Electronic fence capable of being rapidly arranged and structurally adjusted

Abstract

The invention provides an electronic fence capable of being rapidly arranged and structurally adjusted, and the electronic fence comprises a basic fence layer which comprises a plurality of basic fence units; the quick-release assembly layer comprises a plurality of quick-release assembly units and is used for realizing quick connection and separation between the adjacent foundation fence units; the monitoring circuit layer comprises a plurality of monitoring circuit units which are distributed on the basic fence layer; wherein the quick-release assembly layer and the monitoring circuit layer are arranged in a matched mode, so that when the multiple basic fence units are sequentially and adjacently connected, the monitoring circuit layer is in a closed state and used for monitoring the state of the basic fence layer. Through the design, the problem that an existing electronic fence cannot be quickly transferred or a delineated protection range cannot be quickly adjusted is solved.

Description

Technical Field

[0001] The present invention relates to the technical field of security fences, and in particular to an electronic fence that can be quickly arranged and structurally adjusted. Background Art

[0002] Electronic fences are commonly used around facilities such as factories, airports, and nuclear power plants to prevent unauthorized entry. Once construction is complete, the fences are typically fixed and cannot be moved or adjusted. However, changes in the site environment or the protected object sometimes necessitate the relocation of the electronic fence or the rapid adjustment of its designated protection area. However, conventional electronic fences, due to their fixed nature, cannot meet this requirement. To address this issue, improvements have been made to conventional electronic fences.

[0003] For example, the prior art with publication number CN221670064U discloses an electronic fence for a nuclear power plant that is easy to quickly disassemble and assemble. The fence includes a fence terminal pole A and a fence terminal pole B. The fence terminal pole A is symmetrically provided with a fence terminal pole B on the right side. A new type of intermediate pole positioning device is added to the bottom ends of multiple fence intermediate poles of the electronic fence of the nuclear power plant, and multiple fence intermediate poles are fixedly connected to the intermediate pole positioning device by screws. This can ensure that multiple fence intermediate poles can be normally installed on the ground or wall, and can also ensure that multiple fence intermediate poles remain firmly installed, so that multiple fence intermediate poles can normally withstand external force impacts. The biggest advantage of the intermediate pole positioning device is that it can flexibly adjust the fixed positions of multiple fence intermediate poles, which can facilitate users to adjust multiple fence intermediate poles to the optimal force position according to protection needs.

[0004] However, this prior art still has drawbacks. The disassembly and adjustment of the fence is primarily achieved through the coordination of adjustment screws and an intermediate rod positioning device. While this can address the aforementioned issues to a certain extent, its installation requires specialized tools such as wrenches and is cumbersome to operate. This hinders the rapid disassembly and assembly of the electronic fence, and in other words, hinders the relocation of the electronic fence or the rapid adjustment of the protected area. Summary of the Invention

[0005] Based on this, it is necessary to provide an electronic fence that can be quickly arranged and structurally adjusted to address the problem that existing electronic fences cannot be quickly transferred or the defined protection range can be quickly adjusted.

[0006] The present invention provides an electronic fence that can be quickly deployed and structurally adjusted, comprising: A basic fence layer, comprising a plurality of basic fence units; A quick-disassembly assembly layer, comprising a plurality of quick-disassembly assembly units, for realizing quick connection and separation between adjacent basic fence units; A monitoring circuit layer, comprising a plurality of monitoring circuit units, distributed on the basic fence layer; Among them, the quick-release assembly layer is arranged in conjunction with the monitoring circuit layer so that when multiple basic fence units are connected adjacent to each other in sequence, the monitoring circuit layer will be in a connection state for monitoring the state of the basic fence layer.

[0007] Wherein, the basic fence unit includes: A first railing assembly includes a first railing body and a first railing connecting portion provided at the top end of the first railing body; A second railing assembly includes a second railing body and a second railing connecting portion provided at a top end of the second railing body; a fence assembly disposed between the first railing assembly and the second railing assembly; Wherein, the first railing connecting portion and the second railing connecting portion are both provided with a locking portion; The quick-disassembly assembly unit comprises: An assembly component comprising an assembly connector matching the first railing connection portion and the second railing connection portion, and a movable locking component provided on the assembly connector, the movable locking component matching the locking portion; A quick-release assembly comprising a driving component, a transmission component connected to the driving component, and an elastic reset component for driving the transmission component to reset; A switch component, provided on the assembly connector, for controlling the on / off state of the monitoring circuit layer; Wherein, the quick-release assembly is assembled on the assembly connector and is arranged in cooperation with the movable locking component so that when the driving component moves, the movable locking component also moves accordingly; When the assembly connector is assembled on the first railing connection portion and the second railing connection portion, and the two are locked and connected together by the movable locking component, the monitoring circuit layer is in a connection state.

[0008] Wherein, a receiving cavity is provided in the assembly connector; The accommodating cavity includes: The connecting accommodating portion matches the profile and size of the first railing connecting portion and the second railing connecting portion, so that the assembly connector can be assembled on the first railing connecting portion and the second railing connecting portion and fasten the two together; a transmission accommodating portion, arranged axially along the assembly connector, with an opening thereof communicating with the external space, for accommodating the transmission component; a locking accommodating portion, communicated with the transmission accommodating portion and arranged perpendicularly to the axial direction of the assembly connector, for accommodating the movable locking component and allowing the movable locking component to partially enter the connection accommodating portion; Wherein, the driving component is movably sleeved on the assembly connector and is connected to the transmission component through the opening of the transmission accommodating portion.

[0009] Wherein, the locking portion is groove-shaped and is arranged around the first railing connecting portion and the second railing connecting portion; The movable locking component comprises: a locking member located in the locking accommodating portion, having a shape matching that of the locking portion and configured to partially enter the connecting accommodating portion; an elastic displacement member, comprising an elastic member and a displacement member connected to each other, wherein the elastic member is located between an end portion of the locking accommodating portion and the displacement member, and the displacement member is connected to the locking member; Wherein, the displacement member abuts against the transmission member and is configured so that when the driving member moves, the displacement member undergoes a displacement change and guides the locking member to partially enter the connecting accommodating portion from the locking accommodating portion, or to retract from the connecting accommodating portion and completely enter the locking accommodating portion.

[0010] Wherein, the transmission accommodating portion is located at an end of the assembly connecting body away from the first railing main body or the second railing main body, and the locking accommodating portion is located at an end of the assembly connecting body close to the first railing main body or the second railing main body; The transmission accommodating portion includes a first accommodating section and a second accommodating section narrower than the first accommodating section, and two ends of the second accommodating section are respectively connected to the first accommodating section and the locking accommodating portion; The transmission components include: The follower is movably arranged in the first accommodating section along the axial direction of the assembly connector, and its side is connected to the driving component; the elastic reset component is located in the first accommodating section and abuts against or is connected to the follower; a displacement driving member, located in the second accommodating section; a push rod, one end of which is connected to the driven member, and the other end of which extends from the first accommodating section to the second accommodating section and is connected to the displacement driving member; Wherein, the displacement member includes: a displacement portion, located in the locking accommodating portion, with one end surface connected to the locking member and the other opposite end surface abutting or connected to the elastic member; a deformation portion connected to an end of the displacement portion, extending from the locking accommodating portion to the second accommodating section, and cooperating with the displacement driving member; The deformation portion and the displacement driving member are configured such that when the displacement driving member moves toward the locking accommodating portion, the deformation portion is pushed by the displacement driving member and moves in a direction perpendicular to the axial direction of the assembly connector.

[0011] Wherein, the transmission accommodating portion is located at an end of the assembly connecting body close to the first railing main body or the second railing main body, and the locking accommodating portion is located at an end of the assembly connecting body away from the first railing main body or the second railing main body; The transmission accommodating portion includes a first accommodating section and a second accommodating section narrower than the first accommodating section, and two ends of the second accommodating section are respectively connected to the first accommodating section and the locking accommodating portion; The transmission components include: The follower is movably arranged in the first accommodating section along the axial direction of the assembly connector, and its side is connected to the driving component; the elastic reset component is located in the first accommodating section and abuts against or is connected to the follower; a displacement driving member, located in the second accommodating section; a push rod, one end of which is connected to the driven member, and the other end of which extends from the first accommodating section to the second accommodating section and is connected to the displacement driving member; Wherein, the displacement member includes: a displacement portion, located in the locking accommodating portion, with one end surface connected to the locking member and the other opposite end surface abutting or connected to the elastic member; a deformation portion connected to an end of the displacement portion, extending from the locking accommodating portion to the second accommodating section, and cooperating with the displacement driving member; The deformation portion and the displacement driving member are configured such that when the displacement driving member moves toward the locking accommodating portion, the deformation portion is pushed by the displacement driving member and moves in a direction perpendicular to the axial direction of the assembly connector.

[0012] Wherein, the deformation part includes: a first guide section, arranged axially along the assembly connector, wherein the distance between the first guide section and a side wall of the second accommodating section is configured to just accommodate the displacement driving member; The second guide section is arranged at an angle to the axial direction of the assembly connector. One end of the second guide section is connected to the first guide section, and the other end is connected to the displacement portion.

[0013] Wherein, the transmission accommodating portion is located at an end of the assembly connecting body away from the first railing main body or the second railing main body, and the locking accommodating portion is located at an end of the assembly connecting body close to the first railing main body or the second railing main body; The transmission accommodating portion includes a first accommodating section and a second accommodating section narrower than the first accommodating section; one end of the second accommodating section is connected to the first accommodating section, and the other end thereof is connected to the locking accommodating portion via a through hole; The transmission components include: The follower is movably arranged in the first accommodating section along the axial direction of the assembly connector, and its side is connected to the driving component; the elastic reset component is located in the first accommodating section and abuts against or is connected to the follower; a traction member, one end of which is connected to the driven member, and the other end of which extends from the second accommodating section into the locking accommodating portion and is connected to the displacement member; The driven member and the displacement member are configured such that when the driven member moves in a direction away from the locking accommodating portion, the displacement member moves in a direction perpendicular to the axial direction of the assembly connector under the traction of the traction member.

[0014] Wherein, the transmission component also includes a guide member, and the guide member includes a pulley assembly; the pulley assembly is arranged in the second accommodating section and located at the through hole, and is cooperated with the traction member to change the extension direction of the traction member.

[0015] Wherein, the monitoring circuit layer includes a plurality of circuit connection units for connecting adjacent monitoring circuit units; The monitoring circuit unit includes at least a vibration sensor, which is provided on the basic fence unit; the circuit connection unit includes: a first circuit connector, a connection port of which is provided at an end portion of the first railing connection portion; a second circuit connector, a connection port of which is provided at an end portion of the second railing connection portion; The intermediate circuit connector 340 has a connection port arranged at the end face of the connection accommodating portion and matches the connection port positions of the first circuit connector and the second circuit connector, and is used to realize electrical connection and disconnection between the first circuit connector and the second circuit connector, so as to realize on-off control of the circuit where the monitoring circuit unit is located.

[0016] The above technical solution has the following advantages or beneficial effects: In the present invention, when the user needs to quickly adjust and delimit the protection range and protect it through the electronic fence, multiple basic fence units can be placed at the edge of the protection range with their end to end touching each other. Afterwards, the adjacent basic fence units are quickly connected together one by one by multiple quick-release assembly units to fix the electronic fence. When multiple adjacent basic fence units are connected and fixed one by one by multiple quick-release assembly units, the monitoring circuit unit set on the basic fence unit will become a path state and start to monitor the state of the basic fence unit to determine whether there is any foreign object invading the electronic fence. When the user needs to quickly transfer the electronic fence, the multiple quick-release assembly units can be removed from the multiple adjacent basic fence units, so that the multiple adjacent basic fence units no longer remain in a connected and fixed state, so as to facilitate the rapid transfer of the electronic fence. This solves the problem that the existing electronic fence cannot be quickly transferred or the delimited protection range cannot be quickly adjusted. BRIEF DESCRIPTION OF THE DRAWINGS

[0017] Figure 1 A schematic structural diagram of a railing assembly unit in an electronic fence capable of rapid deployment and structural adjustment according to the present invention; Figure 2 A schematic structural diagram of a basic fence unit in an electronic fence capable of rapid deployment and structural adjustment according to the present invention; Figure 3 Schematic diagram of the assembly state of the electronic fence capable of rapid deployment and structural adjustment according to the present invention; Figure 4 A schematic structural diagram of a quick-disassembly assembly unit in an electronic fence capable of rapid deployment and structural adjustment according to the present invention in one embodiment; Figure 5 This is a schematic diagram of the partial structure of an electronic fence capable of rapid deployment and structural adjustment in an assembled state in one embodiment of the present invention; Figure 6 This is a schematic structural diagram of another embodiment of a quick-disassembly assembly unit in an electronic fence capable of rapid deployment and structural adjustment according to the present invention; Figure 7 A schematic diagram of the partial structure of the electronic fence capable of rapid deployment and structural adjustment according to another embodiment of the present invention in an assembled state; Figure 8 It is a structural schematic diagram of another embodiment of the quick-disassembly assembly unit in the electronic fence capable of rapid deployment and structural adjustment according to the present invention.

[0018] In the accompanying drawings, the components represented by the reference numerals are as follows: 100, basic fence unit; 110, first railing assembly; 111, first railing body; 112, first railing connection portion; 120, second railing assembly; 121, second railing body; 122, second railing connection portion; 130, fence assembly; 140, locking portion; 200, quick-release assembly unit; 210, assembly assembly; 211, assembly connector; 212, movable locking component; 213, locking member; 214, elastic displacement member; 215, elastic member; 216, displacement member; 217, displacement portion; 218, deformation portion; 220, quick-release Component; 221, driving component; 222, transmission component; 223, elastic reset component; 224, follower; 225, displacement driving component; 226, push rod component; 227, traction component; 228, guide component; 230, switch component; 240, connection accommodating portion; 250, transmission accommodating portion; 251, first accommodating section; 252, second accommodating section; 260, locking accommodating portion; 300, monitoring circuit unit; 310, vibration sensor; 320, first circuit connector; 330, second circuit connector; 340, intermediate circuit connector 340. DETAILED DESCRIPTION

[0019] To make the above-mentioned objects, features, and advantages of the present invention more clearly understood, the following is a clear and complete description of the specific embodiments of the present invention in conjunction with the accompanying drawings. Obviously, the specific details described below are only some embodiments of the present invention, and the present invention can also be implemented in many other embodiments different from those described herein. Based on the embodiments of the present invention, all other embodiments obtained by ordinary technicians in this field without making any creative efforts are within the scope of protection of the present invention.

[0020] It should be noted that when an element is referred to as being "fixed to" another element, it may be directly attached to the other element or there may be an intermediate element. When an element is referred to as being "connected to" another element, it may be directly connected to the other element or there may be an intermediate element. The terms "vertical," "horizontal," "left," "right," and similar expressions used herein are for illustrative purposes only and do not represent the only implementation methods.

[0021] Unless otherwise defined, all technical and scientific terms used herein have the same meaning as those commonly understood by those skilled in the art of the present invention. The terms used in this specification of the present invention are only for the purpose of describing specific embodiments and are not intended to limit the present invention.

[0022] See also Figure 1 、 Figure 2 and Figure 3 The present invention discloses an electronic fence that can be quickly deployed and structurally adjusted, comprising: A basic fence layer, comprising a plurality of basic fence units 100; A quick-disassembly assembly layer, comprising a plurality of quick-disassembly assembly units 200, for realizing quick connection and separation between adjacent basic fence units 100; The monitoring circuit layer includes a plurality of monitoring circuit units 300 distributed on the basic fence layer; Among them, the quick-release assembly layer and the monitoring circuit layer are arranged in cooperation so that when multiple basic fence units 100 are connected adjacent to each other in sequence, the monitoring circuit layer will be in a pass state for monitoring the status of the basic fence layer.

[0023] Specifically, in this embodiment, when a user needs to quickly adjust and define a protection range and implement electronic fencing, the base fence layer can be placed at the edge of the protection range. The base fence layer can then be connected using a quick-release assembly layer to secure it. While the base fence layer is connected and secured, the monitoring circuit layer provided on the base fence layer enters a conductive state and begins operating to monitor the status of the base fence layer and determine whether any foreign objects have intruded into the electronic fence.

[0024] When the user needs to quickly relocate the electronic fence, the quick-release assembly layer can be used to quickly disconnect the internal connections of the base fence layer, making it easier to separate the base fence layer into multiple parts for quick relocation. At the same time, since the internal connections of the base fence layer are disconnected, the monitoring circuit layer will no longer be in a connected state, so the electronic components in the monitoring circuit layer will not continue to work when the electronic fence is quickly relocated.

[0025] More specifically, when the user needs to quickly adjust and define the protection range and use the electronic fence for protection, multiple basic fence units 100 can be placed at the edge of the protection range with each other touching end to end. Afterwards, the adjacent basic fence units 100 are quickly connected together one by one through multiple quick-release assembly units 200 to fix the electronic fence. When multiple adjacent basic fence units 100 are connected and fixed one by one by multiple quick-release assembly units 200, the monitoring circuit unit 300 set on the basic fence unit 100 will become a pass state and begin to monitor the status of the basic fence unit 100 to determine whether there is any foreign object invading the electronic fence.

[0026] When the user needs to quickly relocate the electronic fence, the multiple quick-release assembly units 200 can be removed from the multiple adjacent basic fence units 100, thereby eliminating the connection and fixing between the multiple adjacent basic fence units 100, thereby facilitating the rapid relocation of the electronic fence. Simultaneously, since the connections between the multiple adjacent basic fence units 100 are disconnected, the multiple monitoring circuit units 300 are no longer in a connected state and cease to function.

[0027] The above-mentioned monitoring circuit layer, in addition to containing multiple monitoring circuit units 300, may also include a central power supply and a central communication module. The monitoring circuit unit 300 may include at least a sensor device for monitoring the status of the basic fence layer to determine whether there is any foreign object invading the electronic fence. The sensor device may include a vibration sensor 310. In addition, the monitoring circuit unit 300 also includes at least a circuit connection unit arranged around the above-mentioned sensor device. The circuit connection unit can be understood as a supporting basic circuit to ensure that when the quick-release assembly layer is arranged in conjunction with the monitoring circuit layer so that multiple basic fence units 100 are connected adjacent to each other in sequence, the monitoring circuit layer will be in a path state, that is, the supporting basic circuit where the multiple sensor devices are located is connected to the central power supply, forming a complete loop in a conductive state. In addition, the central communication module can be inserted into the above-mentioned loop to transmit information detected by the sensor device.

[0028] For the convenience of example and explanation, the sensing device is directly understood as the vibration sensor 310 for explanation below.

[0029] Specifically, in this embodiment, when multiple quick-release assembly units 200 are assembled one by one onto multiple adjacent basic fence units 100, quickly connecting and securing the adjacent basic fence units 100 together, the supporting basic circuits housing multiple adjacent vibration sensors 310 located on the basic fence layer will connect to one another and ultimately to the central power source, forming a complete, conductive loop. Once powered, the vibration sensors 310 will begin operating, monitoring the vibration state of their respective basic fence units 100 to determine if any foreign objects have intruded into the electronic fence.

[0030] The aforementioned supporting basic circuit can be understood as the simplest and most basic circuit structure, namely, two wires. One wire is connected to the input of the vibration sensor 310, serving as a port for connecting to the supporting basic circuit on the adjacent basic enclosure unit 100 on one side. The other wire is connected to the output of the vibration sensor 310, serving as a port for connecting to the supporting basic circuit on the adjacent basic enclosure unit 100 on the other side.

[0031] To facilitate understanding of the present technical solution, the structure and principle of the vibration sensor 310 described above are briefly explained and illustrated below.

[0032] Vibration sensors 310 are devices used to detect and measure the vibration characteristics of objects. They are widely used in industrial monitoring, structural health monitoring, vehicle dynamics analysis, and security. Vibration sensors 310 can be divided into various types based on their operating principles and technologies. The following are the operating principles of several common vibration sensors 310: 1. Mechanical vibration sensor The principle is to use the movement of mechanical parts to trigger the switch action. For example, when the electronic fence is subjected to external force, the reed installed on it will bend or displace, thereby closing or opening the circuit and generating an electrical signal.

[0033] Its characteristics are simple structure and low cost, but its sensitivity and accuracy are limited and it is easily affected by environmental factors.

[0034] 2. Piezoelectric vibration sensor Its principle is based on the piezoelectric effect, which states that certain crystalline materials generate electric charges on their surfaces when deformed by force. When vibration is applied to the piezoelectric material, it generates an AC voltage signal due to the periodic deformation. This voltage is proportional to the amplitude and frequency of the vibration.

[0035] Its characteristics are high sensitivity, wide-band response, and good linearity, making it suitable for high-frequency vibration measurement. Common piezoelectric materials include quartz and barium titanate.

[0036] 3. Capacitive vibration sensor For example, a reed switch works by changing the distance or area between two plates to influence the capacitance value. When the sensor senses vibration, the position of the movable part relative to the fixed part changes, causing the capacitance to change, which is then converted into a measurable electrical signal.

[0037] It features non-contact measurement, high resolution and stability, and is suitable for low-frequency vibration monitoring.

[0038] 4. Magnetoelectric vibration sensor Also known as induction or eddy current sensors, this principle utilizes the law of electromagnetic induction, which states that when a conductor moves in a magnetic field, an induced electromotive force is generated. The sensor consists of a permanent magnet and a coil wound around it. When vibration causes the magnet to move relative to the coil, an induced current is generated in the coil, which is proportional to the speed of the vibration.

[0039] Its characteristics are that it is suitable for vibration detection in the medium and low frequency range, is insensitive to temperature changes, and has high reliability.

[0040] 5. MEMS accelerometers The principle is that miniaturized accelerometers manufactured using micro-electromechanical systems (MEMS) technology typically consist of a mass, spring, and damper. When the device experiences acceleration, the mass moves relative to the frame, and this displacement is converted into an electrical signal output.

[0041] It is characterized by small size, light weight, low power consumption, and easy integration into various electronic systems. It is particularly suitable for portable applications and embedded systems.

[0042] 6. Fiber Optic Vibration Sensor The principle is to use optical fiber as a sensing medium and sense vibrations through the propagation characteristics of light waves in the fiber. Any external disturbance will change the stress state of the fiber, which in turn affects the phase, polarization, or intensity of the light. The resulting optical changes can be precisely measured and converted into vibration information.

[0043] It is characterized by strong anti-electromagnetic interference ability, the ability to work stably for a long time in harsh environments, and is suitable for long-distance distributed vibration monitoring.

[0044] 7. Laser Doppler Vibrometer Its principle is based on the Doppler effect, which means that when a light beam from a light source is reflected by a moving object, its frequency changes. LDV determines the vibration speed of the target object by accurately measuring the frequency shift of the reflected light.

[0045] It is characterized by non-contact measurement, extremely high accuracy and resolution, and is often used in precision scientific research and industrial testing.

[0046] The type of vibration sensor you choose depends on the specific application requirements, including but not limited to the frequency range and amplitude of the vibration, environmental conditions, and whether remote or real-time monitoring is required. For electric fences with vibration sensors, piezoelectric and MEMS accelerometers are common choices because they offer sufficient sensitivity and reliability.

[0047] See also Figure 1 、 Figure 2 In one embodiment, the basic enclosure unit 100 includes: The first railing assembly 110 includes a first railing body 111 and a first railing connecting portion 112 provided at the top of the first railing body 111; The second railing assembly 120 includes a second railing body 121 and a second railing connecting portion 122 provided at the top of the second railing body 121; The fence assembly 130 is provided between the first railing assembly 110 and the second railing assembly 120; Wherein, the first railing connecting portion 112 and the second railing connecting portion 122 are both provided with a locking portion 140; See also Figure 4 、 Figure 6 and Figure 7 , the quick-disassembly assembly unit 200 includes: The assembly assembly 210 includes an assembly connector 211 that matches the first railing connection portion 112 and the second railing connection portion 122, and a movable locking component 212 provided on the assembly connector 211, wherein the movable locking component 212 matches the locking portion 140; The quick-release assembly 220 includes a driving component 221, a transmission component 222 connected to the driving component 221, and an elastic reset component 223 for driving the transmission component 222 to reset; The switch assembly 230 is provided on the assembly connector 211 and is used to control the on / off state of the monitoring circuit layer; The quick-release assembly 220 is assembled on the assembly connector 211 and is arranged in cooperation with the movable locking component 212 so that when the driving component 221 moves, the movable locking component 212 also moves accordingly. When the assembly connector 211 is assembled on the first railing connection portion 112 and the second railing connection portion 122 and the two are locked and connected together by the movable locking component 212, the monitoring circuit layer is in a connection state.

[0048] When users need to quickly adjust and define a protected area and implement electronic fencing, the basic fence layer is composed of multiple basic fence units 100, which are placed end-to-end at the edge of the protected area. To facilitate understanding and minimize the description, the following example uses three adjacent, consecutive basic fence units 100 in the basic fence layer.

[0049] See also Figure 1 、 Figure 2 In this embodiment, for the sake of easy distinction, the three adjacent continuous basic fence units 100 can be temporarily named as fence unit A, fence unit B, and fence unit C.

[0050] Then, the basic fence layer can be regarded as being composed of N adjacent continuous railing assembly units, each of which is composed of the above-mentioned three adjacent and continuous basic fence units 100A, fence unit B, and fence unit C.

[0051] Specifically, in this embodiment, when a user needs to quickly adjust and define a protected area and implement protection through an electronic fence, N adjacent, continuous railing assembly units can be placed end-to-end at the edge of the protected area. In this case, the second railing assembly 120 of fence unit A mates with the first railing assembly 110 of fence unit B. The second railing assembly 120 of fence unit B mates with the first railing assembly 110 of fence unit C.

[0052] Specifically, the second railing body 121 in the second railing assembly 120 of fence unit A abuts the first railing body 111 in the first railing assembly 110 of fence unit B, and the second railing connecting portion 122 in the second railing assembly 120 of fence unit A abuts the first railing connecting portion 112 in the first railing assembly 110 of fence unit B. The second railing body 121 in the second railing assembly 120 of fence unit B abuts the first railing body 111 in the first railing assembly 110 of fence unit C, and the second railing connecting portion 122 in the second railing assembly 120 of fence unit B abuts the first railing connecting portion 112 in the first railing assembly 110 of fence unit C.

[0053] Afterwards, the quick-release assembly unit 200 is assembled to the railing assembly unit. Specifically, the assembly component 210 is assembled to the mating abutment between the second railing component 120 of fence unit A and the first railing component 110 of fence unit B, and to the mating abutment between the second railing component 120 of fence unit B and the first railing component 110 of fence unit C.

[0054] More specifically, see Figure 1 、 Figure 3 , that is, the assembly connector 211 is assembled on the second railing connection part 122 of fence unit A and the first railing connection part 112 of fence unit B, and the movable locking part 212 on the assembly connector 211 will respectively cooperate with the locking part 140 on the second railing connection part 122 of fence unit A and the locking part 140 on the first railing connection part 112 of fence unit B to achieve a locking effect, so that fence unit A and fence unit B are fixedly connected together. At the same time, the assembly connector 211 is assembled on the second railing connection part 122 of fence unit B and the first railing connection part 112 of fence unit C, and the movable locking part 212 on the assembly connector 211 will respectively cooperate with the locking part 140 on the second railing connection part 122 of fence unit B and the locking part 140 on the first railing connection part 112 of fence unit C to achieve a locking effect, so that fence unit B and fence unit C are fixedly connected together.

[0055] At the same time, the switch assembly 230 on the assembly connector 211 connects the monitoring circuit units 300 on fence units A, B, and C, ultimately connecting them to the other barrier assembly units and the central power supply, thus placing the monitoring circuit layer in a conductive state. The monitoring circuit layer then begins monitoring the status of the basic fence unit 100 to determine if any foreign objects have intruded into the electronic fence.

[0056] When the user needs to quickly move the electronic fence, by driving the quick-release component 220 assembled on the assembly connector 211, the movable locking part can be caused to leave the locking part 140, so that the assembly connector 211 can quickly leave the railing connection part on the fence unit, releasing the fixed connection effect of the quick-release assembly unit 200 on the basic fence unit 100, so as to facilitate the user's quick disassembly and transfer.

[0057] More specifically, when the user needs to quickly move the electronic fence, a force can be applied to the driving component 221. When the driving component 221 moves, the transmission component 222 connected thereto will also move, and eventually cause the movable locking component 212 provided therewith to also move and leave the locking portion 140, thereby allowing the quick-release assembly unit 200 to quickly detach from the basic fence unit 100, causing the fence unit A, fence unit B, fence unit C, and N adjacent continuous railing assembly units to lose their fixed connection relationship, thereby facilitating the rapid disassembly and transfer of the electronic fence. At the same time, since the connection between multiple adjacent basic fence units 100 has been disconnected, the multiple monitoring circuit units 300 will no longer be in a pass state and will stop working.

[0058] In one embodiment, the monitoring circuit layer further includes a plurality of circuit connection units for connecting adjacent monitoring circuit units 300; See also Figure 5 、 Figure 7 , the circuit connection unit includes: a first circuit connector 320 , whose connection port is disposed at an end of the first railing connection portion 112 ; a second circuit connector 330 , whose connection port is disposed at an end portion of the second railing connection portion 122 ; The intermediate circuit connector has a connection port arranged at the end face of the connection accommodating portion 240 and matches the connection port positions of the first circuit connector 320 and the second circuit connector 330, and is used to realize electrical connection and disconnection between the first circuit connector 320 and the second circuit connector 330, so as to realize on-off control of the circuit where the monitoring circuit unit 300 is located.

[0059] The intermediate circuit connector mentioned above can be understood to be equivalent to the switch assembly 230 mentioned above.

[0060] For details about the embodiments, please refer to Figure 5 、 Figure 7 When the assembly connector 211 is assembled on the first railing connection portion 112 and the second railing connection portion 122 and the two are locked together by the movable locking component 212, the monitoring circuit layer is in a conductive state. This effect can be achieved by the following methods: By arranging a first circuit connector 320 on the first railing assembly 110, and arranging a connection port of the first circuit connector 320 at the end of the first railing connection part 112; and arranging a second circuit connector 330 on the second railing assembly 120, and arranging a connection port of the second circuit connector 330 at the end of the second railing connection part 122; and arranging an intermediate circuit connector that matches the connection port positions of the first circuit connector 320 and the second circuit connector 330 at the end face of the connection accommodating part 240, it is achieved that when the assembly connector 211 is assembled on the first railing connection part 112 and the second railing connection part 122, the intermediate circuit connector is respectively connected to the connection port of the first circuit connector 320 and the connection port of the second circuit connector 330, so that the first circuit connector 320 is connected to the second circuit connector 330, and the monitoring circuit layer is in a path state.

[0061] When the assembly connector 211 is removed from the first railing connection portion 112 and the second railing connection portion 122, the intermediate circuit connector is separated from the connection port of the first circuit connector 320 and the connection port of the second circuit connector 330, thereby placing the monitoring circuit layer in an open circuit state.

[0062] The first circuit connector 320 and the second circuit connector 330 mentioned above can be understood as the two wires mentioned above that are connected to the input end and the output end of the vibration sensor 310 respectively.

[0063] See also Figure 4 、 Figure 6 In one embodiment, a receiving cavity is provided in the assembly connector 211; The accommodating cavity includes: The connecting accommodating portion 240 matches the contours and dimensions of the first railing connecting portion 112 and the second railing connecting portion 122, so that the assembly connector 211 can be assembled on the first railing connecting portion 112 and the second railing connecting portion 122 and fasten the two together; The transmission accommodating portion 250 is axially arranged along the assembly connector 211, and its opening is communicated with the external space, and is used to accommodate the transmission component 222; The locking accommodating portion 260 is in communication with the transmission accommodating portion 250 and is arranged perpendicular to the axial direction of the assembly connector 211 , for accommodating the movable locking component 212 and allowing the movable locking component 212 to partially enter the connecting accommodating portion 240 ; The driving component 221 is movably mounted on the assembly connector 211 and is connected to the transmission component 222 through the opening of the transmission accommodating portion 250 .

[0064] For details about the embodiments, please refer to Figure 3When the assembly connector 211 is assembled to the second railing connection portion 122 of the fence unit and the first railing connection portion 112 of the adjacent fence unit, that is, when the connection accommodation portion 240 is fitted onto the second railing connection portion 122 of the fence unit and the first railing connection portion 112 of the adjacent fence unit, the movable locking component 212 will completely enter the locking accommodation portion 260. When the assembly connector 211 is installed on the second railing connection portion 122 of the fence unit and the first railing connection portion 112 of the adjacent fence unit to complete the assembly, the movable locking component 212 will partially enter the connection accommodation portion 240 from the locking accommodation portion 260 and cooperate with the locking portion 140 to complete the quick connection and fixation between the adjacent basic fence units 100.

[0065] When the user needs to quickly relocate the electronic fence, they can apply force to the drive component 221 to move the outer surface of the assembly connector 211. At this point, the transmission component 222 connected to the drive component 221 will also move within the transmission accommodating portion 250, ultimately causing the movable locking component 212, which is cooperating therewith, to move, changing from being partially located within the connecting accommodating portion 240 to being completely located within the locking accommodating portion 260. At this point, the locking portion 140 is released, and the user only needs to apply tension to the assembly connector 211 to quickly remove it from the second railing connecting portion 122 of the fence unit and the first railing connecting portion 112 of the adjacent fence unit, thereby completing the rapid disassembly and relocation of the electronic fence.

[0066] Among them, see Figure 4 、 Figure 6 The locking accommodating portion 260 includes: a first locking section sized to completely accommodate the movable locking member 212; The second locking section connects the first locking section and the connecting accommodating portion 240, and its size is configured to gradually shrink from the first locking section toward the connecting accommodating portion 240, so that the movable locking component 212 can partially enter the connecting accommodating portion 240 while preventing the movable locking component 212 from completely detaching from the locking accommodating portion 260 and completely entering the connecting accommodating portion 240.

[0067] See also Figure 4 、 Figure 6 In one embodiment, the locking portion 140 is groove-shaped and is disposed around the first railing connecting portion 112 and the second railing connecting portion 122; The movable locking component 212 includes: The locking member 213 is located in the locking receiving portion 260 , has a shape matching the locking portion 140 , and is configured to partially enter the connecting receiving portion 240 ; The elastic displacement member 214 includes an elastic member 215 and a displacement member 216 connected to each other. The elastic member 215 is located between the end of the locking accommodating portion 260 and the displacement member 216. The displacement member 216 is connected to the locking member 213. In which, the displacement member 216 abuts against the transmission member 222, and is configured so that when the driving member 221 moves, the displacement member 216 undergoes a displacement change and guides the locking member 213 to partially enter the connecting accommodating portion 240 from the locking accommodating portion 260, or to retract from the connecting accommodating portion 240 and completely enter the locking accommodating portion 260.

[0068] See also Figure 5 、 Figure 7 In the process of the connecting accommodating portion 240 being fitted into the second railing connecting portion 122 of the fence unit and the first railing connecting portion 112 of the adjacent fence unit, the locking member 213 is squeezed by the outer walls of the second railing connecting portion 122 of the fence unit and the first railing connecting portion 112 of the adjacent fence unit, and the locking member 213 will switch from a state of partially entering the connecting accommodating portion 240 under the action of the elastic displacement member 214 to a state of completely entering the locking accommodating portion 260. At this time, the elastic displacement member 214 is in a compressed state. When the assembly connector 211 is installed on the second railing connection part 122 of the fence unit and the first railing connection part 112 of the adjacent fence unit to complete the assembly, the squeezing effect of the outer wall of the second railing connection part 122 of the fence unit and the first railing connection part 112 of the adjacent fence unit is lost. Under the elastic force of the elastic displacement part 214 to restore the deformation, the locking part 213 will partially enter the connection accommodating part 240 and cooperate with the locking part 140 to complete the quick connection and fixation between the adjacent basic fence units 100.

[0069] When the user needs to quickly move the electronic fence, they can apply force to the driving component 221 to move it along the outer surface of the assembly connector 211. At this time, the transmission component 222 connected to the driving component 221 will also move within the transmission accommodating portion 250, and eventually cause the displacement member 216 abutting against it to move within the locking accommodating portion 260, squeezing the elastic member 215. The locking member 213 connected to the displacement member 216 will then leave the locking portion 140 and completely retract into the locking accommodating portion 260. At this time, the locking portion 140 is released, and the user only needs to apply a pulling force to the assembly connector 211 to quickly remove the assembly connector 211 from the second railing connecting portion 122 of the fence unit and the first railing connecting portion 112 of the adjacent fence unit, thereby completing the rapid disassembly and transfer of the electronic fence.

[0070] See also Figure 6In one embodiment, the transmission accommodation portion 250 is located at an end of the assembly connection body 211 close to the first railing body 111 or the second railing body 121, and the locking accommodation portion 260 is located at an end of the assembly connection body 211 away from the first railing body 111 or the second railing body 121; The transmission accommodating portion 250 includes a first accommodating section 251 and a second accommodating section 252 that is narrower than the first accommodating section 251 . Both ends of the second accommodating section 252 are respectively connected to the first accommodating section 251 and the locking accommodating portion 260 . The transmission component 222 includes: The follower 224 is movably disposed in the first accommodating section 251 along the axial direction of the assembly connector 211, and its side is connected to the driving component 221; the elastic return component 223 is located in the first accommodating section 251 and abuts or is connected to the follower 224; The displacement driving member 225 is located in the second accommodating section 252; The push rod 226 has one end connected to the follower 224 and the other end extending from the first accommodating section 251 to the second accommodating section 252 and connected to the displacement driving member 225; The displacement member 216 includes: The displacement portion 217 is located in the locking accommodating portion 260 , with one end surface connected to the locking member 213 and the other end surface opposite thereto abutting or connected to the elastic member 215 ; The deformation portion 218 is connected to the end of the displacement portion 217 and extends from the locking accommodating portion 260 to the second accommodating section 252, and is configured to cooperate with the displacement driving member 225; The deformation portion 218 and the displacement driving member 225 are configured such that when the displacement driving member 225 moves toward the locking accommodating portion 260 , the deformation portion 218 is pushed by the displacement driving member 225 and moves in a direction perpendicular to the axial direction of the assembly connector 211 .

[0071] See also Figure 3When the user needs to quickly move the electronic fence, they can apply a force to the driving component 221 in a direction close to the first railing body 111 or the second railing body 121, causing it to move along the outer surface of the assembly connector 211. At this time, the follower 224 connected to the driving component 221 will also move within the first accommodating section 251, compressing the elastic return component 223 that is in contact with or connected to the follower 224. At the same time, the force applied by the user is transmitted to the push rod 226 connected to the follower 224, and then to the displacement driving component 225 connected to the push rod 226. When the displacement driver 225 moves toward the locking accommodating portion 260, the deformable portion 218 is pushed by the displacement driver 225 and moves in a direction perpendicular to the axial direction of the assembly connector 211, ultimately causing the displacement portion 217 connected thereto to move within the locking accommodating portion 260, causing the locking member 213 connected to the displacement portion 217 to separate from the locking portion 140 and fully retract into the locking accommodating portion 260. At this point, the locking portion 140 is released, and the user only needs to apply a force on the assembly connector 211 in a direction away from the first railing body 111 or the second railing body 121 to quickly remove the assembly connector 211 from the second railing connecting portion 122 of the fence unit and the first railing connecting portion 112 of the adjacent fence unit, thereby completing the rapid disassembly and transfer of the electronic fence.

[0072] The elastic member 215 and the elastic reset member 223 can be understood as springs, or as other elements with strong volume compression and rebound capabilities.

[0073] See also Figure 4 、 Figure 8 In one embodiment, the transmission accommodation portion 250 is located at an end of the assembly connection body 211 away from the first railing body 111 or the second railing body 121, and the locking accommodation portion 260 is located at an end of the assembly connection body 211 close to the first railing body 111 or the second railing body 121; The transmission accommodating portion 250 includes a first accommodating section 251 and a second accommodating section 252 that is narrower than the first accommodating section 251 . Both ends of the second accommodating section 252 are respectively connected to the first accommodating section 251 and the locking accommodating portion 260 . The transmission component 222 includes: The follower 224 is movably disposed in the first accommodating section 251 along the axial direction of the assembly connector 211, and its side is connected to the driving component 221; the elastic return component 223 is located in the first accommodating section 251 and abuts or is connected to the follower 224; The displacement driving member 225 is located in the second accommodating section 252; The push rod 226 has one end connected to the follower 224 and the other end extending from the first accommodating section 251 to the second accommodating section 252 and connected to the displacement driving member 225; The displacement member 216 includes: The displacement portion 217 is located in the locking accommodating portion 260 , with one end surface connected to the locking member 213 and the other end surface opposite thereto abutting or connected to the elastic member 215 ; The deformation portion 218 is connected to the end of the displacement portion 217 and extends from the locking accommodating portion 260 to the second accommodating section 252, and is configured to cooperate with the displacement driving member 225; The deformation portion 218 and the displacement driving member 225 are configured such that when the displacement driving member 225 moves toward the locking accommodating portion 260 , the deformation portion 218 is pushed by the displacement driving member 225 and moves in a direction perpendicular to the axial direction of the assembly connector 211 .

[0074] In this embodiment, the working principle and basic effects of the quick-release assembly unit 200 are substantially the same as those of the previous embodiment. However, due to the different relative positions of the transmission accommodating portion 250 and the locking accommodating portion 260, the user's force application method on the driving component 221 is also different.

[0075] In the previous embodiment, the user needs to first apply a force to the driving component 221 in a direction close to the first railing body 111 or the second railing body 121 to make the locking member 213 completely release the locking portion 140, and then apply a force to the driving component 221 in a direction away from the first railing body 111 or the second railing body 121 to disengage the assembly connector 211 from the first railing connection portion 112 and the second railing connection portion 122.

[0076] In this embodiment, the user only needs to apply a force on the driving component 221 in a direction away from the first railing body 111 or the second railing body 121 to complete the two steps of completely releasing the locking part 140 by the locking member 213 and detaching the assembly connector 211 from the first railing connection part 112 and the second railing connection part 122 in one go, making the overall operation faster and more convenient.

[0077] See also Figure 4 、 Figure 6 In one embodiment, the deformation portion 218 includes: The first guide section is arranged axially along the assembly connector 211 , and the distance between the first guide section and the side wall of the second accommodating section 252 is configured to just accommodate the displacement driving member 225 ; The second guide section is arranged at an angle to the axial direction of the assembly connector 211 . One end of the second guide section is connected to the first guide section, and the other end is connected to the displacement portion 217 .

[0078] The above arrangement is to realize that when the displacement driving member 225 moves toward the locking accommodating portion 260, the displacement driving member 225 will move along the direction restricted by the first guide segment and finally contact the second guide segment, and push the second guide segment to make the second guide segment move along the direction perpendicular to the axial direction of the assembly connector 211, and then guide the locking member 213 to leave the locking portion 140 through the displacement portion 217 connected thereto, thereby releasing the lock.

[0079] See also Figure 8 In one embodiment, the transmission accommodation portion 250 is located at an end of the assembly connection body 211 away from the first railing body 111 or the second railing body 121, and the locking accommodation portion 260 is located at an end of the assembly connection body 211 close to the first railing body 111 or the second railing body 121; The transmission accommodating portion 250 includes a first accommodating section 251 and a second accommodating section 252 that is narrower than the first accommodating section 251 . One end of the second accommodating section 252 is connected to the first accommodating section 251 , and the other end thereof is connected to the locking accommodating portion 260 via a through hole. The transmission component 222 includes: The follower 224 is movably disposed in the first accommodating section 251 along the axial direction of the assembly connector 211, and its side is connected to the driving component 221; the elastic return component 223 is located in the first accommodating section 251 and abuts or is connected to the follower 224; The traction member 227 has one end connected to the follower 224 and the other end extending from the second accommodating section 252 into the locking accommodating portion 260 and connected to the displacement member 216; The follower 224 and the displacement member 216 are configured such that when the follower 224 moves away from the locking accommodating portion 260 , the displacement member 216 moves in a direction perpendicular to the axial direction of the assembly connector 211 under the traction of the traction member 227 .

[0080] When a user needs to quickly relocate the electronic fence, they can apply a force to the driving component 221 in a direction toward the first railing body 111 or the second railing body 121, causing it to move along the outer surface of the assembly connector 211. At this point, the follower 224 connected to the driving component 221 also moves within the first accommodating section 251, compressing the elastic return member 223 abutting or connected to the follower 224. Simultaneously, the force applied by the user is transmitted to the traction member 227 connected to the follower 224, and subsequently to the displacement member 216 connected to the traction member 227. Under the traction of the traction member 227, the displacement member 216 moves in a direction perpendicular to the axial direction of the assembly connector 211, ultimately causing the displacement member 216 connected thereto to move within the locking accommodating portion 260, causing the locking member 213 connected to the displacement member 217 to move away from the locking portion 140 and fully retract into the locking accommodating portion 260. At this time, the locking portion 140 is released, and the user only needs to apply a force on the assembly connector 211 in a direction away from the first railing body 111 or the second railing body 121 to quickly remove the assembly connector 211 from the second railing connection portion 122 of the fence unit and the first railing connection portion 112 of the adjacent fence unit, thereby completing the rapid disassembly and transfer of the electronic fence.

[0081] See also Figure 8 In one embodiment, the transmission component 222 further includes a guide member 228, and the guide member 228 includes a pulley assembly; the pulley assembly is arranged in the second accommodating section 252 and is located at the through hole, and is cooperated with the traction member 227 to change the extension direction of the traction member 227, thereby making the disassembly process smoother.

[0082] The technical features of the above-mentioned embodiments can be combined arbitrarily. In order to make the description concise, not all possible combinations of the technical features in the above-mentioned embodiments are described. However, as long as there is no contradiction in the combination of these technical features, they should be considered to be within the scope of this specification.

[0083] The above-described embodiments merely represent several implementation methods of the present invention. While the descriptions are relatively specific and detailed, they should not be construed as limiting the scope of the patent. It should be noted that a person skilled in the art would be able to make various modifications, substitutions, and improvements without departing from the spirit of the present invention, all of which fall within the scope of protection of the present invention. Therefore, the scope of protection of the patent for this invention should be determined by the claims.

Claims

1. An electronic fence that can be quickly deployed and structurally adjusted, characterized in that: include: A basic fence layer, comprising a plurality of basic fence units; A quick-disassembly assembly layer, comprising a plurality of quick-disassembly assembly units, for realizing quick connection and separation between adjacent basic fence units; A monitoring circuit layer, comprising a plurality of monitoring circuit units, distributed on the basic fence layer; Among them, the quick-release assembly layer is arranged in conjunction with the monitoring circuit layer so that when multiple basic fence units are connected adjacent to each other in sequence, the monitoring circuit layer will be in a connection state for monitoring the state of the basic fence layer.

2. The electronic fence capable of rapid deployment and structural adjustment according to claim 1, characterized in that: The basic fence unit includes: A first railing assembly includes a first railing body and a first railing connecting portion provided at the top end of the first railing body; A second railing assembly includes a second railing body and a second railing connecting portion provided at a top end of the second railing body; a fence assembly disposed between the first railing assembly and the second railing assembly; Wherein, the first railing connecting portion and the second railing connecting portion are both provided with a locking portion; The quick-disassembly assembly unit comprises: An assembly component comprising an assembly connector matching the first railing connection portion and the second railing connection portion, and a movable locking component provided on the assembly connector, the movable locking component matching the locking portion; A quick-release assembly comprising a driving component, a transmission component connected to the driving component, and an elastic reset component for driving the transmission component to reset; A switch component, provided on the assembly connector, for controlling the on / off state of the monitoring circuit layer; Wherein, the quick-release assembly is assembled on the assembly connector and is arranged in cooperation with the movable locking component so that when the driving component moves, the movable locking component also moves accordingly; When the assembly connector is assembled on the first railing connection portion and the second railing connection portion, and the two are locked and connected together by the movable locking component, the monitoring circuit layer is in a connection state.

3. The electronic fence capable of rapid deployment and structural adjustment according to claim 2, characterized in that: A accommodating cavity is provided in the assembly connecting body; The accommodating cavity includes: The connecting accommodating portion matches the profile and size of the first railing connecting portion and the second railing connecting portion, so that the assembly connector can be assembled on the first railing connecting portion and the second railing connecting portion and fasten the two together; a transmission accommodating portion, arranged axially along the assembly connector, with an opening thereof communicating with the external space, for accommodating the transmission component; a locking accommodating portion, communicated with the transmission accommodating portion and arranged perpendicularly to the axial direction of the assembly connector, for accommodating the movable locking component and allowing the movable locking component to partially enter the connection accommodating portion; Wherein, the driving component is movably sleeved on the assembly connector and is connected to the transmission component through the opening of the transmission accommodating portion.

4. The electronic fence capable of rapid deployment and structural adjustment according to claim 3, characterized in that: The locking portion is groove-shaped and is annularly arranged on the first railing connecting portion and the second railing connecting portion; The movable locking component comprises: a locking member located in the locking accommodating portion, having a shape matching that of the locking portion and configured to partially enter the connecting accommodating portion; an elastic displacement member, comprising an elastic member and a displacement member connected to each other, wherein the elastic member is located between an end portion of the locking accommodating portion and the displacement member, and the displacement member is connected to the locking member; Wherein, the displacement member abuts against the transmission member and is configured so that when the driving member moves, the displacement member undergoes a displacement change and guides the locking member to partially enter the connecting accommodating portion from the locking accommodating portion, or to retract from the connecting accommodating portion and completely enter the locking accommodating portion.

5. The electronic fence capable of rapid deployment and structural adjustment according to claim 4, characterized in that: The transmission accommodating portion is located at an end of the assembly connecting body away from the first railing main body or the second railing main body, and the locking accommodating portion is located at an end of the assembly connecting body close to the first railing main body or the second railing main body; The transmission accommodating portion includes a first accommodating section and a second accommodating section narrower than the first accommodating section, and two ends of the second accommodating section are respectively connected to the first accommodating section and the locking accommodating portion; The transmission components include: The follower is movably arranged in the first accommodating section along the axial direction of the assembly connector, and its side is connected to the driving component; the elastic reset component is located in the first accommodating section and abuts against or is connected to the follower; a displacement driving member, located in the second accommodating section; a push rod, one end of which is connected to the driven member, and the other end of which extends from the first accommodating section to the second accommodating section and is connected to the displacement driving member; Wherein, the displacement member includes: a displacement portion, located in the locking accommodating portion, with one end surface connected to the locking member and the other opposite end surface abutting or connected to the elastic member; a deformation portion connected to an end of the displacement portion, extending from the locking accommodating portion to the second accommodating section, and cooperating with the displacement driving member; The deformation portion and the displacement driving member are configured such that when the displacement driving member moves toward the locking accommodating portion, the deformation portion is pushed by the displacement driving member and moves in a direction perpendicular to the axial direction of the assembly connector.

6. The electronic fence capable of rapid deployment and structural adjustment according to claim 4, characterized in that: The transmission accommodating portion is located at an end of the assembly connecting body close to the first railing body or the second railing body, and the locking accommodating portion is located at an end of the assembly connecting body away from the first railing body or the second railing body; The transmission accommodating portion includes a first accommodating section and a second accommodating section narrower than the first accommodating section, and two ends of the second accommodating section are respectively connected to the first accommodating section and the locking accommodating portion; The transmission components include: The follower is movably arranged in the first accommodating section along the axial direction of the assembly connector, and its side is connected to the driving component; the elastic reset component is located in the first accommodating section and abuts against or is connected to the follower; a displacement driving member, located in the second accommodating section; a push rod, one end of which is connected to the driven member, and the other end of which extends from the first accommodating section to the second accommodating section and is connected to the displacement driving member; Wherein, the displacement member includes: a displacement portion, located in the locking accommodating portion, with one end surface connected to the locking member and the other opposite end surface abutting or connected to the elastic member; a deformation portion connected to an end of the displacement portion, extending from the locking accommodating portion to the second accommodating section, and cooperating with the displacement driving member; The deformation portion and the displacement driving member are configured such that when the displacement driving member moves toward the locking accommodating portion, the deformation portion is pushed by the displacement driving member and moves in a direction perpendicular to the axial direction of the assembly connector.

7. The electronic fence capable of rapid deployment and structural adjustment according to claim 5 or 6, characterized in that: The deformation portion includes: a first guide section, arranged axially along the assembly connector, wherein the distance between the first guide section and a side wall of the second accommodating section is configured to just accommodate the displacement driving member; The second guide section is arranged at an angle to the axial direction of the assembly connector. One end of the second guide section is connected to the first guide section, and the other end is connected to the displacement portion.

8. The electronic fence capable of rapid deployment and structural adjustment according to claim 4, characterized in that: The transmission accommodating portion is located at an end of the assembly connecting body away from the first railing main body or the second railing main body, and the locking accommodating portion is located at an end of the assembly connecting body close to the first railing main body or the second railing main body; The transmission accommodating portion includes a first accommodating section and a second accommodating section narrower than the first accommodating section; One end of the second accommodating section is communicated with the first accommodating section, and the other end thereof is communicated with the locking accommodating portion via a through hole; The transmission components include: The follower is movably arranged in the first accommodating section along the axial direction of the assembly connector, and its side is connected to the driving component; the elastic reset component is located in the first accommodating section and abuts against or is connected to the follower; a traction member, one end of which is connected to the driven member, and the other end of which extends from the second accommodating section into the locking accommodating portion and is connected to the displacement member; The driven member and the displacement member are configured such that when the driven member moves in a direction away from the locking accommodating portion, the displacement member moves in a direction perpendicular to the axial direction of the assembly connector under the traction of the traction member.

9. The electronic fence capable of rapid deployment and structural adjustment according to claim 8, characterized in that: The transmission component further includes a guide member, and the guide member includes a pulley assembly; the pulley assembly is arranged in the second accommodating section and located at the through hole, and is arranged in cooperation with the traction member to change the extension direction of the traction member.

10. The electronic fence capable of rapid deployment and structural adjustment according to any one of claims 1-6, 8, and 9, characterized in that: The monitoring circuit layer further includes a plurality of circuit connection units for connecting adjacent monitoring circuit units; The monitoring circuit unit includes at least a vibration sensor, which is provided on the basic fence unit; the circuit connection unit includes: a first circuit connector, a connection port of which is provided at an end portion of the first railing connection portion; a second circuit connector, a connection port of which is provided at an end portion of the second railing connection portion; An intermediate circuit connector, whose connection port is arranged at the end face of the connection accommodating portion and matches the connection port positions of the first circuit connector and the second circuit connector, is used to realize electrical connection and disconnection between the first circuit connector and the second circuit connector, so as to realize on-off control of the circuit where the monitoring circuit unit is located.

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