Reaction kettle condensing device capable of continuously thickening aviation fuel

Abstract

The invention relates to the technical field of chemical equipment, and discloses a reaction kettle condensing device capable of continuously thickening aviation fuel. The condensation box body is arranged on one side of the reaction kettle, a condensation cavity, a liquid cavity and a gas cavity are formed in the condensation box body, and the condensation cavity is filled with heat exchange liquid; one end of each heat exchange tube is communicated with the gas outlet of the reaction kettle, and the other end of each heat exchange tube is communicated with the liquid cavity; the water absorption piece is arranged in the gas cavity, and the water absorption materials at the top and the bottom are used for adsorbing entrained condensed liquid. The water absorption piece can remarkably improve the capacity of capturing condensed liquid, dynamic cleaning is achieved by arranging the rolling shaft, and therefore the continuous working state of the water absorption piece is maintained. According to the device, in the up-down moving process of the connecting plate, the self-rotation mechanism of the rolling shaft is used for extruding the water absorption piece, adsorbed condensed liquid is discharged, the discharged liquid is guided into a collecting system through the synergistic effect of the sleeve a and the sleeve b, and liquid residues are effectively avoided.

Description

Technical Field

[0001] The invention relates to the technical field of chemical equipment, and in particular to a reactor condensing device for thickening sustainable aviation fuel. Background Art

[0002] With the rapid development of the aviation industry, sustainable aviation fuel has become an important direction for future aviation energy due to its low carbon emissions and environmental advantages. In the production process of aviation fuel, thickening reaction is one of the key steps, and the condensation device plays a vital role in the recovery and purification of volatile products. The reactor condensation device converts gaseous products into liquid through efficient condensation, which is convenient for subsequent processing and utilization, and is of great significance to improving resource utilization and environmental performance.

[0003] During the operation of the condensing device, the gas introduced into the condensing system contains condensable components and non-condensable components. The condensable components include hydrocarbons (such as methane, ethane, propane, aromatic hydrocarbons, etc.), alcohols (such as methanol, ethanol, propanol, etc.), water vapor, and other volatile organic compounds that can be converted into liquid under cooling conditions (such as esters and some acids); non-condensable components include inert gases (such as nitrogen, argon, etc.), trace tail gas (such as carbon dioxide, carbon monoxide, hydrogen, etc.), and possible trace reaction by-products (such as sulfide or halide gas). During the condensation process, non-condensable components will carry part of the condensed liquid and be discharged from the exhaust port. This may be caused by the following reasons: high-speed airflow carries the condensed liquid, especially when the gas flow rate is high, which affects the condensation efficiency and liquid recovery rate, and increases the difficulty and environmental pressure of tail gas treatment. How to effectively reduce the phenomenon of non-condensable components carrying condensed liquid, thereby improving the condensation efficiency and recovery rate, is a key issue that needs to be solved urgently. Summary of the invention

[0004] In view of the deficiencies of the prior art, the present invention provides a reactor condensation device for thickening sustainable aviation fuel, aiming to alleviate the above problems at least to a certain extent.

[0005] The above technical objectives of the present invention are achieved through the following technical solutions: A reactor condensation device for thickening sustainable aviation fuel, comprising: Reactor; A condensation box provided at one side of the reactor, wherein a condensation chamber, a liquid chamber and a gas chamber are formed in the condensation box, and the condensation chamber is filled with a heat exchange liquid; A plurality of heat exchange tubes are arranged in the condensing chamber, one end of which is connected to the gas outlet of the reactor, and the other end of which is connected to the liquid chamber; A connecting plate disposed on the gas cavity, wherein a mesh plate is disposed on the connecting plate, a water absorbing member is disposed on the top and bottom of the mesh plate, and rollers are disposed on the top and bottom of the connecting plate and are in contact with two water absorbing members respectively; A sleeve a and a sleeve b are arranged in the gas cavity, wherein the sleeve a is connected to the bottom of the connecting plate, the sleeve b is connected to the gas cavity, and the sleeve a is slidably connected to the sleeve b; A baffle disposed at the bottom of the sleeve b; A cleaning component provided between the gas chamber and the connecting plate, used to move the connecting plate up and down, wherein the cleaning component can move the roller when the connecting plate is moved, and the roller can generate self-rotation when it moves; A gas guiding component provided between the gas chamber and the baffle, used for moving the position of the baffle, closing the sleeve b when the baffle moves upward, and opening the sleeve b when the baffle moves downward; Among them, the gas guiding component can allow multiple baffles to move upward synchronously to close multiple sleeves b when the connecting plate moves upward to a preset position. Each time the connecting plate moves upward a preset distance, it can move one baffle position downward, and multiple baffles move in sequence.

[0006] Preferably, a diverter box is provided in the condensing chamber, the top of the heat exchange tube is connected to the diverter box, the bottom of the condensing chamber is connected to a partition, the bottom of the heat exchange tube is connected to the liquid chamber through the partition, and the top of the diverter box is connected to a delivery pipe connected to the reactor.

[0007] Preferably, the cleaning component includes a connecting cavity opened on the connecting plate, a slide plate is slidably connected in the connecting cavity, connecting shafts are respectively connected at both ends of the roller, one end of the connecting shaft extends into the connecting cavity and is rotatably connected to the slide plate, a screw a is rotatably connected in the connecting cavity, and the slide plate is threadedly connected to the screw a.

[0008] Preferably, the cleaning component further comprises a rack a connected to the connecting cavity, and the connecting shaft is connected to a gear a meshing with the rack a.

[0009] Preferably, the cleaning component further comprises gears b connected to both ends of the lead screw a, and a rack b meshing with the gear b is connected in the gas chamber.

[0010] Preferably, an electric push rod is provided in the gas cavity, and a telescopic shaft of the electric push rod is connected to the connecting plate.

[0011] Preferably, the gas guiding component includes a lead screw b rotatably connected to the sleeve b, the baffle is slidably connected to the bottom of the sleeve b and is threadedly connected to the lead screw b, the lead screw b is connected to a gear c, the bottom of the connecting plate is connected to a traction rope a, a limit rod a is connected in the gas chamber, a limit bar is connected to the limit rod a, a rack c is slidably connected to the limit rod a, the rack c has a plurality of tooth segments and meshes with the gear c, a spring a is connected between the rack c and the limit bar, and the other end of the traction rope a is connected to the rack c.

[0012] Preferably, the bottom of the connecting plate is connected to a limiting tube, a connecting piece is slidably connected inside the limiting tube, a spring b is connected between the connecting piece and the limiting tube, and one end of the traction rope a is connected to the connecting piece.

[0013] Preferably, the gas guiding component also includes a limiting rod b connected to the gas chamber, a rack d is slidably connected to the limiting rod b, a spring c is connected between the rack d and the gas chamber, a gear d adapted to the rack d is connected to the lead screw b, a traction rope b is also connected to the bottom of the connecting plate, and the other end of the traction rope b is connected to the rack d.

[0014] Preferably, a ratchet mechanism is provided between the lead screw b and the gear c, and a ratchet mechanism is also provided between the lead screw b and the gear d.

[0015] In summary, the present invention mainly has the following beneficial effects: First, by setting a water absorbent in the gas cavity, the entrained condensed liquid is adsorbed by the water absorbent material at the top and bottom. The water absorbent can significantly improve the ability to capture the condensed liquid, and dynamic cleaning is achieved by setting a roller, thereby maintaining the continuous working state of the water absorbent. In order to further improve the treatment effect, during the up and down movement of the connecting plate, the device uses the self-rotation mechanism of the roller to squeeze the water absorbent, discharge the adsorbed condensed liquid, and guide the discharged liquid into the collection system through the synergistic effect of the sleeve a and the sleeve b, effectively avoiding liquid residue.

[0016] Secondly, when the connecting plate moves upward to clean the absorbent, the gas guide component controls the synchronous movement of the baffle to close the bottom channel of the sleeve b, thereby preventing the gas from flowing into the cleaning area and preventing the high-speed airflow from interfering with the cleaning process. At the same time, after the roller moves to complete the partial cleaning, the baffle gradually opens the corresponding sleeve b channel in a preset order to allow the gas to pass through the cleaned absorbent area. This phased opening design ensures the continuity of the cleaning work and the high efficiency of gas treatment.

[0017] The present application can effectively reduce the phenomenon of non-condensable components carrying condensed liquid by dynamic cleaning of the water absorbing parts and linkage control of the gas guiding components, greatly improve the condensation efficiency and recovery rate, and provide an efficient and reliable condensation solution for the aviation fuel thickening process. BRIEF DESCRIPTION OF THE DRAWINGS

[0018] Figure 1 It is a schematic diagram of the overall structure of the present invention; Figure 2 It is a schematic diagram of the structure of a reactor of the present invention; Figure 3 It is a schematic diagram of the condensing box structure of the present invention; Figure 4 It is a schematic diagram of the heat exchange tube structure of the present invention; Figure 5 It is a schematic diagram of the connection plate structure of the present invention; Figure 6 is another schematic diagram of the connecting plate structure of the present invention; Figure 7 It is a schematic diagram of the structure of the rack b of the present invention; Figure 8 It is a schematic diagram of the structure of the sleeve a and the sleeve b of the present invention; Fig. 9 is another schematic diagram of the structure of the sleeve a and the sleeve b of the present invention; Fig.10 It is a schematic diagram of the ratchet mechanism structure of the present invention.

[0019] Reference numerals: 100, reactor; 101, condensation box; 102, condensation chamber; 103, liquid chamber; 104, gas chamber; 105, heat exchange tube; 106, connecting plate; 107, mesh plate; 108, water absorbing member; 109, roller; 110, casing a; 111, casing b; 112, baffle; 200, diversion box; 201, partition; 202, delivery pipe; 300, connecting cavity; 301, slide plate; 302, connecting shaft; 303, lead screw a; 304, rack a; 305, gear a; 306, gear b; 307, rack b; 308, electric push rod; 400, lead screw b; 401, gear c; 402, traction rope a; 403, limit rod a; 404, limit strip; 405, rack c; 406, spring a; 407, limit tube; 408, connecting piece; 409, spring b; 500, limit rod b; 501, rack d; 502, spring c; 503, gear d; 504, ratchet mechanism; 505, traction rope b. DETAILED DESCRIPTION

[0020] The following will be combined with the drawings in the embodiments of the present invention to clearly and completely describe the technical solutions in the embodiments of the present invention. Obviously, the described embodiments are only part of the embodiments of the present invention, not all of the embodiments. Based on the embodiments of the present invention, all other embodiments obtained by ordinary technicians in this field without creative work are within the scope of protection of the present invention.

[0021] refer to Figure 1-Figure 10 , a reactor condensation device for thickening sustainable aviation fuel, comprising: Reactor 100; A condensation box 101 is provided on one side of the reactor 100, wherein a condensation chamber 102, a liquid chamber 103 and a gas chamber 104 are formed in the condensation box 101, and the condensation chamber 102 is filled with a heat exchange liquid; A plurality of heat exchange tubes 105 are disposed in the condensing chamber 102, one end of which is connected to the gas outlet of the reactor 100, and the other end of which is connected to the liquid chamber 103; A connecting plate 106 is disposed on the gas chamber 104, a mesh plate 107 is disposed on the connecting plate 106, a water absorbing member 108 is disposed on the top and bottom of the mesh plate 107, and rollers 109 are disposed on the top and bottom of the connecting plate 106 and are in contact with the two water absorbing members 108 respectively; The sleeve a110 and the sleeve b111 are arranged in the gas cavity 104, the sleeve a110 is connected to the bottom of the connecting plate 106, the sleeve b111 is connected to the gas cavity 104, and the sleeve a110 is slidably connected in the sleeve b111; A baffle 112 disposed at the bottom of the casing b111; The cleaning component is disposed between the gas chamber 104 and the connecting plate 106, and is used to move the connecting plate 106 up and down. The cleaning component can move the roller 109 when the connecting plate 106 is moved, and the roller 109 can generate self-rotation when it moves. A gas guiding component disposed between the gas chamber 104 and the baffle 112, used to move the position of the baffle 112, closing the sleeve b111 when the baffle 112 moves upward, and opening the sleeve b111 when the baffle 112 moves downward; The gas guiding component can make the multiple baffles 112 move upward synchronously to close the multiple sleeves b111 when the connecting plate 106 moves upward to a preset position. The connecting plate 106 can move downward to the position of one baffle 112 every time it moves upward a preset distance, and the multiple baffles 112 move in sequence. By setting up the reactor 100, the aviation fuel thickening process needs to carry out a series of complex chemical reactions in the reactor 100. A large amount of heat and volatile gas are generated during the reaction process. The gas can enter the heat exchange tube 105 in the condensation box 101 and transport liquid to the cold water inlet of the condensation chamber 102. After entering the heat exchange tube 105, the volatile gas exchanges heat with the heat exchange liquid in the condensation chamber 102, and quickly cools down to form condensed liquid. The condensed liquid flows into the liquid chamber 103 through one end of the heat exchange tube 105 for collection, and the uncondensed gas enters the gas chamber 104. In the gas chamber 104, when the gas passes through the mesh plate 107 on the connecting plate 106, the water absorbent 108 (optionally a silicone sponge) provided at the top and bottom further absorbs the entrained condensed liquid to prevent the liquid from being discharged with the exhaust gas. After running for a period of time, the operator can start the cleaning component, and the cleaning component drives the connecting plate 106 to move up and down. When the connecting plate 106 moves, the roller 109 can be moved along the connecting plate 106. During the movement, the roller 109 can also be made to rotate, thereby driving the roller 109 in contact with the water absorbent 108 to rotate, squeezing the liquid on the water absorbent 108, so that the water absorbent 108 can restore its adsorption capacity. The squeezed liquid can enter the sleeve a110 and the sleeve b111. At the same time, the movement of the connecting plate 106 will also make the sleeve a110 move synchronously. The set gas guide component can move the position of the baffle 112. Multiple baffles 112 move upward synchronously to close the bottom of the sleeve b111, so as to block the entry of gas when cleaning the water absorbent 108, and avoid affecting the cleaning of the water absorbent 108 due to the impact of gas. As the connecting plate 106 continues to move upward, when the connecting plate 106 moves upward by the first preset distance, it can reset and move a baffle 112 downward to open the corresponding sleeve b111. At this time, the gas can reach the water absorbent 108 through the sleeve b111 and the sleeve a110. The purpose of this setting is that during the initial cleaning, the setting of blocking the gas can effectively prevent the gas flow from disturbing the water absorbent 108 that has not been cleaned, thereby ensuring the cleaning effect. After the roller 109 moves and completes the partial cleaning of the water absorbent 108, the baffle 112 gradually opens the corresponding sleeve b111 channel, and the gas guiding component guides the gas to gradually enter the cleaned water absorbent 108 area. As the roller 109 continues to move and the water absorbent 108 is gradually cleaned, the baffle 112 will open the corresponding sleeve b111 channel one by one according to the preset synchronization rule, allowing the gas to pass through the cleaned water absorbent 108 part in turn. This gradually opening design not only ensures the continuity of the cleaning operation, but also effectively utilizes the adsorption capacity of the water absorbent 108, so that the gas maintains an efficient separation effect during the entire passage process, avoiding the influence of the uncleaned part on the gas treatment efficiency. After the roller 109 completes a complete movement cycle, all baffles 112 will reset to the initial state, and the bottom of the sleeve b111 will be fully opened.The operator can restart the cleaning parts as needed to carry out subsequent cleaning operations or maintenance. This dynamic linkage cleaning and gas guidance design not only improves the automation level of the equipment, but also greatly reduces the frequency of manual intervention, ensuring the stability and efficiency of the device for long-term operation.

[0022] As a further solution of the present invention, a flow dividing box 200 is provided in the condensing chamber 102, the top of the heat exchange tube 105 is connected to the flow dividing box 200, the bottom of the condensing chamber 102 is connected to a partition 201, the bottom of the heat exchange tube 105 passes through the partition 201 and is connected to the liquid chamber 103, and the top of the flow dividing box 200 is connected to a delivery pipe 202 connected to the reactor 100; By setting the flow distribution box 200 in the condensation chamber 102, the gas entering the condensation device can be pre-treated so that it can be evenly distributed before entering the heat exchange tube 105. The top of the flow distribution box 200 is connected to the reactor 100 through the delivery pipe 202. After the volatile gas generated by the reactor 100 enters the flow distribution box 200 through the delivery pipe 202, it is evenly introduced into multiple heat exchange tubes 105 through a reasonably designed flow guide structure, so as to avoid direct high-speed impact of the gas on some heat exchange tubes 105, causing local overload or reduced condensation effect.

[0023] As a further solution of the present invention, the cleaning component includes a connecting cavity 300 opened on the connecting plate 106, a slide plate 301 is slidably connected in the connecting cavity 300, two ends of the roller 109 are respectively connected to connecting shafts 302, one end of the connecting shaft 302 extends into the connecting cavity 300 and is rotatably connected to the slide plate 301, a lead screw a303 is rotatably connected in the connecting cavity 300, and the slide plate 301 is threadedly connected to the lead screw a303; By setting the lead screw a303, when the lead screw a303 rotates, the slide plate 301 moves along the thread direction of the lead screw, thereby driving the roller 109 connected thereto to move in the connecting plate 106. The movement of the roller 109 not only changes its position in the connecting plate 106, but also drives the area in contact with the water absorbent 108 to be squeezed through its self-rotation, so that the liquid in the water absorbent 108 is squeezed out, thereby restoring its adsorption capacity. Through this design, the movement of the roller 109 can efficiently complete the cleaning of the water absorbent 108, As a further solution of the present invention, the cleaning component further includes a rack a304 connected to the connecting cavity 300, and a gear a305 meshing with the rack a304 is connected to the connecting shaft 302; When the slide plate 301 slides along the lead screw a303, the meshing action between the rack a304 and the gear a305 drives the gear a305 to rotate, thereby driving the connecting shaft 302 and the roller 109 to rotate synchronously. This design ensures that the roller 109 generates a strong self-rotation during the movement, fully contacts the water absorbent 108 and squeezes out the absorbed liquid, and at the same time dynamically cleans the surface of the water absorbent 108, thereby enhancing the recovery ability of the water absorbent 108.

[0024] As a further solution of the present invention, the cleaning component further includes gears b306 connected to both ends of the lead screw a303, and a rack b307 meshing with the gear b306 is connected to the gas chamber 104; By setting the rack b307, when the connecting plate 106 moves upward, the rack b307 can rotate the gear b306, thereby driving the screw a303 to rotate. The rotation of the screw a303 further drives the slide plate 301 to slide along its axial direction, thereby achieving the purpose of driving the screw a303 to rotate.

[0025] As a further solution of the present invention, an electric push rod 308 is provided in the gas chamber 104, and the telescopic shaft of the electric push rod 308 is connected to the connecting plate 106; By setting the electric push rod 308, its telescopic shaft is directly connected to the connecting plate 106, providing the main driving force for the connecting plate 106 to move up and down. When the electric push rod 308 is started, its telescopic shaft telescopes along a preset trajectory, thereby pushing the connecting plate 106 to move up and down accurately. By controlling the telescopic stroke and speed of the electric push rod 308, the position and movement rhythm of the connecting plate 106 can be accurately adjusted.

[0026] As a further solution of the present invention, the gas guiding component includes a lead screw b400 rotatably connected to the sleeve b111, a baffle 112 is slidably connected to the bottom of the sleeve b111 and is threadedly connected to the lead screw b400, a gear c401 is connected to the lead screw b400, a traction rope a402 is connected to the bottom of the connecting plate 106, a limit rod a403 is connected in the gas chamber 104, a limit bar 404 is connected to the limit rod a403, a rack c405 is slidably connected to the limit rod a403, the rack c405 has a plurality of tooth segments, meshing with the gear c401, a spring a406 is connected between the rack c405 and the limit bar 404, and the other end of the traction rope a402 is connected to the rack c405; By setting the traction rope a402, when the connecting plate 106 moves upward, the traction rope a402 is subjected to traction, thereby driving the rack c405 to move accordingly, and the sliding of the rack c405 drives the gear c401 to rotate, so that the lead screw b400 connected to the gear c401 rotates synchronously. The rotation of the lead screw b400 pushes the baffle 112 to slide along the bottom of the sleeve b111 through the threaded structure, and finally realizes the synchronous movement of the baffle 112 upward. When all the baffles 112 move upward to the preset position, the corresponding sleeve b111 will be closed to prevent gas from entering. This synchronous movement design effectively ensures that the bottom of the sleeve b111 is completely sealed at the beginning of the cleaning operation, avoiding the interference of gas flow on the cleaning process of the water absorbent 108.

[0027] As a further solution of the present invention, the bottom of the connecting plate 106 is connected to a limiting tube 407, a connecting piece 408 is slidably connected inside the limiting tube 407, a spring b409 is connected between the connecting piece 408 and the limiting tube 407, and one end of the traction rope a402 is connected to the connecting piece 408; By setting the spring b409, due to the long length of the rack c405, its moving distance is limited when it moves. The spring b409 set for this purpose can pull the traction rope through the limit tube 407, the spring b409 and the connecting piece 408 when the connecting plate 106 moves, and at this time, the force of the spring a406 can be overcome to allow the rack c405 to move. After the rack c405 moves to allow the multiple baffles 112 to move the closed sleeve b111, when the potential energy generated by the compression of the spring a406 is greater than the spring b409, when the connecting plate 106 continues to move upward, the spring b409 is stretched to provide sufficient flexible compensation to ensure that the upward movement of the connecting plate 106 is not restricted.

[0028] As a further solution of the present invention, the gas guiding component further includes a limiting rod b500 connected to the gas chamber 104, a rack d501 is slidably connected to the limiting rod b500, a spring c502 is connected between the rack d501 and the gas chamber 104, a gear d503 adapted to the rack d501 is connected to the lead screw b400, a traction rope b505 is further connected to the bottom of the connecting plate 106, and the other end of the traction rope b505 is connected to the rack d501; By setting the rack d501, the rack d501 does not mesh with the gear d503 in the initial state. After the connecting plate 106 moves upward to rotate the lead screw b400 through the rack c405 and the tooth segment on the rack c405 leaves the gear c401, as the connecting plate 106 continues to move upward, the rack d501 can be meshed with the gear d503 through the traction rope b. As the rack d501 meshes with the gear d503, the rack d501 starts to reversely drive the gear d503 to rotate, thereby causing the lead screw b400 to rotate in the reverse direction, driving the baffle 112 to gradually reset downward. The baffle 112 opens the bottom channels of the sleeve b111 one by one during the resetting process, so that the gas passes through the cleaned water absorbent 108 area when passing through the sleeve b111, avoiding direct impact on the area that has not been cleaned.

[0029] As a further solution of the present invention, a ratchet mechanism 504 is provided between the lead screw b400 and the gear c401, and a ratchet mechanism 504 is also provided between the lead screw b400 and the gear d503; By setting the ratchet mechanism 504, which is respectively located between the lead screw b400 and the gear c401, and between the lead screw b400 and the gear d503, one-way transmission control can be achieved. When the connecting plate 106 is reset, the rack c405 and the rack d501 are reset under the action of the spring b409 and the spring c502, and the reset movement will not drive the gear c401 and the gear d503 to rotate in the opposite direction, thereby avoiding the lead screw b400 from rotating unexpectedly during the reset process, ensuring that the position of the baffle 112 remains stable, thereby ensuring that after the cleaning is completed, the bottom of the sleeve b111 is opened during the downward reset of the connecting plate 106.

[0030] Although embodiments of the present invention have been shown and described, it will be appreciated by those skilled in the art that various changes, modifications, substitutions and variations may be made to the embodiments without departing from the principles and spirit of the present invention, and that the scope of the present invention is defined by the appended claims and their equivalents.

Claims

1. A reactor condensation device for thickening sustainable aviation fuel, characterized in that: include: Reactor (100); A condensation box (101) is arranged on one side of the reaction kettle (100), wherein a condensation chamber (102), a liquid chamber (103) and a gas chamber (104) are formed in the condensation box (101), and the condensation chamber (102) is filled with a heat exchange liquid; a plurality of heat exchange tubes (105) disposed in the condensing chamber (102), one end of which is connected to the gas outlet of the reaction kettle (100), and the other end of which is connected to the liquid chamber (103); A connecting plate (106) disposed on the gas cavity (104), a mesh plate (107) being disposed on the connecting plate (106), a water absorbing member (108) being disposed on the top and bottom of the mesh plate (107), and rollers (109) being in contact with two water absorbing members (108) being disposed on the top and bottom of the connecting plate (106); A sleeve a (110) and a sleeve b (111) are arranged in the gas cavity (104), the sleeve a (110) is connected to the bottom of the connecting plate (106), the sleeve b (111) is connected to the gas cavity (104), and the sleeve a (110) is slidably connected to the sleeve b (111); a baffle (112) disposed at the bottom of the sleeve b (111); a cleaning component disposed between the gas chamber (104) and the connecting plate (106), used to move the position of the connecting plate (106) up and down, wherein the cleaning component is capable of moving the position of the roller (109) when the connecting plate (106) is moved, and the roller (109) is capable of self-rotation when moving; a gas guiding component provided between the gas chamber (104) and the baffle (112), used for moving the position of the baffle (112), such that the baffle (112) closes the sleeve b (111) when it moves upward, and opens the sleeve b (111) when it moves downward; The gas guiding component can allow the plurality of baffles (112) to move upward synchronously to close the plurality of sleeves b (111) when the connecting plate (106) moves upward to a preset position, and the connecting plate (106) can move downward to the position of one baffle (112) each time it moves upward a preset distance, and the plurality of baffles (112) move in sequence; The cleaning component comprises a connecting cavity (300) opened on the connecting plate (106), a slide plate (301) is slidably connected in the connecting cavity (300), two ends of the roller (109) are respectively connected to connecting shafts (302), one end of the connecting shaft (302) extends into the connecting cavity (300) and is rotatably connected to the slide plate (301), a lead screw a (303) is rotatably connected in the connecting cavity (300), and the slide plate (301) is threadedly connected to the lead screw a (303); The cleaning component further comprises a rack a (304) connected to the connecting cavity (300), and the connecting shaft (302) is connected to a gear a (305) meshing with the rack a (304); The cleaning component further comprises a gear b (306) connected to both ends of the lead screw a (303); a rack b (307) meshing with the gear b (306) is connected to the gas chamber (104); An electric push rod (308) is provided in the gas cavity (104), and a telescopic shaft of the electric push rod (308) is connected to the connecting plate (106).

2. The reactor condensation device for thickening sustainable aviation fuel according to claim 1, characterized in that: A flow dividing box (200) is provided in the condensing chamber (102); the top of the heat exchange tube (105) is connected to the flow dividing box (200); the bottom of the condensing chamber (102) is connected to a partition (201); the bottom of the heat exchange tube (105) passes through the partition (201) and is connected to the liquid chamber (103); and the top of the flow dividing box (200) is connected to a delivery pipe (202) connected to the reactor (100).

3. The reactor condensation device for thickening sustainable aviation fuel according to claim 1, characterized in that: The gas guiding component comprises a lead screw b (400) rotatably connected to the sleeve b (111); the baffle plate (112) is slidably connected to the bottom of the sleeve b (111) and is threadedly connected to the lead screw b (400); a gear c (401) is connected to the lead screw b (400); a traction rope a (402) is connected to the bottom of the connecting plate (106); a limit rod a (403) is connected inside the gas chamber (104); a limit bar (404) is connected to the limit rod a (403); a rack c (405) is slidably connected to the limit rod a (403); the rack c (405) has a plurality of tooth segments and meshes with the gear c (401); a spring a (406) is connected between the rack c (405) and the limit bar (404); and the other end of the traction rope a (402) is connected to the rack c (405).

4. The reactor condensation device for thickening sustainable aviation fuel according to claim 3, characterized in that: The bottom of the connecting plate (106) is connected to a limiting tube (407), a connecting piece (408) is slidably connected inside the limiting tube (407), a spring b (409) is connected between the connecting piece (408) and the limiting tube (407), and one end of the traction rope a (402) is connected to the connecting piece (408).

5. The reactor condensation device for thickening sustainable aviation fuel according to claim 4, characterized in that: The gas guiding component also includes a limit rod b (500) connected to the gas chamber (104), a rack d (501) being slidably connected to the limit rod b (500), a spring c (502) being connected between the rack d (501) and the gas chamber (104), a gear d (503) adapted to the rack d (501) being connected to the lead screw b (400), and a traction rope b (505) being further connected to the bottom of the connecting plate (106), the other end of the traction rope b (505) being connected to the rack d (501).

6. The reactor condensation device for thickening sustainable aviation fuel according to claim 5, characterized in that: A ratchet mechanism (504) is provided between the lead screw b (400) and the gear c (401), and a ratchet mechanism (504) is also provided between the lead screw b (400) and the gear d (503).

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