Network equipment temperature control device and inspection method

Abstract

The invention belongs to the technical field of network equipment control, and provides a network equipment temperature control device and an inspection method. The temperature measuring device comprises a temperature measuring mechanism, the temperature measuring mechanism comprises at least two temperature measuring probes and a first shell, the temperature measuring mechanism further comprises a rotatable probe connecting piece, the temperature measuring probes are sleeved with the probe connecting piece, and the probe connecting piece is matched with the first shell. A plurality of temperature measuring probes are used for repeatedly measuring the same measuring point, so that the temperature change trend of the measuring point can be judged, and the temperature change of the network equipment can be controlled; the rotatable probe connecting piece is matched with the first shell, so that the temperature measuring probe can be rotated, the measuring position of the temperature measuring probe can be adjusted, and the device adapts to network equipment arranged at different intervals in an array mode.

Description

Technical Field

[0001] The invention relates to the technical field of network equipment control, and provides a network equipment temperature control device and an inspection method. Background Art

[0002] With the rapid development of information technology, network equipment has been widely used in various industries and fields, such as cloud computing, data centers, network services, finance, and medical care. However, network equipment generates a lot of heat during operation. If the temperature of the network equipment cannot be effectively controlled, it will cause the performance of the network equipment to decline, be damaged, or even shut down, causing huge economic losses to enterprises and organizations. Because the prior art, whether it is air cooling or liquid cooling, is difficult to effectively control the temperature of network equipment in all cases. In some extreme cases, such as high ambient temperature, poor airflow, or excessive load on network equipment, the performance of network equipment is reduced or damaged. At the same time, the prior art is currently only designed for specific network equipment configurations or environmental conditions, lacking universality. With the advancement of technology, the performance of network equipment continues to improve, and its power consumption is also increasing. Therefore, the temperature monitoring of network equipment has a wide range of application prospects. Therefore, the prior art has the technical problem of poor temperature control effect. Prior art WO2019144837A1 A patrol robot and a patrol method, including a control cabinet, a brake, and a base. The control cabinet and the brake are arranged relatively on the base in a direction parallel to the plane where the base is located. The control cabinet is used to control the motion trajectory of the actuator. The actuator and the control cabinet are both installed on the same panel of the base. The actuator includes a mechanical arm and a detection sensor. The actuator moves to the detection area according to the control signal of the control cabinet, including: the mechanical arm moves to a position according to the control signal of the control cabinet, and the moving position includes the linear telescopic movement of the mechanical arm, and / or the movement of the mechanical arm in multiple degrees of freedom. The detection of the object to be detected set in the detection area includes: the detection sensor detects the object to be detected, and sends the detection signal to the control cabinet. A laser wear detection sensor is also provided on the base, and the laser wear detection sensor is connected to the base through a telescopic rod; an inspection method is also provided, the method includes: adjusting the telescopic length of the telescopic rod according to a preset signal; the laser wear sensor detects the object to be detected, and sends the laser wear detection signal to the control cabinet. The prior art can improve the overall balance of the inspection robot, thereby reducing the probability of the inspection robot rolling over during work and improving the working stability of the inspection robot. The inventor believes that there is a large room for improvement in the prior art. Summary of the invention

[0003] The purpose of the present invention is that multiple temperature measuring probes can measure the temperature distribution in the area, calibrate the measuring position of the temperature measuring probe, and use a rotatable probe connector to change the measuring position of the temperature measuring probe. Secondly, the temperature measuring probe changes the measuring position, which can adapt to network devices arranged in arrays with different spacings and measure the temperature of adjacent network devices; multiple temperature measuring probes repeat the measurement of the same measuring point to improve the accuracy of the measurement data, and can judge the temperature change trend of the network device according to the data change, and increase the monitoring frequency of key heating areas. To this end, the present invention provides a network equipment temperature control device, including a temperature measuring mechanism, the temperature measuring mechanism includes at least two temperature measuring probes and a first shell, the temperature measuring mechanism also includes a rotatable probe connector, the temperature measuring probe outer shell is provided with a probe connector, and the probe connector cooperates with the first shell. By using multiple temperature measuring probes to repeatedly measure the same measuring point, the temperature change trend of the measuring point can be determined, which is beneficial to controlling the temperature change of the network equipment; the rotatable probe connector cooperates with the first shell to rotate the temperature measuring probe and adjust the measuring positions of the two temperature measuring probes to adapt to network equipment arranged in arrays with different spacings. Compared with the fixed temperature measuring probe, which can only measure the measuring point directly opposite the temperature measuring probe, the device can have a larger monitoring range.

[0004] Preferably, the temperature measuring probe includes a first measuring probe and a second measuring probe, the second measuring probe and the first measuring probe are located at the same height, and the connection line between the second measuring probe and the first measuring probe is in the same direction as the moving direction of the device moving mechanism. The first measuring probe performs a first measurement on the first measuring point of the network device to obtain the primary data of the first measuring point. When the device moves to the second position, the first measuring probe performs a first measurement on the second measuring point of the network device. At the same time, the second measuring probe performs a second measurement on the first measuring point of the network device to obtain the secondary data of the first measuring point. The temperature change trend of the network device can be grasped through the primary data and secondary data of the first measuring point, which is conducive to regulating the temperature of the network device.

[0005] Preferably, the temperature measuring probe further comprises a third measuring probe located between the first measuring probe and the second measuring probe. The third measuring probe is provided to measure the intermediate position between the first measuring point and the second measuring point to obtain auxiliary data D 31 Since the first measuring probe and the second measuring probe obtain the primary data D of the second measuring point respectively 21 and the secondary data D of the first measurement point 12 Due to heat transfer, the middle position between the first measuring point and the second measuring point will be affected by the temperature of the first measuring point and the second measuring point. The primary data D of the second measuring point can be verified by auxiliary data. 21 and the secondary data D of the first measurement point12 Whether it complies with the heat transfer law, judge whether the heat dissipation function of the network equipment is normal, and the secondary data D of the first measurement point 12 and the primary data D of the first measurement point 11 The amplitude of the change on the time scale is used to determine whether the device deviates from the preset operating trajectory and calibrate the operation of the device. Furthermore, the first measuring probe and the second measuring probe can be deflected toward the third measuring probe to measure the same measuring point, thereby improving the measurement accuracy of temperature detection of a single network device.

[0006] Preferably, the temperature measuring probe further comprises a second shell, the second shell is located inside the first shell, an elastic body is provided on one side of the second shell, and the main body of the probe connector is located between the first shell and the second shell. The second shell and the first shell cooperate with the probe connector respectively to control the rotation angle of the probe connector, that is, to control the rotation angle of the temperature measuring probe. Since the first shell is fixed, moving the second shell can deflect the temperature measuring probe, deflect the temperature measuring probe, and change the measuring distance between the first measuring probe and the second measuring probe. Therefore, the first shell avoids being made into a split component that needs to be telescopic, improves the structural strength of the first shell, improves the ability of the first shell to withstand abnormal collisions, and improves the structural strength of the temperature measuring probe; the second shell is pressed against the probe connector by the elastic body provided above, so that the probe connector is close to the first shell, avoiding the deflection of the probe connector due to vibration, and fixing the deflection angle of the temperature measuring probe.

[0007] Preferably, the contact surface between the probe connector and the first shell is a curved surface, and the probe connector passes through the first shell. The contact surface between the probe connector and the second shell is a curved surface, and the probe connector passes through the second shell. The contact surface between the probe connector and the first shell is a curved surface, which is conducive to the rotation of the probe connector relative to the first shell, avoiding friction between the temperature measuring probe and the first shell and the second shell when the temperature measuring probe is deflected relative to the first shell. Furthermore, the probe connector is a sphere, which is conducive to keeping the exposed length of the temperature measuring probe fixed, avoiding twisting of the transmission cable of the temperature measuring probe, deformation of the temperature measuring part, or poor contact at the connection between the transmission cable and the temperature measuring part due to tension, which affects the temperature measurement accuracy of the network device.

[0008] Preferably, the temperature measuring probe includes a transmission cable, which is located inside the second shell and passes through the probe connector. The transmission cable is provided with a first shell and a second shell outside the transmission cable, and a gap and an elastic body are provided between the first shell and the second shell, so that the gap and the elastic body can withstand the bumps and abnormal impacts of the movement of the equipment, and prevent the transmission cable from being separated from the temperature measuring part or twisting the transmission cable, which affects the temperature measurement accuracy of the network equipment.

[0009] Preferably, the network equipment temperature control device further comprises an equipment moving mechanism, and the temperature measuring mechanism further comprises a positioning mechanical arm, one end of the positioning mechanical arm is a fixed end connected to the equipment moving mechanism, and the other end of the positioning mechanical arm is a free end connected to the temperature measuring probe. The positioning mechanical arm is used to connect the temperature measuring probe and the equipment moving mechanism, so that the height of the measuring point of the temperature measuring probe can be adjusted, so that the device can adapt to network devices of different heights; the equipment moving mechanism can move the device according to the preset equipment running track.

[0010] The present invention also provides a network equipment inspection method, which is applicable to the above-mentioned network equipment temperature control device. The measurement point that has been measured by the first measurement probe will be measured again by the second measurement probe. According to the different measurement results of the temperature measurement probe, the processing unit of the device will adjust the position of the temperature measurement probe of the device. For example, the first measurement probe measures the first measurement point. 11 and the primary data D of the second measuring probe on the first measuring point 21 The difference between the two measurements is greater than the time interval between the two measurements, or the auxiliary data D of the third measuring probe. 31 Not in compliance with D 11 and D 21 If the distribution law of the two heat sources is not obtained, the measurement position of the second measuring probe is wrong, and the running track of the device deviates; the primary data D of the second measuring probe on the first measuring point 21 Much larger than the primary data D of the first measuring point by the first measuring probe 11 , the network equipment heats up too quickly, the processing unit sends a signal requiring operator intervention, and the network equipment is interrupted.

[0011] The present invention provides multiple temperature measuring probes that can measure the temperature distribution in the area, calibrate the measuring position of the temperature measuring probe, and use a rotatable probe connector to change the measuring position of the temperature measuring probe; the temperature measuring probe changes the measuring position, which can adapt to network devices arranged in arrays with different spacings, and measure the temperature of adjacent network devices; multiple temperature measuring probes repeatedly measure the same measuring point, improve the accuracy of the measurement data, and can judge the temperature change trend of the network device according to the data change, increase the monitoring frequency of key heating areas, and have the following beneficial effects: using multiple temperature measuring probes to repeatedly measure the same measuring point, the temperature change trend of the measuring point can be judged, which is conducive to controlling the temperature change of the network device; the rotatable probe connector cooperates with the first shell to rotate the temperature measuring probe, adjust the measuring position of the temperature measuring probe, adapt to network devices arranged in arrays with different spacings, and compared with the fixed temperature measuring probe, only the measuring point facing the temperature measuring probe can be measured, and the device can have a larger monitoring range. BRIEF DESCRIPTION OF THE DRAWINGS

[0012] In order to more clearly illustrate the implementation methods of the present invention or the technical solutions in the prior art, the following briefly introduces the drawings required for the implementation methods or the description of the prior art. Obviously, the drawings described below are only exemplary, and for ordinary technicians in this field, other implementation drawings can be derived from the provided drawings without creative work.

[0013] Figure 1 It is a front view structural schematic diagram of the network equipment temperature control device of the present invention; Figure 2 It is a structural schematic diagram of the temperature measurement probe of the present invention; Figure 3 It is a schematic cross-sectional structure diagram of a vertical posture of a temperature measurement probe of Embodiment 1 of the present invention; Figure 4 It is a schematic cross-sectional structural diagram of the deflection posture of the temperature measurement probe of the first embodiment of the present invention; Figure 5 It is a schematic cross-sectional structure diagram of a vertical posture of a temperature measurement probe of Embodiment 2 of the present invention; Figure 6 It is a schematic cross-sectional structure diagram of the deflection posture of the temperature measurement probe according to the second embodiment of the present invention.

[0014] Explanation of reference numerals: 1 temperature measuring probe; 11 temperature measuring part; 12 first shell; 13 probe connecting piece; 14 second shell; 15 elastomer; 16 elastomer fixing seat; 2 positioning mechanical arm; 3 equipment moving mechanism. DETAILED DESCRIPTION

[0015] The technical solutions in the embodiments of the present invention will be described clearly and completely below in conjunction with the drawings in the embodiments of the present invention. Obviously, the described embodiments are only part of the embodiments of the present invention, rather than all the embodiments.

[0016] Embodiment 1 Combination Figure 1 As shown, a network equipment temperature control device includes an equipment moving mechanism 3, and the temperature measuring mechanism further includes a positioning mechanical arm 2, one end of the positioning mechanical arm 2 is a fixed end connected to the equipment moving mechanism 3, and the other end of the positioning mechanical arm 2 is a free end connected to the temperature measuring probe 1. The positioning mechanical arm 2 is used to connect the temperature measuring probe 1 and the equipment moving mechanism 3, and the height of the measuring point of the temperature measuring probe 1 can be adjusted, so that the device can adapt to network devices of different heights; the equipment moving mechanism 3 can move the device according to the preset equipment running track.

[0017] like Figure 2As shown, the network equipment temperature control device also includes a temperature measuring mechanism, which includes at least two temperature measuring probes 1 and a first shell 12. The temperature measuring mechanism also includes a rotatable probe connector 13. The probe connector 13 is provided on the outer shell of the temperature measuring probe, and the probe connector 13 cooperates with the first shell 12. By using multiple temperature measuring probes 1 to repeatedly measure the same measuring point, the temperature change trend of the measuring point can be determined, which is conducive to controlling the temperature change of the network equipment; the rotatable probe connector 13 cooperates with the first shell 12 to rotate the temperature measuring probe 1 and adjust the measuring position of the temperature measuring probe 1, so as to adapt to network equipment arranged in arrays with different spacings, and compared with the fixed temperature measuring probe 1, which can only measure the measuring point facing the temperature measuring probe 1, the device can have a larger monitoring range.

[0018] Combination Figure 1 and Figure 3 As shown, the temperature measuring probe 1 includes a first measuring probe and a second measuring probe, the second measuring probe and the first measuring probe are located at the same height, and the connection line between the second measuring probe and the first measuring probe is in the same direction as the moving direction of the device moving mechanism 3. The first measuring probe performs a first measurement on the first measuring point of the network device to obtain the primary data of the first measuring point. When the device moves to the second position, the first measuring probe performs a first measurement on the second measuring point of the network device. At the same time, the second measuring probe performs a second measurement on the first measuring point of the network device to obtain the secondary data of the first measuring point. The temperature change trend of the network device can be grasped through the primary data and the secondary data of the first measuring point, which is conducive to regulating the temperature of the network device.

[0019] Combination Figure 3 and Figure 4 As shown, the temperature measuring probe 1 further includes a second shell 14, which is located inside the first shell 12. An elastic body 15 is provided on one side of the second shell 14, and the elastic body 15 is fixed to the inner surface of the first shell 12 by an elastic body fixing seat 16. The main body of the probe connector 13 is located between the first shell 12 and the second shell 14. The second shell 14 and the first shell 12 cooperate with the probe connector 13 respectively to control the rotation angle of the probe connector 13, that is, to control the rotation angle of the temperature measuring probe 1. Since the first shell 12 is fixed, moving the second shell 14 can deflect the temperature measuring probe 1, so that the temperature measuring probe 1 is deflected and the measuring distance between the first measuring probe and the second measuring probe is changed. Therefore, the first shell 12 avoids being made into a split component that needs to be telescopic, thereby improving the structural strength of the first shell 12, improving the ability of the first shell 12 to withstand abnormal collisions, and improving the structural strength of the temperature measuring probe 1.

[0020] The contact surface between the probe connector 13 and the first shell 12 is a curved surface, and the probe connector 13 passes through the first shell 12. The contact surface between the probe connector 13 and the second shell 14 is a curved surface, and the probe connector 13 passes through the second shell 14. The contact surface between the probe connector 13 and the first shell 12 is a curved surface, which is conducive to the rotation of the probe connector 13 relative to the first shell 12, and avoids the friction between the temperature measuring probe 1 and the first shell 12 and the second shell 14 when the temperature measuring probe 1 is deflected relative to the first shell 12. Furthermore, the probe connector 13 is a sphere, which is conducive to keeping the exposed length of the temperature measuring probe 1 fixed, and avoids the transmission cable of the temperature measuring probe 1 from twisting or the temperature measuring part 11 from deforming, which affects the temperature measurement accuracy of the network device.

[0021] The temperature measuring probe 1 also includes a transmission cable, which is located inside the second shell 14 and passes through the probe connector 13. The transmission cable is provided with a first shell 12 and a second shell 14 outside, and there is a gap and an elastic body 15 between the first shell 12 and the second shell 14, which can withstand the bumps and abnormal impacts of the movement of the equipment through the gap and the elastic body 15, so as to prevent the transmission cable from being separated from the temperature measuring part 11 or the transmission cable from being twisted, which affects the temperature measurement accuracy of the network equipment.

[0022] Embodiment 2 The difference from the first embodiment is that, in combination with Figure 4 and Figure 5 As shown, in this embodiment, the temperature measuring probe 1 also includes a third measuring probe located between the first measuring probe and the second measuring probe. The third measuring probe is provided to measure the intermediate position between the first measuring point and the second measuring point to obtain auxiliary data D 31 Since the first measuring probe and the second measuring probe obtain the primary data D of the second measuring point respectively 21 and the secondary data D of the first measurement point 12 Due to heat transfer, the middle position between the first measuring point and the second measuring point will be affected by the temperature of the first measuring point and the second measuring point. The primary data D of the second measuring point can be verified by auxiliary data. 21 and the secondary data D of the first measurement point 12 Whether it complies with the heat transfer law, judge whether the heat dissipation function of the network equipment is normal, and the secondary data D of the first measurement point 12 and the primary data D of the first measurement point 11 The amplitude of change on the time scale is used to determine whether the device deviates from the preset operating trajectory and calibrate the operation of the device; the first measuring probe and the second measuring probe can be deflected toward the third measuring probe to measure the same measuring point, thereby improving the measurement accuracy of temperature detection of a single network device.

[0023] The present invention also provides a network equipment inspection method, which is applicable to the above-mentioned network equipment temperature control device. The measurement point that has been measured by the first measurement probe will be measured again by the second measurement probe. According to the different measurement results of the temperature measurement probe 1, the processing unit of the device will adjust the position of the temperature measurement probe 1 of the device. For example, the first measurement probe measures the primary data D of the first measurement point. 11 and the primary data D of the second measuring probe on the first measuring point 21 The difference between the two measurements is greater than the time interval between the two measurements, or the auxiliary data D of the third measuring probe. 31 Not in compliance with D 11 and D 21 If the distribution law of the two heat sources is not correct, the measurement position of the second measuring probe is wrong; the primary data D of the second measuring probe on the first measuring point 21 Much larger than the primary data D of the first measuring point by the first measuring probe 11 , the network equipment heats up too quickly, the processing unit sends a signal requiring operator intervention, and the network equipment is interrupted.

[0024] The present invention provides a plurality of temperature measuring probes 1 that can measure the temperature distribution in a region, calibrate the measuring position of the temperature measuring probe 1, and use a rotatable probe connector 13 to change the measuring position of the temperature measuring probe 1; the temperature measuring probe 1 changes the measuring position to adapt to network devices arranged in arrays with different spacings and measure the temperature of adjacent network devices; the plurality of temperature measuring probes 1 repeatedly measure the same measuring point to improve the accuracy of the measurement data, and can judge the temperature change trend of the network device according to the data change, increase the monitoring frequency of key heating areas, and have the following beneficial effects: the plurality of temperature measuring probes 1 are used to repeatedly measure the same measuring point to judge the temperature change trend of the measuring point, which is conducive to controlling the temperature change of the network device; the rotatable probe connector 13 cooperates with the first shell 12 to rotate the temperature measuring probe 1, adjust the measuring position of the temperature measuring probe 1, adapt to network devices arranged in arrays with different spacings, and compared with the fixed temperature measuring probe 1, only the measuring point facing the temperature measuring probe 1 can be measured, and the device can have a larger monitoring range.

[0025] The above embodiments and / or implementation methods are only used to illustrate the preferred embodiments and / or implementation methods for realizing the technology of the present invention, and are not intended to limit the implementation methods of the technology of the present invention in any form. Any technical personnel in this field may make slight changes to other equivalent embodiments without departing from the scope of the technical means disclosed in the content of the present invention, but they should still be regarded as technologies or embodiments that are essentially the same as the present invention.

Claims

1. A network equipment temperature control device, comprising a temperature measurement mechanism, characterized in that: The temperature measurement mechanism comprises at least two temperature measurement probes (1) and a first shell (12). The temperature measurement mechanism also comprises a rotatable probe connecting piece (13). The probe connecting piece (13) is disposed on the outer shell of the temperature measurement probe (1), and the probe connecting piece (13) cooperates with the first shell (12).

2. A network equipment temperature control device according to claim 1, characterized in that: The network equipment temperature control device further comprises an equipment moving mechanism (3), the temperature measuring probe (1) comprises a first measuring probe and a second measuring probe, the second measuring probe and the first measuring probe are located at the same height, and the connection line between the second measuring probe and the first measuring probe is in the same direction of movement as the equipment moving mechanism (3).

3. A network equipment temperature control device according to claim 2, characterized in that: The temperature measuring probe (1) further comprises a third measuring probe located between the first measuring probe and the second measuring probe.

4. A network equipment temperature control device according to claim 2 or 3, characterized in that: The temperature measuring probe (1) further comprises a second shell (14), the second shell (14) being located inside the first shell (12), an elastic body (15) being provided on one side of the second shell (14), and a main body of the probe connecting member (13) being located between the first shell (12) and the second shell (14).

5. A network equipment temperature control device according to claim 4, characterized in that: The contact surface between the probe connecting piece (13) and the first shell (12) is a curved surface, and the probe connecting piece (13) passes through the first shell (12); the contact surface between the probe connecting piece (13) and the second shell (14) is a curved surface, and the probe connecting piece (13) passes through the second shell (14).

6. A network equipment temperature control device according to claim 4, characterized in that: The temperature measuring probe (1) comprises a transmission cable, the transmission cable is located inside the second shell (14), and the transmission cable passes through the probe connector (13).

7. A network equipment temperature control device according to claim 2, characterized in that: The temperature measurement mechanism further comprises a positioning mechanical arm (2), one end of the positioning mechanical arm (2) being a fixed end connected to the device moving mechanism (3), and the other end of the positioning mechanical arm (2) being a free end connected to the temperature measurement probe (1).

8. A network equipment inspection method, applicable to a network equipment temperature control device according to any one of claims 1 to 7, characterized in that: The measuring point that has been measured by the first measuring probe is measured again by the second measuring probe.

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