Heat storage assembly of heat storage type combustion furnace

Abstract

The invention discloses a heat storage assembly of a heat storage type combustion furnace, and relates to the technical field of heat storage type combustion. Comprising a storage cylinder; the fixing ring is mounted at the top of the storage barrel; the intercepting mechanism is arranged above the storage barrel, the intercepting mechanism comprises a lifting table, a semicircular plate and a fixing barrel, and the lifting table and the semicircular plate are closed and opened in the lifting process to intercept particulate matter in the gas; the heat storage assembly of the heat storage type combustion furnace comprises a storage barrel and a replacement mechanism, the replacement mechanism is arranged in the storage barrel and comprises a telescopic rod, a surrounding plate and a heat storage part arranged in the surrounding plate, and the telescopic rod is used for driving the surrounding plate and the heat storage part to rotate and replacing the heat storage part in a rotating mode. And gas particles entering the heat storage part are intercepted, and the heat storage part is regularly replaced, so that the purpose of improving the use efficiency of the equipment is achieved.

Description

Technical Field

[0001] The invention relates to the technical field of heat storage type combustion, in particular to a heat storage component of a heat storage type combustion furnace. Background Art

[0002] Regenerative combustion technology is a technology that burns under high temperature and low oxygen air conditions. Regenerative combustion technology fundamentally improves the energy utilization rate of heating furnaces, especially the rational use of low calorific value fuels, which not only reduces pollutant emissions but also saves energy, becoming an advanced technology that meets current resource and environmental requirements.

[0003] For example, the patent titled: A heat storage component for an easily disassembled heat storage combustion furnace (patent application number: 201810301869.8) discloses the use of a fixed block, a fixed slot, a first spring, a fixed pin, a clamping slot, a stop block and a connecting rod, the heat storage body is placed in the placement slot, the fixed pin in the fixed slot is elastically ejected into the clamping slot under the elastic force of the first spring, and the fixed block is conveniently fixed to the placement slot of the grate. However, the replacement and disassembly of the heat storage component is cumbersome, and after long-term use, a large number of particulate impurities exist in the pores of the heat storage component, which affects the service life of the heat storage component. Summary of the invention

[0004] In order to overcome the problem that the replacement and disassembly of the heat storage element are cumbersome, and a large amount of particulate impurities exist in the pores of the heat storage element after long-term use, which affects the service life of the heat storage element, the present invention provides a heat storage component of a heat storage type combustion furnace, comprising:

[0005] Storage cylinder;

[0006] A fixing ring, the fixing ring being mounted on the top of the storage tube;

[0007] An interception mechanism, which is arranged above the storage cylinder and includes a lifting platform, a semicircular plate and a fixed cylinder. The lifting platform is closed and opened with the semicircular plate during the lifting process to intercept particulate matter in the gas;

[0008] The replacement mechanism is arranged inside the storage tube, and the replacement mechanism includes a telescopic rod and a surrounding plate, and a heat storage component arranged in the surrounding plate. The telescopic rod is used to drive the surrounding plate and the heat storage component to rotate, so as to replace the heat storage component in a rotating manner.

[0009] Preferably, an extension plate is installed on the outside of the storage cylinder, a locking rod is installed on the bottom of the extension plate, the semicircular plate is arranged inside the fixing ring, and the fixing cylinder is installed outside the semicircular plate.

[0010] Preferably, the interception mechanism further comprises:

[0011] A first fixing column, wherein the first fixing column is installed on the top of the semicircular plate, a plurality of the first fixing columns are provided, and a first adhesive shell is provided on the outside of the plurality of the first fixing columns;

[0012] A lifting rod, wherein the fixed end of the lifting rod is mounted on the top of the fixing ring, and the telescopic end of the lifting rod is connected to the lifting platform;

[0013] A guardrail, which is installed on the top of the semicircular plate;

[0014] A fixed cylinder, which is installed outside the semicircular plate and is located at the center of the fixed ring;

[0015] A lifting member is installed on the top of a lifting platform, a diversion component is fixedly connected to the top of the lifting member, and an adhesion component is arranged outside the lifting platform.

[0016] Preferably, the flow diversion component comprises:

[0017] An electric push plate, the electric push plate is installed on the outside of the lifting member, the outside of the electric push plate is fixedly connected with a connecting plate, the outside of the connecting plate is installed with a friction column, a plurality of friction columns are provided and are evenly arranged, the electric push plate drives the connecting plate and the friction column to reciprocate, and the friction column contacts and rubs the adhesion component during the movement;

[0018] The wave plate is installed on the outside of the friction column, the outside of the wave plate is fixedly connected with an angle plate, the outside of the angle plate is fixedly connected with a second fixing column, and the wave plate, the angle plate and the second fixing column are all provided in plurality.

[0019] Preferably, the bonding component comprises:

[0020] a wedge plate mounted on the outside of the lifting platform;

[0021] A clamping tube, which is installed outside the wedge-shaped plate, and a plurality of clamping tubes are provided;

[0022] A first air inlet, wherein the first air inlet is provided inside the positioning tube, and a plurality of the first air inlets are provided;

[0023] A second air inlet, which is opened inside the clamping tube and penetrates the inside of the wedge-shaped plate. Gas enters the clamping tube through the first air inlet and moves toward the heat storage element through the second air inlet;

[0024] A rotating head, the rotating head is installed inside the positioning tube, a connecting rod is fixedly connected to the bottom of the rotating head, a second sticky shell is sleeved on the outside of the connecting rod, and the second sticky shell performs adhesion treatment on the particles entering the positioning tube;

[0025] Preferably, the replacement mechanism further comprises:

[0026] A partition, the partition is installed at the bottom of the telescopic rod, the partition is fixedly connected to the enclosure, a motor is installed inside the fixed cylinder, and the telescopic rod is fixedly connected to the output end of the motor;

[0027] A scraper, the scraper is installed at the bottom of the partition, a scraper rod is installed at the bottom of the scraper, and a plurality of scrapers are provided and evenly arranged. When the positions of the two heat storage members are replaced, the scraper rod, the scraper and the partition rotate with the telescopic rod to perform simple scraping and cleaning of the grate;

[0028] A through groove is opened inside the enclosure, an arc-shaped pressure plate is arranged inside the through groove, a push rod is connected to the outside of the arc-shaped pressure plate, two arc-shaped pressure plates and two push rods are arranged symmetrically, and the fixed end of the push rod is connected to the inside of the storage tube.

[0029] The present invention provides a heat storage component for a heat storage combustion furnace. It has the following beneficial effects:

[0030] 1. The heat storage component of the heat storage combustion furnace is replaced by setting a replacement mechanism. Most of the heat storage components are directly fixed on the grate, which makes it difficult to replace and disassemble the heat storage components. After long-term use, there are a large number of particulate impurities in the pores of the heat storage components, which affects the service life of the heat storage components. Therefore, a replacement mechanism is set up to install the two heat storage components in the enclosure and the partition, and a movable arc-shaped pressure plate is used to reinforce the position of the heat storage components. The telescopic rod is driven by the motor to rotate, and the partition, the heat storage component and the enclosure are driven by the telescopic rod to rotate to adjust the heat storage component aligned with the hollow position in the upper fixed ring to complete the replacement of the heat storage component. And the equipment is stuck into the grate with a positioning rod, which is easy to disassemble. After disassembly, the telescopic rod stroke is adjusted, and the telescopic rod controls the lifting of the heat storage component. The heat storage component can be manually replaced or cleaned, which is simple to operate, to solve the difficulty of disassembling the heat storage component and extend the service life of the heat storage component.

[0031] 2. The heat storage component of the heat storage combustion furnace intercepts particulate matter entering the heat storage component by setting an interception mechanism. When the positions of the two heat storage components need to be replaced, the lifting rod is in the initial state, and the hollow position in the fixed ring is blocked by the lifting platform, so that the replacement of the heat storage component can be completed. When the heat storage component is in use, the lifting rod is still in the initial state, and the gas moves toward the heat storage component through the first air inlet and the second air inlet in the positioning tube. The first fixed column and the first viscous shell and the second viscous shell outside the connecting rod intercept and adhere the particulate matter, thereby reducing the amount of particulate matter entering the heat storage component. When it is necessary to clean the positioning tube and replace the second viscous shell, the position of the lifting platform can be adjusted by opening the lifting rod, which is convenient for the user to clean or replace.

[0032] 3. The heat storage component of the heat storage combustion furnace is provided with a diverter component and an adhesion component to disturb the gas and to perform adhesion treatment on the particles. By providing the adhesion component, a connecting rod with a second sticky shell is provided between the first air inlet and the second air inlet, so as to facilitate the adhesion of the particles entering the positioning tube, and the second air inlet is blocked by the connecting rod to prevent the gas from directly entering. By providing the diverter component, the gas is disturbed during the movement of the wave plate, and an angle plate and a second fixed column are provided on the outside of the wave plate, and the second fixed column repeatedly hits the positioning tube to prevent the first air inlet in the positioning tube from being blocked. By providing the diverter component and the adhesion component, during the movement of the friction column, the friction column repeatedly contacts the rotating head, thereby driving the rotating head to rotate, and the rotating head drives the connecting rod and the second sticky shell to rotate, so that the particles can better contact the second sticky shell.

[0033] 4. The heat storage component of the heat storage combustion furnace is equipped with an interception mechanism and a replacement mechanism to replace and protect the heat storage parts. By adjusting the replacement mechanism, the position replacement of the two heat storage parts and the overall replacement of the heat storage parts can be completed. Before using the equipment, the heat storage parts are fixed by inserting the positioning rod into the grate. By adjusting the interception mechanism, most of the particles entering the heat storage parts can be intercepted, extending the service life of the heat storage parts and preventing the pores in the heat storage parts from being quickly blocked by particles. BRIEF DESCRIPTION OF THE DRAWINGS

[0034] Figure 1 It is a schematic diagram of the overall structure of the present invention;

[0035] Figure 2 It is a schematic diagram of the bottom structure of the present invention;

[0036] Figure 3 It is a schematic diagram of the structure of the interception mechanism of the present invention;

[0037] Figure 4 This is a schematic diagram of the structure of the flow diversion component of the present invention;

[0038] Figure 5 For the present invention Figure 4 The structural diagram at A in the middle;

[0039] Figure 6 It is a schematic diagram of the structure of the adhesion component of the present invention;

[0040] Figure 7 It is a cross-sectional view of the replacement mechanism of the present invention;

[0041] Figure 8 For the present invention Figure 7 Schematic diagram of the structure at B in the figure.

[0042] In the figure: 1, storage cylinder; 2, fixing ring; 3, interception mechanism; 301, semicircular plate; 302, first fixing column; 303, fence; 304, lifting rod; 305, lifting platform; 306, lifting member; 307, diversion assembly; 3071, electric push plate; 3072, connecting plate; 3073, friction column; 3074, wave plate; 3075, angle plate; 3076, second fixing column; 308, adhesion assembly; 308 1. Wedge plate; 3082. Positioning cylinder; 3083. First air inlet; 3084. Rotating head; 3085. Connecting rod; 3086. Second air inlet; 309. Fixed cylinder; 4. Replacement mechanism; 401. Telescopic rod; 402. Partition plate; 403. Enclosure; 404. Heat storage element; 405. Scraper; 406. Scraper rod; 407. Through groove; 408. Arc pressure plate; 409. Push rod; 5. Extension plate; 6. Positioning rod. DETAILED DESCRIPTION

[0043] The present invention is further described in detail below in conjunction with the accompanying drawings and specific embodiments. The embodiments of the present invention are provided for the purpose of illustration and description, and are not intended to be exhaustive or to limit the present invention to the disclosed forms. Many modifications and variations will be apparent to those of ordinary skill in the art. The embodiments are selected and described in order to better illustrate the principles and practical applications of the present invention, and to enable those of ordinary skill in the art to understand the present invention and thereby design various embodiments with various modifications suitable for specific uses.

[0044] like Figure 1-Figure 8 As shown, the present invention provides a technical solution: comprising:

[0045] A storage tube 1, an extension plate 5 is installed outside the storage tube 1, and a locking rod 6 is installed at the bottom of the extension plate 5;

[0046] A fixing ring 2, the fixing ring 2 is installed on the top of the storage tube 1;

[0047] The interception mechanism 3 is arranged above the storage cylinder 1. The interception mechanism 3 includes a lifting platform 305, a semicircular plate 301 and a fixed cylinder 309. The lifting platform 305 is closed and opened with the semicircular plate 301 during the lifting process to intercept particulate matter in the gas. The semicircular plate 301 is arranged inside the fixed ring 2, and the fixed cylinder 309 is installed outside the semicircular plate 301.

[0048] The replacement mechanism 4 is arranged inside the storage tube 1. The replacement mechanism 4 includes a telescopic rod 401 and a surrounding plate 403, and a heat storage component 404 arranged in the surrounding plate 403. There are two heat storage components 404. The surrounding plate 403 is set to an annular rubber material. The surrounding plate 403 can be deformed when installing and removing the heat storage component 404. The telescopic rod 401 is used to drive the surrounding plate 403 and the heat storage component 404 to rotate, so as to replace the heat storage component 404 in a rotating manner.

[0049] Before and after using the device, the positions of the two heat storage components 404 can be replaced and the entire heat storage component 404 can be replaced by adjusting the replacement mechanism 4. Before using the device, the entire heat storage component can be fixed by inserting the positioning rod 6 into the grate, and most of the particles entering the heat storage component 404 can be intercepted by adjusting the interception mechanism 3.

[0050] The interception mechanism 3 also includes:

[0051] A first fixing column 302, which is installed on the top of the semicircular plate 301. A plurality of first fixing columns 302 are provided, and a first adhesive shell is provided on the outside of each of the plurality of first fixing columns 302;

[0052] A lifting rod 304, the fixed end of which is mounted on the top of the fixing ring 2, and the telescopic end of which is connected to the lifting platform 305;

[0053] The guardrail 303 is installed on the top of the semicircular plate 301;

[0054] A fixed cylinder 309, which is installed outside the semicircular plate 301 and is located at the center of the fixed ring 2;

[0055] The lifting member 306 is installed on the top of the lifting platform 305 . The top of the lifting member 306 is fixedly connected with a diversion component 307 . The outside of the lifting platform 305 is provided with an adhesion component 308 .

[0056] When the positions of the two heat storage elements 404 need to be replaced, the lifting rod 304 is in the initial state, the hollow position in the fixing ring 2 is blocked by the lifting platform 305, and the replacement work of the heat storage element 404 can be completed by adjusting the replacement mechanism 4.

[0057] The flow dividing assembly 307 includes:

[0058] An electric push plate 3071 is installed on the outside of the lifting member 306. A connecting plate 3072 is fixedly connected to the outside of the electric push plate 3071. A friction column 3073 is installed on the outside of the connecting plate 3072. The outer surface of the friction column 3073 is rough. There are multiple friction columns 3073, which are evenly arranged. The electric push plate 3071 drives the connecting plate 3072 and the friction column 3073 to reciprocate. During the movement of the friction column 3073, it contacts and rubs the adhesion component 308.

[0059] The wave plate 3074 is installed on the outside of the friction column 3073. The outside of the wave plate 3074 is fixedly connected with the angle plate 3075. The outside of the angle plate 3075 is fixedly connected with the second fixed column 3076. There are multiple wave plates 3074, angle plates 3075 and second fixed columns 3076.

[0060] The electric push plate 3071 is turned on to the reciprocating motion mode. The electric push plate 3071 drives the connecting plate 3072, the friction column 3073, the wave plate 3074 and the angle plate 3075 to move. During the movement of the wave plate 3074, the gas is disturbed. The angle plate 3075 and the second fixed column 3076 are arranged outside the wave plate 3074. The second fixed column 3076 repeatedly hits the positioning tube 3082.

[0061] The bonding component 308 includes:

[0062] A wedge plate 3081, the wedge plate 3081 is installed outside the lifting platform 305;

[0063] A clamping cylinder 3082, which is installed outside the wedge plate 3081, and a plurality of clamping cylinders 3082 are provided;

[0064] A first air inlet 3083, which is provided inside the positioning tube 3082, and a plurality of first air inlets 3083 are provided;

[0065] A second air inlet 3086, which is provided inside the positioning tube 3082 and passes through the wedge-shaped plate 3081;

[0066] The rotating head 3084 has a plurality of rubber strips disposed on its exterior. The rotating head 3084 is installed inside the positioning tube 3082. The bottom of the rotating head 3084 is fixedly connected with a connecting rod 3085. The exterior of the connecting rod 3085 is covered with a second adhesive shell.

[0067] When the heat storage element 404 is in use, the lifting rod 304 is still in the initial state, and the gas moves toward the heat storage element 404 through the first air inlet and the second air inlet in the positioning cylinder 3082. The first fixed column 302 and the first sticky shell and the second sticky shell outside the connecting rod 3085 intercept and adhere the particles, thereby reducing the amount of particles entering the heat storage element 404.

[0068] When it is necessary to clean the locking tube 3082 and replace the second adhesive shell, the lifting rod 304 is opened, and the lifting rod 304 drives the lifting platform 305 to move upward. At this time, the locking tube 3082 is away from the semicircular plate 301, which is convenient for the user to manually clean the locking tube 3082 or replace the second adhesive shell outside the connecting rod 3085.

[0069] By providing a connecting rod 3085 with a second adhesive shell between the first air inlet 3083 and the second air inlet 3086, it is convenient to adhere the particles entering the positioning tube 3082, and the connecting rod 3085 blocks the second air inlet 3086 to prevent gas from directly entering.

[0070] During the movement of the friction column 3073, the friction column 3073 repeatedly contacts the rubber strip outside the rotating head 3084, thereby driving the rotating head 3084 to rotate, and the rotating head 3084 drives the connecting rod 3085 and the second viscous shell to rotate, so that the particles can better contact the second viscous shell.

[0071] The replacement mechanism 4 also includes:

[0072] The partition 402 is installed at the bottom of the telescopic rod 401, the partition 402 is fixedly connected to the enclosure 403, a motor is installed inside the fixed cylinder 309, and the telescopic rod 401 is fixedly connected to the output end of the motor;

[0073] A scraper 405, the scraper 405 is installed at the bottom of the partition 402, a scraper rod 406 is installed at the bottom of the scraper 405, and a plurality of scraper rods 406 are provided and are evenly arranged;

[0074] The through slot 407 is opened inside the enclosure 403, and an arc-shaped pressure plate 408 is arranged inside the through slot 407. The outside of the arc-shaped pressure plate 408 is connected to a push rod 409. There are two arc-shaped pressure plates 408 and two push rods 409, which are symmetrically arranged. The fixed end of the push rod 409 is connected to the inside of the storage tube 1.

[0075] Use the locking rod 6 to lock the equipment into the grate, which makes it easy to disassemble. After disassembly, adjust the travel of the telescopic rod 401 and adjust the push rod 409 to the initial state to make the arc pressure plate 408 separate from the heat storage component 404. The telescopic rod 401 controls the enclosure 403, the partition 402 and the heat storage component 404 to descend, and the heat storage component 404 can be manually replaced or cleaned. The operation is simple, which solves the difficulty in disassembling the heat storage component 404 and extends the service life of the heat storage component.

[0076] The two heat storage components 404 are installed in the enclosure 403 and the partition 402. When the push rod 409 is turned on, the push rod 409 drives the arc-shaped pressure plate 408 to contact and fix the heat storage components 404. When the positions of the two heat storage components 404 need to be replaced, the motor is turned on, and the motor drives the telescopic rod 401 to rotate, and the telescopic rod 401 drives the partition 402, the heat storage component 404 and the enclosure 403 to rotate, so as to adjust the heat storage component 404 aligned with the hollow position in the upper fixing ring 2, and complete the replacement of the heat storage component 404.

[0077] Working principle: before and after using the device, by adjusting the replacement mechanism 4, the positions of the two heat storage components 404 can be replaced and the entire heat storage component 404 can be replaced.

[0078] Use the locking rod 6 to lock the equipment into the grate, which makes it easy to disassemble. After disassembly, adjust the travel of the telescopic rod 401 and adjust the push rod 409 to the initial state to make the arc pressure plate 408 separate from the heat storage component 404. The telescopic rod 401 controls the enclosure 403, the partition 402 and the heat storage component 404 to descend, and the heat storage component 404 can be manually replaced or cleaned. The operation is simple, which solves the difficulty in disassembling the heat storage component 404 and extends the service life of the heat storage component.

[0079] When the positions of the two heat storage elements 404 need to be replaced, the lifting rod 304 is in the initial state, the hollow position in the fixing ring 2 is blocked by the lifting platform 305, and the replacement work of the heat storage element 404 can be completed by adjusting the replacement mechanism 4.

[0080] The two heat storage components 404 are installed in the enclosure 403 and the partition 402. When the push rod 409 is turned on, the push rod 409 drives the arc-shaped pressure plate 408 to contact and fix the heat storage components 404. When the positions of the two heat storage components 404 need to be replaced, the motor is turned on, and the motor drives the telescopic rod 401 to rotate, and the telescopic rod 401 drives the partition 402, the heat storage component 404 and the enclosure 403 to rotate, so as to adjust the heat storage component 404 aligned with the hollow position in the upper fixing ring 2, and complete the replacement of the heat storage component 404.

[0081] By adjusting the interception mechanism 3, most of the particles entering the heat storage element 404 can be intercepted. When the heat storage element 404 is in use, the lifting rod 304 is still in the initial state, and the gas moves toward the heat storage element 404 through the first air inlet and the second air inlet in the clamping cylinder 3082. The first fixed column 302 and the first viscous shell and the second viscous shell outside the connecting rod 3085 intercept and adhere the particles, thereby reducing the amount of particles entering the heat storage element 404.

[0082] By providing a connecting rod 3085 with a second adhesive shell between the first air inlet 3083 and the second air inlet 3086, it is convenient to adhere the particles entering the positioning tube 3082, and the connecting rod 3085 blocks the second air inlet 3086 to prevent gas from directly entering.

[0083] Turn on the electric push plate 3071 to the reciprocating motion mode. The electric push plate 3071 drives the connecting plate 3072, the friction column 3073, the wave plate 3074 and the angle plate 3075 to move. During the movement of the wave plate 3074, the gas is disturbed. The angle plate 3075 and the second fixed column 3076 are arranged on the outside of the wave plate 3074. The second fixed column 3076 repeatedly hits the positioning tube 3082 to avoid blockage of the first air inlet 3083 in the positioning tube 3082.

[0084] During the movement of the friction column 3073, the friction column 3073 repeatedly contacts the rubber strip outside the rotating head 3084, thereby driving the rotating head 3084 to rotate, and the rotating head 3084 drives the connecting rod 3085 and the second viscous shell to rotate, so that the particles can better contact the second viscous shell.

[0085] Obviously, the described embodiments are only some embodiments of the present invention, not all embodiments. Based on the embodiments of the present invention, all other embodiments obtained by ordinary technicians in this field and related fields without creative work should fall within the scope of protection of the present invention. The structures, devices and operating methods not specifically described and explained in the present invention are implemented according to the conventional means in the field unless otherwise specified and limited.

Claims

1. A heat storage component of a regenerative combustion furnace, characterized in that: include: Storage cylinder (1); A fixing ring (2), the fixing ring (2) being mounted on the top of the storage tube (1); An interception mechanism (3), the interception mechanism (3) being arranged above the storage cylinder (1), the interception mechanism (3) comprising a lifting platform (305), a semicircular plate (301) and a fixed cylinder (309), the lifting platform (305) being closed and opened with the semicircular plate (301) during the lifting process, so as to intercept particulate matter in the gas; A replacement mechanism (4), the replacement mechanism (4) being arranged inside the storage tube (1), the replacement mechanism (4) comprising a telescopic rod (401) and a surrounding plate (403), and a heat storage element (404) arranged in the surrounding plate (403), the telescopic rod (401) being used to drive the surrounding plate (403) and the heat storage element (404) to rotate, so as to perform a replacement operation of the heat storage element (404) in a rotating manner.

2. The heat storage component of the regenerative combustion furnace according to claim 1, characterized in that: An extension plate (5) is installed outside the storage cylinder (1), a locking rod (6) is installed at the bottom of the extension plate (5), the semicircular plate (301) is arranged inside the fixing ring (2), and the fixing cylinder (309) is installed outside the semicircular plate (301).

3. The heat storage component of the regenerative combustion furnace according to claim 1, characterized in that: The interception mechanism (3) further comprises: A first fixing column (302), the first fixing column (302) being installed on the top of the semicircular plate (301), a plurality of the first fixing columns (302) being provided, and a first adhesive shell being provided on the outside of the plurality of the first fixing columns (302); A lifting rod (304), wherein the fixed end of the lifting rod (304) is mounted on the top of the fixing ring (2), and the telescopic end of the lifting rod (304) is connected to the lifting platform (305); A guardrail (303), wherein the guardrail (303) is installed on the top of the semicircular plate (301); A fixed cylinder (309), the fixed cylinder (309) is installed outside the semicircular plate (301), and the fixed cylinder (309) is located at the center of the fixed ring (2); A lifting member (306) is installed on the top of a lifting platform (305), a diversion component (307) is fixedly connected to the top of the lifting member (306), and an adhesion component (308) is arranged outside the lifting platform (305).

4. The heat storage component of the regenerative combustion furnace according to claim 3, characterized in that: The flow diversion component (307) comprises: An electric push plate (3071), the electric push plate (3071) is installed on the outside of the lifting member (306), the outside of the electric push plate (3071) is fixedly connected with a connecting plate (3072), the outside of the connecting plate (3072) is installed with a friction column (3073), a plurality of the friction columns (3073) are arranged evenly, the electric push plate (3071) drives the connecting plate (3072) and the friction columns (3073) to make reciprocating motion, and the friction columns (3073) contact and rub against the adhesion component (308) during the motion; A wave plate (3074) is installed on the outside of the friction column (3073), the outside of the wave plate (3074) is fixedly connected to an angle plate (3075), the outside of the angle plate (3075) is fixedly connected to a second fixed column (3076), and the wave plate (3074), the angle plate (3075) and the second fixed column (3076) are all provided in plurality.

5. The heat storage component of the regenerative combustion furnace according to claim 3, characterized in that: The bonding component (308) includes: A wedge plate (3081), wherein the wedge plate (3081) is installed outside the lifting platform (305); A locking cylinder (3082), wherein the locking cylinder (3082) is installed outside the wedge-shaped plate (3081), and a plurality of the locking cylinders (3082) are provided; A first air inlet (3083), wherein the first air inlet (3083) is provided inside the positioning tube (3082), and a plurality of the first air inlet (3083) are provided; A second air inlet (3086), wherein the second air inlet (3086) is disposed inside the positioning tube (3082), and the second air inlet (3086) passes through the inside of the wedge-shaped plate (3081); The rotating head (3084) is installed inside the positioning tube (3082), the bottom of the rotating head (3084) is fixedly connected with a connecting rod (3085), and the outside of the connecting rod (3085) is covered with a second adhesive shell.

6. The heat storage component of the regenerative combustion furnace according to claim 1, characterized in that: The replacement mechanism (4) further comprises: A partition (402), wherein the partition (402) is installed at the bottom of the telescopic rod (401), the partition (402) is fixedly connected to the enclosure (403), a motor is installed inside the fixed cylinder (309), and the telescopic rod (401) is fixedly connected to the output end of the motor; A scraper (405), the scraper (405) being installed at the bottom of the partition (402), a scraper rod (406) being installed at the bottom of the scraper (405), and a plurality of scraper rods (406) being arranged evenly; A through groove (407), wherein the through groove (407) is opened inside the enclosure (403), an arc-shaped pressure plate (408) is arranged inside the through groove (407), and a push rod (409) is connected to the outside of the arc-shaped pressure plate (408), and two arc-shaped pressure plates (408) and push rods (409) are provided and are symmetrically arranged, and the fixed end of the push rod (409) is connected to the inside of the storage tube (1).

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