Ship energy storage efficient mass and heat transfer reactor module
By introducing splicing rods, tubes, and quick-assembly mechanisms into the mass and heat transfer reactor module, combined with curved heat exchange tubes and semiconductor cooling chips, the problem of inconvenient module splicing is solved, achieving rapid connection and efficient heat and mass transfer, and improving the equipment's control performance and stability.
Patent Information
- Application Number
- CN202520430739.X
- Authority / Receiving Office
- CN · China
- Patent Type
- Utility models(China)
- Current Assignee / Owner
- Filing Date
- 2025-03-12
- Publication Date
- 2026-01-16
- Estimated Expiration
- 2035-03-12
AI Technical Summary
Existing high-efficiency mass and heat transfer reactor modules are inconvenient to operate when multiple modules are spliced together, affecting the control performance and stability of the equipment.
The design employs splicing rods, splicing cylinders, and a quick-assembly mechanism, combined with components such as limiting grooves, limiting blocks, and springs, to achieve rapid module connection. At the same time, curved heat exchange tubes and conductive copper sheets are used to increase the heat exchange area, and semiconductor cooling chips assist in cooling.
It simplifies the module assembly process, improves assembly speed and efficiency, enhances equipment stability and cooling effect, and improves heat and mass transfer efficiency.
Smart Images
Figure CN223807651U_ABST
Abstract
Description
TECHNICAL FIELD
[0001] The utility model relates to heat exchange technical field, concretely is a kind of ship energy storage high-efficiency mass transfer heat exchanger module. BACKGROUND
[0002] The mass transfer heat exchanger can be used for heat transfer inside the ship. Its main function is to transfer heat energy from one medium (such as fuel, fresh water or seawater) to another medium (such as cooling water or air) to meet the heat demand of different systems of the ship, thereby improving energy utilization. The mass transfer heat exchanger plays an important role in the operation of the ship, ensuring the normal operation of various systems and maintaining the appropriate temperature. They can improve the combustion efficiency of fuel, reduce engine heat loss and help control the temperature of each system of the ship.
[0003] Although the existing high-efficiency mass transfer heat exchanger module is designed to be detachable, when multiple modules need to be spliced, the operation is not convenient. In actual application, the splicing speed and efficiency of the equipment are crucial to the control performance of the equipment. If the splicing process is complex and tedious, it will not only increase the operation difficulty, but also affect the overall stability.
[0004] Therefore, a ship energy storage high-efficiency mass transfer heat exchanger module is needed to solve the above technical problems. SUMMARY
[0005] The purpose of the utility model is to make up for the shortcomings of the prior art, and provide a ship energy storage high-efficiency mass transfer heat exchanger module.
[0006] To achieve the above purpose, the utility model provides the following technical scheme: a ship energy storage high-efficiency mass transfer heat exchanger module, comprising a heat exchanger main body, a splicing plug rod and a splicing plug barrel are fixedly connected outside the heat exchanger main body, a limiting groove is formed in the inside of the splicing plug rod, a quick splicing mechanism is arranged on the outer surface of the splicing plug barrel, a battery is installed on the front surface of the heat exchanger main body, a protective shell is fixedly connected to the front surface of the heat exchanger main body, a cooling water inlet pipe is fixedly communicated to the upper surface of the heat exchanger main body, a plug screw is threadedly connected in the inside of the cooling water inlet pipe, a discharge plug screw is threadedly connected in the inside of the heat exchanger main body, a curved heat exchange pipe is arranged in the inside of the heat exchanger main body, a material inlet pipe is fixedly communicated to the top end of the curved heat exchange pipe, the material inlet pipe is fixedly connected to the inside of the heat exchanger main body, a material discharge pipe is fixedly communicated to the bottom end of the curved heat exchange pipe, the material discharge pipe is fixedly connected to the inside of the heat exchanger main body, a conductive copper sheet is fixedly connected to the inside of the heat exchanger main body, and a semiconductor refrigeration sheet is installed in the inside of the heat exchanger main body.
[0007] Preferably, the quick assembly mechanism comprises a U-shaped plate fixedly connected to the outer surface of the splicing sleeve, and a sliding rod slidably connected to the inside of the U-shaped plate.
[0008] Preferably, the sliding rod is fixedly connected with a handle at one end away from the splicing sleeve, and a baffle is fixedly connected to the sliding rod at one end away from the handle.
[0009] Preferably, the baffle is in contact with the outer surface of the splicing sleeve, and a limiting block is fixedly connected to one side of the baffle close to the splicing sleeve.
[0010] Preferably, the limiting block is slidably connected to the inside of the splicing sleeve, and two telescopic rods are fixedly connected to the baffle at one end away from the baffle, and the two telescopic rods are fixedly connected to the U-shaped plate at one end away from the baffle.
[0011] Preferably, the baffle is fixedly connected with a spring at one end away from the splicing sleeve, and the spring is fixedly connected to the U-shaped plate at one end away from the baffle.
[0012] The utility model discloses the beneficial effects of:
[0013] One, the utility model discloses through, splicing sleeve, the cooperation between quick assembly mechanism, can realize the quick connection of reactor module, not only simplify the splicing process between module, still greatly improve the splicing speed and efficiency, thereby help to promote the control performance of equipment.
[0014] Two, the utility model discloses through setting up the curved heat exchange pipe and the conduction copper sheet, effectively increase the residence time and heat exchange area of material in the heat exchanger, improve the heat and mass transfer efficiency, and simultaneously, in combination with the design of semiconductor refrigerating sheet and cooling water pipe, further enhance the cooling effect, improve the stability of equipment. BRIEF DESCRIPTION OF DRAWINGS
[0015] Figure 1 It is the three-dimensional structure schematic diagram of the utility model;
[0016] Figure 2 It is the three-dimensional structure schematic diagram of the utility model cooling water pipe and plug screw;
[0017] Figure 3 It is the structure schematic diagram of the utility model quick assembly mechanism;
[0018] Figure 4 It is the inside structure schematic diagram of the utility model heat exchanger main part;
[0019] Figure 5 It is the inside structure schematic diagram of the utility model heat exchanger main part;
[0020] Figure 6 It is the utility model Figure 5An enlarged schematic view of A in the figure.
[0021] In the figure: 1, heat exchanger main body; 2, splicing insertion rod; 3, limiting groove; 4, splicing insertion sleeve; 5, quick splicing mechanism; 501, U-shaped plate; 502, sliding rod; 503, handle; 504, spring; 505, baffle; 506, limiting block; 507, telescopic rod; 6, protective shell; 7, battery; 8, cooling water inlet pipe; 9, plug screw; 10, discharge plug screw; 11, material inlet pipe; 12, material discharge pipe; 13, curved heat exchange pipe; 14, conductive copper sheet; 15, semiconductor refrigeration sheet. DETAILED DESCRIPTION
[0022] The principles and characteristics of the present application are described below in conjunction with the accompanying drawings, and the examples are only used to explain the present application and are not used to limit the scope of the present application.
[0023] As Figures 1-6 shown, a ship energy storage efficient mass transfer heat exchanger module, including heat exchanger main body 1, the left side of heat exchanger main body 1 is fixedly connected with splicing insertion rod 2, the inside of splicing insertion rod 2 is provided with limiting groove 3, the right side of heat exchanger main body 1 is fixedly connected with splicing insertion sleeve 4, the outer surface of splicing insertion sleeve 4 is provided with quick splicing mechanism 5, the front of heat exchanger main body 1 is installed with battery 7, the front of heat exchanger main body 1 is fixedly connected with protective shell 6, protective shell 6 is located on the outside of battery 7. The upper surface of heat exchanger main body 1 is fixedly connected with cooling water inlet pipe 8, the inside of cooling water inlet pipe 8 is threadedly connected with plug screw 9, the inside of heat exchanger main body 1 is threadedly connected with discharge plug screw 10, the inside of heat exchanger main body 1 is provided with curved heat exchange pipe 13, the top end of curved heat exchange pipe 13 is fixedly connected with material inlet pipe 11, material inlet pipe 11 is fixedly connected with the inside of heat exchanger main body 1, the bottom end of curved heat exchange pipe 13 is fixedly connected with material discharge pipe 12, material discharge pipe 12 is fixedly connected with the inside of heat exchanger main body 1, the inside of heat exchanger main body 1 is fixedly connected with conductive copper sheet 14, the inside of heat exchanger main body 1 is installed with semiconductor refrigeration sheet 15.
[0024] The quick assembly mechanism 5 includes a U-shaped plate 501 fixedly connected to the outer surface of the splicing socket 4. The interior of the U-shaped plate 501 is slidably connected with a slide rod 502. The end of the slide rod 502 away from the splicing socket 4 is fixedly connected with a handle 503. The end of the slide rod 502 away from the handle 503 is fixedly connected with a baffle 505. The baffle 505 is in contact with the outer surface of the splicing socket 4. The side of the baffle 505 close to the splicing socket 4 is fixedly connected with a limiting block 506. The limiting block 506 is slidably connected with the interior of the splicing socket 4. The side of the baffle 505 away from the splicing socket 4 is fixedly connected with two telescopic rods 507. The ends of the two telescopic rods 507 away from the baffle 505 are both fixedly connected with the U-shaped plate 501. The side of the baffle 505 away from the splicing socket 4 is fixedly connected with a spring 504. The end of the spring 504 away from the baffle 505 is fixedly connected with the U-shaped plate 501.
[0025] The heat exchanger body 1 is the core part of the entire reactor module, which provides the space for reaction and heat exchange. It is structurally robust and usually made of corrosion-resistant and high-thermal-conductivity materials to ensure long service life and high-efficiency heat exchange performance.
[0026] The splicing rod 2 and the splicing socket 4 are the key structures for module splicing. The splicing rod 2 is designed to be inserted into the splicing socket 4 of another module, thereby achieving quick connection between modules. This design simplifies the splicing process between multiple modules and improves the splicing speed and efficiency.
[0027] The limiting groove 3 is located inside the splicing rod 2 and is used to cooperate with the limiting block 506 in the quick assembly mechanism 5 to ensure the stability and accuracy of splicing. The quick assembly mechanism 5 achieves quick and firm splicing through the coordinated action of its internal components such as the spring 504, the baffle 505, and the limiting block 506.
[0028] The battery 7 provides power for electronic devices such as semiconductor refrigerating fins 15 in the module. The protective shell 6 is used to protect the battery 7 from external damage, ensuring the safety and stable operation of the battery.
[0029] The cooling water inlet pipe 8 is used to introduce cooling water into the heat exchanger body 1 to assist the heat exchange process. The plug screw 9 is used to close the port of the cooling water inlet pipe 8 when it is not in use, preventing leakage of water or other fluids.
[0030] The heat exchange plug screw 10 is used to close or open a certain part of the heat exchanger body 1 when needed, facilitating maintenance, cleaning, or replacement of internal components.
[0031] The curved heat exchange pipe 13, the material entering pipe 11 and the material discharging pipe 12 constitute the material flow path inside the reactor, the material enters the curved heat exchange pipe 13 through the material entering pipe 11, and after the reaction and heat exchange, the material is discharged through the material discharging pipe 12, and the curved design increases the residence time of the material in the heat exchanger main body 1, thereby improving the heat exchange efficiency.
[0032] The conductive copper sheet 14 is used for conducting heat from the heat exchanger main body 1 to the cold surface of the semiconductor refrigeration sheet 15, thereby enhancing the heat exchange effect, and the semiconductor refrigeration sheet 15 utilizes the characteristics of the semiconductor material to generate a cold and hot effect when powered on, thereby further assisting the heat exchange process.
[0033] Working principle: first, when the module splicing is needed, the operator can insert the splicing rod 2 of one module into the splicing sleeve 4 of another module, and in this process, the limiting groove 3 inside the splicing rod 2 will play a key role, after the splicing rod 2 is inserted into the splicing sleeve 4, the operator can quickly fix the two modules through the quick splicing mechanism 5, specifically, the working principle of the quick splicing mechanism 5 is as follows: in the initial state, the spring 504 is in the compressed state, and the push plate 505 is subjected to an outward pushing force, after the splicing rod 2 is completely inserted into the splicing sleeve 4, the operator can pull the handle 503 to drive the sliding rod 502 and the push plate 505 to move to the outside of the U-shaped plate 501, in this process, the spring 504 is further compressed, and at the same time, the limiting block 506 also moves together with the push plate 505, when the limiting block 506 is aligned with the limiting groove 3 on the splicing rod 2, under the pushing force of the spring 504, the limiting block 506 will quickly pop into the limiting groove 3, thereby realizing the quick fixing of the two modules, and the telescopic rod 507 ensures the stable movement of the push plate 505 and the limiting block 506 during the whole process, in terms of heat transfer, the material enters the curved heat exchange pipe 13 through the material entering pipe 11, and exchanges heat inside the heat exchanger main body 1, the conductive copper sheet 14 and the semiconductor refrigeration sheet 15 jointly act on the heat exchanger main body 1, through the heat conduction and semiconductor refrigeration technology, the material is quickly cooled, at the same time, the cooling water inlet pipe 8 can be connected to the cooling liquid, thereby further enhancing the cooling effect, the plug screw 9 is used for closing the cooling water inlet pipe 8 to prevent the cooling liquid from leaking, and the plug screw 10 is used for controlling the discharge and replacement of the cooling liquid, thereby facilitating the maintenance and maintenance, in addition, the battery 7 provides power for the whole heat transfer and mass transfer process, and the protection shell 6 plays a role in protecting the battery 7, thereby ensuring the stable operation of the whole system.
[0034] The above only describes the preferred embodiments of the present application, and is not used to limit the present application, and any modification, equivalent replacement, improvement, etc. made within the spirit and principles of the present application shall be included in the protection scope of the present application.
Claims
1. A marine energy storage high efficiency mass and heat transfer reactor module comprising a heat exchanger body (1) characterised in that: The outside of the heat exchanger body (1) is fixedly connected with a splicing plug rod (2) and a splicing plug barrel (4), the inside of the splicing plug rod (2) is provided with a limiting groove (3), the outer surface of the splicing plug barrel (4) is provided with a quick splicing mechanism (5), the upper surface of the heat exchanger body (1) is fixedly connected with an inlet cooling water pipe (8), the inside of the inlet cooling water pipe (8) is threadedly connected with a plug screw (9), the inside of the heat exchanger body (1) is provided with a curved heat exchange pipe (13), the top end of the curved heat exchange pipe (13) is fixedly connected with a material inlet pipe (11), the material inlet pipe (11) is fixedly connected with the inside of the heat exchanger body (1), the bottom end of the curved heat exchange pipe (13) is fixedly connected with a material outlet pipe (12), and the material outlet pipe (12) is fixedly connected with the inside of the heat exchanger body (1).
2. A marine energy storage high efficiency mass and heat transfer reactor module according to claim 1, characterized in that: The quick splicing mechanism (5) comprises a U-shaped plate (501) fixedly connected to the outer surface of the splicing plug barrel (4), and the inside of the U-shaped plate (501) is slidably connected with a sliding rod (502).
3. A marine energy storage high efficiency mass and heat transfer reactor module according to claim 2, characterized in that: One end of the sliding rod (502) away from the splicing plug barrel (4) is fixedly connected with a handle (503), and the other end of the sliding rod (502) away from the handle (503) is fixedly connected with a baffle (505).
4. A shipboard energy efficient mass transfer heat transfer reactor module of claim 3, wherein: The baffle (505) is in contact with the outer surface of the splicing plug barrel (4), and one side of the baffle (505) close to the splicing plug barrel (4) is fixedly connected with a limiting block (506).
5. A marine energy storage high efficiency mass and heat transfer reactor module according to claim 4, characterized in that: The limiting block (506) is slidably connected with the inside of the splicing plug barrel (4), and the other side of the baffle (505) away from the splicing plug barrel (4) is fixedly connected with two telescopic rods (507), and one end of the two telescopic rods (507) away from the baffle (505) is fixedly connected with the U-shaped plate (501).
6. A shipboard energy efficient mass transfer heat transfer reactor module of claim 3, wherein: The other side of the baffle (505) away from the splicing plug barrel (4) is fixedly connected with a spring (504), and one end of the spring (504) away from the baffle (505) is fixedly connected with the U-shaped plate (501).
7. A marine energy storage high efficiency mass and heat transfer reactor module according to claim 1, characterized by: The inside of the heat exchanger body (1) is threadedly connected with a plug screw (10).
8. A marine energy storage high efficiency mass and heat transfer reactor module according to claim 1, characterized by: The inside of the heat exchanger body (1) is fixedly connected with a conductive copper sheet (14).
9. A marine energy storage high efficiency mass and heat transfer reactor module according to claim 1, characterized by: The inside of the heat exchanger body (1) is provided with a semiconductor refrigeration sheet (15).