Controllable curing implementation method for electric insulation fireproof plugging glue pouring
By using fiber reinforcement materials and electromagnetic sensing heating technology in electricity insulation and fire prevention, it solves the problem of insufficient solidification and insufficient solidification at the complex structure and bending pores, and achieves controlling and efficient solidification effects of blocked glue.
Patent Information
- Application Number
- CN202411509908.5
- Authority / Receiving Office
- CN · China
- Patent Type
- Applications(China)
- Current Assignee / Owner
- Filing Date
- 2024-10-28
- Publication Date
- 2025-01-28
AI Technical Summary
The existing power insulated fireproof sealing glue is difficult to construct in some complex structures or bent holes, resulting in insufficient curing and unable to effectively exert its fast curing characteristics.
The fiber enhanced plugging glue is used to control the curing speed and curing quality of the blocking glue by mixed with fragmented fiber mesh in the silicon base material and use electromagnetic induction heating and magnetic detonation technology.
The controlling and solidification of the electric insulation and fire prevention of the fire prevention is achieved, ensuring that it is uniformly solidified at the complex structure and the bending hole, and improves the safety and reliability of the power system.
Abstract
Description
Technical Field
[0001] The present application relates to the field of electric power engineering, and specifically to electric power insulation fireproof material technology. Background Art
[0002] Power insulation fireproof plugging glue filling technology is widely used in power systems, especially in key locations such as cable penetration holes, junction boxes, cable trays, etc., to prevent the spread of fire and provide electrical insulation protection. This technology ensures the safe operation of the power system by filling and plugging these potential fire source propagation paths.
[0003] In the prior art, the fireproof sealing glue for power insulation uses polyurethane-modified silicone materials, which have significantly improved performance and have excellent high temperature resistance, low temperature resistance and chemical corrosion resistance. At the same time, modified dimethyl vinyl siloxane is also used, which performs well in improving the flexibility and weather resistance of the material. After the above-mentioned modification design, the fireproof sealing glue for power insulation can be cured within 10 to 15 days after being exposed to the air, and the high temperature resistance of the cured product reaches 550 to 600°C.
[0004] However, some key parts are difficult to construct due to complex structures or curved holes, resulting in insufficient contact between the power insulation fire-proof sealing glue and the air, and the fast curing characteristics of the power insulation fire-proof sealing glue cannot be brought into play.
[0005] Therefore, developing a new implementation method for electric power insulation fireproof sealing glue potting material so that the curing speed of electric power insulation fireproof sealing glue potting can be controlled has become a key requirement for current technological development. Summary of the invention
[0006] The purpose of the present invention is to provide a fireproof plugging glue for electric insulation to solve at least one of the above technical problems.
[0007] The technical problem solved by the present invention can be achieved by adopting the following technical solutions:
[0008] A controllable curing implementation method for electric power insulation fireproof plugging glue, which is provided with electric power insulation fireproof plugging glue, is characterized in that:
[0009] The power insulation fireproof plugging glue adopts fiber-reinforced plugging glue, and the fiber-reinforced plugging glue components include organic silicon base material, fireproof additives, high temperature resistant fillers, and environmentally friendly flame retardants;
[0010] The silicone base is also doped with a fiber web in the form of fragments as a filler;
[0011] The fiber mesh is woven using aramid fibers as warp and weft;
[0012] Aramid fiber as one of the warp and weft has a composite layer of ferroferric oxide powder;
[0013] Aramid fiber, which is another one of the warp and weft threads, has a graphite powder composite layer;
[0014] The fiber-reinforced plugging glue is packaged in an airtight glue cartridge as a glue injection cartridge for curing;
[0015] The implementation method includes the following steps:
[0016] Step S1, dust removal: use compressed air to remove dust from the parts to be cured, the parts to be cured include but are not limited to cable penetration holes, junction boxes, cable trays, and remove floating dust on the surface of the parts to be cured;
[0017] Step S2, oil cleaning: spray the part to be cured with a degreasing spray with self-volatile properties, let it stand for 5 to 10 minutes, and then use compressed air to blow the part to be cured again to remove the residue of the degreasing spray;
[0018] Step S3, glue injection: the sealing film of the glue outlet at the front end of the glue injection cylinder is cut off, and the glue outlet is connected to the glue dispensing needle through a threaded connection; the glue injection cylinder is installed on a glue cylinder glue dispenser, and the fiber-reinforced plugging glue is squeezed out of the glue dispensing needle through the glue cylinder glue dispenser, and evenly injected into the part to be cured;
[0019] Step S4, heating and curing: heating the colloid injected in step S3 by using an electric field induction heating curing process;
[0020] A device for controllable curing of electric sealant is provided, comprising a device housing, a hand-held handle is provided on the device housing, and a telescopic mechanism is installed in the device housing;
[0021] It includes a sealant electromagnetic induction heating plate, the sealant electromagnetic induction heating plate has an electromagnetic heating system, and the sealant electromagnetic induction heating plate is fixed on the device housing;
[0022] It also includes an electromagnet system, the electromagnet has a magnetic core, a coil is wound around the magnetic core, the coil is connected to a power supply device that outputs alternating current as a magnetic field controller, and the electromagnet system is fixed to the telescopic end of the telescopic mechanism;
[0023] Open the telescopic mechanism, start the electromagnetic heating system, and place the sealant electromagnetic induction heating plate close to the plugging glue at a distance of 2 to 5 cm. The warp or weft with the graphite powder composite layer in the fiber mesh makes the fluid glue conductive, and then the colloid is heated in the electromagnetic heating system. The output power of the electromagnetic heating system is adjusted to control the heating speed and temperature of the fluid glue, thereby controlling the curing speed of the fiber-reinforced plugging glue.
[0024] The method also includes step S5, vibration curing: the device for controllable curing of the electric sealant prepared in step S4 opens the telescopic mechanism, starts the electromagnet system, and brings the magnetic core 2 to 6 cm close to the part to be cured. The magnetic field of the electromagnet system interacts with the warp or weft of the fiber mesh compounded with ferroferric oxide powder, driving the fiber mesh to vibrate, thereby stirring the plugging and pouring glue, thereby accelerating the curing of the plugging and pouring glue.
[0025] In the above design, the purpose of using the fragmented fiber mesh as a filler is to achieve controllable curing speed. As one of the warp or weft threads, the aramid fiber is compounded with graphite powder, which makes the fluid glue conductive. In the high-frequency alternating magnetic field generated by the electromagnetic induction device, eddy currents will be generated to generate heat, thereby increasing the ambient temperature during the curing of the power insulation fireproof sealing glue. The beneficial effect is that the heating rate and the temperature of the conductive fluid glue can be controlled by the frequency and power of the alternating magnetic field, thereby controlling the curing efficiency and curing speed of the plugging glue.
[0026] The beneficial effect of implementing step S1 of the method is to remove floating dust, so that the contact between the part to be cured and the power insulation fireproof sealing glue is more firm.
[0027] The beneficial effect of implementing step S2 of the method is to remove the oil stains, colloid residues and the like that may remain on the part to be cured, so that the combination of the part to be cured and the plugging glue is more firm.
[0028] The beneficial effect of implementing step S3 of the method is that the glue cartridge glue dispenser can be used as a glue dispenser for the power insulation fireproof sealing glue, so as to facilitate the curing operation of the power insulation fireproof sealing glue.
[0029] The beneficial effect of implementing step S4 of the method is that the electromagnetic heating system is used to control the fluid glue to generate eddy current, thereby controlling the heating rate and temperature during curing to achieve controllability of the curing speed.
[0030] The beneficial effect of implementing step S5 of the method is that, as the other of the warp or weft, the aramid fiber is bonded with ferroferric oxide powder, which is magnetic and can drive the fiber net to vibrate under the action of the alternating magnetic field. The beneficial effects are: first, the vibration of the fiber net can play a stirring role, so that the components of the power insulation fireproof sealing glue are better mixed; second, the vibration of the fiber net can play a role in removing bubbles in the colloid and improving the quality of curing; third, the vibration of the fiber net can make the contact between the fiber net and the power insulation fireproof sealing glue more firm and eliminate surface tension.
[0031] Furthermore, the frequency of the alternating current passed through the induction coil is 20-40kHz, and the power is 100-300W.
[0032] In the above design, the frequency of the alternating current is in the range of 20-40kHz. The high-frequency electromagnetic induction in this range is sufficient to generate eddy currents in the warp or weft threads bonded with graphite powder. The power is controlled at 100-300 watts, which can keep the temperature at 20-50°C, thereby promoting the curing speed without damaging the colloid of the power insulation fireproof sealing glue due to excessive temperature.
[0033] Furthermore, the frequency of the electromagnet with cyclic reversal of magnetic polarity is between 5 and 30 Hz.
[0034] In the above design, the function of the frequency of the magnetic polarity reversal cycle is to drive the fiber web to vibrate, so as to achieve stirring, remove bubbles, and make the contact between the web and the colloid more firm. The fiber web is mixed in the fluid colloid, and its excessive vibration will be eliminated by the colloid resistance. Therefore, there is no need to vibrate too fast. The frequency of the magnetic polarity reversal cycle is 5 to 30 Hz, which can meet the vibration needs without consuming more energy.
[0035] Furthermore, the organosilicon base material of the fiber-reinforced plugging glue is also doped with gas storage particles detonated by magnetic force, and the gas storage particles are used as fillers;
[0036] The gas storage particle has an airtight membrane filled with air at 1.15 to 1.3 atmospheres, and also includes a magnetic needle;
[0037] The magnetic needle includes a needle tip and a needle body, wherein the needle tip is made of a soft magnetic material and the needle body is made of a non-magnetic material;
[0038] The method also includes step S6, magnetic detonation: a device for controllable curing of electric power sealant is prepared, the telescopic mechanism is opened, the electromagnet system is started, the magnetic core is brought 3 to 5 cm close to the colloid of the plugging and potting glue, and the magnetic needle tip is pulled through the magnetic field of the electromagnet system to pierce the membrane of the gas storage particles, thereby releasing the air in the gas storage particles inside the fiber-reinforced plugging and potting glue, and the water molecules contained in the released air chemically react with the cross-linking agent inside the fiber-reinforced plugging and potting glue to form a three-dimensional cross-linked network, thereby accelerating the curing efficiency and speed of the electric power insulation fireproof plugging and potting glue.
[0039] In the above design, in order to further improve the curing speed, gas storage particles are added to the fiber-reinforced plugging glue, the gas storage particles are filled with air, and magnetic needles for detonating the gas storage particles are arranged in the gas storage particles. An electromagnet system is used around the part to be cured, and the magnetic needle tip is guided by the magnetic field to pierce the membrane of the gas storage particles, thereby releasing the air in the gas storage particles inside the fiber-reinforced plugging glue. The beneficial effect is to accelerate the curing efficiency and speed of the power insulation fireproof sealing glue. DETAILED DESCRIPTION
[0040] In order to make the above-mentioned objects, features and advantages of the present invention more clearly understood, the specific implementation modes of the present invention are described in detail below in conjunction with the accompanying drawings.
[0041] In the following description, many specific details are set forth to facilitate a full understanding of the present invention, but the present invention may also be implemented in other ways different from those described herein, and those skilled in the art may make similar generalizations without violating the connotation of the present invention. Therefore, the present invention is not limited to the specific embodiments disclosed below.
[0042] Secondly, the present invention is described in detail with reference to schematic diagrams. When describing the embodiments of the present invention in detail, for the sake of convenience, the cross-sectional diagrams showing the device structure will not be partially enlarged according to the general scale, and the schematic diagrams are only examples, which should not limit the scope of protection of the present invention. In addition, in actual production, the three-dimensional dimensions of length, width and depth should be included.
[0043] Furthermore, the term "one embodiment" or "embodiment" as used herein refers to a specific feature, structure, or characteristic that may be included in at least one implementation of the present invention. The term "in one embodiment" that appears in different places in this specification does not necessarily refer to the same embodiment, nor is it a separate or selective embodiment that is mutually exclusive with other embodiments.
[0044] A controllable curing implementation method for electric power insulation fireproof plugging glue, which is provided with electric power insulation fireproof plugging glue, is characterized in that:
[0045] The power insulation fireproof plugging glue adopts fiber-reinforced plugging glue, and the fiber-reinforced plugging glue components include organic silicon base material, fireproof additives, high temperature resistant fillers, and environmentally friendly flame retardants;
[0046] The silicone base is also doped with a fiber web in the form of fragments as a filler;
[0047] The fiber mesh is woven using aramid fibers as warp and weft;
[0048] Aramid fiber as one of the warp and weft has a composite layer of ferroferric oxide powder;
[0049] Aramid fiber, which is another one of the warp and weft threads, has a graphite powder composite layer;
[0050] The fiber-reinforced plugging glue is packaged in an airtight glue cartridge as a glue injection cartridge for curing;
[0051] Embodiment 1: comprises the following steps:
[0052] Step S1, dust removal: Use compressed air to remove dust from the parts to be cured, which include but are not limited to cable penetration holes, junction boxes, and cable trays, and remove floating dust on the surface of the parts to be cured. The compressed air can be provided by an air compressor or a compressed air storage tank.
[0053] Step S2, oil cleaning: spray the curing part with a self-volatile degreasing spray, let it stand for 5 to 10 minutes, and then use compressed air to blow the curing part again to remove the residue of the degreasing spray. The self-volatile degreasing spray includes Hoda Monoester Prifer 6813, which is an industrial environmentally friendly cleaning solvent suitable for paint cleaning and metal decontamination; it can also be Aobo volatile quick-drying cleaner, which is suitable for removing oil stains; it is allowed to use the above two self-volatile degreasing sprays in sequence.
[0054] Step S3, glue injection: cut off the sealing film of the glue outlet at the front end of the glue injection cylinder, and connect the glue outlet to the glue dispensing needle through a threaded connection; install the glue injection cylinder on a glue cylinder glue dispenser, and squeeze the fiber-reinforced plugging glue out of the glue dispensing needle through the glue cylinder glue dispenser, and evenly inject it into the part to be cured.
[0055] The glue dispensing needle can be used to inject the colloid into the deep part of the hole or the curved part of the hole. One end of the glue cartridge glue dispenser is stuck in the front end of the glue cartridge, and the other end has a push block against the extrusion block of the glue cartridge. The handle of the glue dispenser is used to evenly push the extrusion block to squeeze the colloid in the glue injection cartridge.
[0056] Step S4, heating and curing: heating the colloid injected in step S3 by using an electric field induction heating curing process;
[0057] A device for controllable curing of electric sealant is provided, comprising a device housing, a hand-held handle is provided on the device housing, and a telescopic mechanism is installed in the device housing;
[0058] It includes a sealant electromagnetic induction heating plate, the sealant electromagnetic induction heating plate has an electromagnetic heating system, and the sealant electromagnetic induction heating plate is fixed on the device housing;
[0059] It also includes an electromagnet system, the electromagnet has a magnetic core, a coil is wound around the magnetic core, the coil is connected to a power supply device that outputs alternating current as a magnetic field controller, and the electromagnet system is fixed to the telescopic end of the telescopic mechanism;
[0060] Open the telescopic mechanism, start the electromagnetic heating system, and place the sealant electromagnetic induction heating plate close to the plugging glue at a distance of 2 to 5 cm. The warp or weft of the fiber mesh with a composite layer of graphite powder makes the fluid glue conductive, thereby heating the glue in the electromagnetic heating system. The output power of the electromagnetic heating system is adjusted to control the heating speed and temperature of the fluid glue, thereby controlling the curing speed of the fiber-reinforced plugging glue.
[0061] In this embodiment, the purpose of using the fragmented fiber mesh as a filler is to assist in achieving controllable curing speed. As one of the warp or weft threads, the aramid fiber is compounded with graphite powder. The graphite powder is in the silicone base material to form a fluid glue, which causes the fluid glue to have a certain conductivity. In the alternating magnetic field, eddy currents will be generated to generate heat, thereby increasing the ambient temperature during the curing of the plugging glue. The beneficial effect is that by adjusting the frequency and power of the alternating magnetic field, the heating speed and temperature of the conductive fluid glue can be controlled, thereby controlling the curing efficiency and speed.
[0062] The beneficial effect of implementing step S1 of the method is to remove floating dust, so that the contact between the part to be cured and the power insulation fireproof sealing glue is more firm.
[0063] The beneficial effect of implementing step S2 of the method is to remove the oil stains, colloid residues and the like that may remain on the part to be cured, so that the combination of the part to be cured and the plugging glue is more firm.
[0064] The beneficial effect of implementing step S3 of the method is that the glue cartridge glue dispenser can be used as a glue dispenser for the power insulation fireproof sealing glue, so as to facilitate the curing operation of the power insulation fireproof sealing glue.
[0065] The beneficial effect of implementing step S4 of the method is that the electromagnetic heating system is used to control the fluid glue to generate eddy current, thereby controlling the heating rate and temperature during curing to achieve controllability of the curing speed.
[0066] Furthermore, the frequency of the alternating current passed through the induction coil is 20-40kHz, and the power is 100-300W.
[0067] In this embodiment, the frequency of the alternating current of the special equipment is in the range of 20-40kHz. The high-frequency electromagnetic induction in this range is sufficient to generate eddy currents in the warp or weft threads bonded with graphite powder. The power is controlled at 100-300 watts, and the temperature can be kept at 20-60°C, which can promote the curing speed without damaging the colloid of the power insulation fireproof sealing glue due to excessive temperature.
[0068] Embodiment 2: comprises the following steps:
[0069] The method also includes step S5, vibration curing: the device for controllable curing of the electric sealant prepared in step S4 opens the telescopic mechanism, starts the electromagnet system, and brings the magnetic core 2 to 6 cm close to the part to be cured. The magnetic field of the electromagnet system interacts with the warp or weft of the fiber mesh compounded with ferroferric oxide powder, driving the fiber mesh to vibrate, thereby stirring the plugging and pouring glue, thereby accelerating the curing of the plugging and pouring glue.
[0070] In this embodiment, the beneficial effect of implementing step S5 of the method is that, as the other of the warp or weft, the aramid fiber is bonded with ferroferric oxide powder, which is magnetic and can drive the fiber net to vibrate under the action of the alternating magnetic field. Its beneficial effects are: first, the vibration of the fiber net can play a stirring role, so that the components of the power insulation fireproof plugging glue are better mixed; second, the vibration of the fiber net can play a role in removing bubbles in the colloid and improving the quality of curing; third, the vibration of the fiber net can make the contact between the fiber net and the power insulation fireproof plugging glue more firm and eliminate surface tension.
[0071] Furthermore, the frequency of the electromagnet with cyclic reversal of magnetic polarity is between 5 and 30 Hz.
[0072] In this embodiment, the function of the frequency of the magnetic polarity reversal cycle is to drive the fiber web to vibrate, so as to achieve stirring, remove bubbles, and make the contact between the web and the colloid more firmly. The fiber web is mixed in the fluid colloid, and its excessive vibration will be eliminated by the colloid. Therefore, there is no need to vibrate too fast. The frequency of the magnetic polarity reversal cycle is 5 to 30 Hz, which can meet the vibration needs without consuming more energy.
[0073] Furthermore, the organosilicon base material of the fiber-reinforced plugging glue is also doped with gas storage particles detonated by magnetic force, and the gas storage particles are used as fillers;
[0074] The gas storage particle has an airtight membrane filled with air at 1.15 to 1.3 atmospheres, and also includes a magnetic needle;
[0075] The magnetic needle includes a needle tip and a needle body, wherein the needle tip is made of a soft magnetic material and the needle body is made of a non-magnetic material;
[0076] Embodiment 3: comprises the following steps:
[0077] Step S6, magnetic detonation: prepare a device for controllable curing of electric power sealant, open the telescopic mechanism, start the electromagnet system, bring the magnetic core close to the colloid of the plugging and potting glue by 3 to 5 cm, and use the magnetic field of the electromagnet system to pull the magnetic needle tip to pierce the membrane of the gas storage particles, thereby releasing the air in the gas storage particles inside the fiber-reinforced plugging and potting glue. The water molecules contained in the released air react chemically with the cross-linking agent inside the fiber-reinforced plugging and potting glue to form a three-dimensional cross-linked network, thereby accelerating the curing efficiency and speed of the electric power insulation fireproof plugging and potting glue.
[0078] In this embodiment, in order to further improve the curing speed, gas storage particles are added to the fiber-reinforced plugging glue, the gas storage particles are filled with air, and magnetic needles for detonating the gas storage particles are arranged in the gas storage particles. An electromagnet system is used around the part to be cured, and the magnetic needle tip is guided by the magnetic field to pierce the membrane of the gas storage particles, thereby releasing the air in the gas storage particles inside the fiber-reinforced plugging glue. The beneficial effect is that the curing efficiency and speed of the power insulation fireproof plugging glue are accelerated.
[0079] The above embodiments demonstrate the method of controlling the curing speed of the power insulation fireproof plugging glue, aiming to demonstrate the flexibility and wide application potential of the present invention. Each embodiment is carefully designed to ensure that the power insulation fireproof plugging glue has excellent performance after curing.
[0080] Furthermore, in order to provide a concise description of exemplary embodiments, all features of an actual embodiment may not be described, i.e., those features that are not relevant to the best mode presently contemplated for carrying out the invention or those features that are not relevant to implementing the invention.
[0081] It should be understood that in the development of any actual implementation, as in any engineering or design project, numerous implementation-specific decisions may be made. Such a development effort may be complex and time-consuming, but for those of ordinary skill having the benefit of this disclosure, the development effort will be a routine task of design, fabrication, and production without undue experimentation.
[0082] It should be noted that the above embodiments are only used to illustrate the technical solutions of the present invention rather than to limit it. Although the present invention has been described in detail with reference to the preferred embodiments, those skilled in the art should understand that the technical solutions of the present invention may be modified or replaced by equivalents without departing from the spirit and scope of the technical solutions of the present invention, which should all be included in the scope of the claims of the present invention.
Claims
1. A controllable curing implementation method for electric power insulation fireproof plugging glue, which is provided with electric power insulation fireproof plugging glue, characterized in that: The power insulation fireproof plugging glue adopts fiber-reinforced plugging glue, and the fiber-reinforced plugging glue components include organic silicon base material, fireproof additives, high temperature resistant fillers, and environmentally friendly flame retardants; The silicone base is also doped with a fiber web in the form of fragments as a filler; The fiber mesh is woven using aramid fibers as warp and weft; Aramid fiber as one of the warp and weft has a composite layer of ferroferric oxide powder; Aramid fiber, which is another one of the warp and weft threads, has a graphite powder composite layer; The fiber-reinforced plugging glue is packaged in an airtight glue cartridge as a glue injection cartridge for curing; The implementation method includes the following steps: Step S1, dust removal: use compressed air to remove dust from the parts to be cured, the parts to be cured include but are not limited to cable penetration holes, junction boxes, cable trays, and remove floating dust on the surface of the parts to be cured; Step S2, oil cleaning: spray the part to be cured with a degreasing spray with self-volatile properties, let it stand for 5 to 10 minutes, and then use compressed air to blow the part to be cured again to remove the residue of the degreasing spray; Step S3, glue injection: the sealing film of the glue outlet at the front end of the glue injection cylinder is cut off, and the glue outlet is connected to the glue dispensing needle through a threaded connection; the glue injection cylinder is installed on a glue cylinder glue dispenser, and the fiber-reinforced plugging glue is squeezed out of the glue dispensing needle through the glue cylinder glue dispenser, and evenly injected into the part to be cured; Step S4, heating and curing: heating the colloid injected in step S3 by using an electric field induction heating curing process; A device for controllable curing of electric sealant is provided, comprising a device housing, a hand-held handle is provided on the device housing, and a telescopic mechanism is installed in the device housing; It includes a sealant electromagnetic induction heating plate, the sealant electromagnetic induction heating plate has an electromagnetic heating system, and the sealant electromagnetic induction heating plate is fixed on the device housing; It also includes an electromagnet system, the electromagnet has a magnetic core, a coil is wound around the magnetic core, the coil is connected to a power supply device that outputs alternating current as a magnetic field controller, and the electromagnet system is fixed to the telescopic end of the telescopic mechanism; Open the telescopic mechanism, start the electromagnetic heating system, and place the sealant electromagnetic induction heating plate close to the plugging glue at a distance of 2 to 5 cm. The warp or weft with the graphite powder composite layer in the fiber mesh makes the fluid glue conductive, and then the colloid is heated in the electromagnetic heating system. The output power of the electromagnetic heating system is adjusted to control the heating speed and temperature of the fluid glue, thereby controlling the curing speed of the fiber-reinforced plugging glue. The method also includes step S5, vibration curing: the device for controllable curing of the electric sealant prepared in step S4 opens the telescopic mechanism, starts the electromagnet system, and brings the magnetic core 2 to 6 cm close to the part to be cured. The magnetic field of the electromagnet system interacts with the warp or weft of the fiber mesh compounded with ferroferric oxide powder, driving the fiber mesh to vibrate, thereby stirring the plugging and pouring glue, thereby accelerating the curing of the plugging and pouring glue.
2. The controllable curing implementation method for power insulation fireproof plugging glue according to claim 1 is characterized in that: The frequency of the alternating current passed through the induction coil is 20-40kHz, and the power is 100-300w.
3. The controllable curing implementation method for power insulation fireproof plugging glue according to claim 1 is characterized in that: The frequency of the electromagnet with cyclic reversal of magnetic polarity is between 5 and 30 Hz.
4. The controllable curing implementation method for power insulation fireproof plugging glue according to claim 1 is characterized in that: The silicone base material of the fiber-reinforced plugging glue is also doped with gas storage particles that are detonated by magnetic force, and the gas storage particles are used as fillers; The gas storage particle has an airtight membrane filled with air at 1.15 to 1.3 atmospheres, and also includes a magnetic needle; The magnetic needle includes a needle tip and a needle body, wherein the needle tip is made of a soft magnetic material and the needle body is made of a non-magnetic material; The method also includes step S6, magnetic detonation: a device for controllable curing of electric power sealant is prepared, the telescopic mechanism is opened, the electromagnet system is started, the magnetic core is brought 3 to 5 cm close to the colloid of the plugging and potting glue, and the magnetic needle tip is pulled through the magnetic field of the electromagnet system to pierce the membrane of the gas storage particles, thereby releasing the air in the gas storage particles inside the fiber-reinforced plugging and potting glue, and the water molecules contained in the released air chemically react with the cross-linking agent inside the fiber-reinforced plugging and potting glue to form a three-dimensional cross-linked network, thereby accelerating the curing efficiency and speed of the electric power insulation fireproof plugging and potting glue.