KR100398024B1 - a conveyer container used for a feed - Google Patents

Abstract

The present invention relates to a feed container container installed in a vehicle for storing and transporting feed. The present invention provides a feed container for transporting and storing a predetermined feed, wherein the separator is formed on the edge of the container body for separating and storing the predetermined feed and the stored feed is sequentially taken out by a predetermined withdrawal condition. The link device unit and the transport unit is installed on the side of the container body and the feed portion for transporting the feed drawn through the feed outlet through a plurality of paths to mix and discharge in one path. Accordingly, the various feeds can be separated and stored, and the separated and stored feeds can be sequentially discharged and transported by type to be mixed at an appropriate ratio.

Description

Feeder container used for a feed}

BACKGROUND OF THE INVENTION 1. Field of the Invention The present invention relates to a feed container container, and more particularly, to a conveyor container installed in a vehicle or the like to separate and feed various feeds.

In general, a container is provided at the rear loading portion of a freight vehicle to transport and provide natural feed and compound feed, and the container is a phenomenon that is commonly used to transport and store natural feed and compound feed for a long time. In addition, in the case of using the container at the rear of the vehicle, the container is transported to a destination and then unloaded by a conveyor device or artificial labor provided at the destination.

However, such a conventional container is a sealed type without an automatic function, and its contents can be grasped through a door attached to an upper portion or a side of the container.

Therefore, recently, a feed container container with a conveyor device has been introduced to compensate for such a container problem for feed and to eliminate the inconvenience of transport and storage.

Referring to the accompanying drawings, a conventional container for transporting the feed is described as follows. Figure 4 is a partial cross-sectional view showing a feed container container according to the prior art, Figure 5 is a cross-sectional view showing a linkage unit portion of the feed conveyor container according to the prior art.

The conventional feed container container is divided into a container 101 and a transfer unit 102 at the rear of a vehicle (not shown), as shown in FIG. The upper container 101 is an input door 103 for feeding the food on the upper surface, and a storage space 104 for storing the feed coming through the input door 103 therein.

On the other hand, the conveyance part 102 is formed in the container 101 lower part.

The transfer unit 102 is formed parallel to the lower surface of the container 101, the transfer unit 102 is operated by a power source 105, such as a motor. In addition, by the drive of the power source 105 is operated to receive and feed the feed by the transport means installed in the transport unit (102).

The transfer unit 102 accepts the feed discharged by the withdrawal condition in the storage space 104, and discharges one kind of feed to the outside rather than the various types of the transferred.

In addition, when discharging one kind of feed to the transfer unit 102, the operation of the linkage unit 106 of the prior art, as shown in Figure 5, the rotation member 107 is rotated by the withdrawal conditions, the rotation The rotated member 107 moves the rod 108 upwards. The bilateral symmetrical outlet door 109 connected to the junction 110 by the movement of the rod 108 is operated at the same time to the upper side, by the folding operation of the outlet door 109 integrally operated to the upper storage space ( The single feed located at 104 is discharged to the transfer unit 102.

The feed container of the prior art has a problem in that only one kind of feed is discharged at a time in the folding operation of the outlet door 109 so that the amount thereof cannot be adjusted. There is a cumbersome problem to mix into tea. In addition, the storage space 104 in the container 101 of the prior art has a problem in that the breadth of the feed selection is not wide because only one type of feed is stored instead of several types of feed.

The present invention has been made in order to solve the above problems, mainly for vehicles can be separated and stored in various feeds, such as a vehicle, feed for the feed to be able to mix and discharge at a suitable ratio by sequentially discharging and storing the feed stored separately. The object is to provide a conveyor container.

1 is a cross-sectional view showing a feed container container according to the present invention,

Figure 2a is a cross-sectional view showing the operation of the feed container container linkage unit according to the present invention,

Figure 2b is a sectional view showing the operation of the feed container container linkage unit according to the present invention,

Figure 3a is a cross-sectional view showing a combination of the first conveying portion and the second conveying portion of the feed conveyor container according to the present invention,

Figure 3b is a cross-sectional view showing a combination of the second conveying portion and the third conveying portion of the feed conveyor container according to the present invention,

Figure 3c is a cross-sectional view showing a combination of the first conveying portion, the second conveying portion and the third conveying portion of the feed conveyor container according to the present invention,

Figure 4 is a partial cross-sectional view showing a feed container container according to the prior art,

5 is a cross-sectional view showing a linkage unit of the feed conveyor container according to the prior art.

Explanation of symbols on main parts of drawing

1; container body 2; linkage unit

3; transfer section 21; hinge

22; control unit lever 23a; first a coupler

23b; first coupler 24a; second coupler

24b; 2b coupler 25a; 3a coupler

25b; 3b coupler 26a; 4a coupler

26b; 4b coupler 27a; 5a coupler

27b; 5b coupler 28; fixing member

29a; outlet b door 29b; outlet b door

30; sliding groove 11; feed outlet

12; input door 13; storage space

31; first transfer unit 32; second transfer unit

33; third transfer section 34; power source

35a; first mixing skew 35b; second mixing skew

35c; third mixing skew 36a; first feed pipe

36b; second feed pipe 36c; third feed pipe

37a; first feed shaft 37b; second feed shaft

37c; third feed shaft 38a; first screw

38b; second screw 38c; third screw

39; Separator

101; container 102;

103; input door 104; storage space

105; power source 106; link device portion

107; rotate member 108; rod

109; outlet door 110;

According to the present invention, in the feed container for transporting and storing a predetermined feed, the object is formed in the lower side of the edge of the container body for forming and separating the predetermined feed to form a separator plate and withdraw the stored feed a predetermined It is achieved by a link device unit for sequential drawing out by the condition, and a conveying unit is installed on the container body edge side and the feed is drawn through the feed outlet through a plurality of paths to mix and discharge in a single path.

In addition, the linkage unit is connected to a control lever which is joined from a hinge provided at the center of the edge side of the container body and extends in parallel to a predetermined length, and is joined to the one side of the hinge edge side and is operated according to the operation of the control lever. A first coupler that operates differently in symmetry, a second coupler that is connected to a lower portion of the side of the first coupler in a predetermined shape and operates differently in both symmetry through a predetermined translational movement, and the second coupler A third coupler connected to the lower part of the coupler and operating differently in both symmetry through a vertical translation movement around the fixing member, and a side of the third coupler connected to the lower portion of the third coupler and joined to the fixing member A fourth coupler that is differently symmetrically actuated by a sliding motion of the second coupler, and is connected to side edges of the fourth and third couplers to have a sliding motion The other side is joined to the outlet doors preferably includes a fifth coupler through a predetermined operation different from the operation in parallel in an amount of symmetry.

Here, it is preferable to include a sliding groove which is provided in the third coupler and has a sliding motion in parallel to the side of the edge of the fourth coupler and the fifth coupler to restrain the operation.

The transfer unit may include a first transfer unit installed at a lower portion of the container body and configured to transfer predetermined feeds discharged through a plurality of feed outlets through a plurality of paths, and extending on the edge side of the first transfer unit. It includes a second conveying unit for concentrating the feed conveyed by the path of the path and mixing and feeding at a suitable ratio, and a third conveying unit installed in parallel to the edge side of the second conveying portion and discharged the mixed feed to the outside desirable.

Here, the first conveying portion is a mixing screw which is installed in a plurality of conveying pipes to prevent the falling down by extending the one side of the soft side and sequentially accommodate the force and rotation by a power source to adjust a plurality of feed mixing ratio It is preferable to include.

Hereinafter, the feed conveyor container according to the present invention with reference to the drawings in detail as follows. 1 is a cross-sectional view showing a feed container container for feeding according to the present invention, Figure 2a is a cross-sectional view showing the operation of the feed container container linkage unit according to the present invention, Figure 2b is a view showing the operation of the feed container container linkage unit according to the present invention. 3A is a cross-sectional view showing a combination of the first conveying portion and the second conveying portion of the feed container container according to the present invention, Figure 3b is a view showing a combination of the second conveying portion and the third conveying portion of the feed conveyor container according to the present invention 3C is a cross-sectional view showing a combination of the first conveying part, the second conveying part and the third conveying part of the feed conveyor container according to the present invention.

As shown in FIG. 1, the present invention is divided into an upper container body 1 and a lower conveying part 3 at the rear of a vehicle (not shown). The upper container body (1) has a plurality of input doors (12) that can put other feeds, such as natural feeds and compound feeds on the upper surface, and a plurality of preserving predetermined feeds coming through the input door 12 There is a storage space 13.

The storage space 13 is divided into a plurality by the separating plate 39, each of the storage space 13 can be separated and stored several kinds of feed. The separator 39 may be formed of a metal material as well as other synthetic resins.

In addition, a lower portion of the container body 1 is formed with a conveying portion 3, the conveying portion 3 is formed in parallel along the lower surface of the container body 1, largely the first conveying portion 31, the second It is largely divided into a transfer part 32 and a third transfer part 33.

In addition, each conveying unit 3 is operated by a power source 34 arranged separately, by the driving of the power source 34 to receive and operate the rotational force sequentially by a mixing screw installed inside each conveying unit (3). do.

The transfer unit 3 receives the feed discharged from the storage space 13 by the withdrawal conditions, the first transfer unit 31 transfers the feed to the second transfer unit 32, the second transfer unit 32 The feed taken in the first transfer unit 31 is transferred to the third transfer unit 33 formed parallel to the side of the container body 1, and the third transfer unit 33 discharges the feed to the outside. .

As shown in FIG. 3A, the first transfer unit discharges the feed discharged from each storage space to the plurality of first transfer units 31 according to a withdrawal condition, and the first transfer unit 31 has parallel one-round sides thereof. A plurality of first feed pipe (36a) is extended to be installed, the feed is introduced into the first feed pipe (36a) through the outlet door (not shown) the first feeder receives a constant rotational force of the power source (not shown) The feed is transferred to the second transfer section 32 by driving of the first mixing screw 35a formed by the combination of the first transfer shaft 37a and the first skew 38a in the 31.

The plurality of first transfer units 31 and the coupling when connected to the second transfer unit 32 are connected to a plurality of joining members (not shown) on the basis of the gasket, and the first transfer unit 31 is coupled to the first transfer unit 31. The single feed shaft 37a is attached to the shaft connecting member provided in the gasket. The second transfer part 32 is also installed on the shaft connecting member provided on the side of the gasket and the second mixing screw 35b is formed in combination with the second transfer shaft 37b and the second screw 38b to rotate. Will be

A bearing (not shown) is attached to the shaft connecting member for smooth driving during the rotation of the second mixing skew 35b. Like the first transfer part 31, the second transfer part 32 has a second transfer part pipe 36b in which edge side circumferences thereof extend in parallel. Inside the second conveying pipe 36b, a second mixing skew 35b is fed with a constant rotational force of a power source (not shown).

Here, in the first conveying unit 31 having a plurality of paths, different feeds are transported for each type of path, and various kinds of feeds transferred to the second conveying unit 32 are mixed in the second conveying unit 32. Will be done. By varying the rotational force in each of the power source 34 of the plurality of first transfer unit 31, the amount of feed of the various kinds of feed is changed and the feed of the proper ratio can be mixed in the second transfer unit (32) Do.

The feed conveyed from the second conveying part 32 is moved to the third conveying part 33. As shown in FIG. 3B, the mixed feed in the second conveying part 32 has a third conveying part formed vertically parallel ( 33). Similar to the second transfer part 32, the third transfer part 33 has a third transfer part pipe 36c extending in parallel with a peripheral side circumference thereof, and a third transfer axis 37c inside the third transfer part pipe 36c. ) And the third mixing skews 35c formed by combining the third skews 38c receive a constant rotational force of the power source 34 to vertically transfer the mixed feed and discharge it to the outside.

The overall coupling structure of the first transfer unit 31, the second transfer unit 32 and the third transfer unit 33 is as shown in Figure 3c. The feed fed from the outlet door (not shown) along the first conveying part 31 having the plurality of paths is moved to the second conveying part 32, and the various kinds of feeds moved to the second conveying part 32 are mixed. , The mixed feed is discharged to the outside along the third transfer unit (33).

Meanwhile, as shown in FIGS. 2A and 2B, the linkage unit 2 installed at the edge side of the container body 1 for storing and storing the feed is cylindrically built or embedded in the center of the container body 1. A hinge lever 21, a control lever 22 which is joined to a peripheral edge of the cylindrical hinge 21 and extends in parallel to the outside of the container body 1, and a control lever which is joined to a peripheral edge of the hinge 21 Both symmetrical first couplers 23a and 23b operating asymmetrically in accordance with the up and down operations of the 22 and lower portions of the first couplers 23a and 23b of the first couplers 23a and 23b. To the second coupler (24a, 24b) of the two symmetrical operatively connected in accordance with the drive, and the fixing member (28) which is located under the second coupler (24a, 24b) and joined to the center of the side of the separation plate (39) Fixed and connected in accordance with the operation of the third coupler (25a, 25b) having a V-shape, and the third coupler (25a, 25b) The surface is joined to the fixing member 28, the other side is connected to the edge of the third coupler (25a, 25b) and the fourth coupler (26a, 26b) and the operation of the fourth coupler (26a, 26b) Drives along the side and consists of fifth couplers 27a and 27b, one side of which is connected to the fourth couplers 26a and 26b and the other side to the outlet doors 29a and 29b.

Here, the fourth coupler (26a, 26b) and the fifth coupler (27a, 27b) is a side edge of the sliding groove 30 located at the edge of the lower side of the third coupler (25a, 25b) having a V shape Each of them is integrally connected to have a limited sliding motion in the sliding groove 30 formed of a straight surface of a predetermined length during the driving of the third coupler (25a, 25b).

As shown in FIG. 2A, when the control unit lever 22 is moved downward, the first device coupler 23a joined to the hinge 21 faces downward and has a symmetrical structure. Opposite first b coupler 23b is directed downward. In addition, according to the operation of the first coupler 23a directed downward, the second coupler 24a is driven downward while performing a constant translational movement, and the V is driven by the second coupler 24a driven downward. The third shaped third coupler 25a operates. The V-shaped 3a coupler 25a has an edge center portion connected to the fixing member 28 and operates upwardly with respect to the fixing member 28. A sliding groove 30 is provided at an edge side of the lower portion of the third a coupler 25a. The sliding groove 30 has a side edge at one side edge of the fourth a coupler 26a linked to the fixing member 28. Is installed.

The portion joined to the sliding groove 30 of the fourth coupler 26a has limited movement in the area of the sliding groove 30. When the third coupler 25a faces upward, the sliding groove 30 is restricted. The moving 4a coupler 26a also faces upwards. A 5a coupler 27a joined to the outlet a door 29a is connected to a portion installed in the sliding groove 30 of the 4a coupler 26a, and the 5a coupler 27a is connected to the 3a coupler 25a. And driven in accordance with the operation directed to the top of the fourth coupler 26a and configured to be integrated with the operation of the bonded outlet a door 29a. According to the operation of the fifth coupler 27a, the outlet a door 29a is opened and the feed is discharged to the first transfer part 31 through the outlet 11.

Meanwhile, as shown in FIG. 2B, when the control unit 22 is moved upward, the first b coupler 23b joined to the hinge 21 faces downward, as shown in FIG. 2B. The first coupler 23a on the opposite side of the symmetrical structure faces upward. In addition, according to the operation of the first b coupler 23b directed downward, the second b coupler 24b is driven downward and performs a constant translational movement, and the V is driven by the second bcoupler 24b driven downward. The third shaped third coupler 25b operates. The V-shaped third b coupler 25b has an edge center portion connected to the fixing member 28 and operates upwardly with respect to the fixing member 28. A sliding groove 30 is provided at an edge side of the lower portion of the third b coupler 25b, and the sliding groove 30 is provided at one side edge of the fourth b coupler 26b linked to the fixing member 28. Is installed.

The portion joined to the sliding groove 30 of the fourth b coupler 26b has a limited motion in the area of the sliding groove 30. When the third b coupler 25b faces upward, the sliding groove 30 is moved upward. The limiting motion 4a coupler 26b also faces upwards. A fifth b coupler 27b joined to the outlet b door 29b is connected to a portion installed in the sliding groove 30 of the fourth b coupler 26b, and the fifth b coupler 27b is connected to the third b coupler 25b. And the fourth b coupler 26b to be driven in accordance with the operation directed toward the upper portion and configured to be integrated with the operation of the bonded outlet b door 29b. According to the operation of the fifth coupler 27b, the outlet b door 29b is opened and the feed is discharged to the first transfer part 31 through the outlet 11.

In addition, when the control lever 22 is placed at a position of an intermediate stage instead of an upper or a lower part when the linkage unit is operated, the outlet a door 29a and the outlet b door 29b are closed on both symmetrical positions. The discharge of feed is completely blocked or the discharge port a door 29a and the discharge port b door 29b are opened at regular intervals. In this case, the first coupler (23a, 23b), the second coupler (24a, 24b), the third coupler (25a, 25b), the fourth coupler (26a, 26b) and the fifth coupler (27a, 27b) are both symmetrical It has the same shape or asymmetrical shape.

The present invention is mainly provided in a vehicle, etc. can separate and store various feeds, there is an effect that the separated stored feeds are sequentially discharged and transported by type to mix at an appropriate ratio.

Claims (5)

In the feed conveyor is formed in the lower side of the edge of the container main body to form a separator plate to separate and store a predetermined feed and to withdraw the stored feed by a predetermined withdrawal conditions, A control lever joined from a hinge installed at the center of the edge side of the container body and extending in parallel to a predetermined length; A first coupler joined to one circumference of the hinge edge and operating differently in both symmetry according to the operation of the control lever; A second coupler connected to the lower side of the first coupler in a predetermined shape and operating differently in both symmetry through a predetermined translational movement; A third coupler connected to a lower portion of the second coupler and operating differently in both symmetry through a vertical translation movement around the fixing member; A fourth coupler connected to the lower portion of the third coupler and having one side surface joined to the fixing member and operating differently in both symmetry through a predetermined sliding movement; A fifth coupler connected to side edges of the fourth coupler and the third coupler and having a sliding movement, the other side of which is joined to the outlet door to operate differently in both symmetry through a predetermined parallel operation; The feed container is installed on the side of the container body, the feed container for transporting the feed taken out through the feed outlet through a plurality of paths to mix and discharge in one path. delete The method of claim 1; And a sliding groove installed in the third coupler, the sliding groove configured to restrict the side surfaces of the fourth coupler and the fifth coupler to have a sliding movement in parallel. The method of claim 1; The transfer unit, A first transfer part installed below the container body and transferring predetermined feed discharged through a plurality of feed outlets to a first mixing screw through a plurality of paths; A second conveying part installed to extend on the edge of the first conveying part and concentrating the feeds conveyed through the plurality of paths, mixing the foods at an appropriate ratio and transferring the feeds to the second mixing screw; And a third conveying part installed parallel to the edge side of the second conveying part and discharging the mixed feed to a third mixing screw to the outside. delete