An assembly level quick disconnect system launcher

Abstract

The application relates to the technical field of component-level quick-off devices, in particular to a component-level quick-off system launching device which comprises a heat exhausting mechanism, an air exhausting mechanism and a sealing mechanism. The heat exhausting mechanism comprises a first base and a second base arranged vertically, and two groups of clamping ring buckles installed on the top of the first base and the second base. The main clamp and the auxiliary clamp are fixed and clamped by using nuts, and a free-bending connecting hose is installed on the top of the coordination packaging assembly, and a branch assembly is installed on another group of coordination packaging assemblies and is away from the connecting hose. The sealing property of the multiple wires is wrapped by the connecting hose, the branch assembly and the coordination packaging assembly as a whole, when the wires continuously convey the current, the coordination packaging assembly, the connecting hose and the branch assembly in the sealed state can guide the outside air to blow the heat energy on the wires in a directional manner, so that the wires can maintain a constant temperature state during continuous operation.

Description

Technical Field

[0001] This invention relates to the field of component-level fast shutdown device technology, specifically to a component-level fast shutdown system launcher. Background Technology

[0002] The module-level fast shutdown system transmitter quickly disconnects the connection between each photovoltaic module. There are many reasons for fires in photovoltaic power plants. Equipment with a high risk of fire includes inverters, combiner boxes, cables, and modules. As long as it is an electrical system, there is a risk of fire due to current. Photovoltaic systems have been upgraded from the initial 600V design to 1000V, and recently to 1500V. Higher voltages are more likely to cause fires. Therefore, the module-level fast shutdown system transmitter allows firefighters to quickly disconnect the connection between modules and carry out rescue operations at the power plant.

[0003] Currently, the module-level shutdown system transmitter can remotely or manually and quickly shut off the connection between each photovoltaic module in an emergency, thereby eliminating the DC high voltage in the photovoltaic system array. However, because the cables or wiring used between the modules will continuously generate high temperatures when transmitting current for a long time, although the shutdown device can cut off the current, the continuously heated wiring is prone to spontaneous combustion.

[0004] As shown above, ensuring that the wiring between the connection and disconnection device and each component remains in a constant temperature operating state is the technical challenge that this invention needs to solve. Summary of the Invention

[0005] The present invention aims to solve one of the technical problems existing in the prior art or related technologies.

[0006] Therefore, the technical solution adopted in this invention is as follows: A component-level rapid shutdown system launcher includes a heat dissipation mechanism, an air venting mechanism, and a sealing mechanism. The heat dissipation mechanism includes a vertically placed first base and second base, two sets of beaded rings mounted on the tops of the first and second bases, a top plate installed in a circular slot on the top of the first and second bases, and two liquid collection network pipes suspended within the inner cavities of the first and second bases. The air venting mechanism includes a receiving pipe installed outside the first base, an air blower housing installed at the outer end of the receiving pipe, two positioning components installed outside the air blower housing, a duct installed on one side of the air blower housing, a beam pipe connected to the outside of the air blower housing, and a limiting inner ring installed inside the air blower housing. The sealing mechanism includes a transmission assembly installed in the middle of the inner cavity of the blower housing, and a matching and sealing assembly that is movably clamped outside the top wiring terminals of the first base and the second base, an air pipe installed between two adjacent matching and sealing assemblies, a connecting hose installed on one matching and sealing assembly, a tap assembly connected to the other matching and sealing assembly, and a wire located inside the connecting hose and the tap assembly. The matching and sealing assembly includes a main clamp and a secondary clamp adapted to both sides of the wiring terminal, and a nut threaded to the inner screw of the main clamp. The tap assembly includes a semi-circular protective outer tube, a side main buckle installed on the outer end of the protective outer tube, and a side secondary buckle movably installed outside the side main buckle.

[0007] In a preferred embodiment, the present invention can be further configured such that: both the first base and the second base have elliptical cavities inside, and the top surfaces of the cavities of the first base and the second base have cylindrical holes adapted to constrain the top guide rod of the liquid collection network tube.

[0008] By adopting the above technical solution, elliptical cavities are provided inside the first base and the second base, and circular slots are provided on the top of both the first base and the second base. The circular slots on the top of the first base and the second base are connected to the elliptical cavities inside them, thereby enabling the device to continuously draw and blow out outside air.

[0009] In a preferred embodiment, the present invention may be further configured such that the buckle is made of insulating silicone material, and the buckle has an inwardly recessed annular groove on its outer surface.

[0010] By adopting the above technical solution, using insulating silicone material to make the buckle ring, and combining the external ring groove of the buckle ring with the adaptability of the arc-shaped protrusion on the inner wall of the main clamp and the auxiliary clamp, the inner cavity of the first base and the second base can be sealed and connected with the internal space of the matching packaging component.

[0011] In a preferred embodiment, the present invention may be further configured such that: the top plate is made of stainless steel, and two rectangular ends are provided on both sides of the top plate to be fitted into the circular slots on the top of the first base or the second base.

[0012] By adopting the above technical solution, the overall supporting strength of the top plate is utilized, combined with the circumferential support of the top plate for the bottom of the buckle ring, and the air is guided by the gap between the top plate and the circular groove at the top of the first or second base, thereby enabling the circulation of external airflow.

[0013] In a preferred embodiment, the present invention can be further configured as follows: the blower housing has two cylindrical cavities inside, the turbine fan blade at the bottom of the transmission assembly is adapted to penetrate into the cylindrical cavity at the bottom of the blower housing, the inner limiting ring has a circular cavity inside, and the top and bottom of the inner limiting ring are provided with symmetrically distributed circular slots.

[0014] By adopting the above technical solution, by installing the limiting inner ring in the cylindrical cavity at the bottom of the blower housing, combined with the limiting inner ring's limiting constraint on the turbine fan blades at the bottom of the transmission assembly, and the guiding of external air by the top and bottom slots of the limiting inner ring, it is possible to simultaneously blow airflow into the first base and the second base from the connecting pipe and the beam pipe.

[0015] In a preferred embodiment, the present invention can be further configured as follows: rectangular pads protruding outward are provided on both sides of the main clamp, and horizontally placed screws are provided on the rectangular pads on both sides of the main clamp; rectangular blocks are provided on both sides of the auxiliary clamp, and threaded recesses adapted to the screws are provided in the middle of the rectangular blocks on both sides of the auxiliary clamp.

[0016] By adopting the above technical solution, the screws on the rectangular pads on both sides of the main fixture and the internal threaded recesses of the rectangular pads on both sides of the auxiliary fixture are matched and constrained. Combined with the limiting constraint of the nut on the end of the screw that penetrates to the outside of the rectangular pad, the main fixture and the auxiliary fixture can maintain sufficient sealing after assembly.

[0017] In a preferred embodiment, the present invention may be further configured such that both the connecting hose and the protective outer tube are composed of an insulating hose and corrugated end tubes installed at both ends of the insulating hose.

[0018] By adopting the above technical solution, utilizing the bending properties of the connecting hose and the protective outer tube, and simultaneously setting symmetrically distributed corrugated end tubes at both ends of the connecting hose and the protective outer tube, combined with the internal cavity of the connecting hose and the protective outer tube to limit and wrap the outside of the conductor, the conductor can be effectively isolated from the external environment during power transmission.

[0019] By adopting the above technical solution, the beneficial effects achieved by the present invention are as follows: 1. This invention involves assembling a main clamp and a secondary clamp on the outside of the wiring terminals at the top of the first and second bases, and fixing the main clamp and secondary clamp with nuts. A flexible connecting hose is installed on the top of the matching and encapsulation assembly, and a tap assembly is installed on another set of matching and encapsulation assemblies, away from the connecting hose. The connecting hose, tap assembly, and matching and encapsulation assembly together provide a sealed wrapping for multiple wires. When the wires continuously transmit current, the matching and encapsulation assembly, connecting hose, and tap assembly in a sealed state can guide the outside air to blow heat onto the wires in a directional manner, thereby enabling the wires to maintain a continuous constant temperature during continuous operation.

[0020] 2. The present invention comprises a top plate installed in the circular slots at the top of the first and second bases to provide vertical support for the bottom ports of the main clamp and the auxiliary clamp, and hollow recesses opened inside the first and second bases. A liquid collection network filled with condensate is suspended in the recesses inside the first and second bases. At this time, the recesses inside the first and second bases are connected to the internal spaces of the two sets of matching and encapsulation components and connecting hoses, respectively. At the same time, the air is drawn inward by the connecting pipes and beam pipes connected to the outside of the first and second bases, so that the air flowing outside the liquid collection network can be continuously and directionally blown towards the outside of the connected wiring.

[0021] 3. This invention installs vertically distributed air blower boxes at the adjacent ends of the connecting pipe and the beam pipe, and installs vertically distributed transmission components inside the air blower boxes. A limiting inner ring is fixedly installed at the middle position of the cylindrical recess at the bottom of the air blower box to limit and constrain the turbine blades at the bottom of the transmission components. Combined with the overall separation of the cylindrical recess space inside the air blower box by the limiting inner ring, the air duct installed on one side of the air blower box can then draw filtered air into the air blower box and continuously blow it from the beam pipe and connecting pipe into the internal spaces of the first and second bases. This prevents impurities in the air outside the photovoltaic module from being pre-filtered, thus ensuring the safe intake of air from the photovoltaic module's external environment and preventing impurities or particulate matter from clogging the air blower box and the internal cavities of the first and second bases. Attached Figure Description

[0022] Figure 1 This is a schematic diagram of one embodiment of the present invention; Figure 2 This is a bottom view schematic diagram of an embodiment of the present invention; Figure 3 This is a partial dispersion diagram of an embodiment of the present invention; Figure 4 This is one embodiment of the present invention. Figure 3 A schematic diagram of the dispersion and its local cross-section; Figure 5 This is one embodiment of the present invention. Figure 4 Internal dispersion and its cross-sectional schematic diagram; Figure 6 This is one embodiment of the present invention. Figure 1 Internal dispersion diagram; Figure 7 This is one embodiment of the present invention. Figure 6 A schematic diagram of the dispersion; Figure 8 This is one embodiment of the present invention. Figure 7 A partial top view and a schematic diagram showing its distribution.

[0023] Figure label: 100. Heat dissipation mechanism; 110. First base; 120. Second base; 130. Beam buckle; 140. Top plate; 150. Liquid collection network tube; 200. Air exhaust mechanism; 210. Positioning component; 220. Blower housing; 230. Air duct; 240. Beam pipe; 250. Connecting pipe; 260. Limiting inner ring; 270. Transmission assembly; 300. Sealing mechanism; 310. Matching and sealing assembly; 311. Main clamp; 312. Secondary clamp; 313. Nut; 320. Air tube; 330. Connecting hose; 340. Tap assembly; 341. Protective outer tube; 342. Side main buckle; 343. Side secondary buckle; 350. Wire. Detailed Implementation

[0024] To make the objectives, technical solutions, and advantages of this invention clearer, the invention will be further described in detail below with reference to specific embodiments and accompanying drawings. It should be noted that, unless otherwise specified, the embodiments and features described herein can be combined with each other.

[0025] The following describes, with reference to the accompanying drawings, some embodiments of a component-level fast shutdown system launcher provided by the present invention. Example

[0026] Combination Figures 1-8 As shown, the present invention provides a component-level fast shutdown system launch device, including a heat exhaust mechanism 100, an air exhaust mechanism 200, and a sealing mechanism 300; the air exhaust mechanism 200 is installed on the heat exhaust mechanism 100, and the sealing mechanism 300 is installed on the heat exhaust mechanism 100.

[0027] The heat dissipation mechanism 100 includes a first base 110, a second base 120, a clamping ring 130, a top plate 140, and a liquid collection network pipe 150. The air exhaust mechanism 200 includes a positioning component 210, an air blower box 220, an air duct 230, a beam pipe 240, a connecting pipe 250, a limiting inner ring 260, and a transmission assembly 270. The sealing mechanism 300 includes a matching and sealing assembly 310, an air pipe 320, a connecting hose 330, a tapping assembly 340, and a wire 350. The matching and sealing assembly 310 also includes a main clamp 311, a secondary clamp 312, and a nut 313. The tapping assembly 340 also includes a protective outer pipe 341, a side main buckle 342, and a side secondary buckle 343.

[0028] Specifically, two sets of clamping rings 130 are respectively installed on the top of the first base 110 and the second base 120, forming a top plate 140 which is installed in the circular slots on the top of the first base 110 and the second base 120. Two liquid collection network pipes 150 are respectively suspended in the inner cavities of the first base 110 and the second base 120. A connecting pipe 250 is installed outside the first base 110, and a blower housing 220 is installed at the outer end of the connecting pipe 250. Two positioning pieces 210 are installed outside the blower housing 220, and an air duct 230 is installed on one side of the outside of the blower housing 220. A beam pipe 240 is connected to the outside of the blower housing 220, a limiting inner ring 260 is installed inside the blower housing 220, and a transmission assembly 270 is installed on the blower housing. In the middle of the inner cavity of the air chamber 220, the matching and sealing assembly 310 is movably clamped to the outside of the wiring terminal on the top of the first base 110 and the second base 120. The air tube 320 is installed between two adjacent matching and sealing assemblies 310. The connecting hose 330 is installed on one matching and sealing assembly 310. The tap assembly 340 is connected to the other matching and sealing assembly 310. The wire 350 is located inside the connecting hose 330 and the tap assembly 340. The main clamp 311 and the auxiliary clamp 312 are respectively adapted to both sides of the wiring terminal. The nut 313 is threaded to the screw on the inside of the main clamp 311. The side main buckle 342 is installed on the outer end of the protective outer tube 341. The side auxiliary buckle 343 is movably installed outside the side main buckle 342.

[0029] By installing vertically distributed transmission components 270 inside the blower housing 220, and fixing a limiting inner ring 260 at the middle position of the cylindrical recess at the bottom of the blower housing 220 to limit and constrain the turbine blades at the bottom of the transmission components 270, the limiting inner ring 260, together with the overall separation of the cylindrical recess space inside the blower housing 220, allows the air duct 230 installed on one side of the blower housing 220 to draw filtered air into the blower housing 220, and continuously blow it into the internal space of the first base 110 and the second base 120 from the beam pipe 240 and the connecting pipe 250, respectively. This can prevent impurities in the air outside the photovoltaic module from being pre-filtered. Hollow recesses are opened inside the first base 110 and the second base 120, and liquid collection network pipes 150 filled with condensate are suspended in the recesses inside the first base 110 and the second base 120. The recesses inside the first base 110 and the second base 120 communicate with the internal spaces of the two sets of matching encapsulation components 310 and the connecting hose 330, respectively. At the same time, they cooperate with the external connecting pipe 250 and beam pipe 240 of the first base 110 and the second base 120 to draw in air. The freely bendable connecting hose 330 is installed on the top of the matching encapsulation component 310. Meanwhile, the tap component 340, which is away from the connecting hose 330, is installed on another set of matching encapsulation components 310. The connecting hose 330, the tap component 340 and the matching encapsulation component 310 together form a sealed enclosure for the external of multiple wires 350. When the wires 350 continuously transmit current, the matching encapsulation component 310, the connecting hose 330 and the tap component 340, which are in a sealed state, can guide the outside air to blow the heat energy on the wires 350 in a directional manner, so that the wires 350 can maintain a constant temperature during continuous operation. Example

[0030] Combination Figure 4 As shown, based on Embodiment 1, both the first base 110 and the second base 120 have elliptical cavities inside, and the top surfaces of the cavities of the first base 110 and the second base 120 have cylindrical holes adapted to constrain the top guide rod of the liquid collection network tube 150. The binding ring 130 is made of insulating silicone material, and the outer surface of the binding ring 130 has an inwardly recessed annular groove. The top plate 140 is made of stainless steel material, and two rectangular ends adapted to be installed in the circular slots on the top of the first base 110 or the second base 120 are opened on both sides of the top plate 140.

[0031] By utilizing the elliptical cavities formed inside the first base 110 and the second base 120, and the circular slots formed at the top of both the first base 110 and the second base 120, the circular slots at the top of the first base 110 and the second base 120 are connected to the elliptical cavities inside, and by combining the external annular groove of the clamping ring 130 with the arc-shaped protrusions on the inner walls of the main clamp 311 and the auxiliary clamp 312, and by combining the circumferential support of the bottom of the clamping ring 130 provided by the top plate 140, and by using the gap between the top plate 140 and the circular slot at the top of the first base 110 or the second base 120 to guide air, the external airflow can be circulated, thereby enabling the sealed communication between the inner cavities of the first base 110 and the second base 120 and the internal space of the matching packaging assembly 310. This allows the device to continuously draw and blow external air. Example

[0032] Combination Figure 5 As shown, based on Embodiment 1, the blower housing 220 has two cylindrical cavities inside. The turbine fan blade at the bottom of the transmission assembly 270 is adapted to penetrate into the cylindrical cavity at the bottom of the blower housing 220. The inner limiting ring 260 has a circular cavity inside, and the top and bottom of the inner limiting ring 260 are provided with symmetrically distributed circular slots.

[0033] By installing the limiting inner ring 260 in the cylindrical cavity at the bottom of the blower housing 220, and by combining the limiting inner ring 260 with the limiting constraint of the turbine fan blade at the bottom of the transmission assembly 270, and the guiding of the outside air by the slots at the top and bottom of the limiting inner ring 260, the connecting pipe 250 and the beam pipe 240 can simultaneously blow air into the first base 110 and the second base 120. Example

[0034] Combination Figures 6-8 As shown, based on Embodiment 1, the main clamp 311 has outwardly protruding rectangular pads on both sides, and horizontally placed screws are provided on the rectangular pads on both sides of the main clamp 311. The auxiliary clamp 312 has rectangular pads on both sides, and threaded recesses adapted to the screws are provided in the middle of the rectangular pads on both sides of the auxiliary clamp 312. The connecting hose 330 and the protective outer tube 341 are both composed of insulating hoses and corrugated end tubes installed at both ends of the insulating hoses.

[0035] By utilizing the matching constraint of the screws on the rectangular pads on both sides of the main clamp 311 and the threaded recesses in the rectangular pads on both sides of the auxiliary clamp 312, and combined with the limiting constraint of the screw end penetrating to the outer side of the rectangular pad by the nut 313, and by setting symmetrically distributed corrugated end tubes at both ends of the connecting hose 330 and the protective outer tube 341, and by combining the limiting and wrapping of the conductor 350 by the internal cavity of the connecting hose 330 and the protective outer tube 341, the conductor 350 can be effectively isolated from the external environment during power transmission. This ensures that the main clamp 311 and the auxiliary clamp 312 can maintain sufficient sealing after assembly.

[0036] The working principle and usage process of this invention are as follows: The operator needs to pre-fill the inside of the two liquid collecting network pipes 150 with heat-absorbing condensate. Then, the two liquid collecting network pipes 150 are connected to the inner cavities of the first base 110 and the second base 120 respectively via vertical rods at their tops. At this time, the two liquid collecting network pipes 150 are suspended in the middle of the inner cavities of the first base 110 and the second base 120 respectively. Next, the top end of the connecting pipe 250 is connected to one side of the first base 110, and then the beam pipe 240 is connected to one side of the second base 120. Then, the blower housing 220 is installed at two adjacent ends of the beam pipe 240 and the connecting pipe 250. Next, the transmission assembly 270 is installed inside the blower housing 220. At this time, the turbine blades at the bottom of the transmission assembly 270 will be fitted and clamped in the cylindrical groove inside the limiting inner ring 260. The turbine blades at the bottom of the transmission assembly 270 will be located in the middle of the air duct 230, the connecting pipe 250, and the beam pipe 240. At this time, the air guided and drawn in through the connecting pipe 250 and the beam pipe 240 will pass through the vortex at the bottom of the transmission assembly 270. The upward airflow from the fan blades rapidly conducts and dissipates heat from the outside of the conductor 350, ensuring that the sealed conductor 350 can maintain a constant temperature under the sealing constraint of the connecting hose 330. Then, the nut 313 is used to movably clamp the main clamp 311 and the auxiliary clamp 312 onto the wiring terminals at the top of the first base 110 and the second base 120. At this point, the main clamp 311, the auxiliary clamp 312, and the connecting hose 330 are effectively assembled to bind the conductor after connection. The main clamp 311 and the auxiliary clamp 312, which are in a sealed state, and the connecting hose 330 are connected to the clamping ring 130. Thus, the inner cavity of the first base 110 and the second base 120 will achieve directional airflow when the matching packaging assembly 310 and the connecting hose 330 are assembled. This can effectively ensure that the wiring on the shut-off device can maintain a constant temperature during long-term use, thereby avoiding the problem of continuous heating of the wiring caused by the rise in ambient temperature and the heat generated after the current flows through the wiring.

[0037] Although embodiments of the invention have been shown and described, those skilled in the art will understand that various changes, modifications, substitutions and alterations can be made to these embodiments without departing from the principles and spirit of the invention, the scope of which is defined by the claims and their equivalents.

Claims

1. A component-level fast shutdown system transmitter, characterized in that, It includes a heat dissipation mechanism (100), an air venting mechanism (200), and a sealing mechanism (300); The heat dissipation mechanism (100) includes a first base (110) and a second base (120) placed vertically, two sets of tie-in rings (130) installed on the top of the first base (110) and the second base (120), a top plate (140) installed in the circular groove on the top of the first base (110) and the second base (120), and two liquid collection network pipes (150) suspended in the inner cavity of the first base (110) and the second base (120). Both the first base (110) and the second base (120) have elliptical cavities inside, and the top surfaces of the cavities of the first base (110) and the second base (120) have cylindrical holes adapted to constrain the top guide rod of the liquid collection network tube (150); The air exhaust mechanism (200) is installed on the heat exhaust mechanism (100) and includes a connecting pipe (250) installed outside the first base (110), a blower box (220) installed at the outer end of the connecting pipe (250), two positioning parts (210) installed outside the blower box (220), a duct (230) installed on the outer side of the blower box (220), a beam pipe (240) connected to the outside of the blower box (220), and then the beam pipe (240) is connected to the side of the second base (120), a limiting inner ring (260) installed inside the blower box (220), and a transmission assembly (270) installed in the middle of the inner cavity of the blower box (220). The blower housing (220) has two cylindrical cavities inside, and the turbine fan blades at the bottom of the transmission assembly (270) are adapted to penetrate into the cylindrical cavity at the bottom of the blower housing (220). The sealing mechanism (300) is mounted on the heat dissipation mechanism (100) and includes a matching encapsulation assembly (310) that is movably clamped outside the top wiring terminals of the first base (110) and the second base (120), an air tube (320) installed between two adjacent matching encapsulation assemblies (310), a connecting hose (330) installed on one matching encapsulation assembly (310), a tap assembly (340) connected to the other matching encapsulation assembly (310), and a wire (350) located in the connecting hose (330) and the tap assembly (340). The matching and encapsulation assembly (310) includes a main clamp (311) and a secondary clamp (312) adapted to both sides of the terminal head, and a nut (313) threadedly connected to the inner screw of the main clamp (311). The tap assembly (340) includes a semi-circular protective outer tube (341), a side main buckle (342) installed on the outer end of the protective outer tube (341), and a side auxiliary buckle (343) movably installed outside the side main buckle (342). The limiting inner ring (260) is positioned to separate the cylindrical recessed space inside the blower housing (220). The air duct (230) installed on one side of the blower housing (220) can draw the filtered air into the blower housing (220). The connecting pipe (250) and the beam pipe (240) simultaneously blow air into the first base (110) and the second base (120). Hollow recessed holes are opened inside the first base (110) and the second base (120). A liquid collection network pipe (150) filled with condensate is suspended in the recessed holes inside the first base (110) and the second base (120). The inner cavity of the first base (110) and the second base (120) is in sealed communication with the inner space of the matching and encapsulation assembly (310). The connecting hose (330), tap assembly (340) and matching encapsulation assembly (310) together form a sealed enclosure for the outside of multiple conductors (350). When the conductors (350) continuously transmit current, the matching encapsulation assembly (310), connecting hose (330) and tap assembly (340) in a sealed state can guide the outside air to blow heat energy onto the conductors (350) in a directional manner, so that the conductors (350) maintain a constant temperature during continuous operation.

2. The component-level fast shutdown system launcher according to claim 1, characterized in that, The buckle (130) is made of insulating silicone material, and the buckle (130) has an inwardly recessed annular groove on its exterior.

3. The component-level fast shutdown system transmitter according to claim 1, characterized in that, The top plate (140) is made of stainless steel, and two rectangular ends are provided on both sides of the top plate (140) to fit into the circular slots on the top of the first base (110) or the second base (120).

4. The component-level fast shutdown system launcher according to claim 1, characterized in that, The inner limiting ring (260) has a circular cavity inside, and the top and bottom of the inner limiting ring (260) are provided with symmetrically distributed circular slots.

5. The component-level fast shutdown system transmitter according to claim 1, characterized in that, The main clamp (311) has outwardly protruding rectangular pads on both sides, and horizontally placed screws are provided on the rectangular pads on both sides of the main clamp (311).

6. The component-level fast shutdown system transmitter according to claim 1, characterized in that, The auxiliary clamp (312) has rectangular pads on both sides, and the rectangular pads on both sides of the auxiliary clamp (312) have threaded recesses adapted to the screw in the middle.

7. The component-level fast shutdown system transmitter according to claim 1, characterized in that, Both the connecting hose (330) and the protective outer tube (341) are composed of an insulating hose and corrugated end tubes installed at both ends of the insulating hose.

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