TWM501733U - Swaying feed tank - Google Patents

Description

Swing feed bucket

This creation is related to a kind of swinging feed bucket which is controlled by the discharge action, has a simple structure, is easy to maintain for a long time, and is not easy to be jammed in the loading barrel.

According to the pig wet material (or paste), it has good palatability. In most pig farms, pigs are often fed in a vertical type of feed bucket. The conventionally-applied feed bucket, as previously created in this creation, Announcement No. 408567, “An Automatic Feed Cartridge Structural Improvement (Additional One)” Taiwan New Patent Case, a feed cartridge for storing feed, is erected on a receiving tray The support frame is fixed in a vertical position, and the action control of the discharge is to connect the discharge port of the feed tube by the lower barrel, and when the feed falls to the position of the mouth of the lower barrel, the pig nose and mouth are utilized. Colliding the pushing element of the lower barrel, causing the lower barrel to shake and rotate, and shifting the feed into the receiving tray so that the pig can consume the wet material mixed with the liquid liquid from the receiving tray; for a long time, the conventional feeding tube The design of the support frame (or the feed tube) is mainly for the purpose of being able to erect the feed tube without falling. Although the feed port of the feed tube is connected to the lower barrel, the discharge action can be controlled, but the feed is at the discharge opening. If the positions are squeezed out and slightly fall out, it will affect the normal discharge of the lower barrel, especially if the environment of the pig house is too humid. If the feed in the feed tube is slightly damp, it is often caused by stickiness. There is a card material on the wall of the tube (commonly known as bridging). , Supporting not only affect the feed tray, even the cartridge case or not feed out of the drop may occur; and then, through the cartridge pigs snout Collision shaking as a control feed, The lower cylinder that is not resistant to the impact force is prone to dent deformation or structural damage, and the result of frequent maintenance or replacement of the lower cylinder has brought a big trouble to the maintenance of the feed cylinder for the pig farmers.

The main purpose of the present invention is to provide an oscillating feed bucket comprising a loading bucket, a feeding tray and a bucket support frame; the loading bucket is a hollow barrel for storing the feed, having an upper width a narrow conical barrel body, the upper end of the conical barrel body is provided with a pair of pivoting members on the wall of the barrel near the mouth of the barrel, and the bottom end is formed with a neck portion having a discharge opening therein; The feeding tray is disposed at a bottom end of the loading barrel, and has a receiving trough in the tray body, and a center of the receiving trough is opposite to the discharging port of the loading barrel, and a middle island is provided, and the middle island is Between the end of the seat and the discharge opening, a discharge gap is formed; the bucket support frame has a pair of support rods, and the lower ends of the pair of support rods are respectively fixed on the periphery of the tray body of the feeding sauce tray Opposite the disc wall, and the upper end is respectively pivotally connected to the pair of pivoting members of the loading bucket, so that the loading bucket is pivotally disposed on the pair of supporting rods in an upright configuration, allowing the outlet end to be a fan-shaped reciprocating swing above the end of the island seat; feeding the sauce tray when the feed is filled in the loading bucket The end of the island seat is at the discharge gap of the lower edge of the discharge opening of the neck of the charging bucket, forming a limited discharge stop for the released feed, so that the feed can be temporarily stored in the charging bucket for use; Only the nose and mouth touch the neck of the loading barrel, causing the entire loading barrel to oscillate and vibrate. By the fan-shaped reciprocating displacement on the end of the island seat feeding the feeding tray, the discharge gap can be formed through the discharge gap. Changes in sexual size, so that the feed released at the end of the island seat, the swinging neck is dropped into the feeding trough of the feeding tray for the pigs to eat; the overall structure, using the pig to feed the nose and mouth collision loading The eating habit of the neck of the barrel is cultivated, except for the impact-resistant neck as the discharge action control, the structure is simple and the utility is easy to maintain for a long time, and the rocking action of the cone body is generated when the neck of the charging barrel is impacted, Not only causes the feed in the loading bucket to increase to the discharge end The kinetic energy of filling, the impact of the impact force from the neck to the entire barrel wall to form the shock effect of the entire barrel wall, can avoid the feed on the barrel wall, effectively prevent the feed from being in any part of the loading barrel, the situation of the jam occurs .

The second objective of the present invention is to provide a swinging feed bucket, wherein the end of the middle island of the feeding tray is provided with a resisting disc member opposite to the neck of the loading bucket, and the resisting disc is The discharge gap is formed between the piece and the discharge port, and the resistance plate member has a conical protrusion extending into the discharge port; when the neck of the charging barrel is swung by the nose and mouth of the pig By the impact of the neck colliding with the conical convex body, the rebounding shock of the swinging stop is generated, that is, the shock wall effect can be caused by the barrel wall of the conical barrel body, and the feed is prevented from being locked in the charging barrel. Better card material prevents the effect.

A further object of the present invention is to provide an oscillating feed bucket, wherein the upper end of the tapered barrel of the loading bucket is provided with a pair of sleeve-shaped pivoting members, and the body of the pair of pivoting members The two sides of the crossbar are fixed on the upper end of the pair of support rods of the bucket support frame, so that the loading bucket is pivoted on the bucket support frame through the crossbar, The force-enhancing effect of the crossbar connecting and fixing the pair of support rods enables the bucket support frame to stand up through the cross-bar rack to hold the loading drum filled with the feed, and the neck of the loading bucket is subjected to the pig mouth When the nose touches, the neck end of the loading drum can be stably reciprocally oscillated by the stability of the crossbar; further, the end of the middle island of the feeding bucket at the bottom of the loading bucket is relatively The neck portion is provided with a guide disc member, and the discharge gap is formed between the guide disc member and the discharge opening, and the guide disc member has a tapered guide extending into the discharge opening. a convex body, the tapered guide protrusion is also pivotally connected with a pull rod, and the other end of the pull rod extends toward the end of the cross rod, and Screwed on the adjusting screw a crossbar pivot, when the neck portion being mounted drum pigs snout touching swung by the guide tapered neck collide The material convex body instantaneously generates the rebounding vibration of the swinging stop, in addition to increasing the barrel wall oscillating effect of the conical barrel body, and avoiding the phenomenon that the feed is jammed in the loading barrel, the adjusting screw is spirally rotated on the cross bar, through When the drawbar linkage moving plate member is raised or lowered at the lower edge of the discharge opening, the size of the discharge gap can be adjusted or closed to achieve the discharge restriction or control effect of each swinging action of the neck; And the tapered guide protrusion of the guide disc member is pivotally connected to the pull rod, the pull rod has a positioning rod passing through the tapered guide protrusion at one end, and the middle island end of the feeding tray is fed And the positioning rod is provided with a positioning hole for the positioning rod to penetrate, and the positioning hole is offset or yawed by the positioning rod at one end of the rod, so that the tapered guide protrusion can be supported by the rod and strong The impact force of the neck of the charging drum is oscillated; further, the peripheral edge of the guiding disc member is protruded by a plurality of rotating rods, and when the pig nose and nose are touched by the neck of the charging barrel, Develop the habit of touching the lever of the guide plate member, then the neck Swinging, causing the action of the feed when discharging from the discharge port, can be rotated with the dial to move the guide disc member on the pull rod, thereby increasing the effect of the feed being dropped from the discharge gap by the guide disc member to the receiving trough Or effect.

10‧‧‧Feed bucket

11‧‧‧Conical barrel body

12‧‧‧ barrel mouth

13‧‧‧ erector

14‧‧‧ neck

15‧‧‧Outlet

16‧‧‧crossbar

20‧‧‧Feeding tray

21‧‧‧Slots

22‧‧‧Nakashima

23‧‧‧Positioning holes

30‧‧‧Bucket support

31‧‧‧Support rod

40‧‧‧Outlet gap

50‧‧‧Feed

60‧‧‧Resistance plate

61‧‧‧Conical convex body

70‧‧‧ Guide plate

71‧‧‧Conical guide body

72‧‧‧ lever

73‧‧‧Adjusting screw

74‧‧‧ Positioning rod

75‧‧‧Rotary lever

1 is a perspective view showing the structure of an embodiment of the present creation

2 is a schematic cross-sectional structural view of one embodiment of the present creation.

3 is a schematic cross-sectional view showing another direction of an embodiment of the present invention.

Figure 4 is a schematic view showing the state of storage of the charging drum of the embodiment of the present invention.

FIG. 5 is a schematic diagram of the right swinging action of the loading barrel of the embodiment of the present invention.

FIG. 6 is a schematic diagram of the left swinging action of the loading barrel of the embodiment of the present invention.

Figure 7 is a perspective view showing another embodiment of the present creation.

FIG. 8 is a schematic cross-sectional structural view of another embodiment of the present invention.

FIG. 9 is a schematic cross-sectional view showing another direction of another embodiment of the present creation.

Figure 10 is a schematic view showing the state of storage of the charging drum of another embodiment of the present invention.

FIG. 11 is a schematic diagram of the right swinging action of the loading barrel of another embodiment of the present invention.

FIG. 12 is a schematic diagram of the left swinging action of the loading barrel of another embodiment of the present invention.

Figure 13 is a schematic view showing the state of change of the discharge gap adjustment of another embodiment of the present invention.

An oscillating feed bucket, as shown in Figures 1, 2, and 3, includes a loading bucket 10, a feeding hopper tray 20, and a bucket support frame 30; the loading bucket 10 is a hollow bucket for storing feed. The utility model has a conical barrel portion 11 which is wide and narrow, and a pair of pivoting members 13 are arranged on the barrel wall of the upper end of the conical barrel portion 11 near the mouth of the barrel 12, and a neck portion 14 is formed at the bottom end. The neck 14 has a discharge opening 15; the feeding tray 20 is disposed at the bottom end of the charging drum 10, and has a receiving chute 21 in the tray body, and the center of the receiving trough 21 is opposite to the loading The discharge opening 15 of the tub 10 is provided with a middle island seat 22, and an outlet gap 40 is formed between the end of the middle island seat 22 and the discharge opening 15; the bucket support frame 30 has a pair of supports The rod 31 is fixed to the lower end of the tray of the feeding tray 20 opposite to the disc wall, and the upper end is respectively pivotally connected to the pair of pivoting members 13 of the charging bucket 10. The loading bucket 10 is pivotally disposed on the pair of support bars 31 in an upright configuration, allowing the discharge port 15 end to perform a fan-shaped reciprocating swing motion above the end of the middle island seat 22; When the feed 50 is put into the charging drum 10, the end of the island seat 22 in the feeding tray 20 is at the discharge gap 40 at the lower edge of the discharge port 15 of the neck portion 14 of the charging bucket 10, and the released feed 50 is formed. The limited discharge is stopped so that the feed 50 can be temporarily stored in the charging drum 10 for use; 5, 6, as long as the pig mouth and nose touch the neck 14 of the loading bucket 10, causing the entire loading bucket 10 to oscillate and vibrate, by the discharge opening 15 on the end of the middle island 22 of the feeding tray 20. The fan-shaped reciprocating displacement can form a change in the size of the interaction through the discharge gap 40, so that the feed 50 released on the end of the island seat 22, the swung neck 14 is dropped to the feed tank of the feeding tray 20. 21 for pigs to eat; the overall structure, using pigs to feed the nose and mouth collision loading barrel 10 neck 14 feeding habits, in addition to the impact-resistant neck 14 as a discharge action control, with simple structure and long-lasting effect In addition, when the neck 14 of the loading bucket 10 is impacted, the rocking action of the tapered barrel portion 11 is generated, which not only causes the feed 50 in the loading bucket 10 to increase the kinetic energy filled toward the discharge port 15, and the impact force is from The neck portion 14 continues to the entire barrel wall oscillating effect formed by the entire tapered barrel portion 11, so that the feed 50 can be prevented from attaching to the barrel wall, and the feed 50 can be prevented from being caught in any part of the loading barrel 10, and the jamming (bridge) occurs. situation.

According to the above embodiment, wherein the end portion of the middle island seat 22 of the feeding tray 20 is provided with a resisting disc member 60 with respect to the neck portion 14 of the loading drum 10, as shown in Figs. The discharge chute 40 is formed between the resisting disc member 60 and the discharge opening 15, and the resisting disc member 60 has a conical convex body 61 extending into the discharge opening 15; as shown in FIGS. 5 and 6, when When the neck portion 14 of the charging drum 10 is swung by the nose and mouth of the pig, the rebounding vibration of the swinging stop is generated by the moment when the neck portion 14 collides with the tapered convex body 61, that is, the cone body portion 11 can be The wall of the barrel causes a greater oscillating effect, preventing the feed 50 from being stuck in the loading bucket 10, achieving a better jamming (bridge) prevention effect.

According to the above embodiment, in the upper end of the tapered barrel portion 11 of the charging bucket 10, as shown in Figs. 1, 2, and 3, a pair of sleeve-shaped pivoting members 13 are provided, and the tubes of the pair of pivoting members 13 are provided. In the body, a crossbar 16 is sleeved with each other, and the two ends of the crossbar 16 are fixed at the same The upper end of the pair of support rods 31 of the bucket support frame 30, the loading bucket 10 is pivotally disposed on the bucket support frame 30 through the crossbar 16, and the crossbar 16 is connected and fixed between the pair of support rods 31. The force-enhancing effect is generated so that the bucket support frame 30 can erect the loading drum 10 containing the feed through the crossbar 16, as shown in Figs. 5 and 6, and the neck portion 14 of the loading bucket 10 is subjected to the pig nose and mouth. When touched, the neck 14 end of the loading drum 10 can be stably supported by the stability of the crossbar 16 to perform a reciprocating swinging motion; as shown in Figs. 7, 8, and 9, the bottom of the loading bucket 10 is fed at the bottom. The end of the mid-island 22 of the tray 20 is provided with a guide disc member 70 opposite to the neck portion 14, and the discharge gap 40 is formed between the guide disc member 70 and the discharge port 15, and the discharge gap 40 is formed. The guide disc member 70 has a tapered guide protrusion 71 extending into the discharge opening 15, and a tapered rod 72 is pivotally connected to the tapered guide protrusion 71. The other end of the pull rod 72 faces the The crossbar 16 extends and is pivotally connected to an adjusting screw 73 screwed on the crossbar 16, as shown in Figs. 10, 11, and 12, when the filling drum 10 stores the feed 50, and the neck 14 receives the pig. When the nose and mouth touch When the neck 14 collides with the tapered guide protrusion 71, the rebound shock of the swing stop is instantaneously generated, in addition to increasing the barrel wall oscillating effect of the tapered barrel portion 11 to prevent the feed 50 from being jammed in the loading drum 10 ( In addition to the phenomenon of bridging, as shown in Figs. 10 and 13, the adjusting screw 73 is spirally rotated on the crossbar 16, and the lowering of the lower edge of the discharging tray member 70 at the discharge opening 15 by the pulling rod 72 is adjusted or lowered. The size of the discharge gap 40 is adjusted or closed to achieve the discharge (quantity) limitation or regulation effect of each swinging motion of the neck portion 14; and, as shown in Figures 7, 8, and 9, the above-described guide disc member 70 The tapered guide protrusion 71 is pivotally connected to the pull rod 72, and the pull rod 72 has a positioning rod 74 passing through the tapered guide protrusion 71 at one end, and the end of the middle island 22 of the feeding tray 20 is A positioning hole 23 is defined in the positioning rod 74 for the positioning rod 74 to pass through, and the positioning hole 23 is offset or biased to the positioning rod 74 at one end of the rod 72. The pendulum is defined as shown in Figs. 11 and 12, so that the tapered guide protrusion 71 can be supported by the tie rod 72 to strongly withstand the impact force when the neck portion 14 of the charging bucket 10 is swung; as shown in Figs. 7, 8, and 9, The circumference of the guide disc member 70 is convexly protruded by a plurality of dials 15, as shown in Figs. 11 and 12, when the pig nose and nose are touched and the neck portion 14 of the loading bucket 10 is swung, the guide material is also formed. When the dialing lever 75 of the disk member 70 touches, the neck portion 14 swings, causing the action of the feed 50 to be discharged from the discharge port 15, and the toggle member 75 can be used to move the guide plate member 70 on the tie rod 72. Rotation increases the effect or effect of the feed 50 being dropped from the discharge chute 40 by the guide disc member 70 to the chute 21.

The above description is intended to be illustrative, and not restrictive, and many modifications, variations or equivalents may be made without departing from the spirit and scope of the invention. , but all will fall within the scope of this creation.

10‧‧‧ loading bucket

11‧‧‧Conical barrel body

12‧‧‧ barrel mouth

13‧‧‧ erector

14‧‧‧ neck

15‧‧‧Outlet

16‧‧‧crossbar

20‧‧‧Feeding tray

21‧‧‧Slots

22‧‧‧Nakashima

30‧‧‧Bucket support

31‧‧‧Support rod

40‧‧‧Outlet gap

60‧‧‧Resistance plate

61‧‧‧Conical convex body

Claims (6)

The utility model relates to a swing type feed bucket, which comprises a charging bucket, a feeding tray and a bucket supporting frame; the loading bucket is a hollow barrel for storing the feed, and has a wide and narrow tapered barrel body. a pair of pivoting members are disposed on the barrel wall of the upper end of the tapered barrel body near the mouth of the barrel, and a bottom portion is formed with a neck portion having a discharge opening; the feeding tray is provided At the bottom end of the loading bucket, the tray body has a receiving trough, and the center of the receiving trough is opposite to the discharge opening of the loading bucket, and is provided with a middle island seat, and the end portion of the middle island seat and the discharging material Between the mouths, a discharge gap is formed; the bucket support frame has a pair of support rods, and the lower ends of the pair of support rods are respectively fixed on the circumference of the tray body of the feeding tray, and the upper end, And respectively pivotally connecting the pair of pivoting members of the charging bucket to pivot the loading bucket on the pair of support bars in an upright configuration, allowing the outlet end to be above the end of the middle island seat Fan-shaped reciprocating swing action; when the feed is filled in the loading drum, the end of the island seat in the feeding tray is at the neck of the loading barrel The discharge gap at the lower edge of the mouth forms a limited discharge of the released feed, so that the feed can be temporarily stored in the loading bucket for use; as long as the pig nose and nose touch the neck of the loading barrel, resulting in The entire loading bucket swings and vibrates, and the fan-shaped reciprocating displacement on the end of the island seat feeding the feeding tray can form an interactive size change through the discharge gap, so that the end is released at the end of the island. On the feed, the swinging neck is dropped into the feeding trough of the feeding tray for the pigs to eat; the overall structure is cultivated by the eating habits of the pigs feeding the mouth and nose and colliding with the neck of the loading barrel, except for the impact resistance. The neck is controlled as a discharge action, and the structure is simple and the utility is easy to maintain for a long time. When the neck of the charging bucket is impacted, the swinging motion of the cone body is generated, which not only causes the feed in the charging bucket to be increased and moved out. The kinetic energy filled at the mouth end, the impact force from the neck to the entire barrel wall to form a shock effect of the entire barrel wall, can avoid the feed to the barrel wall, effectively prevent the feed from occurring in any part of the barrel Jam situation. The oscillating feed bucket according to claim 1, wherein the end of the middle island of the feeding tray is provided with a resisting disc member opposite to the neck of the loading bucket, and the resisting disc is The discharge gap is formed between the piece and the discharge port, and the resistance plate member has a conical protrusion extending into the discharge port; when the neck of the charging barrel is swung by the nose and mouth of the pig By the impact of the neck colliding with the conical convex body, the rebounding shock of the swinging stop is generated, that is, the shock wall effect can be caused by the barrel wall of the conical barrel body, and the feed is prevented from being locked in the charging barrel. Better card material prevents the effect. The oscillating feed bucket according to claim 1, wherein the upper end of the tapered barrel of the loading bucket is provided with a pair of sleeve-shaped pivoting members, and the body of the pair of pivoting members The two sides of the crossbar are fixed on the upper end of the pair of support rods of the bucket support frame, so that the loading bucket is pivoted on the bucket support frame through the crossbar, The force-enhancing effect of the crossbar connecting and fixing the pair of support rods enables the bucket support frame to stand up through the cross-bar rack to hold the loading drum filled with the feed, and the neck of the loading bucket is subjected to the pig mouth When the nose touches, the neck end of the loading drum can be stably reciprocated by the stability of the crossbar. The oscillating feed bucket according to claim 3, wherein the bottom of the middle of the loading bucket is fed with a guide disc member opposite the neck, and the guide tray is provided by the guide tray The discharge gap is formed between the piece and the discharge port, and the guide disk member has a tapered guide protrusion extending into the discharge port, and the tapered guide protrusion is also pivotally connected with a tie rod The other end of the pull rod extends toward the end of the crossbar, and is pivotally connected with an adjusting screw screwed on the crossbar. When the neck of the loading bucket is swung by the nose and mouth of the pig, the neck is The collisional cone-shaped guide protrusion instantaneously generates the rebound vibration of the swinging stop, in addition to increasing the barrel wall oscillating effect of the cone barrel body, and avoiding the jamming phenomenon of the feed in the loading barrel, adjusting the screw on the crossbar Rotating by spiral, through the tie rod to move the guide disc member to raise or lower the lower edge of the discharge port, it can also be adjusted by the size of the discharge gap Or close, to achieve the discharge limit or control effect of each swing movement of the neck. The oscillating feed bucket of the fourth aspect of the invention, wherein the tapered guide protrusion of the guide disc member is pivotally connected to the pull rod, and one end of the pull rod has a convex body passing through the tapered guide body. Positioning rod, and feeding the end of the island seat of the receiving tray, and positioning hole with respect to the positioning rod for the positioning rod to penetrate, and the positioning rod is offset or yawed by the positioning rod at one end of the rod, 俾The tapered guide protrusion can be supported by the tie rod to strongly withstand the impact force when the neck of the charging bucket is swung. According to the swinging feed bucket of the fourth aspect of the patent application, wherein the periphery of the guide disc member has a plurality of pivoting rods protruding from the periphery of the loading drum, It will develop the habit of touching the rotating rod of the guide disc member, and the neck swings, causing the action of the feed to be discharged from the discharge port, and can be rotated with the dial to move the guide disc member on the rod to increase The action or effect of the feed being dropped from the discharge chute into the chute from the discharge gap.