An annealing furnace for stainless steel pipe production

Abstract

This utility model discloses an annealing furnace for stainless steel pipe production, comprising a water mist cooling device, a water collection tank, and a water-saving mechanism. The water collection tank is located at the bottom of the water mist cooling device, and the water-saving mechanism is located on one side of the water mist cooling device. The water-saving mechanism includes a base, a heat storage tank, a pipe channel, a filter box, a water inlet pipe, a first water pump, a filter assembly, and a heat storage mechanism. The heat storage mechanism includes a first heat insulation plate, a second heat insulation plate, a water treatment tank, a water tank, a first sealing block, a second sealing block, a first heat-resistant water pumping pipe, a second heat-resistant water pumping pipe, a third water pump, and a water outlet pipe. This solution significantly improves resource utilization, reduces electricity consumption, and avoids environmental impact.

Description

Technical Field

[0001] This utility model relates to the field of stainless steel production technology, specifically to an annealing furnace for the production of stainless steel pipes. Background Technology

[0002] Stainless steel pipe is a hollow, long, round steel material, widely used in industrial pipelines for petroleum, chemical, medical, food, light industry, and machinery, as well as in mechanical structural components. Additionally, it is lighter in weight while maintaining the same bending and torsional strength, making it widely used in the manufacture of mechanical parts and engineering structures. It is also commonly used in furniture and kitchenware. Annealing furnaces are a metal heat treatment process that heats workpieces to a predetermined temperature, holds them at that temperature for a certain time, and then slowly cools them.

[0003] The existing water mist cooling devices in annealing furnaces used for stainless steel pipe production cannot effectively collect or recycle the wastewater after cooling the high-temperature stainless steel pipes. This not only wastes water resources but also pollutes the working environment due to the wastewater mixed with impurities, making it very inconvenient to clean.

[0004] Therefore, a solution is needed. Utility Model Content

[0005] (a) Technical problems to be solved

[0006] To address the shortcomings of existing technologies, this utility model provides an annealing furnace for the production of stainless steel pipes, thereby solving the problems mentioned in the background section.

[0007] (II) Technical Solution

[0008] To achieve the above objectives, this utility model provides the following technical solution:

[0009] An annealing furnace for stainless steel pipe production, characterized in that: it includes a water mist cooling device, a water collection tank, and a water-saving mechanism, wherein the water collection tank is disposed at the bottom of the water mist cooling device, and the water-saving mechanism is disposed on one side of the water mist cooling device;

[0010] The water-saving mechanism includes a base, a heat storage tank, a pipe channel, a filter box, an inlet pipe, a water pump, a filter assembly, and a heat storage mechanism. The heat storage tank is located on top of the base, and the pipe channel runs through the interior of the heat storage tank. The filter box is located at the right end of the heat storage tank, with its left half located inside the heat storage tank. The rear end and front end of the inlet pipe are respectively connected to the water collection tank and the filter box. The water pump is located on the inlet pipe. The filter assembly is located inside the filter box, and the heat storage mechanism is located inside the heat storage tank and to the left of the filter box.

[0011] Preferably, an aluminum silicate fiber reinforced plate is provided on the through-tube groove. The aluminum silicate fiber reinforced plate has a cylindrical structure and a buffer layer is provided around the outer periphery of the aluminum silicate fiber reinforced plate.

[0012] Preferably, the heat storage mechanism includes a heat insulation plate 1, a heat insulation plate 2, a water treatment tank, a water tank, a sealing block 1, a sealing block 2, a heat-resistant water pumping pipe 1, a water pump 2, a heat-resistant water pumping pipe 3, and a water outlet pipe. The heat insulation plate 2 and the heat insulation plate 1 are respectively disposed on the left and right sides of the buffer layer. The water treatment tank is disposed at the left end of the heat insulation plate 2, and the water tank is disposed at the top of the water treatment tank. The sealing block 2 and the sealing block 1 are respectively disposed in a front-back structure at the top of the right end of the water tank. The heat-resistant water pumping pipe 1 is arranged around the buffer layer. The water pump 2 is disposed on the heat-resistant water pumping pipe 1, the heat-resistant water pumping pipe 2 is arranged around the buffer layer, the water pump 3 is disposed on the heat-resistant water pumping pipe 2, and the water outlet pipe is disposed at the left end of the water treatment tank and extends outward through the heat storage tank.

[0013] Preferably, both sealing block one and sealing block two are cuboid in shape. The heat-resistant water pumping pipe one and the heat-resistant water pumping pipe two are interlaced and surrounded on the buffer layer. The water pumping end of the heat-resistant water pumping pipe one passes through the heat insulation plate one and the side wall of the filter box and is located inside the filter box. The water draining end of the heat-resistant water pumping pipe one passes through the heat insulation plate two and is located inside the sealing block one. The water pumping end and the water draining end of the heat-resistant water pumping pipe two both pass through the heat insulation plate two and are located on the water treatment tank and inside the sealing block two, respectively. The water pump two and the water pump three are both located at the bottom of the buffer layer.

[0014] Preferably, a temperature sensing component is provided at the internal connection front end of the water treatment tank.

[0015] (III) Beneficial Effects

[0016] This utility model provides an annealing furnace for the production of stainless steel tubes. It has the following beneficial effects:

[0017] 1. This solution places the water-saving mechanism next to the water mist cooling device. Wastewater is introduced into the filter box by a water pump for filtration, and then stored in the water tank after absorbing heat through the surrounding buffer layer. When the internal temperature reaches 100 degrees Celsius, the water is guided to the bathhouse through the outlet pipe, saving electricity for the bathhouse and greatly improving the utilization rate of resources.

[0018] 2. The residue filtered out by the filter box will be disposed of in a unified manner to avoid impacting the external environment. Attached Figure Description

[0019] Figure 1 This is a schematic diagram of the connection structure between the present invention and the water mist cooling device;

[0020] Figure 2 This is a schematic diagram of the water-saving mechanism of this utility model;

[0021] Figure 3 This is a schematic diagram of the internal structure of the water-saving mechanism of this utility model;

[0022] Figure 4 This is a schematic diagram of the water treatment tank and water tank structure of this utility model.

[0023] In the diagram, 1-Water mist cooling device; 2-Water collection tank; 3-Water-saving mechanism; 31-Base; 32-Heat storage box; 33-Pass-through groove; 331-Aluminum silicate fiber reinforced board; 332-Buffer layer; 34-Filter box; 35-Inlet pipe; 36-Water pump one; 37-Filter assembly; 38-Heat storage mechanism; 381-Insulation board one; 382-Insulation board two; 383-Water treatment box; 3831-Temperature sensing component; 384-Water tank; 385-Sealing block one; 386-Sealing block two; 387-Heat-resistant water pumping pipe one; 388-Water pump two; 389-Heat-resistant water pumping pipe two; 3810-Water pump three; 3811-Outlet pipe. Detailed Implementation

[0024] The technical solutions of the present utility model will be clearly and completely described below with reference to the accompanying drawings of the embodiments. Obviously, the described embodiments are only some embodiments of the present utility model, and not all embodiments. Based on the embodiments of the present utility model, all other embodiments obtained by those of ordinary skill in the art without creative effort are within the protection scope of the present utility model.

[0025] Please see Figure 1-4 The present invention provides a technical solution to achieve this: including a water mist cooling device 1, a water collection tank 2, and a water-saving mechanism 3. The water collection tank 2 is located at the bottom of the water mist cooling device 1, and the water-saving mechanism 3 is located on one side of the water mist cooling device 1.

[0026] The core water-saving mechanism 3 includes a base 31, a heat storage box 32, a pipe channel 33, a filter box 34, a water inlet pipe 35, a water pump 36, a filter assembly 37, and a heat storage mechanism 38. The heat storage box 32 is located on top of the base 31, and the pipe channel 33 runs through the interior of the heat storage box 32. The filter box 34 is located at the right end of the heat storage box 32, with its left half inside. The rear end and front end of the water inlet pipe 35 are connected to the water collection tank 2 and the filter box 34, respectively. The water pump 36 is mounted on the water inlet pipe 35. The filter assembly 37 is located inside the filter box 34, and the heat storage mechanism 38 is located inside the heat storage box 32 and to the left of the filter box 34. The water-saving mechanism 3, located at the front end of the water mist cooling device 1, can collect and utilize the heat emitted by the high-temperature stainless steel pipe before it is cooled.

[0027] An aluminum silicate fiber reinforced plate 331 is provided on the through-tube groove 33. The aluminum silicate fiber reinforced plate 331 has a cylindrical structure and a buffer layer 332 is provided around the aluminum silicate fiber reinforced plate 331.

[0028] In detail, the heat storage mechanism 38 includes a heat insulation plate 381, a heat insulation plate 382, ​​a water treatment tank 383, a water tank 384, a sealing block 385, a sealing block 386, a heat-resistant water pumping pipe 387, a water pump 388, a heat-resistant water pumping pipe 389, a water pump 3810, and an outlet pipe 3811. Heat insulation plate 382 and heat insulation plate 381 are respectively located on the left and right sides of the buffer layer 332. The water treatment tank 383 is located at the left end of heat insulation plate 382, ​​and the water tank 384 is located at the water treatment layer. At the top of the water treatment tank 383, sealing blocks 386 and 385 are respectively arranged in a front-to-back configuration on the top right side of the water tank 384. A heat-resistant water pump 387 is arranged around the buffer layer 332. A second water pump 388 is mounted on the first heat-resistant water pump 387, and a second heat-resistant water pump 389 is also arranged around the buffer layer 332. A third water pump 3810 is mounted on the second heat-resistant water pump 389. An outlet pipe 3811 is located at the left end of the water treatment tank 383 and extends outward through the heat storage tank 32. A water-saving mechanism 3 is installed next to the water mist cooling device 1. Wastewater is introduced into the filter box 34 by the first water pump 36 for filtration, and then, after absorbing heat through the surrounding buffer layer 332, it is stored in the water tank 384 until the internal temperature reaches 100 degrees Celsius. At this point, the water is guided to the bathhouse through the outlet pipe 3811, saving electricity and significantly improving resource utilization. The residue filtered through filter box 34 will be disposed of in a unified manner to avoid impacting the external environment.

[0029] Both sealing block 1 (385) and sealing block 2 (386) are rectangular in shape. Heat-resistant water pumping pipe 1 (387) and heat-resistant water pumping pipe 2 (389) are intertwined and wrapped around each other on the buffer layer 332. The water pumping end of heat-resistant water pumping pipe 1 (387) passes through the side wall of heat insulation plate 1 (381) and filter box 34 and is located inside the filter box 34. The water draining end of heat-resistant water pumping pipe 1 (387) passes through heat insulation plate 2 (382) and is located inside sealing block 1 (385). The water pumping end and the water draining end of heat-resistant water pumping pipe 2 (389) both pass through heat insulation plate 2 (382) and are located on water treatment tank 383 and inside sealing block 2 (386) respectively. Water pump 2 (388) and water pump 3 (3810) are both located at the bottom of buffer layer 332.

[0030] A temperature sensing component 3831 is installed at the front end of the internal connection of the water treatment tank 383, which monitors the water inside the water tank 384.

[0031] Working principle: The high-temperature stainless steel pipe first passes through the pipe groove 33 and then continues to the water mist cooling device 1 for cooling. The aluminum silicate fiber reinforced plate 331 can effectively collect and absorb heat. Then, through the temperature control of the buffer layer 332, the surface of the buffer layer 332 reaches the temperature that the heat-resistant water pumping pipe can withstand. The wastewater after cooling the high-temperature stainless steel pipe by the water mist cooling device 1 is drawn by water pump 36 and enters the filter box 34 through the inlet pipe 35. After being filtered by the filter assembly 37, the filtered water is drawn by water pump 388 and flows along... The water is collected in the water tank 384 through the heat-resistant water pipe 387 after passing through the buffer layer 332 multiple times. The temperature sensing component 3831 continuously monitors the temperature. If the temperature does not reach 100 degrees Celsius, the water inside the water tank 384 will be drawn by the water pump 3810 through the water treatment tank 383 and flow through the heat-resistant water pipe 389, passing through the buffer layer 332 multiple times before returning to the water tank 384. The process continues until the temperature sensing component 3831 detects that the water temperature in the water tank 384 has reached 100 degrees Celsius. Then, the water is released into the bathhouse through the outlet pipe 3811 via the water treatment tank 383.

[0032] This utility model comprises: 1-water mist cooling device; 2-water collection tank; 3-water-saving mechanism; 31-base; 32-heat storage tank; 33-pipe groove; 331-alumina silicate fiber reinforced board; 332-buffer layer; 34-filter box; 35-inlet pipe; 36-water pump one; 37-filter assembly; 38-heat storage mechanism; 381-insulation board one; 382-insulation board two; 383-water treatment tank; 3831-temperature sensing component; 384-water tank; 385-sealing block one; 386-sealing block two; 387-heat-resistant water pumping pipe one; 388-water pump two; 38 9-Heat-resistant water pumping pipe II; 3810-Water pump III; 3811-Water outlet pipe. These components are all general standard parts or components known to those skilled in the art. Their structure and principles can be learned by those skilled in the art through technical manuals or conventional experimental methods. The problem solved by this utility model is that existing water mist cooling devices in annealing furnaces used for stainless steel pipe production cannot effectively collect or recycle the wastewater after cooling the high-temperature stainless steel pipes. This not only wastes water resources but also pollutes the working environment due to the wastewater mixed with impurities, making cleaning very inconvenient. This utility model significantly improves resource utilization, reduces electricity consumption, and avoids impact on the external environment.

[0033] The foregoing has shown and described the basic principles, main features, and advantages of this utility model. It will be apparent to those skilled in the art that this utility model is not limited to the details of the exemplary embodiments described above, and that it can be implemented in other specific forms without departing from the spirit or basic characteristics of this utility model. Therefore, the embodiments should be considered exemplary and non-limiting in all respects. The scope of this utility model is defined by the appended claims rather than the foregoing description, and thus all variations falling within the meaning and scope of equivalents of the claims are intended to be included within this utility model. No reference numerals in the claims should be construed as limiting the scope of the claims.

[0034] Furthermore, it should be understood that although this specification describes embodiments, not every embodiment contains only one independent technical solution. This narrative style is merely for clarity. Those skilled in the art should consider the specification as a whole, and the technical solutions in each embodiment can also be appropriately combined to form other embodiments that can be understood by those skilled in the art.

Claims

1. An annealing furnace for stainless steel pipe production, characterized by: It includes a water mist cooling device (1), a water collection tank (2) and a water-saving mechanism (3). The water collection tank (2) is located at the bottom of the water mist cooling device (1), and the water-saving mechanism (3) is located on one side of the water mist cooling device (1). The water-saving mechanism (3) includes a base (31), a heat storage box (32), a pipe channel (33), a filter box (34), a water inlet pipe (35), a water pump (36), a filter assembly (37), and a heat storage mechanism (38). The heat storage box (32) is located on the top of the base (31). The pipe channel (33) is installed through the interior of the heat storage box (32). The filter box (34) is located at the right end of the heat storage box (32), and the left half of the filter box (34) is located inside the heat storage box (32). The rear end and front end of the water inlet pipe (35) are respectively connected to the water collection tank (2) and the filter box (34). The water pump (36) is installed on the water inlet pipe (35). The filter assembly (37) is installed inside the filter box (34). The heat storage mechanism (38) is installed inside the heat storage box (32) and located to the left of the filter box (34).

2. An annealing furnace for stainless steel pipe production according to claim 1, characterized in that: The through-tube groove (33) is provided with an aluminum silicate fiber reinforced plate (331), the aluminum silicate fiber reinforced plate (331) has a cylindrical structure, and a buffer layer (332) is provided around the aluminum silicate fiber reinforced plate (331).

3. The annealing furnace for stainless steel pipe production according to claim 2, characterized in that: The heat storage mechanism (38) includes a heat insulation plate one (381), a heat insulation plate two (382), a water treatment tank (383), a water tank (384), a sealing block one (385), a sealing block two (386), a heat-resistant water pumping pipe one (387), a water pump two (388), a heat-resistant water pumping pipe two (389), a water pump three (3810), and a water outlet pipe (3811). The heat insulation plate two (382) and the heat insulation plate one (381) are respectively arranged on the left and right sides of the buffer layer (332). The water treatment tank (383) is arranged on the left end of the heat insulation plate two (382), and the water tank (384) is arranged on the water treatment tank (385). 3) At the top, the sealing block two (386) and sealing block one (385) are respectively arranged in a front-to-back structure at the top of the right end of the water tank (384). The heat-resistant water pump one (387) is arranged around the buffer partition (332). The water pump two (388) is arranged on the heat-resistant water pump one (387). The heat-resistant water pump two (389) is arranged around the buffer partition (332). The water pump three (3810) is arranged on the heat-resistant water pump two (389). The water outlet pipe (3811) is arranged at the left end of the water treatment tank (383) and extends outward through the heat storage tank (32).

4. The annealing furnace for stainless steel pipe production according to claim 3, characterized in that: The sealing block one (385) and sealing block two (386) are both rectangular. The heat-resistant water pumping pipe one (387) and the heat-resistant water pumping pipe two (389) are intertwined and surrounded on the buffer layer (332). The water pumping end of the heat-resistant water pumping pipe one (387) passes through the side wall of the heat insulation plate one (381) and the filter box (34) and is located inside the filter box (34). The water discharge end of the heat-resistant water pumping pipe one (387) passes through the heat insulation plate two (382) and is located inside the sealing block one (385). The water pumping end and the water discharge end of the heat-resistant water pumping pipe two (389) both pass through the heat insulation plate two (382) and are located on the water treatment tank (383) and inside the sealing block two (386) respectively. The water pump two (388) and water pump three (3810) are both located at the bottom of the buffer layer (332).

5. The annealing furnace for stainless steel pipe production according to claim 3, characterized in that: A temperature sensing component (3831) is provided at the internal connection front end of the water treatment tank (383).

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