Self-cleaning type ultra-high temperature steam continuous steaming and baking machine

Abstract

The application provides a self-cleaning ultrahigh-temperature steam continuous steaming and baking machine, and belongs to the technical field of steaming and baking machines. The machine body is provided with a left box body on the left side, a chain decontamination structure on the left side of the conveying chain, an oil fume decontamination structure connected to the lower end of the pipeline I, a water circulation structure connected to the other end of the pipeline II, an inner wall decontamination structure provided on the front and rear side walls of the left box body, the oven box body and the right box body, a deodorization and disinfection structure provided on the water circulation structure, and the water circulation structure is connected to the chain decontamination structure and the inner wall decontamination structure. The application solves the problem that the existing ultrahigh-temperature steam continuous steaming and baking machine directly discharges oil fume during work, which not only pollutes the environment, but also wastes a large amount of heat in the oil fume, and the equipment needs to be cleaned frequently to ensure the cleanliness of the equipment, which is labor-intensive.

Description

Technical Field

[0001] This invention belongs to the field of steam oven technology, specifically relating to a self-cleaning ultra-high temperature continuous steam oven. Background Technology

[0002] An ultra-high temperature continuous steam oven (or steam oven for short) is a food processing machine that uses ultra-high temperature (up to 350℃) steam or air as the main heat transfer medium to directly and evenly heat materials. This equipment can perform steaming or baking operations alone, or simultaneously. It can be used in the food industry, replacing the traditional stir-frying and braising methods in Chinese cuisine, and can also be used for drying, steaming, and sterilizing grains, medicinal herbs, and other materials. When used in Chinese cuisine for steaming and baking dishes, it ensures minimal moisture loss, attractive color, and maximum preservation of nutritional components.

[0003] Existing technology CN105078219B discloses an ultra-high temperature steam continuous steam oven, including a baking tray, a baking tray inlet end, a baking tray outlet end, a conveyor motor, a conveyor chain, a conveyor sprocket, an oven body, an ultra-high temperature steam generating mechanism, and an ultra-high temperature steam release pipe. One end of the ultra-high temperature steam generating mechanism is a low-temperature steam inlet, and the other end is an ultra-high temperature steam outlet, which is connected to the ultra-high temperature steam release pipe. During operation, this ultra-high temperature steam continuous steam oven directly discharges oil fumes, causing environmental pollution. Furthermore, the oil fumes contain a large amount of heat, resulting in energy waste. Frequent cleaning is also required to maintain the cleanliness of the equipment, leading to high labor intensity. Summary of the Invention

[0004] This invention provides a self-cleaning ultra-high temperature steam continuous steam oven, which aims to solve the problems of existing ultra-high temperature steam continuous steam ovens, where oil fumes are directly discharged during operation, causing environmental pollution, and the oil fumes contain a large amount of heat, resulting in energy waste. In addition, the ovens require frequent cleaning to maintain their cleanliness, which is labor-intensive.

[0005] This invention provides a self-cleaning ultra-high temperature steam continuous steam oven, comprising a body, a left-side housing on the left side of the body, a right-side housing on the right side of the body, and an oven housing between the left and right-side housings. A conveyor chain is also installed within the body, passing sequentially through the left-side housing, the oven housing, and the right-side housing. Exhaust hoods are installed on the outer sides of both the left and right-side housings. A chain cleaning structure is installed on the left side of the conveyor chain. The upper end of the exhaust hood is connected to a flue, and a first pipe is connected to the flue. The lower end of the first pipe is connected to an oil fume cleaning structure, and the lower end of the oil fume cleaning structure is connected to a second pipe. The other end of the second pipe is connected to a water circulation structure. Inner wall cleaning structures are installed on the front and rear side walls of the left-side housing, the oven housing, and the right-side housing. A deodorizing and disinfecting structure is installed on the water circulation structure, which is also connected to the chain cleaning structure and the inner wall cleaning structure.

[0006] Furthermore, the water circulation structure includes a storage tank with a lid installed at its upper end. The storage tank and the lid are locked together by a latch. A connector is fixedly connected to the upper end of the lid, and the connector is connected to the storage tank. A check switch is installed on the connector to prevent backflow of oil fumes. A baffle plate is fixedly connected to the left side inside the storage tank. A slot is provided on the baffle plate, and an iron frame is embedded in the slot. A filter membrane is fixedly connected to the iron frame. A magnet is fixedly connected to the bottom wall inside the storage tank, and the magnet is tightly attracted to the iron frame. A handle is fixedly connected to the upper end of the iron frame. A support frame is fixedly connected to the right side inside the storage tank, and a separation plate is placed at the upper end of the support frame. The plate has several vertically penetrating circular holes (six) evenly spaced. The sidewalls of the separation plate are in close contact with the baffle plate and the liquid storage tank. The front and rear sides of the lower wall of the tank cover are fixedly connected to the clamping plates. The lower end of the clamping plates is in close contact with the upper wall of the separation plate. A pair of handles (two) are mirror-mounted on the upper wall of the separation plate. A spray pipe (two) is installed inside the liquid storage tank. The spray pipe (two) is located below the support frame. Several nozzles are evenly spaced on the spray pipe (two). The nozzles are vertically downward. The spray pipe (two) is connected to pipe (two). Pipe (five) is fixedly connected to the left side of the liquid storage tank. One end of pipe (five) extends to the bottom of the baffle plate. The other end of pipe (five) is connected to a water pump. Connector (two) is connected to the left side of the water pump.

[0007] Furthermore, the chain cleaning structure includes a pipe four connected to the connector two, a protective cover one fixed to the inside of the conveyor chain, and a water collecting hopper one fixed to the bottom of the conveyor chain. The water collecting hopper one is located directly below the protective cover one, and the width of the water collecting hopper one is greater than the width of the protective cover one. A spray pipe one is fixed to the inside of the water collecting hopper one, and the spray pipe one is connected to the pipe four. Several nozzles are evenly reserved on the spray pipe one, and the nozzles are positioned facing the conveyor chain. The lower end of the water collecting hopper one is connected to the pipe three.

[0008] Furthermore, the device includes an outer casing, a separating plate, a guiding unit, a containing space, and a guiding unit. The outer casing includes a separation chamber, an upper channel, and a lower channel. A check switch is installed on the upper channel, and a check switch is installed on the lower channel. The separating plate is installed in the separation chamber, and several vertically penetrating circular holes are evenly reserved on the separating plate. The separating plate is used to separate impurities in the fumes flowing from the upper channel into the outer casing. The guiding unit is located on the side of the separating plate that is farther from the upper channel, and is used to increase the pressure intensity of the airflow between the guiding unit and the separating plate to squeeze out the impurities on the separating plate. The containing space is reserved on the side of the separating plate to hold the squeezed-out impurities. The guiding unit can guide the removed impurities into the containing space.

[0009] The guiding unit includes a guiding module, which is installed between the upper channel and the separating plate. The guiding module includes several guide plates that are connected to each other. The guide plates are provided with guiding slopes, which can guide impurities that fall on the guide plates into the receiving space. The guiding module is movably installed in the outer box. The guiding unit also includes a hydraulic cylinder, which can press the guiding module closer to the separating plate.

[0010] The dredging unit includes a power module and a moving plate module. The moving plate module includes a moving plate one and a moving plate two that can move within the separation chamber. The power module is used to pull the moving plate one to move back and forth vertically within the separation chamber. A moving column is installed on the lower wall of the moving plate one. A cylinder one is installed on the lower wall of the moving plate two. The cylinder one is filled with hydraulic transmission oil. The lower end of the moving column extends into the cylinder one and is fixedly connected to a rubber sheet. The rubber sheet is movably connected to the cylinder one and is in close contact with the inner wall of the cylinder one.

[0011] The hydraulic cylinder includes a storage space and a movable column. The storage space is also filled with hydraulic transmission oil. The storage space is installed on the inner wall of the outer casing. A silicone sheet is installed at the upper end of the movable column. The silicone sheet is located in the storage space and can move within the storage space. The silicone sheet is in close contact with the storage space. The lower end of the movable column is fixedly connected to the guide module. The storage space and the cylinder are connected through a channel.

[0012] When the first and second moving plates move away from each other, the rubber sheet on the moving column presses the hydraulic transmission oil, which flows into the channel and is guided to the storage space 1 through the channel, pressing the oil cylinder. Then, the moving column 1 pushes against the guide module and approaches the separating plate, thereby making the movement of the moving plate module and the movement of the guide module related to each other.

[0013] The variable plate module includes a conducting mode and a sealed mode. The power module enables the variable plate module to switch between the conducting mode and the sealed mode. In the conducting mode, the oil fumes can pass through the variable plate module. In the sealed mode, the power module can drive the variable plate module to concentrate the oil fumes.

[0014] The guiding unit also includes a spiral beryllium copper wire 1, which is used to return the second moving plate to its original position. The power module can pull the first moving plate downwards, thereby pressing the second moving plate, which in turn presses the spiral beryllium copper wire 1.

[0015] The first variable plate has several vertically penetrating circular holes, and the second variable plate has several vertically penetrating circular holes. When the variable plate module is in a sealed mode, the second variable plate blocks the first circular hole, and the first variable plate blocks the second circular hole.

[0016] Furthermore, the power module includes a rotating platform and a linkage column. The center of the rotating platform is fixedly connected to the rotating column. The rotary cylinder can drive the rotating platform to rotate. A deflector column is fixedly connected to the side of the rotating platform that is far from the rotating column. The linkage column includes a head and a tail. A horizontally arranged track is installed on the head of the linkage column. The deflector column is movably installed in the track. The tail of the linkage column is connected to a variable plate. When the rotating platform rotates, the deflector column can drive the linkage column to move back and forth vertically in the separation chamber, thereby causing the variable plate to move back and forth vertically.

[0017] Furthermore, the separating plate is movably installed inside the outer casing, and a spiral beryllium copper wire II is also installed inside the outer casing to allow the separating plate to return to its original position.

[0018] Furthermore, a constraint module is also installed inside the outer casing, which is used to constrain the speed at which the separation piece approaches the guide module;

[0019] The constraint module includes a spiral beryllium copper wire (III), a steel ball, a connecting channel, and a storage space (II). The storage space (II) is pre-installed on the inner wall of the outer casing and filled with hydraulic transmission oil. The connecting channel, shaped like an inverted funnel, is also installed within the storage space (II). The steel ball, with a diameter larger than the upper opening of the connecting channel, has a pre-drilled circular hole (III) that extends vertically through both ends. The spiral beryllium copper wire (III) passes through the connecting channel. The upper end of the spiral beryllium copper wire (III) is fixed to the upper wall of the storage space (II), and the lower end is fixed to the steel ball. A movable column (II) is fixed to the separating plate. The upper end of the movable column (II) extends into the storage space (II) and is fixed to a rubber block. The rubber block is in close contact with the storage space (II) and can be movably installed within it.

[0020] Furthermore, the inner wall cleaning structure includes a protective cover 2 fixed to the upper end of the side wall of the left box, oven box, and right box, and a water collection hopper 2 fixed to the lower end of the side wall of the left box, oven box, and right box. The lower end of the protective cover 2 has a gap with the corresponding side wall of the left box, oven box, and right box. A spray pipe 3 is fixedly connected inside the protective cover 2. One of the spray pipes 3 is connected to the connector 2 via a pipe 7. Adjacent spray pipes 3 are connected via a guide pipe. Several nozzles are evenly reserved on the spray pipe 3. The nozzles are positioned directly opposite the side wall of the corresponding left box, oven box, and right box. The water collection hopper 2 is located directly below the protective cover 2. The lower end of the water collection hopper 2 is connected to a pipe 6. The pipe 6 is connected to the connector 1. One of the pipes 6 is connected to the pipe 3.

[0021] Furthermore, the deodorizing and disinfecting structure includes a pipe eight connected to the right side of the liquid storage tank. The pipe eight is located above the separation plate. The right side of the pipe eight is connected to an outer cylinder. The right side of the outer cylinder is threadedly connected to a threaded cap. The outer cylinder and the threaded cap are filled with activated carbon filter bags. The right side of the threaded cap is connected to a pipe nine.

[0022] The beneficial effects of this invention are as follows:

[0023] This invention, through the installation of a chain cleaning structure, a flue, a first pipe, an oil fume cleaning structure, a second pipe, a water circulation structure, an inner wall cleaning structure, and an odor removal and disinfection structure, can clean the generated oil fumes, preventing them from being directly discharged and causing environmental pollution. It also enables the equipment to self-clean, eliminating the need to open the equipment for cleaning in the short term, greatly reducing labor intensity and making it more convenient to use. Furthermore, it can displace the heat from the oil fumes to enhance the equipment's self-cleaning function, avoiding energy waste.

[0024] Other features and advantages of the invention will be set forth in the following description, and will be apparent in part from the description, or may be learned by practicing the invention. The objects and other advantages of the invention may be realized and obtained by means of the structures particularly pointed out in the description and the drawings. Attached Figure Description

[0025] The accompanying drawings are provided to further illustrate the invention and form part of the specification. They are used together with the embodiments of the invention to explain the invention and do not constitute a limitation thereof. In the drawings:

[0026] Figure 1 This is a front view schematic diagram of an embodiment of the present invention;

[0027] Figure 2 This is a schematic diagram of the front cross-section of an embodiment of the present invention;

[0028] Figure 3 This is a schematic cross-sectional view of the liquid storage tank according to an embodiment of the present invention;

[0029] Figure 4 This is a schematic cross-sectional view of the protective cover from two sides according to an embodiment of the present invention;

[0030] Figure 5 This is a schematic cross-sectional view of the deodorizing and disinfecting structure according to an embodiment of the present invention;

[0031] Figure 6 This is a three-dimensional schematic diagram of the fume removal structure according to an embodiment of the present invention;

[0032] Figure 7 This is a side view of the fume removal structure according to an embodiment of the present invention;

[0033] Figure 8 This is an embodiment of the present invention. Figure 7 A schematic diagram of the right-side cross-section;

[0034] Figure 9 This is an embodiment of the present invention. Figure 6 A cross-sectional schematic diagram;

[0035] Figure 10 This is a schematic diagram of the guidance module according to an embodiment of the present invention;

[0036] Figure 11 This is an embodiment of the present invention. Figure 8 Enlarged schematic diagram at point M;

[0037] Figure 12 This is an embodiment of the present invention. Figure 8 A magnified diagram of point N;

[0038] Figure 13 This is a schematic diagram of the contact between the first variable piece and the second variable piece in an embodiment of the present invention;

[0039] Figure 14 This is a schematic diagram showing the moment when the first variable piece and the second variable piece are separated from each other according to an embodiment of the present invention;

[0040] Figure 15 This is a schematic diagram of the guide module approaching the separation piece in an embodiment of the present invention;

[0041] Attached reference numerals: 1. Body; 2. Left side chamber; 3. Oven chamber; 4. Right side chamber; 5. Conveyor chain; 6. Chain cleaning structure; 7. Exhaust hood; 8. Flue; 9. Pipe 1; 10. Oil fume cleaning structure; 11. Pipe 2; 12. Water circulation structure; 13. Inner wall cleaning structure; 14. Odor removal and disinfection structure; 61. Protective cover 1; 62. Water collection basin 1; 63. Spray pipe 1; 64. Pipe 3; 65. Pipe 4; 101. Outer casing; 1011. Upper passage; 1012. Stop 1013. Check switch 1; 1014. Lower channel; 1015. Check switch 2; 102. Separator; 1021. Accommodation space; 1022. Spiral beryllium copper wire 2; 1031. Variable plate 1; 10312. Variable column; 1032. Variable plate 2; 10322. Cylinder 1; 1033. Spiral beryllium copper wire 1; 1034. Rotating platform; 1035. Linkage column; 1036. Actuating column; 1041. Guide plate; 1042. Connecting plate; 1043. Hydraulic cylinder; 10432. Storage Space 1; 10434, Movable Column 1; 1051, Rotating Column; 1052, Rotary Cylinder; 1053, Restraint Module; 10531, Spiral Beryllium Copper Wire 3; 10533, Steel Ball; 10534, Circular Hole 3; 10535, Connecting Channel; 10537, Storage Space 2; 10539, Movable Column 2; 121, Connector 1; 122, Check Switch 3; 123, Box Cover; 124, Liquid Storage Tank; 125, Baffle Plate; 126, Iron Frame; 127, Handle 1; 128. Magnet; 129. Support frame; 1210. Separation plate; 1211. Pressing plate; 1212. Handle II; 1213. Nozzle II; 1214. Pipe V; 1215. Water pump; 1216. Connector II; 131. Protective cover II; 132. Nozzle III; 133. Guide pipe; 134. Water collection hopper II; 135. Pipe VI; 136. Pipe VII; 141. Pipe VIII; 142. Outer cylinder; 143. Threaded cap; 144. Pipe IX; 145. Activated carbon filter bag. Detailed Implementation

[0042] To make the objectives, technical solutions, and advantages of the present invention clearer, the technical solutions of the embodiments of the present invention will be clearly and completely described below with reference to the accompanying drawings. The same reference numerals in the drawings represent the same components. It should be noted that the described embodiments are only some, not all, of the embodiments of the present invention. All other embodiments obtained by those skilled in the art based on the described embodiments of the present invention without creative effort are within the scope of protection of the present invention.

[0043] Reference Figure 1-15This invention proposes a self-cleaning ultra-high temperature continuous steam oven, comprising a body 1, a left-side housing 2 mounted on the left side of the body 1, a right-side housing 4 mounted on the right side of the body 1, an oven housing 3 positioned between the left-side housing 2 and the right-side housing 4, a conveyor chain 5 mounted within the body 1, passing sequentially through the left-side housing 2, the oven housing 3, and the right-side housing 4, a chain cleaning structure 6 mounted on the left side of the conveyor chain 5, and exhaust hoods 7 mounted on the outer sides of both the left-side housing 2 and the right-side housing 4 for ventilation. The upper end of the cover 7 is connected to the flue 8, the flue 8 is connected to the pipe 9, the lower end of the pipe 9 is connected to the fume removal structure 10, the lower end of the fume removal structure 10 is connected to the pipe 11, the other end of the pipe 11 is connected to the water circulation structure 12, the left side box 2, the oven box 3 and the right side box 4 are all equipped with the inner wall cleaning structure 13, the water circulation structure 12 is equipped with the deodorizing and disinfecting structure 14, and the water circulation structure 12 is also connected to the chain cleaning structure 6 and the inner wall cleaning structure 13.

[0044] Reference Figure 1 , Figure 2 and Figure 3The water circulation structure 12 includes a storage tank 124, with a cover 123 installed at the top of the storage tank 124. The storage tank 124 and the cover 123 are locked together by a latch. A connector 121 is fixedly connected to the top of the cover 123, and the connector 121 is connected to the storage tank 124. A check switch 122 is installed on the connector 121 to prevent backflow of oil fumes. A baffle plate 125 is fixedly connected to the left side inside the storage tank 124. A strip-shaped opening is provided, into which an iron frame 126 is embedded. A filter membrane is fixedly connected to the iron frame 126. A magnet 128 is fixedly connected to the bottom wall inside the liquid storage tank 124, and the magnet 128 is tightly attracted to the iron frame 126. A handle 127 is fixedly connected to the upper end of the iron frame 126. A support frame 129 is fixedly connected to the right side inside the liquid storage tank 124. A separation plate 1210 is placed on the upper end of the support frame 129, and the separation plate 1210 has evenly spaced openings. The separation plate 1210 has several vertically penetrating circular holes. Its sidewalls are tightly fitted to the partition plate 125 and the liquid storage tank 124. The front and rear sides of the lower wall of the tank cover 123 are fixedly connected to clamping plates 1211. The lower end of the clamping plates 1211 is tightly fitted to the upper wall of the separation plate 1210. A pair of handles 1212 are mirror-mounted on the upper wall of the separation plate 1210. A nozzle 1213 is installed inside the liquid storage tank 124. 213 is located below the support frame 129. Several nozzles are evenly reserved on the nozzle 2 1213. The nozzles are set vertically downward. The nozzle 2 1213 is connected to the pipe 2 11. The left side of the liquid storage tank 124 is fixed to the pipe 5 1214. One end of the pipe 5 1214 extends to the bottom of the baffle plate 125. The other end of the pipe 5 1214 is connected to the water pump 1215. The left side of the water pump 1215 is connected to the connector 2 1216. Water is pumped from storage tank 124 by water pump 1215 and supplied to chain cleaning structure 6 and inner wall cleaning structure 13. The concentrated waste liquid is separated by separation plate 1210 to remove solid impurities. The initially separated waste liquid falls below separation plate 1210 and is separated by filter membrane on iron frame 126. Water flows to the left side of iron frame 126 and oil remains on the right side of iron frame 126 under the action of water pump 1215, thus achieving water recycling. At the same time, the initially cleaned oil fumes are introduced into the water through spray pipe 1213. The oil fumes contain a lot of heat, which is used to heat the water in storage tank 124. This not only improves the cleaning effect but also utilizes the residual heat and cleans the oil fumes, removing oil and dust impurities.

[0045] Reference Figure 1 and Figure 2The chain cleaning structure 6 includes a pipe 65 connected to the connector 1216, a protective cover 61 fixed inside the conveyor chain 5, and a water collection hopper 62 fixed below the conveyor chain 5. The water collection hopper 62 is located directly below the protective cover 61. The width of the water collection hopper 62 is greater than the width of the protective cover 61. A spray pipe 63 is fixed inside the water collection hopper 62. The spray pipe 63 is connected to the pipe 65. Several nozzles are evenly reserved on the spray pipe 63. The nozzles are positioned facing the conveyor chain 5. The lower end of the water collection hopper 62 is connected to the pipe 64. During use, water enters the nozzle 63 through pipe 465. The nozzle on the nozzle 63 sprays water onto the conveyor chain 5 to clean it. The sprayed water is blocked by the protective cover 61 and is also bounced back onto the conveyor chain 5 to clean it again, thereby achieving the purpose of cleaning the conveyor chain 5. The wastewater falls into the water collection hopper 62 and is transported away by pipe 364.

[0046] Reference Figure 6-15 The fume extraction structure 10 includes an outer casing 101, a separation plate 102, a drainage unit, a receiving space 1021, and a guiding unit. The outer casing 101 includes a separation chamber, an upper channel 1011, and a lower channel 1013. The upper channel 1011 is connected to pipe 9 and a check switch 1012 is installed on the upper channel 1011. The lower channel 1013 is connected to pipe 11 and a check switch 1014 is installed on the lower channel 1013, allowing fumes to flow only from the upper channel 1011 into the outer casing 101 and out of the outer casing 101 through the lower channel 1013. The separation plate 102 is installed in the separation chamber. The separator 102 has several vertically penetrating circular holes evenly spaced on it. The separator 102 is used to separate impurities in the fumes flowing from the upper channel 1011 into the outer box 101. The guide unit is located on the side of the separator 102 that is farther from the upper channel 1011. It is used to increase the pressure of the airflow between the guide unit and the separator 102 to squeeze out the impurities on the separator 102, and then remove the impurities that fall on the separator 102. The receiving space 1021 is reserved on the side of the separator 102 to place the squeezed-out impurities. The guide unit can guide the removed impurities into the receiving space 1021.

[0047] During operation, oil fumes flow into the outer casing 101 through the upper channel 1011. After passing through the check switch 1012, the oil fumes are separated by the separator 102. Impurities in the oil fumes are separated on the upper wall of the separator 102. The separated oil fumes are discharged through the lower channel 1013. When a large amount of impurities accumulate on the separator 102, causing it to be unable to separate properly, the guiding unit can increase the pressure intensity of the airflow between the guiding unit and the separator 102. When the pressure intensity between the guiding unit and the separator 102 exceeds a certain value, the airflow can force the impurities out, thereby guiding the separator 102. During the impurity settling period, the guiding unit can guide the impurities into the receiving space 1021, ensuring that the impurities cannot fall back onto the separator 102, thereby achieving the purpose of guiding and cleaning the separator 102. At the same time, the equipment does not need to be disassembled during cleaning, which greatly improves the cleaning speed and makes the equipment operate more efficiently.

[0048] The separator 102 has a circular groove on its side, which forms the receiving space 1021. The guiding unit includes a guiding module, which is installed between the upper channel 1011 and the separator 102. The guiding module includes several guide plates 1041 that are connected to each other. A guiding slope is installed on the guide plate 1041. The guide plate 1041 is an arched plate, and the arched plate is inverted funnel shape. The guiding slope is the outer wall surface of the arched plate. The guiding module includes several guide plates 1041 whose inner diameter decreases from the outside to the inside and are equally spaced. Two adjacent guide plates 1041 are fixed together by a connecting piece 1042. Oil fumes can pass through the space between two adjacent guide plates 1041. The guiding slope can guide impurities that fall on the guide plates 1041 into the receiving space 1021.

[0049] The guide module is movably installed inside the outer casing 101. The guide unit also includes a hydraulic cylinder 1043, which is installed between the side wall of the outer casing 101 and the guide module. When the guide unit increases the pressure of the airflow between the guide unit and the separating plate 102, the hydraulic cylinder 1043 pushes the guide module closer to the separating plate 102. The hydraulic cylinder 1043 includes a fixed end and a movable end. The fixed end of the hydraulic cylinder 1043 is installed on the inner wall of the outer casing 101, and the movable end of the hydraulic cylinder 1043 is fixedly connected to the guide module. When the movable end of the hydraulic cylinder 1043 moves, it can push the guide module downward, allowing the guide module to approach the separating plate 102.

[0050] The evacuation unit includes a power module and a moving plate module. The moving plate module includes a first moving plate 1031 and a second moving plate 1032 that can move within the separation chamber. The separation plate 102 is located above the first moving plate 1031 and the second moving plate 1032. The power module enables the first moving plate 1031 to move within the separation chamber. A moving column 10312 is installed on the lower wall of the first moving plate 1031, and a cylinder 10322 is installed on the lower wall of the second moving plate 1032. The cylinder 10322 is filled with hydraulic transmission oil, and a circular hole 5 for external air connection is reserved at the bottom of the cylinder 10322. The lower end of the moving column 10312 extends into the cylinder 10322 and is fixedly connected to a rubber sheet. The rubber sheet is movably connected to the cylinder 10322. The inner wall of cylinder 10322 is tightly attached. When the power module pulls the variable plate 1031 to move, the rubber sheet at the lower end of the variable column 10312 can move within cylinder 10322. The cylinder 1043 includes storage space 10432 and movable column 10434. Storage space 10432 is also filled with hydraulic transmission oil. Storage space 10432 is installed on the inner wall of outer box 101. A silicone sheet is installed at the upper end of movable column 10434. The silicone sheet is located in storage space 10432 and can move within storage space 10432. The silicone sheet is tightly attached to storage space 10432. The lower end of movable column 10434 is fixedly connected to guide module. Storage space 10432 and cylinder 10322 are connected through a channel. When the first variable plate 1031 and the second variable plate 1032 move away from each other, the rubber sheet on the variable column 10312 presses the hydraulic transmission oil, and the hydraulic transmission oil flows into the channel. Through the channel, the hydraulic transmission oil is guided to the storage space 10432 and presses the cylinder 1043. Then, the first movable column 10434 pushes the guide module close to the separation plate 102, and then the movement of the variable plate module and the movement of the guide module are related to each other.

[0051] The variable plate module includes a conducting mode and a sealed mode. The power module enables the variable plate module to switch between the conducting mode and the sealed mode. In the conducting mode, the oil fumes can pass through the variable plate module and then be discharged through the lower channel 1013. In the sealed mode, the oil fumes cannot pass through the variable plate module. The power module can drive the variable plate module to concentrate the oil fumes, and then the oil fumes will reverse impact the separator 102, thereby guiding the separator 102 and ensuring the separation function of the separator 102.

[0052] The guiding unit also includes a spiral beryllium copper wire 1033, and a variable plate 1032 is located above the spiral beryllium copper wire 1033. The lower end of the spiral beryllium copper wire 1033 is fixed to the lower wall inside the outer casing 101, and the upper end of the spiral beryllium copper wire 1033 is fixed to the lower wall of the variable plate 1032. The spiral beryllium copper wire 1033 is used to return the variable plate 1032 to its original position. The power module can pull the variable plate 1031 to move downward, thereby pressing the variable plate 1032, so that the variable plate 1032 presses the spiral beryllium copper wire 1033, and the shape of the spiral beryllium copper wire 1033 changes. When the variable plate 1031 no longer presses the variable plate 1032, the spiral beryllium copper wire 1033 returns the variable plate 1032 to its original position.

[0053] Among them, the first variable plate 1031 has several vertically penetrating circular holes 1, and the second variable plate 1032 has several vertically penetrating circular holes 2. The first and second circular holes are vertically staggered from each other. When the variable plate module is in the sealed mode, the second variable plate 1032 blocks the first circular hole, and the first variable plate 1031 blocks the second circular hole. The oil fumes cannot pass through the variable plate module, and can be concentrated by the variable plate module.

[0054] Among them, one side of the outer casing 101 is screwed to a rotating column 1051. A rotary cylinder 1052 is installed on the outer wall of the outer casing 101. The rotating part of the rotary cylinder 1052 is connected to the rotating column 1051. The power module includes a rotating platform 1034 and a linkage column 1035. The rotating platform 1034 is circular, and its center is fixedly connected to the rotating column 1051. The rotary cylinder 1052 can drive the rotating platform 1034 to rotate. The rotating platform 1034 is located at a distance of 1051 from the rotating column 1051. 1. The edge of the more distant side is fixedly connected to the actuating column 1036. The linkage column 1035 includes a head and a tail. A horizontally arranged track is installed on the head of the linkage column 1035. The actuating column 1036 is movably installed in the track. The tail of the linkage column 1035 is connected to the variable plate 1031. When the rotating table 1034 rotates, the actuating column 1036 can drive the linkage column 1035 to move back and forth vertically in the separation chamber, thereby causing the variable plate 1031 to move back and forth vertically.

[0055] The separator 102 is movably mounted inside the outer casing 101. A spiral beryllium copper wire 1022 is also installed inside the outer casing 101. The spiral beryllium copper wire 1022 is used to return the separator 102 to its original position. The upper end of the outer casing 101 protrudes outward to form a circular boss. The lower end of the spiral beryllium copper wire 1022 is fixed to the lower wall surface inside the boss, and the upper end of the spiral beryllium copper wire 1022 is fixed to the lower wall surface of the separator 102. When the pressure between the guiding unit and the separator 102 increases, the separator 102 moves towards the guide module. After the impurities on the separator 102 are cleared, the spiral beryllium copper wire 1022 allows the separator 102 to return to its original position.

[0056] To rapidly concentrate the oil fumes, a constraint module 1053 is also installed inside the outer casing 101. The constraint module 1053 is used to constrain the speed at which the separating plate 102 approaches the guide module. The constraint module 1053 is installed on the inner wall of the outer casing 101 and includes a spiral beryllium copper wire 10531, steel balls 10533, a connecting channel 10535, and a storage space 10537. The storage space 10537 is reserved in the outer casing 101. On the inner wall, storage space 2 10537 is filled with hydraulic transmission oil. Storage space 2 10537 also has a connecting channel 10535, which is shaped like an inverted funnel. Steel ball 10533 is located within the connecting channel 10535. The diameter of steel ball 10533 is larger than the diameter of the upper end of the connecting channel 10535. A circular hole 3 10534 is pre-drilled in steel ball 10533, with both ends of the circular hole 3 10534 vertically connected. A spiral beryllium copper wire 10531 passes through a connecting channel 10535. The upper end of the spiral beryllium copper wire 10531 is fixed to the upper wall of the storage space 10537, and the lower end of the spiral beryllium copper wire 10531 is fixed to a steel ball 10533. A movable column 10539 is fixed to the separating plate 102. The upper end of the movable column 10539 extends into the storage space 10537 and is fixed to a rubber block. The rubber block is connected to the storage space 10537. 0537 is tightly attached, and the rubber block is movable and installed in the storage space 10537. When the separating plate 102 returns to its original position, the movable column 10539 moves towards the steel ball 10533. The hydraulic transmission oil presses the steel ball 10533 to block the connecting channel 10535, so that the hydraulic transmission oil can only slowly move to the other side of the storage space 10537 through the round hole 10534, thereby restricting the movement rate of the separating plate 102.

[0057] Reference Figure 1 , Figure 2 and Figure 4The inner wall cleaning structure 13 includes a protective cover 131 fixed to the upper side wall of the left side chamber 2, oven chamber 3, and right side chamber 4, and a water collection basin 134 fixed to the lower side wall of the left side chamber 2, oven chamber 3, and right side chamber 4. A gap is left between the lower end of the protective cover 131 and the corresponding side wall of the left side chamber 2, oven chamber 3, and right side chamber 4. A spray pipe 132 is fixedly connected inside the protective cover 131, and one of the spray pipes 132 is connected to a connector 121. 6 is connected via pipe 7 136, and adjacent spray pipes 3 132 are connected via guide pipe 133. Several nozzles are evenly reserved on spray pipe 3 132. The nozzles are set directly opposite the side walls of the corresponding left side box 2, oven box 3 and right side box 4. Water collection tank 2 134 is located directly below protective cover 2 131. The lower end of water collection tank 2 134 is connected to pipe 6 135. Pipe 6 135 is connected to connector 1 121. One of pipes 6 135 is connected to pipe 3 64. Water is pumped into nozzle 3 132 via pipe 7 136. Nozzle 3 132 sprays water onto the side wall through nozzles. The sprayed water flows downward through gaps, thus cleaning the side walls of the left chamber 2, oven chamber 3, and right chamber 4. The waste liquid after cleaning is collected by water collection hopper 2 134 and then transported to connector 1 121 via pipe 6 135. From connector 1 121, it is sent to storage tank 124 for separation, thus cleaning the left chamber 2, oven chamber 3, and right chamber 4.

[0058] Reference Figure 1 and Figure 5 The deodorizing and disinfecting structure 14 includes a pipe 141 connected to the right side of the storage tank 124. The pipe 141 is located above the separation plate 1210. The right side of the pipe 141 is connected to an outer cylinder 142. A threaded cap 143 is threadedly connected to the right side of the outer cylinder 142. Activated carbon filter bags 145 are filled in the outer cylinder 142 and the threaded cap 143. The right side of the threaded cap 143 is connected to a pipe 144. After being washed with water, the oil fumes float to the surface and are transported to the outer cylinder 142 via the pipe 141. The activated carbon filter bags 145 in the outer cylinder 142 then adsorb, disinfect, and deodorize the cleaned oil fumes, ensuring that the discharged airflow is pollution-free.

[0059] The specific implementation method is as follows: During operation, a baking tray containing food is placed on the conveyor chain 5, and the conveyor chain 5 sends the food in the baking tray to the corresponding position in the machine body 1 for steaming and baking;

[0060] The fumes generated during steaming and baking flow from the exhaust hood 7 into the flue 8, and then through pipe 9 to the fume removal structure 10. The fume removal structure 10 removes the fumes. Initially, the first and second variable plates 1031 and 1032 are separated. The power to the rotary cylinder 1052 is turned on, and the rotary cylinder 1052 pulls the rotating column 1051 to rotate. Then, the rotating table 1034 pulls the linkage column 1035 to move via the side actuating column 1036. The linkage column 1035 begins to pull the first variable plate 1031 downward. When the first variable plate 1031 contacts the second variable plate 1032, both the first and second round holes are blocked, and the fumes cannot pass through the variable plate module. As the linkage column 1035 continues to move downward, the second variable plate 1031... 2. Pressing the spiral beryllium copper wire 1033 causes a change in its shape, reducing the air pressure in the area above the moving plate module. This draws external oil fumes into the separation chamber through the upper channel 1011. As the oil fumes pass through the separation plate 102, impurities are separated. These impurities are blocked on the upper wall of the separation plate 102. The more impurities accumulate on the separation plate 102, the larger the downward gap created by the separation plate 102. When the linkage column 1035 moves downward to its furthest point, it pulls the moving plate 1031 upward. The spiral beryllium copper wire 1033 pushes the spiral beryllium copper wire 1022 upward together. At this moment, the moving plate 1031 and the moving plate 1032 are still in contact with each other. When the impurities on the separation plate 102 are very... When the circular hole four is blocked, making it difficult for oil fumes to pass through, the moving plate module continues to move upwards. The oil fumes between the separating plate 102 and the moving plate module condense, leading to increased pressure. When the pressure between the moving plate module and the separating plate 102 reaches a certain value, the oil fumes can force out the impurities inside the circular hole four, thus guiding the separating plate 102. During this period, with the cooperation of the constraint module 1053, the separating plate 102 can only slowly move upwards, thus quickly achieving the pressure required to guide the separating plate 102, achieving the purpose of guiding the separating plate 102. When the moving plate two 1032 returns to its original position, the linkage column 1035 pulls the moving plate one 1031 to move upwards again. The moving plate one 1031 and the moving plate two 1032 move away from each other, and the moving plate one 1031... The variable column 10312 presses the hydraulic transmission oil in the cylinder 10322 on the variable plate 1032. The hydraulic transmission oil flows into the channel, and through the channel, it is pressed into the storage space 10432 and presses the cylinder 1043. Then, the cylinder 1043 presses the guide module close to the separator 102. The impurities that are pressed out first pass through the guide module, and then fall down under their own weight. During the fall of the impurities, they come into contact with the guide slope outside the guide module. With the cooperation of the guide slope, the impurities are guided into the receiving space 1021. During the cleaning of the separator 102, it cannot be guaranteed that all impurities will be guided into the receiving space 1021. It is only necessary to ensure that the oil fumes can flow through the separator 102 to achieve the purpose of cleaning and guiding the separator 102.Furthermore, cleaning can be completed without disassembling the equipment, ensuring efficient operation. Finally, after being washed with water, the oil fumes float to the surface and are transported to the outer cylinder 142 via pipe 141. The activated carbon filter bag 145 inside the outer cylinder 142 then adsorbs, disinfects, and deodorizes the cleaned oil fumes, ensuring that the exhaust airflow is pollution-free.

[0061] During the steaming and baking process, water pump 1215 operates intermittently, pumping water to the chain cleaning structure 6 and the inner wall cleaning structure 13. The water then enters the spray nozzle 63 via pipe 4 65. The nozzles on spray nozzle 63 spray water onto the conveyor chain 5 for cleaning. The sprayed water is blocked by the protective cover 61 and simultaneously bounces back onto the conveyor chain 5 for further cleaning, thus achieving the purpose of cleaning the conveyor chain 5. Wastewater falls into the water collection hopper 1 62 and is transported away by pipe 3 64. Pipe 7 136 pumps water into spray nozzle 3 132, which sprays water onto the side walls through nozzles. The sprayed water flows downwards through gaps, cleaning the side walls of the left chamber 2, oven chamber 3, and right chamber 4. The cleaned wastewater is collected by water collection hopper 2 134 and then transported to connector 121 via pipe 6 135. From connector 121, the wastewater is sent to the storage tank 124 for separation, achieving the desired cleaning effect. The left side chamber 2, oven chamber 3, and right side chamber 4 are cleaned, and then the waste liquid flows into the storage tank 124. When the waste liquid falls into the storage tank 124, the separation plate 1210 separates the concentrated waste liquid, thereby separating the solid impurities in the waste liquid. The waste liquid after preliminary separation falls below the separation plate 1210. Under the action of the filter membrane on the iron frame 126, the oil and water in the waste liquid are separated. Under the action of the water pump 1215, the water flows to the left side of the iron frame 126, and the oil remains on the right side of the iron frame 126, thereby achieving water recycling. At the same time, the preliminarily decontaminated oil fumes are introduced into the water through the spray pipe 1213. The oil fumes contain a lot of heat. The heat in the oil fumes is used to heat the water in the storage tank 124, which not only improves the decontamination effect, but also utilizes the residual heat and can also clean the oil fumes, removing oil and dust and other impurities in the oil fumes, thereby achieving the purpose of oil fume decontamination, equipment self-cleaning, and energy saving.

[0062] The foregoing has shown and described the basic principles, main features, and advantages of the present invention. Those skilled in the art should understand that the present invention is not limited to the above embodiments. The embodiments and descriptions in the specification are merely illustrative of the principles of the invention. Various changes and modifications can be made to the invention without departing from its spirit and scope, and all such changes and modifications fall within the scope of the present invention as claimed. The scope of protection of this invention is defined by the appended claims and their equivalents.

Claims

1. A self-cleaning ultra-high temperature steam continuous steam oven, comprising a body (1), a left cabinet (2) installed on the left side of the body (1), a right cabinet (4) installed on the right side of the body (1), an oven cabinet (3) installed between the left cabinet (2) and the right cabinet (4), a conveyor chain (5) also installed in the body (1), the conveyor chain (5) passing sequentially through the left cabinet (2), the oven cabinet (3) and the right cabinet (4), and exhaust hoods (7) installed on the outer sides of both the left cabinet (2) and the right cabinet (4), characterized in that, A chain cleaning structure (6) is installed on the left side of the conveyor chain (5). The upper end of the exhaust hood (7) is connected to the flue (8). A pipe (9) is connected to the flue (8). The lower end of the pipe (9) is connected to the fume cleaning structure (10). The lower end of the fume cleaning structure (10) is connected to the pipe (11). The other end of the pipe (11) is connected to the water circulation structure (12). An inner wall cleaning structure (13) is installed on the front and rear side walls of the left box (2), the oven box (3), and the right box (4). A deodorizing and disinfecting structure (14) is installed on the water circulation structure (12). The water circulation structure (12) is also connected to the chain cleaning structure (6) and the inner wall cleaning structure (13). The fume removal structure (10) includes an outer casing (101), a separation plate (102), a dredging unit, a receiving space (1021), and a guiding unit. The outer casing (101) includes a separation chamber, an upper channel (1011), and a lower channel (1013). A check switch one (1012) is installed on the upper channel (1011), and a check switch two (1014) is installed on the lower channel (1013). The separation plate (102) is installed in the separation chamber, and several vertically penetrating circles are evenly reserved on the separation plate (102). Hole 4, the separating plate (102) is used to separate impurities in the oil fumes flowing from the upper channel (1011) into the outer box (101). The guiding unit is located on the side of the separating plate (102) that is farther from the upper channel (1011). It is used to increase the pressure intensity of the airflow between the guiding unit and the separating plate (102) to squeeze out the impurities on the separating plate (102). The accommodating space (1021) is reserved on the side of the separating plate (102) to place the squeezed-out impurities. The guiding unit can guide the removed impurities into the accommodating space (1021). The dredging unit includes a power module and a moving plate module. The moving plate module includes a moving plate one (1031) and a moving plate two (1032) that can move within the separation chamber. The power module is used to pull the moving plate one (1031) to move back and forth vertically within the separation chamber. A moving column (10312) is installed on the lower wall of the moving plate one (1031). A cylinder one (10322) is installed on the lower wall of the moving plate two (1032). The cylinder one (10322) is filled with hydraulic transmission oil. The lower end of the moving column (10312) extends into the cylinder one (10322) and is fixedly connected to a rubber sheet. The rubber sheet is movably connected to the cylinder one (10322) and is in close contact with the inner wall of the cylinder one (10322). The variable plate module includes a conducting mode and a sealed mode. The power module enables the variable plate module to switch between the conducting mode and the sealed mode. In the conducting mode, the oil fumes can pass through the variable plate module. In the sealed mode, the power module can drive the variable plate module to concentrate the oil fumes.

2. The self-cleaning ultra-high temperature steam continuous steam oven according to claim 1, characterized in that: The water circulation structure (12) includes a storage tank (124), with a cover (123) installed on the upper end of the storage tank (124). The storage tank (124) and the cover (123) are locked together by a latch. A connector (121) is fixedly connected to the upper end of the cover (123). The connector (121) is connected to the storage tank (124). A check switch (122) is installed on the connector (121) to prevent backflow of oil fumes. A baffle plate (125) is fixedly connected to the left side inside the storage tank (124). A strip-shaped opening is provided on the 125), and an iron frame (126) is embedded in the strip-shaped opening. A filter membrane is fixedly connected in the iron frame (126). A magnet (128) is fixedly connected to the bottom wall inside the liquid storage tank (124). The magnet (128) is tightly attracted to the iron frame (126). A handle (127) is fixedly connected to the upper end of the iron frame (126). A support frame (129) is fixedly connected to the right side inside the liquid storage tank (124). A separation plate (1210) is placed on the upper end of the support frame (129). The 0) has several vertically penetrating circular holes evenly reserved on it. The sidewall of the separation plate (1210) is in close contact with the partition plate (125) and the liquid storage tank (124). The front and rear sides of the lower wall of the tank cover (123) are fixedly connected with the pressing plate (1211). The lower end of the pressing plate (1211) is in close contact with the upper wall of the separation plate (1210). A pair of handles (1212) are mirror-mounted on the upper wall of the separation plate (1210). The liquid storage tank (124) is equipped with a nozzle (1213). (1213) is located below the support frame (129). Several nozzles are evenly reserved on the second nozzle (1213). The nozzles are set vertically downward. The second nozzle (1213) is connected to the second pipe (11). The left side of the liquid storage tank (124) is fixedly connected to the fifth pipe (1214). One end of the fifth pipe (1214) extends to the bottom of the baffle plate (125). The other end of the fifth pipe (1214) is connected to the water pump (1215). The left side of the water pump (1215) is connected to the second connector (1216).

3. The self-cleaning ultra-high temperature steam continuous steam oven according to claim 2, characterized in that: The chain cleaning structure (6) includes a pipe four (65) connected to the connector two (1216), a protective cover one (61) fixed inside the conveyor chain (5), and a water receiving hopper one (62) fixed below the conveyor chain (5). The water receiving hopper one (62) is located directly below the protective cover one (61). The width of the water receiving hopper one (62) is greater than the width of the protective cover one (61). The inner side of the water receiving hopper one (62) is fixed to the spray pipe one (63). The spray pipe one (63) is connected to the pipe four (65). Several nozzles are evenly reserved on the spray pipe one (63). The nozzles are positioned facing the conveyor chain (5). The lower end of the water receiving hopper one (62) is connected to the pipe three (64).

4. The self-cleaning ultra-high temperature steam continuous steam oven according to claim 1, characterized in that: The guiding unit includes a guiding module, which is installed between the upper channel (1011) and the separating plate (102). The guiding module includes several guide plates (1041) connected to each other. A guiding slope is installed on the guide plate (1041). The guiding slope can guide impurities that fall on the guide plate (1041) into the receiving space (1021). The guiding module is movably installed in the outer box (101). The guiding unit also includes a hydraulic cylinder (1043), which can press the guiding module closer to the separating plate (102). The cylinder (1043) includes a storage space (10432) and a movable column (10434). The storage space (10432) is also filled with hydraulic transmission oil. The storage space (10432) is installed on the inner wall of the outer casing (101). A silicone sheet is installed at the upper end of the movable column (10434). The silicone sheet is located in the storage space (10432) and can move in the storage space (10432). The silicone sheet is in close contact with the storage space (10432). The lower end of the movable column (10434) is fixedly connected to the guide module. The storage space (10432) and the cylinder (10322) are connected through a channel. The guiding unit also includes a spiral beryllium copper wire (1033), which is used to return the second variable plate (1032) to its original position. The power module can pull the first variable plate (1031) to move downward, thereby pressing the second variable plate (1032) and causing the second variable plate (1032) to press the spiral beryllium copper wire (1033). The first variable piece (1031) has several vertically penetrating circular holes, and the second variable piece (1032) has several vertically penetrating circular holes. When the variable piece module is in a sealed mode, the second variable piece (1032) blocks the first circular hole, and the first variable piece (1031) blocks the second circular hole. When the first variable plate (1031) and the second variable plate (1032) move away from each other, the rubber sheet on the variable column (10312) presses the hydraulic transmission oil, and the hydraulic transmission oil flows into the channel. The hydraulic transmission oil is guided to the storage space (10432) through the channel and presses the oil cylinder (1043). Then, the first movable column (10434) pushes the guide module close to the separation plate (102), and then the movement of the variable plate module and the movement of the guide module are related to each other.

5. A self-cleaning ultra-high temperature steam continuous steam oven according to claim 4, characterized in that: The power module includes a rotating platform (1034) and a linkage column (1035). The center of the rotating platform (1034) is fixedly connected to the rotating column (1051). A rotary cylinder (1052) can pull the rotating platform (1034) to rotate. A deflector column (1036) is fixedly connected to the side of the rotating platform (1034) that is farther away from the rotating column (1051). The linkage column (1035) includes a head and a tail. A horizontally arranged track is installed on the head of the linkage column (1035). The deflector column (1036) is movably installed in the track. The tail of the linkage column (1035) is connected to the first variable piece (1031). When the rotating platform (1034) rotates, the deflector column (1036) can drive the linkage column (1035) to move back and forth vertically in the separation chamber, thereby causing the first variable piece (1031) to move back and forth vertically.

6. The self-cleaning ultra-high temperature steam continuous steam oven according to claim 4, characterized in that: The separating plate (102) is movably installed inside the outer box (101), and a spiral beryllium copper wire II (1022) is also installed inside the outer box (101). The spiral beryllium copper wire II (1022) is used to return the separating plate (102) to its original position.

7. A self-cleaning ultra-high temperature steam continuous steam oven according to claim 6, characterized in that: The outer casing (101) is also equipped with a constraint module (1053), which is used to constrain the speed at which the separation piece (102) approaches the guide module; The constraint module (1053) includes a spiral beryllium copper wire three (10531), a steel ball (10533), a connecting channel (10535), and a storage space two (10537). The storage space two (10537) is reserved on the inner wall of the outer casing (101). The storage space two (10537) is filled with hydraulic transmission oil. The connecting channel (10535) is also installed in the storage space two (10537). The connecting channel (10535) is in the shape of an inverted funnel. The steel ball (10533) is located in the connecting channel (10535). The diameter of the steel ball (10533) is larger than the diameter of the upper end of the connecting channel (10535). The steel ball (10533) has a reserved space on it. The circular hole three (10534) is vertically open at both ends. The spiral beryllium copper wire three (10531) passes through the connecting channel (10535). The upper end of the spiral beryllium copper wire three (10531) is fixed to the upper wall of the storage space two (10537). The lower end of the spiral beryllium copper wire three (10531) is fixed to the steel ball (10533). The movable column two (10539) is fixed to the separation plate (102). The upper end of the movable column two (10539) extends into the storage space two (10537) and is fixed to a rubber block. The rubber block is in close contact with the storage space two (10537). The rubber block can be movably installed in the storage space two (10537).

8. A self-cleaning ultra-high temperature steam continuous steam oven according to claim 3, characterized in that: The inner wall cleaning structure (13) includes a protective cover two (131) fixed to the upper end of the side wall of the left box (2), oven box (3) and right box (4) and a water receiving basin two (134) fixed to the lower end of the side wall of the left box (2), oven box (3) and right box (4). The lower end of the protective cover two (131) is separated from the corresponding side wall of the left box (2), oven box (3) and right box (4). The inner wall of the protective cover two (131) is fixedly connected to a spray pipe three (132), one of which is connected to the connector two (1216) via Pipe 7 (136) is connected, and adjacent nozzles 3 (132) are connected via a guide pipe (133). Several nozzles are evenly reserved on nozzle 3 (132). The nozzles are positioned directly opposite the side walls of the corresponding left side box (2), oven box (3), and right side box (4). Water collection hopper 2 (134) is located directly below protective cover 2 (131). The lower end of water collection hopper 2 (134) is connected to pipe 6 (135). Pipe 6 (135) is connected to connector 1 (121), and one of pipes 6 (135) is connected to pipe 3 (64).

9. A self-cleaning ultra-high temperature steam continuous steam oven according to claim 2, characterized in that: The deodorizing and disinfecting structure (14) includes a pipe eight (141) connected to the right side of the liquid storage tank (124). The pipe eight (141) is located above the separation plate (1210). The right side of the pipe eight (141) is connected to an outer cylinder (142). The right side of the outer cylinder (142) is threadedly connected to a threaded cap (143). The outer cylinder (142) and the threaded cap (143) are filled with activated carbon filter bags (145). The right side of the threaded cap (143) is connected to a pipe nine (144).

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