Mint inhalant medicine core filling device

Abstract

The utility model relates to a mint inhalant medicine core filling device. Comprising an inlet pipeline, a converging pipeline and an outlet pipeline which are arranged on a main body, the inlet pipeline and the outlet pipeline are converged on the converging pipeline, and a plurality of groups of to-be-mounted pipes are arranged in the inlet pipeline; the pipe loading assembly comprises a motor and a pipe loading component, the motor is arranged at the bottom of the main body, the output end of the motor is connected with the pipe loading component, and the pipe loading component is driven by the motor to push a to-be-loaded pipe entering the converging pipeline from the inlet pipeline into the inlet pipeline; the core installing assembly comprises a containing groove and a hydraulic component, the containing groove is connected to the main body, the to-be-installed cores are arranged in the containing groove in parallel, the hydraulic component is arranged outside the containing groove and connected with the pipe installing component, and the hydraulic component is driven by the motor to push the to-be-installed cores into a to-be-installed pipe of the pipeline. According to the utility model, the to-be-loaded pipe enters the inlet pipeline in a transverse state, and the to-be-loaded cores are pushed into the to-be-loaded pipe one by one in the process that the to-be-loaded pipe is pushed upwards and discharged step by step through the pipe loading component, so that continuous and efficient production is realized.

Description

Technical Field

[0001] The utility model belongs to the technical field of pharmaceutical production equipment, and particularly relates to a core filling device for a mint inhalant. Background Art

[0002] At the present stage, there is a rich variety of drugs. In addition to tablets and medicaments that can be swallowed, there are also ointments and liquid agents for external use. The mint inhalant belongs to the drugs for external use. By placing it at the nostrils of the human body and inhaling the mint medicament, it can be quickly absorbed through the nasal mucosa and enter the blood circulation to play the role of dispersing wind and opening orifices. For example, components such as menthol can constrict the nasal blood vessels, reduce the blood flow in the nasal cavity, reduce the production of nasal secretions, and relieve symptoms such as nasal congestion. Components such as camphor and borneol can stimulate the central nervous system, improve alertness, make people feel refreshed, and help relieve symptoms such as dizziness and headache caused by colds and other reasons.

[0003] Since the mint inhalant contains menthol, borneol, camphor, eucalyptus oil, and methyl salicylate, the raw materials need to be made into a liquid medicine at the beginning of production, placed into the core, and then stuffed into a plastic tube to complete the production of the mint inhalant. However, most of the current equipment is in the form of vertical stuffing, and the production efficiency is not high. Content of the Utility Model

[0004] To solve the above technical problems, the utility model provides a core filling device for a mint inhalant. By placing the tube to be filled in a horizontal state into the inlet pipe, and gradually pushing out the material through the tube filling component, the cores to be filled are pushed into the tube to be filled one by one, realizing continuous and efficient production.

[0005] To achieve the above object, the technical solution adopted by the utility model is:

[0006] A core filling device for a mint inhalant, characterized in that: it includes a main body, a tube filling assembly, a core filling assembly, a tube to be filled, and cores to be filled. The main body is provided with an inlet pipe, a converging pipe, and an outlet pipe. The inlet pipe and the outlet pipe converge on the converging pipe. The tubes to be filled include several groups and are placed in the inlet pipe.

[0007] The pipe loading assembly includes a motor and a pipe loading member. The motor is arranged at the bottom of the main body, and the output end of the motor is connected to the pipe loading member. The pipe loading member, driven by the motor, pushes the pipe to be loaded that enters the confluence pipe from the inlet pipe into the inlet pipe. The pipe loading member includes a pipe pushing member, a rotating disk, and a support member. The rotating disk is arranged at the output end of the motor. A guiding column that does not coincide with the axis is provided on the rotating disk. The pipe pushing member is fitted in the confluence pipe, and the horizontal long hole at the lower end of the pipe pushing member is fitted with the guiding column. The pipe pushing member, driven by the motor, pushes the pipe to be loaded in the inlet pipe into the outlet pipe. A guiding groove distributed in a circular pattern is further provided on the rotating disk. The support member is rotatably connected in the movable channel on the main body. The supporting portion at the upper end of the support member faces the outlet pipe. The lower end of the support member is embedded and fitted in the guiding groove. The supporting portion, driven by the motor, extends from the movable channel into the outlet pipe and abuts against the pipe to be loaded. The guiding groove is composed of a inserting groove, a withdrawing groove, and two groups of transition grooves. The ends of the inserting groove and the withdrawing groove are respectively connected through the transition grooves to form a continuous guiding groove. Both the inserting groove and the withdrawing groove are distributed in a circular pattern on the rotating disk with the axis of the rotating disk as the center of rotation. The radius where the inserting groove is located is greater than the radius where the withdrawing groove is located.

[0008] The core loading assembly includes a receiving groove and a hydraulic member. The receiving groove is connected to the main body. Several groups of cores to be loaded are placed in the receiving groove. The hydraulic member is arranged outside the receiving groove and is connected to the pipe loading member. The hydraulic member, driven by the motor, pushes the core to be loaded into the pipe to be loaded in the inlet pipe. The hydraulic member includes a driving member, a driven member, and a hydraulic pipe. The driving member is arranged on the main body and is located directly below the pipe pushing member. A pushing rod that extends into the driving cavity of the driving member is provided on the pipe pushing member. The driven member is arranged outside the receiving groove. A ejecting rod that extends into the driven cavity of the driven member is movably provided on the driven member. The driving cavity and the driven cavity are communicated through the hydraulic pipe and are internally provided with hydraulic fluid.

[0009] The inlet pipe is in a V-shaped upward opening shape. Several pipes to be loaded are stacked and placed in the inlet pipe. The connection between the lower end of the inlet pipe and the confluence pipe only allows one group of pipes to be loaded to enter. The receiving groove is in a V-shaped upward opening shape. Several cores to be loaded are stacked and placed in the receiving groove. The connection between the lower end of the receiving groove and the outlet pipe only allows one group of cores to be loaded to enter.

[0010] For the mint inhalant cartridge loading device adopting this structure, first, the tubes to be loaded are placed in the inlet pipe for standby. The tubes to be loaded are all plastic cylinders with empty interiors. They are stacked horizontally with their openings facing the direction of the receiving groove into the V-shaped inlet pipe. In order to push the tubes to be loaded into the outlet pipe, a tube loading member is provided. The outlet pipe has a vertical structure, and the inlet pipe has a structure that slopes downward and connects to the outlet pipe. The junction of the outlet pipe and the inlet pipe is the confluence pipe. The pusher is fitted at the confluence pipe. The angle of inclination of the upper end face of the pusher is the same as the inclination angle of the inlet pipe. When the pusher moves down to be flush with the inlet pipe, the tubes to be loaded in the inlet pipe enter the confluence pipe under the action of gravity and are located on the upper end face of the pusher. Since the width of the pusher is basically the same as the diameter of the tube to be loaded, only one tube to be loaded can be located on the upper end face of the pusher. During the upward movement of the pusher, the tube to be loaded is vertically pushed into the outlet pipe, thus realizing the pushing of the tubes to be loaded in the inlet pipe into the outlet pipe.

[0011] However, just pushing the tubes to be loaded into the outlet pipe is not enough. Therefore, when the pusher moves down again, the tubes to be loaded above the pusher will return to the confluence pipe under the action of gravity. At this time, the tubes to be loaded in the inlet pipe cannot enter the confluence pipe either. Therefore, a movable channel is provided on the main body, and a support member is rotatably connected in the movable channel. When the pusher is pushed to the top, the support part at the upper end of the support member inserts into the area between the pusher and the tube to be loaded above it. The support part remains in place before the pusher sinks to the bottom. Since the tubes to be loaded in the inlet pipe will fill the confluence pipe when the pusher reaches the bottom, the support part leaves its original position when the pusher reaches the bottom. While a new tube to be loaded is replenished at the upper end of the pusher, the tube to be loaded originally located above abuts against the tube to be loaded below under the action of gravity. Therefore, in the cycle of the pusher and the support member, the tubes to be loaded in the inlet pipe can be continuously pushed into the outlet pipe.

[0012] In order to enable the pusher and the support member to be driven synchronously by one motor, which can save the use of the motor and maintain continuous synchrony at the same time, a motor is provided under the main body. A rotating disk is provided at the output end of the motor. The guide post on the rotating disk does not coincide with the axis of the rotating disk, and the guide post is embedded in the horizontal long hole at the lower end of the pusher. Therefore, when the rotating disk rotates, it will drive the pusher to move up and down. When the guide post is at the topmost position, the pusher is also at the topmost position. When the guide post is at the bottommost position, the pusher is also at the bottommost position.

[0013] Meanwhile, a guiding groove is provided on the rotating disk. The guiding groove consists of an insertion groove, a withdrawal groove, and two groups of transition grooves. The lower end of the support member is embedded and fitted in the guiding groove. From the above, it can be known that when the pushing pipe member reaches the topmost position, that is, when the guiding column is at the topmost position, the support member needs to rotate around the rotation center in its movable groove and insert its supporting portion between the pushing pipe member and the uppermost pipe to be installed. Therefore, the lower end of the support member needs to be transferred from the transition groove into the insertion groove. Thus, when the guiding column is at the topmost position, the transition groove should be on the same horizontal plane as the guiding column, the insertion groove is above the guiding column at this time, and the withdrawal groove is below the guiding column. Therefore, when the rotating disk rotates and the guiding column is at the topmost position, the pushing pipe member is at the topmost position, and the supporting portion of the support member is also inserted between the pushing pipe member and the uppermost pipe to be installed; when the guiding column rotates to the bottommost position, the pushing pipe member is also at the bottommost position, and the supporting portion of the support member also disengages from the support of the upper pipe to be installed.

[0014] In order to load the core to be installed into the pipe to be installed, a receiving groove is provided. The core to be installed filled with medicine is placed horizontally in the receiving groove. The V-shaped receiving groove can accommodate more cores to be installed. There is only one group of cores to be installed at the lowermost end of the receiving groove, and a driven member is provided at the bottom of the receiving groove. When the ejector rod on the driven member pushes into the receiving groove, the core to be installed at the bottom of the receiving groove can be pushed into the pipe to be installed above the supporting portion, thereby realizing loading the core to be installed into the pipe to be installed. Since the pipe to be installed above the supporting portion will be disengaged from the support when the pushing pipe member sinks to the lowermost end, during the process of the pushing pipe member gradually moving down from the topmost position, the ejector rod needs to gradually push the core to be installed into the pipe to be installed. When the pushing pipe member gradually pushes the new pipe to be installed upward, the ejector rod needs to gradually withdraw from the pipe to be installed until the new pipe to be installed is replaced. Therefore, a pushing rod is provided on the pushing pipe member. During the process of moving downward, the pushing rod gradually enters the driving cavity of the driving member below it, and pushes the hydraulic fluid in the driving cavity into the driven cavity of the driven member through the hydraulic pipe, thereby realizing the effect of synchronously pushing out the ejector rod. Therefore, when the motor continuously drives the rotating disk to rotate, under a complete set of linkages, the pipes to be installed will continuously rise into the outlet pipe, and at the same time, they will be continuously loaded with cores to be installed, ensuring continuous production.

[0015] Furthermore, the core loading assembly further includes an observation plate. The observation plate is detachably connected to the main body and covers the inlet pipe, the confluence pipe, and the outlet pipe. Through holes are provided on the observation plate, and the outlet pipe communicates with the lower end of the receiving groove through the through holes.

[0016] Furthermore, a vertical pipe is further provided on the main body. The vertical pipe is communicated with the outlet pipe, and the included angle between the axis of the vertical pipe and the axis of the outlet pipe is 90°; the connection between the vertical pipe and the outlet pipe is in an arc transition. A guiding member is further provided on the vertical pipe. The guiding member is located above the connection between the vertical pipe and the outlet pipe and is in abutting connection with the pipe to be installed.

[0017] Compared with the prior art, the advantages of the present utility model are as follows: during the process of pushing the pushing pipe fitting upward, the pipe to be installed is vertically pushed into the outlet pipe. When the pushing pipe fitting is pushed to the topmost position, the supporting part of the supporting member inserts into the area between the pushing pipe fitting and the pipe to be installed at its upper end, providing a supporting force for the pipe to be installed. When the motor drives the rotating disk to rotate, the pushing pipe fitting and the supporting member reciprocate, continuously pushing the pipes to be installed in the inlet pipe into the outlet pipe. At the same time, for the pipes to be installed supported above the supporting part, the core to be installed is loaded therein through the linkage of the driving member and the driven member, ensuring continuous production. BRIEF DESCRIPTION OF THE DRAWINGS

[0018] In order to more clearly illustrate the technical solutions in the embodiments of the present utility model or the prior art, the following will briefly introduce the drawings required for use in the description of the embodiments or the prior art. Obviously, the drawings in the following description are only some embodiments of the present utility model. For those of ordinary skill in the art, without creative efforts, other drawings can be obtained based on these drawings.

[0019] Figure 1 is a perspective view of the present utility model;

[0020] Figure 2 is an exploded schematic view of the present utility model;

[0021] Figure 3 is a top view of the present utility model;

[0022] Figure 4 is of the present utility model Figure 3 A-A cross-sectional view and a schematic diagram of rotating and moving downward;

[0023] Figure 5 is a schematic diagram of feeding the pipe to be installed by rotation of the present utility model;

[0024] Figure 6 is a schematic diagram of the pipe to be installed moving upward into the inlet pipe by rotation of the present utility model;

[0025] Figure 7 is of the present utility model Figure 3 B-B cross-sectional view and a schematic diagram of loading the core to be installed into the pipe to be installed.

[0026] Wherein: 1. Main body; 11. Inlet pipe; 12. Converging pipe; 13. Outlet pipe; 14. Vertical pipe; 141. Guide member; 2. Pipe loading assembly; 21. Motor; 22. Pipe loading member; 221. Pipe pushing member; 2211. Long hole; 222. Rotating disk; 2221. Guide post; 2222. Guide groove; 2223. Insertion groove; 2224. Withdrawal groove; 2225. Transition groove; 223. Support member; 2231. Support portion; 3. Core loading assembly; 31. Accommodation groove; 32. Hydraulic member; 321. Driving member; 3211. Driving cavity; 3212. Pushing rod; 322. Driven member; 3221. Driven cavity; 3222. Ejecting rod; 323. Hydraulic pipe; 33. Observation plate; 331. Through hole; 4. Pipe to be loaded; 5. Core to be loaded. Detailed implementation manners

[0027] To make the objectives, technical solutions and advantages of the present utility model clearer, the technical solutions of the present utility model will be described clearly and completely below. Apparently, the described embodiments are only a part rather than all of the embodiments of the present utility model. Based on the embodiments of the present utility model, all other embodiments obtained by those of ordinary skill in the art without making creative efforts shall fall within the scope protected by the present utility model.

[0028] The following will describe the detailed implementation manners of the present utility model in conjunction with the drawings:

[0029] As Figures 1-7 shown, a menthol inhalant core loading device, characterized in that it comprises a main body 1, a pipe loading assembly 2, a core loading assembly 3, a pipe to be loaded 4 and a core to be loaded 5. The main body 1 is provided with an inlet pipe 11, a converging pipe 12 and an outlet pipe 13. The inlet pipe 11 and the outlet pipe 13 converge on the converging pipe 12. The pipes to be loaded 4 include several groups and are placed in the inlet pipe 11.

[0030] The pipe loading assembly 2 includes a motor 21 and a pipe loading member 22. The motor 21 is arranged at the bottom of the main body 1, and the output end of the motor 21 is connected to the pipe loading member 22. The pipe loading member 22, driven by the motor 21, pushes the pipe 4 to be loaded, which enters the confluence pipe 12 from the inlet pipe 11, into the inlet pipe 11. The pipe loading member 22 includes a pipe pushing member 221, a rotating disk 222, and a support member 223. The rotating disk 222 is arranged at the output end of the motor 21. A guiding column 2221 that does not coincide with the axis is provided on the rotating disk 222. The pipe pushing member 221 is fitted in the confluence pipe 12. The horizontal long hole 2211 at the lower end of the pipe pushing member 221 is matched with the guiding column 2221. The pipe pushing member 221, driven by the motor 21, pushes the pipe 4 to be loaded in the inlet pipe 11 into the outlet pipe 13. A guiding groove 2222 distributed in a circular pattern is further provided on the rotating disk 222. The support member 223 is rotatably connected in a movable channel on the main body 1. The supporting portion 2231 at the upper end of the support member 223 faces the outlet pipe 13. The lower end of the support member 223 is embedded and fitted in the guiding groove 2222. The supporting portion 2231, driven by the motor 21, extends from the movable channel into the outlet pipe 13 and abuts against the pipe 4 to be loaded. The guiding groove 2222 is composed of a inserting groove 2223, a withdrawing groove 2224, and two groups of transition grooves 2225. The ends of the inserting groove 2223 and the withdrawing groove 2224 are respectively connected through the transition grooves 2225 to form a continuous guiding groove 2222. The inserting groove 2223 and the withdrawing groove 2224 are both distributed in a circular pattern on the rotating disk 222 with the axis of the rotating disk 222 as the center of rotation. The radius where the inserting groove 2223 is located is larger than the radius where the withdrawing groove 2224 is located.

[0031] The core loading assembly 3 includes a receiving groove 31 and a hydraulic member 32. The receiving groove 31 is connected to the main body 1. Several groups of cores 5 to be loaded are placed in the receiving groove 31. The hydraulic member 32 is arranged outside the receiving groove 31 and is connected to the pipe loading member 22. The hydraulic member 32, driven by the motor 21, pushes the core 5 to be loaded into the pipe 4 to be loaded in the inlet pipe 11. The hydraulic member 32 includes a driving member 321, a driven member 322, and a hydraulic pipe 323. The driving member 321 is arranged on the main body 1 and is directly below the pipe pushing member 221. A pushing rod 3212 extending into the driving cavity 3211 of the driving member 321 is provided on the pipe pushing member 221. The driven member 322 is arranged outside the receiving groove 31. An ejecting rod 3222 extending into the driven cavity 3221 of the driven member 322 is movably provided on the driven member 322. The driving cavity 3211 and the driven cavity 3221 are communicated through the hydraulic pipe 323 and are internally provided with hydraulic fluid.

[0032] The inlet pipe 11 is in a V-shaped upward-opening shape, and a plurality of the pipes to be loaded 4 are stacked and placed into the inlet pipe 11. Only one group of the pipes to be loaded 4 can enter at the connection between the lower end of the inlet pipe 11 and the confluence pipe 12. The receiving groove 31 is in a V-shaped upward-opening shape, and a plurality of the cores to be loaded 5 are stacked and placed into the receiving groove 31. Only one group of the cores to be loaded 5 can enter at the connection between the lower end of the receiving groove 31 and the outlet pipe 13.

[0033] Further, the core loading assembly 3 further includes an observation plate 33. The observation plate 33 is detachably connected to the main body 1 and covers the inlet pipe 11, the confluence pipe 12, and the outlet pipe 13. A through hole 331 is provided on the observation plate 33, and the lower end of the outlet pipe 13 communicates with the receiving groove 31 through the through hole 331.

[0034] Further, a vertical pipe 14 is further provided on the main body 1. The vertical pipe 14 is communicated with the outlet pipe 13. The included angle between the axis of the vertical pipe 14 and the axis of the outlet pipe 13 is 90°. The connection between the vertical pipe 14 and the outlet pipe 13 is in an arc transition. A guiding member 141 is further provided on the vertical pipe 14. The guiding member 141 is located above the connection between the vertical pipe 14 and the outlet pipe 13 and is in abutting connection with the pipe to be loaded 4.

[0035] Description of the working mode of the present utility model:

[0036] For the mint inhalant core loading device adopting this structure, first, the pipes to be loaded 4 are placed into the inlet pipe 11 for standby. The pipes to be loaded 4 are all plastic cylinders with empty interiors. They are stacked horizontally with their openings all facing the direction of the receiving groove 31 into the V-shaped inlet pipe 11. In order to push the pipes to be loaded 4 into the outlet pipe 13, a pipe loading member 22 is provided. The outlet pipe 13 is in a vertical structure, and the inlet pipe 11 is in a structure that slopes downward and is connected to the outlet pipe 13. The junction of the outlet pipe 13 and the inlet pipe 11 is the confluence pipe 12. The pushing member 221 is fitted at the confluence pipe 12. The inclination angle of the upper end surface of the pushing member 221 is the same as the inclination angle of the inlet pipe 11. When the pushing member 221 moves down to be flush with the inlet pipe 11, the pipes to be loaded 4 in the inlet pipe 11 enter the confluence pipe 12 under the action of gravity and are located on the upper end surface of the pushing member 221. Since the width of the pushing member 221 is basically the same as the diameter of the pipe to be loaded 4, only one pipe to be loaded 4 can be located on the upper end surface of the pushing member 221. During the upward movement of the pushing member 221, the pipe to be loaded 4 is vertically pushed upward into the outlet pipe 13, thereby realizing pushing the pipes to be loaded 4 in the inlet pipe 11 into the outlet pipe 13.

[0037] However, it is not enough to simply push the pipe 4 to be installed into the outlet pipe 13. Therefore, when the pushing member 221 moves downward again, the pipe 4 to be installed above the pushing member 221 will return to the confluence pipe 12 under the action of gravity. At this time, the pipe 4 to be installed in the inlet pipe 11 cannot enter the confluence pipe 12 either. Therefore, a movable channel is provided on the main body 1, and a support member 223 is rotatably connected in the movable channel. When the pushing member 221 is pushed to the topmost position, the support portion 2231 at the upper end of the support member 223 inserts into the area between the pushing member 221 and the pipe 4 to be installed at its upper end. Before the pushing member 221 sinks to the bottommost position, the support portion 2231 remains in place. Since the pipe 4 to be installed in the inlet pipe 11 will fill into the confluence pipe 12 when the pushing member 221 reaches the bottommost position, when the pushing member 221 reaches the bottommost position, the support portion 2231 leaves its original position. While a new pipe 4 to be installed is replenished at the upper end of the pushing member 221, the pipe 4 originally located above abuts against the pipe 4 below under the action of gravity. Therefore, in the cycle of the pushing member 221 and the support member 223, the pipe 4 to be installed in the inlet pipe 11 can be continuously pushed into the outlet pipe 13.

[0038] In order to enable the pushing member 221 and the support member 223 to be driven synchronously by a single motor 21, which can save the use of the motor 21 while maintaining continuous synchronism, a motor 21 is provided under the main body 1. A rotating disk 222 is provided at the output end of the motor 21. The guiding column 2221 on the rotating disk 222 does not coincide with the axis of the rotating disk 222, and the guiding column 2221 is embedded in the horizontal long hole 2211 at the lower end of the pushing member 221. Therefore, when the rotating disk 222 rotates, it will drive the pushing member 221 to move up and down. When the guiding column 2221 is at the uppermost position, the pushing member 221 is also at the uppermost position. When the guiding column 2221 is at the lowermost position, the pushing member 221 is also at the lowermost position.

[0039] Meanwhile, a guiding groove 2222 is provided on the rotating disk 222. The guiding groove 2222 is composed of an inserting groove 2223, a withdrawing groove 2224 and two groups of transition grooves 2225. The lower end of the support member 223 is embedded and fitted in the guiding groove 2222. From the above, it can be known that when the pushing pipe member 221 reaches the topmost position, that is, when the guiding column 2221 is at the topmost position, the support member 223 needs to rotate around the rotation center in its movable groove, and insert its supporting portion 2231 between the pushing pipe member 221 and the uppermost pipe to be installed 4. Therefore, the lower end of the support member 223 needs to be transferred from the transition groove 2225 into the inserting groove 2223. Therefore, when the guiding column 2221 is at the uppermost position, the transition groove 2225 should be located on the same horizontal plane as the guiding column 2221, the inserting groove 2223 is located above the guiding column 2221 at this time, and the withdrawing groove 2224 is located below the guiding column 2221. Therefore, when the rotating disk 222 rotates and the guiding column 2221 is at the uppermost position, the pushing pipe member 221 is at the topmost position, and the supporting portion 2231 of the support member 223 is also inserted between the pushing pipe member 221 and the uppermost pipe to be installed 4; when the guiding column 2221 rotates to the lowermost position, the pushing pipe member 221 is also at the lowermost position, and the supporting portion 2231 of the support member 223 also disengages from the support of the upper pipe to be installed 4.

[0040] In order to load the core to be installed 5 into the pipe to be installed 4, a receiving groove 31 is provided. The core to be installed 5 filled with medicine is placed horizontally in the receiving groove 31. The V-shaped receiving groove 31 can accommodate more cores to be installed 5. There is only one group of cores to be installed 5 at the lowermost end of the receiving groove 31, and a driven member 322 is provided at the bottom of the receiving groove 31. When the ejecting rod 3222 on the driven member 322 pushes into the receiving groove 31, the core to be installed 5 at the bottom of the receiving groove 31 can be pushed into the pipe to be installed 4 above the supporting portion 2231, so as to realize loading the core to be installed 5 into the pipe to be installed 4. Since the pipe to be installed 4 above the supporting portion 2231 will be separated from the support when the pushing pipe member 221 sinks to the lowermost end, during the process of the pushing pipe member 221 gradually moving down from the topmost position, the ejecting rod 3222 needs to gradually push the core to be installed 5 into the pipe to be installed 4. When the pushing pipe member 221 gradually pushes the new pipe to be installed 4 upward, the ejecting rod 3222 should gradually withdraw from the pipe to be installed 4 until the new pipe to be installed 4 is replaced. Therefore, a pushing rod 3212 is provided on the pushing pipe member 221. During the process of moving down, the pushing rod 3212 gradually enters the driving cavity 3211 of the driving member 321 below it, and pushes the hydraulic fluid in the driving cavity 3211 into the driven cavity 3221 of the driven member 322 through the hydraulic pipe 323, so as to realize the effect of synchronously pushing out the ejecting rod 3222. Therefore, when the motor 21 continuously drives the rotating disk 222 to rotate, under a set of linkages, the pipes to be installed 4 will continuously rise into the outlet pipe 13, and at the same time, they will be continuously loaded with cores to be installed 5 to ensure continuous production.

[0041] For the convenience of observation and to ensure that only one set of cores 5 to be loaded can be loaded into the pipe 4 to be loaded by the ejector rod 3222, a transparent observation plate 33 is provided. It covers the inlet pipe 11, the confluence pipe 12 and the outlet pipe 13 and is detachably connected to the main body 1, so that the overall operation process of the pipe 4 to be loaded can be observed more intuitively. By adding through holes 331 to the observation plate 33, the size of the through holes 331 is slightly smaller than the diameter of the pipe 4 to be loaded, ensuring that the pipe 4 to be loaded will not pass through the through holes 331 and enter the receiving groove 31, while the core 5 to be loaded is smaller than the through holes 331, enabling it to pass through better and enter the pipe 4 to be loaded.

[0042] Since the pipe 4 to be loaded needs to maintain a vertically upward state in subsequent production, at the upper end of the outlet pipe 13, it is connected to the vertical pipe 14 through an arc transition, so that the pipe 4 to be loaded gradually rotates to a vertical state during the continuous upward movement, facilitating subsequent production. However, without limitation, the pipe 4 to be loaded is easily pushed vertically upward and falls out. Therefore, a guiding member 141 is added to the vertical pipe 14, so that the pipe 4 to be loaded below it can be restricted within the vertical pipe 14 to prevent it from falling out during the pushing process.

[0043] The beneficial effects of the present utility model are as follows: During the process of pushing the pushing member 221 upward, the pipe 4 to be loaded is vertically pushed into the outlet pipe 13. When the pushing member 221 is pushed to the top, the supporting portion 2231 of the supporting member 223 inserts into the area between the pushing member 221 and the pipe 4 to be loaded above it, providing a supporting force for the pipe 4 to be loaded. When the motor 21 drives the rotating disk 222 to rotate, the pushing member 221 and the supporting member 223 reciprocate and continuously push the pipe 4 to be loaded in the inlet pipe 11 into the outlet pipe 13. At the same time, for the pipe 4 to be loaded supported above the supporting portion 2231, the core 5 to be loaded is loaded therein through the linkage of the driving member 321 and the driven member 322, ensuring continuous production.

[0044] The above embodiments are only used to illustrate the technical solutions of the present utility model, rather than to limit it; although the present utility model has been described in detail with reference to the foregoing embodiments, those of ordinary skill in the art should understand that: they can still modify the technical solutions described in the foregoing embodiments, or perform equivalent replacements on some or all of the technical features; and these modifications or replacements do not make the essence of the corresponding technical solutions deviate from the scope of the technical solutions of the embodiments of the present utility model.

Claims

1. A menthol inhaler core filling device, characterized in that: It includes a main body, a tube loading assembly, a core loading assembly, tubes to be loaded and cores to be loaded. The main body is provided with an inlet pipe, a converging pipe and an outlet pipe. The inlet pipe and the outlet pipe are converged on the converging pipe. The tubes to be loaded include several groups and are placed in the inlet pipe. The pipe loading assembly comprises a motor and a pipe loading component. The motor is arranged at the bottom of the main body. The output end of the motor is connected to the pipe loading component. The pipe loading component pushes the pipe to be loaded from the inlet pipe into the confluence pipe under the drive of the motor. The core loading assembly includes a receiving groove and a hydraulic component. The receiving groove is connected to the main body. The cores to be loaded include several groups and are placed in the receiving groove. The hydraulic component is arranged outside the receiving groove and connected to the pipe loading component. The hydraulic component pushes the cores to be loaded into the pipe to be loaded in the pipeline under the drive of the motor.

2. The menthol inhaler core filling device according to claim 1, characterized in that: The pipe loading component includes a pipe pushing member and a rotating disk. The rotating disk is arranged on the output end of the motor. A guide column that does not coincide with the axis is provided on the rotating disk. The pipe pushing member is matched in the conduit. The horizontal long hole at the lower end of the pipe pushing member cooperates with the guide column. The pipe pushing member pushes the pipe to be loaded in the inlet pipe into the outlet pipe under the drive of the motor.

3. The menthol inhaler core filling device according to claim 2, characterized in that: The pipe loading component also includes a support member, and the rotating disk is also provided with guide grooves distributed in a circumference. The support member can be rotatably connected to the movable path on the main body, and the support portion at the upper end of the support member faces the outlet pipe. The lower end of the support member is embedded in and fitted in the guide groove. Driven by the motor, the support portion extends from the movable path into the outlet pipe and abuts against the pipe to be loaded.

4. The menthol inhaler core filling device according to claim 3, characterized in that: The guide groove consists of an extension groove, an exit groove and two groups of transition grooves. The ends of the extension groove and the exit groove are connected by transition grooves to form a continuous guide groove. The extension groove and the exit groove are distributed on the rotating disk in a circle with the axis of the rotating disk as the rotation center. The radius of the extension groove is larger than the radius of the exit groove.

5. The menthol inhaler core filling device according to claim 4, characterized in that: The hydraulic component includes a driving member, a driven member and a hydraulic pipe, wherein the driving member is arranged on the main body and is located directly below the pushing pipe member, and the pushing pipe member is provided with a propulsion rod extending into the driving cavity of the driving member; The follower is arranged outside the accommodating groove, and a push rod is movably provided on the follower to extend into the follower cavity of the follower. The driving cavity and the follower cavity are connected through a hydraulic pipe and contain hydraulic fluid.

6. The menthol inhaler core filling device according to claim 5, characterized in that: The inlet pipe is V-shaped and opens upwards. A plurality of the pipes to be loaded are stacked and placed in the inlet pipe. The connection between the lower end of the inlet pipe and the confluence pipe only allows one group of pipes to be loaded to enter.

7. The menthol inhaler core filling device according to claim 6, characterized in that: The receiving groove is V-shaped and upwardly opened, and a plurality of the cores to be loaded are stacked and placed in the receiving groove. The connection between the lower end of the receiving groove and the outlet pipe only allows one group of cores to be loaded to enter.

8. The menthol inhaler core filling device according to claim 7, characterized in that: The core assembly also includes an observation plate, which is detachably connected to the main body and covers the inlet pipe, the confluence pipe and the outlet pipe. The observation plate is provided with a through hole, and the outlet pipe is connected to the lower end of the accommodating groove through the through hole.

9. The menthol inhaler core filling device according to claim 1, characterized in that: The main body is also provided with a vertical pipe, which is connected with the outlet pipe, and the angle between the axis of the vertical pipe and the axis of the outlet pipe is 90°.

10. The menthol inhaler core filling device according to claim 9, characterized in that: The connection between the vertical pipe and the outlet pipe is in an arc-shaped transition. A guide piece is also provided on the vertical pipe. The guide piece is located above the connection between the vertical pipe and the outlet pipe and is abutt-connected with the pipe to be installed.

Images