Intelligent bearing sleeve for gear box inner bearing

Abstract

The application discloses an intelligent bearing sleeve for a bearing in a gear box, belongs to the field of intelligent monitoring devices for gear box bearings, and aims to conveniently monitor bearings online. The intelligent bearing sleeve comprises a bearing sleeve body, a mounting groove is arranged on the outer circumferential surface of the bearing sleeve body, a core module is arranged in the mounting groove, a sensor is embedded on the bearing sleeve body, a lead groove extending in a ring shape is arranged on the outer circumferential surface of the bearing sleeve body, a lead wire is laid in the lead groove, one end of the lead wire is inserted into a jack of the core module, and the other end of the lead wire is in communication with the sensor. The application discloses the intelligent bearing sleeve for the rolling bearing, through arrangement of the sensor, the core module and other components on the bearing sleeve body, integration between the bearing sleeve and the detection device is realized, the rolling bearing can be monitored online at any time after the bearing sleeve is installed on the rolling bearing, the problem that a hole needs to be punched on the gear box for measurement in the traditional way is avoided, the gear box equipment is more intelligent, and the monitoring is more convenient and fast.

Description

TECHNICAL FIELD

[0001] The application belongs to the technical field of intelligent monitoring device for gear box bearing, in particular to an intelligent bearing sleeve for bearing in gear box. BACKGROUND

[0002] Rolling bearing is the core component of gear box equipment, and its quality directly affects the efficiency and reliability of metallurgical equipment. The bearing has the characteristics of long service life, high reliability, high rotation accuracy, good stability, small starting torque, flexible rotation and good corrosion resistance. The traditional bearing sleeve only has the functions of protecting the bearing hole and adjusting the eccentricity.

[0003] At present, the traditional process needs to drill temperature measuring holes and vibration measuring holes on the gear box body or cover for temperature and vibration measurement of the bearing of the gear box, which inevitably increases the process, increases the cost, prolongs the working hours, and cannot monitor the stress of the bearing in the gear box. The bearing sleeve currently used in the gear box does not have the ability to detect the stress, temperature and vibration of the bearing. SUMMARY

[0004] The purpose of the application is to solve the problem of inconvenient monitoring of the stress, temperature and vibration of the bearing in the gear box, and to provide an intelligent bearing sleeve for bearing in gear box for online and convenient monitoring of the bearing.

[0005] The technical scheme adopted by the application is: the intelligent bearing sleeve for bearing in gear box, the gap between the gear box and the bearing outer ring is the installation area, the gap between the gear box and the bearing outer ring is D, 60mm≤D≤80mm; the bearing sleeve body is provided with an inner recessed installation groove on the outer circumferential surface of the bearing sleeve body, and a core module matched with the installation groove is arranged in the installation groove; a plug hole is arranged at one end of the core module along the bearing sleeve body in a ring shape;

[0006] A sensor is also embedded on the bearing sleeve body;

[0007] A ring-shaped extending wire groove is arranged on the outer circumferential surface of the bearing sleeve body, one end of the wire groove extends to the installation groove, and the other end extends to the sensor; a wire is laid in the wire groove, one end of the wire is inserted into the plug hole of the core module, and the other end is in communication with the sensor.

[0008] Further, the sensor on the bearing sleeve body includes a pressure sensor, and the wire groove where the pressure sensor is installed surrounds the bearing sleeve body; N pressure sensors are uniformly arranged along the wire laying path; 3≤N≤10; N test zones are formed along the bearing sleeve body by the N pressure sensors; one pressure sensor is arranged in each test zone, and the pressure sensor is located in the middle of the corresponding test zone in a ring shape.

[0009] Further, the sensors on the bearing sleeve body further include a temperature sensor and a vibration sensor.

[0010] The wire slot includes wire slot one, wire slot two and wire slot three arranged axially side by side along the bearing sleeve body; the wire installed in the wire slot one connects the temperature sensor and the core module; the wire installed in the wire slot two connects the pressure sensor and the core module; the wire installed in the wire slot three connects the vibration sensor and the core module.

[0011] Further, the wire slot two is located in the middle of the bearing sleeve body along the axial direction of the bearing sleeve body; the wire slot one and the wire slot three are symmetrically arranged about the wire slot two.

[0012] Further, the jack provided on the core module is three, and the three jacks are respectively inserted into the wires of the temperature sensor, the vibration sensor and the pressure sensor.

[0013] Further, the wire includes a wire body and a plug at the outer end of the wire body along the length direction of the wire; the wire body includes a base body, a power line and an information transmission line; the base body is matched with the wire slot, and the power line and the information transmission line are inserted into the base body along the length extension direction of the base body; the jack is tapered along the axial direction of the jack, and the side wall of the jack is provided with a power magnetic attraction piece and an information magnetic attraction piece, and the power magnetic attraction piece and the information magnetic attraction piece are oppositely arranged; the plug is tapered and matched with the jack, and the power line and the information transmission line extend to the side wall of the plug, and the contact point of the power line on the side wall of the plug is magnetically connected with the power magnetic attraction piece, and the contact point of the information transmission line on the side wall of the plug is magnetically connected with the information magnetic attraction piece.

[0014] Further, along the radial direction of the bearing sleeve body, the core module is located on the inner side of the slot opening of the installation slot, and the wire is located on the inner side of the slot opening of the wire slot.

[0015] Further, the cross section of the wire slot is trapezoidal, which is gradually expanded from the slot bottom to the slot opening.

[0016] Further, the wire includes a wire body and a plug at the outer end of the wire body along the length direction of the wire;

[0017] The wire body includes a base body, a power line and an information transmission line; the base body is matched with the wire slot, and the power line and the information transmission line are inserted into the base body along the length extension direction of the base body.

[0018] Further, the base body is made of synthetic resin; the protrusions are provided on the two side surfaces of the base body; the recesses are provided on the inner side wall of the wire slot; when the wire is installed in the wire slot, the protrusions are inserted into the recesses on the inner side wall of the wire slot.

[0019] Further, the installation groove is in the shape of a bucket gradually expanding from the groove bottom to the groove opening; the core module comprises an external closed shell and power supply device, signal processing device and signal transmission device arranged in the shell; the shell is made of resin and is adapted to the installation groove; the inner wall of the shell, the power supply device, the signal processing device and the signal transmission device are filled with shock-absorbing material.

[0020] The intelligent bearing sleeve for the bearing in the gear box has the advantages that the sensor, the core module and other components are arranged on the bearing sleeve body, the integration between the bearing sleeve and the detection device is realized, the rolling bearing can be monitored online at any time after the bearing sleeve is installed on the rolling bearing, the problem of punching holes on the gear box for measurement in the prior art is avoided, the gear box equipment is more intelligent, and the monitoring is more convenient and fast.

[0021] The stress condition, temperature and vibration condition of the bearing load-bearing part can be detected through the temperature sensor, the vibration sensor and the pressure sensor, the load of each point of the bearing, the temperature of each point of the bearing and the vibration of each point of the bearing are analyzed, and the working condition and the load of the bearing and the gear box are judged, and the monitoring is comprehensive.

[0022] The wire groove two surrounds the bearing sleeve body for one round; N pressure sensors are uniformly arranged along the wire laying path of the wire groove two; the N pressure sensors form N test zones along the bearing sleeve body in the ring direction; one pressure sensor is arranged in each test zone, and the pressure sensor is located in the middle of the corresponding test zone in the ring direction, so that each pressure sensor can monitor the stress of the rolling bearing in each test zone, the stress condition of each region of the rolling bearing can be known, the monitoring is more comprehensive and specific, the weak regions of the rolling bearing prone to deformation and damage under each working condition can be conveniently and accurately judged, the working condition of the equipment can be judged through the sudden change of the data detected by the pressure sensor in each test zone, or the equipment operation is abnormal, the situation can be known in time when the abnormality occurs, the processing measures can be taken in time, the loss can be avoided, and the running condition of the rolling bearing can be accurately known. BRIEF DESCRIPTION OF DRAWINGS

[0023] Figure 1 It is a structural diagram of the bearing sleeve body;

[0024] Figure 2 It is a structural diagram of the core module;

[0025] Figure 3 It is a sectional view of the core module;

[0026] Figure 4 It is a structural diagram of the wire;

[0027] Figure 5 It is a sectional view of the wire;

[0028] Figure 6 is a schematic view of the wire groove section;

[0029] Figure 7 is a schematic view of the pressure sensor distribution;

[0030] Figure 8 is a schematic view of the plug of the wire inserted into the jack of the core module;

[0031] Figure 9 is a schematic view of the bearing sleeve installed in the gear box;

[0032] Figure 10 is a schematic view of Figure 9 is a partial enlarged view of A.

[0033] In the figure, bearing sleeve body 1, installation groove 1A, wire groove 1B, wire groove one 1B1, wire groove two 1B2, wire groove three 1B3, groove 1C, core module 2, shell 21, power supply device 22, signal processing device 23, signal transmission device 24, jack 2A, sensor 3, temperature sensor 31, vibration sensor 32, pressure sensor 33, wire 4, wire body 41, protrusion 41A, base body 411, power supply line 412, information transmission line 413, plug 42, gear box 5, bearing outer ring 6, power supply magnetic attraction piece 7, information magnetic attraction piece 8. DETAILED DESCRIPTION

[0034] The application is further described below in combination with the accompanying drawings and examples:

[0035] The intelligent bearing sleeve for the bearing in the gear box, as shown in Figure 9 and Figure 10 , the gap between the gear box 5 and the bearing outer ring 6 is the installation area, the gap between the gear box 5 and the bearing outer ring 6 is D, 60mm≤D≤80mm, that is, the bearing sleeve is in a narrow and closed environment, and the installation area is narrow. The intelligent bearing sleeve for the bearing in the gear box includes a bearing sleeve body 1, which is directly used in cooperation with the rolling bearing. As shown in Figure 1 , an inner recessed installation groove 1A is arranged on the outer circumferential surface of the bearing sleeve body 1, and the installation groove 1A is used for installing a core module 2. As shown in Figure 2 , the core module 2 is adapted to the installation groove 1A, that is, the shape of the core module 2 is similar to that of the installation groove 1A, and the size satisfies the condition of being installed in the installation groove 1A. As shown in Figure 3 , the core module 2 is the center of signal processing, which includes a power supply device for power supply, a signal processing device for processing signals, and a signal transmission device for receiving and transmitting signals. The core module 2 is fixed in the installation groove 1A to ensure the stability of the installation and avoid the core module 2 from falling off due to vibration and other factors.

[0036] Along the circumferential direction of the bearing sleeve body 1, a core module 2 is arranged at one end of the bearing sleeve body 1, and the core module 2 is provided with a plug hole 2A for inserting a wire 4.

[0037] A sensor 3 is further embedded on the outer circumferential surface of the bearing sleeve body 1, and the sensor 3 is used for monitoring the rolling bearing and collecting information related to the rolling bearing. When arranged, a sensor mounting hole is arranged on the bearing sleeve body 1 and penetrates the side wall of the bearing sleeve body 1 in the radial direction, and the sensor 3 is inserted into the sensor mounting hole. It is necessary to ensure that the sensor 3 is firmly installed in the sensor mounting hole to prevent the sensor from slipping off.

[0038] A wire groove 1B extending in the circumferential direction is arranged on the outer circumferential surface of the bearing sleeve body 1, and the wire groove 1B is used for laying the wire 4 to connect the sensor 3 and the core module 2. Therefore, one end of the wire groove 1B extends to the mounting groove 1A, and the other end extends to the sensor 3. One end of the wire 4 is inserted into the plug hole 2A of the core module 2, and the other end is connected with the sensor 3, so that the sensor 3 and the core module 2 communicate with each other. The relevant data of the rolling bearing monitored by the sensor 3 is transmitted to the core module 2, and the core module 2 analyzes and processes the data.

[0039] The intelligent bearing sleeve for the gearbox inner bearing integrates the core module 2, the detection sensor 3, and the wire 4 in the bearing sleeve body 1, and accommodates them in the bearing sleeve body 1. The size of the intelligent bearing sleeve is consistent with that of the conventional bearing sleeve, and it can be used in the narrow installation area between the gearbox 5 and the bearing outer ring 6 to monitor the bearing in the gearbox in real time.

[0040] During actual monitoring, the temperature, vibration, and stress of the rolling bearing need to be monitored. Therefore, the sensor 3 on the bearing sleeve body 1 includes a temperature sensor 31, a vibration sensor 32, and a pressure sensor 33. The wire groove 1B includes a wire groove one 1B1, a wire groove two 1B2, and a wire groove three 1B3 arranged side by side along the axial direction of the bearing sleeve body 1. The wire 4 installed in the wire groove one 1B1 connects the temperature sensor 31 and the core module 2. The wire 4 installed in the wire groove two 1B2 connects the pressure sensor 33 and the core module 2. The wire 4 installed in the wire groove three 1B3 connects the vibration sensor 32 and the core module 2. By independently arranging the wire grooves and independently laying the wires 4 to connect the core module 2 and the corresponding sensors, the paths between each sensor and the core module 2 are independent of each other, avoiding the problem of wire entanglement, and facilitating the stable installation of the wires 4.

[0041] The sensor 3 on the bearing sleeve body 1 has three, respectively, temperature sensor, vibration sensor and pressure sensor. In order to adapt to the installation of the wire 4, and respectively transmit the corresponding data to the core module 2, the jack 2A on the core module 2 has three. One jack 2A is inserted with a wire 4, and the other end of the three wires 4 is connected with the temperature sensor 31, the vibration sensor 32 and the pressure sensor 33 respectively.

[0042] In order to monitor the rolling bearing by area around the rolling bearing, the force condition of each area of the rolling bearing can be obtained accurately, the wire groove two 1B2 is arranged around the bearing sleeve body 1; the wire 4 along the wire groove two 1B2 is evenly arranged with N pressure sensors 33; 3≤N≤10; N test areas are formed along the bearing sleeve body 1 by the N pressure sensors 33; one pressure sensor 33 is arranged in each test area, and the pressure sensor 33 is located in the middle of the corresponding test area along the ring. Each pressure sensor 33 monitors the force of the rolling bearing in each test area, so that the force condition of each area can be obtained, and the weak position of the rolling bearing can be obtained according to the force condition of each area; the working condition change of the rolling bearing during work can be understood, and the force abnormality can be obtained through the sudden change of the detection data of the pressure sensor 33 in each test area.

[0043] The following takes N=6 as an example, as shown in the accompanying Figure 7 The six pressure sensors 33 are respectively A1 pressure sensor, A2 pressure sensor, A3 pressure sensor, A4 pressure sensor, A5 pressure sensor and A6 pressure sensor. Along the bearing sleeve body 1, it is divided into A1 test area, A2 test area, A3 test area, A4 test area, A5 test area and A6 test area; A1 pressure sensor is located in the middle of A1 test area, monitoring the force condition of rolling bearing in A1 test area; A2 pressure sensor is located in the middle of A2 test area, monitoring the force condition of rolling bearing in A2 test area; A3 pressure sensor is located in the middle of A3 test area, monitoring the force condition of rolling bearing in A3 test area; A4 pressure sensor is located in the middle of A4 test area, monitoring the force condition of rolling bearing in A4 test area; A5 pressure sensor is located in the middle of A5 test area, monitoring the force condition of rolling bearing in A5 test area; A6 pressure sensor is located in the middle of A6 test area, monitoring the force condition of rolling bearing in A6 test area. If the pressure data monitored by A1 pressure sensor is greater than the detection data of other pressure sensors, it is prompted that the rolling bearing in A1 test area is larger, and compared with other positions, it is more likely to cause deformation, damage and the like due to force. During work, if the monitoring data of one or more pressure sensors, such as A3 pressure sensor and A4 pressure sensor, is suddenly changed, it is prompted that the working condition of the equipment may be changed, or the equipment operation is abnormal, which has practicality for the accurate or rolling bearing operation.

[0044] In order to make the force point of the bearing sleeve located in the middle of the bearing sleeve body 1 along the axial direction of the bearing sleeve body 1, preferably, the wire groove one 1B1 and the wire groove three 1B3 are symmetrically arranged about the wire groove two 1B2; the wire groove two 1B2 is located in the middle of the bearing sleeve body 1 along the axial direction of the bearing sleeve body 1.

[0045] Along the radial direction of the bearing sleeve body 1, the core module 2 is located inside the slot of the mounting groove 1A, that is, the slot of the mounting groove 1A is higher than the outer side surface of the core module 2, and the height is 3-8mm, and it is more appropriate to be higher than 5mm. In this way, the core module 2 is protected from being loaded by the slot of the mounting groove 1A.

[0046] Similarly, the wire 4 is located inside the slot of the wire groove 1B, that is, the slot of the wire groove 1B is higher than the wire 4, and the height is 3-8mm, and it is more appropriate to be higher than 5mm. In this way, the wire 4 is protected from being loaded by the slot of the wire groove 1B and the load is transmitted to the core module 2 and other problems.

[0047] The wire groove 1B can be a rectangular groove, but the slot of the rectangular groove is a 90° corner, and the slot is small, which is not only not conducive to the assembly of the wire 4 into the wire groove 1B, but also easy to scratch the wire 4. In order to avoid the above problems, in the embodiment, the cross section of the wire groove 1B is trapezoidal, which gradually expands from the groove bottom to the slot.

[0048] In order to facilitate the plug-in of the wire 4 and the core module 2 and the sensor, as shown in the figure, Figure 4 The wire 4 includes a wire body 41 and a plug 42 at the outer end of the wire body 41 along the length direction of the wire 4.

[0049] As shown in the figure, Figure 5 The wire body 41 includes a base body 411, a power line 412 and an information transmission line 413; the base body 411 is matched with the wire groove 1B, and the power line 412 and the information transmission line 413 are inserted into the base body 411 along the length direction of the base body 411. By forming a whole through the base body 411, the power line 412 and the information transmission line 413, the installation of the wire 4 is facilitated, and compared with the independent setting of the power line 412 and the information transmission line 413, it is more convenient to store.

[0050] In order to stabilize the wire 4 and avoid the wire 4 from falling off, the base body 411 is made of synthetic resin, which has a certain flexibility and can be assembled into the wire groove 1B by extrusion and contraction. After being assembled into the wire groove 1B, it expands by restoring the deformation, so as to be closely combined with the wire groove 1B, thereby improving the stability of the installation of the wire 4. The protrusions 41A are arranged on the two side surfaces of the base body 411. Figure 6As shown, a recessed groove 1C is provided on the inner wall of the wire groove 1B; when the wire 4 is installed in the wire groove 1B, the protrusion 41A is inserted into the groove 1C on the inner wall of the wire groove 1B. The insertion of the protrusion 41A into the groove 1C on the inner wall of the wire groove 1B serves to limit the wire 4, preventing it from falling off. In summary, in this embodiment, the flexibility of the synthetic resin matrix 44, combined with the wire groove 1B, and the mutual cooperation between the groove 1C and the protrusion 41A, achieves double fixation of the wire 4, ensuring the stable and reliable installation of the wire 4.

[0051] Since the connection between the sensor and the core module 2 is achieved by inserting the plug 42 of the wire 4 into the socket 2A of the core module 2, in order to better prevent the plug 42 of the wire 4 from coming loose during the operation of the gearbox, and to better facilitate the accurate insertion of the plug 42 into the core module 2, so as to ensure effective communication between the sensor and the core module 2, as follows: Figure 8 As shown, the socket 2A is tapered along its axial direction, gradually narrowing from the opening to the bottom. A power magnetic plate 7 and an information magnetic plate 8 are provided on the side wall of the socket 2A, with the power magnetic plate 7 and the information magnetic plate 8 arranged opposite to each other. The plug 42 is tapered to fit the socket 2A. The power line 412 and the information transmission line 413 extend to the side wall of the plug 42. The contact point of the power line 412 on the side wall of the plug 42 is magnetically connected to the power magnetic plate 7, and the contact point of the information transmission line 413 on the side wall of the plug 42 is magnetically connected to the information magnetic plate 8.

[0052] Similarly, in order to facilitate the installation of the core module 2, the installation slot 1A is a bucket shape that gradually expands outward from the bottom to the opening. The bucket shape can be a square bucket or a round bucket, etc.

[0053] like Figure 3As shown, the core module 2 includes a housing 21, a power supply unit 22, a signal processing unit 23, and a signal transmission unit 24. The housing 21 is the part that directly connects to the mounting groove 1A; therefore, the housing 21 is adapted to the mounting groove 1A, meaning its shape is similar to the mounting groove 1A and it can be tightly assembled into the mounting groove 1A. The resin-made housing 21 has a certain degree of flexibility, allowing it to be assembled into the mounting groove 1A through compression and contraction. After assembly into the mounting groove 1A, it expands back to its original shape, thus tightly connecting with the mounting groove 1A and improving the stability of the core module 2 installation. The flexible housing 21 also has a certain degree of shock absorption, reducing the impact of vibration on the internal power supply unit 22, signal processing unit 23, and signal transmission unit 24. Furthermore, the housing 21 encloses the power supply unit 22, signal processing unit 23, and signal transmission unit 24, reducing the impact of dust, grease, etc., on these components. The inner wall of the housing 21, the power supply device 22, the signal processing device 23, and the signal transmission device 24 are filled with shock-absorbing material to further reduce vibration. The power supply device 22 provides the electrical energy required for the operation of components such as the signal processing device 23, the signal transmission device 24, and the sensors. The signal processing device 23 receives information collected by the sensors and processes and analyzes it. The signal transmission device 24 transmits the information collected by the sensors to the signal processing device 23 and transmits the processed information to the terminal for display, etc.

Claims

1. An intelligent bearing sleeve for the bearing inside the gearbox, wherein the gap between the gearbox (5) and the outer ring (6) of the bearing is its installation area, and the gap between the gearbox (5) and the outer ring (6) of the bearing is D, 60mm≤D≤80mm; characterized in that: The bearing sleeve body (1) includes a recessed mounting groove (1A) on the outer circumferential surface of the bearing sleeve body (1), and a core module (2) adapted to the mounting groove (1A) is provided in the mounting groove (1A); along the circumferential direction of the bearing sleeve body (1), a socket (2A) is provided at one end of the core module (2); A sensor (3) is also embedded in the bearing sleeve body (1); A circumferentially extending wire groove (1B) is provided on the outer circumferential surface of the bearing sleeve body (1). One end of the wire groove (1B) extends to the mounting groove (1A) and the other end extends to the sensor (3). A wire (4) is laid in the wire groove (1B). One end of the wire (4) is inserted into the socket (2A) of the core module (2) and the other end is connected to the sensor (3).

2. The intelligent bearing sleeve for gearbox bearings as described in claim 1, characterized in that: The sensor (3) on the bearing sleeve body (1) includes a pressure sensor (33). The wire groove (1B) for installing the pressure sensor (33) surrounds the bearing sleeve body (1) around the circumference. N pressure sensors (33) are evenly arranged along the laying path of the wire (4). 3≤N≤10. N test areas are formed around the bearing sleeve body (1) through the N pressure sensors (33). Each test area is provided with a pressure sensor (33), and the pressure sensor (33) is located in the middle of the corresponding test area along the circumference.

3. The intelligent bearing sleeve for gearbox internal bearings as described in claim 2, characterized in that: The sensor (3) on the bearing sleeve body (1) also includes a temperature sensor (31) and a vibration sensor (32); The wire groove (1B) includes wire groove one (1B1), wire groove two (1B2) and wire groove three (1B3) arranged side by side along the axial direction of the bearing sleeve body (1); the wire (4) installed in wire groove one (1B1) connects the temperature sensor (31) and the core module (2); the wire (4) installed in wire groove two (1B2) connects the pressure sensor (33) and the core module (2); the wire (4) installed in wire groove three (1B3) connects the vibration sensor (32) and the core module (2).

4. The intelligent bearing sleeve for gearbox bearings as described in claim 3, characterized in that: The second wire groove (1B2) is located in the middle of the bearing sleeve body (1) along the axial direction of the bearing sleeve body (1); the first wire groove (1B1) and the third wire groove (1B3) are symmetrically arranged about the second wire groove (1B2).

5. The intelligent bearing sleeve for gearbox internal bearings as described in claim 3 or 4, characterized in that: The core module (2) has three sockets (2A), and the wires (4) of the temperature sensor (31), vibration sensor (32) and pressure sensor (33) are respectively inserted into the three sockets (2A).

6. The intelligent bearing sleeve for gearbox internal bearings as described in claim 5, characterized in that: The wire (4) includes a wire body (41) and a plug (42) located at the outer end of the wire body (41) along its length direction; The conductor body (41) includes a base (411), a power line (412), and an information transmission line (413); the base (411) is adapted to the conductor groove (1B), and the power line (412) and the information transmission line (413) are inserted into the base (411) along the length extension direction of the base (411); The socket (2A) is tapered along its axial direction, gradually narrowing from the opening to the bottom. A power magnetic plate (7) and an information magnetic plate (8) are provided on the side wall of the socket (2A), with the power magnetic plate (7) and the information magnetic plate (8) arranged opposite to each other. The plug (42) is tapered to fit the socket (2A). The power cord (412) and the information transmission line (413) extend to the side wall of the plug (42). The power cord (412) is magnetically connected to the power magnetic plate (7) at the contact point on the side wall of the plug (42). The information transmission line (413) is magnetically connected to the information magnetic plate (8) at the contact point on the side wall of the plug (42).

7. The intelligent bearing sleeve for gearbox internal bearings as described in any one of claims 1-4, characterized in that: Along the radial direction of the bearing sleeve body (1), the core module (2) is located inside the groove of the mounting groove (1A); the wire (4) is located inside the groove of the wire groove (1B).

8. The intelligent bearing sleeve for gearbox internal bearings as described in claim 7, characterized in that: The cross-section of the wire groove (1B) is a trapezoid that gradually expands outward from the bottom to the opening; The wire (4) includes a wire body (41) and a plug (42) located at the outer end of the wire body (41) along its length direction; The conductor body (41) includes a base (411), a power line (412), and an information transmission line (413); the base (411) is adapted to the conductor groove (1B), and the power line (412) and the information transmission line (413) are inserted into the base (411) along the length extension direction of the base (411); The substrate (411) is made of synthetic resin; protruding protrusions (41A) are provided on both sides of the substrate (411); recessed grooves (1C) are provided on the inner wall of the wire groove (1B); when the wire (4) is installed in the wire groove (1B), the protrusions (41A) are inserted into the grooves (1C) on the inner wall of the wire groove (1B).

9. The intelligent bearing sleeve for gearbox internal bearings as described in any one of claims 1-4, characterized in that: The mounting groove (1A) is a bucket shape that gradually expands outward from the bottom to the opening; the core module (2) includes an external enclosed shell (21) and a power supply device (22), a signal processing device (23) and a signal transmission device (24) disposed inside the shell (21); the shell (21) is made of resin and is compatible with the mounting groove (1A); the inner wall of the shell (21) and the space between the power supply device (22), the signal processing device (23) and the signal transmission device (24) are filled with shock-absorbing material.

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