Offshore suspension type rocket launching platform and using method thereof

Abstract

The invention relates to the technical field of rocket offshore launching, and discloses an offshore suspension type rocket launching platform and a using method thereof.The offshore suspension type rocket launching platform comprises a launching platform body, a conical cooling groove is formed in the launching platform body, a water passing groove is formed in the launching platform body, and the water passing groove penetrates through the launching platform body and the conical cooling groove; a heat transfer block is fixedly installed at the top of the launching platform, the bottom of the heat transfer block extends into the conical cooling groove, the cooling mechanism comprises a strip-shaped box fixedly installed at the bottom of the launching platform, and a water pump is fixedly installed on the inner wall of the bottom of the strip-shaped box; a water conveying pipe is fixedly mounted at the top of the strip-shaped box, the water outlet end of the water pump communicates with the water conveying pipe, and a mounting groove is formed in the launching platform. Sediments deposited on the inner wall of the conical cooling tank can be swept into the collecting tank to be collected in the rotating process of the scraping plate, and the inner wall of the conical cooling tank is prevented from being corroded by the sediments containing salt.

Description

Technical Field

[0001] The present invention relates to the technical field of rocket offshore launching equipment, and in particular to an offshore suspended rocket launching platform and a method for using the platform. Background Art

[0002] The offshore suspended rocket launch platform is mainly composed of the main floating structure, the rocket launch support structure and the stabilization system. The main floating structure adopts a multi-module combination design and is made of lightweight alloy materials. There is a sealed cabin inside to provide buoyancy and waterproof functions. The rocket launch support structure is located in the center of the platform and has a support tower and an adjustable angle launch rail. The stabilization system includes anti-roll fins, gyroscopes and inertial navigation systems to reduce platform shaking and keep its attitude stable.

[0003] During the seawater cooling process, due to the high salt content in the seawater, when the seawater is subjected to high heat, it may be locally overheated, and the salts in the seawater are more likely to reach saturation and precipitate and solidify. The precipitated salts will form solid precipitates, which will not only corrode the equipment, but also cause blockage of the cooling pipes, affecting the normal operation of the cooling system. Summary of the invention

[0004] The purpose of the present invention is to provide an offshore suspended rocket launching platform and a method for using the same, so as to solve the problem that when the seawater is subjected to high heat, it may be due to local overheating, and the salts in the seawater are more likely to reach a saturated state and precipitate and solidify and precipitate. The precipitated salts will form solid precipitates, which will not only corrode the device, but also cause blockage of the cooling pipes, affecting the normal operation of the cooling system.

[0005] In order to solve the above technical problems, the present invention is achieved through the following technical solutions: The present invention is an offshore suspended rocket launch platform, comprising a launch platform, a conical cooling groove is provided in the launch platform, a water groove is provided on the launch platform, the water groove runs through the launch platform and the conical cooling groove, a heat transfer block is fixedly installed on the top of the launch platform, the bottom of the heat transfer block extends into the conical cooling groove, and further comprising: A cooling mechanism comprises a bar box fixedly mounted on the bottom of the launching platform, a water pump fixedly mounted on the bottom inner wall of the bar box, a water pipe fixedly mounted on the top of the bar box, a water outlet end of the water pump communicates with the water pipe, a mounting groove is provided in the launching platform, a rotating shaft 1 and a rotating shaft 2 are rotatably mounted on the bottom inner wall of the mounting groove, a top end of the rotating shaft 1 extends into a conical cooling groove and is rotatably connected to the conical cooling groove, a top end of the rotating shaft 2 extends into a water trough and is rotatably connected to the top inner wall of the water trough, pulleys are fixedly sleeved on the rotating shaft 1 and the rotating shaft 2 respectively, and belts are sleeved on the two pulleys.

[0006] Further, a plurality of driving fan blades are fixedly installed on the second rotating shaft, a scraping plate is fixedly sleeved on the first rotating shaft, the scraping plate is in contact with the inner wall of the conical cooling tank, a collecting tank is formed on the inner wall of the conical cooling tank, and the front end of the collecting tank extends outside the launching platform.

[0007] Further, an adapting mechanism is arranged in the collecting tank. The adapting mechanism includes a trapezoidal groove mounting plate fixedly installed in the collecting tank, a rectangular sliding groove is formed in the collecting tank, a T-shaped block is slidably installed in the rectangular sliding groove, two adapting springs are fixedly installed at the front end of the trapezoidal groove mounting plate, the front ends of the two adapting springs are fixedly connected to the T-shaped block, an L-shaped feeding groove is formed in the T-shaped block, a clamping plate is slidably installed in the water passing groove, and the top end of the clamping plate extends outside the launching platform.

[0008] Further, a transmission mechanism is arranged in the conical cooling tank. The transmission mechanism includes a toothed plate slidably installed in the conical cooling tank, a U-shaped fixing plate is fixedly installed at the bottom of the launching platform, the toothed plate penetrates through the U-shaped fixing plate and is slidably connected to the U-shaped fixing plate, a circular plate is fixedly sleeved on the toothed plate, a transmission spring is sleeved on the toothed plate, the top end of the transmission spring is fixedly connected to the circular plate, and the bottom end of the transmission spring is fixedly connected to the U-shaped fixing plate.

[0009] Further, a filtering cylinder is fixedly installed at the bottom of the launching platform, the water inlet end of the water pump communicates with the filtering cylinder, a rotating rod is rotatably installed in the filtering cylinder, the front end of the rotating rod extends outside the filtering cylinder, a gear is fixedly sleeved on the rotating rod, and a scraping rod is fixedly installed on the gear.

[0010] Further, a impurity removing mechanism is arranged in the filtering cylinder. The impurity removing mechanism includes a fixed circular frame fixedly installed in the filtering cylinder, the rotating rod penetrates through the fixed circular frame and is rotatably connected to the fixed circular frame, a strip-shaped contact plate is fixedly installed on the front surface of the fixed circular frame, a rectangular groove is formed in the rotating rod, a circular filter plate is slidably sleeved on the rectangular groove, and an isosceles trapezoidal block is fixedly installed on the back surface of the circular filter plate.

[0011] Further, a fixed long plate is fixedly installed in the filtering cylinder, a telescopic rod is fixedly installed at the bottom of the fixed long plate, an arc-shaped block is fixedly installed at the bottom end of the telescopic rod, a telescopic spring is sleeved on the telescopic rod, the top end of the telescopic spring is fixedly connected to the fixed long plate, the bottom end of the telescopic spring is fixedly connected to the arc-shaped block, and the outer wall of the arc-shaped block extends outside the filtering cylinder and is slidably connected to the filtering cylinder.

[0012] Further, a method for a marine floating rocket launching platform is as follows: S1: Start the water pump before the rocket is launched. The water pump draws out the seawater in the sea through the filter cylinder. The seawater enters the conical cooling tank through the water pipe and the water trough, and finally flows out from the front of the water trough to form a circulation flow. Then the rocket is launched. A large amount of heat will be generated during the launch of the rocket. The heat will be transferred to the heat transfer block. The heat transfer block will transfer the heat to the seawater in the conical cooling tank. Due to the continuous circulation of the seawater, the heat transfer block will be continuously cooled by the seawater to ensure the sustainability of cooling. When the seawater passes through the transmission blades, the transmission blades will rotate under the impact of the seawater. The transmission blades drive the second shaft to rotate. The transmission blades will drive the first shaft to rotate under the action of the pulley and the belt. The first shaft will drive the scraper to rotate. When the seawater in the conical cooling tank contacts the high heat transferred by the heat transfer block, the salt in the seawater will solidify and precipitate. These precipitates will corrode the inner wall of the conical cooling tank. During the rotation process, the scraper will sweep the precipitates precipitated on the inner wall of the conical cooling tank into the collection tank for collection; S2: The scraper will contact the tooth plate in the conical cooling groove during the rotation process. The tooth plate will drop when it contacts the scraper. At this time, the transmission spring on the tooth plate will be compressed and deformed. After the scraper leaves the tooth plate, the tooth plate will repeatedly move up and down under the elastic force of the transmission spring. The gear will reciprocate under the action of the tooth plate. The gear drives the scraper rod to rotate. The scraper rod will clean the filter holes of the filter cylinder to prevent marine organisms or marine garbage from clogging the filter holes on the filter cylinder. S3: After the seawater enters the filter cylinder, it will push the circular filter plate to move towards the water pump. The rotating rod will drive the circular filter plate to rotate during the rotation process, and the circular filter plate will drive the isosceles trapezoidal block to rotate. When the isosceles trapezoidal block contacts the strip contact plate on the fixed circular frame, the isosceles trapezoidal block will drive the circular filter plate to move away from the water pump under the action of its inclined surface. At this time, since the pressure of the seawater entering the filter cylinder remains unchanged, when the circular filter plate moves towards the gear, the space between the circular filter plate and the inner wall of the front of the filter cylinder decreases, so the pressure between the circular filter plate and the inner wall of the filter cylinder will increase. At this time, the pressure will push the arc block to leave the filter cylinder. At this time, the circular filter plate will sweep the fine impurities passing through the filter holes of the filter cylinder to the top of the arc block during the movement. Under the action of pressure, the fine impurities will leave the gap of the filter cylinder along the arc block and be discharged; S4: After cooling is completed, insert the card plate, which will block the drainage trough. At this time, as more and more seawater flows, the pressure of the seawater increases, and the seawater will enter the collection trough and push the T-block through the trapezoidal groove mounting plate. The T-block will slide away from the conical cooling trough. When the T-block leaves the collection trough, the L-shaped discharge trough on the T-block leaks out, and the seawater will be discharged along with the L-shaped discharge trough. In this process, the seawater will discharge the sediment in the conical cooling trough together, and the launch platform will be deeply cleaned.

[0013] The present invention has the following beneficial effects: (1) The present invention provides an offshore suspended rocket launch platform. Before the rocket is launched, a water pump is started. The water pump extracts seawater from the sea through a filter cylinder. The seawater enters a conical cooling tank through a water pipe and a water trough, and finally flows out from the front of the water trough to form a circulation flow. Then the rocket is launched. When the rocket is launched, a large amount of heat is generated. The heat is transferred to the heat transfer block. The heat transfer block transfers the heat to the seawater in the conical cooling tank. Since the seawater circulates continuously, the heat transfer block is continuously cooled by the seawater to ensure the sustainability of the cooling. The seawater passes through the heat transfer block. When the fan blades are moved, the transmission blades will rotate under the impact of seawater, and the transmission blades will drive the second shaft to rotate. The transmission blades will drive the first shaft to rotate under the action of the pulley and the belt, and the first shaft will drive the scraper to rotate. When the seawater in the conical cooling trough contacts the high heat transferred by the heat transfer block, the salt in the seawater will solidify and precipitate. These precipitates will corrode the inner wall of the conical cooling trough. During the rotation process, the scraper will sweep the precipitates precipitated on the inner wall of the conical cooling trough into the collection trough for collection, so as to prevent the precipitates containing salt from corroding the inner wall of the conical cooling trough. (2) In the present invention, a floating rocket launch platform at sea is provided. The scraper plate contacts the tooth plate in the conical cooling groove during rotation. The tooth plate drops when contacting the scraper plate. At this time, the transmission spring on the tooth plate is compressed and deformed. After the scraper plate leaves the tooth plate, the tooth plate repeatedly moves up and down under the elastic force of the transmission spring. The gear rotates back and forth under the action of the tooth plate. The gear drives the scraper rod to rotate. The scraper rod cleans the filter holes of the filter cylinder to prevent marine organisms or marine garbage from clogging the filter holes on the filter cylinder, thereby preventing seawater from smoothly entering the filter cylinder and affecting the cooling work. (3) The present invention provides an offshore suspended rocket launch platform. After seawater enters the filter cylinder, it pushes the circular filter plate to move toward the direction close to the water pump. The rotating rod drives the circular filter plate to rotate during the rotation process. The circular filter plate drives the isosceles trapezoidal block to rotate. When the isosceles trapezoidal block contacts the strip contact plate on the fixed circular frame, the isosceles trapezoidal block drives the circular filter plate to move away from the water pump under the action of its inclined surface. At this time, since the pressure of seawater entering the filter cylinder remains unchanged, when the circular filter plate moves toward the direction close to the gear, the space between the circular filter plate and the front inner wall of the filter cylinder decreases. Therefore, the pressure between the circular filter plate and the inner wall of the filter cylinder increases. At this time, the pressure pushes the arc block to leave the filter cylinder. At this time, the circular filter plate sweeps the fine impurities passing through the filter holes of the filter cylinder to the top of the arc block during the movement. Under the action of pressure, the fine impurities are discharged along the gap of the arc block leaving the filter cylinder, thereby reducing the possibility of impurities entering the launch platform, thereby extending the service life of the launch platform; (4) The present invention provides an offshore suspended rocket launch platform. After cooling, a card plate is inserted into the card plate, which blocks the drainage trough. At this time, as more and more seawater is added, the pressure of the seawater increases, and the seawater enters the collection trough and pushes the T-block through the trapezoidal groove mounting plate. The T-block slides away from the conical cooling trough. When the T-block leaves the collection trough, the L-shaped discharge trough on the T-block leaks out, and the seawater is discharged along with the L-shaped discharge trough. In this process, the seawater will discharge the sediment in the conical cooling trough together, and the launch platform will be deeply cleaned to avoid the sediment from blocking the conical cooling trough for a long time.

[0014] Of course, any product implementing the present invention does not necessarily need to achieve all of the advantages described above at the same time. BRIEF DESCRIPTION OF THE DRAWINGS

[0015] In order to more clearly illustrate the technical solutions of the embodiments of the present invention, the accompanying drawings required for describing the embodiments will be briefly introduced below. Obviously, the accompanying drawings described below are only some embodiments of the present invention. For ordinary technicians in this field, other accompanying drawings can be obtained based on these accompanying drawings without paying creative work.

[0016] Figure 1 It is a schematic diagram of the overall structure of the present invention; Figure 2 It is a side cross-sectional structural schematic diagram of the present invention; Figure 3 It is a schematic diagram of a side partial cross-sectional structure of the present invention; Figure 4 For the present invention Figure 3 A is a schematic diagram of the enlarged structure of the middle part; Figure 5 For the present invention Figure 2 A schematic diagram of the enlarged structure of B; Figure 6 It is a schematic diagram of the front section structure of the present invention; Figure 7 For the present invention Figure 2 Schematic diagram of the enlarged structure of C in the middle; Figure 8 It is a schematic diagram of the method steps of the present invention.

[0017] In the accompanying drawings, the components represented by the reference numerals are listed as follows: In the figure: 1, launching platform; 2, conical cooling tank; 3, water passing tank; 4, heat transfer block; 5, cooling mechanism; 501, strip box; 502, water pump; 503, water delivery pipe; 504, installation groove; 505, rotating shaft one; 506, rotating shaft two; 507, pulley; 508, belt; 509, driving fan blade; 510, scraper; 511, collection tank; 6, adaptation mechanism; 601, trapezoidal groove mounting plate; 602, rectangular sliding groove; 603, T-shaped block; 604, adaptation spring; 605, L-shaped feeding groove; 606, clamping plate; 7, transmission mechanism; 701, toothed plate; 702, C-shaped fixing plate; 703, circular plate; 704, transmission spring; 705, filtering cylinder; 706, rotating rod; 707, gear; 708, scraping rod; 8, impurity removal mechanism; 801, fixed circular frame; 802, strip contact plate; 803, rectangular groove; 804, circular filter plate; 805, isosceles trapezoidal block; 806, fixed long plate; 807, telescopic rod; 808, telescopic spring; 809, arc-shaped block. Detailed implementation mode

[0018] Next, the technical solutions in the embodiments of the present invention will be clearly and completely described in conjunction with the accompanying drawings in the embodiments of the present invention. Obviously, the described embodiments are only a part of the embodiments of the present invention, rather than all the embodiments. Based on the embodiments of the present invention, all other embodiments obtained by those of ordinary skill in the art without creative work shall fall within the protection scope of the present invention.

[0019] Please refer to Figure 1 - Figure 8 As shown in the figure, the present invention is a floating rocket launching platform at sea, including a launching platform 1. A conical cooling tank 2 is opened in the launching platform 1. A water passing tank 3 is opened on the launching platform 1. The water passing tank 3 penetrates through the launching platform 1 and the conical cooling tank 2. A heat transfer block 4 is fixedly installed on the top of the launching platform 1. The bottom of the heat transfer block 4 extends into the conical cooling tank 2. It also includes: A cooling mechanism 5. The cooling mechanism 5 includes a strip box 501 fixedly installed at the bottom of the launching platform 1. A water pump 502 is fixedly installed on the bottom inner wall of the strip box 501. A water delivery pipe 503 is fixedly installed on the top of the strip box 501. The water outlet end of the water pump 502 communicates with the water delivery pipe 503. An installation groove 504 is opened in the launching platform 1. A rotating shaft one 505 and a rotating shaft two 506 are rotatably installed on the bottom inner wall of the installation groove 504. The top end of the rotating shaft one 505 extends into the conical cooling tank 2 and is rotatably connected with the conical cooling tank 2. The top end of the rotating shaft two 506 extends into the water passing tank 3 and is rotatably connected with the top inner wall of the water passing tank 3. Pulley 507 is fixedly sleeved on the rotating shaft one 505 and the rotating shaft two 506 respectively. A belt 508 is sleeved on the two pulleys 507.

[0020] Such as Figure 4and Figure 5 As shown, a plurality of transmission blades 509 are fixedly mounted on the second rotating shaft 506, a scraper 510 is fixedly sleeved on the first rotating shaft 505, the scraper 510 contacts the inner wall of the conical cooling groove 2, a collecting groove 511 is provided on the inner wall of the conical cooling groove 2, and the front end of the collecting groove 511 extends to the outside of the launching platform 1.

[0021] When seawater passes through the transmission blades 509, the transmission blades 509 will rotate under the impact of the seawater, and the transmission blades 509 will drive the rotating shaft 2 506 to rotate. The transmission blades 509 will drive the rotating shaft 1 505 to rotate under the action of the pulley 507 and the belt 508, and the rotating shaft 1 505 will drive the scraper 510 to rotate. When the seawater in the conical cooling trough 2 contacts the high heat transferred by the heat transfer block 4, the salt in the seawater will solidify and precipitate. These precipitates will corrode the inner wall of the conical cooling trough 2. During the rotation process, the scraper 510 will sweep the precipitates deposited on the inner wall of the conical cooling trough 2 into the collecting trough 511 for collection, so as to prevent the precipitates containing salt from corroding the inner wall of the conical cooling trough 2.

[0022] like Figure 5 As shown, an adaption mechanism 6 is provided in the collecting trough 511, and the adaption mechanism 6 includes a trapezoidal groove mounting plate 601 fixedly installed in the collecting trough 511, a rectangular slide groove 602 is provided in the collecting trough 511, a T-block 603 is slidably installed in the rectangular slide groove 602, two adaption springs 604 are fixedly installed at the front end of the trapezoidal groove mounting plate 601, and the front ends of the two adaption springs 604 are fixedly connected to the T-block 603, an L-shaped discharge trough 605 is provided in the T-block 603, and a clamping plate 606 is slidably installed in the water trough 3, and the top end of the clamping plate 606 extends to the outside of the launching platform 1.

[0023] After cooling is completed, the card plate 606 is inserted, and the card plate 606 will block the water drainage groove 3. At this time, as more and more seawater is added, the pressure of the seawater increases, and the seawater will enter the collecting groove 511 and push the T-block 603 through the trapezoidal groove mounting plate 601. The T-block 603 will slide away from the conical cooling groove 2. When the T-block 603 leaves the collecting groove 511, the L-shaped discharge groove 605 on the T-block 603 leaks out, and the seawater will be discharged along with the L-shaped discharge groove 605. In this process, the seawater will discharge the sediment in the conical cooling groove 2 together, and the launch platform 1 will be deeply cleaned to prevent the sediment from clogging the conical cooling groove 2 for a long time.

[0024] like Figure 6As shown in the figure, a transmission mechanism 7 is arranged in the conical cooling tank 2. The transmission mechanism 7 includes a toothed plate 701 slidably installed in the conical cooling tank 2. A U-shaped fixed plate 702 is fixedly installed at the bottom of the launching platform 1. The toothed plate 701 penetrates through the U-shaped fixed plate 702 and is slidably connected to the U-shaped fixed plate 702. A circular plate 703 is fixedly sleeved on the toothed plate 701. A transmission spring 704 is sleeved on the toothed plate 701. The top end of the transmission spring 704 is fixedly connected to the circular plate 703, and the bottom end of the transmission spring 704 is fixedly connected to the U-shaped fixed plate 702.

[0025] During the rotation of the scraper 510, it will contact the toothed plate 701 in the conical cooling tank 2. When the toothed plate 701 contacts the scraper 510, it will descend. At this time, the transmission spring 704 on the toothed plate 701 undergoes a compressive deformation. After the scraper 510 leaves the toothed plate 701, the toothed plate 701 will move up and down repeatedly under the elastic force of the transmission spring 704.

[0026] As Figure 7 shown, a filter cylinder 705 is fixedly installed at the bottom of the launching platform 1. The water inlet end of the water pump 502 communicates with the filter cylinder 705. A rotating rod 706 is rotatably installed in the filter cylinder 705. The front end of the rotating rod 706 extends outside the filter cylinder 705. A gear 707 is fixedly sleeved on the rotating rod 706, and a scraping rod 708 is fixedly installed on the gear 707.

[0027] The gear 707 will rotate reciprocally under the action of the toothed plate 701. The gear 707 drives the scraping rod 708 to rotate. The scraping rod 708 will clean the filter holes on the surface of the filter cylinder 705 to prevent marine organisms or marine garbage from blocking the filter holes on the filter cylinder 705, thus causing the sea water to be unable to smoothly enter the filter cylinder 705 and affecting the cooling work.

[0028] As Figure 7 shown, an impurity removal mechanism 8 is arranged in the filter cylinder 705. The impurity removal mechanism 8 includes a fixed circular frame 801 fixedly installed in the filter cylinder 705. The rotating rod 706 penetrates through the fixed circular frame 801 and is rotatably connected to the fixed circular frame 801. A strip-shaped contact plate 802 is fixedly installed on the front surface of the fixed circular frame 801. A rectangular groove 803 is formed on the rotating rod 706. A circular filter plate 804 is slidably sleeved on the rectangular groove 803. An isosceles trapezoidal block 805 is fixedly installed on the back surface of the circular filter plate 804.

[0029] After the sea water enters the filter cylinder 705, it will push the circular filter plate 804 to move in the direction close to the water pump 502. During the rotation of the rotating rod 706, it will drive the circular filter plate 804 to rotate. The circular filter plate 804 will drive the isosceles trapezoidal block 805 to rotate.

[0030] As Figure 7As shown, a fixed long plate 806 is fixedly installed in the filter cylinder 705, a telescopic rod 807 is fixedly installed at the bottom of the fixed long plate 806, an arc block 809 is fixedly installed at the bottom end of the telescopic rod 807, a telescopic spring 808 is sleeved on the telescopic rod 807, the top end of the telescopic spring 808 is fixedly connected to the fixed long plate 806, the bottom end of the telescopic spring 808 is fixedly connected to the arc block 809, and the outer wall of the arc block 809 extends to the outside of the filter cylinder 705 and is slidably connected to the filter cylinder 705.

[0031] When the isosceles trapezoidal block 805 contacts the strip contact plate 802 on the fixed circular frame 801, the isosceles trapezoidal block 805 will drive the circular filter plate 804 to move away from the water pump 502 under the action of its inclined surface. At this time, since the pressure of the seawater entering the filter cylinder 705 remains unchanged, when the circular filter plate 804 moves toward the direction close to the gear 707, the space between the circular filter plate 804 and the front inner wall of the filter cylinder 705 decreases, so the pressure between the circular filter plate 804 and the inner wall of the filter cylinder 705 will increase. At this time, the pressure will push the arc block 809 to leave the filter cylinder 705. At this time, the circular filter plate 804 will sweep the fine impurities passing through the filter holes of the filter cylinder 705 to the top of the arc block 809 during the movement. Under the action of pressure, the fine impurities will be discharged along the gap of the arc block 809 leaving the filter cylinder 705, thereby reducing the possibility of impurities entering the launch platform 1, thereby extending the service life of the launch platform 1.

[0032] like Figure 1-8 A method for launching an offshore suspended rocket platform is shown, and the method steps are as follows: S1: Before the rocket is launched, the water pump 502 is started. The water pump 502 pumps out the seawater in the sea through the filter cylinder 705. The seawater enters the conical cooling tank 2 through the water pipe 503 and the water trough 3, and finally flows out from the front of the water trough 3 to form a circulation flow. Then the rocket is launched. The rocket will generate a lot of heat during the launch. The heat will be transferred to the heat transfer block 4. The heat transfer block 4 will transfer the heat to the seawater in the conical cooling tank 2. Due to the continuous circulation of the seawater, the heat transfer block 4 will be continuously cooled by the seawater to ensure the sustainability of the cooling. When the seawater passes through the transmission blades 509, The transmission blades 509 will rotate under the impact of seawater, and the transmission blades 509 will drive the second shaft 506 to rotate. The transmission blades 509 will drive the first shaft 505 to rotate under the action of the pulley 507 and the belt 508. The first shaft 505 will drive the scraper 510 to rotate. When the seawater in the conical cooling tank 2 contacts the high heat transferred by the heat transfer block 4, the salt in the seawater will solidify and precipitate. These precipitates will corrode the inner wall of the conical cooling tank 2. During the rotation process, the scraper 510 will sweep the precipitates precipitated on the inner wall of the conical cooling tank 2 into the collection tank 511 for collection. S2: The scraper 510 will contact the tooth plate 701 in the conical cooling groove 2 during the rotation process. The tooth plate 701 will drop when contacting the scraper 510. At this time, the transmission spring 704 on the tooth plate 701 will be compressed and deformed. After the scraper 510 leaves the tooth plate 701, the tooth plate 701 will repeatedly move up and down under the elastic force of the transmission spring 704. The gear 707 will reciprocate under the action of the tooth plate 701. The gear 707 drives the scraper rod 708 to rotate. The scraper rod 708 will clean the filter holes of the filter cylinder 705 to prevent marine organisms or marine garbage from clogging the filter holes on the filter cylinder 705. S3: After the seawater enters the filter cylinder 705, it pushes the circular filter plate 804 to move towards the water pump 502. The rotating rod 706 drives the circular filter plate 804 to rotate during the rotation process. The circular filter plate 804 drives the isosceles trapezoidal block 805 to rotate. When the isosceles trapezoidal block 805 contacts the strip contact plate 802 on the fixed circular frame 801, the isosceles trapezoidal block 805 drives the circular filter plate 804 to move away from the water pump 502 under the action of its inclined surface. At this time, due to the constant pressure of the seawater entering the filter cylinder 705, the circular filter plate 804 is driven to move away from the water pump 502. When the circular filter plate 804 moves toward the direction close to the gear 707, the space between the circular filter plate 804 and the inner wall of the front side of the filter cylinder 705 is reduced, so the pressure between the circular filter plate 804 and the inner wall of the filter cylinder 705 is increased. At this time, the pressure will push the arc block 809 to leave the filter cylinder 705. At this time, the circular filter plate 804 will sweep the fine impurities passing through the filter holes of the filter cylinder 705 to the top of the arc block 809 during the movement. Under the action of pressure, the fine impurities will be discharged along the arc block 809 to leave the gap of the filter cylinder 705; S4: After cooling is completed, insert the card plate 606, which will block the water drainage groove 3. At this time, as more and more seawater accumulates, the pressure of the seawater increases, and the seawater will enter the collecting groove 511 and push the T-block 603 through the trapezoidal groove mounting plate 601. The T-block 603 will slide away from the conical cooling groove 2. When the T-block 603 leaves the collecting groove 511, the L-shaped discharge groove 605 on the T-block 603 leaks out, and the seawater will be discharged along with the L-shaped discharge groove 605. In this process, the seawater will discharge the sediment in the conical cooling groove 2 together, and the launch platform 1 will be deeply cleaned.

[0033] The preferred embodiments of the present invention disclosed above are only used to help illustrate the present invention. The preferred embodiments do not describe all the details in detail, nor do they limit the invention to the specific implementation methods described. Obviously, many modifications and changes can be made according to the content of this specification. This specification selects and specifically describes these embodiments in order to better explain the principles and practical applications of the present invention, so that those skilled in the art can understand and use the present invention well. The present invention is limited only by the claims and their full scope and equivalents.

Claims

1. An offshore suspended rocket launch platform, comprising a launch platform (1), wherein a conical cooling groove (2) is provided in the launch platform (1), a water groove (3) is provided on the launch platform (1), wherein the water groove (3) passes through the launch platform (1) and the conical cooling groove (2), a heat transfer block (4) is fixedly mounted on the top of the launch platform (1), and the bottom of the heat transfer block (4) extends into the conical cooling groove (2), wherein: It further includes: A cooling mechanism (5), the cooling mechanism (5) includes a strip-shaped box (501) fixedly installed at the bottom of the launch platform (1), a water pump (502) is fixedly installed on the bottom inner wall of the strip-shaped box (501), a water delivery pipe (503) is fixedly installed on the top of the strip-shaped box (501), the water outlet end of the water pump (502) communicates with the water delivery pipe (503), an installation groove (504) is formed in the launch platform (1), a first rotating shaft (505) and a second rotating shaft (506) are rotatably installed on the bottom inner wall of the installation groove (504), the top end of the first rotating shaft (505) extends into the conical cooling groove (2) and is rotatably connected with the conical cooling groove (2), the top end of the second rotating shaft (506) extends into the water through-flow groove (3) and is rotatably connected with the top inner wall of the water through-flow groove (3), pulley wheels (507) are fixedly sleeved on the first rotating shaft (505) and the second rotating shaft (506) respectively, and a belt (508) is sleeved on the two pulley wheels (507).

2. The offshore suspended rocket launching platform according to claim 1, characterized in that: A number of driving fan blades (509) are fixedly installed on the second rotating shaft (506), a scraping plate (510) is fixedly sleeved on the first rotating shaft (505), the scraping plate (510) is in contact with the inner wall of the conical cooling groove (2), a collection groove (511) is formed in the inner wall of the conical cooling groove (2), and the front end of the collection groove (511) extends outside the launch platform (1).

3. The offshore suspended rocket launching platform according to claim 2, characterized in that: An adaptation mechanism (6) is arranged in the collection groove (511), the adaptation mechanism (6) includes a trapezoidal groove mounting plate (601) fixedly installed in the collection groove (511), a rectangular sliding groove (602) is formed in the collection groove (511), a T-shaped block (603) is slidably installed in the rectangular sliding groove (602), two adaptation springs (604) are fixedly installed at the front end of the trapezoidal groove mounting plate (601), the front ends of the two adaptation springs (604) are fixedly connected with the T-shaped block (603), an L-shaped material discharging groove (605) is formed in the T-shaped block (603), a clamping plate (606) is slidably installed in the water through-flow groove (3), and the top end of the clamping plate (606) extends outside the launch platform (1).

4. The offshore suspended rocket launching platform according to claim 3, characterized in that: A transmission mechanism (7) is arranged in the conical cooling groove (2), the transmission mechanism (7) includes a toothed plate (701) slidably installed in the conical cooling groove (2), a U-shaped fixing plate (702) is fixedly installed at the bottom of the launch platform (1), the toothed plate (701) penetrates through the U-shaped fixing plate (702) and is slidably connected with the U-shaped fixing plate (702), a circular plate (703) is fixedly sleeved on the toothed plate (701), a transmission spring (704) is sleeved on the toothed plate (701), the top end of the transmission spring (704) is fixedly connected with the circular plate (703), and the bottom end of the transmission spring (704) is fixedly connected with the U-shaped fixing plate (702).

5. The offshore suspended rocket launching platform according to claim 4, characterized in that: A filter cylinder (705) is fixedly mounted on the bottom of the launching platform (1); a water inlet end of the water pump (502) is in communication with the filter cylinder (705); a rotating rod (706) is rotatably mounted inside the filter cylinder (705); a front end of the rotating rod (706) extends outside the filter cylinder (705); a gear (707) is fixedly sleeved on the rotating rod (706); and a scraper rod (708) is fixedly mounted on the gear (707).

6. The offshore suspended rocket launching platform according to claim 5, characterized in that: The filter cylinder (705) is provided with a debris removal mechanism (8), the debris removal mechanism (8) comprising a fixed round frame (801) fixedly mounted in the filter cylinder (705), the rotating rod (706) penetrating the fixed round frame (801) and being rotatably connected to the fixed round frame (801), a strip contact plate (802) being fixedly mounted on the front of the fixed round frame (801), a rectangular groove (803) being provided on the rotating rod (706), a circular filter plate (804) being slidably sleeved on the rectangular groove (803), and an isosceles trapezoidal block (805) being fixedly mounted on the back of the circular filter plate (804).

7. The offshore suspended rocket launching platform according to claim 6, characterized in that: A fixed long plate (806) is fixedly installed in the filter cylinder (705), a telescopic rod (807) is fixedly installed at the bottom of the fixed long plate (806), an arc-shaped block (809) is fixedly installed at the bottom end of the telescopic rod (807), a telescopic spring (808) is sleeved on the telescopic rod (807), the top end of the telescopic spring (808) is fixedly connected to the fixed long plate (806), the bottom end of the telescopic spring (808) is fixedly connected to the arc-shaped block (809), and the outer wall of the arc-shaped block (809) extends outside the filter cylinder (705) and is slidably connected to the filter cylinder (705).

8. A method for using an offshore suspended rocket launch platform, using the offshore suspended rocket launch platform as claimed in claim 7, characterized in that: The steps are as follows: S1: Before the rocket is launched, the water pump (502) is started. The water pump (502) extracts the seawater from the sea through the filter cylinder (705). The seawater enters the conical cooling trough (2) through the water pipe (503) and the water trough (3). Finally, it flows out from the front of the water trough (3) to form a circulation flow. Then, the rocket is launched. A large amount of heat is generated during the launch of the rocket. The heat is transferred to the heat transfer block (4). The heat transfer block (4) transfers the heat to the seawater in the conical cooling trough (2). Since the seawater circulates continuously, the heat transfer block (4) is continuously cooled by the seawater to ensure the sustainability of the cooling. When the seawater passes through the transmission fan blade (509), the transmission fan The blades (509) rotate under the impact of the seawater, and the transmission blades (509) drive the second rotating shaft (506) to rotate. The transmission blades (509) drive the first rotating shaft (505) to rotate under the action of the pulley (507) and the belt (508). The first rotating shaft (505) drives the scraper (510) to rotate. When the seawater in the conical cooling trough (2) contacts the high heat transferred by the heat transfer block (4), the salt in the seawater solidifies and precipitates. These precipitates corrode the inner wall of the conical cooling trough (2). During the rotation process, the scraper (510) sweeps the precipitates precipitated on the inner wall of the conical cooling trough (2) into the collecting trough (511) for collection. S2: The scraper (510) contacts the tooth plate (701) in the conical cooling groove (2) during the rotation process. The tooth plate (701) drops when contacting the scraper (510). At this time, the transmission spring (704) on the tooth plate (701) undergoes compression deformation. After the scraper (510) leaves the tooth plate (701), the tooth plate (701) repeatedly moves up and down under the elastic force of the transmission spring (704). The gear (707) rotates back and forth under the action of the tooth plate (701). The gear (707) drives the scraper rod (708) to rotate. The scraper rod (708) cleans the filter holes of the filter cylinder (705) to prevent marine organisms or marine garbage from clogging the filter holes on the filter cylinder (705). S3: After the seawater enters the filter cylinder (705), it pushes the circular filter plate (804) to move in a direction close to the water pump (502). During the rotation of the rotating rod (706), the circular filter plate (804) is driven to rotate, and the circular filter plate (804) is driven to rotate the isosceles trapezoidal block (805). When the isosceles trapezoidal block (805) contacts the strip contact plate (802) on the fixed circular frame (801), the isosceles trapezoidal block (805) is driven by its inclined surface to move the circular filter plate (804) in a direction away from the water pump (502). At this time, due to the pressure of the seawater entering the filter cylinder (705), the isosceles trapezoidal block (805) is driven to move in a direction away from the water pump (502). The circular filter plate (804) remains unchanged, and when the circular filter plate (804) moves toward the gear (707), the space between the circular filter plate (804) and the inner wall of the front side of the filter cylinder (705) decreases, so the pressure between the circular filter plate (804) and the inner wall of the filter cylinder (705) increases. At this time, the pressure pushes the arc block (809) to leave the filter cylinder (705). At this time, the circular filter plate (804) will sweep the fine impurities passing through the filter holes of the filter cylinder (705) to the top of the arc block (809) during the movement. Under the action of pressure, the fine impurities will be discharged along the gap between the arc block (809) and the filter cylinder (705); S4: After cooling is completed, the card plate (606) is inserted. The card plate (606) blocks the water drainage groove (3). At this time, as more and more seawater is added, the pressure of the seawater increases, and the seawater enters the collection groove (511) and pushes the T-shaped block (603) through the trapezoidal groove mounting plate (601). The T-shaped block (603) slides in a direction away from the conical cooling groove (2). When the T-shaped block (603) leaves the collection groove (511), the L-shaped discharge groove (605) on the T-shaped block (603) leaks out, and the seawater is discharged along with the L-shaped discharge groove (605). In this process, the seawater will discharge the sediment in the conical cooling groove (2) together, and the launch platform (1) is deeply cleaned.

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