A method for monitoring temperature in a transmitter cabinet and its auxiliary device

Abstract

This invention relates to the technical field of transmitter cabinets, and more particularly to a method for temperature monitoring of a transmitter cabinet and its auxiliary device. The method includes a cabinet body; a moving assembly comprising a receiving component and a lifting component, wherein the receiving component is disposed on the cabinet body and the lifting component is disposed on the receiving component; and a replacement assembly comprising a shaking component, a striking component, and a clamping component, wherein the shaking component is disposed on the lifting component, the striking component is disposed on the receiving component, and the clamping component is disposed on the shaking component. The temperature monitoring method enables real-time monitoring of the temperature inside the transmitter cabinet, ensuring that the temperature remains within a safe range, thereby preventing equipment damage or performance degradation due to low temperatures. The moving and disassembly assemblies allow for easy removal and installation of the temperature monitoring remote transmission module from the cabinet, greatly simplifying maintenance and replacement operations. During the lifting of the temperature monitoring remote transmission module, dust adhering to the module can be removed, ensuring monitoring accuracy.

Description

Technical Field

[0001] This invention relates to the technical field of transmitter cabinets, and more particularly to a method for monitoring temperature in a transmitter cabinet and its auxiliary devices. Background Technology

[0002] The transmitter cabinet houses multiple transmitters used to measure parameters such as steam and water pressure and level. An electric heating tape is installed inside the cabinet to prevent the transmitters from freezing and damaging the steam and water if the cabinet temperature drops below zero degrees Celsius in winter. However, the lack of intelligent control can lead to energy waste and unnecessary heating. Furthermore, regular inspections of the transmitter cabinet temperature are required, wasting significant time and manpower. Long-term monitoring equipment also needs periodic replacement, and dust accumulation can affect monitoring accuracy, further increasing maintenance costs. Summary of the Invention

[0003] The purpose of this section is to outline some aspects of embodiments of the present invention and to briefly describe some preferred embodiments. Simplifications or omissions may be made in this section, as well as in the abstract and title of this application, to avoid obscuring the purpose of these documents; however, such simplifications or omissions should not be construed as limiting the scope of the invention.

[0004] Given the lack of intelligent control in existing systems, which may lead to energy waste and unnecessary heating, and the need for personnel to regularly inspect whether the transmitter cabinet temperature is normal, which wastes a lot of time and manpower, and the need for long-term operation of monitoring equipment to be replaced regularly, and the problem that dust accumulation will affect the monitoring accuracy, this invention is proposed.

[0005] Therefore, the purpose of this invention is to provide a method for monitoring the temperature of a transmitter cabinet.

[0006] To solve the above-mentioned technical problems, the present invention provides the following technical solution, including the following steps:

[0007] First, install the temperature monitoring remote transmission module on the transmitter cabinet using auxiliary components;

[0008] The temperature inside the transmitter cabinet is then monitored via a remote temperature monitoring module.

[0009] An alarm will be issued when the monitored temperature is lower than the specified temperature setting, and then the electric heating tape will be activated to start working.

[0010] When the transmitter cabinet is opened for inspection after a period of use, the temperature monitoring remote transmission module should be replaced using the auxiliary components.

[0011] As a preferred embodiment of the transmitter cabinet temperature monitoring method of the present invention, the temperature monitoring remote transmission module includes a temperature sensor component, a temperature measurement component, and a remote alarm component.

[0012] As a preferred embodiment of the transmitter cabinet temperature monitoring method described in this invention, the temperature sensor component is used to convert the temperature signal into an electrical signal, the temperature measurement component is used to measure the resistance value of the thermal resistor and further convert it into a temperature value, and the remote alarm component is used to transmit the temperature signal collected by the microcontroller to a mobile phone for real-time display and alarm.

[0013] An auxiliary device, comprising the aforementioned auxiliary components, including,

[0014] Cabinet;

[0015] A movable component includes a receiving element and a lifting element, the receiving element being disposed on the cabinet body, and the lifting element being disposed on the receiving element; and,

[0016] The replacement components include a shaking component, a striking component, and a clamping component, wherein the shaking component is disposed on the lifting component, the striking component is disposed on the receiving component, and the clamping component is disposed on the shaking component.

[0017] In a preferred embodiment of the auxiliary device described in this invention, the accommodating component includes a mounting plate, a accommodating shell, a moving groove, and a rising groove. The mounting plate is disposed on the cabinet, the accommodating shell is disposed on the mounting plate, the moving groove is disposed on the accommodating shell, and the rising groove is disposed on the accommodating shell.

[0018] In a preferred embodiment of the auxiliary device described in this invention, the lifting member includes a side baffle, a compression spring, a moving rod, and a pushing rod. The side baffle is disposed on the mounting plate, the compression spring is disposed on the side baffle, the moving rod is disposed on the compression spring, and the pushing rod is disposed on the moving rod.

[0019] In a preferred embodiment of the auxiliary device described in this invention, the lifting member includes a lifting block, a lifting rod, and a lifting plate. The lifting block is disposed on the moving rod, the lifting rod is disposed on the lifting block, and the lifting plate is disposed on the lifting rod.

[0020] In a preferred embodiment of the auxiliary device described in this invention, the swaying component includes a swaying bead, a connecting block, a swaying rod, a swaying block, a follower column, a fixed column, and a conversion block. The swaying bead is disposed on the lifting plate, the connecting block is disposed on the swaying bead, the swaying rod is disposed on the connecting block, the swaying block is disposed on the swaying rod, the follower column is disposed on the swaying block, the fixed column is disposed on the follower column, and the conversion block is disposed on the follower column.

[0021] In a preferred embodiment of the auxiliary device described in this invention, the striking component includes a support column, a retraction groove, a retraction spring, a striking post, and a pushing block. The support column is disposed on the housing, the retraction groove is disposed on the support column, the retraction spring is disposed on the retraction groove, the striking post is disposed on the retraction spring, and the pushing block is disposed on the support column.

[0022] In a preferred embodiment of the auxiliary device described in this invention, the clamping member includes a fixed plate, a fixed spring, a clamping plate, a side groove, and a pushing groove. The fixed plate is disposed on the follower column, the fixed spring is disposed on the fixed plate, the clamping plate is disposed on the fixed spring, the side groove is disposed on the fixed plate, and the pushing groove is disposed on the fixed plate.

[0023] The beneficial effects of this invention are as follows: the temperature monitoring method enables real-time monitoring of the temperature inside the transmitter cabinet, ensuring that the temperature is always kept within a safe range, thereby avoiding equipment damage or performance degradation caused by low temperature. Furthermore, automated temperature monitoring reduces reliance on manual inspections, which can significantly save human resources and time and improve overall work efficiency.

[0024] The auxiliary device allows for easy removal and installation of the temperature monitoring remote transmission module from the cabinet, greatly simplifying maintenance and replacement operations. During the lifting of the temperature monitoring remote transmission module, dust adhering to the module can be removed simultaneously, ensuring monitoring accuracy and extending the service life of the equipment. Attached Figure Description

[0025] To more clearly illustrate the technical solutions of the embodiments of the present invention, the accompanying drawings used in the description of the embodiments will be briefly introduced below. Obviously, the accompanying drawings described below are only some embodiments of the present invention. For those skilled in the art, other drawings can be obtained based on these drawings without creative effort.

[0026] Figure 1 This is a schematic diagram of the overall structure of a transmitter cabinet temperature monitoring method and its auxiliary device according to the present invention.

[0027] Figure 2 This is a schematic diagram illustrating a further structural representation of a transmitter cabinet temperature monitoring method and its auxiliary device according to the present invention.

[0028] Figure 3 This is a schematic diagram of the internal structure of a transmitter cabinet temperature monitoring method and its auxiliary device according to the present invention.

[0029] Figure 4 This is a schematic diagram of the moving component structure of a transmitter cabinet temperature monitoring method and its auxiliary device according to the present invention.

[0030] Figure 5 This is a schematic diagram of the moving component of a transmitter cabinet temperature monitoring method and its auxiliary device according to the present invention.

[0031] Figure 6 This is a schematic diagram of the connection structure of the moving component and the replacement component of the transmitter cabinet temperature monitoring method and its auxiliary device according to the present invention.

[0032] Figure 7 This is a schematic diagram of the connection structure of the shaking and lifting components of a transmitter cabinet temperature monitoring method and its auxiliary device according to the present invention.

[0033] Figure 8 This is a cross-sectional view of the swaying component of a transmitter cabinet temperature monitoring method and its auxiliary device according to the present invention.

[0034] Figure 9 This is a schematic diagram of the connection structure of the striking and clamping components of a transmitter cabinet temperature monitoring method and its auxiliary device according to the present invention.

[0035] Figure 10 This is a schematic diagram of the replacement component structure of a transmitter cabinet temperature monitoring method and its auxiliary device according to the present invention. Detailed Implementation

[0036] To make the above-mentioned objects, features and advantages of the present invention more apparent and understandable, the specific embodiments of the present invention will be described in detail below with reference to the accompanying drawings.

[0037] Many specific details are set forth in the following description in order to provide a full understanding of the invention. However, the invention may also be practiced in other ways different from those described herein, and those skilled in the art can make similar extensions without departing from the spirit of the invention. Therefore, the invention is not limited to the specific embodiments disclosed below.

[0038] Secondly, the term "an 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 phrase "in one embodiment" appearing in different places in this specification does not necessarily refer to the same embodiment, nor is it a single embodiment or an embodiment selectively excluded from other embodiments.

[0039] Secondly, the present invention is described in detail with reference to the schematic diagrams. When detailing the embodiments of the present invention, for ease of explanation, the cross-sectional views illustrating the device structure may be partially enlarged, not according to the usual scale. Furthermore, the schematic diagrams are merely examples and should not limit the scope of protection of the present invention. In addition, actual fabrication should include three-dimensional spatial dimensions of length, width, and depth.

[0040] Example 1

[0041] As a first embodiment of the present invention, a method for monitoring the temperature of a transmitter cabinet is provided, comprising the following steps:

[0042] S1. First, install the temperature monitoring remote transmission module on the transmitter cabinet using auxiliary component M. Install it on the side of the transmitter cabinet so that users can operate it conveniently.

[0043] S2. Then, the temperature inside the transmitter cabinet is monitored through the temperature monitoring remote transmission module.

[0044] The temperature monitoring remote transmission module includes a temperature sensor assembly, a temperature measurement assembly, and a remote alarm assembly.

[0045] The temperature sensor assembly is used to convert temperature signals into electrical signals. It includes a resistance temperature detector (RTD), leads, and a retaining sleeve. The resistance of the RTD changes with temperature, exhibiting a fixed functional relationship. The temperature value can be determined by measuring the resistance of the RTD.

[0046] The temperature measurement component is used to measure the resistance value of the RTD and further convert it into a temperature value. It includes a precision voltage source, an unbalanced bridge circuit, and a microcontroller. The precision voltage source generates a voltage of 15,000V with an accuracy of 0.01% to power the unbalanced bridge circuit. The unbalanced bridge circuit is used to convert the resistance change of the RTD into a voltage change. The microcontroller is used to acquire the voltage change and convert it into a digital signal.

[0047] The remote alarm component is used to transmit temperature signals collected by a microcontroller to a mobile phone for real-time display and alarm. It includes an interface component and a wireless transmission component. The interface component is used to transmit the temperature signals collected by the microcontroller to the wireless transmission component. The wireless transmission component connects to the Internet of Things (IoT) via a SIM card and sends the temperature signals to the registered IoT device.

[0048] S3. Next, when the monitored temperature is lower than the specified temperature, an alarm will be issued, and then the electric heating tape will be activated to start working.

[0049] S4. Finally, when the transmitter cabinet is opened for replacement after a period of use, the temperature monitoring remote transmission module can be easily picked up and replaced using the auxiliary component M. The transmitter cabinet is then closed to complete the fixing of the temperature monitoring remote transmission module.

[0050] In summary, the transmitter cabinet temperature monitoring method provided in this embodiment improves the safety performance of the entire transmitter cabinet by detecting potential faults or dangerous situations in advance through real-time monitoring and early warning functions. The intelligent heat tracing control dynamically adjusts the working status of the electric heat tracing tape according to actual needs, effectively avoiding unnecessary energy consumption and achieving the energy-saving goal.

[0051] Example 2

[0052] Reference Figure 1 - Figure 5 This is the second embodiment of the present invention. This embodiment differs from the first embodiment in that: the auxiliary component M includes a moving component 200, which includes a accommodating component 201 and a lifting component 202. The accommodating component 201 is disposed on the cabinet 100 and acts on the cabinet 100. The lifting component 202 is disposed on the accommodating component 201 and acts on the accommodating component 201. Through the interaction between the accommodating component 201 and the lifting component 202, the entire device can move on the cabinet 100, and the moving direction of the moving component 200 is adjusted as the cabinet 100 door is opened and closed.

[0053] Specifically, the accommodating component 201 includes a mounting plate 201a, a accommodating shell 201b, a moving groove 201c, and a rising groove 201d. The mounting plate 201a is mounted on the cabinet 100 and is fixedly connected to the cabinet 100 by bolts. The mounting plate 201a is positioned near the door opening to facilitate the replacement of components within the temperature monitoring remote transmission module. With the temperature monitoring remote transmission module positioned near the cabinet door along with the mounting plate 201a, the temperature monitoring data can be adjusted to ensure that the mounting plate 201a can monitor the temperature inside the cabinet 100. The accommodating shell 201b is mounted on the mounting plate 201a and is fixedly connected to the mounting plate 201a. On plate 201a, the three components of the temperature monitoring remote transmission module can be installed inside the housing 201b. The moving slot 201c is set on the housing 201b and is located at the bottom of the housing 201b, allowing objects to move at the bottom of the housing 201b. The rising slot 201d is set on the housing 201b and is located above the moving slot 201c. The moving slot 201c and the rising slot 201d are connected. The rising slot 201d provides three equally spaced slots on the upper side of the housing 201b, facilitating the operation of the three components of the temperature monitoring remote transmission module.

[0054] Further, the lifting member 202 includes a side baffle 202a, a compression spring 202b, a moving rod 202c, and a pushing rod 202d. The side baffle 202a is disposed on the mounting plate 201a, and the side baffle 202a is fixedly connected to one side of the mounting plate 201a. There is a certain distance between the side baffle 202a and the accommodating shell 201b. The compression spring 202b is disposed on the side baffle 202a. One side of the compression spring 202b is fixedly connected to the side baffle 202a. The compression spring 202b can move under force on the side baffle 202a. The moving rod 202c is disposed on the compression spring 202b. One side of the moving rod 202c is fixedly connected to the other side of the compression spring 202b. The moving rod 202c moves through the accommodating shell 201b, and the moving rod 202c moves within the moving groove 201c. There are two moving rods 202c in one accommodating shell 201b, which are respectively disposed on both sides of the accommodating shell 201b. The pushing rod 202d is disposed on the moving rod 202c. The pushing rod 202d is fixedly connected to the other side of the moving rod 202c. And the pushing rod 202d is a structure after a "T" shape is rotated 90 degrees. The "—" part is for connecting the two moving rods 202c, so that the two moving rods 202c can move synchronously. The "|" part extends out of the cabinet body 100 when not being squeezed. At this time, the cabinet door of the cabinet body 100 is open. When the cabinet door is closed, it will squeeze the pushing rod 202d to move, which will also带动 the moving rod 202c to move. At this time, it will cause the compression spring 202b to generate a squeezing force. When the cabinet door of the cabinet body 100 is opened, the squeezing force received by the compression spring 202b will generate a reverse force, causing the moving rod 202c and the pushing rod 202d to move in the reverse direction;

[0055] The lifting component 202 includes a lifting block 202e, a lifting rod 202f, and a lifting plate 202g. The lifting block 202e is mounted on the moving rod 202c and is fixedly connected to the moving rod 202c. Each moving rod 202c has a corresponding moving slot 201c with a lifting block 202e. The lifting block 202e has a semi-circular structure and its shape is similar to a snail shell, with its height gradually decreasing. The lifting block 202e itself has a height difference. The structure 2e consists of two descending curved surfaces connected to three recesses that can support objects. The lowest recess is where the moving rod 202c is biased towards the cabinet door of the cabinet 100. The highest and lowest recesses are the final stopping positions of the objects when the moving rod 202c moves to its two final positions. This is to ensure that the objects on the lifting block 202e can stop stably when no further movement is required. The lifting rod 202f is set on the lifting block 202e. Lifting rods 202f are movably connected to lifting blocks 202e. There are three lifting rods 202f, each positioned in an ascending groove 201d. One lifting rod 202f is located on each of the two horizontally positioned lifting blocks 202e. Each lifting rod 202f is cylindrical and can move up and down easily on the lifting blocks 202e. Lifting plates 202g are mounted on the lifting rods 202f and are rotatably connected to them. Each lifting... Each rod 202f is equipped with a lifting plate 202g, and the lifting plate 202g can move within the rising groove 201d. As the moving rod 202c moves, it can drive the lifting block 202e to move. Because the lifting rod 202f moves on the lifting block 202e, and the lifting rod 202f can rotate on the lifting plate 202g, the lifting rod 202f drives the lifting plate 202g to move upward or downward as it moves from one side of the lifting block 202e to the other side.

[0056] During operation, when the cabinet door 100 is closed, the push rod 202d and the moving rod 202c will be pushed to move towards the side baffle 202a. Under the action of the side baffle 202a, the compression spring 202b will be compressed and accumulate a certain pushing force. At the same time, the lifting block 202e on the moving rod 202c causes the lifting plate 202g to move downward under the connection of the lifting rod 202f.

[0057] Conversely, when the cabinet door of cabinet 100 is opened, due to the pushing force accumulated by the compression spring 202b, as the cabinet door opens, the push rod 202d and the moving rod 202c will move in the direction in which the cabinet door of cabinet 100 opens. At this time, the lifting block 202e on the moving rod 202c will cause the lifting plate 202g to move upward under the connection of the lifting rod 202f.

[0058] Example 3

[0059] Reference Figure 1 - Figure 10 This is the third embodiment of the present invention. This embodiment differs from the second embodiment in that the auxiliary component M includes a replacement assembly 300, comprising a shaking component 301, a striking component 302, and a clamping component 303. The shaking component 301 is disposed on the lifting component 202 and acts on the lifting component 202. The striking component 302 is disposed on the receiving component 201 and acts on the receiving component 201. The clamping component 303 is disposed on the shaking component 301 and acts on the shaking component 301. Through the cooperation between the shaking component 301, the striking component 302, and the clamping component 303 and the moving assembly 200, the entire device can be used to install and easily disassemble the various components of the temperature monitoring remote transmission module, and to clean the dust accumulated on the various components of the temperature monitoring remote transmission module, as the moving assembly 200 moves up and down.

[0060] Specifically, the rocking component 301 includes a rocking bead 301a, a connecting block 301b, a rocking rod 301c, a rocking block 301d, a follower column 301e, a fixed column 301f, and a conversion block 301g. The rocking bead 301a is disposed on the lifting plate 202g and is movably connected to the lifting plate 202g. Each lifting plate 202g has one rocking bead 301a, which is located in the middle of the lifting plate 202g. The rocking bead 301a is embedded in the lifting plate 202g and can roll on the lifting plate 202g. The connecting block 301b is disposed on the rocking bead 301a and is fixedly connected to one side of the rocking bead 301a. As the rocking bead 301a rolls on the lifting plate 202g... The connecting block 301b is deflected, and there is a certain gap between the connecting block 301b and the lifting plate 202g. The swing rod 301c is set on the connecting block 301b and is fixedly connected to the connecting block 301b. The connecting block 301b is located in the middle of the swing rod 301c. The two sides of the swing rod 301c are cylindrical structures. This makes the swing bead 301a, the connecting block 301b and the swing rod 301c form a structure with the shape and effect of a seesaw. When the force on both sides of the swing rod 301c is uneven, the swing rod 301c will sway on both sides under the action of the swing bead 301a. The swaying block 301d is set on the swing rod 301c. The swaying block 301d is a trapezoidal structure and the swaying block 301... A through slot is provided in the middle of the swing rod 301c. A rocking block 301d is provided on both sides of the swing rod 301c. The cylindrical structures on both sides of the swing rod 301c are set in the slots within the rocking blocks 301d. Thus, the swinging of the swing rod 301c causes the rocking blocks 301d to swing, and vice versa. There is a certain distance between the rocking blocks 301d and the lifting plate 202g. Follower columns 301e are set on the rocking blocks 301d. Each rocking block 301d has a follower column 301e on both sides. Because the rocking block 301d has a trapezoidal structure, its two sides have inclined surfaces with a certain degree of inclination. The inclined surfaces of the follower column 301e are in contact with each other, so the rocking block 301d, the swing rod 301c and the follower column 301e can also form a structure with the shape and effect of a seesaw. When the follower columns 301e on both sides of a rocking block 301d are subjected to different forces, a certain degree of tilting and rocking will occur. The fixed column 301f is set on the follower column 301e and is movably connected to the follower column 301e. The fixed column 301f is fixedly connected to the lifting plate 202g, and each follower column 301e is surrounded by a fixed column 301f on three sides. Because the follower column 301e is in contact with the inclined surface of the rocking block 301d, the follower column 301e can move up and down on the fixed column 301f due to uneven force.

[0061] The conversion block 301g is mounted on the follower column 301e and is fixedly connected to it. Each follower column 301e has several conversion blocks 301g. Each conversion block 301g is a quarter-cylindrical structure with two horizontal surfaces. One surface is fixedly connected to the follower column 301e, and the other is offset towards the fixed column 301f. This design causes a slow compression followed by a sudden release of force when an object moves off the conversion block 301g. Since a lifting plate 202g is provided with four follower columns 301e, which are respectively located at the four corners of the lifting plate 202g, and the conversion blocks 301g on the four follower columns 301e are different from those on the horizontal or vertical follower columns 301e, this is to ensure that when objects pass through the conversion blocks 301g at the same time, the entire follower column 301e will be subjected to different forces, thus causing swaying and swinging.

[0062] Furthermore, the striking component 302 includes a support post 302a, a retraction groove 302b, a retraction spring 302c, a striking post 302d, and a pushing block 302e. The support post 302a is disposed on the receiving shell 201b and is fixedly connected to the receiving shell 201b. The number of support posts 302a is the same as the number of follower posts 301e, with each follower post 301e corresponding to one support post 302a. The retraction groove 302a... The support column 302b is located on the support column 302a, and the retraction groove 302b is formed on the support column 302a, providing a certain space within the support column 302a. The retraction spring 302c is located on the retraction groove 302b and is fixedly connected to it. The striking column 302d is located on the retraction spring 302c and is fixedly connected to it. A portion of the striking column 302d is circular. The other part of the column is composed of a spherical structure formed by the gradual reduction of the cylinder. The spherical part of the striking column 302d is used to contact the conversion block 301g. When the striking column 302d moves as the conversion block 301g gradually descends with the lifting plate 202g, the striking column 302d will first move back along the arc surface of the conversion block 301g. When it moves between the two conversion blocks 301g, it will suddenly release the retraction force. This released retraction force will cause the striking column 302d to strike the follower column 301e. Since the position of the conversion block 301g on each follower column 301e is different, the follower columns 301e are not struck at the same time. This causes the seesaw composed of the swing bead 301a, the connecting block 301b and the swing rod 301c to shake with the seesaw composed of the rocking block 301d, the swing rod 301c and the follower column 301e.

[0063] The push block 302e is mounted on the support column 302a and is fixedly connected to the support column 302a. The number of push blocks 302e is the same as the number of support columns 302a. The push block 302e is a structure with different heights and inclinations. The push block 302e is composed of three layers of different heights, and the curvature of the three layers is different. The overall push block 302e is similar to an unfoldable mechanical claw. Its internal curvature can be regarded as a semi-circular curvature. However, from top to bottom, it will cause the contacting object to deflect to a certain extent. The four push blocks 302e on the four support columns 302a form an enclosing bracket shape, which can create a squeezing and pushing motion on the contacting object.

[0064] Furthermore, the clamping member 303 includes a fixed plate 303a, a fixed spring 303b, a clamping plate 303c, a side groove 303d, and a pushing groove 303e. The fixed plate 303a is disposed on the follower column 301e and is fixedly connected to the follower column 301e. The fixed plate 303a is a rectangular plate with a certain internal accommodating space, which is smaller than the lifting plate 202g. The fixed spring 303b is disposed on the fixed plate 303a and is fixedly connected to the fixed plate 303a. Each side of plate 303a is provided with a fixing spring 303b, and a clamping plate 303c is disposed on the fixing spring 303b. The clamping plate 303c is fixedly connected to the fixing spring 303b and moves on the fixing plate 303a. Each fixing spring 303b is provided with a clamping plate 303c. The outer two sides of the clamping plate 303c are arc surfaces, and the internal structure is the same as the external structure of the three components of the temperature monitoring remote transmission module. The three components of the temperature monitoring remote transmission module can be constructed into a rectangular block structure, which facilitates its installation and fixation. Side grooves 303d are provided on the fixed plate 303a. These side grooves are formed on the fixed plate 303a, creating four slots on both sides of the fixed plate 303a. Push grooves 303e are provided on the fixed plate 303a. The push grooves 303e are formed on the bottom of the fixed plate 303a, allowing push block 302e to pass through. This allows push block 302e to push clamping plate 303c when it contacts it. When the lowest point of the pushing block 302e contacts the clamping plate 303c, the two clamping plates 303c will move relative to each other, clamping and fixing the various components of the temperature monitoring remote transmission module. At this time, the fixing spring 303b will also be stretched. When the lifting plate 202g moves upward, the pushing block 302e and the clamping plate 303c will gradually disengage, and the clamping plate 303c will also move towards both sides of the fixing plate 303a, thus releasing the clamping and fixing of the three components of the temperature monitoring remote transmission module.

[0065] The remaining structure is the same as that in Example 2.

[0066] Operating steps: Opening or closing the cabinet door 100 will cause the lifting plate 202g to move, which will cause the striking column 302d in the support column 302a on the housing 201b to strike the follower column 301e through the conversion block 301g. At this time, the three components of the temperature monitoring remote transmission module, which are fixed in the fixing plate 303a on the follower column 301e, will shake in the seesaw composed of the swing ball 301a, connecting block 301b and swing rod 301c and the rocking block 301d, swing rod 301c and follower column 301e. The two seesaws will shake, causing the dust on the surface of the three components of the temperature monitoring remote transmission module to be knocked off, thus completing the dust removal on the three components of the temperature monitoring remote transmission module.

[0067] At the same time, as the pushing block 302e on the support column 302a moves the clamping plate 303c on the fixed plate 303a during the movement of the lifting plate 202g, the pushing block 302e will make contact with or gradually disengage from the clamping plate 303c. This will cause the tension fixing spring 303b to move the clamping plate 303c on the fixed plate 303a until the clamping plate 303c completes the clamping and fixing of the three components of the temperature monitoring remote transmission module, or the fixing spring 303b will retract and cause the clamping plate 303c to move to both sides of the fixed plate 303a, releasing the clamping and fixing of the three components of the temperature monitoring remote transmission module.

[0068] At this point, you only need to remove the old temperature monitoring remote transmission module by hand. After the new temperature monitoring remote transmission module is placed in and the cabinet door 100 is closed, the moving column can move and drive the lifting plate 202g to move down. This allows the pushing block 302e to push the clamping plate 303c to clamp and fix the new temperature monitoring remote transmission module, thus completing the replacement of the temperature monitoring remote transmission module. This process greatly simplifies maintenance and replacement operations.

[0069] It should be noted that the above embodiments are only used to illustrate the technical solutions of the present invention and are not intended to limit it. Although the present invention has been described in detail with reference to preferred embodiments, those skilled in the art should understand that modifications or equivalent substitutions can be made to the technical solutions of the present invention without departing from the spirit and scope of the technical solutions of the present invention, and all such modifications or substitutions should be covered within the scope of the claims of the present invention.

Claims

1. A transmitter cabinet temperature monitoring aid, characterized by: The utility model relates to a cabinet (100) and a mobile component (200) and a replacement component (300) are provided. The utility model relates to a cabinet (100) and a mobile component (200) and a replacement component (300) are provided. The utility model relates to a cabinet (100) and a mobile component (200) and a replacement component (300) are provided. The utility model relates to a cabinet (100) and a mobile component (200) and a replacement component (300) are provided. The utility model relates to a cabinet (100) and a mobile component (200) and a replacement component (300) are provided. The utility model relates to a cabinet (100) and a mobile component (200) and a replacement component (300) are provided. The utility model relates to a cabinet (100) and a mobile component (200) and a replacement component (300) are provided. The utility model relates to a cabinet (100) and a mobile component (200) and a replacement component (300) are provided. The utility model relates to a cabinet (100) and a mobile component (200) and a replacement component (300) are provided. The utility model relates to a cabinet (100) and a mobile component (200) and a replacement component (300) are provided. The utility model relates to a cabinet (100) and a mobile component (200) and a replacement component (300) are provided. The utility model relates to a cabinet (100) and a mobile component (200) and a replacement component (300) are provided. The utility model relates to a cabinet (100) and a mobile component (200) and a replacement component (300) are provided. The utility model relates to a cabinet (100) and a mobile component (200) and a replacement component (300) are provided. The utility model relates to a cabinet (100) and a mobile component (200) and a replacement component (300) are provided. The utility model relates to a cabinet (100) and a mobile component (200) and a replacement component (300) are provided. The utility model relates to a cabinet (100) and a mobile component (200) and a replacement component (300) are provided. The utility model relates to a cabinet (100) and a mobile component (200) and a replacement component (300) are provided. The utility model relates to a cabinet (100) and a mobile component (200) and a replacement component (300) are provided. The utility model relates to a cabinet (100) and a mobile component (200) and a replacement component (300) are provided. The utility model relates to a cabinet (100) and a mobile component (200) and a replacement component (300) are provided. The utility model relates to a cabinet (100) and a mobile component (200) and a replacement component (300) are provided. The utility model relates to a cabinet (100) and a mobile component (200) and a replacement component (300) are provided. The utility model relates to a cabinet (100) and a mobile component (200) and a replacement component (300) are provided. The utility model relates to a cabinet (100) and a mobile component (200) and a replacement component (300) are provided. The utility model relates to a cabinet (100) and a mobile component (200) and a replacement component (300) are provided. The utility model relates to a cabinet (100) and a mobile component (200) and a replacement component (300) are provided. The utility model relates to a cabinet (100) and a mobile component (200) and a replacement component (300) are provided. The utility model relates to a cabinet (100) and a mobile component (200) and a replacement component (300) are provided. The utility model relates to a cabinet (100) and a mobile component (200) and a replacement component (300) are provided. The utility model relates to a cabinet (100) and a mobile component (200) and a replacement component (300) are provided. The utility model relates to a cabinet (100) and a mobile component (200) and a replacement component (300) are provided. The utility model relates to a cabinet (100) and a mobile component (200) and a replacement component (300) are provided. The utility model relates to a cabinet (100) and a mobile component (200) and a replacement component (300) are provided. The utility model relates to a cabinet (100) and a mobile component (200) and a replacement component (300) are provided. The utility model relates to a cabinet (100) and a mobile component (200) and a replacement component (300) are provided. The utility model relates to a cabinet (100) and a mobile component (200) and a replacement component (300) are provided. The utility model relates to a cabinet (100) and a mobile component (200) and a replacement component (300) are provided. The utility model relates to a cabinet (100) and a mobile component (200) and a replacement component (300) are provided. The utility model relates to a cabinet (100) and a mobile component (200) and a replacement component (300) are provided. The utility model relates to a cabinet (100) and a mobile component (200) and a replacement component (300) are provided. The utility model relates to a cabinet (100) and a mobile component (200) and a replacement component (300) are provided. The utility model relates to a cabinet (100) and a mobile component (200) and a replacement component (300) are provided. The utility model relates to a cabinet (100) and a mobile component (200) and a replacement component (300) are provided. The utility model relates to a cabinet (100) and a mobile component (200) and a replacement component (300) are provided. The utility model relates to a cabinet (100) and a mobile component (200) and a replacement component (300) are provided. The utility model relates to a cabinet (100) and a mobile component (200) and a replacement component (300) are provided. The utility model relates to a cabinet (100) and a mobile component (200) and a replacement component (300) are provided. The utility model relates to a cabinet (100) and a mobile component (200) and a replacement component (300) are provided. The utility model relates to a cabinet (100) and a mobile component (200) and a replacement component (300) are provided. The utility model relates to a cabinet (100) and a mobile component (200) and a replacement component (300) are provided. The utility model relates to a cabinet (100) and a mobile component (200) and a replacement component (300) are provided. The utility model relates to a cabinet (100) and a mobile component (200) and a replacement component (300) are provided. The utility model relates to a cabinet (100) and a mobile component (200) and a replacement component (300) are provided. The utility model relates to a cabinet (100) and a mobile component (200) and a replacement component (300) are provided. The utility model relates to a cabinet (100) and a mobile component (200) and a replacement component (300) are provided. The utility model relates to a cabinet (100) and a mobile component (200) and a replacement component (300) are provided. The utility model relates to a cabinet (100) and a mobile component (200) and a replacement component (300) are provided. The utility model relates to a cabinet (100) and a mobile component (200) and a replacement component (300) are provided. The utility model relates to a cabinet (100) and a mobile component (200) and a replacement component (300) are provided. The utility model relates to a cabinet (100) and a mobile component (200) and a replacement component (300) are provided. The utility model relates to a cabinet (100) and a mobile component (200) and a replacement component (300) are provided. The utility model relates to a cabinet (100) and a mobile component (200) and a replacement component (300) are provided. The utility model relates to a cabinet (100) and a mobile component (200) and a replacement component (300) are provided. The utility model relates to a cabinet (100) and a mobile component (200) and a replacement component (300) are provided. The utility model relates to a cabinet (100) and a mobile component (200) and a replacement component (300) are provided. The utility model relates to a cabinet (100) and a mobile component (200) and a replacement component (300) are provided. The utility model relates to a cabinet (100) and a mobile component (200) and a replacement component (300) are provided. The utility model relates to a cabinet (100) and a mobile component (200) and a replacement component (300) are provided. The utility model relates to a cabinet (100) and a mobile component (200) and a replacement component (300) are provided. The utility model relates to a cabinet (100) and a mobile component (200) and a replacement component (300) are provided. The utility model relates to a cabinet (100) and a mobile component (200) and a replacement component (300) are provided. The utility model relates to a cabinet (100) and a mobile component (200) and a replacement component (300) are provided. The utility model relates to a cabinet (100) and a mobile component (200) and a replacement component (300) are provided. The utility model relates to a cabinet (100) and a mobile component (200) and a replacement component (300) are provided. The utility model relates to a cabinet (100) and a mobile component (200) and a replacement component (300 When the cabinet door of the cabinet (100) is closed, the push rod (202d) and the moving rod (202c) will be pushed to move towards the side baffle (202a), and under the action of the side baffle (202a), the compression spring (202b) will be compressed to accumulate a certain pushing force, and the lifting block (202e) on the moving rod (202c) will make the lifting plate (202g) move downward under the connection of the lifting rod (202f); Conversely, when the cabinet door of the cabinet (100) is opened, the push rod (202d) and the moving rod (202c) will move towards the direction in which the cabinet door of the cabinet (100) is opened due to the pushing force accumulated by the compression spring (202b), at this time, the lifting block (202e) on the moving rod (202c) will make the lifting plate (202g) move upward under the connection of the lifting rod (202f); Through opening or closing the cabinet door of the cabinet (100), the lifting plate (202g) will move, so that the knocking column (302d) in the supporting column (302a) on the containing shell (201b) knocks the follow-up column (301e) through the conversion block (301g), at this time, the three components of the temperature monitoring remote transmission module clamped and fixed in the fixed plate (303a) on the follow-up column (301e) will be shaken in the seesaw composed of the swing bead (301a), the connection block (301b) and the swing rod (301c) and the seesaw composed of the swing block (301d), the swing rod (301c) and the follow-up column (301e), so that the dust on the surface of the three components of the temperature monitoring remote transmission module is knocked off, and the dust on the three components of the temperature monitoring remote transmission module is processed; At the same time, due to the movement of the lifting plate (202g), the pushing block (302e) on the supporting column (302a) drives the clamping plate (303c) on the fixed plate (303a) to move, so that the pushing block (302e) will produce a movement process of contacting or gradually separating from the clamping plate (303c), so that the clamping plate (303c) moves on the fixed plate (303a), until the clamping plate (303c) completes the clamping and fixing of the three components of the temperature monitoring remote transmission module, or the fixed spring (303b) retracts to drive the clamping plate (303c) to move towards the two sides of the fixed plate (303a), and the clamping and fixing of the three components of the temperature monitoring remote transmission module is released.

2. The supplemental device of claim 1, wherein: The shaking piece (301) comprises a swing bead (301a), a connecting block (301b), a swing rod (301c), a shaking block (301d), a following column (301e), a fixed column (301f) and a conversion block (301g), the swing bead (301a) is arranged on the lifting plate (202g), the connecting block (301b) is arranged on the swing bead (301a), the swing rod (301c) is arranged on the connecting block (301b), the shaking block (301d) is arranged on the swing rod (301c), the following column (301e) is arranged on the shaking block (301d), the fixed column (301f) is arranged on the following column (301e), and the conversion block (301g) is arranged on the following column (301e).

3. The supplemental device of claim 2, wherein: The clamping piece (303) comprises a fixed plate (303a), a fixed spring (303b), a clamping plate (303c), a side slot (303d) and a pushing slot (303e), the fixed plate (303a) is arranged on the following column (301e), the fixed spring (303b) is arranged on the fixed plate (303a), the clamping plate (303c) is arranged on the fixed spring (303b), the side slot (303d) is arranged on the fixed plate (303a), and the pushing slot (303e) is arranged on the fixed plate (303a).

Images