A material storage device and a pore sleeve inlaying device including the material storage device

Abstract

A material storage device includes: a material storage part, the material storage part includes at least one material pipe, an upper material tray is installed at the upper end of the material pipe, a lower material tray is installed at the lower end of the material pipe, a feed hole is arranged in the upper material tray, the feed hole is communicated with the internal channel of the material pipe, and a discharge hole is arranged in the lower material tray, the discharge hole is communicated with the internal channel of the material pipe; a material tray rotating part, the material tray rotating part includes a rotating body, a driving device and a fixed seat, the material storage part is connected to the fixed seat, the rotating body is rotatably arranged in the fixed seat, and rotates relative to the material storage part by the driving of the driving device, wherein a conveying pipe is also arranged in the rotating body, and as the rotating body rotates, one end of the conveying pipe can be selectively connected to or staggered with the discharge hole of the lower material tray. Through the material storage device, the conveying of parts can be realized efficiently. Also disclosed is an air hole sleeve inlay device including the material storage device.

Description

Technical Field

[0001] The present invention relates to a material storage device, which can store materials such as air hole sleeves, and further relates to an air hole sleeve embedding device which can include the material storage device. Background Art

[0002] In the production process of tires, a series of processes are performed on rubber materials to achieve tire embryo molding. After the tire embryo is molded, the tire embryo needs to be vulcanized. During the vulcanization process, the air in the inner cavity of the tire mold needs to be discharged. The commonly used method at present is to set an exhaust hole on the tire mold, and the air in the tire mold is directly discharged through the exhaust hole. The exhaust hole is formed by a method such as drilling.

[0003] During the vulcanization of the tire blank, it was found that only providing vent holes for exhaust would cause some problems. For example, during the process of exhausting air from the tire mold, the rubber material used to form the tire is under high temperature and high pressure conditions. At this time, a part of the raw rubber that has not been vulcanized will be squeezed out through the vent holes onto the outer surface of the tire mold. These extruded rubber materials will form rubber hair on the tire tread. When the tire is removed, some of the rubber hair will break in the vent holes, thereby blocking the vent holes. In this way, the exhaust performance of the tire mold is affected in the subsequent production process. In order to ensure the quality of the final tire product, it is necessary to provide an additional process to remove the rubber hair formed on the tire. Therefore, the manufacturing process of the tire becomes complicated.

[0004] In order to avoid this situation, one solution is to arrange an exhaust device in the exhaust hole, for example, one form of the exhaust device is a pore sleeve, which is embedded in the exhaust hole. The structure of the pore sleeve is arranged to allow the air in the tire mold to be discharged, but when the rubber in the mold contacts the pore sleeve, the pressure of the rubber closes the pore sleeve, thereby preventing the rubber from being extruded through the pore sleeve to the surface of the tire mold.

[0005] Under existing technical conditions, the pore sleeve is manually inlaid on the tire mold, such as inlaying the pattern block or side plate of the tire mold. The quality of manual inlay varies from person to person, the technical experience of the operator is very high, and the efficiency of the inlay operation is relatively low.

[0006] Therefore, there is a need for a pore sleeve setting device capable of performing a pore sleeve setting operation, which can efficiently perform the pore sleeve setting operation. Summary of the invention

[0007] The present invention is made based on the above problems existing in the prior art. The purpose of the present invention is to provide a pore sleeve inlaying device which can efficiently perform pore sleeve inlaying operations.

[0008] The above-mentioned object of the present invention is achieved by a storage device. The storage device comprises:

[0009] A material storage part, the material storage part includes at least one material pipe, an upper material tray is installed at the upper end of the material pipe, a lower material tray is installed at the lower end of the material pipe, a feed hole is arranged in the upper material tray, the feed hole is communicated with the internal channel of the material pipe, and a discharge hole is arranged in the lower material tray, the discharge hole is communicated with the internal channel of the material pipe;

[0010] The tray rotating part includes a rotating body, a driving device and a fixed seat. The material storage part is connected to the fixed seat. The rotating body is rotatably arranged in the fixed seat and rotates relative to the material storage part through the driving of the driving device.

[0011] A conveying pipe is also arranged in the rotating body. As the rotating body rotates, one end of the conveying pipe can be selectively connected to or staggered with the discharge hole of the discharge tray.

[0012] The material storage device with the above structure can realize efficient output of parts. When the material storage device is used in a pore sleeve inlaying device as a part thereof, efficient execution of the pore sleeve inlaying operation can be realized.

[0013] Preferably, a connecting piece is further provided at the bottom of the material tray, and the material tray can be relatively rotatably connected to the connecting piece, and the connecting piece includes an outlet hole, and as the material tray and the connecting piece rotate relative to each other, the outlet hole can be selectively connected to or staggered with the material discharge hole. By providing the connecting piece, the material storage part can be quickly installed on the rotating part of the material tray.

[0014] When the material storage part is mounted on the rotating part of the material tray, the outlet hole is communicated with one end of the conveying pipe.

[0015] Preferably, a protrusion is provided at the center of the connecting piece, a central hole is provided in the feeding tray, the protrusion fits in the central hole, and a bearing is provided between the protrusion and the inner wall of the central hole, thereby realizing a rotatable connection between the feeding tray and the connecting piece.

[0016] Preferably, a first seal and a second seal are provided between the feed tray and the connecting piece, and the discharge hole of the feed tray is located between the first seal and the second seal. The provision of these two seals prevents gas leakage from occurring at the connection portion between the feed tray and the connecting piece during the process of conveying parts in the feed pipe.

[0017] Preferably, an anti-rotation device is detachably provided between the material tray and the connecting member to fix the rotational position between the material tray and the connecting member. The anti-rotation device can prevent the parts in the material tube from accidentally falling out before the material storage part is installed on the rotating part of the material tray, and after installation, the anti-rotation device can be removed to allow the relative rotation between the material tray and the connecting member.

[0018] Preferably, the other end of the delivery pipe is located on the rotation axis of the rotating body. In this way, the rotation of the rotating body will not affect the position of the output end of the delivery pipe, thereby simplifying the docking structure between the delivery pipe and the pipeline in the downstream device.

[0019] Preferably, the driving device drives the rotating body to rotate through a transmission assembly, and the transmission assembly includes a first pulley mounted on the rotating body, a second pulley mounted on the output shaft of the driving device, and a belt connected between the first pulley and the second pulley. In addition, the transmission assembly may also include other known structures, such as a gear train, a sprocket-chain structure, etc.

[0020] Preferably, the material storage device further comprises a blowing part as a power source for conveying the parts in the material pipe. The blowing part comprises:

[0021] An air blowing interface portion, the air blowing interface portion is arranged on the loading tray, a first air flow passage is formed between the air blowing interface portion and the loading tray, and the first air flow passage is connected to the feeding hole of the loading tray; and

[0022] A blowing connector is arranged on the blowing interface portion, a second air flow passage is formed in the blowing connector, the second air flow passage is connected to the first air flow passage, and a blowing interface is also arranged on the blowing connector, the blowing interface extends from the outer surface of the blowing connector to the second air flow passage, and is connected to an external compressed air source.

[0023] Preferably, a sealing ring is provided between the air blowing interface and the loading tray, and the sealing ring is located outside the air flow passage.

[0024] Preferably, a first sealing ring and a second sealing ring are provided between the material discharge tray and the connecting member, and a discharge hole of the material discharge tray is located between the first sealing ring and the second sealing ring.

[0025] Preferably, the blowing part further comprises an actuating mechanism, such as a cylinder, etc., which is connected to the blowing connecting piece and is used to apply a pressing force on the blowing connecting piece. The pressing force applied by the actuating mechanism helps to fix the components of the storage device tightly together, thereby providing additional rigidity and stability for the storage device.

[0026] Regarding the connection between the storage part and the fixed seat, a specific structure is that at least one pin is provided on the fixed seat, and at least one hole corresponding to the at least one pin is provided on the unloading tray of the storage part, and the pin cooperates with each other to realize the connection between the storage part and the fixed seat. In addition, the connection can also take other forms, such as limiting protrusions, meshing teeth, etc. Through such a connection method, the relative movement between the storage part and the fixed seat can be limited, which is convenient for replacing the storage part, thereby reducing downtime.

[0027] The present invention also provides a pore sleeve embedding device, which may include the material storage device as described above. BRIEF DESCRIPTION OF THE DRAWINGS

[0028] The accompanying drawings show non-limiting preferred implementation structures of the present invention, and the features and advantages of the present invention can be more clearly seen in conjunction with the accompanying drawings.

[0029] Figure 1 A perspective view of a material storage device according to the present invention is shown.

[0030] Figure 2 Shows Figure 1 A three-dimensional view of the storage portion of the storage device shown.

[0031] Figure 3 Shows Figure 2 A cross-sectional view of the storage section is shown.

[0032] Figure 4 A top perspective view of a connection in a storage section is shown.

[0033] Figure 5 Shows Figure 4 A bottom perspective view of a connecting piece.

[0034] Figure 6 A three-dimensional view of a blowing interface portion for installation on a loading tray is shown.

[0035] Figure 7 Shows Figure 1 The shown sectional view of the material storage device includes the upper part of the material storage part and the blowing part.

[0036] Figure 8 Shows Figure 1 A cross-sectional view of the rotating part of the material tray of the storage device is shown.

[0037] Fig. 9 Shows Figure 8 A three-dimensional view of the rotating part of the feed tray is shown. DETAILED DESCRIPTION

[0038] The specific embodiments of the present invention will be described below with reference to the accompanying drawings. It should be understood that the drawings only show preferred embodiments of the present invention and do not limit the scope of the present invention. Those skilled in the art can make various obvious modifications, variations, and equivalent substitutions to the present invention based on the embodiments shown in the drawings, and the technical features in the described embodiments can be combined arbitrarily without contradiction, and all of these fall within the scope of protection of the present invention.

[0039] In the disclosure of the present invention, the terms "upper", "lower" and the like used to indicate direction or orientation are based on the orientation of the device when in use.

[0040] Figure 1 The perspective view of the material storage device 10 according to the present invention is shown. The material storage device 10 can be used for example in a pore sleeve embedding device, so that the pore sleeve 20 can be stored in the material storage device 10, and the material storage device 10 can transport the pore sleeve 20 stored therein to a component located downstream of the process in the pore sleeve embedding device for embedding the pore sleeve. Of course, the material storage device 10 of the present invention can also be used to store other types of parts, and correspondingly applied to other types of devices, which is also included in the scope of the present invention.

[0041] exist Figure 1 In the structure shown, the material storage device 10 of the present invention includes a material storage part 100, an air blowing part 200 and a material tray rotating part 300. The structures of these components of the material storage device 10 will be described in detail below.

[0042] <Storage section>

[0043] Figure 2 1 shows a perspective view of the material storage part 100, wherein the material storage part 100 includes a material pipe 110, an upper material tray 120 and a lower material tray 130. The material pipe 110 has an air inlet end 111 and a material outlet end 112, the upper material tray 120 is mounted on the air inlet end 111 of the material pipe 110, and the lower material tray 130 is mounted on the material outlet end 112 of the material pipe 110.

[0044] The number of the material pipe 110 may be one, or two or more material pipes 110 may be included. The specific number of the material pipes 110 is set according to actual production requirements. In the case of including two or more material pipes 110, these material pipes 110 may be arranged in the circumferential direction. The material pipe 110 is preferably in the shape of a straight pipe, so that the friction of the air hole sleeve 20 during the transportation process in the material pipe 110 can be reduced. Of course, other shapes of material pipes 110 may also be selected, such as an arc-shaped pipe, etc., as long as the shape of the material pipe 110 does not significantly hinder the discharge of the air hole sleeve 20 from the material pipe 110. The inner diameter of the material pipe 110 is set to be slightly larger than the outer diameter of the air hole sleeve 20, so that multiple air hole sleeves 20 can be arranged in sequence in the material pipe 110 without being stuck in the material pipe 110 or between the inner wall of the material pipe 110 and another material pipe 110.

[0045] In a preferred structure, the gas inlet end 111 of the material pipe 110 is inserted into the loading tray 120. The loading tray 120 is provided with at least one, preferably a plurality of feeding holes 121, the number of which preferably corresponds to or is consistent with the number of the material pipes 110, and the feeding holes 121 are connected to the internal passage of the material pipe 110, so that the gas can be conveyed into the material pipe 110 through the feeding holes 121, and the parts stored in the material pipe 110 can be driven to move downward and then discharged from the material pipe 110. The material pipe 110 can also be connected to the loading tray 120 in other ways, such as by welding, gluing, etc., and the feeding holes 121 of the loading tray 120 are aligned with the internal passage of the material pipe 110.

[0046] Similar to the upper material tray 120, the connection between the material tube 110 and the lower material tray 130 may also be achieved by inserting, welding, gluing, etc. Moreover, the connection between the material tube 110 and the upper material tray 120 may be the same as the connection between the material tube 110 and the lower material tray 130, or may be different. The lower material tray 130 is respectively provided with at least one, preferably a plurality of discharge holes 131, and the number of the discharge holes 131 corresponds to the number of the material tubes 110. The discharge holes 131 are connected to the internal channel of the material tube 110, so that the parts stored in the material tube 110 can be discharged through the discharge holes 131.

[0047] A connecting member 140 is further disposed below the lower material tray 130, or in other words, the connecting member 140 is disposed at the bottom of the lower material tray 130. The lower material tray 130 can rotate relative to the connecting member 140. Figure 3 2 is a longitudinal cross-sectional view of a preferred structure of the material storage part 100, from which the connecting piece 140 arranged at the bottom of the material discharge tray 130 can be more clearly seen. Figure 4 and Figure 5 A top view and a bottom view of the connecting member 140 are respectively shown.

[0048] As shown in the figure, the connecting member 140 is provided with an outlet hole 141. After the lower material tray 130 rotates a certain angle relative to the connecting member 140, the outlet hole 131 on the lower material tray 130 can be aligned with the outlet hole 141 on the connecting member 140, thereby allowing the discharge of parts such as the pore sleeve 20. When the lower material tray 130 is further rotated relative to the connecting member 140, the outlet hole 141 of the connecting member 140 will be staggered with the outlet hole 131 of the lower material tray 130, so that the connecting member 140 blocks the outlet hole 131, and restricts the pore sleeve 20 from coming out of the material pipe 110. The rotation of the lower material tray 130 relative to the connecting member 140 can be achieved by providing a rolling mechanism (not shown).

[0049] Figure 3 The cross-sectional view of FIG. 1 shows a preferred structure of the storage part 100. The connecting member 140 includes a protrusion 142 located at the center thereof, and the unloading tray 130 includes a central hole, the protrusion 142 is inserted into the central hole, and a bearing 143 is preferably provided between the protrusion 142 and the inner wall of the central hole. The provision of the bearing 143 allows the unloading tray 130 to rotate relative to the connecting member 140 to selectively open and close the discharge hole 131 of the unloading tray 130.

[0050] Further preferably, if Figure 3 As shown in the figure, a sealing ring may be provided between the material tray 130 and the connecting member 140, preferably two sealing rings, namely the first sealing ring 144 and the second sealing ring 145 shown in the figure, and the material discharge hole 131 of the material tray 130 is located between the first sealing ring 144 and the second sealing ring 145. Alternatively, multiple sealing rings may be provided inside and / or outside the material discharge hole 131 of the material tray 130. Thus, during the process of pneumatically conveying the parts in the material pipe 110, gas leakage is avoided, and gas leakage may reduce the conveying capacity of the parts in the material pipe 110.

[0051] <Blowing part>

[0052] Back to Figure 1 The material storage device 10 of the present invention further comprises a blowing part 200, which is specifically associated with the loading tray 120 of the material storage part 100. The blowing part 200 comprises a blowing interface 210, a blowing connection piece 220 and an actuating mechanism such as a cylinder 230.

[0053] Figure 6 A three-dimensional view of the air blowing interface portion 210 is shown. Figure 7The cross-sectional view of the storage device 10 including the loading tray 120 and the blowing part 200 disposed on the loading tray 120 is shown. As shown in the figure, the blowing interface part 210 is preferably disc-shaped and carried on the loading tray 120, and an air flow passage 211 is formed between the lower surface of the blowing interface part 210 and the upper surface of the loading tray 120 including at least the feed hole 121, so as to allow the gas from the blowing part 200 to be blown into the internal channel of the material pipe 110 through the feed hole 121. Preferably, a sealing ring 212 is provided between the blowing interface part 210 and the loading tray 120, and the sealing ring 212 can be located outside the air flow passage 211 to prevent gas leakage at the contact position between them.

[0054] The air blowing connector 220 is installed on the air blowing interface portion 210 by means such as press fitting, so as to facilitate the replacement of the material storage portion, and a sealing member such as a sealing gasket 222 may also be preferably provided between the air blowing connector 220 and the air blowing interface portion 210, so as to prevent gas leakage at the connection portion between the air blowing connector 220 and the air blowing interface portion 210. Alternatively, in another specific structure, the air blowing connector 220 may be integrally formed with the air blowing interface portion 210.

[0055] The air blowing connector 220 includes an air flow passage 221, which is connected to the air flow passage 211 between the air blowing interface portion 210 and the loading tray 120. The air blowing connector 220 is also provided with an air blowing interface 223, which extends inward from the outer surface of the air blowing connector 220 to be connected to the air flow passage 221. In addition, the air blowing interface 223 is connected to an external compressed air source, so that the gas from the external compressed air source can be blown into the air flow passage 221. The gas from the external compressed air source can push the parts stored in the material pipe 110 to move downward.

[0056] The air cylinder 230 is connected to the air blowing connector 220 and is used to actuate the air blowing connector 220. Specifically, the air cylinder 230 can move the air blowing connector 220 downward, thereby making the air blowing connector 220 contact and pressurize with the air blowing interface portion 210. In this way, the upper end of the storage device 10 can be fixed and supported, thereby the various components of the storage device 10 can be pressed together. This is particularly advantageous for the storage device 10 having a higher height, because the force applied by the air cylinder 230 on the air blowing connector 220 can provide additional rigidity and stability. In addition, in the process of replacing the material pipe 110, the pressing effect of the air cylinder 230 can conveniently fix the material pipe 110 to the upper material tray 120 and the lower material tray 130, and realize the sealing between adjacent components.

[0057] Of course, the cylinder 230 is also an optional component. The various components of the storage device 10 can be installed together by structures such as bolts, and sealing members can be arranged between the components to achieve sealing.

[0058] <Tray rotating part>

[0059] The material storage device 10 of the present invention preferably further includes a material tray rotating part 300 . Figure 8 A cross-sectional view of the rotating part 300 of the material tray is shown. Fig. 9 A perspective view of the tray rotating part 300 is shown.

[0060] As can be seen from the figure, the tray rotating part 300 includes a rotating body 310, in which a conveying pipe 311 is arranged. The rotating body 310 is connected to the connecting member 140 in a relatively static manner. The connection is preferably a detachable connection. For example, in the specific structure shown in the figure, the column pin 312 arranged on the rotating body 310 is connected to the hole 147 (see Figure 5 ) to achieve the connection, and the pin 312 may be one or more. Alternatively, other connection methods may be adopted. For example, a limiting protrusion is provided on one of the rotating body 310 and the connecting member 140, and a limiting groove that cooperates with the limiting protrusion is provided on the other of the rotating body 310 and the connecting member 140; or teeth that can mesh with each other may be provided on the rotating body 310 and the connecting member 140, etc., as long as the relative movement, such as relative rotation, between the rotating body 310 and the connecting member 140 can be limited. In this way, when replacing the storage part 100, the old storage part 100 can be easily removed, and then the newly replaced storage part 100 can be installed. Furthermore, when the rotating body 310 and the connecting member 140 are connected together, one end of the conveying pipe 311 is connected to the outlet hole 141 of the connecting member 140 , so that when the rotating body 310 and the connecting member 140 rotate together, one end of the conveying pipe 311 can be connected to or staggered with the material pipe 110 along with the outlet hole 141 of the connecting member 140 .

[0061] Preferably, the other end of the delivery pipe 311 (i.e., located at Figure 8 The outlet end below the rotating body 310 is arranged to be located at the axial center of the rotating body 310, or roughly on the rotation axis of the rotating body 310. In this way, no matter how the rotating body 310 rotates, the outlet position of the conveying pipe 311 will not change, thereby simplifying the docking structure between the tray rotating part 300 and the subsequent device.

[0062] The tray rotating part 300 further includes a driving device 320, such as a servo motor, etc. A transmission assembly is provided between the rotating body 310 and the driving device 320 to transmit the driving force of the driving device 320 to the rotating body 310 so that the rotating body 310 rotates.

[0063] Specifically, in the preferred structure shown in the figure, the transmission assembly includes a first pulley 331 mounted on the rotating body 310, a second pulley 332 connected to the output shaft of the driving device 320, and a belt 333 connected between the first pulley 331 and the second pulley 332. Preferably, the first pulley 331 and the second pulley 332 are synchronous pulleys, and the belt 333 is a synchronous belt accordingly.

[0064] The tray rotating part 300 is supported in the fixed seat 400. Figure 8 As shown in FIG. 1 , the fixed seat 400 includes a space for rotatably accommodating the rotating body 310, and the rotating body 310 is rotatably supported in the space of the fixed seat 400 through a bearing 410. The driving device 320 is fixed to the fixed seat 400 by fasteners such as screws.

[0065] Through the fixing seat 400 , the material storage device 10 can be fixedly installed on a device such as a pore sleeve embedding device, become a part of the device, and move with the device.

[0066] The bottom of the storage part 100, such as the material tray 130, can be connected to the fixed seat 400, for example, by the matching between the pin 420 on the fixed seat 400 and the corresponding hole (not shown) in the material tray 130 to achieve the connection, wherein the pin 420 can be one or more. The setting positions of the pin 420 and the hole can be interchangeable, that is, the pin 420 can be set on the material tray 130, and the corresponding hole can be set on the fixed seat 400. In addition, as described above, other connection methods can also be adopted, such as limiting protrusions, teeth, etc.

[0067] Further preferably, in order to prevent the connecting member 140 and the unloading tray 130 from rotating relative to each other until the outlet hole 141 and the discharge hole 131 are aligned before the material storage part 100 is connected to the material tray rotating part 300 and the fixing seat 400, thereby preventing the parts in the material pipe 110 from accidentally falling out, an anti-rotation device 146 is provided between the connecting member 140 and the unloading tray 130 (see Figure 3 ), such as pins, etc., to fix the relative position between the lower material tray 130 and the connecting member 140 at a position where the outlet hole 141 and the discharge hole 131 are staggered from each other. After the storage part 100 is installed, the anti-rotation device 146 can be removed.

[0068] Preferably, an exemplary use of the storage device 10 of the present invention is as follows: each set of inlay equipment is provided with a plurality of storage parts 100, in which pore sleeves can be stored in advance, and when the pore sleeves in the storage part 100 being used on the device are used up, the next storage part 100 can be replaced in time, thereby reducing the downtime of the pore sleeve inlay equipment. In addition, the bottom of the storage part 100, such as the unloading tray 130, is matched with the corresponding hole (not shown) in the unloading tray 130 through the pin 420 on the fixed seat 400, so as to achieve connection with the fixed seat 400, the rotating body 310 and the connecting member 140 are connected by the pin 312 arranged on the rotating body 310 and the hole 147 on the connecting member 140, and the cylinder is connected to the blowing connecting member and is used to apply a pressing force on the blowing connecting member. Such a connection mode can further facilitate the replacement of the storage part 100 and reduce the downtime of the pore sleeve inlay equipment.

[0069] The preferred embodiments of the present invention are described above in conjunction with the accompanying drawings. However, the scope of the present invention is not limited to the specific structures described above, but obvious modifications can be made based on the preferred structures described above.

[0070] For example, in the preferred embodiment described above, a connector 140 is provided at the bottom of the lower material tray 130, which can facilitate the replacement of the storage part. However, the connector 140 is optional, and the lower material tray 130 can also directly face the rotating body 310 of the tray rotating part 300, as long as care is taken not to drop the parts stored in the storage part 100 when the storage part 100 is installed on the tray rotating part 300, or the parts can be loaded into the storage part 100 after the storage part 100 is installed on the tray rotating part 300.

[0071] In the preferred embodiment described above, the material pipe 110, the upper material tray 120 and the lower material tray 130 of the material storage part 100 are pressed together by the force applied by the cylinder 230. In addition, the connection between the material pipe 110, the upper material tray 120 and the lower material tray 130 can also be other ways known in the art, such as screw connection, welding, etc., so that the cylinder 230 can be omitted.

[0072] The present invention is also provided with a control device (not shown) for realizing automatic or semi-automatic control of the operation of the storage device 10. Specifically, the control device can be used to control the operation of the driving device 320 to control the rotation of the rotating body 310, thereby controlling the discharge or prevention of the discharge of the parts in the material tube 110. The control device can also be used to control the blowing part 200 to control the blowing inside the material tube 110.

[0073] In the preferred embodiment described above, the driving device 320 in the tray rotating part 300 is a servo motor, and the transmission assembly between the driving device 320 and the rotating body 310 is a belt-pulley structure. In addition, other types of driving devices and transmission systems can also be used, for example, the driving device can also be such as a steam turbine, a gas turbine, etc., and the transmission system can be a gear transmission system, etc. These are also not beyond the scope of the present invention.

[0074] Also, in the preferred embodiment described above, the parts in the material tube 110 are discharged by the gas blown in from the blowing part 200. Here, the blowing part 200 can also be omitted, and the parts can be discharged from the material tube 110 by their own gravity.

Claims

1. A storage device, characterized in that: The material storage device comprises: A material storage part, the material storage part includes at least one material pipe, an upper material tray is installed at the upper end of the material pipe, a lower material tray is installed at the lower end of the material pipe, a feed hole is provided in the upper material tray, the feed hole is communicated with the internal channel of the material pipe, and a discharge hole is provided in the lower material tray, the discharge hole is communicated with the internal channel of the material pipe; a tray rotating part, the tray rotating part comprising a rotating body, a driving device and a fixed seat, the material storage part is connected to the fixed seat, the connection between the material storage part and the fixed seat restricts the relative movement between the material storage part and the fixed seat, the rotating body is rotatably arranged in the fixed seat, and is driven by the driving device to rotate relative to the material storage part, and A blowing part, wherein the blowing part includes an actuating mechanism, wherein the actuating mechanism applies a pressing force to the loading tray to achieve connection between the storage part and the fixing seat, Wherein, a conveying pipe is also arranged in the rotating body, and as the rotating body rotates, one end of the conveying pipe can be selectively connected with or staggered from the discharge hole of the lower material tray.

2. The storage device according to claim 1, characterized in that: A connecting piece is also provided at the bottom of the lower material tray, and the lower material tray can be relatively rotatably connected to the connecting piece. The connecting piece includes an outlet hole. With the relative rotation between the lower material tray and the connecting piece, the outlet hole can be selectively connected to or staggered with the discharge hole.

3. The storage device according to claim 2, characterized in that: When the material storage part is mounted on the material tray rotating part, the outlet hole is communicated with the one end of the conveying pipe.

4. The storage device according to claim 2, characterized in that: A protrusion is arranged at the center of the connecting piece, a central hole is arranged in the unloading tray, the protrusion is fitted in the central hole, and a bearing is arranged between the protrusion and the inner wall of the central hole.

5. The storage device according to claim 2, characterized in that: A first sealing member and a second sealing member are provided between the lower material tray and the connecting member, and the discharge hole of the lower material tray is located between the first sealing member and the second sealing member.

6. The storage device according to claim 2, characterized in that: An anti-rotation device is also detachably provided between the unloading tray and the connecting member to fix the rotational position between the unloading tray and the connecting member.

7. The storage device according to claim 1, characterized in that: The other end of the delivery pipe is located on the rotation axis of the rotating body.

8. The storage device according to claim 1, characterized in that: The driving device drives the rotating body to rotate through a transmission assembly, and the transmission assembly includes a first pulley installed on the rotating body, a second pulley installed on the output shaft of the driving device, and a belt connected between the first pulley and the second pulley.

9. The storage device according to claim 1, characterized in that: The blowing part comprises: An air blowing interface portion, wherein the air blowing interface portion is disposed on the loading tray, a first air flow passage is formed between the air blowing interface portion and the loading tray, and the first air flow passage is connected to the feeding hole of the loading tray; and A blowing connector, wherein the blowing connector is arranged on the blowing interface portion, a second air flow passage is formed in the blowing connector, the second air flow passage is connected to the first air flow passage, and a blowing interface is also arranged on the blowing connector, the blowing interface extends from the outer surface of the blowing connector into the second air flow passage, and is connected to an external compressed air source.

10. The material storage device according to claim 9, characterized in that: A sealing ring is arranged between the air blowing interface and the loading tray, and the sealing ring is located outside the air flow passage.

11. The material storage device according to claim 9, characterized in that: A first sealing ring and a second sealing ring are arranged between the material discharge tray and the connecting member, and a discharge hole of the material discharge tray is located between the first sealing ring and the second sealing ring.

12. The material storage device according to any one of claims 9 to 11, characterized in that: The actuating mechanism is connected to the air blowing connection piece and is used to apply a pressing force on the air blowing connection piece.

13. The material storage device according to claim 1, characterized in that: At least one pin is arranged on the fixing seat, and at least one hole corresponding to the at least one pin is arranged on the unloading tray of the storage part. The at least one pin cooperates with the at least one hole to realize the connection between the storage part and the fixing seat.

14. A pore sleeve embedding device, characterized in that: The pore sleeve embedding device comprises a material storage device as claimed in any one of claims 1 to 13.

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