Infrared electric heating coil high temperature automatic sleep protection device

Abstract

The present invention discloses a high-temperature automatic dormancy protection device for an infrared electric heating coil, which is applied in the technical field of high-temperature automatic dormancy protection for infrared electric heating coils. The present invention provides a stainless steel shell, a high-temperature automatic dormancy protection system, a heat storage and insulation mechanism, a quick connection mechanism, a heat introduction quick connection mechanism, a high-temperature heat release mechanism and a heat transmission mechanism. The stainless steel shell and the heat storage and insulation mechanism are first connected through the quick connection mechanism, and the stainless steel shell carries the high-temperature automatic dormancy protection system. When the high-temperature automatic dormancy protection system is in operation, when the infrared electric heating coil components are heating and a sudden high temperature occurs, the high-temperature automatic dormancy protection system switches to heating structures of different powers to ensure that the subsequent temperature is at a normal value. At the same time, when a sudden high temperature occurs, the pressure will also increase to avoid damage to the infrared electric heating coil components caused by high pressure.

Description

Technical Field

[0001] The invention belongs to the technical field of high-temperature automatic dormancy protection for infrared electric heating coils, and in particular relates to a high-temperature automatic dormancy protection device for infrared electric heating coils. Background Art

[0002] Nano infrared electric heating ring itself becomes a far-infrared radiation heat source, and its surface temperature increases, which leads to an increase in temperature, thereby enhancing the heat energy conduction intensity of the heated object and greatly improving the heat absorption capacity. However, there are unstable factors during processing and use, and sudden high temperature phenomena are prone to occur.

[0003] At present, the Chinese invention with the announcement number: CN106912132A discloses an infrared electric heating ring and an infrared heating system. This invention discloses an infrared electric heating ring and an infrared heating system, including a cylindrical shell, in which a plurality of infrared heating rings are arranged. A heat radiation reflecting layer and a heat insulating layer are arranged between the infrared heating ring and the shell from the inside to the outside. A protrusion is provided at one end of the shell, and a groove is provided at the other end of the shell configured with the protrusion. By arranging the heat radiation reflecting layer and the heat insulating layer from the inside to the outside, when the electric heating ring is working, the heat radiation reflecting layer can reflect most of the infrared rays back, reducing the heat transfer to the outside. At the same time, the heat insulating layer can further block the heat loss to the outside, thereby realizing the unidirectional conduction of infrared radiation to the greatest extent. By providing the protrusions and grooves respectively at both ends of the electric heating ring, the contact surface of the two adjacent electric heating rings is increased when multiple electric heating rings are used in combination, thereby reducing the heat diffusion ability at the gap between the electric heating rings. This invention is applied to the technical field of heating devices.

[0004] The existing infrared electric heating coil high temperature automatic dormancy protection device has the following disadvantages at high temperatures:

[0005] 1. When an emergency occurs in the infrared heating coil and a high temperature is generated, the infrared heating coil automatically goes into sleep mode, and its subsequent temperature cannot be guaranteed to be at a normal value.

[0006] 2. When an emergency occurs in the infrared heating coil and high temperature is generated, a large pressure will be generated inside it due to the high temperature, which may easily cause damage to the infrared heating coil. Summary of the Invention

[0007] The purpose of the present invention is to provide a high-temperature automatic dormancy protection device for existing infrared electric heating coils, which has the following advantages:

[0008] 1. When the infrared electric heating coil has an unexpected situation and generates high temperature, the infrared electric heating coil will automatically go into sleep mode and then switch to ensure that its subsequent temperature is at a normal value;

[0009] 2. When an emergency occurs in the infrared electric heating coil and high temperature is generated, the high pressure generated inside the coil will be discharged and stored, which will not cause damage to the infrared electric heating coil.

[0010] The above technical objectives of the present invention are achieved through the following technical solutions: an infrared electric heating coil high-temperature automatic dormancy protection device, comprising a stainless steel shell, a high-temperature automatic dormancy protection system, a heat storage and insulation mechanism, a quick connection mechanism, a heat introduction quick connection mechanism, a high-temperature heat release mechanism, a heat transfer mechanism and an overload heat dissipation mechanism, the heat storage and insulation mechanism is arranged on the rear side of the stainless steel shell, the quick connection mechanism is bolted to the left side of the heat storage and insulation mechanism, the heat transfer mechanism is connected to the right side of the heat storage and insulation mechanism, the high-temperature heat release mechanism is connected to the right side of the heat introduction quick connection mechanism and the heat transfer mechanism, and the overload heat dissipation mechanism is connected to the top of the heat storage and insulation mechanism.

[0011] The above technical solution is adopted, by setting a stainless steel shell, a high-temperature automatic dormancy protection system, a heat storage and insulation mechanism, a quick connection mechanism, a heat introduction quick connection mechanism, a high-temperature heat release mechanism, a heat transfer mechanism and an overload heat discharge mechanism, firstly, the stainless steel shell and the heat storage and insulation mechanism are connected through the quick connection mechanism, and the stainless steel shell carries the high-temperature automatic dormancy protection system. When the high-temperature automatic dormancy protection system is running, when the infrared electric heating coil component mechanism is heating and a sudden high temperature occurs, the high-temperature automatic dormancy protection system switches to a heating structure with different power to ensure that the subsequent temperature is at a normal value. At the same time, when a sudden high temperature occurs, the pressure will also increase. In order to avoid damage to the infrared electric heating coil component mechanism caused by high pressure, the heat introduction quick connection mechanism on the right side of the stainless steel shell and the heat transfer mechanism on the right side of the heat storage and insulation mechanism are connected to the high The temperature heat release mechanism is connected, and the excessive high-temperature pressure inside the infrared electric heating coil component mechanism inside the stainless steel shell will pass through the high-temperature heat release mechanism. When the pressure is too high, it can pass through, but when the pressure is normal, it cannot pass through. While releasing the pressure, it cooperates with the high-temperature automatic dormancy protection system at the same time, which is convenient for adjusting the temperature and pressure inside the infrared electric heating coil component mechanism. The discharged pressure passes through the high-temperature heat release mechanism and then is transferred to the heat storage and insulation mechanism through the heat transfer mechanism. It can be stored for subsequent insulation without wasting heat. At the same time, the high-temperature heat release mechanism will be closed after the pressure and temperature of the infrared electric heating coil component mechanism are normal. At the same time, if the high-temperature pressure stored inside the heat storage and insulation mechanism is too high, it will be discharged outward through the overload heat discharge mechanism until the pressure inside the heat storage and insulation mechanism is normal.

[0012] The present invention is further configured as follows: the high-temperature automatic hibernation protection system includes a control terminal, a temperature detection module, a switching module, a high-power heating module, a low-power heating module and an infrared electric heating coil. The output end of the control terminal is bidirectionally electrically connected to the temperature detection module, the output end of the control terminal is unidirectionally electrically connected to the switching module, the output end of the switching module is unidirectionally electrically connected to the high-power heating module, the output end of the switching module is unidirectionally electrically connected to the low-power heating module, and the input end of the high-temperature automatic hibernation protection system is unidirectionally electrically connected to the power supply module.

[0013] By adopting the above technical solution and setting up a high-temperature automatic sleep protection system, the power supply module will first power the high-temperature automatic sleep protection system, and the temperature detection module will detect the temperature of the infrared electric heating coil. When a sudden high temperature occurs, the temperature detection module will transmit the high-temperature information to the control terminal, and the control terminal will then send a signal to the switching module. The switching module will cut off the high-power heating module and switch to the low-power heating module to avoid a sudden drop in temperature, thereby ensuring that the subsequent temperature is at a normal value. Subsequently, the low-power heating module can be cut off and put into sleep through the switching module, and switched to the high-power heating module, and they can be used interactively with each other.

[0014] The present invention is further configured as follows: the infrared electric heating ring is composed of a high-power nano-infrared heating tube, a low-power nano-infrared heating tube, a heat radiation reflection layer, a heat insulation layer and a thermal insulation layer; the top and bottom of the high-power nano-infrared heating tube are bolted to the top and bottom of the inside of the stainless steel shell respectively; the top and bottom of the low-power nano-infrared heating tube are bolted to the top and bottom of the inside of the stainless steel shell respectively; the heat radiation reflection layer, the heat insulation layer and the thermal insulation layer are sequentially welded between the high-power nano-infrared heating tube and the low-power nano-infrared heating tube and the stainless steel shell.

[0015] By adopting the above technical solution and setting up an infrared electric heating ring structure, while the high-temperature automatic sleep protection system is running, the high-power nano-infrared heating tube operates normally to generate temperature, the heat radiation reflection layer inside the stainless steel shell reflects the generated heat to prevent heat loss, the heat insulation layer insulates the heat radiation reflection layer to prevent heat from dissipating outward, and the thermal insulation layer uniformly insulates the interior. In an emergency, the high-power nano-infrared heating tube generates too high a temperature, and will subsequently be switched to a low-power nano-infrared heating tube for use through the high-temperature automatic sleep protection system to ensure the temperature during subsequent use.

[0016] The present invention is further configured as follows: the heat storage and insulation mechanism includes a heat storage and insulation shell, a heat-resistant layer and a heat-resistant sealing gasket, the front side of the heat storage and insulation shell is in contact with the rear side of the stainless steel shell, the heat-resistant layer is welded to the inner wall of the heat storage and insulation shell, and the heat-resistant sealing gasket is clamped on the inner walls of the front and rear sides of the heat storage and insulation shell.

[0017] By adopting the above technical solution, a heat storage and insulation mechanism is set up to store the high temperature transmitted through the heat storage and insulation shell, and then the heat-resistant layer is used to insulate the heated object during use. The heat-resistant sealing gasket is used to seal the heat storage and insulation shell when it is connected to the stainless steel shell to prevent temperature leakage.

[0018] The present invention is further configured as follows: the quick connection mechanism includes a fixing plate, a rotating snap lock and a fixing buckle, the fixing plate is bolted to the left side of the heat storage and insulation shell, the rotating snap lock is bolted to the side of the fixing plate away from the heat storage and insulation shell, the fixing buckle is bolted to both sides of the stainless steel shell, and the rotating snap lock is used in conjunction with the fixing buckle.

[0019] By adopting the above technical solution and setting a quick connection mechanism, when the heat storage and insulation shell is connected to the stainless steel shell, the fixing plate and the rotating snap lock are fixed to the outside of the heat storage and insulation shell, and the fixing buckle is fixed to the outside of the stainless steel shell. The rotating snap lock and the fixing buckle are clamped together, so that the heat storage and insulation shell and the stainless steel shell can be combined and connected, and can be easily disassembled during subsequent use.

[0020] The present invention is further configured as follows: the heat-introducing quick-connect mechanism includes a first main pipe, a first threaded sleeve and a first sealing rubber pad; the left side of the first main pipe sequentially passes through the stainless steel casing, the thermal insulation layer and the heat insulation layer and is connected to the heat radiation reflection layer; the first threaded sleeve is arranged on the outside of the right side of the first main pipe, and the first sealing rubber pad is clamped on the inside of the right side of the first main pipe.

[0021] By adopting the above technical solution, a heat-introducing quick-connect mechanism is set up, which passes through the stainless steel shell, the thermal insulation layer and the heat insulation layer through the first main pipe and is connected to the heat radiation reflection layer. When the high-power nano-infrared heating tube generates high temperature and high pressure problems, it can be discharged to the outside through the first main pipe to protect the internal structures. The first threaded sleeve is then used for external connection and the first sealing rubber pad is used for sealing to prevent temperature leakage.

[0022] The present invention is further configured as follows: the high-temperature heat release mechanism includes a threaded heat inlet pipe, a heat storage pipe, two telescopic tubes, a sealing block, a first spring and a threaded heat outlet pipe, the threaded end of the threaded heat inlet pipe is threadedly connected to the first threaded sleeve, the left side of the threaded heat inlet pipe contacts the right side of the first sealing rubber pad, the two telescopic tubes are respectively welded to the two sides of the front side of the inside of the heat storage pipe, the front side of the sealing block is welded to the rear sides of the two telescopic tubes, the first spring is arranged on the rear side of the inside of the heat storage pipe, the front side of the first spring contacts the rear side of the sealing block, and the right side of the threaded heat outlet pipe is connected to the left side of the heat storage pipe.

[0023] By adopting the above technical solution, a high-temperature heat release mechanism is set up, and the threaded heat inlet pipe and the first main pipe are connected together by using the first threaded sleeve. Under normal circumstances, the pressure generated by normal temperature will push the sealing block and the two telescopic tubes inside the heat storage tube to the rear together. The first spring presses the sealing block, so that at normal temperature, the pressure generated cannot push the sealing block to a position exceeding the threaded heat outlet pipe. Under high temperature conditions, the pressure generated exceeds the force of the first spring pressing the sealing block, and the first spring will shrink. The sealing block is pushed to a position exceeding the threaded heat outlet pipe, and part of the high pressure generated by the high temperature is discharged stably through the threaded heat outlet pipe to achieve stable temperature and pressure. When normal pressure is restored, the first spring and the sealing block are reset, and if they are damaged later, they can be easily removed and replaced.

[0024] The present invention is further configured as follows: the heat transfer mechanism includes a second main pipe, a second threaded sleeve and a second sealing rubber pad, the left side of the first main pipe is connected to the right side of the heat storage and insulation shell, the second threaded sleeve is arranged on the outside of the right side of the second main pipe, the second sealing rubber pad is clamped on the inside of the right side of the second main pipe, and the second threaded sleeve is threadedly connected to the threaded end of the threaded heat outlet pipe.

[0025] By adopting the above technical solution, a heat transfer mechanism is set up, the second threaded sleeve connects the threaded heat outlet pipe with the second main pipe, the second sealing rubber gasket seals the connection interface, the threaded heat outlet pipe transfers high temperature and high pressure to the second main pipe, and the second main pipe transfers high temperature and pressure to the interior of the heat storage and insulation shell, so as to store heat and subsequently keep the heated object warm without wasting heat.

[0026] The present invention is further configured as follows: the overload heat dissipation mechanism includes a top pipe, a sealing pressure block, a second spring, an exhaust pipe and a pressure gauge; the bottom of the top pipe is connected to the top of the left side of the heat storage and insulation shell; the sealing pressure block is slidably connected to the bottom inside the top pipe; the second spring is arranged at the top inside the top pipe; the bottom of the second spring contacts the top of the sealing pressure block; the exhaust pipe is connected to the front side of the top pipe; and the pressure gauge is connected to the left side of the top pipe.

[0027] By adopting the above technical solution, an overload heat dissipation mechanism is set up. When the pressure inside the heat storage and insulation shell is too high due to high temperature, it can be observed through the pressure gauge on the outside of the top pipe at the top of the heat storage and insulation shell. If no one notices, the sealing pressure block and the second spring inside the top pipe will press. When the pressure is too high, it exceeds the force of the second spring on the sealing pressure block, the sealing pressure block will move upward, the second spring will be compressed, and the pressure generated by the high temperature will be discharged to the outside through the exhaust pipe, effectively preventing the heat storage and insulation shell from being damaged by excessive pressure. When the normal pressure is restored, the second spring and the sealing pressure block will be reset, and this is a backup measure that will not be easily triggered.

[0028] In summary, the present invention has the following beneficial effects:

[0029] 1. By setting up a stainless steel shell, a high-temperature automatic dormancy protection system, a heat storage and insulation mechanism, a quick connection mechanism, a heat introduction quick connection mechanism, a high-temperature heat release mechanism and a heat transfer mechanism, first connect the stainless steel shell and the heat storage and insulation mechanism through the quick connection mechanism, and the stainless steel shell carries the high-temperature automatic dormancy protection system. When the high-temperature automatic dormancy protection system is running, when the infrared electric heating coil is heating and a sudden high temperature occurs, the high-temperature automatic dormancy protection system switches to a heating structure with different powers to ensure that the subsequent temperature is at a normal value. At the same time, when a sudden high temperature occurs, the pressure will also increase. In order to avoid damage to the infrared electric heating coil by high pressure, the right side of the stainless steel shell The heat introduction quick connection mechanism is connected to the heat transfer mechanism on the right side of the heat storage and heat preservation mechanism, and the high-temperature heat release mechanism. The excessive high-temperature pressure inside the infrared electric heating coil component mechanism inside the stainless steel shell will pass through the high-temperature heat release mechanism. When the pressure is too high, it can pass through; when the pressure is normal, it cannot pass through. While releasing the pressure, it cooperates with the high-temperature automatic dormancy protection system at the same time, which is convenient for adjusting the temperature and pressure inside the infrared electric heating coil component mechanism. The released pressure passes through the high-temperature heat release mechanism and then is transferred to the heat storage and heat preservation mechanism through the heat transfer mechanism. It can store heat for subsequent heat preservation without wasting it. At the same time, the high-temperature heat release mechanism will be closed after the pressure and temperature of the infrared electric heating coil component mechanism return to normal.

[0030] 2. By setting up an overload heat dissipation mechanism, if the high temperature pressure stored inside the heat storage and insulation mechanism is too high, a part of it will be discharged outward through the overload heat dissipation mechanism until the pressure inside the heat storage and insulation mechanism returns to normal. BRIEF DESCRIPTION OF THE DRAWINGS

[0031] Figure 1 It is a schematic diagram of the overall structure of the present invention;

[0032] Figure 2 This is a schematic diagram of the high-temperature automatic dormancy protection system of the present invention;

[0033] Figure 3 This is a schematic diagram of the structure of the infrared electric heating coil of the present invention;

[0034] Figure 4 It is a schematic diagram of the heat storage and insulation shell structure of the present invention;

[0035] Figure 5 It is a schematic structural diagram of the quick connection mechanism of the present invention;

[0036] Figure 6 This is a schematic structural diagram of the heat introduction quick-connect mechanism of the present invention;

[0037] Figure 7 It is a schematic structural diagram of the high-temperature heat release mechanism of the present invention;

[0038] Figure 8 It is a schematic structural diagram of the heat transfer mechanism of the present invention;

[0039] Figure 9 It is a structural schematic diagram of the overload heat removal mechanism of the present invention.

[0040] Figure numerals: 1, stainless steel shell; 2, high temperature automatic dormancy protection system; 201, control terminal; 202, temperature detection module; 203, switching module; 204, high power heating module; 205, low power heating module; 206, power supply module; 207, infrared electric heating coil component; 2071, high power nano infrared heating tube; 2072, low power nano infrared heating tube; 2073, thermal radiation anti-heat layer; 2074, thermal insulation layer; 2075, thermal insulation layer; 3, heat storage and heat preservation mechanism; 301, heat storage and heat preservation shell; 302, heat resistance layer; 303, heat-resistant sealing pad; 4, quick connection mechanism; 401, Fixed plate; 402, rotary snap lock; 403, fixing buckle; 5, heat introduction quick connection mechanism; 501, first main connecting pipe; 502, first threaded sleeve; 503, first sealing rubber pad; 6, high-temperature heat release mechanism; 601, threaded heat inlet pipe; 602, heat storage pipe; 603, telescopic pipe; 604, sealing block; 605, first spring; 606, threaded heat outlet pipe; 7, heat transfer mechanism; 701, second main connecting pipe; 702, second threaded sleeve; 703, second sealing rubber pad; 8, overload heat dissipation mechanism; 801, top pipe; 802, sealing pressure block; 803, second spring; 804, exhaust pipe; 805, pressure gauge. DETAILED DESCRIPTION

[0041] The present invention will be further described in detail below with reference to the accompanying drawings.

[0042] Example 1:

[0043] refer to Figure 1-8, the infrared electric heating coil high temperature automatic dormancy protection device includes a stainless steel shell 1, a high temperature automatic dormancy protection system 2, a heat storage and heat preservation mechanism 3, a quick connection mechanism 4, a heat introduction quick connection mechanism 5, a high temperature heat release mechanism 6 and a heat transfer mechanism 7. When the high temperature automatic dormancy protection system 2 is running, when the infrared electric heating coil component 207 is heating, if a sudden high temperature occurs, the high temperature automatic dormancy protection system 2 will switch to a heating structure with different power to ensure that the subsequent temperature is at a normal value. At the same time, the pressure will also increase when the high temperature suddenly increases. In order to avoid high pressure from damaging the infrared electric heating coil component 207, the heat introduction quick connection mechanism 5 on the right side of the stainless steel shell 1 and the heat storage and heat preservation mechanism 3 on the right side are connected. The heat transfer mechanism 7 is connected to the high-temperature heat release mechanism 6. The excessive high-temperature pressure inside the infrared electric heating coil component 207 inside the stainless steel shell 1 will pass through the high-temperature heat release mechanism 6. When the pressure is too high, it can pass through, but when the pressure is normal, it cannot pass through. While releasing the pressure, it cooperates with the high-temperature automatic dormancy protection system 2 at the same time, which is convenient for adjusting the temperature and pressure inside the infrared electric heating coil component 207. The released pressure passes through the high-temperature heat release mechanism 6 and then passes through the heat transfer mechanism 7 to the heat storage and insulation mechanism 3. Without wasting heat, it can also be stored for subsequent insulation. At the same time, the high-temperature heat release mechanism 6 will be closed after the pressure and temperature of the infrared electric heating coil component 207 are normal.

[0044] like Figure 2 As shown, the high-temperature automatic sleep protection system 2 includes a control terminal 201, a temperature detection module 202, a switching module 203, a high-power heating module 204, a low-power heating module 205 and an infrared electric heating coil component 207. The output end of the control terminal 201 is bidirectionally electrically connected to the temperature detection module 202, the output end of the control terminal 201 is bidirectionally electrically connected to the temperature detection module 202, the output end of the control terminal 201 is unidirectionally electrically connected to the switching module 203, the output end of the switching module 203 is unidirectionally electrically connected to the high-power heating module 204, the output end of the switching module 203 is unidirectionally electrically connected to the low-power heating module 205, and the input end of the high-temperature automatic sleep protection system 2 is unidirectionally electrically connected to the power supply. The electrical module 206, the power supply module 206 will first power the high-temperature automatic sleep protection system 2, and the temperature detection module 202 will detect the temperature inside the infrared electric heating coil component 207. When a sudden high temperature occurs, the temperature detection module 202 will transmit the high-temperature information to the control terminal 201, and the control terminal 201 will then send a signal to the switching module 203. The switching module 203 will cut off the high-power heating module 204 from sleep and switch to the low-power heating module 205 to avoid a sudden drop in temperature, thereby ensuring that the subsequent temperature is at a normal value. Subsequently, the low-power heating module 205 can be cut off from sleep through the switching module 203 and switched to the high-power heating module 204, and they can be used interactively with each other.

[0045] like Figure 3 As shown, the infrared electric heating coil component 207 includes a high-power nano-infrared heating tube 2071, a low-power nano-infrared heating tube 2072, a heat radiation reflection layer 2073, a heat insulation layer 2074 and a thermal insulation layer 2075. The top and bottom of the high-power nano-infrared heating tube 2071 are bolted to the top and bottom of the stainless steel casing 1 respectively, and the top and bottom of the low-power nano-infrared heating tube 2072 are bolted to the top and bottom of the stainless steel casing 1 respectively. The heat radiation reflection layer 2073, the heat insulation layer 2074 and the thermal insulation layer 2075 are sequentially welded to the high-power nano-infrared heating tube 2071 and the low-power nano-infrared heating tube 2072 and the stainless steel casing 1. In between, by setting up the infrared electric heating ring component mechanism 207, while the high-temperature automatic sleep protection system 2 is running, the high-power nano-infrared heating tube 2071 operates normally to generate temperature, and the thermal radiation reflection layer 2073 inside the stainless steel shell 1 reflects the generated heat to prevent heat loss, and the thermal insulation layer 2074 insulates the thermal radiation reflection layer 2073 to prevent heat from dissipating outward, and the thermal insulation layer 2075 uniformly insulates the interior. In an emergency, the high-power nano-infrared heating tube 2071 generates too high a temperature, and will subsequently be switched to the low-power nano-infrared heating tube 2072 for use through the high-temperature automatic sleep protection system 2 to ensure the temperature during subsequent use.

[0046] like Figure 4 As shown, the heat storage and insulation mechanism 3 includes a heat storage and insulation shell 301, a heat-resistant layer 302 and a heat-resistant sealing gasket 303. The front side of the heat storage and insulation shell 301 contacts the rear side of the stainless steel shell 1, the heat-resistant layer 302 is welded to the inner wall of the heat storage and insulation shell 301, and the heat-resistant sealing gasket 303 is clamped on the inner walls of the front and rear sides of the heat storage and insulation shell 301. By setting the heat storage and insulation mechanism 3, the high temperature transmitted is stored through the heat storage and insulation shell 301, and the heat-resistant layer 302 is used to insulate the heated object when in use. The heat-resistant sealing gasket 303 is used to seal the heat storage and insulation shell 301 when it is connected to the stainless steel shell 1 to prevent temperature leakage.

[0047] like Figure 5As shown, the quick connection mechanism 4 includes a fixing plate 401, a rotating snap lock 402 and a fixing buckle 403. The fixing plate 401 is bolted to the left side of the heat storage and insulation shell 301, the rotating snap lock 402 is bolted to the side of the fixing plate 401 away from the heat storage and insulation shell 301, and the fixing buckle 403 is bolted to both sides of the stainless steel shell 1. The rotating snap lock 402 is used in conjunction with the fixing buckle 403. By setting the quick connection mechanism 4, when the heat storage and insulation shell 301 is connected to the stainless steel shell 1, the fixing plate 401 and the rotating snap lock 402 are fixed to the outside of the heat storage and insulation shell 301, and the fixing buckle 403 is fixed to the outside of the stainless steel shell 1. After the rotating snap lock 402 and the fixing buckle 403 are clamped, the heat storage and insulation shell 301 can be combined and connected with the stainless steel shell 1, and can be easily disassembled during subsequent use.

[0048] like Figure 6 As shown, the heat-introducing quick-connect mechanism 5 includes a first main pipe 501, a first threaded sleeve 502 and a first sealing rubber pad 503. The left side of the first main pipe 501 passes through the stainless steel casing 1, the thermal insulation layer 2075 and the thermal insulation layer 2074 in sequence and is connected to the thermal radiation heat-reflecting layer 2073. The first threaded sleeve 502 is sleeved on the outside of the right side of the first main pipe 501, and the first sealing rubber pad 503 is clamped inside the right side of the first main pipe 501. By setting the heat-introducing quick-connect mechanism 5, the stainless steel casing 1, the thermal insulation layer 2075 and the thermal insulation layer 2074 are passed through the first main pipe 501 and are connected to the thermal radiation heat-reflecting layer 2073. When the high-power nano-infrared heating tube 2071 generates high temperature and high pressure, it can be discharged outward through the first main pipe 501 to protect the internal structures, and then the first threaded sleeve 502 is used for external connection, and the first sealing rubber pad 503 is used for sealing to prevent temperature leakage.

[0049] like Figure 7As shown, the high-temperature heat release mechanism 6 includes a threaded heat inlet pipe 601, a heat storage pipe 602, two telescopic pipes 603, a sealing block 604, a first spring 605 and a threaded heat outlet pipe 606. The threaded end of the threaded heat inlet pipe 601 is threadedly connected to the first threaded sleeve 502, the left side of the threaded heat inlet pipe 601 contacts the right side of the first sealing rubber pad 503, the two telescopic pipes 603 are respectively welded to the two sides of the front side of the inside of the heat storage pipe 602, the front side of the sealing block 604 is welded to the rear side of the two telescopic pipes 603, the first spring 605 is arranged on the rear side of the inside of the heat storage pipe 602, the front side of the first spring 605 contacts the rear side of the sealing block 604, the right side of the threaded heat outlet pipe 606 is connected to the left side of the heat storage pipe 602, and the high-temperature heat release mechanism 6 is provided. The first threaded sleeve 502 is used to connect the threaded heat inlet pipe 601 to the first main pipe 50 1 Merged connection. Under normal circumstances, the pressure generated by normal temperature will push the sealing block 604 and the two telescopic tubes 603 inside the heat storage tube 602 to the rear together. The first spring 605 presses the sealing block 604, so that under normal temperature, the pressure generated cannot push the sealing block 604 to a position exceeding the threaded heat outlet pipe 606. Under high temperature conditions, the pressure generated exceeds the force of the first spring 605 pressing the sealing block 604, and the first spring 605 will shrink. The sealing block 604 is pushed to a position exceeding the threaded heat outlet pipe 606, and part of the high pressure generated by the high temperature is discharged stably through the threaded heat outlet pipe 606 to achieve stable temperature and pressure. When the normal pressure is restored, the first spring 605 and the sealing block 604 are reset, and if they are damaged later, they can be easily removed and replaced.

[0050] like Figure 8 As shown, the heat transfer mechanism 7 includes a second main pipe 701, a second threaded sleeve 702 and a second sealing rubber gasket 703. The left side of the first main pipe 501 is connected to the right side of the heat storage and insulation shell 301. The second threaded sleeve 702 is sleeved on the outside of the right side of the second main pipe 701. The second sealing rubber gasket 703 is clamped on the inside of the right side of the second main pipe 701. The second threaded sleeve 702 is threadedly connected to the threaded end of the threaded heat outlet pipe 606. By setting the heat transfer mechanism 7, the second threaded sleeve 702 connects the threaded heat outlet pipe 606 to the second main pipe 701, and the second sealing rubber gasket 703 seals the connection interface. The threaded heat outlet pipe 606 transfers high temperature and high pressure to the second main pipe 701, and the second main pipe 701 transfers high temperature and pressure to the inside of the heat storage and insulation shell 301, so as to store heat and subsequently keep the heated object warm without wasting heat.

[0051] Brief description of the usage process: First, the heat storage and insulation shell 301 is connected to the stainless steel shell 1, and is fixed to the outside of the heat storage and insulation shell 301 through the fixing plate 401 and the rotating snap lock 402, and the fixing buckle 403 is fixed to the outside of the stainless steel shell 1, and is clamped with the rotating snap lock 402 and the fixing buckle 403, so that the heat storage and insulation shell 301 can be combined and connected with the stainless steel shell 1, and can be easily disassembled during subsequent use. The subsequent power supply module 206 will power the high-temperature automatic sleep protection system 2, and the temperature detection module 202 will detect the temperature inside the infrared electric heating coil component 207. When a sudden high temperature occurs, the temperature detection module 202 will transmit the high temperature information to the control terminal 201, and the control terminal 201 then sends a signal to the switching module 203, the switching module 203 cuts off the high-power heating module 204 and switches to the low-power heating module 205 to avoid a sudden drop in temperature, thereby ensuring that the subsequent temperature is at a normal value. The low-power heating module 205 can be cut off and put into sleep through the switching module 203, and switched to the high-power heating module 204, and they are used interactively with each other. While the high-temperature automatic sleep protection system 2 is running, the high-power nano-infrared heating tube 2071 generates temperature during normal operation. The heat radiation reflection layer 2073 inside the stainless steel shell 1 reflects the generated heat to prevent heat loss, and the heat insulation layer 2074 insulates the heat radiation reflection layer 2073 to prevent heat from dissipating outward, thereby keeping the temperature The layer 2075 is used to uniformly insulate the interior. In the event of an emergency, the high-power nano-infrared heating tube 2071 generates an excessively high temperature. The high-temperature automatic sleep protection system 2 will then switch to the low-power nano-infrared heating tube 2072 for use to ensure the temperature during subsequent use. The first main pipe 501 passes through the stainless steel casing 1, the thermal insulation layer 2075 and the heat insulation layer 2074 and is connected to the heat radiation anti-heat layer 2073. When the high-power nano-infrared heating tube 2071 generates a high temperature and a high-pressure problem occurs, the first threaded sleeve 502 is used to merge and connect the threaded heat pipe 601 with the first main pipe 501. Under normal circumstances, the pressure generated by the normal temperature will seal the sealing block 604 inside the heat storage tube 602 and the two telescopic tubes. 603 is pushed backward, and the first spring 605 presses the sealing block 604, so that under normal temperature, the pressure generated cannot push the sealing block 604 to a position exceeding the threaded heat outlet pipe 606. Under high temperature conditions, the pressure generated exceeds the force of the first spring 605 pressing the sealing block 604, and the first spring 605 will shrink. The sealing block 604 is pushed to a position exceeding the threaded heat outlet pipe 606, and the threaded heat outlet pipe 606 discharges part of the high pressure generated by the high temperature to achieve stable temperature and pressure. When the normal pressure is restored, the first spring 605 and the sealing block 604 are reset, and the second threaded sleeve 702 subsequently connects the threaded heat outlet pipe 606 to the second main pipe 701.The second sealing rubber gasket 703 seals the connection interface. The threaded heat outlet pipe 606 transmits high temperature and high pressure to the second main pipe 701. The second main pipe 701 transmits the high temperature and pressure to the interior of the heat storage and insulation shell 301. The high temperature is stored in the heat storage and insulation shell 301 and then used in conjunction with the heat resistance layer 302 to keep the heated object warm during use.

[0052] Example 2:

[0053] refer to Figure 1-9 The infrared electric heating coil high temperature automatic dormancy protection device includes an overload heat dissipation mechanism 8. If the high temperature pressure stored inside the heat storage and insulation mechanism 3 is too high, a part of it will be discharged outward through the overload heat dissipation mechanism 8 until the pressure inside the heat storage and insulation mechanism 3 is normal.

[0054] like Figure 9 As shown, the overload heat dissipation mechanism 8 includes a top pipe 801, a sealing pressure block 802, a second spring 803, an exhaust pipe 804 and a pressure gauge 805. The bottom of the top pipe 801 is connected to the top of the left side of the heat storage and insulation shell 301, the sealing pressure block 802 is slidably connected to the bottom inside the top pipe 801, the second spring 803 is set at the top inside the top of the top pipe 801, the bottom of the second spring 803 contacts the top of the sealing pressure block 802, the exhaust pipe 804 is connected to the front side of the top pipe 801, and the pressure gauge 805 is connected to the left side of the top pipe 801. By setting the overload heat dissipation mechanism 8, when the pressure inside the heat storage and insulation shell 301 is too large due to high temperature, the heat storage and insulation shell 301 can be discharged through the exhaust pipe 804. The pressure can be observed through the pressure gauge 805 on the outside of the top pipe 801 at the top of the warm shell 301. If no one notices, the sealing pressure block 802 and the second spring 803 inside the top pipe 801 will press. When the pressure is too high, it exceeds the force of the second spring 803 on the sealing pressure block 802, and the sealing pressure block 802 will move upward, and the second spring 803 will be compressed. The pressure generated by the high temperature will be discharged to the outside through the exhaust pipe 804, which effectively prevents the heat storage and insulation shell 301 from being damaged by excessive pressure. When the normal pressure is restored, the second spring 803 and the sealing pressure block 802 will be reset, and this is a backup measure that will not be easily triggered.

[0055] Brief description of the usage process: First, when the pressure inside the heat storage and insulation shell 301 is too high due to high temperature, it can be observed through the pressure gauge 805 on the outside of the top tube 801 at the top of the heat storage and insulation shell 301. If you don't notice it, the sealing pressure block 802 and the second spring 803 inside the top tube 801 will press. When the pressure is too high, it exceeds the force of the second spring 803 on the sealing pressure block 802, and the sealing pressure block 802 will move upward, and the second spring 803 will be compressed. The pressure generated by the high temperature will be discharged to the outside through the exhaust pipe 804, effectively preventing the heat storage and insulation shell 301 from being damaged by excessive pressure. When the normal pressure is restored, the second spring 803 and the sealing pressure block 802 will be reset, and this is a backup measure that will not be easily triggered.

[0056] This specific embodiment is merely an explanation of the present invention and is not intended to limit the present invention. After reading this specification, those skilled in the art may make non-creative modifications to this embodiment as needed. However, as long as such modifications are within the scope of the claims of the present invention, they are protected by patent law.

Claims

1. An infrared electric heating coil high-temperature automatic dormancy protection device, comprising a stainless steel casing (1), a high-temperature automatic dormancy protection system (2), a heat storage and heat preservation mechanism (3), a quick connection mechanism (4), a heat introduction quick connection mechanism (5), a high-temperature heat release mechanism (6), a heat transfer mechanism (7) and an overload heat removal mechanism (8), characterized in that: The heat storage and heat preservation mechanism (3) is arranged on the rear side of the stainless steel casing (1), the quick connection mechanism (4) is bolted to the left side of the heat storage and heat preservation mechanism (3), the heat introduction quick connection mechanism (5) is arranged on the right side, the high-temperature heat release mechanism (6) is connected to the right side of the heat introduction quick connection mechanism (5) and the heat transfer mechanism (7), and the overload heat discharge mechanism (8) is connected to the top of the heat storage and heat preservation mechanism (3); The high-temperature automatic hibernation protection system (2) comprises a control terminal (201), a temperature detection module (202), a switching module (203), a high-power heating module (204), a low-power heating module (205) and an infrared electric heating coil component (207), wherein the output end of the control terminal (201) is bidirectionally electrically connected to the temperature detection module (202), the output end of the control terminal (201) is unidirectionally electrically connected to the switching module (203), the output end of the switching module (203) is unidirectionally electrically connected to the high-power heating module (204), the output end of the switching module (203) is unidirectionally electrically connected to the low-power heating module (205), and the input end of the high-temperature automatic hibernation protection system (2) is unidirectionally electrically connected to the power supply module (206).

2. The infrared electric heating coil high temperature automatic dormancy protection device according to claim 1, characterized in that: The infrared electric heating coil component (207) comprises a high-power nano-infrared heating tube (2071), a low-power nano-infrared heating tube (2072), a heat radiation reflection layer (2073), a heat insulation layer (2074) and a thermal insulation layer (2075); the top and bottom of the high-power nano-infrared heating tube (2071) are respectively bolted to the top and bottom of the interior of the stainless steel casing (1); the top and bottom of the low-power nano-infrared heating tube (2072) are respectively bolted to the top and bottom of the interior of the stainless steel casing (1); the heat radiation reflection layer (2073), the heat insulation layer (2074) and the thermal insulation layer (2075) are sequentially welded between the high-power nano-infrared heating tube (2071) and the low-power nano-infrared heating tube (2072) and the stainless steel casing (1).

3. The high-temperature automatic dormancy protection device for infrared electric heating coils according to claim 1, characterized in that: The heat storage and heat preservation mechanism (3) comprises a heat storage and heat preservation shell (301), a heat resistance layer (302) and a heat-resistant sealing gasket (303); the front side of the heat storage and heat preservation shell (301) contacts the rear side of the stainless steel casing (1); the heat resistance layer (302) is welded to the inner wall of the heat storage and heat preservation shell (301); and the heat-resistant sealing gasket (303) is clamped to the inner walls of the front and rear sides of the heat storage and heat preservation shell (301).

4. The infrared electric heating coil high temperature automatic dormancy protection device according to claim 1 is characterized in that: The quick connection mechanism (4) comprises a fixing plate (401), a rotating snap lock (402) and a fixing buckle (403); the fixing plate (401) is bolted to the left side of the heat storage and insulation shell (301); the rotating snap lock (402) is bolted to the side of the fixing plate (401) away from the heat storage and insulation shell (301); the fixing buckle (403) is bolted to both sides of the stainless steel casing (1); the rotating snap lock (402) and the fixing buckle (403) are used in conjunction with each other.

5. The infrared electric heating coil high temperature automatic dormancy protection device according to claim 2, characterized in that: The heat-introducing quick-connect mechanism (5) comprises a first main connecting pipe (501), a first threaded sleeve (502) and a first sealing rubber pad (503); the left side of the first main connecting pipe (501) passes through the stainless steel casing (1), the thermal insulation layer (2075) and the heat insulating layer (2074) in sequence and is connected to the heat radiation heat reflection layer (2073); the first threaded sleeve (502) is sleeved on the outside of the right side of the first main connecting pipe (501); and the first sealing rubber pad (503) is clamped inside the right side of the first main connecting pipe (501).

6. The infrared electric heating coil high temperature automatic dormancy protection device according to claim 5, characterized in that: The high-temperature heat release mechanism (6) comprises a threaded heat inlet pipe (601), a heat storage pipe (602), two telescopic pipes (603), a sealing block (604), a first spring (605) and a threaded heat outlet pipe (606). The threaded end of the threaded heat inlet pipe (601) is threadedly connected to the first threaded sleeve (502). The left side of the threaded heat inlet pipe (601) contacts the right side of the first sealing rubber pad (503). The two telescopic pipes (603) are respectively welded to the two sides of the front side of the heat storage pipe (602). The front side of the sealing block (604) is welded to the rear sides of the two telescopic pipes (603). The first spring (605) is arranged on the rear side of the heat storage pipe (602). The front side of the first spring (605) contacts the rear side of the sealing block (604). The right side of the threaded heat outlet pipe (606) is connected to the left side of the heat storage pipe (602).

7. The infrared electric heater high temperature automatic dormancy protection device according to claim 6, characterized in that: The heat transfer mechanism (7) comprises a second main connecting pipe (701), a second threaded sleeve (702) and a second sealing rubber pad (703); the left side of the first main connecting pipe (501) is connected to the right side of the heat storage and insulation shell (301); the second threaded sleeve (702) is sleeved on the outside of the right side of the second main connecting pipe (701); the second sealing rubber pad (703) is clamped inside the right side of the second main connecting pipe (701); and the second threaded sleeve (702) is threadedly connected to the threaded end of the threaded heat outlet pipe (606).

8. The infrared electric heater high temperature automatic dormancy protection device according to claim 1, characterized in that: The overload heat dissipation mechanism (8) comprises a top pipe (801), a sealing pressing block (802), a second spring (803), an exhaust pipe (804) and a pressure gauge (805); the bottom of the top pipe (801) is communicated with the top of the left side of the heat storage and insulation shell (301); the sealing pressing block (802) is slidably connected to the bottom inside the top pipe (801); the second spring (803) is arranged at the top inside the top pipe (801); the bottom of the second spring (803) contacts the top of the sealing pressing block (802); the exhaust pipe (804) is communicated with the front side of the top pipe (801); and the pressure gauge (805) is communicated with the left side of the top pipe (801).

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