Catalyst dense-phase filling device

Abstract

The utility model relates to the technical field of catalyst dense-phase filling, in particular to a catalyst dense-phase filling device. The catalyst dense-phase filling device comprises a charging barrel, the interior of the charging barrel is provided with a containing cavity, and the top and the bottom of the charging barrel are provided with a feeding port and a discharging port which are communicated with the containing cavity respectively; the flow regulating mechanism is mounted at the discharge hole and can regulate the outflow volume of the catalyst particles at the discharge hole in unit time; the material distribution mechanism comprises a material distribution groove and a first driver, the material distribution groove can be circumferentially and rotatably mounted below the discharge port, the material distribution groove is communicated with the discharge port so as to receive the catalyst particles from the charging barrel, and a plurality of material distribution holes allowing the catalyst particles to fall down are formed in the material distribution groove; the first driver can drive the material distribution groove to rotate around the axis of the material barrel. The catalyst dense-phase filling device disclosed by the utility model can be used for adjusting the adding amount of catalyst particles in unit time, so that the actual production requirements can be accurately met.

Description

Technical Field

[0001] The utility model relates to the technical field of catalyst dense phase filling, in particular to a catalyst dense phase filling device. Background Art

[0002] There are two main ways to load catalyst particles: ordinary loading and dense phase loading. Among them, dense phase loading refers to adding catalyst particles to the reactor through a special catalyst dense phase loading device, and the dense phase loading device can scatter catalyst particles along the radial direction of the reactor so that the catalyst particles fall evenly. Compared with ordinary loading, dense phase loading can make the catalyst particles in the reactor radially arranged regularly, reduce the pores between catalyst particles, and increase the catalyst loading density. Therefore, more and more catalyst particle loading processes now use dense phase loading.

[0003] However, taking the catalyst dense phase filling device with publication number CN107754732A as an example, the amount of catalyst particles added per unit time in the existing dense phase filling device cannot be adjusted, and it is difficult to accurately adapt to actual production needs. Utility Model Content

[0004] The utility model aims to overcome the problem that the catalyst particle dosage per unit time of the existing catalyst dense phase filling device in the prior art cannot be adjusted.

[0005] In order to achieve the above-mentioned purpose, the utility model provides a catalyst dense phase filling device, which comprises: a barrel, a containing cavity is provided inside the barrel, and a feed port and a discharge port connected to the containing cavity are respectively provided at the top and the bottom of the barrel; a flow regulating mechanism, which is installed at the discharge port and can adjust the outflow rate of catalyst particles per unit time at the discharge port; and a distribution mechanism, which comprises a distribution trough and a first driver, the distribution trough can be circumferentially rotatably installed below the discharge port, the distribution trough is connected with the discharge port so as to receive catalyst particles from the barrel, a plurality of distribution holes are provided on the distribution trough for allowing catalyst particles to fall, and the first driver can drive the distribution trough to rotate around the axis of the barrel.

[0006] In some embodiments, the flow regulating mechanism includes a base plate, an adjustment plate and a second driver. The base plate is located at the discharge port and is sealed with the inner wall of the barrel. A discharge hole is provided on the base plate, and the discharge hole is provided between the center of the base plate and the outer edge of the base plate. The adjustment plate is configured to be able to rotate circumferentially relative to the base plate. The second driver can drive the adjustment plate to rotate circumferentially so that the adjustment plate can adjust the opening of the discharge port.

[0007] In some embodiments, the flow regulating mechanism also includes an annular connecting platform located at the discharge port and arranged in an annular shape, the outer periphery of the annular connecting platform is sealedly connected to the inner wall of the barrel, and the outer periphery of the bottom plate is sealedly connected to the inner periphery of the annular connecting platform; the inner periphery of the annular connecting platform is provided with an annular slot, the slot is recessed from the inner periphery of the annular connecting platform to its outer periphery, and the slot is arranged above the bottom plate; the slot surrounds the adjustment plate, and the outer periphery of the adjustment plate is completely movably inserted into the slot, and the second driver drives the adjustment plate to rotate through a gear transmission mechanism.

[0008] In some embodiments, the gear transmission mechanism includes an outer ring gear and a transmission gear. The outer ring gear is arranged on the outer periphery of the adjustment plate, and the transmission gear is rotatably installed in the annular connecting platform. The outer ring gear is meshed with the transmission gear. The second driver can drive the transmission gear to rotate circumferentially, and the second driver is fixedly installed on the annular connecting platform.

[0009] In some embodiments, the bottom plate is a circular plate and is provided with two fan-shaped discharge holes, which are distributed on both sides of the center of the bottom plate in an axially symmetrical manner; the adjustment plate is a circular plate and is provided with two fan-shaped adjustment holes, which are distributed on both sides of the center of the bottom plate in an axially symmetrical manner; and when one of the adjustment holes is fully aligned with one of the discharge holes, the other adjustment hole is fully aligned with the other discharge hole.

[0010] In some embodiments, the material distribution mechanism includes a transmission rod, which is rotatably arranged in the barrel, and the transmission rod is rotatably passed through the center of the bottom plate and the center of the adjustment plate; the axis of the transmission rod coincides with the axis of the barrel; the top end of the transmission rod extends from the feed port of the barrel and is connected to the first driver, and the first driver can drive the transmission rod to rotate circumferentially; the bottom end of the transmission rod extends from the discharge port of the barrel and is fixedly connected to the material distribution trough.

[0011] In some embodiments, the first driver is located above the feed port, and the first driver is fixedly connected to the barrel via a plurality of first connecting rods that are spaced apart.

[0012] In some embodiments, the cloth mechanism also includes a fixed frame, the fixed frame includes a fixed ring and a plurality of second connecting rods, the transmission rod passes through the fixed ring, and the transmission rod and the fixed ring are connected by a bearing, and the fixed ring is connected to the inner wall of the barrel through the second connecting rods.

[0013] In some embodiments, the material distribution trough includes a cylindrical trough side plate and a circular trough bottom plate, the transmission rod is connected to the center of the trough bottom plate, the trough bottom plate is sealed and installed at the bottom of the trough side plate, and the trough side plate is provided with a material distribution hole.

[0014] In some embodiments, the catalyst dense phase filling device also includes a supporting mechanism, which includes a vertically extending support rod and an annular base, the top end of the support rod is fixedly connected to the outer wall of the barrel, the bottom end of the support rod is fixedly connected to the inner side of the annular base, the axis of the annular base is consistent with the axis of the barrel, and the inner diameter of the annular base is larger than the outer diameter of the barrel.

[0015] The above technical solution of the utility model has the following beneficial effects:

[0016] Add catalyst particles to the feed port, then the catalyst particles enter the containing chamber through the feed port, and then the catalyst particles enter the distribution trough of the distribution mechanism through the discharge port, so the outflow of catalyst particles per unit time at the discharge port is equal to the inflow of catalyst particles per unit time at the distribution trough. The first driver can drive the distribution trough to rotate around the axis of the barrel, so that the catalyst particles in the distribution trough are evenly added to the reactor from the distribution hole. Therefore, the unit time dosage of catalyst particles in the distribution trough is the unit time dosage of catalyst particles in the catalyst dense phase filling device. Since the flow regulating mechanism is installed at the discharge port, the flow regulating mechanism can adjust the unit time outflow of catalyst particles at the discharge port and the unit time inflow of catalyst particles in the distribution trough, thereby adjusting the unit time dosage of catalyst particles in the distribution trough, that is, adjusting the unit time dosage of catalyst particles in the catalyst dense phase filling device. Therefore, the catalyst dense phase filling device of the utility model can adjust the unit time dosage of catalyst particles, so that it can accurately adapt to actual production needs. BRIEF DESCRIPTION OF THE DRAWINGS

[0017] Figure 1 It is a three-dimensional schematic diagram of a catalyst dense phase filling device in one embodiment of the utility model;

[0018] Figure 2 It is a three-dimensional schematic diagram of a flow regulating mechanism in one embodiment of the utility model;

[0019] Figure 3 It is a three-dimensional schematic diagram of a bottom plate in one embodiment of the utility model;

[0020] Figure 4 It is a schematic diagram of the installation of a fixing frame in one embodiment of the utility model;

[0021] Figure 5 It is a three-dimensional schematic diagram of a material distribution trough in one embodiment of the utility model.

[0022] Description of Reference Numerals

[0023] 1. Barrel; 11. Feed inlet; 2. Flow regulating mechanism; 21. Bottom plate; 211. Discharge hole; 22. Adjustment plate; 221. Adjustment hole; 23. Second driver; 24. Annular connecting platform; 241. Slot; 242. Flow sensor; 25. Outer gear ring; 26. Transmission gear; 27. Transmission rod; 28. Fixed frame; 281. Fixed ring; 282. Second connecting rod; 3. Material distribution mechanism; 31. Material distribution trough; 32. First driver; 321. First connecting rod; 33. Material distribution hole; 4. Support mechanism; 41. Annular base; 42. Support rod. DETAILED DESCRIPTION

[0024] The features and exemplary embodiments of various aspects of the utility model will be described in detail below. In order to make the purpose, technical solutions and advantages of the utility model clearer, the utility model will be further described in detail below in conjunction with the accompanying drawings and specific embodiments. It should be understood that the specific embodiments described herein are only intended to explain the utility model, rather than to limit the utility model. For those skilled in the art, the utility model can be implemented without the need for some of these specific details. The following description of the embodiments is only to provide a better understanding of the utility model by showing examples of the utility model.

[0025] like Figure 1 As shown, the utility model provides a catalyst dense phase filling device, which includes a barrel 1, a flow regulating mechanism 2 and a distribution mechanism 3. The barrel 1 is provided with a accommodating chamber inside, and the top and bottom of the barrel 1 are respectively provided with a feed port 11 and a discharge port connected to the accommodating chamber. The flow regulating mechanism 2 is installed at the discharge port and can adjust the outflow rate of catalyst particles per unit time at the discharge port. The distribution mechanism 3 includes a distribution trough 31 and a first driver 32. The distribution trough 31 can be circumferentially rotatably installed below the discharge port. The distribution trough 31 is connected to the discharge port so as to receive catalyst particles from the barrel 1. The distribution trough 31 is provided with a plurality of distribution holes 33 for allowing catalyst particles to fall. The first driver 32 can drive the distribution trough 31 to rotate around the axis of the barrel 1.

[0026] Specifically, catalyst particles are added to the feed port 11, and then the catalyst particles enter the containing chamber through the feed port 11, and then the catalyst particles enter the distribution trough 31 of the distribution mechanism 3 through the discharge port, so the outflow rate of catalyst particles per unit time at the discharge port is equal to the inflow rate of catalyst particles per unit time at the distribution trough 31. The first driver 32 can drive the distribution trough 31 to rotate around the axis of the barrel 1, so that the catalyst particles in the distribution trough 31 are evenly added (to be precise, added in a scattering manner) to the reactor from the distribution hole 33. Therefore, the amount of catalyst particles added per unit time in the distribution trough 31 is the amount of catalyst particles added per unit time in the catalyst dense phase filling device. Since the flow regulating mechanism 2 is installed at the discharge port, the flow regulating mechanism 2 can adjust the outflow rate of catalyst particles per unit time at the discharge port and the inflow rate of catalyst particles per unit time in the distribution trough 31, thereby adjusting the amount of catalyst particles added per unit time in the distribution trough 31, that is, adjusting the amount of catalyst particles added per unit time in the catalyst dense phase filling device. Therefore, the catalyst dense phase filling device of the utility model can adjust the dosage of catalyst particles per unit time, so as to accurately adapt to actual production needs.

[0027] For example, by adjusting the flow regulating mechanism 2, the outflow rate of catalyst particles per unit time at the discharge port increases, and the number of catalyst particles entering the distribution trough 31 per unit time increases. Accordingly, the amount of catalyst particles added per unit time in the distribution trough 31 will increase, that is, the amount of catalyst particles added per unit time in the catalyst dense phase filling device increases. For another example, by adjusting the flow regulating mechanism 2, the outflow rate of catalyst particles per unit time at the discharge port decreases, and the number of catalyst particles entering the distribution trough 31 per unit time decreases. Accordingly, the amount of catalyst particles added per unit time in the distribution trough 31 will decrease, that is, the amount of catalyst particles added per unit time in the catalyst dense phase filling device decreases. Of course, the number of distribution holes 33 is sufficient to ensure that the adjustment is achieved.

[0028] In some embodiments, the first driver 32 may include a control unit, which may be a control panel with various function keys or a control panel with various function options, etc. On-site personnel may control the operation of the first driver 32 through the control unit of the first driver 32, thereby controlling the operation of the fabric distributing mechanism 3.

[0029] In some embodiments, the flow regulating mechanism 2 can be configured in a form similar to a butterfly valve, for example, the flow regulating mechanism 2 includes a handle and a circular plate, the circular plate is located at the discharge port of the barrel 1, and a rotating shaft is provided on opposite sides of the circular plate, the two rotating shafts are rotatably connected to the barrel 1, and the handle is located outside the barrel 1 and is fixedly connected to one of the rotating shafts; when the on-site personnel rotate the handle, the handle drives the circular plate to rotate vertically, thereby changing the angle between the circular plate and the plane where the discharge port is located, that is, changing the opening of the discharge port, so as to adjust the outflow of catalyst particles per unit time from the discharge port. Of course, the flow regulating mechanism 2 can also be other structural forms, which are no longer listed in the utility model. In some embodiments, the first driver 32 can be a drive motor.

[0030] like Figure 2 and Figure 3 As shown, in some embodiments of the utility model, the flow regulating mechanism 2 includes a bottom plate 21, an adjusting plate 22 and a second driver 23. The bottom plate 21 is located at the discharge port and is sealed with the inner wall of the barrel 1. A discharge hole 211 is provided on the bottom plate 21. The discharge hole 211 is arranged between the center of the bottom plate 21 and the outer edge of the bottom plate 21; the adjusting plate 22 is arranged to be able to rotate circumferentially relative to the bottom plate 21; the second driver 23 can drive the adjusting plate 22 to rotate circumferentially so that the adjusting plate 22 can adjust the opening of the discharge port.

[0031] Specifically, the adjustment plate 22 can be a circular plate or a fan-shaped plate, etc., which is not limited by the utility model. The adjustment plate 22 and the bottom plate 21 are arranged parallel to each other, and an appropriate distance is reserved between the adjustment plate 22 and the bottom plate 21 to avoid friction between the two. The adjustment plate 22 can be rotatably connected to the center of the bottom plate 21 so that the second driver 23 can drive the adjustment plate 22 to rotate circumferentially relative to the bottom plate 21 around the center of the bottom plate 21. When the adjustment plate 22 rotates to a position away from the discharge hole 211, the discharge port remains fully open. When the adjustment plate 22 rotates to a position that shields part of the discharge hole 211, part of the discharge hole 211 is opened, and the larger the shielded part, the smaller the unit time outflow of the catalyst particles. When the adjustment plate 22 rotates to a position that shields all the discharge holes 211, the discharge hole 211 is closed. Therefore, the opening of the discharge hole 211 can be changed by driving the adjustment plate 22 to rotate, thereby adjusting the unit time flow of the catalyst particles.

[0032] In some embodiments, the second driver 23 and the adjustment plate 22 can be matched in any manner that can achieve the above-mentioned effect, and the present invention does not limit it. For example, the second driver 23 can be a cylinder or a hydraulic cylinder, and the second driver 23 can drive the adjustment plate 22 to rotate through a common connecting rod mechanism.

[0033] In some embodiments, the second driver 23 may also include a control unit, which may also be a control panel with various function buttons or a control panel with various function options, etc. On-site personnel may control the operation of the second driver 23 through the control unit of the second driver 23, thereby driving the adjustment plate 22 to adjust the opening of the discharge port.

[0034] like Figure 2 and Figure 3 As shown, in some embodiments of the utility model, the flow regulating mechanism 2 further includes an annular connecting platform 24 located at the discharge port and arranged in an annular shape, the outer periphery of the annular connecting platform 24 is sealedly connected to the inner wall of the barrel 1, and the outer periphery of the bottom plate 21 is sealedly connected to the inner periphery of the annular connecting platform 24. The inner periphery of the annular connecting platform 24 is provided with an annular slot 241, the slot 241 is recessed from the inner periphery of the annular connecting platform 24 to its outer periphery, and the slot 241 is arranged above the bottom plate 21. The slot 241 surrounds the adjustment plate 22, and the outer periphery of the adjustment plate 22 is fully movably inserted into the slot 241, and the second driver 23 drives the adjustment plate 22 to rotate through the gear transmission mechanism.

[0035] Specifically, the thickness of the annular connecting platform 24 is greater than the thickness of the bottom plate 21. The barrel 1 can be a cylinder, the annular connecting platform 24 can be a circular ring, the bottom plate 21 and the adjustment plate 22 can be circular plates, the diameter of the adjustment plate 22 is greater than the diameter of the bottom plate 21, and the axis of the bottom plate 21 coincides with the axis of the adjustment plate 22. The adjustment plate 22 can be rotatably mounted at the center of the top of the bottom plate 21. And because the adjustment plate 22 is inserted into the slot 241, a certain sealing can be maintained between the adjustment plate 22 and the annular connecting platform 24 to prevent catalyst particles from entering between the adjustment plate 22 and the bottom plate 21. Of course, appropriate gaps are reserved between the top surface of the adjustment plate 22 and the top wall of the slot 241, between the bottom surface of the adjustment plate 22 and the bottom wall of the slot 241, and between the outer peripheral wall of the adjustment plate 22 and the side wall of the slot 241, so that the adjustment plate 22 can rotate smoothly.

[0036] In some other embodiments, the slot 241 may also be disposed below the bottom plate 21 , and the adjustment plate 22 may be rotatably mounted at the center of the bottom of the bottom plate 21 .

[0037] like Figure 2 As shown, in some embodiments of the utility model, the gear transmission mechanism includes an outer ring gear 25 and a transmission gear 26, the outer ring gear 25 is arranged on the outer periphery of the adjustment plate 22, the transmission gear 26 is rotatably installed in the annular connecting platform 24, the outer ring gear 25 is meshed with the transmission gear 26, the second driver 23 can drive the transmission gear 26 to rotate circumferentially, and the second driver 23 is fixedly installed on the annular connecting platform 24.

[0038] Specifically, the inner periphery of the outer gear ring 25 is fixedly connected to the outer periphery of the adjustment plate 22, and the axis of the outer gear ring 25 coincides with the axis of the adjustment plate 22. Of course, the outer gear ring 25 can be connected to the adjustment plate 22 by means of one-piece molding or welding, etc., which is not limited by the present utility model. The second driver 23 can be a driving motor, and the transmission gear 26 is installed on the output shaft of the second driver 23. The second driver 23 can drive the transmission gear 26 to rotate, and the transmission gear 26 further drives the outer gear ring 25 to rotate, and the outer gear ring 25 drives the adjustment plate 22 to rotate. During the rotation of the adjustment plate 22, the opening of the discharge hole 211 can change, thereby adjusting the unit time flow rate of the catalyst particles.

[0039] In some embodiments of the utility model, the catalyst dense phase filling device may further include a flow sensor 242 and a controller. The controller is arranged outside the barrel 1, and the flow sensor 242 is arranged at the bottom of the annular connecting platform 24, and the flow sensor 242 is connected to the controller signal. At the same time, the first driver 32 and the second driver 23 are respectively connected to the controller signal. When the catalyst particles move to the reactor through the discharge hole 211, the flow sensor 242 can detect the catalyst particles per unit time flow at the discharge hole 211, and the flow sensor 242 can send the catalyst particles per unit time flow to the controller, and the controller stores the adjustment standard, and then the controller can send instructions to the second driver 23 according to the adjustment standard, and then control the second driver 23 to drive the adjustment plate 22 to rotate, so as to adjust the opening of the discharge hole 211. Of course, the controller may also include a control unit, which may be a control panel with various function buttons or a control panel with various function options. The on-site personnel can control the operation of the second driver 23 through the control unit of the controller, and then adjust the catalyst particles per unit time flow. Of course, the controller can also control the operation of the first driver 32.

[0040] like Figure 2 and Figure 3 As shown, in some embodiments of the present invention, the bottom plate 21 is a circular plate and is provided with two fan-shaped discharge holes 211, and the two discharge holes 211 are distributed on both sides of the center of the bottom plate 21 in an axisymmetric manner; the adjustment plate 22 is a circular plate and is provided with two fan-shaped adjustment holes 221, and the two adjustment holes 221 are distributed on both sides of the center of the bottom plate 21 in an axisymmetric manner. And when one of the adjustment holes 221 is completely aligned with one of the discharge holes 211, the other adjustment hole 221 is completely aligned with the other discharge hole 211.

[0041] Specifically, the center lines of the two discharge holes 211 overlap and pass through the center of the bottom plate 21; correspondingly, the center lines of the two adjustment holes 221 overlap and pass through the center of the adjustment hole 221. And the shape and size of the discharge hole 211 and the adjustment hole 221 are exactly the same. Therefore, when the adjustment hole 221 rotates to a position aligned with the discharge hole 211, the adjustment hole 221 and the discharge hole 211 are completely overlapped in the vertical direction. When the two adjustment holes 221 are aligned with the two discharge holes 211 respectively, the opening of the two discharge holes 211 is the largest, and the unit time flow of the discharge hole 211 is the largest at this time. When the two adjustment holes 221 are partially offset from the two discharge holes 211 respectively, part of the discharge hole 211 is blocked. When the two adjustment holes 221 are completely offset from the two discharge holes 211 respectively, the discharge hole 211 is completely blocked. Therefore, during the rotation of the regulating plate 22 , the overlap between the discharge hole 211 and the regulating hole 221 may change, thereby adjusting the flow rate per unit time of the catalyst particles.

[0042] like Figure 1 and Figure 4 As shown, in some embodiments of the utility model, the material distribution mechanism 3 includes a transmission rod 27, which is rotatably disposed in the barrel 1, and the transmission rod 27 is rotatably passed through the center of the bottom plate 21 and the center of the adjustment plate 22. The axis of the transmission rod 27 coincides with the axis of the barrel 1. The top end of the transmission rod 27 extends from the feed port 11 of the barrel 1 and is connected to the first driver 32, and the first driver 32 can drive the transmission rod 27 to rotate circumferentially. The bottom end of the transmission rod 27 extends from the discharge port of the barrel 1 and is fixedly connected to the material distribution groove 31.

[0043] Specifically, the length of the transmission rod 27 is greater than the length of the barrel 1, but the diameter of the transmission rod 27 is much smaller than the diameter of the barrel 1. The top of the transmission rod 27 extends upward from the top of the barrel 1, and the top of the transmission rod 27 is connected to the first driver 32. The bottom of the transmission rod 27 extends downward from the bottom of the barrel 1, the transmission rod 27 passes through the bottom plate 21 and the adjustment plate 22, and the bottom of the transmission rod 27 is fixedly connected to the material distribution groove 31. The first driver 32 can drive the transmission rod 27 to rotate circumferentially, and the transmission rod 27 can drive the material distribution groove 31 to rotate circumferentially, that is, the material distribution groove 31 rotates around the axis of the transmission rod 27. Of course, the transmission rod 27 is rotatably passed through the bottom plate 21 and the adjustment plate 22, so that the rotation of the transmission rod 27 and the rotation of the adjustment plate 22 are independent of each other. Preferably, rolling bearings can be set between the adjustment plate 22 and the transmission rod 27 and between the bottom plate 21 and the transmission rod 27 to reduce friction. Preferably, the first driver 32 may be a driving motor, and an output shaft of the first driver 32 is connected to the top end of the transmission rod 27 .

[0044] like Figure 1As shown, in some embodiments of the present invention, the first driver 32 is located above the feed port 11 , and the first driver 32 is fixedly connected to the barrel 1 through a plurality of first connecting rods 321 that are spaced apart.

[0045] Specifically, all the first connecting rods 321 are evenly distributed around the transmission rod 27 , and these first connecting rods 321 can fix the first driver 32 to facilitate driving the transmission rod 27 to rotate.

[0046] like Figure 4 As shown, in some embodiments of the utility model, the cloth mechanism 3 also includes a fixed frame 28, the fixed frame 28 includes a fixed ring 281 and a plurality of second connecting rods 282, the transmission rod 27 passes through the fixed ring 281, and the transmission rod 27 is connected to the fixed ring 281 through a bearing, and the fixed ring 281 is connected to the inner wall of the barrel 1 through the second connecting rods 282.

[0047] Specifically, all the second connecting rods 282 are evenly distributed around the fixing ring 281, and the second connecting rods 282 can fix the fixing ring 281, and the fixing ring 281 can limit the radial movement of the transmission rod 27, so that the transmission rod 27 can rotate stably in the barrel 1. In addition, a rolling bearing is provided between the transmission rod 27 and the fixing ring 281, which can ensure that the transmission rod 27 rotates smoothly.

[0048] like Figure 5 As shown, in some embodiments of the present invention, the material distribution trough 31 includes a cylindrical trough side plate and a circular trough bottom plate, the transmission rod 27 is connected to the center of the trough bottom plate, the trough bottom plate is sealed and installed at the bottom of the trough side plate, and the trough side plate is provided with a material distribution hole 33.

[0049] Specifically, the opening of the distribution trough 31 faces the discharge port and the discharge hole 211, so the catalyst particles flowing out of the discharge hole 211 can directly enter the distribution trough 31, and the catalyst particles can leave the distribution trough 31 through the distribution hole 33. The first driver 32 can drive the distribution trough 31 to rotate circumferentially through the transmission rod 27, so that the catalyst particles leaving the distribution hole 33 can be evenly scattered.

[0050] like Figure 1 As shown, in some embodiments of the utility model, the catalyst dense phase filling device further includes a support mechanism 4, which includes a vertically extending support rod 42 and an annular annular base 41, the top of the support rod 42 is fixedly connected to the outer wall of the barrel 1, the bottom of the support rod 42 is fixedly connected to the inner side of the annular base 41, the axis of the annular base 41 is consistent with the axis of the barrel 1, and the inner diameter of the annular base 41 is greater than the outer diameter of the barrel 1. The support mechanism 4 can support the barrel 1 so that the catalyst particles can be stably scattered, and the annular base 41 will not interfere with the material distribution trough 31.

[0051] This article uses specific examples to illustrate the principles and implementation methods of the utility model. The above examples are only used to help understand the method and core ideas of the utility model. The above are only preferred implementation methods of the utility model. It should be pointed out that due to the limitations of textual expression, there are objectively infinite specific structures. For ordinary technicians in this technical field, without departing from the principles of the utility model, they can make several improvements, modifications or changes, and can also combine the above technical features in an appropriate manner; these improvements, modifications, changes or combinations, or the direct application of the concept and technical solution of the utility model to other occasions without improvement, should be regarded as the protection scope of the utility model.

Claims

1. A catalyst dense phase filling device, characterized in that: include: A barrel (1), wherein a containing cavity is provided inside the barrel (1), and a feed inlet (11) and a discharge outlet communicated with the containing cavity are respectively provided at the top and the bottom of the barrel (1); A flow regulating mechanism (2), the flow regulating mechanism (2) being installed at the discharge port and capable of regulating the outflow rate of catalyst particles per unit time at the discharge port; as well as A material distribution mechanism (3), the material distribution mechanism (3) comprising a material distribution trough (31) and a first driver (32), the material distribution trough (31) being rotatably mounted below the material outlet, the material distribution trough (31) being connected to the material outlet so as to be able to receive catalyst particles from the barrel (1), the material distribution trough (31) being provided with a plurality of material distribution holes (33) for allowing catalyst particles to fall, and the first driver (32) being able to drive the material distribution trough (31) to rotate around the axis of the barrel (1).

2. The catalyst dense phase filling device according to claim 1, characterized in that: The flow regulating mechanism (2) comprises a bottom plate (21), an adjusting plate (22) and a second driver (23); the bottom plate (21) is located at the discharge port and is sealed to the inner wall of the barrel (1); a discharge hole (211) is provided on the bottom plate (21); the discharge hole (211) is arranged between the center of the bottom plate (21) and the outer edge of the bottom plate (21); the adjusting plate (22) is arranged to be rotatable relative to the bottom plate (21); and the second driver (23) is capable of driving the adjusting plate (22) to rotate circumferentially so that the adjusting plate (22) can adjust the opening of the discharge port.

3. The catalyst dense phase filling device according to claim 2, characterized in that: The flow regulating mechanism (2) further comprises an annular connecting platform (24) located at the material outlet and arranged in an annular shape, the outer periphery of the annular connecting platform (24) being sealedly connected to the inner wall of the barrel (1), and the outer periphery of the bottom plate (21) being sealedly connected to the inner periphery of the annular connecting platform (24); The inner circumference of the annular connecting platform (24) is provided with an annular slot (241), the slot (241) is recessed from the inner circumferential wall of the annular connecting platform (24) to its outer circumferential wall, and the slot (241) is arranged above the bottom plate (21); the slot (241) surrounds the adjustment plate (22), and the outer circumference of the adjustment plate (22) is fully movably inserted into the slot (241), and the second driver (23) drives the adjustment plate (22) to rotate through a gear transmission mechanism.

4. The catalyst dense phase filling device according to claim 3, characterized in that: The gear transmission mechanism comprises an outer gear ring (25) and a transmission gear (26); the outer gear ring (25) is arranged on the outer periphery of the adjustment plate (22); the transmission gear (26) is rotatably mounted in the annular connecting platform (24); the outer gear ring (25) is meshed with the transmission gear (26); the second driver (23) is capable of driving the transmission gear (26) to rotate in a circumferential direction; and the second driver (23) is fixedly mounted on the annular connecting platform (24).

5. The catalyst dense phase filling device according to claim 3, characterized in that: The bottom plate (21) is a circular plate and is provided with two fan-shaped discharge holes (211), and the two discharge holes (211) are distributed on both sides of the center of the bottom plate (21) in an axially symmetrical manner; the adjustment plate (22) is a circular plate and is provided with two fan-shaped adjustment holes (221), and the two adjustment holes (221) are distributed on both sides of the center of the bottom plate (21) in an axially symmetrical manner; and when one of the adjustment holes (221) is completely aligned with one of the discharge holes (211), the other adjustment hole (221) is completely aligned with the other discharge hole (211).

6. The catalyst dense phase filling device according to claim 3, characterized in that: The material distribution mechanism (3) comprises a transmission rod (27), the transmission rod (27) is rotatably arranged in the barrel (1), and the transmission rod (27) is rotatably passed through the center of the bottom plate (21) and the center of the adjustment plate (22); the axis of the transmission rod (27) coincides with the axis of the barrel (1); the top end of the transmission rod (27) extends from the feed port (11) of the barrel (1) and is connected to the first driver (32), and the first driver (32) can drive the transmission rod (27) to rotate circumferentially; the bottom end of the transmission rod (27) extends from the discharge port of the barrel (1) and is fixedly connected to the material distribution trough (31).

7. The catalyst dense phase filling device according to claim 6, characterized in that: The first driver (32) is located above the feed port (11), and the first driver (32) is fixedly connected to the barrel (1) via a plurality of first connecting rods (321) distributed at intervals.

8. The catalyst dense phase filling device according to claim 6, characterized in that: The material dispensing mechanism (3) further comprises a fixing frame (28), the fixing frame (28) comprising a fixing ring (281) and a plurality of second connecting rods (282), the transmission rod (27) passing through the fixing ring (281), and the transmission rod (27) and the fixing ring (281) are connected via a bearing, and the fixing ring (281) is connected to the inner wall of the barrel (1) via the second connecting rods (282).

9. The catalyst dense phase filling device according to claim 6, characterized in that: The material distribution trough (31) comprises a cylindrical trough side plate and a circular trough bottom plate, the transmission rod (27) is connected to the center of the trough bottom plate, the trough bottom plate is sealed and installed at the bottom of the trough side plate, and the material distribution hole (33) is provided on the trough side plate.

10. The catalyst dense phase filling device according to claim 1, characterized in that: The catalyst dense phase filling device also includes a support mechanism (4), which includes a vertically extending support rod (42) and an annular ring base (41), the top end of the support rod (42) is fixedly connected to the outer wall of the barrel (1), and the bottom end of the support rod (42) is fixedly connected to the inner side of the annular base (41), the axis of the annular base (41) is consistent with the axis of the barrel (1), and the inner diameter of the annular base (41) is larger than the outer diameter of the barrel (1).

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