Intelligent power line shunting device

Abstract

The invention discloses an intelligent power line shunting device, which comprises a shell, a flow guide piece, a first hinge piece, a second hinge piece, a first locking piece and a second locking piece, and is characterized in that the flow guide piece is arranged in the shell, the flow guide piece is provided with a main flow interface and a shunting interface, and the shell is provided with a first opening corresponding to the main flow interface; a second opening is formed in the position corresponding to the shunting interface, the first hinge piece is hinged to the first opening, the second hinge piece is hinged to the second opening, and a positioning sensor and a plurality of current sensors are further arranged in the shell; and the plurality of current sensors are respectively and correspondingly arranged at contact points of the main cable and the branch cables and are used for detecting current values and judging whether the cables have faults or not, and when the faults occur, the fault positions are positioned through the positioning sensors. According to the device, electric energy shunting is realized, current values of the main cable and the branch cables are monitored in real time, and a fault position is accurately positioned when a fault occurs.

Description

Technical Field

[0001] The present application relates to the technical field of shunt devices, and in particular to an intelligent power line shunt device. Background Art

[0002] In the power system, shunt devices play a vital role. They are responsible for efficiently distributing the power from the main cable to multiple branch cables to meet the power demand of different areas or equipment. This distribution process is crucial to maintaining the stable operation of the power system. However, traditional shunt devices have some limitations in design, especially in current monitoring and fault location.

[0003] Traditional current shunt devices usually lack real-time current monitoring capabilities. This means that during the power distribution process, the system cannot instantly obtain current data on each cable, making it difficult to accurately control and optimize the power load. This lack of information may lead to problems such as uneven power distribution, overload or underload, which in turn affects the stability and efficiency of the entire power system.

[0004] Moreover, traditional shunt devices are also inadequate in fault location capabilities. When a power system fails, such as a cable short circuit, circuit break or overload, traditional shunt devices are often unable to quickly and accurately locate the fault point. This not only prolongs the time for troubleshooting and repairing, but may also cause more serious power accidents due to the expansion of the fault, posing a threat to the safety and reliability of the power system. Summary of the invention

[0005] The purpose of the embodiments of the present application is to provide an intelligent power line shunt device, which can not only realize the shunt of electric energy, but also monitor the current values ​​of the main cable and the branch cable in real time, and accurately locate the fault position when a fault occurs.

[0006] To achieve the above objectives, this application adopts the following technical solutions:

[0007] On the one hand, an intelligent power line shunt device is provided, comprising: a shell, a flow guide, a first hinge, a second hinge, a first locking member and a second locking member, wherein the flow guide is arranged inside the shell, the flow guide has a mainstream interface and a shunt interface, the shell is provided with a first opening corresponding to the mainstream interface, and a second opening corresponding to the shunt interface, the first hinge is hinged to the first opening, the second hinge is hinged to the second opening, the first hinge is installed on the shell to form a first through hole, the first through hole can be used for a main cable to pass through and contact the mainstream interface, the shell is provided with a second through hole, the second through hole can be used for a branch cable to pass through and contact the shunt interface, the first locking member is movably installed on the shell and used to lock the main cable, the second locking member is installed on a side of the second hinge relative to the shunt interface, and used to lock the branch cable;

[0008] A positioning sensor and multiple current sensors are also provided inside the shell. The multiple current sensors are respectively arranged at the contact points of the main cable and the branch cable to detect the current value and determine whether there is a fault in the cable. When a fault occurs, the fault position is located by the positioning sensor.

[0009] Furthermore, the positioning sensor is a wireless positioning sensor, which can transmit fault location information to an external receiver via wireless signals.

[0010] Furthermore, the second hinge can flip between an unlocked position and a locked position. When the second hinge is in the unlocked position, the second locking member disengages from the branch cable. When the second hinge is in the locked position, the second locking member squeezes the branch cable and cooperates with the shunt interface to lock it.

[0011] Furthermore, the second locking member includes an extrusion portion, a guide portion, a sleeve portion and an elastic member, the sleeve portion is protruding on the side of the second hinged member opposite to the diversion interface, the center position of the sleeve portion is provided with a guide hole that cooperates with the guide portion for guidance, the extrusion portion is arranged at an end of the guide portion away from the second locking member, and the elastic member is arranged between the extrusion portion and the second locking member, so that the extrusion portion always has a tendency to move away from the second locking member.

[0012] Furthermore, two side surfaces of the extrusion portion extend toward the diversion interface to form a clamping portion, and the flow guide member is provided with a clamping position that cooperates with the clamping portion for clamping and locking.

[0013] Furthermore, one end of the extrusion portion relative to the diversion interface is in an arc shape.

[0014] Furthermore, the flow guide is made of conductive material, and the main flow interface and the branch flow interface are respectively arranged at two ends or two side surfaces of the flow guide.

[0015] Furthermore, the first hinged member and the second hinged member are both connected to the housing via a hinge shaft, and both can rotate relative to the housing to open the first opening and the second opening.

[0016] Furthermore, the positioning sensor is an RFID tag sensor.

[0017] Furthermore, the shell is made of insulating material.

[0018] The beneficial effects of the present application are as follows: the flow guide is arranged in the housing, and has a mainstream interface and multiple branch interfaces, which are connected to the main cable and the branch cable through the first opening and the second opening of the housing respectively. The first hinge and the second hinge are respectively hinged at the two openings, allowing the main cable and the branch cable to be flexibly connected. The first locking member is movably installed on the housing to stabilize the main cable; the second locking member is installed on one side of the second hinge to ensure the firm connection of the branch cable. More importantly, a positioning sensor and multiple current sensors are embedded inside the housing. The current sensor is precisely deployed at the contact point between the main cable and the branch cable to monitor the current value in real time, providing data support for the precise control and optimization of the power load. Once an abnormal current change is detected, it indicates that there may be a cable fault. At this time, the positioning sensor quickly intervenes and uses positioning technology to accurately lock the fault location, greatly shortening the fault detection and repair cycle. In addition, the design of the locking assembly makes the connection and disconnection of the cable easy, reducing the difficulty and cost of maintenance. BRIEF DESCRIPTION OF THE DRAWINGS

[0019] The present application is further described in detail below based on the drawings and embodiments.

[0020] Figure 1 A three-dimensional diagram of the intelligent power line shunting device according to an embodiment of the present application (the first hinge is in a locked position);

[0021] Figure 2 A three-dimensional diagram of the intelligent power line shunt device according to an embodiment of the present application (the first hinge is in an unlocked position);

[0022] Figure 3 An exploded diagram of the intelligent power line current diversion device according to an embodiment of the present application;

[0023] Figure 4 It is an assembly diagram of the second hinge member and the second locking member described in the embodiment of the present application;

[0024] Figure 5 A three-dimensional diagram of the housing described in the embodiment of the present application;

[0025] Figure 6 This is a three-dimensional diagram of the guide member described in the embodiment of the present application.

[0026] In the figure: 1. shell; 101. first opening; 102. second opening; 2. flow guide; 201. mainstream interface; 202. branch interface; 203. snap-fit ​​position; 3. first hinge; 4. second hinge; 5. first locking member; 6. second locking member; 601. extrusion part; 602. guide part; 603. sleeve part; 604. elastic member; 605. snap-fit ​​part; 7. main cable; 8. branch cable; 9. current sensor; 10. positioning sensor. DETAILED DESCRIPTION

[0027] In order to make the technical problems solved by this application, the technical solutions adopted, and the technical effects achieved more clearly, the technical solutions of the embodiments of this application are further described in detail below. Obviously, the described embodiments are only part of the embodiments of this application, not all of them. Based on the embodiments in this application, all other embodiments obtained by those skilled in the art without creative work are within the scope of protection of this application.

[0028] In the description of this application, unless otherwise clearly specified and limited, the terms "connected", "connected", and "fixed" should be understood in a broad sense, for example, it can be a fixed connection, a detachable connection, or an integral connection; it can be a mechanical connection or an electrical connection; it can be a direct connection or an indirect connection through an intermediate medium, it can be the internal connection of two elements or the interaction relationship between two elements. For ordinary technicians in this field, the specific meanings of the above terms in this application can be understood according to specific circumstances.

[0029] In the present application, unless otherwise clearly specified and limited, a first feature being "above" or "below" a second feature may include that the first and second features are in direct contact, or may include that the first and second features are not in direct contact but are in contact through another feature between them. Moreover, a first feature being "above", "above" and "above" a second feature includes that the first feature is directly above and obliquely above the second feature, or simply indicates that the first feature is higher in level than the second feature. A first feature being "below", "below" and "below" a second feature includes that the first feature is directly below and obliquely below the second feature, or simply indicates that the first feature is lower in level than the second feature.

[0030] like Figure 1-Figure 6As shown, this embodiment provides an intelligent power line shunt device, including: a housing 1, a guide member 2, a first hinge member 3, a second hinge member 4, a first locking member 5 and a second locking member 6, the guide member 2 is arranged inside the housing 1, the guide member 2 has a mainstream interface 201 and a shunt interface 202, the housing 1 is provided with a first opening 101 corresponding to the mainstream interface 201, and a second opening 102 corresponding to the shunt interface 202, the first hinge member 3 is hinged to the first opening 101, and the second hinge member 4 is hinged to the first opening 101. 4 is hinged to the second opening 102, the first hinged member 3 is installed on the housing 1 to form a first through hole, the first through hole can be used for the main cable 7 to pass through and contact the main flow interface 201, the housing 1 is provided with a second through hole, the second through hole can be used for the branch cable 8 to pass through and contact the branch flow interface 202, the first locking member 5 is movably installed on the housing 1 and is used to lock the main cable 7, and the second locking member 6 is installed on a side of the second hinged member 4 relative to the branch flow interface 202, and is used to lock the branch cable 8;

[0031] A positioning sensor 10 and a plurality of current sensors 9 are also provided inside the shell 1. The plurality of current sensors 9 are respectively provided at the contact points of the main cable 7 and the branch cable 8, and are used to detect the current value and determine whether there is a fault in the cable. When a fault occurs, the fault position is located by the positioning sensor 10.

[0032] The present application proposes an innovative intelligent power line shunt device, which aims to solve the shortcomings of traditional shunt devices in current monitoring and fault location. The device is composed of core components such as a shell 1, a guide 2, a first hinge 3, a second hinge 4, a first locking member 5 and a second locking member 6. The guide 2 is cleverly arranged inside the shell 1, and has a mainstream interface 201 and multiple shunt interfaces 202, which are connected to the outside world through the first opening 101 and the second opening 102 on the shell 1 respectively. The first hinge 3 and the second hinge 4 are respectively hinged at these openings, allowing the main cable 7 and the branch cable 8 to be flexibly connected. The main cable 7 passes through the first through hole on the first hinge 3, is in close contact with the mainstream interface 201, and is firmly locked by the first locking member 5; the branch cable 8 passes through the second through hole of the shell 1, is connected to the shunt interface 202, and is locked by the second locking member 6 on the other side of the shunt interface 202 to ensure the stability and safety of power transmission.

[0033] More importantly, the housing 1 integrates advanced positioning sensors 10 and multiple current sensors 9. These current sensors 9 are precisely arranged at the contact points between the main cable 7 and the branch cable 8, and can capture and feedback the current value of each cable in real time, providing key data support for load control and optimization of the power system. Once a cable fails such as short circuit, open circuit or overload, the current sensor 9 will immediately detect the abnormal current fluctuation and trigger the fault location mechanism. At this time, the positioning sensor 10 will work together, using advanced positioning technology to quickly and accurately lock the fault location, greatly shortening the time for fault detection and repair, and effectively preventing more serious consequences that may be caused by the expansion of the fault.

[0034] In addition, the design of the device fully considers ease of use and maintainability. The clever use of locking parts makes the connection and disconnection of cables simple and quick, reducing the maintenance difficulty and cost of the device. In summary, the intelligent power line shunt device provided by this application not only realizes the efficient and stable shunt of electric energy, but also significantly improves the overall stability, safety and reliability of the power system by integrating real-time monitoring and fault location functions, providing strong support for the intelligent management of modern power systems.

[0035] Furthermore, the positioning sensors 10 integrated inside the device use wireless positioning technology, which means that they can transmit the fault location information to an external receiver in real time and accurately through wireless signals without physical connection. This design brings multiple advantages. First, the wireless positioning sensor 10 greatly improves the flexibility and convenience of fault location. Since it is not bound by cables, the sensor can be more freely deployed at key locations inside the device, thereby achieving comprehensive and no-dead-angle monitoring of the entire power system. At the same time, when a fault occurs, the sensor can respond quickly and send accurate location information to an external receiver through wireless signals, so that the fault point can be quickly located without human intervention.

[0036] Secondly, the wireless positioning sensor 10 also enhances the reliability and stability of the system. Traditional wired sensors may cause signal transmission interruption or distortion due to problems such as cable aging, breakage or poor connection, which in turn affects the accuracy and timeliness of fault location. The wireless positioning sensor 10 avoids these problems. They transmit data through wireless signals and are not restricted by the physical connection status, thereby ensuring the reliability and stability of fault location information.

[0037] In addition, the wireless positioning sensor 10 is also convenient for system maintenance and upgrading. Since there is no need to lay and maintain a complex cable network, the installation, debugging and maintenance costs of the system are greatly reduced. At the same time, with the continuous development of wireless technology, the sensor can easily support new functions and performance improvements through software upgrades, thereby maintaining the advancement and competitiveness of the system.

[0038] Specifically, the positioning sensor 10 is an RFID tag sensor. In the diversion device, the RFID tag sensors are cleverly deployed at the key contact points between the main cable 7 and the branch cable 8 and the high-risk areas where failures may occur. Each RFID tag contains a unique identification code and establishes a wireless connection with an external receiver. When the power system is operating normally, these RFID tags are in a silent state and do not send any signals. However, once a cable fails, such as a short circuit, open circuit or overload, the RFID tag connected to it will be activated and immediately send the identification code containing the fault location information to the external receiver via a wireless radio frequency signal. After the external receiver receives the signal sent by the RFID tag, it will immediately decode and process it to accurately determine the location of the fault. This process is real-time and is not limited by physical connections or environmental factors, so it can respond quickly and instruct maintenance personnel to go to the fault point for investigation and repair.

[0039] Using RFID tag sensors as positioning sensors 10 brings multiple advantages. First, RFID technology has the characteristics of non-contact identification, which means that the sensor can locate the fault without direct contact with the cable, thus avoiding the problem of signal transmission interruption caused by poor or damaged physical connection. Secondly, RFID tag sensors have the ability of long-distance identification, which can accurately identify and locate the fault point at a long distance, improving the efficiency of troubleshooting. In addition, RFID technology also has high reliability and stability, and can work normally in various harsh environments, ensuring the accuracy and reliability of fault location information.

[0040] In some embodiments, the second hinge 4 can be flipped between an unlocked position and a locked position. When the second hinge 4 is in the unlocked position, the second locking member 6 is disengaged from the branch cable 8. When the second hinge 4 is in the locked position, the second locking member 6 squeezes the branch cable 8 and locks with the shunt interface 202. When the second hinge 4 is in the unlocked position, it allows the branch cable 8 to freely enter and exit the shunt interface 202. At this time, the second locking member 6 is separated from the branch cable 8 and does not cause any obstruction to it. This state is convenient for users to easily connect or disconnect the branch cable 8 during installation, commissioning or maintenance without complicated operations or tool assistance. When the second hinge 4 is flipped to the locked position, the second locking member 6 will move accordingly and tightly squeeze on the branch cable 8, forming a stable and locked state with the shunt interface 202. This locking mechanism ensures that the electrical connection between the branch cable 8 and the shunt interface 202 is stable and reliable, and effectively prevents power transmission interruption or failure caused by poor connection or looseness.

[0041] It is worth noting that the flipping operation of the second hinged member 4 is simple and quick, and the user can switch between locking and unlocking by simple manual operation. This design not only improves work efficiency, but also reduces the difficulty of operation and the risk of misoperation.

[0042] Specifically, the second locking member 6 includes an extrusion portion 601, a guide portion 602, a sleeve portion 603 and an elastic member 604. The sleeve portion 603 is convexly arranged on the side of the second hinged member 4 opposite to the diversion interface 202. The center of the sleeve portion 603 is provided with a guide hole that cooperates with the guide portion 602 for guidance. The extrusion portion 601 is arranged at the end of the guide portion 602 away from the second locking member 6. The elastic member 604 is arranged between the extrusion portion 601 and the second locking member 6, so that the extrusion portion 601 always has a tendency to move away from the second locking member 6. The center of the sleeve portion 603 is cleverly provided with a guide hole, which is closely matched with the guide portion 602, providing precise guidance for the movement of the extrusion portion 601 and preventing deviation or shaking during the locking process. The extrusion portion 601 is located at the end of the guide portion 602 away from the second locking member 6, and is a key component for actually performing the locking action. It is made of a high-strength, wear-resistant material to ensure a stable locking effect during long-term use. The shape and size of the extrusion part 601 are carefully designed to fit tightly on the distribution cable 8 to form an effective locking force. The elastic member 604 is arranged between the extrusion part 601 and the second locking member 6, and plays a vital role. It uses its own elastic potential energy to always provide the extrusion part 601 with a tendency to move away from the second locking member 6. This design enables the extrusion part 601 to automatically adapt to distribution cables 8 of different diameters during the locking process, and a tight locking effect can be achieved without manual adjustment. At the same time, when unlocking, the restoring force of the elastic member 604 can also help the extrusion part 601 to quickly reset and prepare for the next locking operation.

[0043] More specifically, the two side surfaces of the extrusion portion 601 extend toward the diversion interface 202 to form a snap-in portion 605, the diversion member 2 is provided with a snap-in position 203 that cooperates with the snap-in portion 605 for snap-in locking, and the extrusion portion 601 is arc-shaped at one end relative to the diversion interface 202. As a key component in the second locking member 6, the extrusion portion 601 is not only responsible for directly applying a locking force to the diversion cable 8, but also achieves a stable snap-in connection with the diversion member 2 through its unique structural design. Specifically, the two side surfaces of the extrusion portion 601 extend toward the diversion interface 202 to form the snap-in portions 605. These snap-in portions 605 are carefully designed in shape and size, and can achieve accurate and reliable snap-in locking with the preset snap-in position 203 on the diversion member 2. The existence of the snap-in portion 605 not only increases the connection strength between the locking member and the diversion member 2, but also ensures stability and reliability during the locking process. When the extrusion part 601 is tightly attached to the distribution cable 8 under the action of the elastic member 604, the clamping part 605 will simultaneously contact the clamping position 203 on the flow guide 2, and the locking member is firmly fixed on the flow guide 2 by means of clamping and locking. This design effectively prevents the locking member from loosening or falling off due to vibration or external force during long-term use.

[0044] In addition, the end of the extrusion portion 601 relative to the shunt interface 202 is also designed in an arc shape. This design not only enables the extrusion portion 601 to better adapt to the branch cables 8 of different diameters, but also improves the flexibility and adaptability during the locking process. The arc design enables the extrusion portion 601 to distribute the locking force more evenly during locking, thereby avoiding damage or deformation of the branch cable 8 caused by excessive local pressure.

[0045] Optionally, the guide member 2 is made of conductive material, and the mainstream interface 201 and the shunt interface 202 are respectively arranged at the two ends or two sides of the guide member 2. First, the guide member 2 is made of conductive material. This design ensures that the guide member 2 can effectively transmit electric energy, thereby meeting the basic functional requirements of the power system for the shunt device. The selection of conductive materials not only ensures the efficiency of electric energy transmission, but also ensures the stability and reliability of the device during long-term use. Secondly, the mainstream interface 201 and the shunt interface 202 are cleverly arranged at the two ends or two sides of the guide member 2. This layout design not only makes the structure of the shunt device more compact and reasonable, but also facilitates the installation and operation of the user in practical applications. By arranging the mainstream interface 201 and the shunt interface 202 in different positions, it can be ensured that the shunt device can be flexibly connected to the main cable 7 and the shunt cable 8 of the power system, thereby realizing the precise distribution and control of electric energy. Moreover, this layout design also helps to improve the safety and reliability of the shunt device. By setting the main flow interface 201 and the shunt interface 202 separately, power transmission failures caused by improper connection or short circuit can be avoided. At the same time, the flow guide 2 made of conductive material also has good electrical insulation performance, which can effectively prevent safety hazards such as electric shock or leakage.

[0046] Generally speaking, the first hinge 3 and the second hinge 4 are both connected to the housing 1 through a hinge axis, and can rotate relative to the housing 1 to open the first opening 101 and the second opening 102. The first hinge 3 and the second hinge 4 are each firmly mounted on the housing 1 through one or more hinge axes. This hinge connection method not only ensures a stable connection between the hinge and the housing 1, but also gives the hinge the freedom to rotate around the hinge axis. This design enables the first hinge 3 and the second hinge 4 to rotate relative to the housing 1 as needed, thereby opening or closing the first opening 101 and the second opening 102 associated with them. The first opening 101 and the second opening 102 exist to facilitate users to connect or disconnect the main cable 7 and the branch cable 8. When it is necessary to connect or disconnect the cables, the user can operate the first hinge 3 and the second hinge 4 to rotate them around the hinge axis to the appropriate position, thereby opening the corresponding opening. Once the cable connection is completed, the hinge can be rotated back to its original position to close the opening, ensuring that the electrical connection inside the diversion device is stable and safe. The design of the hinges not only takes into account the flexibility of rotation, but also fully considers the needs of locking and fixing. When the hinges are in the locked position, they can be firmly fixed to the housing 1 to prevent accidental rotation caused by vibration or external force. This design ensures the stability and reliability of the diversion device during long-term use.

[0047] It is worth mentioning that the shell 1 is made of insulating material. The use of insulating material ensures the safety of the shunt device. Since the shunt device needs to handle high-voltage electrical energy, the shell 1 must have excellent electrical insulation performance to prevent the occurrence of safety hazards such as current leakage or short circuit. The shell 1 made of insulating material can effectively isolate the internal electrical components from the external environment to ensure that the user will not suffer electric shock or other electrical injuries during use. The selection of insulating materials also helps to improve the reliability of the shunt device. During long-term use, the shunt device may be affected by various environmental factors such as temperature, humidity, vibration, etc. Insulating materials usually have good weather resistance and stability, and can maintain their insulation properties under these harsh conditions, thereby ensuring the stable operation of the shunt device. The shell 1 made of insulating material also has a certain protective effect. It can prevent impurities such as dust and moisture from entering the shunt device, avoiding damage to electrical components or affecting the stability of electrical connections. This protective effect is of great significance for maintaining the performance of the shunt device and extending its service life.

[0048] In the description of this article, it should be understood that the terms "upper", "lower", "left", "right", etc., and other directions or positional relationships are only for the convenience of description and simplification of operation, and do not indicate or imply that the device or element referred to must have a specific direction, be constructed and operated in a specific direction, and therefore cannot be understood as a limitation of this application. In addition, the terms "first" and "second" are only used to distinguish in the description and have no special meaning.

[0049] In the description of this specification, the description with reference to the terms "an embodiment", "example", etc. means that the specific features, structures, materials or characteristics described in conjunction with the embodiment or example are included in at least one embodiment or example of the present application. In this specification, the schematic representation of the above terms does not necessarily refer to the same embodiment or example.

[0050] In addition, it should be understood that although this specification is described according to implementation methods, not every implementation method contains only one independent technical solution. This narrative method of the specification is only for the sake of clarity. Those skilled in the art should regard the specification as a whole. The technical solutions in each embodiment may also be appropriately combined to form other implementation methods that can be understood by those skilled in the art.

[0051] The technical principles of the present application are described above in conjunction with specific embodiments. These descriptions are only for explaining the principles of the present application and cannot be interpreted as limiting the scope of protection of the present application in any way. Based on the explanations herein, those skilled in the art can think of other specific implementation methods of the present application without creative work, and these methods will fall within the scope of protection of the present application.

Claims

1. An intelligent power line current diversion device, characterized in that: include: A housing (1), a flow guide (2), a first hinge (3), a second hinge (4), a first locking member (5) and a second locking member (6); the flow guide (2) is arranged inside the housing (1); the flow guide (2) has a main flow interface (201) and a branch flow interface (202); the housing (1) is provided with a first opening (101) at a position corresponding to the main flow interface (201); and a second opening (102) at a position corresponding to the branch flow interface (202); the first hinge (3) is hinged to the first opening (101); and the second hinge (4) is hinged to the second opening (102). The first hinge (3) is mounted on the housing (1) and is formed with a first through hole, the first through hole being used for a main cable (7) to pass through and contact the main flow interface (201), the housing (1) is provided with a second through hole, the second through hole being used for a branch cable (8) to pass through and contact the branch flow interface (202), the first locking member (5) being movably mounted on the housing (1) and being used for locking the main cable (7), the second locking member (6) being mounted on a side of the second hinge (4) opposite to the branch flow interface (202) and being used for locking the branch cable (8); A positioning sensor (10) and a plurality of current sensors (9) are also provided inside the housing (1). The plurality of current sensors (9) are respectively provided at contact points of the main cable (7) and the branch cable (8) and are used to detect current values ​​and determine whether there is a fault in the cable. When a fault occurs, the fault position is located by the positioning sensor (10).

2. The intelligent power line current diversion device according to claim 1, characterized in that: The positioning sensor (10) is a wireless positioning sensor (10) capable of transmitting fault location information to an external receiver via a wireless signal.

3. The intelligent power line current diversion device according to claim 1, characterized in that: The second hinge (4) is capable of flipping between an unlocked position and a locked position; when the second hinge (4) is in the unlocked position, the second locking member (6) is disengaged from the branch cable (8); when the second hinge (4) is in the locked position, the second locking member (6) squeezes the branch cable (8) and cooperates with the branch interface (202) to lock.

4. The intelligent power line current diversion device according to claim 3, characterized in that: The second locking member (6) comprises an extrusion portion (601), a guide portion (602), a sleeve portion (603) and an elastic member (604); the sleeve portion (603) is protruding from a side of the second hinged member (4) opposite to the diversion interface (202); a guide hole for cooperating with the guide portion (602) is provided at the center of the sleeve portion (603); the extrusion portion (601) is arranged at an end of the guide portion (602) away from the second locking member (6); the elastic member (604) is arranged between the extrusion portion (601) and the second locking member (6), so that the extrusion portion (601) always has a tendency to move away from the second locking member (6).

5. The intelligent power line current diversion device according to claim 4, characterized in that: The two side surfaces of the extrusion portion (601) extend in the direction of the flow diversion interface (202) to form a clamping portion (605), and the flow guide member (2) is provided with a clamping position (203) that cooperates with the clamping portion (605) for clamping and locking.

6. The intelligent power line current dividing device according to claim 4, characterized in that: One end of the extrusion portion (601) opposite to the flow diversion interface (202) is in an arc shape.

7. The intelligent power line current shunting device according to any one of claims 1 to 6, characterized in that: The flow guide (2) is made of conductive material, and the main flow interface (201) and the branch flow interface (202) are respectively arranged at two ends or two side surfaces of the flow guide (2).

8. The intelligent power line current splitting device according to any one of claims 1 to 6, characterized in that: The first hinge (3) and the second hinge (4) are both connected to the housing (1) via a hinge shaft, and are both rotatable relative to the housing (1), thereby opening the first opening (101) and the second opening (102).

9. The intelligent power line current splitting device according to any one of claims 1 to 6, characterized in that: The positioning sensor (10) is an RFID tag sensor.

10. The intelligent power line current splitting device according to any one of claims 1 to 6, characterized in that: The shell (1) is made of insulating material.

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