KR100713581B1 - Device for Disemboweling Squid - Google Patents

Abstract

The present invention relates to a squid halter. The squid halter device 1 of the present invention is installed side by side in the arrangement of the upper and lower strait, and as the squid 2 is transported with the legs 2A as the head, the coat film 2B of the squid 2 is gathered in a vertical direction. Guide 20 to be provided: and the inlet (2C) of the coat membrane (2B) is installed at the position inserted into the inlet (2C) of the coat membrane (2B) collected in the upper and lower rectangles as the squid (2) is transferred. A cutter device (30) for halving the coat film (2B) from the leg (2A) side to the head (2D) in the inserted state; It includes. Preferably, a sliding plate 10 is formed below the guide 20 to allow the squid 2 to slide, and as the squid 2 slides along the sliding plate 10, the guide ( 20) the outer membrane 2B of the squid 2 is collected in a vertical rectangle.

Description

Cuttlefish Squid {Device for Disemboweling Squid}

1 is a schematic diagram of an exemplary squid halo apparatus according to the present invention;

2 is a schematic diagram of a squid halved by the present invention;

3 is a conceptual diagram of a light-lower narrow guide applied to the present invention;

4 is a conceptual diagram of an exemplary variable guide applied to the present invention;

5 is a conceptual diagram of an exemplary transfer apparatus applied to the present invention;

6 is a schematic side view of an exemplary squid halo apparatus according to the present invention;

7 is a schematic diagram of an exemplary cutter apparatus applied to the present invention;

8 is an operation of an exemplary cutter device applied to the present invention,

9 is a schematic view of another exemplary cutter device applied to the present invention;

10 is an operation of another exemplary cutter device applied to the present invention,

11 is a schematic view of a squid processing device to which the squid halo device of the present invention is applied;

12 is a schematic side view of a squid fin cutting device;

13 is a schematic view of an exemplary guide applied to a squid fin cutting device,

14 is a schematic perspective view of the cuttlefish fin cutting device;

15 is a schematic plan view of another exemplary squid fin cutting device;

Figure 16 is a schematic view of another squid processing device to which the squid halo device of the present invention is applied.

<Explanation of symbols for the main parts of the drawings>

1: halving device of the present invention 2: squid 2A: leg

2B: Outer membrane 2C: Entrance 2D: Head

2E: Fin 3: Conveyor 4: Work Table

5: stand 10: sliding plate 11: crevice

20, 20A, 20B: Guide 21: Rotating shaft 22: Gear

23: restoring spring 30, 30A, 30B: cutter device

31: couch insert 31A: slot 31B: support

32: electric rotary knife 32A: motor 32B: rotary knife

33: knife 34: guide roller 34A: groove

34B: motor 35: vibrator 40: feeder

41: motor 42: power transmission means (drive belt)

43: drive shaft 44: gear 45: driven shaft

46: conveyor belt

(Technology)

The present invention relates to a squid halter device, and more particularly, to squid coat the outer membrane of the squid so that the squid can be removed in the squid processing system for halving the squid to remove the intestines and processing by separating the legs as necessary It is about.

(Background)

Squid, which is caught a lot in the waters around Korea, is one of the most consumed species of various dishes such as sashimi, dried fish, and hot water, and it is supplied as it is, or frozen or refrigerated, or processed and supplied according to its needs.

Squid is used for the purpose of squid, such as the process of halving the outer membrane (body), the process of separating the internal organs, the process of separating the outer membrane and the leg if necessary, and the process of separating the fin (commonly referred to as 'ear') if necessary. Various processes have been developed, and with this, various devices for processing squid have been developed.

Among the squid processing devices, the squid hauling device of the squid hauling and intestine removing device of the patent registration No. 244684 (registered on November 23, 1999) and the squid hauling device of the patent registration No. 253163 (registered on 22 January 2000) ',' Squid Halter and Leg Cutting Device 'of Patent No. 367171 (Registered Dec. 23, 2002),' Squid Halter and Opening Device 'of Utility Model Registration No. 274643 (Registration of Apr. 25, 2002), Utility A number of proposals have been proposed, such as the 'internal removal device of automatic squid' of squid, registered in Korean Patent No. 303989 (registered on Jan. 29, 2003).

However, the conventional squid haul device is very complicated in structure, the squid can not be completely halved to the top of the fin, or the haul is over, the cut of the coat, or the haul failure rate is high, the operator frequently There are many problems, such as the need to manually arrange the halbok process, and because of this, in many cases still depends on the hands of skilled workers to cut squid.

An object of the present invention is to solve the problem of the conventional squid haul device as described above, while having a relatively very simple structure, by halving the squid like a squid by a skilled worker by hand, It is an object of the present invention to provide a new structure of a squid halter device capable of achieving a perfect halter to the upper end, a fine halter which does not injure the outer membrane, and a halter with almost no failure rate.

According to the present invention there is provided a squid halo apparatus.

The surrendering device according to the present invention includes a guide and a cutter device.

The guides are installed side by side in the arrangement of the upper and lower straits so that the mantle of the cuttlefish is collected in a vertical rectangle as the squid is transported with the legs first.

The cutter device is installed at a position to be inserted into the inlet of the outer membrane collected in the upper and lower rectangles to halve the outer membrane from the leg side to the head in the state inserted into the inlet of the outer membrane as the squid is transferred.

Preferably, a sliding plate is formed below the guide to allow the squid to glide, so that the squid's mantle membrane is collected in the upper and lower rectangles by the guide as the squid slides along the sliding plate.

Preferably, the guide of the ordinary light lower narrowing is elastically variable so that the width of the lower side is restored to its original position according to the size of the squid.

Preferably, the variable upper and lower narrowing of the guide is a pair of rotating shafts rotatably supporting each upper side of the guide so that the lower side of the guide is a free end, and a pair of interlocking gears integrally rotating with the rotating shaft. And a restoring spring mounted to the gear to exert restoring force toward a side of the minimum width of the guide.

Preferably, a conveying device is included adjacent to the guide for forcing the squid to slide.

Preferably, the transfer device, a motor, a power transmission means for transmitting the power of the motor, a pair of drive shafts rotated by the power transmission means and installed on the upper side of each guide, a pair of interlocking meshes rotated together with the drive shafts And a gear, a driven shaft disposed below each guide, and a conveyor belt rotating between the driving shaft and the driven shaft.

Preferably, the cutter device includes a needle insertion table and an electric rotary knife inserted into the inlet of the outer membrane, the needle insertion table includes a slot into which the electric rotary knife is inserted.

Preferably, the cutter device is a knife inserted into the inlet of the outer membrane, and is installed on the upper side of the knife to apply a cutting force to the knife while pulling down the outer membrane positioned between the knife and the knife is inserted around It includes an induction roller formed groove.

Preferably, the transfer device is a conveyor belt provided on the upper side and the lower side of the guide.

Hereinafter, with reference to the accompanying drawings will be described in detail the squid halter device according to the present invention. The following embodiments merely illustrate the squid halo apparatus according to the present invention, but are not intended to limit the scope of the present invention.

As shown, the cuttlefish squid device 1 according to the present invention is basically configured to include a guide 20 and a cutter device 30, preferably further comprises a sliding plate (10).

Referring to Fig. 1, the sliding plate 10 is a plate-like member installed under the guide 20 so that the squid 2 to be cut down descends by a natural drop or a combination of natural drop and forced feeding. The squid (2) can slide down well and can be manufactured with a stainless steel plate or a plastic synthetic resin plate with a smooth surface without any hygiene problems. The slope of the sliding plate 10 may be increased in the case of a natural falling method, and may be reduced in the case of forced feeding.

As shown in FIG. 1, the conveyor 3 for transporting the squid 2 to be halved and the transported squid 2 stay temporarily upstream of the sliding plate 10 before entering the sliding plate 10. The worker can install the work bench 4 which arranges the squid 2 so that the leg 2A may face downward of the sliding plate 10. In addition, the conveyor 3 may be equipped with an appropriate control device 3A (see FIG. 11) such as a sensor or a limit switch to control the squid 2 more than an appropriate amount from entering the worktable 4.

The guide 20 is a member that allows the outer membrane 2B of the squid 2 to be collected in the shape of the upper and lower rectangles when the squid 2 slides along the sliding plate 10. That is, when squid squid by hand, by pressing the outer membrane (body) of the squid with one hand to make an inlet to the outer membrane, and then put a knife into the inlet to halbok, the halbok device of the present invention is The principle of halbok by hand is implemented.

In order to apply the principle of the halbok as described above, as shown in Figures 1, 3, 4 and 5, the guide 20 is installed along the sliding plate 10, the width is wider upstream and downstream It is a structure that is installed by the arrangement of the Sanggwang River Strait that gradually narrows.

As described above, according to the guide structure of the upper and lower straits, the squid 2 slides along the sliding plate 10 and the mantle membrane 2B is pressed by the guides 20 on both sides to collect in the upper and lower rectangles. 2B), the inlet 2C which is easy to put the cutter apparatus 30 mentioned later is formed.

Here, the guide 20 is not attached to the sliding plate 10 in close contact with each other, but as shown in FIGS. 1 and 6, the sliding plate so that a gap 11 is formed between the sliding plate 10. It is preferable to fix in a slightly spaced state at (10).

As the gap 11 is formed in this manner, when the squid 2 slides down the sliding plate 10, the fin 2E does not fold and slides in contact with the sliding plate 10 while being unfolded between the gaps 11. Not only does the fin 2E not interfere with the sliding of the squid 2 because it falls, but the fin 2E is not disturbed when the upper portion of the outer membrane 2B is later undone by the cutter device 30. Thus, the outer membrane 2B can be perfectly halved to its top.

The size of the upper and lower narrow narrows of the guide 20 is determined to be a size suitable for the size of the squid 2 to be halved. In this case, the size of the light-lower narrowing guide of the guide 20 may be fixed invariably as shown in FIG.

If the upper and lower narrow size is fixed as in the guide 20A of Figs. 1 and 2, when the squid 2 is too large or small compared to the size of the guide 20A, the sliding is not smooth or the upper and lower rectangles are formed. Since it may be weak, the squid 2 may be selected and sized to fit the size of the guide 20A by providing a plurality of halting devices 1 equipped with guides 20A of different sizes.

When the size of the upper and lower light narrows of the guide 20 is varied, the width of the lower side of the guide 20B can be elastically widened so as to be restored to a narrow width as shown in FIGS. 4 and 6.

The variable upper and lower narrow of the guide 20B rotates the upper side of the guide 20B (a portion having a width enough to allow the squid to pass freely) so that the lower end of the guide 20B is free. A pair of rotating shafts 21, a pair of interlocking gears 22 that rotate integrally with the rotating shafts 21, and a gear 22 that is mounted on the gears 22 so that the lower side of the guide 20B becomes the minimum width. It may be configured to include a restoring spring 23 for applying a restoring force.

That is, the guide 20B is rotatably mounted around each of the pivot shafts 21 and the lower side is a free end, so that the upper width is fixed but the lower width is variable. The two guides 20B are engaged by the gears 22 so that the lower width change is symmetrical. In addition, since the restoring spring 23 is attached to the gear 22, the lower side receives elasticity to restore to the narrowest state set in advance unless an external force is applied.

According to the structure of the elastically variable guide 20B, when the relatively small squid 2 is inserted, the lower side of the guide is closed in a narrow state corresponding to the size of the squid 2, When a relatively large squid is injected, the lower side of the guide is elastically opened in a wide state corresponding to the size of the squid 2, so the lower side of the guide can maintain a proper interval according to the size of the squid. In this way, regardless of the size of the squid (2) the sliding of the squid is smooth and the top and bottom rectangle is also properly formed.

Although only one guide 20B may be formed as shown in FIG. 4, the shape of the upper and lower rectangles of the cuttlefish adjacent to the cutter device 30 is more perfectly formed, which will be described later in FIG. As shown, an additional guide 20C may be provided on the basic guide 20B at a position adjacent to the cutter device 30.

As the guide 20C is added as described above, the squid 2 that reaches the cutter device 30 has a more perfect upper and lower rectangular shape formed by the action of the guides 20B and 20C, and the inlet formed securely ( Insertion of the blade into 2C) is more reliably guaranteed.

Sliding of the squid (2) may be performed by a natural fall due to the inclination of the slide plate 10, but may include a transfer device 40 forcing the slide for smoother sliding. The conveying device 40 is not particularly limited as long as it is a device capable of conveying the squid 2 along the guide 20.

5 and 6, an example of the transfer apparatus 40 applicable to the present invention will be described. As shown, the transfer device 40 is rotated by the motor 41, the power transmission means 42 for transmitting power of the motor 41 (eg, drive belt), the drive belt 42 and the angle A pair of drive shafts 43 provided on the upper side of the guide 20, a pair of gears 44 engaged with each other to rotate together with the drive shafts 43, driven shafts 45 provided below the guides 20, and the drive shafts The conveyor belt 46 is rotated between the 43 and the driven shaft 45 to rotate.

According to the configuration of the transfer device 40, when the motor 41 rotates, the pair of drive shafts 43 rotates at the same speed by the drive belt 42 and the gear 44, thereby conveying the conveyor belt 46. ) Is rotated at the same speed between the drive shaft 43 and the driven shaft 45, the squid (2) is forcibly slid (conveyed) by the conveyor belt 46.

In the illustrated embodiment, the above-described pivot shaft 21 used for varying the width of the guide 20 is formed as a dual shaft, and the inner shaft is used as the driving shaft 43 of the feeder 40 and the outer shaft is wide. The example used as the variable pivot shaft 21 is shown, and when the width of the guide 20B is changed, the width of the conveyor belt 46 of the feeder 40 is also varied accordingly.

FIG. 4 omits the illustration of the transfer device 40 for easy understanding of the variable guide 20B, and FIG. 5 omits the illustration of the guide 20B for easy understanding of the transfer device 40. FIG. will be.

The cutter device 30 is a device for cutting the squid gliding toward the head 2D from the leg 2A side by inserting a blade into the inlet 2C of the outer membrane 2B collected in the upper and lower rectangles by the guide 20. The cutter device 30 applicable to the present invention is not particularly limited as long as the device inserts a blade into the inlet 2C to cut the coat film 2B while maintaining the top and bottom rectangles of the coat film 2B. .

As the cutter device 30, a cutter device 30A including a needle insertion table 31 and an electric rotary knife 32 as shown in Figs. 1 and 6 to 8 can be used. The needle insertion table 31 is streamlined so that the end is a needle bed and slides easily into the inlet 2C, and the slot 31A is formed long over a certain distance from just below the end, and the supporter ( 31B). The electric rotary knife 32 is composed of a circular rotary knife 32B which is rotated by the motor 32A and the motor 32A, and the rotary knife 32B has a blade portion of the rotary knife 32B. Slightly inserted without disturbing rotation.

According to the configuration of such a cutter device 30A, as shown in FIG. 8, the squid slides down along the sliding plate 10 and the guide 20, and the outer membrane 2B is provided under the guide 20. As shown in FIG. ) Is collected in a vertical rectangle, the needle insert 31 is naturally inserted into the inlet 2C of the coat membrane 2B, whereby the coat membrane 2B is rotated slightly inserted into the needle insert 31 and the slot 31A. While being sandwiched between the knives (32B) is made by the rotary knife 32B.

Once halving is started, the squid 2 is pulled down by the inclination of the sliding plate 10, the rotational force of the rotary knife 32B, and the conveying force of the conveying device 40, along the envelope membrane 2B. On the side of the leg 2A, the continuous halting proceeds toward the head 2D. At this time, the squid 2 is slightly lifted toward the head 2D while the needle insert 31 is inserted into the outer membrane 2B. Since 32B) is accurately guided, not only the lap top is perfectly up to the top of the fin 2E, but the outer membrane 2B does not injure another wound.

As the cutter device 30, as shown in Figs. 9 and 10, a cutter device 30B including a knife 33 and an induction roller 34 can be used. The knife 33 is a non-wide knife with a blade set upward, and is mounted at a position corresponding to the inlet 2C of the coat membrane 2B. The guide roller 34 is formed with a groove 34A around which a blade of the knife 33 is inserted, rotated by the motor 34B, and installed above the knife 33.

According to the configuration of the cutter device 30B, the squid slides down along the sliding plate 10 and the guide 20, and when the coat membrane 2B is collected in the upper and lower rectangles under the guide 20, the coat membrane The knife 33 is naturally inserted into the inlet 2C of the 2B, whereby the outer membrane 2B is sandwiched between the knife 33 and the guide roller 34 slightly inserted in the groove 34A, while the knife 33 The surrender will be done by

Once halving is started, the squid 2 is pulled down by the inclination of the sliding plate 10, the rotational force of the guide roller 34, and the conveying force of the conveying device 40, along the outer membrane 2B. On the leg 2A side, continuous halving proceeds toward the head 2D, and the knife 33 is guided accurately toward the head 2D while slightly lifting the squid in the state inserted into the coat membrane 2B, so that the fin 2E There is a complete halbok up to the top with the outer membrane (2B) is not hurt at all. The knife 33 may be equipped with a vibrating device 35 such as an ultrasonic vibrating device to make the cladding of the coat 2B easier.

The squid halo apparatus 1 according to the present invention can be installed in a suitable stand 5. In addition, the apparatus for removing a squid according to the present invention 1 is a device for removing the internal organs of a squid, a device for cutting a squid leg, a device for cutting a fin of a squid, a device for spraying or spraying water on a processed squid, such as Can be mounted to the stand 5 in an organic relationship with the stand, and the stand 5 can comprise a conveyor system for transporting squid for stepwise processing.

Hereinafter, with reference to Figure 11 will be described an example of a squid processing device to which the squid halter device 1 according to the present invention is applied.

As shown in Fig. 11, the squid processing apparatus 100 includes the squid internal organ / leg separation device 200 and the squid fin cutting device 300, together with the halter apparatus 1 of the present invention, It is installed in the stand 5 according to the process order.

Similarly to the examples of FIGS. 1 and 6, the halving device 1 applied to the processing apparatus 100 of FIG. 11 also has a sliding plate 10, a guide 20, a cutter device 30, a conveying device 40, and the like. It includes.

The guide 20 in this embodiment is provided with a variable guide 20C further downstream of one guide 20B serving as a basic guide as a variable guide, and the rotary knife 32B of the cutter device 30. ) Is driven by the motor 32A through the chain.

In addition, unlike the example of FIG. 6, the conveyance apparatus 40 in this specific example installs the conveyor belt 46A, 46B in the vertical position of the squid along the squid sliding path of the sliding plate 10, respectively. The squid is forcibly slid by driving with the motor 41A.

The cuttlefish halved by the squid halter device (1) is sent to the squid guts / leg separation device 200, the guide plate 210 is installed on the top of the squid guts / leg separation device 200 is a squid cut ( 2) is guided so that the leg side is the head with the intestine facing down, the induced squid is moved over the conveyor belt 230 in a state of being placed on the intestine / leg cutting plate 220 while the outer membrane ( In 2B), the viscera and legs are separated. For the process of separating the leg and the viscera from the outer membrane (2B) can refer to the same patent application 'squid viscera / leg separation device' proposed by the present inventors.

The coat membrane 2B from which the guts and legs are removed by the squid gut / leg separation device 200 is transferred to the fin cutting device 300 downstream thereof. The coat membrane 2B that reaches the fin cutting device 300 moves downstream along the squid feeder such as a conveyor belt with the fin 2E facing up, and then to a fin spacer such as a rotating roller. The fins 2E are separated from the coat 2B to form a gap, and then the fins 2E are cut from the coat 2B by a rotary knife of the cutting device.

Reference numeral 3B not illustrated in FIG. 11 denotes a motor for driving the conveyor 3, and reference numeral 240 denotes a motor for driving the conveyor belts 230 and 310, the squid feeder 310, and the fin spacer 330. Reference numeral 322A denotes a motor for driving the rotary knife 322B of the cutting device 320.

12 to 15, the cuttlefish fin cutting device 300 that can be applied together with the halter apparatus 1 of the present invention will be described in more detail.

As shown, the cuttlefish fin cutting device 300 includes a cuttlefish feeding device 310, a fin cutting device 320 and a fin spacer 330.

Squid transfer device 310 is a device for transferring the squid (2) from the upstream to downstream, squid (2) halved by the squid halter (1) and squid intestine / leg separation device 200, the squid (2) ), The outer membrane 2B is transferred from the upstream to the downstream with the fins 2E facing upwards (with the legs facing downstream), for example a conveyor belt being used.

Fin cutting device 320 is a device for cutting the fin (2E) from the outer membrane (2B) of the squid (2) that moves downstream along the conveyor belt 310, and includes a guide 321 and a cutter (322) It becomes the structure to say.

The guide 321 is a thin plate-like member that leads to a state in which the outer membrane 2B is easily cut by the cutter 322. The guide 321 has a V-groove 321B between the centers (321A) of roughly scissors. It is shaped.

According to the action of the guide 321, when the squid (2) is moved from the upstream to the downstream by the squid transfer device 310, both blades (321A) are fitted into both gaps of the fin (2E), thereby the squid transfer device ( The coat film 2B is sandwiched between the two and the fin 2E is raised on the two blades 321A. Then, as the squid 2 continues to be transported, the fin 2E more specifically converges between the outer membrane 2B and the fin 2E to the inside of the V-groove 321B.

The cutter 322 is installed adjacent to the vertex 321C of the V-groove 321B, preferably the V-groove 321B, and the fin 2E converged to the vertex 321C of the V-groove 321B. The function of cutting the connection of the. As the cutter 322, an electric rotary knife composed of a motor 322A and a circular rotary knife 322B rotated by the motor 322A can be used.

The cutting device 320 includes a fin ridge 323. The fin ridge plate 323 is installed in the line passing through the vertex 321C of the V-groove 321B, and serves to lift up the cut side of the fin 2E to be cut. In other words, when cutting the fin (2E) by hand, it acts like lifting the cutting site by hand. The ridge plate 323 is provided with a slot 323A for allowing the rotary knife 322B of the cutter 322 to access the connection portion between the outer membrane 2B and the fin 2E.

The fins 2E, which are cut from the outer membrane 2B by the cutting device 320 and dropped around the guide 321, are collected to the outside by, for example, the fin collecting device 340 employing a vacuum suction method. The coat 2B from which the fins 2E are cut can be continuously transported downstream by the squid feeder 310 and then dropped to be transferred to, for example, a conveyor belt or the like for subsequent processing (for example, water washing).

The fin spacer 330 forms a gap 2F between the coat film 2B and the fin 2E so that both edges 321A of the guide 321 of the fin cutting device 320 are easily moved into the gap 2F. It is a device that can be inserted.

As the spacer 330, a gap between the outer membrane 2B and the fin 2E is injected into the nozzle 331 by injecting air, water, or a mixture of water and air into the nozzle 331 to separate the fin 2B from the outer membrane 2A. Apparatus 330A may be applied. A pump or air compressor 332 is connected to the nozzle 331.

As another example of the spacer 330, the outer membrane by rotating the rotary roller 333 in contact with the fin (2E) by the motor 334 to push up the fin (2E) by the friction of the rotary roller (333) A frictional spacer 330B that spaces the fin 2E at 2B may be applied.

According to the action of the fin spacer 330, the fins 2E are spaced apart from the coat film 2B to form a gap 2F, and the two edges 321A of the guide 321 are introduced between the gaps 2F. do.

According to the squid fin cutting device 300 as described above, the squid feeder 310 while forming a gap between the coat 2B and the fins 2E by separating the fin 2B from the coat 2B with the spacer 330. The squid (2) is transferred to the squid, and the two edges (321B) of the guide (321) of the cutting device (320) are inserted into the gap (2F) so that the fin (2E) is inserted into the V-groove (321B) of the guide (321). Since the fins are removed by cutting the fins 2E from the outer membrane 2B with the rotary knife 322B of the fin cutting device 320 in the converged state, the same method as the manual work of holding a fin by hand and cutting it with a knife The fins can be removed with precision.

Hereinafter, another squid processing apparatus 400 to which the squid halter apparatus 1 of the present invention is applied will be described with reference to FIG.

As shown, the squid processing device 400 of the present embodiment, like the processing device 100 of Fig. 11, is cut with the halter device 1 of the present invention, the squid internal organs / leg separation device 200 and squid fin cutting The apparatus 300 is included, and these apparatuses are provided in the stand 5, and the configuration different from the processing apparatus 100 in FIG.

The halting apparatus 1 applied to the processing apparatus 400 includes a guide 20, a cutter apparatus 30, a conveying apparatus 40, etc., unlike the halting apparatus 1 of FIGS. 1 and 11, but the sliding plate ( 10) does not include.

The workbench 4 can be applied with a sliding table 6 through which the squid can be transported down the slide until the squid 2 is guided to the guide 20. However, when the guide 20 is reached, the guide 20 is not assisted by a natural drop. It passes entirely through the guide 20 by forced conveyance. Similarly to FIG. 11, the variable guide 20C is further provided downstream of the variable guide 20B.

As the transfer device 40 for forced squid transfer, the upper conveyor belt 47 is disposed above the guide 20 and the squid internal / leg separation device 200 is transferred below the guide 20. The lower force feed belt 48 is used by using the conveyor belt 230 used for this purpose.

The squid 2 reaching the guide 20 according to the conveying device 40 does not have an inclination like a sliding plate, but is located between the upper belt 47 and the lower belt 48, so that the belt rotates. Pass through the guide (20).

The conveyor belt 49 installed upstream of the guide 20 is for guiding the squid 2 descending along the slide 6 to the guide 20.

The cuttlefish halved by the cuttlefish halter 1 is sequentially transferred to the squid gusset / leg separation device 200 and squid fin cutting device 300 similarly to the processing apparatus 100 of FIG.

According to the squid processing apparatuses 100 and 400 to which the halving apparatus 1 of the present invention described above is applied, a series of squid processing for removing fins after separating the legs and the intestines by halting the squid can be automatically performed. Will be.

The squid halter device according to the present invention described above, while having a relatively simple structure, can squid squid like a halter by hand by a skilled worker, thereby perfect halter to the top with fins, squid There is an effect that it is possible to achieve a fine halbok without scratching the outer membrane, and a halbok with almost no failure rate.

Claims (9)

The guide 20 which is installed side by side in the arrangement of the upper and lower straits so that the outer membrane 2B of the squid 2 is collected in a vertical rectangle as the squid 2 is transported with the legs 2A as a head: and the vertical rectangle Installed at a position to be inserted into the inlet 2C of the coat membrane 2B collected thereon, and as the squid 2 is transferred, the leg 2A is inserted into the inlet 2C of the coat membrane 2B. A cutter device 30 for halting the coat film 2B toward the head 2D; Squid halter device comprising a. The sliding plate 10 is formed below the guide 20 to allow the squid 2 to slide, and as the squid 2 slides along the sliding plate 10. The squid halo apparatus, characterized in that the outer membrane (2B) of the squid (2) by the guide 20 is collected in a vertical rectangle. The squid halo device according to claim 1, wherein the guide 20 of the upper and lower sheaths is elastically variable so that its width is restored to its original position according to the size of the squid (2). According to claim 3, The variable upper and lower narrow of the guide 20, a pair of rotating shaft for supporting each upper side of the guide 20 to be rotatable so that the lower side of the guide 20 is a free end ( 21), a pair of interlocking gears 22, which are integrally rotated with the pivot shaft 21, and a restoring force mounted on the gears 22 to apply a restoring force toward a minimum width of the lower side of the guide 20. Squid halter device, characterized in that made by a structure comprising a spring (23). The squid halo apparatus according to claim 1, characterized in that a conveying device (40) is provided adjacent to the guide (20) for forcing the squid (2) to slide. According to claim 5, The transfer device 40 is rotated by the motor 41, the power transmission means 42 for transmitting the power of the motor 41, the power transmission means 42 and the respective guides A pair of drive shafts 43 provided on the upper side of the 20, a pair of gears 44 engaged with each other to rotate together with the drive shafts 43, driven shafts 45 provided below the guides 20, and the drive shafts Squid halter device, characterized in that it comprises a conveyor belt 46 is caught between the 43 and the driven shaft 45 to rotate. 2. The cutter device (30) according to claim 1, wherein the cutter device (30) includes a needle insertion table (31) and an electric rotary knife (32) inserted into the inlet (2C) of the outer membrane (2B). ) Is characterized in that it comprises a slot (31A) is inserted into the electric rotary knife 32, squid halter device. 2. The cutter device (30) according to claim 1, wherein the cutter device (30) is installed on the knife (33) inserted into the inlet (2C) of the coat film (2B), and above the knife (33) and between the knife (33). Squid, characterized in that it comprises a guide roller (34) having a groove (34A) is formed to apply a cutting force to the knife 33 and the circumference of the knife 33 is inserted while pulling down the coat film (2B) located Surgical device. The squid halo apparatus according to claim 5, characterized in that the conveying device (40) is a conveyor belt (46A, 46B, 47, 48) provided above and below the guide (20).

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