obtained by, for example, the packaging device 5 having the following configuration. That is, first, a film is wound around a rectangular parallelepiped die to form a cylindrical bag. And the compression molding body compressed in the molding frame of the shaping | molding apparatus 4 is extruded by the pressurization plate which reciprocates by the expansion-contraction operation | movement of a cylinder apparatus, and press-fits so that it may push in in a bag from the opening of a cylinder. And the compression molding body press-fitted in the bag is transferred to a rotary table, and a film is wound around the opening 2 so as to block the opening 2 surface of the cylinder.

  In the compression molded body manufacturing system according to the present invention, the molding apparatus 4 and the packing apparatus 5 may be apparatuses configured separately as described above, or may be apparatuses integrally configured.

  When the compression molded body production system according to the present invention is used for TMR production, the packaging device 5 hermetically packages the feed, which is a molding material, in order to prevent the occurrence of spoilage and mold and promote fermentation. is necessary. When products such as paper, wood, plastic, or waste are compressed and packed by the compression molded body manufacturing system according to the present invention, the packing by the packing device 5 is not necessarily performed in an airtight manner. It is sufficient if the packaging is such that the shape is maintained.

  In FIG. 1, the code | symbol 6 shows the conveying apparatus which conveys the compression package body sent out from the packing apparatus 5. FIG. The compressed package packed by the packing device 5 is transferred onto the transport device 6 by the dump device 51 included in the packing device 5.

  As the conveying device 6, a device capable of continuously conveying a compressed package such as a normal belt conveyor or a roller conveyor is employed as in the molding material feeding device 2. The transport device 6 is configured to be able to stand the compressed package transported at the terminal portion.

  The configuration of the terminal portion 61 of the transport device 6 is shown in FIG. 4A is a top view of the terminal portion 61, and FIG. 4B is a side view. The terminal portion 61 shown in the figure can be particularly suitably applied to a packing body that is compression-molded into a cylindrical shape as shown in FIG. 2, but is compressed into other shapes such as a rectangular parallelepiped shape, for example. The present invention can also be applied to a package.

  As shown in FIG. 1B, the end portion 61 is configured as a plane that is one step lower in the transport device 6. A guide pipe 611 that is inclined based on the step is disposed on the flat surface of the end portion 61. The guide pipe 611 extends in the conveyance direction of the compressed package indicated by the arrow in FIG. 4A, and a part of the compressed package (indicated by the dotted line in FIG. 4) conveyed to the terminal portion 61. It is configured to be able to catch.

  As shown in FIG. 4A, the guide pipe 611 is disposed at a position eccentric to one end from the center in the conveyance direction of the compressed package (see the arrow in the figure). For this reason, the compressed package transported to the end portion 61 slides in accordance with the inclination of the guide pipe 611 with one end positioned on the guide pipe 611 and the other end positioned on the plane of the end portion 61. It will be.

  The guide pipe 611 is provided with a stopper 612 that stops one end of the compressed package that slides on the guide pipe 611. When the compressed package that slides in an inclined state hits the stopper 612, the compressed package is urged by the impact, and the compressed package rises on the plane of the end portion 61.

  As described above, the transport device 6 is configured such that the compressed package body stands at the end portion 61, and therefore, even if the package body is compression-molded into a columnar shape, the end portion 61 extends in the cylinder axial direction. It can be stood up and easily gripped by a work machine such as a roll clamp, and work can be efficiently performed when the compressed package is carried out of the system.

  The transport device 6 is provided with a detection unit 62 (not shown) that detects the compressed package that is erected on the terminal end 61. The detection unit 62 will be described in detail in the description of the automatic control method of the compressed package manufacturing system A using FIG.

  In addition, the transport device 6 is provided with a weighing unit 63 that automatically measures the weight of the compressed package to be transported. It is desirable that the weighing unit 63 is configured using, for example, a load cell and has an output function for outputting the measurement result of the weight of the compressed package. As described above, in the compressed package manufacturing system A, the material to be molded, which has been weighed in advance by the load cells of the storage tanks 11 and 12, is supplied to the material injection device 2, and is sent out from the molding device 4. It is possible to suppress variations in the weight of the compressed package that comes. In addition to this, the weight of the compressed packing body is automatically measured by the measuring unit 63 provided in the transport device 6 and the measurement result is output, thereby more accurately managing the weight of the manufactured compressed packing body. Can do.

  As an example of the output function of the weighing unit 63, a printed output of a bar code seal corresponding to each compressed package and a computer output of weight data corresponding to the bar code can be considered. The printed bar code seal is affixed to each compressed package body automatically or manually and used for storage and distribution management of the compressed package body after manufacture. Data such as date of manufacture, lot number, raw material, and blending ratio may be added to the weight data corresponding to the barcode. By pasting a bar code sticker that records these data on each compressed package, traceability of the package product can be ensured in storage and distribution management after manufacture, and when manufacturing TMR as a package product When there is a problem in terms of quality and safety due to the blended raw materials, the product can be quickly collected. The output function of the weighing unit 63 can have various specifications, and the specification that outputs the weight data of each compressed package itself by seal printing is most simply adopted.

  In addition, although illustration was abbreviate | omitted in FIG. 1, the to-be-molded material collection | recovery apparatus 7 mentioned later in FIG.

(2) System Control FIG. 5 is a block diagram (A) schematically showing the configuration of the compressed package manufacturing system A and a flowchart (B) showing an automatic control method for the entire system.

  As described with reference to FIG. 1, in the compressed package manufacturing system A, the molding material or the compressed packaging body is sent from the discharge devices 111 and 121 of the storage tanks 11 and 12 according to the thick line arrows in FIG. It is supplied to the charging device 2 and finally transported to the end portion 61 of the transport device 6 through the hopper 3, the molding device 4, and the packing device 5.

  First, when the discharge devices 111 and 121 are operated, the operation signals are output to the workpiece input device 2 and the hopper 3 (see arrow (a) in FIG. 5A). The molding material feeding device 2 and the hopper 3 receive the output of the operation signal (a) and are automatically controlled to operate in conjunction with the operation of the discharge devices 111 and 121.

  The material to be molded is taken into the molding chamber of the molding device 4 and molded by the operation of the material feeding device 2 and the hopper 3. When the molding pressure in the molding chamber reaches the set pressure, the molding material feeding device 2 and the hopper 3 stop operating, and the molding of the compression molded body is completed. The molded compression molded body is sent from the opened molding chamber to the packing device 5 and packed.

  The packed compressed package is put on the transport device 6 by the dump device 51 included in the packing device 5. The operation signal of the dump device 51 is output to the storage tanks 11 and 12 and the transfer device 6 (see arrow (b) in FIG. 5A). The transport device 6 receives the output of the operation signal (b), and is automatically controlled so as to operate by detecting the delivery of the compressed package from the packing device 5. At the same time, the discharge devices 111 and 121 receive the operation signal (b) of the dump device 51 and are automatically controlled to start the operation for manufacturing the next compressed package.

  In addition, the detection of the compressed package sent out from the packing device 5 may be performed by providing a sensor for directly detecting the compressed package sent out to the transport device 6 regardless of the operation signal of the dump device 51. it can. This sensor can be, for example, a means for optically detecting the package, such as an infrared sensor, or a means for detecting the load of the package. The sensor is preferably installed at a portion where the compressed package sent from the packing device 5 by the dump device 51 lands on the transport device 6. In this case, the conveyance device 6 receives the signal output from the sensor and is automatically controlled to operate by detecting the delivery of the compressed package from the packaging device 5. Similarly, the discharge devices 111 and 121 are automatically controlled to receive a signal output from the sensor and start an operation for manufacturing the next compressed package.

  The transport device 6 is provided with a detection unit 62 that detects the compressed package that is erected on the terminal end 61. The detection unit 62 can also be configured to detect, for example, a compressed package standing on the terminal end 61 of the transport device 6 with an optical sensor such as an infrared sensor, or to detect a load on the compressed package.

  The detection signal of the detection unit 62 is output to the dump device 51 of the packing device 5 (see arrow (c) in FIG. 5A). The dump device 51 receives the output of the detection signal (c) and is automatically controlled so as to operate under a certain condition (described later in detail).

  Subsequently, the automatic control method of the compressed package manufacturing system A will be further described based on FIG.

  When the packing process by the packing device 5 is completed, the detection unit 62 detects the compressed packing body standing on the terminal end 61 of the transport device 6 and the detection signal (c) is output to the dump device 51. The dump device 51 stops operating. Thereby, sending from the packing apparatus 5 of the compression molding body after packing will be in the state stopped. At the same time, the discharge devices 111 and 121 and the transport device 6 that are linked to the operation of the dump device 51 are also stopped. Accordingly, the entire system is stopped while the compressed package is present at the end portion 61 of the transport device 6 and the detection signal (c) from the detection unit 62 is being output.

  If the system is operated while the compressed package is present at the end portion 61, the compressed package may stay in the end portion 61 of the transport device 6, and the Delivery of the compression molded body is hindered, causing a system failure. The detection unit 62 functions as a safety device for preventing this.

  When the compressed package at the end portion 61 of the transport device 6 is carried out of the system and the detection signal (c) is not output from the detection unit 62, the dump device 51 releases the stop state and starts operation. Thereby, the compression-molded body after packing is transferred from the packing device 5 to the transport device 6. And the conveying apparatus 6 receives the output of the operation signal (b) of the dump device 51, and starts operation | movement, and conveyance of a compression package is performed. At the same time, the discharge devices 111 and 121 receive the operation signal (b) of the dump device 51 and start the operation for manufacturing the next compressed package.

  When the compressed package is transported to the end portion 61 of the transport device 6, the detection unit 62 detects the compressed package standing on the end portion 61, and outputs a detection signal (c) to the dump device 51. The apparatus 51, the discharge apparatuses 111 and 121 and the transport apparatus 6 linked with the apparatus 51 are stopped, and the entire system is stopped again. This stop state continues until the compressed package of the end portion 61 of the transport device 6 is carried out of the system, and is released immediately when the carry-out is performed.

  As described above, in the compressed package manufacturing system A, by automatically carrying out the compressed package standing up at the end portion 61 of the transport device 6, the automatic control is performed so that the production of the next compressed package is started immediately. The This makes it possible to maximize the manufacturing efficiency of the compressed package. In addition, it is possible to prevent a system failure by not starting to carry out the next compressed package until the compressed package of the end portion 61 is carried out.

2. Second Embodiment (1) System Configuration FIG. 6 is a top view (A) and a side view (B) for explaining a configuration of a compressed package manufacturing system B according to a second embodiment of the present invention.

  In FIG. 6, the basic configuration of the molding material input device 2, the hopper 3, the molding device 4, the packing device 5, and the transport device 6 is the same as the configuration of the compressed package manufacturing system A described in FIG. 1.

  The code | symbol 13 shows the storage tank which stores molding materials, such as a feed crop. However, unlike the storage tanks 11 and 12 of the compressed package manufacturing system A, here, the one having no mixing and stirring function is adopted. Therefore, when TMR is manufactured using the compressed package manufacturing system B, a mixture obtained by mixing the roughage, the concentrated feed and the special feed in a predetermined composition using a mixer in advance is put into the storage tank 13.

  The method of charging the molding into the storage tank 13 is not particularly limited. For example, a method of directly charging from a mixer or the like, and a method of dropping by the transport elevator 131 shown in the figure can be employed. In the latter method, it is desirable to arrange a transfer device such as a floor conveyor, a beater, or a cross conveyor in the storage tank 13. Thereby, it is possible to efficiently perform the filling while the workpiece to be fed from the transport elevator 131 is sequentially transferred from the vicinity of the charging site to the far side in the storage tank 13. At this time, according to the volume of the storage tank 13, the conveyance amount and conveyance time of the molding material per unit time of the conveyance elevator 131 are set in advance, so that the molding material in the storage tank 13 is fully filled. It becomes possible to carry out quantity filling simply.

  The molding material stored in the storage tank 13 is supplied to the molding material feeding apparatus 2 from a discharge port 132 provided in the storage tank 13. At this time, the storage tank 13 is different from the storage tanks 11 and 12 described in the compressed package manufacturing system A, and here, a substantially constant amount of the molding material is continuously discharged without measuring the weight of the molding material. A method of supplying from the outlet 131 to the molding material feeding device 2 is adopted. In addition, although the case where one storage tank 13 was arrange | positioned in FIG. 6, the storage tank to install can also be made into 2 or more as needed.

  The molding material supplied from the discharge port 132 of the storage tank 13 is conveyed onto the hopper 3 by the molding material charging device 2 and dropped into the hopper 3. The hopper 3 is provided with a molding material detector 31 (not shown) that detects that the molding material inside has reached a predetermined amount. The molding material detection unit 31 is configured to detect the molding material deposited in the hopper 3 up to a predetermined volume by an optical sensor such as an infrared sensor, or to load the molding material loaded up to a predetermined weight as a load cell. It can be set as the structure detected by etc.

  In FIG. 6, reference numeral 7 is disposed over the storage tank 13 through the lower side of the hopper 3 and the molding apparatus 4, collects the molding material scattered from the hopper 3 and the molding apparatus 4, and stores it in the storage tank 13. The molding material collection | recovery apparatus to return is shown. When the molding material is compression-molded in the molding apparatus 4 or when the compression-molded body is discharged from the molding chamber, the molding material is scattered and spills on the installation surface. The molding material collecting device 7 receives and collects the scattered molding material and returns it to the storage tank 13 to prevent the molding material from accumulating on the installation surface. Thereby, contamination of the molding material can be prevented, and the molding material can be effectively used to improve the manufacturing efficiency of the compressed package.

  As the molding material collecting device 7, as in the molding material feeding device 2, a device capable of continuously conveying the molding material such as a normal belt conveyor or chain conveyor can be adopted. Although not shown in FIG. 1, the molding material recovery device 7 is also provided in the compressed package manufacturing system A.

(2) System Control FIG. 7 is a block diagram (A) schematically showing the configuration of the compressed package manufacturing system B and a flowchart (B) showing an automatic control method for the entire system.

  In the compressed package manufacturing system B, the molding material or the compressed packaging body is supplied from the storage tank 13 to the molding material feeding device 2 according to the thick arrow in FIG. 7A, and the hopper 3, the molding device 4, and the packaging device. 5, finally, it is transported to the terminal portion of the transport device 6.

  From the outlet 132 of the storage tank 13 and the molding material feeding device 2, a substantially constant amount of the molding material is continuously fed into the hopper 3. The hopper 3 is provided with a molding material detector 31 that detects that the molding material inside has reached a predetermined amount. A detection signal from the molding material detector 31 is output to the storage tank 13 and the molding material feeding device 2 (see arrow (a) in FIG. 7A). The storage tank 13 and the molding material feeding device 2 receive this detection signal (a) and are automatically controlled to stop the operation.

  By the operation of the hopper 3, the material to be molded is taken into the molding chamber of the molding device 4 and molded. When the molding pressure in the molding chamber reaches the set pressure, the hopper 3 stops operating and the molding of the compression molded body is completed.

  When the molding material is taken into the molding chamber and the molding material in the hopper 3 is reduced, the detection signal (a) is not output from the molding material detection unit 31, and the storage tank 13 and the molding material feeding device 2 are removed. Is released from the stopped state, resumes operation, and replenishes the reduced molding material.

  The formed compression-molded body is sent from the opened molding chamber to the packing device 5 and packed, and is transferred onto the conveying device 6 by the dump device 51 provided in the packing device 5. The operation signal of the dump device 51 is output to the hopper 3 and the transport device 6 (see arrow (b) in FIG. 7A). The transport device 6 receives the output of the operation signal (b), and is automatically controlled so as to operate by detecting the delivery of the compressed package from the packing device 5. At the same time, the hopper 3 receives the operation signal (b) of the dump device 51 and is automatically controlled to start the operation for manufacturing the next compressed package.

  In addition, the detection of the compressed package sent out from the packing device 5 may be performed by providing a sensor for directly detecting the compressed package sent out to the transport device 6 regardless of the operation signal of the dump device 51. The points that can be performed are as described in the reduced package manufacturing system A. The configuration of the detection unit 62 provided in the transport device 6 and the output destination of the detection signal (c) are the same as those in the compressed package manufacturing system A.

  Subsequently, the automatic control method of the compressed package manufacturing system B will be further described based on FIG.

  First, also in the compressed package manufacturing system B, the detection unit 62 functions as a safety device. That is, at the stage where the packing process by the packing device 5 is completed, the detection unit 62 detects the compressed packing body standing on the terminal end 61 of the transport device 6, and the detection signal (c) is output to the dump device 51. In this case, the dump device 51 stops operating. Thereby, sending from the packing apparatus 5 of the compressed packing body after packing will be in the state stopped. At the same time, the hopper 3 and the transport device 6 that are linked to the dump device 51 are also stopped. Accordingly, the entire system is stopped while the compressed package is present at the end portion 61 of the transport device 6 and the detection signal (c) from the detection unit 62 is being output.

  When the compressed package at the end portion 61 of the transport device 6 is carried out of the system and the detection signal (c) is not output from the detection unit 62, the dump device 51 releases the stop state and starts operation. As a result, the packed package after packing is transferred from the packing device 5 to the transport device 6. And the conveying apparatus 6 receives the output of the operation signal (b) of the dump device 51, and starts operation | movement, and conveyance of a compression package is performed. At the same time, the hopper 3 receives the operation signal (b) of the dump device 51 and starts the operation for manufacturing the next compressed package.

  When the compressed package is transported to the end portion 61 of the transport device 6, the detection unit 62 detects the compressed package standing at the end portion, and a detection signal (c) is output to the dump device 51, so that the entire system Stops again. This stop state continues until the compressed package of the end portion 61 of the transport device 6 is carried out of the system, and is released immediately when the carry-out is performed.

  As described above, also in the compressed package manufacturing system B, automatic control is performed so that the production of the next compressed package is started immediately by carrying out the compressed package erected on the end portion 61 of the transport device 6. Is done. This makes it possible to maximize the manufacturing efficiency of the compressed package. Further, the system failure can be prevented by not starting the production of the next compressed package until the compressed package of the terminal portion 61 is carried out.

2 Molded material input device 3 Hopper 4 Molding device 5 Packing device 6 Conveying device 7 Molded material recovery device 11, 12, 13 Storage tank 51 Dump device 63 Weighing unit 111, 121 Discharge device 132 Discharge port A, B Compression package Manufacturing system f Film m Molding material

Claims (7)

A molding device for compressing and forming the mixed feed into a predetermined shape;
A packing device for packing the compression molded body delivered from the molding device;
A transport device for transporting the compressed package delivered from the packing device;
A compressed package manufacturing system in which one or more first storage tanks for temporarily storing the mixed feed are provided before the molding apparatus.   2. The compressed package manufacturing system according to claim 1, further comprising a mixed feed detection unit that detects an amount of the mixed feed supplied from the first storage tank before performing the compression molding. A hopper that accommodates the mixed feed supplied from the first storage tank is disposed in front of the molding device,
The compressed package manufacturing system according to claim 2, wherein the mixed feed detection unit detects a load of the mixed feed accumulated in the hopper.   The compressed package manufacturing system according to any one of claims 1 to 3, further comprising a measuring unit that measures a weight of the compressed package packed by the packing device. A plurality of second storage tanks having a mixing and stirring function are provided in front of the first storage tank,
The compressed package manufacturing system according to any one of claims 1 to 4, wherein the mixed feed mixed in the second storage tank is charged into the first storage tank.   6. The compressed package according to claim 5, wherein when the mixed feed supplied from one second storage tank is less than a predetermined weight, the compressed feed is automatically controlled so that the mixed feed for the insufficient weight is supplied from the other second storage tank. Body manufacturing system.   The compressed package manufacturing system according to any one of claims 1 to 6, wherein the mixed feed is a complete mixed feed (TMR).

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