Feeder

Abstract

The utility model relates to a feeder, and belongs to the field of household appliances. The feeder comprises a shell assembly, a feeding assembly and a feeding assembly, the charging barrel assembly is arranged on the shell assembly, the charging barrel assembly is provided with a material storage cavity, and the charging barrel assembly is provided with a discharging channel communicating with the material storage cavity; the feeding assembly is arranged on the charging barrel assembly, the feeding assembly is provided with a feeding channel, and the feeding channel communicates with the discharging channel; the material throwing assembly is arranged on the shell assembly or the charging barrel assembly or the feeding assembly, the material throwing assembly is provided with a material throwing channel, the material throwing channel, the feeding channel and the discharging channel are sequentially communicated, and part of the material throwing assembly penetrates through the discharging opening to extend out of the shell assembly or the material throwing channel of the material throwing assembly is communicated with the discharging opening. According to the feeder, a feeding and throwing integrated structure is adopted, so that the feeding process and the throwing process can be seamlessly connected, the feeding time period is greatly shortened, and the overall feeding efficiency is improved.

Description

Technical Field

[0001] The utility model relates to the field of household appliances, in particular to a feeder. Background Art

[0002] Most of the feeders on the market currently do not have a throwing function. The feed flows out freely through the pipe and cannot be effectively dispersed. Even if some individual feeders have a throwing function, the thrower is external to the equipment and is easily affected by the external environment. In addition, water accumulates on the surface of the thrower on rainy days, which easily causes feed to stick, resulting in a poor user experience. Utility Model Content

[0003] Based on this, it is necessary to provide a feeder to address the problem that the current feeders lack the throwing function or the throwing devices are external.

[0004] A feeder, the feeder comprising: a shell assembly, the shell assembly is provided with a accommodating chamber and a discharge port; a barrel assembly, the barrel assembly is arranged on the shell assembly and located in the accommodating chamber, the barrel assembly is provided with a storage chamber, and the barrel assembly is provided with a discharge channel connected with the storage chamber; a feeding assembly, the feeding assembly is arranged on the barrel assembly, the feeding assembly is located in the accommodating chamber, the feeding assembly is provided with a feeding channel, and the feeding channel is connected with the discharge channel; a throwing assembly, the throwing assembly is arranged on the shell assembly or the barrel assembly or the feeding assembly, the throwing assembly is provided with a throwing channel, the throwing channel, the feeding channel and the discharge channel are connected in sequence, a part of the throwing assembly passes through the discharge port and extends to the outside of the shell assembly or the throwing channel of the throwing assembly is connected with the discharge port.

[0005] The present application discloses a feeder, in which a barrel assembly and a throwing assembly are arranged on a shell assembly, and a feeding assembly is arranged on the barrel assembly, and the above-mentioned components are all located in a accommodating cavity, providing them with a relatively sealed space, which can effectively prevent external physical collisions, scratches and extrusions, etc., reduce the risk of damage to the components caused by these external forces, extend the service life of the components, and more importantly, avoid feed adhesion caused by water accumulation on the surface of the throwing assembly on rainy days. Since the storage chamber and the feeding channel of the barrel assembly, the feeding channel of the feeding assembly, and the throwing channel of the throwing assembly are connected in sequence, it is ensured that the entire process of the feed from the barrel assembly to the throwing assembly is smooth and unobstructed, so that the feed can continuously pass through the feeding channel and the throwing channel from the barrel assembly in sequence, and finally be thrown out from one end of the throwing assembly located at the feeding port, so as to realize a continuous and stable feeding process, avoid interruptions and jams in the feed transportation process, and improve the feeding efficiency and continuity. At the same time, the throwing assembly allows the feed to be accurately thrown to the designated area or position, meeting different feeding needs and environmental requirements, and avoiding the random scattering and waste of feed. This feeder adopts an integrated feeding and throwing structure to enable the feeding and throwing processes to be seamlessly connected, without the need for complex conversion or connection steps between the two operations, greatly shortening the feeding time cycle, increasing the number of feedings and feeding amount per unit time, and thus improving the overall feeding efficiency.

[0006] In one embodiment, the feeding assembly includes a feeding piece, a feeding shell and a feeding motor, the feeding shell is arranged on the barrel assembly, the feeding motor is arranged on the feeding shell and / or the barrel assembly, the feeding shell is provided with the feeding channel, and the feeding piece is arranged on the feeding motor and located in the feeding channel. By arranging the feeding shell on the barrel assembly, the feeding motor is arranged on the feeding shell and / or the barrel assembly, and the feeding piece is arranged on the feeding motor and located in the feeding channel provided in the feeding shell, the barrel assembly provides a stable installation and support platform for the feeding shell and the feeding motor, reduces the vibration and shaking during the operation of the equipment, ensures that the feeding motor can stably drive the feeding piece to perform the feeding action, makes the feeding process more stable and continuous, and improves the stability and reliability of feeding. At the same time, the feeding piece is driven by the feeding motor, so that the feeding piece generates a driving force to transport the feed from one end of the feeding channel to the other end. This conveying action is the basis for realizing automatic feeding, ensuring that the feed can move in a preset direction and path. Users can also control the speed of the feeding motor according to their actual needs to achieve the effect of fast or slow feed delivery.

[0007] In one embodiment, the feeding member includes a feeding fan and a feeding shaft, the feeding shaft is arranged on the feeding motor, the number of the feeding fan is multiple, and the multiple feeding fan is arranged around the feeding shaft. By arranging the feeding shaft on the feeding motor, and surrounding the multiple arc-shaped feeding fan on the feeding shaft, when the feeding motor is started, the feeding shaft is driven to rotate, and the feeding fan installed on the feeding shaft rotates accordingly. During the rotation process, the feeding fan produces a pushing effect on the feed, so that the feed moves along the set direction to realize the feeding function. Multiple feeding fan are surrounded on the feeding shaft, so that during the rotation process of the feeding shaft, the feed can be continuously pushed forward, the continuity and stability of the feeding are ensured, and the feeding efficiency is improved. At the same time, the arc shape of the feeding fan can better contact with the feed and produce a pushing effect during rotation, and the pushing effect on the feed during rotation is more uniform and stable, which reduces the phenomenon of feed jumping, accumulation or feed residue on the feeding fan caused by sudden changes in the pushing force.

[0008] In one of the embodiments, the feed housing includes an upper feed housing and a lower feed housing, wherein the upper feed housing is arranged on the barrel assembly and wraps the feed motor, and the lower feed housing is arranged on the upper feed housing. By arranging the lower feed housing on the upper feed housing, and arranging the upper feed housing on the lower feed housing, a feed channel is formed, which provides a fixed and clear path for the movement of feed, prevents the feed from being randomly dispersed or deviating from the preset route during the conveying process, ensures that the feed can be stably conveyed from the feed port to the discharge port, and improves the reliability and stability of the feeding process. Wrapping the feed motor with the upper feed housing can prevent dust from entering the motor, avoid affecting the performance or causing failure of the motor due to dust accumulation, and also prevent moisture from penetrating into the motor to a certain extent, reduce the risks of motor short circuit, leakage, etc., and improve the reliability of the motor working in different environments.

[0009] In one embodiment, the material throwing assembly includes a material throwing piece, a material throwing shell and a material throwing motor, one end of the material throwing shell is passed through the outer shell assembly and is located at the discharge port, the other end of the material throwing shell is arranged on the barrel assembly and is arranged opposite to the feeding assembly, the material throwing shell is provided with the material throwing channel, the material throwing motor is arranged on the material throwing shell and / or the barrel assembly, and the material throwing piece is arranged on the material throwing motor and is located in the material throwing channel. By setting the throwing motor on the throwing shell and / or the barrel assembly, setting one end of the throwing shell on the barrel assembly, and setting the other end of the throwing shell on the shell assembly and located at the discharge port, firstly, the throwing motor is set on the throwing shell and / or the barrel assembly, which provides a solid and stable installation foundation for the throwing motor, ensures that the throwing motor maintains a stable position and posture during operation, and reduces operation errors and failures caused by motor vibration or shaking, and secondly, one end of the throwing shell is set on the barrel assembly, and the other end is set on the shell assembly and located at the discharge port, which makes full use of the space inside the feeder, makes the layout between the throwing assembly and the feeding assembly more reasonable and compact, and reduces the overall space occupation of the equipment. Since the throwing piece is set on the throwing motor and located in the throwing channel, the throwing motor can drive the throwing piece to throw the feed in the throwing channel, so that the feed can be evenly dispersed in the feeding site, avoiding the phenomenon of concentrated accumulation or uneven distribution of feed during the throwing process. And because the throwing shell and the feeding shell adopt a non-contact suspended structure, there will be no overlap or interference between the two, which effectively avoids the feeding component interfering with the accuracy of weighing.

[0010] In one embodiment, the throwing member includes a throwing fan and a throwing shaft, the throwing shaft is arranged on the throwing motor, the number of the throwing fan is multiple, the multiple throwing fan is arc-shaped, and the multiple throwing fan is arranged around the throwing shaft. By arranging the throwing shaft on the throwing motor, the multiple throwing fan is evenly arranged around the throwing shaft, the power of the throwing motor is transmitted to the throwing fan through the throwing shaft, the throwing shaft provides a stable support and rotation axis for the throwing fan, ensuring that the power can be effectively converted into the rotational motion of the throwing fan, thereby generating sufficient centrifugal force and thrust to throw the feed quickly and forcefully, and at the same time, the multiple throwing fan is evenly around the throwing shaft, so that during the rotation process, the feed can be subjected to a uniform force, and this uniform power distribution helps the feed to be thrown at a more consistent speed and direction, ensuring the uniformity and stability of the throwing, and avoiding the situation where the feed is concentrated in a certain area or the throwing is uneven. Because the throwing fan blades are arc-shaped, the arc shape enables the throwing fan blades to fit the feed more closely when rotating, thereby achieving continuous push and transportation of the feed, and can throw the feed farther and more evenly, thereby increasing the range and coverage area of ​​the throwing material and meeting the feeding needs of different distances and areas.

[0011] In one embodiment, the throwing material shell includes an upper throwing material shell and a lower throwing material shell, the upper throwing material shell is arranged on the barrel assembly and wraps the throwing material motor, and the lower throwing material shell is arranged on the upper throwing material shell and penetrates the outer shell assembly and is located at the discharge port. The channel arranges the upper throwing material shell on the barrel assembly and wraps the throwing material motor. On the one hand, the barrel assembly has a certain structural strength and stability. Installing the upper throwing material shell on the barrel assembly can provide a stable support foundation for the upper throwing material shell, reduce its vibration and shaking during operation, ensure the normal operation of the motor, and improve the accuracy and stability of throwing. On the other hand, the upper throwing material shell wraps the throwing material motor, which can effectively prevent external objects from hitting and bumping the throwing material motor, avoid the motor from being damaged due to external force during use, and extend the service life of the throwing material motor. The lower shell of the throwing material is arranged on the upper shell of the throwing material to form a complete throwing material channel. At the same time, the lower shell of the throwing material is penetrated through the outer shell assembly and is located at the feeding port, which provides a clear movement path for the feed, so that the feed can be thrown according to the preset direction and trajectory, ensuring that the feed can be accurately delivered to the target position, improving the accuracy and precision of the throwing material, and meeting the requirements for the feed throwing position in different application scenarios.

[0012] In one embodiment, the barrel assembly includes a barrel shell, a feeding hopper and a weighing assembly, wherein the weighing assembly is arranged on the outer shell assembly, the barrel shell is arranged on the weighing assembly, the feeding hopper is arranged on the barrel shell, the barrel shell and the recess of the feeding hopper form the storage cavity, and the feeding hopper is provided with the feeding channel. By arranging the weighing assembly on the outer shell assembly, a stable support is provided for the barrel assembly, the barrel shell is arranged on the weighing assembly and the feeding hopper is arranged on the barrel shell, and the recess of the barrel shell and the feeding hopper form the storage cavity, on the one hand, the barrel shell is placed on the weighing assembly, so that the weight of the feed in the barrel assembly can be measured in real time and accurately, when the feed is added into the barrel assembly or the feed is discharged during the feeding process, the weighing assembly can accurately sense the weight change, realize the accurate measurement of the feed, and help control the feeding amount and monitor the feed consumption, on the other hand, the storage cavity enables the feed to be stored in a centralized manner, which is convenient for managing and controlling the flow of the feed, and because the storage cavity is connected with the feeding channel, the feed is more stable and orderly during the feeding process. At the same time, the storage chamber is in the containing chamber, which can effectively prevent the leakage and scattering of feed during storage and feeding, avoid the pollution and waste of the surrounding environment by feed, maintain the cleanliness and sanitation of the working area, and can also isolate external impurities, dust and moisture from entering the storage chamber to a certain extent, thereby ensuring the quality and purity of the feed, reducing the risk of feed contamination, and ensuring the safety and hygiene of feeding.

[0013] In one embodiment, the shell assembly includes a shell, a base and an upper cover, the shell is arranged on the base, the upper cover is arranged on the shell, the shell, the base and the upper cover are enclosed to form the accommodating cavity, the shell is provided with the discharge port, and the barrel assembly is arranged on the shell. By arranging the shell on the base and the upper cover on the shell to enclose and form the accommodating cavity, protection is provided for the components inside the feeder, and dust, water vapor, corrosive substances, etc. from the outside can be isolated to prevent these factors from entering the interior to corrode and damage the components, which helps to extend the service life of the internal components and ensure the stable performance of the feeder. At the same time, the stable structure formed by the shell, the base and the upper cover provides a foundation for the installation and fixation of the internal components such as the barrel assembly, so that each component can be accurately installed in a predetermined position, and maintain a stable position and relative relationship during the operation of the equipment, reducing component misalignment or loose connection caused by vibration or movement. Since the outer shell is provided with a discharge port, it is ensured that the feed can fall accurately in the preset direction and position after coming out of the feeder, avoiding the feed from being scattered randomly or deviating from the target area, making the feed transportation more accurate and orderly. At the same time, the operator can intuitively observe the throwing component arranged at the discharge port, and can see the flow state, discharge speed and discharge amount of the feed, so as to timely discover problems such as feed blockage, uneven discharge, etc. and make adjustments and treatments, so as to realize effective monitoring of the feeding process.

[0014] In one embodiment, a control component is further included, and the control component is arranged on the barrel component and located in the accommodating chamber. By arranging the control component on the barrel component and located in the accommodating chamber, the spatial layout is more reasonable, the connection lines between the components are shorter and simpler, the complexity and cost of the line layout are reduced, and the integration and integrity of the device are improved. At the same time, the accommodating chamber provides a relatively closed environment for the control component, avoiding the influence of external collisions, water vapor and dust, ensuring the stable operation of the control component, extending the service life of the control component, and improving the market competitiveness of the feeder to a certain extent. BRIEF DESCRIPTION OF THE DRAWINGS

[0015] Figure 1 A three-dimensional diagram of the feeder;

[0016] Figure 2 is a first cross-sectional view of the feeder;

[0017] Figure 3 This is an exploded view of the housing assembly;

[0018] Figure 4 is a second cross-sectional view of the feeder;

[0019] Figure 5 It is a cross-sectional view of the feeding assembly and the throwing assembly;

[0020] Figure 6 It is a stereoscopic diagram of the feeding assembly, the throwing assembly and the barrel assembly;

[0021] Figure 7 It is a cross-sectional view of the feeding assembly, the throwing assembly and the barrel assembly.

[0022] The corresponding relationship between the reference numerals and the component names is as follows:

[0023] 1 housing assembly, 11 housing, 12 base, 13 upper cover, 101 accommodating cavity, 102 feeding port;

[0024] 2 barrel assembly, 21 barrel shell, 22 discharge funnel, 23 weighing assembly, 201 storage cavity, 202 discharge channel;

[0025] 3 feeding assembly, 31 feeding member, 311 feeding fan, 312 feeding shaft, 32 feeding shell, 321 feeding upper shell, 322 feeding lower shell, 33 feeding motor, 301 feeding channel;

[0026] 4 a throwing assembly, 41 a throwing piece, 411 a throwing fan, 412 a throwing shaft, 42 a throwing shell, 421 an upper throwing shell, 422 a lower throwing shell, 43 a throwing motor, 401 a throwing channel;

[0027] 5 control components. DETAILED DESCRIPTION

[0028] In order to more clearly understand the above-mentioned purpose, features and advantages of the present invention, the present invention is further described in detail below in conjunction with the accompanying drawings and specific embodiments. It should be noted that the embodiments of the present application and the features in the embodiments can be combined with each other without conflict.

[0029] In the following description, many specific details are set forth to facilitate a full understanding of the present invention. However, the present invention may also be implemented in other ways different from those described herein. Therefore, the protection scope of the present invention is not limited to the specific embodiments disclosed below.

[0030] The feeders according to some embodiments of the present invention will be described below with reference to the accompanying drawings.

[0031] Example 1

[0032] like Figures 1 to 7As shown, the present embodiment discloses a feeder, comprising: a shell component 1, the shell component 1 is provided with a accommodating cavity 101 and a discharge port 102; a barrel component 2, the barrel component 2 is arranged on the shell component 1 and located in the accommodating cavity 101, the barrel component 2 is provided with a storage cavity 201, and the barrel component 2 is provided with a discharge channel 202 connected with the storage cavity 201; a feeding component 3, the feeding component 3 is arranged on the barrel component 2, the feeding component 3 is located in the accommodating cavity 101, the feeding component 3 is provided with a feeding channel 301, and the feeding channel 301 is connected with the discharge channel 202; a throwing component 4, the throwing component 4 is arranged on the shell component 1 or the barrel component 2 or the feeding component 3, the throwing component 4 is provided with a throwing channel 401, the throwing channel 401, the feeding channel 301 and the discharge channel 202 are connected in sequence, and a part of the throwing component 4 extends through the discharge port 102 to the outside of the shell component 1 or the throwing channel 401 of the throwing component 4 is connected with the discharge port 102.

[0033] The present application discloses a feeder, in which a barrel assembly 2 and a throwing assembly 4 are arranged on a shell assembly 1, and a feeding assembly 3 is arranged on the barrel assembly 2, and the above-mentioned components are all located in a accommodating cavity 101, providing them with a relatively sealed space, which can effectively prevent external physical collisions, scratches and extrusions, etc., reduce the risk of damage to the components caused by these external forces, extend the service life of the components, and more importantly, avoid feed adhesion caused by water accumulation on the surface of the throwing assembly 4 on rainy days. Since the storage chamber 201 and the feeding channel 202 provided in the barrel assembly 2, the feeding channel 301 provided in the feeding assembly 3, and the throwing channel 401 provided in the throwing assembly 4 are connected in sequence, it is ensured that the entire process of the feed from the barrel assembly 2 to the throwing assembly 4 is smooth and unobstructed, so that the feed can continuously pass through the feeding channel 301 and the throwing channel 401 from the barrel assembly 2 in sequence, and finally be thrown out from the end of the throwing assembly 4 located at the feeding port 102, so as to realize a continuous and stable feeding process, avoid interruptions and jams in the feed transportation process, and improve the feeding efficiency and continuity. At the same time, the throwing assembly 4 allows the feed to be accurately thrown to the designated area or position, meeting different feeding needs and environmental requirements, and avoiding the random scattering and waste of feed. This feeder adopts an integrated feeding and throwing structure so that the feeding and throwing processes can be seamlessly connected, without the need for complex conversion or connection steps between the two operations, greatly shortening the feeding time cycle, and increasing the number of feedings and feeding amount per unit time, thereby improving the overall feeding efficiency.

[0034] like Figure 5 and Figure 6As shown, in addition to the features of the above-mentioned embodiments, this embodiment further defines that: the feeding assembly 3 includes a feeding piece 31, a feeding housing 32 and a feeding motor 33, the feeding housing 32 is arranged on the barrel assembly 2, the feeding motor 33 is arranged on the feeding housing 32 and / or the barrel assembly 2, the feeding housing 32 is provided with a feeding channel 301, and the feeding piece 31 is arranged on the feeding motor 33 and is located in the feeding channel 301. By arranging the feeding housing 32 on the barrel assembly 2, the feeding motor 33 on the feeding housing 32 and / or the barrel assembly 2, and the feeding piece 31 on the feeding motor 33 and is located in the feeding channel 301 provided in the feeding housing 32, the barrel assembly 2 provides a stable installation and support platform for the feeding housing 32 and the feeding motor 33, reducing vibration and shaking during the operation of the equipment, ensuring that the feeding motor 33 can stably drive the feeding piece 31 to perform feeding action, making the feeding process more stable and continuous, and improving the stability and reliability of feeding. At the same time, the feeding member 31 is driven by the feeding motor 33, so that the feeding member 31 generates a driving force to transport the feed from one end of the feeding channel 301 to the other end. This conveying function is the basis for realizing automatic feeding and ensures that the feed can move in a preset direction and path. The user can also control the speed of the feeding motor 33 according to his actual needs to achieve the effect of fast or slow feed delivery.

[0035] like Figure 5 As shown, in addition to the features of the above-mentioned embodiment, this embodiment further defines that: the feeding member 31 includes a feeding fan 311 and a feeding shaft 312, the feeding shaft 312 is arranged on the feeding motor 33, the number of the feeding fan 311 is multiple, and the multiple feeding fan 311 is arranged around the feeding shaft 312. By arranging the feeding shaft 312 on the feeding motor 33, and surrounding the multiple arc-shaped feeding fan 311 on the feeding shaft 312, when the feeding motor 33 is started, the feeding shaft 312 is driven to rotate, and the feeding fan 311 installed on the feeding shaft 312 rotates accordingly. During the rotation process, the feeding fan 311 exerts a pushing effect on the feed, so that the feed moves along the set direction to realize the feeding function. Multiple feeding fan 311 are surrounded on the feeding shaft 312, so that during the rotation process of the feeding shaft 312, the feed can be continuously pushed forward, ensuring the continuity and stability of the feeding, and improving the feeding efficiency. At the same time, the arc shape of the feeding fan 311 can better contact with the feed and produce a pushing effect during rotation, and the pushing effect on the feed is more uniform and stable during rotation, reducing the phenomenon of feed jumping, accumulation or feed residue on the feeding fan 311 caused by sudden changes in the pushing force.

[0036] like Figure 5 and Figure 6As shown, in addition to the features of the above-mentioned embodiment, this embodiment further defines that: the feeding housing 32 includes a feeding upper housing 321 and a feeding lower housing 322, the feeding upper housing 321 is arranged on the barrel assembly 2 and wraps the feeding motor 33, and the feeding lower housing 322 is arranged on the feeding upper housing 321. By arranging the feeding lower housing 322 on the feeding upper housing 321 and arranging the feeding upper housing 321 on the feeding lower housing 322, a feeding channel 301 is formed, which provides a fixed and clear path for the movement of the feed, prevents the feed from being randomly dispersed or deviating from the preset route during the conveying process, ensures that the feed can be stably conveyed from the feed inlet to the discharge port, and improves the reliability and stability of the feeding process. By wrapping the feeding motor 33 with the feeding upper housing 321, dust can be prevented from entering the motor, and the motor can be prevented from affecting performance or malfunctioning due to dust accumulation. At the same time, it can also prevent moisture from penetrating into the motor to a certain extent, reduce the risks of motor short circuit, leakage, etc., and improve the reliability of the motor working in different environments.

[0037] like Figure 5 , Figure 6 and Figure 7As shown, in addition to the features of the above embodiments, this embodiment further defines: the material throwing component 4 includes a material throwing piece 41, a material throwing shell 42 and a material throwing motor 43, one end of the material throwing shell 42 is penetrated through the outer shell component 1 and is located at the discharge port 102, the other end of the material throwing shell 42 is arranged on the barrel component 2 and is arranged opposite to the feeding component 3, the material throwing shell 42 is provided with a material throwing channel 401, the material throwing motor 43 is arranged on the material throwing shell 42 and / or the barrel component 2, and the material throwing piece 41 is arranged on the material throwing motor 43 and is located in the material throwing channel 401. By arranging the throwing motor 43 on the throwing shell 42 and / or the barrel assembly 2, one end of the throwing shell 42 is arranged on the barrel assembly 2, and the other end of the throwing shell 42 is arranged on the outer shell assembly 1 and located at the discharge port 102, firstly, the throwing motor 43 is arranged on the throwing shell 42 and / or the barrel assembly 2, which provides a solid and stable installation foundation for the throwing motor 43, ensures that the throwing motor 43 maintains a stable position and posture during operation, and reduces operating errors and faults caused by motor vibration or shaking; secondly, one end of the throwing shell 42 is arranged on the barrel assembly 2, and the other end is arranged on the outer shell assembly 1 and located at the discharge port 102, which makes full use of the space inside the feeder, makes the layout between the throwing assembly 4 and the feeding assembly 3 more reasonable and compact, and reduces the overall space occupancy of the equipment. Since the throwing member 41 is arranged on the throwing motor 43 and is located in the throwing channel 401, the throwing motor 43 can drive the throwing member 41 to throw the feed in the throwing channel 401, so that the feed can be evenly dispersed in the feeding field, avoiding the phenomenon of concentrated accumulation or uneven distribution of feed during the throwing process. In addition, because the throwing shell 42 and the feeding shell 32 adopt a non-contact suspended structure, there will be no overlap or interference between the two, which effectively avoids the feeding component 3 interfering with the accuracy of weighing.

[0038] like Figure 7As shown, in addition to the features of the above-mentioned embodiments, this embodiment further defines: the throwing member 41 includes a throwing fan 411 and a throwing shaft 412, the throwing shaft 412 is arranged on the throwing motor 43, the number of the throwing fan 411 is multiple, the multiple throwing fan 411 is arc-shaped, and the multiple throwing fan 411 is arranged around the throwing shaft 412. By setting the throwing material shaft 412 on the throwing material motor 43, and evenly surrounding the throwing material fan blades 411 on the throwing material shaft 412, the power of the throwing material motor 43 is transmitted to the throwing material fan blades 411 through the throwing material shaft 412. The throwing material shaft 412 provides a stable support and rotation axis for the throwing material fan blades 411, ensuring that the power can be effectively converted into the rotational motion of the throwing material fan blades 411, thereby generating sufficient centrifugal force and thrust to throw the feed quickly and forcefully. At the same time, multiple throwing material fan blades 411 are evenly surrounded on the throwing material shaft 412, so that during the rotation process, the feed can be subjected to a uniform force. This uniform power distribution helps the feed to be thrown at a more consistent speed and direction, thereby ensuring the uniformity and stability of the throwing material, and avoiding the situation where the feed is concentrated in a certain area or the throwing material is uneven. Since the throwing fan blade 411 is arc-shaped, the arc shape enables the throwing fan blade 411 to fit the feed more closely when rotating, thereby achieving continuous push and transportation of the feed, and can throw the feed farther and more evenly, thereby increasing the throwing range and coverage area, and meeting feeding needs at different distances and areas.

[0039] like Figure 3 , Figure 6 and Figure 7As shown, in addition to the features of the above-mentioned embodiment, this embodiment further defines that: the throwing shell 42 includes an upper throwing shell 421 and a lower throwing shell 422, the upper throwing shell 421 is arranged on the barrel assembly 2 and wraps the throwing motor 43, and the lower throwing shell 422 is arranged on the upper throwing shell 421 and penetrates the housing assembly 1 and is located at the discharge port 102. The channel arranges the upper throwing shell 421 on the barrel assembly 2 and wraps the throwing motor 43. On the one hand, the barrel assembly 2 has a certain structural strength and stability. The upper throwing shell 421 is installed on the barrel assembly 2, which can provide a stable support foundation for the upper throwing shell 421, reduce its vibration and shaking during work, ensure the normal operation of the motor, and improve the accuracy and stability of throwing. On the other hand, the upper throwing shell 421 wraps the throwing motor 43, which can effectively prevent external objects from hitting and bumping the throwing motor 43, avoid the motor from being damaged due to external force during use, and extend the service life of the throwing motor 43. The lower shell 422 for throwing materials is arranged on the upper shell 421 for throwing materials to form a complete throwing channel 401. At the same time, the lower shell 422 for throwing materials is penetrated through the outer shell assembly 1 and is located at the discharge port 102, which provides a clear movement path for the feed, so that the feed can be thrown according to the preset direction and trajectory, ensuring that the feed can be accurately delivered to the target position, improving the accuracy and precision of the throwing material, and meeting the requirements for the feed throwing position in different application scenarios.

[0040] like Figure 1 , Figure 2 and Figure 4As shown, in addition to the features of the above embodiments, this embodiment further defines: the barrel assembly 2 includes a barrel shell 21, a discharge hopper 22 and a weighing assembly 23, the weighing assembly 23 is arranged on the outer shell assembly 1, the barrel shell 21 is arranged on the weighing assembly 23, the discharge hopper 22 is arranged on the barrel shell 21, the barrel shell 21 and the recess of the discharge hopper 22 form a storage cavity 201, and the discharge hopper 22 is provided with a discharge channel 202. By setting the weighing component 23 on the outer shell component 1, a stable support is provided for the barrel component 2, the barrel shell 21 is set on the weighing component 23 and the discharge funnel 22 is set on the barrel shell 21, and at the same time, the notches of the barrel shell 21 and the discharge funnel 22 form a storage chamber 201. On the one hand, the barrel shell 21 is placed on the weighing component 23, so that the weight of the feed in the barrel component 2 can be measured in real time and accurately. When feed is added into the barrel component 2 or feed is discharged during feeding, the weighing component 23 can accurately sense the weight change and realize accurate metering of the feed, which is helpful to control the feeding amount and monitor the feed consumption. On the other hand, the storage chamber 302 enables the feed to be stored in a centralized manner, which is convenient for management and control of the flow of the feed. Since the storage chamber 201 is connected to the discharge channel 202, the feed is more stable and orderly during the discharge process. At the same time, the storage chamber 201 is located in the accommodating chamber 101, which can effectively prevent the leakage and scattering of feed during storage and unloading, avoid the pollution and waste of the surrounding environment by the feed, maintain the cleanliness of the working area, and can also isolate external impurities, dust and moisture from entering the storage chamber 201 to a certain extent, thereby ensuring the quality and purity of the feed, reducing the risk of feed contamination, and ensuring the safety and hygiene of feeding.

[0041] like Figure 3 and Figure 4As shown, in addition to the features of the above-mentioned embodiment, this embodiment further defines that: the housing assembly 1 includes a housing 11, a base 12 and an upper cover 13, the housing 11 is arranged on the base 12, the upper cover 13 is arranged on the housing 11, the housing 11, the base 12 and the upper cover 13 are enclosed to form a receiving chamber 101, the housing 11 is provided with a feeding port 102, and the barrel assembly 2 is arranged on the housing 11. By arranging the housing 11 on the base 12 and the upper cover 13 on the housing 11, the receiving chamber 101 is enclosed to form, which provides protection for the components inside the feeder, can isolate external dust, water vapor, corrosive substances, etc., prevent these factors from entering the internal erosion and damage the components, help to extend the service life of the internal components, and ensure the stable performance of the feeder. At the same time, the stable structure formed by the housing 11, the base 12 and the upper cover 13 provides a foundation for the installation and fixing of the internal components such as the barrel assembly 2, so that each component can be accurately installed in a predetermined position, and maintain a stable position and relative relationship during the operation of the device, reducing the component misalignment or loose connection caused by vibration or movement. Since the outer shell 11 is provided with a discharge port 102, it is ensured that the feed can fall accurately in a preset direction and position after coming out of the feeder, thereby preventing the feed from being scattered randomly or deviating from the target area, making the feed transportation more accurate and orderly. At the same time, the operator can intuitively observe the throwing component 4 arranged at the discharge port 102, and can see the flow state, discharge speed and discharge amount of the feed, so as to timely discover problems such as feed blockage, uneven discharge, etc. and make adjustments and treatments, thereby realizing effective monitoring of the feeding process.

[0042] like Figure 2 and Figure 4 As shown, in addition to the features of the above-mentioned embodiment, this embodiment is further defined as follows: it also includes a control component 5, which is arranged on the barrel component 2 and located in the accommodating chamber 101. By arranging the control component 5 on the barrel component 2 and in the accommodating chamber 101, the spatial layout is more reasonable, the connection lines between the components are shorter and simpler, the complexity and cost of the line layout are reduced, and the integration and integrity of the device are improved. At the same time, the accommodating chamber 101 provides a relatively closed environment for the control component 5, avoiding the influence of external collisions, water vapor and dust, ensuring the stable operation of the control component 5, extending the service life of the control component 5, and improving the market competitiveness of the feeder to a certain extent.

[0043] The technical features of the above-described embodiments may be arbitrarily combined. To make the description concise, not all possible combinations of the technical features in the above-described embodiments are described. However, as long as there is no contradiction in the combination of these technical features, they should be considered to be within the scope of this specification.

[0044] The above-mentioned embodiments only express several implementation methods of the utility model, and the description is relatively specific and detailed, but it cannot be understood as limiting the scope of the utility model patent. It should be pointed out that for ordinary technicians in this field, several modifications and improvements can be made without departing from the concept of the utility model, which all belong to the protection scope of the utility model. Therefore, the protection scope of the utility model patent shall be based on the attached claims.

Claims

1. A feeder, characterized in that: The feeder comprises: A housing component (1), wherein the housing component (1) is provided with a receiving cavity (101) and a feeding port (102); A barrel assembly (2), the barrel assembly (2) being arranged on the housing assembly (1) and located in the accommodating cavity (101), the barrel assembly (2) being provided with a material storage cavity (201), and the barrel assembly (2) being provided with a material discharge channel (202) communicating with the material storage cavity (201); A feeding assembly (3), the feeding assembly (3) being arranged on the barrel assembly (2), the feeding assembly (3) being located in the accommodating cavity (101), the feeding assembly (3) being provided with a feeding channel (301), the feeding channel (301) being in communication with the feeding channel (202); A throwing assembly (4), wherein the throwing assembly (4) is arranged on the shell assembly (1) or the barrel assembly (2) or the feeding assembly (3), and the throwing assembly (4) is provided with a throwing channel (401), wherein the throwing channel (401), the feeding channel (301) and the discharge channel (202) are connected in sequence, and a part of the throwing assembly (4) passes through the discharge port (102) and extends to the outside of the shell assembly (1), or the throwing channel (401) of the throwing assembly (4) is connected to the discharge port (102).

2. The feeder according to claim 1, characterized in that The feeding assembly (3) comprises a feeding piece (31), a feeding shell (32) and a feeding motor (33); the feeding shell (32) is arranged on the barrel assembly (2); the feeding motor (33) is arranged on the feeding shell (32) and / or the barrel assembly (2); the feeding shell (32) is provided with the feeding channel (301); the feeding piece (31) is arranged on the feeding motor (33) and is located in the feeding channel (301).

3. The feeder according to claim 2, characterized in that The feeding member (31) comprises a feeding fan (311) and a feeding rotating shaft (312); the feeding rotating shaft (312) is arranged on the feeding motor (33); there are a plurality of feeding fan (311), and the plurality of feeding fan (311) are arranged around the feeding rotating shaft (312).

4. The feeder according to claim 2, characterized in that: The feeding shell (32) comprises an upper feeding shell (321) and a lower feeding shell (322); the upper feeding shell (321) is arranged on the barrel assembly (2) and wraps the feeding motor (33); the lower feeding shell (322) is arranged on the upper feeding shell (321).

5. The feeder according to claim 1, characterized in that: The material throwing assembly (4) comprises a material throwing piece (41), a material throwing shell (42) and a material throwing motor (43); one end of the material throwing shell (42) is passed through the outer shell assembly (1) and is located at the material discharge port (102); the other end of the material throwing shell (42) is arranged on the barrel assembly (2) and is arranged opposite to the feeding assembly (3); the material throwing shell (42) is provided with the material throwing channel (401); the material throwing motor (43) is arranged on the material throwing shell (42) and / or the barrel assembly (2); the material throwing piece (41) is arranged on the material throwing motor (43) and is located in the material throwing channel (401).

6. The feeder according to claim 5, characterized in that The material throwing member (41) comprises a material throwing fan blade (411) and a material throwing rotating shaft (412); the material throwing rotating shaft (412) is arranged on the material throwing motor (43); there are a plurality of material throwing fan blades (411); the plurality of material throwing fan blades (411) are arc-shaped; and the plurality of material throwing fan blades (411) are arranged around the material throwing rotating shaft (412).

7. The feeder according to claim 5, characterized in that The material throwing shell (42) comprises an upper material throwing shell (421) and a lower material throwing shell (422); the upper material throwing shell (421) is arranged on the barrel assembly (2) and wraps the material throwing motor (43); the lower material throwing shell (422) is arranged on the upper material throwing shell (421) and penetrates the outer shell assembly (1) and is located at the discharge port (102).

8. The feeder according to claim 1, characterized in that The barrel assembly (2) comprises a barrel shell (21), a discharge hopper (22) and a weighing assembly (23); the weighing assembly (23) is arranged on the outer shell assembly (1); the barrel shell (21) is arranged on the weighing assembly (23); the discharge hopper (22) is arranged on the barrel shell (21); the barrel shell (21) and the recess of the discharge hopper (22) form the storage cavity (201); the discharge hopper (22) is provided with the discharge channel (202).

9. The feeder according to claim 1, characterized in that: The shell assembly (1) comprises a shell (11), a base (12) and an upper cover (13); the shell (11) is arranged on the base (12); the upper cover (13) is arranged on the shell (11); the shell (11), the base (12) and the upper cover (13) together form the accommodating cavity (101); the shell (11) is provided with the discharge port (102); and the barrel assembly (2) is arranged on the shell (11).

10. The feeder according to claim 1, characterized in that It also includes a control component (5), which is arranged on the barrel component (2) and located in the accommodating chamber (101).

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