An energy-saving management monitoring device

Abstract

The utility model discloses an energy -conserving management monitoring devices, including the drainage pipeline, the drainage pipeline junction is installed in the filter monitor, the filter monitor includes T type drainage pipe, T type drainage pipe is connected on a pair of drainage pipeline through bolt, a plurality of recessed insert groove is seted up on T type drainage pipe, the inside installation of T type drainage pipe has filter replacement piece, the utility model relates to the technical field of pipeline monitoring, and through the automation, intelligent design effectively balances safety and efficiency, reduces resource waste, and standardizes maintenance process, and the functional integration degree is high, breaks through the single function limitation of traditional device, and integrates real -time monitoring, time -sharing management, remote control, data analysis and decision support functions in an organic whole, and the operation convenience and stability are strong, adopt the design such as insert block and recessed insert groove positioning, convex extrusion cylinder piece fixed, and the filter replacement piece replacement process is standardized, and it is ensured that it is stable and operable.

Description

Technical Field

[0001] This utility model relates to the field of pipeline monitoring technology, specifically to an energy-saving management and monitoring device. Background Technology

[0002] Energy conservation management is increasingly urgent across numerous sectors, including power, industry, and commerce, but traditional models and technologies have many limitations. In the power industry, routine facility maintenance relies on manual operation, which is inefficient and poses safety hazards. In industrial and commercial settings, equipment operating under no-load or overload conditions leads to resource waste; for example, air conditioning systems consume excessive energy because their fixed temperature settings cannot adapt to real-time environments. Regarding filtration equipment, replacement cycles are unclear and rely on manual judgment, making them prone to clogging, reducing system efficiency, and incurring high maintenance costs. Existing energy-saving monitoring devices have limited functionality; for instance, early energy-saving sockets could only cut off standby power and could not be remotely managed or controlled on a time-sharing basis. Data integration and decision support are insufficient; traditional energy consumption monitoring systems can only collect data but lack analysis and utilization. Filter replacement procedures are not standardized, and improper operation can easily affect equipment performance. Therefore, this case study was developed to address these issues in depth. Utility Model Content

[0003] To achieve the above objectives, this utility model provides the following technical solution: an energy-saving management and monitoring device, comprising a drainage pipe, with a filter monitor installed at the connection of a pair of drainage pipes. The filter monitor includes a T-shaped drainage pipe, which is bolted to the pair of drainage pipes. The T-shaped drainage pipe has multiple concave insertion slots. A filter replacement block is installed on the inner side of the T-shaped drainage pipe, and multiple insertion blocks are installed on the outer side of the filter replacement block. The insertion blocks are movably inserted into the inner side of the concave insertion slots. A convex extrusion cylindrical block is installed on the T-shaped drainage pipe. The T-shaped drainage pipe and the convex... The extruded cylindrical block has threaded holes. Multiple fixing bolts are installed on the T-shaped drain pipe and the convex extruded cylindrical block. A semi-cylindrical block is installed on the filter replacement block. Drainage holes are opened on the semi-cylindrical block and the filter replacement block. Multiple arc-shaped drain blocks are installed inside the drain holes, and these arc-shaped drain blocks are cross-installed inside the drain holes. Insertion collection grooves are opened on the filter replacement block and the semi-cylindrical block. A separating drain plate is installed inside the insertion collection groove. A flared filter bag is installed inside the separating drain plate and the insertion collection groove. A monitoring system is installed on the T-shaped drain pipe.

[0004] Preferably, the filter replacement block is equipped with a pressure sensor, which is electrically connected to an external monitoring system.

[0005] Preferably, a flow monitor is installed on the T-shaped drainage tube, and the flow monitor is electrically connected to the monitoring system.

[0006] Preferably, the T-shaped drainage tube is equipped with a wireless communication module, and the pressure sensor and flow monitor are electrically connected to the wireless communication module.

[0007] Preferably, the monitoring system includes a data analysis unit that receives data from the pressure sensor and flow monitor transmitted by the wireless communication module.

[0008] Preferably, the monitoring system is equipped with a remote control interface, through which data can be exchanged with a remote control center. Beneficial effects

[0009] This utility model provides an energy-saving management and monitoring device. It offers the following advantages: This energy-saving management and monitoring device effectively balances safety and efficiency, reduces resource waste, and standardizes maintenance processes through automated and intelligent design; it boasts high functional integration, breaking through the limitations of traditional devices with single functions, integrating real-time monitoring, time-sharing management, remote control, data analysis, and decision support; it offers convenient operation and strong stability, employing designs such as insert blocks and concave insert slots for positioning and convex extrusion cylindrical blocks for fixing, standardizing the filter replacement block replacement process and ensuring its stability and operability; simultaneously, its modular and standardized design reduces maintenance costs and improves scalability. Following technological development trends, it integrates advanced technologies such as AI and machine vision, IoT and big data to achieve equipment status monitoring, fault prediction, and operational strategy optimization. It aligns with environmental protection and sustainable development requirements, contributing to energy conservation and emission reduction by optimizing filtration efficiency to reduce impurity emissions, extend equipment lifespan, reduce resource waste, and conform to environmental protection concepts such as green supply chains, closed-loop resource management, and energy conservation through human behavior. Attached Figure Description

[0010] Figure 1 This is a front sectional view of the energy-saving management and monitoring device described in this utility model.

[0011] Figure 2 This is a top sectional view of the energy-saving management and monitoring device described in this utility model.

[0012] In the diagram: 1. T-shaped drain tube; 2. Filter replacement block; 3. Insert block; 4. Concave insert groove; 5. Convex extruded cylindrical block; 6. Threaded hole; 7. Fixing bolt; 8. Semi-cylindrical block; 9. Drain hole; 10. Arc drain block; 11. Insert collection groove; 12. Divider drain plate; 13. Horn-shaped filter bag. Detailed Implementation

[0013] Based on the embodiments of this utility model, all other embodiments obtained by those skilled in the art without creative effort are within the scope of protection of this utility model.

[0014] Those skilled in the art should connect all electrical components and their compatible power supplies in this case via wires. Appropriate controllers and encoders should be selected according to the actual situation to meet control requirements. The specific connection and control sequence should refer to the working principle described below, where the electrical components are connected in sequence. The detailed connection methods are well-known in the art. The following mainly introduces the working principle and process, and will not describe the electrical control further. Example

[0015] Please see Figure 1-2 Early energy-saving monitoring devices (such as multi-functional energy-saving sockets) could only cut off standby power, failing to achieve remote management or time-sharing control. Direct-control appliance energy-saving monitoring devices, by integrating core processing modules, detection modules, and communication modules, achieve real-time power consumption monitoring, time-sharing management, and remote control, overcoming the limitations of single-function devices. Traditional energy consumption monitoring systems (such as electricity meters and water meters) can only collect data, lacking data analysis and decision support. Energy consumption monitoring systems, through components such as a central controller, database, and human-machine interface, achieve integrated data collection, processing, and display, and provide energy-saving suggestions, solving the problem of low data utilization efficiency. Therefore, this application protects an energy-saving management and monitoring device, which connects the drainage pipes to each other through a T-shaped drainage pipe 1, and uses the filter replacement block 2 inside the T-shaped drainage pipe 1 and the semi-cylindrical block 8 thereon to stably replace and raise the filter. The fluid is drained through the drainage holes 9 on the filter replacement block 2 and the semi-cylindrical block 8. The liquid is drained into an S-shaped drainage hole 9 through the arc drainage block 10 inside the drainage hole 9. The fluid is filtered through the inverted U-shaped drainage hole 9 through the cooperation of the dividing drainage plate 12 and the funnel-shaped filter bag 13. Furthermore, the drainage pipes are first connected to each other using T-shaped drainage tubes, which are then fixed to a pair of drainage pipes with bolts. A replaceable filter replacement block 2 is located inside the T-shaped drainage tube, and its outer insert block 3 is movably inserted into the concave insert groove 4 on the T-shaped drainage tube, achieving initial positioning of the filter replacement block 2. Simultaneously, a convex extrusion cylindrical block 5 is installed on the T-shaped drainage tube. The filter replacement block 2 is further secured by the threaded holes 6 and fixing bolts 7 on the T-shaped drainage tube and the convex extrusion cylindrical block 5, ensuring its stability and allowing for replacement and lifting operations. After the fluid enters, it flows through the semi-cylindrical block 8 on the filter replacement block 2. The semi-cylindrical block 8 and the drainage holes 9 on the filter replacement block 2 guide the fluid. Multiple arc-shaped drainage blocks 10, installed crosswise inside the drainage holes 9, guide the liquid into S-shaped drainage holes 9, increasing the fluid flow path and improving the filtration effect. Furthermore, the filter replacement block 2 and the semi-cylindrical block 8 have insert collection grooves 11, and a dividing guide plate 12 is installed in the groove. This guide plate 12 cooperates with the funnel-shaped filter bag 13 inside the insert collection groove 11, forming an inverted U-shaped drainage hole 9 to guide fluid diversion. This allows the fluid to be filtered as it passes through the funnel-shaped filter bag 13, trapping impurities inside the filter bag and completing the energy-saving management, monitoring, and filtration of the fluid. However, the above description lacks details on the specific operation procedure for replacing the filter replacement block 2, such as when it needs to be replaced and how to determine if replacement is necessary. In actual operation, a preset flow monitoring device can be used to prompt for replacement when the fluid flow rate drops to a certain threshold due to blockage of the filter replacement block 2, ensuring the continuous and stable operation of the device.

[0016] In summary, the drainage pipes are first interconnected using T-shaped drainage tubes, which are then fixed to a pair of drainage pipes with bolts. A replaceable filter replacement block 2 is located inside the T-shaped drainage tube, and its outer insert block 3 is movably inserted into the concave insert groove 4 on the T-shaped drainage tube, achieving initial positioning of the filter replacement block 2. Simultaneously, a convex extrusion cylindrical block 5 is installed on the T-shaped drainage tube. The filter replacement block 2 is further secured by the threaded holes 6 and fixing bolts 7 on the T-shaped drainage tube and the convex extrusion cylindrical block 5, ensuring its stability and allowing for replacement and lifting operations. After the fluid enters, it flows through the semi-cylindrical block 8 on the filter replacement block 2. The semi-cylindrical block 8 and the drainage holes 9 on the filter replacement block 2 guide the fluid. Multiple arc-shaped drainage blocks 10, installed crosswise inside the drainage holes 9, guide the liquid into S-shaped drainage holes 9, increasing the fluid flow path and improving the filtration effect. In addition, the filter replacement block 2 and the semi-cylindrical block 8 are provided with insert collection grooves 11, and the grooves are equipped with dividing and guiding plates 12. These plates cooperate with the funnel-shaped filter bags 13 inside the insert collection grooves 11. The dividing and guiding plates 12 form inverted U-shaped guiding holes 9, which guide the flow of fluid and enable the fluid to be filtered when passing through the funnel-shaped filter bags 13. Impurities are intercepted in the filter bags, thus completing the energy-saving management, monitoring and filtration of the fluid. In actual operation, a pressure sensor is installed on filter replacement block 2, and a flow monitor is installed on the T-shaped drainage tube. Both are electrically connected to an external monitoring system. The T-shaped drainage tube is also equipped with a wireless communication module, which is electrically connected to the pressure sensor and flow monitor. The monitoring system has a data analysis unit that receives data transmitted from the wireless communication module. When the fluid flow rate drops to a certain threshold due to blockage of filter replacement block 2, or when the pressure sensor data is abnormal, a replacement operation is prompted. Operators can remove the convex extrusion cylindrical block 5 by loosening the fixing bolts 7 on the T-shaped drainage tube and the convex extrusion cylindrical block 5, and then pull the insert block 3 on the outside of filter replacement block 2 out of the concave insert slot 4 to complete the replacement of filter replacement block 2, ensuring the continuous and stable operation of the device. In addition, the monitoring system is equipped with a remote control interface, through which data can be exchanged with a remote control center.

[0017] Although embodiments of the present invention have been shown and described, it will be understood by those skilled in the art that various changes, modifications, substitutions and alterations can be made to these embodiments without departing from the principles and spirit of the present invention, the scope of which is defined by the appended claims and their equivalents.

Claims

1. An energy-saving management and monitoring device, characterized in that, The system includes drainage pipes, with a filter monitor installed at the connection point of the paired drainage pipes. The filter monitor includes a T-shaped drainage pipe (1), which is bolted to a pair of drainage pipes. The T-shaped drainage pipe (1) has multiple concave insertion slots (4). A filter replacement block (2) is installed on the inner side of the T-shaped drainage pipe (1), and multiple insertion blocks (3) are installed on the outer side of the filter replacement block (2). The insertion blocks (3) are movably inserted into the inner side of the concave insertion slots (4). A convex extrusion cylindrical block (5) is installed on the T-shaped drainage pipe (1). Threaded holes (6) are provided on the T-shaped drainage pipe (1) and the convex extrusion cylindrical block (5). Multiple fixing bolts (7) are installed on the cylindrical block (5). A semi-cylindrical block (8) is installed on the filter replacement block (2). Drainage holes (9) are opened on the semi-cylindrical block (8) and the filter replacement block (2). Multiple arc drainage blocks (10) are installed on the inner side of the drainage holes (9). Multiple arc drainage blocks (10) are installed crosswise on the inner side of the drainage holes (9). Insertion collection grooves (11) are opened on the filter replacement block (2) and the semi-cylindrical block (8). A partition drainage plate (12) is installed on the inner side of the insertion collection groove (11). A horn-shaped filter bag (13) is installed on the inner side of the partition drainage plate (12) and the insertion collection groove (11). A monitoring system is installed on the T-shaped drainage pipe (1).

2. The energy-saving management and monitoring device according to claim 1, characterized in that, A pressure sensor is provided on the filter replacement block (2), and the pressure sensor is electrically connected to an external monitoring system.

3. The energy-saving management and monitoring device according to claim 2, characterized in that, A flow monitor is installed on the T-shaped drainage tube (1), and the flow monitor is electrically connected to the monitoring system.

4. The energy-saving management and monitoring device according to claim 3, characterized in that, The T-shaped drainage tube (1) is equipped with a wireless communication module, and the pressure sensor and flow monitor are electrically connected to the wireless communication module.

5. The energy-saving management and monitoring device according to claim 4, characterized in that, The monitoring system is equipped with a data analysis unit, which receives data from pressure sensors and flow monitors transmitted by the wireless communication module.

6. The energy-saving management and monitoring device according to claim 5, characterized in that, The monitoring system is equipped with a remote control interface, through which data can be exchanged with a remote control center.

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