TWI701377B - Inspection system of anti-vibration device and inspection method of anti-vibration device - Google Patents

Abstract

The purpose of the present invention is to provide a spot inspection system and a spot inspection method of the shockproof device that can obtain the displacement amount of the shockproof device in a labor-saving manner.

The point inspection system of the anti-vibration device of the present invention is provided with: a height measuring part; an angle measuring part; and a communication device capable of communicating with these; the height measuring part and the angle measuring part can transmit the measured information to the The communication device is further provided with: a calculation unit that calculates the displacement of the anti-vibration device based on the information after measurement. The inspection method of the anti-vibration device of the present invention includes: height measurement process; angle measurement process; measurement information transmission process, which transmits the measured information to the communication device; and calculation process, which is calculated based on the measured information The displacement of the anti-vibration device.

Description

Inspection system of anti-vibration device and inspection method of anti-vibration device

The present invention relates to a spot inspection system of an anti-vibration device and a spot inspection method of the anti-vibration device

As a point inspection method of the anti-vibration device, a sensor is proposed to measure the height and horizontal displacement of the bottom of the building supported by the anti-vibration device to obtain the deformation of the building (for example, refer to Patent Document 1 ).

According to this inspection method, since the sensor can automatically measure the displacement of the bottom of the building in the height direction and the horizontal direction, compared with the case where the operator performs the measurement manually, the building can be obtained with less effort The amount of deformation of the object.

[Prior Technical Literature]

[Patent Literature]

Patent Document 1: Japanese Patent Laid-Open No. 5-99648

In the above-mentioned inspection method, the operator will find the deformation of the building from the displacement data after the measurement in a seismic trough located underground. However, the earthquake-proof trough located underground has no lighting and lack of working space, and there is a problem of poor workability. This general problem also occurs when the operator is used to calculate the displacement of the anti-vibration device in the underground using the measured data.

Therefore, the object of the present invention is to provide a spot inspection system for an anti-vibration device and a spot inspection method of an anti-vibration device that can obtain the displacement amount of the anti-vibration device in a labor-saving manner.

The main constitution of the present invention is as follows.

The point inspection system of the anti-vibration device of the present invention is provided with: a height measuring part, which measures the height of the anti-vibration device in the vertical direction; an angle measuring part, which measures the tilt angle of the anti-vibration device relative to the vertical; and a communication device, which can Communicate with the height measuring part and the angle measuring part; the height measuring part and the angle measuring part can respectively measure the height of the anti-vibration device in the vertical direction and the height of the anti-vibration device after the measurement relative to the vertical direction. The inclination angle is transmitted to the communication device; and is further provided with: a calculation unit that calculates the upper and lower ends of the anti-vibration device based on the height of the vertical direction after measurement and the inclination angle relative to the vertical direction after measurement The amount of displacement in the horizontal direction of the anti-vibration device.

The inspection method of the anti-vibration device of the present invention includes: a height measurement process, which measures the height of the anti-vibration device in the vertical direction by a height measuring part; an angle measurement process, which measures the anti-vibration device by an angle measurement part The inclination angle with respect to the vertical direction; the measurement information transmission process is the vertical height of the anti-vibration device measured by the height measuring part and the angle measuring part, and the measured height of the anti-vibration device relative to the vertical direction The inclination angle is transmitted to the communication device; and the calculation process is calculated by the calculation unit based on the height of the vertical direction after the measurement and the inclination angle relative to the vertical direction after the measurement to calculate the upper end of the anti-vibration device and The displacement of the lower end in the horizontal direction of the anti-vibration device.

According to the present invention, it is possible to provide a spot inspection system for an anti-vibration device and a spot inspection method of an anti-vibration device that can obtain the displacement amount of the anti-vibration device in a labor-saving manner.

1‧‧‧Height measurement department

2‧‧‧Angle Measurement Department

3‧‧‧Temperature measurement department

4‧‧‧Communication device

5‧‧‧Memory Department

6‧‧‧Calculation Department

7‧‧‧Judgment Department

100‧‧‧Point inspection system for anti-vibration device

200‧‧‧Shockproof device

201‧‧‧Laminated body

202‧‧‧Upper flange

203‧‧‧Lower flange

Fig. 1 is an overall view of a check system of an anti-vibration device according to an embodiment of the present invention.

Fig. 2A is a side view schematically showing the anti-vibration device after displacement.

Figure 2B is a side view of the anti-vibration device schematically showing the displacement when converted to a reference temperature.

Fig. 3 is a plan view for explaining the measurement location of the vertical height of the anti-vibration device.

Fig. 4 is a flow chart of the inspection method of the anti-vibration device according to an embodiment of the present invention.

Hereinafter, the embodiments of the present invention will be illustrated in detail with reference to the drawings.

<Point inspection system of anti-vibration device>

Fig. 1 is an overall view of a check system (hereinafter also simply referred to as a check system) of an anti-vibration device according to an embodiment of the present invention. As shown in FIG. 1, the spot inspection system 100 of this embodiment includes a height measurement unit 1, an angle measurement unit 2, a temperature measurement unit 3, and a communication device 4.

In this embodiment, the height measuring unit 1 is configured to measure the height of the anti-vibration device in the vertical direction. Here, FIG. 2A schematically shows a side view of the anti-vibration device after displacement. The anti-vibration device 200 is composed of a laminated body 201, an upper flange portion 202 and a lower flange portion 203. Although not shown, the laminated body 201 has a structure in which rubber parts and plate parts are alternately laminated. In this manual, "the height of the anti-vibration device in the vertical direction", "the offset amount of the anti-vibration device in the horizontal direction", "the tilt angle of the anti-vibration device relative to the vertical", etc., as shown in Figure 2A, represent the anti-vibration device 200 The height of the laminated body 201 in the vertical direction, the offset amount in the horizontal direction, and the inclination angle relative to the vertical direction. In Fig. 2A, the height of the anti-vibration device 200 in the vertical direction is represented by h. The height measuring unit 1 can be any known measuring device that can measure the height h of the anti-vibration device 200 in the vertical direction, and can be, for example, a digital vernier. Although the height measuring unit 1 can preferably be carried at any time to measure the vertical height of the anti-vibration device 200, it can also be installed in or around the anti-vibration device 200 first. In this example, it is only installed at one place around the anti-vibration device 200.

In this embodiment, the angle measuring unit 2 is configured to measure the inclination angle of the anti-vibration device 200 with respect to the vertical direction. In FIG. 2A, the inclination angle of the anti-vibration device 200 with respect to the vertical direction is represented by θ. The angle measuring unit 2 may be any known measuring instrument capable of measuring the inclination angle of the anti-vibration device 200 with respect to the vertical direction, and may be, for example, a digital inclinometer. Although the angle measuring unit 2 can preferably be carried at any time to measure the inclination angle of the anti-vibration device 200 relative to the vertical direction, it can also be installed in or around the anti-vibration device 200 first.

In this embodiment, the temperature measuring part 3 is configured to measure the temperature of the rubber part of the anti-vibration device 200. In this example, the temperature measuring part 3 is configured to measure the surface temperature of the rubber part of the anti-vibration device 200. The temperature measuring part 3 may be any known measuring device capable of measuring the temperature T1 of the rubber part of the anti-vibration device 200, and may be, for example, a contact type or non-contact type digital thermometer. Although the contact temperature measuring part 3 can preferably be carried at any time to measure the temperature of the rubber part of the anti-vibration device 200, it can also be installed on the rubber part of the anti-vibration device 200 (for example, the surface of the rubber part of the anti-vibration device 200). ). In addition, the non-contact temperature measuring part 3 can be arranged near the anti-vibration device 200 to measure the temperature of the rubber part of the anti-vibration device 200.

In this embodiment, the communication device 4 is configured to be able to communicate with the height measurement unit 1, the angle measurement unit 2, and the temperature measurement unit 3. The communication device 4 may be, for example, a portable machine that the operator can carry. The height measuring unit 1, the angle measuring unit 2, and the temperature measuring unit 3 can respectively measure the height h of the shockproof device 200 in the vertical direction after the measurement, the inclination angle θ relative to the vertical after the measurement, and the shockproof device 200 after the measurement. The temperature T _{1 of the} rubber part is transmitted to the communication device 4. The communication (transmission and reception) between the height measuring unit 1, the angle measuring unit 2, the temperature measuring unit 3 and the communication device 4 is preferably wireless communication, and more preferably short-range wireless communication such as Bluetooth (registered trademark). In addition, it can also be wired communication.

As shown in FIG. 1, in this embodiment, the communication device 4 further includes a storage unit 5, a calculation unit 6, and a judgment unit 7. In addition, in the present embodiment, although the communication device 4 is configured to have the storage unit 5, the calculation unit 6, and the judgment unit 7, the communication device 4 may be separated from the storage unit 5, the calculation unit 6, and the judgment unit 7. For example, the communication device 4 may be a portable device, and the storage unit 5, the calculation unit 6, and the judgment unit 7 may be the function units of the computer in the base.

In this embodiment, the memory part 5 is configured to memorize the reference height of the anti-vibration device 200 in the vertical direction, the reference inclination angle of the anti-vibration device 200 relative to the vertical direction (and/or the reference position in the horizontal direction), and the rubber of the anti-vibration device 200 The reference temperature of the part. The memory 5 can be any known memory. In addition, the reference height and the reference angle of inclination (and/or the reference position in the horizontal direction) are, for example, values at the time of completion, grounding, or catalog value, and the reference temperature may be, for example, 20°C. In this embodiment, the memory unit 5 further stores data that correlates the displacement of the anti-vibration device 200 with the estimated damage degree of the anti-vibration device 200 (from, for example, past statistics), and also stores the estimated anti-vibration device 200 The predetermined threshold value of the displacement amount of the anti-vibration device 200 that has received fixed damage. The memory unit 5 preferably further stores data relating the following tilt amount to the damage degree of the anti-vibration device 200, and also stores a predetermined threshold value of the tilt amount at which the anti-vibration device 200 will be fixedly damaged.

In this embodiment, the calculation unit 6 is configured based on the reference height, reference tilt angle (and/or reference position in the horizontal direction) and reference temperature stored in the memory unit, as well as the height h in the vertical direction after the measurement, and the height after the measurement. The inclination angle θ with respect to the vertical direction and the measured temperature T _{1 are} used to calculate the displacement amount δH _{1, which} is the offset amount of the shockproof device 200 at the upper end and the lower end of the shockproof device 200 in the horizontal direction. The calculation unit 6 may be any known processor.

The calculation of the displacement amount of the anti-vibration device 200 calculated by the calculation unit 6 can be calculated, for example, by using the following (Equation 1); (Equation 1) δH ₁ =h×tanθ.

Or, since the anti-vibration device 200 usually has a structure in which a rubber part and a plate part are alternately laminated, and it is better to consider the expansion of the rubber part due to temperature, the following (Equation 2) is used to implement the anti-vibration device The correction of the displacement in the vertical direction of 200 is preferably calculated using the following (Equation 3); (Equation 2) H=h-(Σtr×△T×ρ); (where Σtr is The total thickness of the rubber part, △T=TT ₁ (T is for example 20°C), ρ is the coefficient of linear expansion of the rubber part of the shockproof rubber (for example 5.8×10 ^-4 )); (Equation 3) δH ₁ =H× tanθ.

In the present embodiment, the determination unit 7 is configured to determine the estimated damage degree of the anti-vibration device 200 based on the predetermined threshold stored in the memory unit 5 and the calculated displacement amount. The judging unit 7 may be any known processor, and may be configured with, for example, one processor to have the functions of the calculating unit 6 and the judging unit 7.

Hereinafter, the function and effect of the inspection system 100 of the anti-vibration device of the present embodiment will be described.

In the spot inspection system 100 of the anti-vibration device of this embodiment, the height measuring unit 1 and the angle measuring unit 2 can transmit the measured height h in the vertical direction and the measured inclination angle θ relative to the vertical to the communication device 4 Therefore, the communication device 4 can receive its measurement information immediately after the measurement. Then, the communication device 4 can immediately use the above-mentioned (Equation 1) based on the measurement information, and calculate the above-mentioned displacement amount δH ₁ by the calculation unit 6. In particular, in this embodiment, the above-mentioned (Equation 1) can also be used based on the measurement information and the reference information (reference height and reference angle (and/or reference position in the horizontal direction)) memorized by the storage unit 5, and The calculation unit 6 calculates the amount of change from the reference value of the displacement amount (for example, the degree of displacement based on the completion time, grounding time, or catalog value). Furthermore, since the temperature measurement unit 3 can transmit the measured temperature to the communication device 4 in this embodiment, the calculation unit 6 can be used to calculate more accurately than using, for example, the above (Equation 3). The displacement amount of the anti-vibration device 200 (the amount of change from the reference value of the displacement amount) can be immediately calculated.

Furthermore, in this embodiment, the memory unit 5 further stores data relating the displacement of the anti-vibration device 200 to the damage degree of the anti-vibration device 200, and also stores the anti-vibration that the anti-vibration device 200 is estimated to be fixedly damaged. The predetermined threshold of the displacement of the device 200. Therefore, the estimated damage degree of the anti-vibration device 200 can be immediately determined by the determination unit 7 based on the predetermined threshold stored in the memory unit 5 and the calculated displacement amount. Based on the result of the judgment, the necessity of replacement of the anti-vibration device 200 can be judged.

In this way, according to the inspection system 100 of the anti-vibration device of the present embodiment, the displacement amount (and the estimated damage degree) of the anti-vibration device can be obtained in a labor-saving manner.

Here, the inspection system of the anti-vibration device of the present invention, as in the above-mentioned embodiment, is further provided with: a memory section 5 storing the reference height of the anti-vibration device 200 in the vertical direction, and the reference tilt of the anti-vibration device 200 relative to the vertical direction The angle and/or the reference position of the anti-vibration device 200 in the horizontal direction, the calculation part 6 is preferably based on the reference height, the reference inclination angle and/or the reference position of the anti-vibration device 200 in the horizontal direction stored in the memory unit 5, and the measured position The height h in the vertical direction and the inclination angle θ relative to the vertical after the measurement are used to calculate the amount of change from the reference value of the displacement. This is because the amount of change from the reference value of the displacement of the anti-vibration device 200 can be calculated.

In addition, the inspection system of the anti-vibration device of the present invention, as in the above-mentioned embodiment, is further provided with: a temperature measurement unit 3 for measuring the temperature of the rubber part of the anti-vibration device 200, and the communication device 4 can be further integrated with the temperature measurement unit 3. For communication, the temperature measuring part 3 can transmit the measured temperature of the rubber part of the shockproof device 200 to the communication device 4. The memory part 5 further stores the reference temperature of the rubber part of the shockproof device 200. The calculation part 6 is preferably It is based on the reference height, reference tilt angle (and/or reference position in the horizontal direction) and reference temperature memorized by the memory unit 5, as well as the height h in the vertical direction after measurement, the tilt angle θ relative to the vertical direction after measurement, and After measuring the temperature T ₁ , the displacement of the anti-vibration device 200 (the amount of change from the reference value of the displacement) is calculated.

As mentioned above, this is because the anti-vibration device 200 usually has a structure in which a rubber part and a plate part are alternately laminated, and it is better to consider the expansion of the rubber part due to temperature, and by using the above (Equation 3), To calculate the displacement of the anti-vibration device 200 (the amount of change from the reference value of the displacement) more accurately.

The inspection system of the anti-vibration device of the present invention, as in the above-mentioned embodiment, is preferably further provided with: a judging unit 7 for judging whether the anti-vibration device 200 is based on the predetermined threshold stored in the memory unit 5 and the calculated displacement Presumption of damage. This is because the displacement amount (and the estimated damage degree) of the anti-vibration device can be obtained in a labor-saving manner as described above.

In the inspection system of the anti-vibration device of the present invention, the judging unit 7 is preferably in the multiple anti-vibration device 200, and uses the individual results of the calculated displacement to determine the individual estimated damage degree of the complex anti-vibration device. This is because the estimated damage degree of each anti-vibration device 200 can be estimated.

Alternatively, in the inspection system of the anti-vibration device of the present invention, the judging unit 7 is preferably located in the plurality of anti-vibration devices 200, and the anti-vibration located at the position farthest from the center of gravity of the building supported by the plurality of anti-vibration devices 200 The result of the displacement calculated by the device 200 is used to determine the estimated damage degree of the anti-vibration device 200. This is because the displacement amount that should be the place where the shaking is the greatest is usually used, and the damage degree of the anti-vibration device 200 is estimated more safely with stricter standards.

Furthermore, in the inspection system of the anti-vibration device of the present invention, the judging part 7 is preferably located in the plurality of anti-vibration devices 200, and uses the position closest to the center of gravity of the building supported by the plurality of anti-vibration devices 200 and the most The displacement amount calculated by the anti-vibration device 200 at a position far from the center of gravity is used to determine the estimated damage degree of the anti-vibration device 200. By using these results, the estimated damage degree of the anti-vibration device 200 can be estimated more accurately.

Furthermore, in the inspection system of the anti-vibration device of the present invention, the judging part 7 is in the plurality of anti-vibration devices 200, and is used at the end of the building supported by the plurality of anti-vibration devices 200 or the position closest to the end. The result of displacement calculated by the anti-vibration device 200 is used to determine the estimated damage degree of the anti-vibration device 200. This is because by using these results, the estimated damage degree of the anti-vibration device 200 can be estimated even with respect to the rotation specific to the behavior of the end.

<Checking method of anti-vibration device>

Next, an embodiment of the inspection method of the anti-vibration device of the present invention (hereinafter also simply referred to as the inspection method) will be described. The inspection method related to this embodiment can be implemented, for example, using the inspection system 100 of the anti-vibration device described above. Since the inspection system 100 and its constituent elements of the height measurement unit 1, the angle measurement unit 2, the temperature measurement unit 3, the communication device 4, the memory unit 5, the calculation unit 6, and the judgment unit 7 have been described above, the description is omitted.

Fig. 4 is a flow chart of the inspection method of the anti-vibration device according to an embodiment of the present invention. As shown in FIG. 4, in the inspection method of the present embodiment, first, the height h of the anti-vibration device 200 in the vertical direction is measured by the height measuring unit 1 (height measuring process: step S101). In addition, the inclination angle θ of the anti-vibration device 200 with respect to the vertical direction is measured by the angle measurement unit 2 (angle measurement process: step S102). Then, the temperature T ₁ of the rubber part of the laminated body 201 of the anti-vibration device 200 is measured by the temperature measuring part 3 (temperature measuring process: step S103).

Then, the height measuring unit 1, the angle measuring unit 2, and the temperature measuring unit 3 will respectively calculate the measured height h of the anti-vibration device 200 in the vertical direction, the measured inclination angle θ of the anti-vibration device 200 relative to the vertical direction, and the measured value. anti-vibration rubber device temperature T ₁ of the portion 200 of the communication device 4 is transmitted to the (measurement information transmitting step: step S104).

Here, although the order of the height measurement process (step S101), the angle measurement process (step S102), and the temperature measurement process (step S103) is not particularly limited, it is better to accurately obtain the displacement amount of the anti-vibration device 200 The ground system is measured at the same time. Moreover, since the height measurement process (step S101), the angle measurement process (step S102), and the temperature measurement process (step S103), once each measurement data is obtained, the measurement information is transmitted to the communication device one by one or collectively. 4. Therefore, the measurement information transmission process (step S104) can be performed immediately after obtaining the measurement data of the angle measurement process (step S102) and the temperature measurement process (step S103).

Next, in this embodiment, the calculation unit 6 is used to store the reference height of the anti-vibration device 200 in the vertical direction and the reference inclination angle of the anti-vibration device 200 relative to the vertical direction (and/or the horizontal direction The reference position) and the reference temperature of the rubber part of the anti-vibration device 200, the height h in the vertical direction after the measurement, the inclination angle θ relative to the vertical after the measurement, and the temperature T ₁ after the measurement are calculated as the anti-vibration device 200 The displacement amount of the offset amount in the horizontal direction of the anti-vibration device 200 at the upper end and the lower end (calculation process: step S105).

Next, in the present embodiment, the estimated damage degree of the anti-vibration device 200 is judged based on the predetermined threshold value memorized in the memory unit 5 and the calculated displacement amount (judgment process: step S106).

Hereinafter, the effect of the inspection method of the anti-vibration device of this embodiment will be explained.

In the inspection method of the anti-vibration device of this embodiment, in the measurement information transmission process (step S104), the height measuring unit 1 and the angle measuring unit 2 respectively measure the height h of the anti-vibration device 200 in the vertical direction and the measured anti-vibration The tilt angle θ of the device 200 with respect to the vertical direction is transmitted to the communication device 4. Therefore, the communication device 4 can receive the measurement information immediately after the measurement. Then, in the calculation process (step S105), the calculation unit 6 can immediately calculate the displacement amount of the anti-vibration device 200 based on the measurement information, using, for example, the above (Equation 1). In particular, in this embodiment, the calculation unit 6 can use, for example, the above (Equation 1) based on measurement information and reference information (reference height and reference tilt angle (and/or reference position in the horizontal direction)). Immediately calculate the amount of change from the reference value of the above displacement amount. Furthermore, since in the present embodiment, in the measurement information transmission process (step S104), the temperature measurement unit 3 can transmit the measured temperature to the communication device 4, so it can be calculated by calculating in the calculation process (step S105) The section 6 calculates the displacement amount of the anti-vibration device 200 (the amount of change from the reference value of the displacement amount) with a more accurate calculation than using, for example, the above-mentioned (Equation 3).

Furthermore, in the judging process (step S106) of this embodiment, the judging unit 7 can also immediately determine the estimate of the anti-vibration device 200 based on the predetermined threshold stored in the memory unit 5 and the calculated displacement Damage degree.

Then, based on the judgment result, the necessity of replacement of the anti-vibration device 200 can be judged.

In this way, according to the inspection method of the anti-vibration device of this embodiment, the displacement amount (and the estimated damage degree) of the anti-vibration device 200 can be obtained in a labor-saving manner.

The inspection method of the anti-vibration device of the present invention is the same as the above-mentioned embodiment. In the calculation process (step S105), it is preferably based on the reference height of the anti-vibration device 200 in the vertical direction stored in the memory unit 5. The reference inclination angle of the direction and/or the reference position of the anti-vibration device 200 in the horizontal direction, as well as the height h of the vertical direction after the measurement and the inclination angle θ relative to the vertical direction after the measurement, to calculate the displacement from the The amount of change in the reference value. This is because the amount of change from the reference value of the displacement amount can be obtained.

In addition, the inspection method of the anti-vibration device of the present invention, as in the above-mentioned embodiment, further includes: a temperature measurement step (step S103). The temperature measurement unit 3 measures the temperature of the rubber part of the anti-vibration device 200 and measures the information In the transmission process (step S104), the temperature measuring unit 3 transmits the measured temperature of the rubber part of the anti-vibration device 200 to the communication device 4, and further stores the reference temperature of the rubber part of the anti-vibration device 200 in the memory unit 5. The calculation process (step S105) is preferably based on the reference height, reference inclination angle (and/or reference position in the horizontal direction) and reference temperature stored in the memory unit 5, as well as the height h in the vertical direction after the measurement and the height h after the measurement. The displacement amount of the anti-vibration device 200 (the amount of change from the reference value of the displacement amount) is calculated from the inclination angle θ with respect to the vertical direction and the temperature T ₁ after the measurement.

As mentioned above, this is because the anti-vibration device 200 usually has a structure in which a rubber part and a plate part are alternately laminated, and it is better to consider the expansion of the rubber part due to temperature, and it can be used, for example, by using the above (Equation 3) , To calculate the displacement of the anti-vibration device 200 (the amount of change from the reference value of the displacement) more accurately.

In this case, the temperature measurement process (step S103) is preferably to measure the surface temperature of the rubber part of the anti-vibration device 200. In the case of using the contact type temperature measuring unit 3, the temperature measuring unit 3 is mounted on the surface of the rubber part of the anti-vibration device 200, and the displacement of the anti-vibration device 200 can be easily and more accurately obtained (from the variable The effect of the amount of change in the reference value of the position amount), and in the case of using the non-contact temperature measuring part 3, since the surface temperature of the rubber part of the anti-vibration device 200 can also be easily measured, it can be obtained simply and more easily. The effect of the displacement (amount of change from the reference value of the displacement) of the anti-vibration device 200 is accurately obtained.

Fig. 3 is a plan view for explaining the measurement location of the vertical height of the anti-vibration device. In the inspection method of the anti-vibration device of the present invention, the height measurement step (step S101) is to measure the height in the vertical direction at a plurality of positions on the periphery of the anti-vibration device 200, and the plurality of positions include distances along the periphery of the anti-vibration device 200. At least one pair of diagonal positions with a perimeter of 20% to 30%, the calculation step (step S105) is preferably to calculate the difference in the vertical height measured by the pair of positions as the amount of inclination. . According to this method, when the estimated damage degree of the anti-vibration device 200 is obtained, the inclination of the anti-vibration device 200 can also be taken into consideration, and it can be performed more accurately. That is, as described above, the memory unit 5 stores data relating the amount of tilt to the estimated damage degree of the anti-vibration device 200, and by storing a predetermined threshold value of the amount of inclination that the anti-vibration device 200 is estimated to receive fixed damage, In the judging process (step S106), the judging unit 7 can judge that the anti-vibration device 200 needs to be replaced when, for example, the displacement amount and the inclination amount of the anti-vibration device 200 have exceeded each threshold value, thereby making it safer Manage the anti-vibration device 200. For example, in the example shown in FIG. 3, since P, Q, R, and S are located 20% to 30% away from the circumference of the anti-vibration device 200, the above-mentioned plural positions can be P, Q, There are more than two places of R and S.

The inspection method of the anti-vibration device of the present invention is the same as the above-mentioned embodiment, and preferably further includes: a judging process (step S106), judging the anti-vibration device based on the predetermined threshold stored in the memory unit 5 and the calculated displacement Presumed damage of 200. This is because the estimated damage degree of the anti-vibration device 200 can be obtained in a labor-saving manner as described above.

In the judging process (step S106), it is preferable to use the individual results of the calculated displacement in the multiple anti-vibration device 200 to determine the individual estimated damage degree of the multiple anti-vibration device 200. This is because the estimated damage degree of each anti-vibration device 200 can be estimated.

Or, in the judgment step (step S106), it is preferably in the plurality of anti-vibration devices 200, which is calculated by using the anti-vibration device 200 located farthest from the center of gravity of the building supported by the plurality of anti-vibration devices 200 The result of the displacement is used to determine the estimated damage degree of the anti-vibration device 200. This is because the displacement amount that should be the place where the shaking is the greatest is usually used, and a stricter standard is used to more safely estimate the damage of the anti-vibration device.

Further, in the judging process (step S106), it is preferably in the plurality of anti-vibration devices 200, using the position closest to the center of gravity of the building supported by the plurality of anti-vibration devices 200 and the position farthest from the center of gravity. The result of the displacement calculated by the anti-vibration device 200 is used to determine the estimated damage degree of the anti-vibration device 200. By using these results, the estimated damage degree of the anti-vibration device 200 can be estimated more accurately.

Further, in the inspection system of the anti-vibration device of the present invention, in the judging process (step S106), preferably in the plurality of anti-vibration devices 200, the use is located in the building supported by the plurality of anti-vibration devices 200 The result of displacement calculated by the anti-vibration device 200 at the end or the position closest to the end is used to determine the estimated damage degree of the anti-vibration device 200. This is because by using these results, the estimated damage degree of the anti-vibration device 200 can be estimated even with respect to the rotation specific to the behavior of the end.

Hereinafter, although the embodiment of the present invention has been described, the present invention is not limited to the above-mentioned embodiment. For example, in the above-mentioned embodiment, although the communication device 4 is an operator's portable machine, the communication device 4 may be installed in a building where the anti-vibration device 200 is disposed or a management center in another building, for example. In this case, the above calculation or judgment can be performed in the management center.

1‧‧‧Height measurement department

2‧‧‧Angle Measurement Department

3‧‧‧Temperature measurement department

4‧‧‧Communication device

5‧‧‧Memory Department

6‧‧‧Calculation Department

7‧‧‧Judgment Department

100‧‧‧Point inspection system for anti-vibration device

Claims (14)

A spot inspection system for an anti-vibration device is provided with: a height measuring part that measures the height of the anti-vibration device in the vertical direction; an angle measuring part that measures the inclination angle of the anti-vibration device relative to the vertical; and a communication device that can be connected to the The height measuring part and the angle measuring part communicate; the height measuring part and the angle measuring part can respectively measure the height of the anti-vibration device in the vertical direction and the inclination angle of the anti-shock device relative to the vertical direction after the measurement. Is transmitted to the communication device; further provided with: a calculation unit that calculates that the upper end and lower end of the anti-vibration device are at the upper end and lower end of the anti-vibration device based on the height of the vertical direction after the measurement and the inclination angle relative to the vertical direction after the measurement The displacement amount of the offset in the horizontal direction of the anti-vibration device; and the memory part memorizes the reference height of the anti-vibration device in the vertical direction, and the reference inclination angle of the anti-vibration device relative to the vertical direction and/or the anti-vibration device The horizontal reference position of the anti-vibration device; the anti-vibration device has a layered body in which a rubber part and a plate portion are alternately laminated; and is further provided with: a temperature measuring part that measures the temperature of the rubber part of the anti-vibration device; the communication The device can further communicate with the temperature measuring part; the temperature measuring part can transmit the measured temperature of the rubber part of the shockproof device to the communication device; the memory part further stores the shockproof device The reference temperature of the rubber part; the calculation part is based on the reference height, the reference inclination angle and/or the horizontal reference position of the anti-vibration device and the reference temperature, and the vertical direction after measurement Height, measurement Then, the angle of inclination relative to the vertical direction and the temperature after measurement are used to calculate the amount of change from the reference value of the displacement. For example, the inspection system of the anti-vibration device in the first scope of the patent application is further provided with: a judging unit for judging the presumption of the anti-vibration device based on the predetermined threshold stored in the memory unit and the calculated displacement Damage degree. For example, the inspection system of the anti-vibration device in the second item of the scope of patent application, wherein the judgment unit uses the result of the individual displacement calculated in the multiple anti-vibration device to determine the individual estimated damage degree of the complex anti-vibration device. For example, the point inspection system of the anti-vibration device of the third item of the scope of patent application, wherein the judging part is in a plurality of anti-vibration devices, using the anti-vibration device located farthest from the center of gravity of the building supported by the plurality of anti-vibration devices The calculated result of the displacement is used to judge the estimated damage of the anti-vibration device. For example, the point inspection system of the anti-vibration device in the third item of the scope of patent application, wherein the judging part is in a plurality of anti-vibration devices, and is used at the position closest to the center of gravity of the building supported by the plurality of anti-vibration devices and farthest from the center of gravity The result of the displacement calculated by the anti-vibration device at the position to determine the estimated damage of the anti-vibration device. For example, the point inspection system of the anti-vibration device of the third item of the scope of patent application, wherein the judging part is in a plurality of anti-vibration devices, and is used at the end of the building supported by the plurality of anti-vibration devices or the farthest position The result of the displacement calculated by the anti-vibration device is used to determine the estimated damage degree of the anti-vibration device. A spot inspection method for anti-vibration devices, including: height measurement process, which measures the height of the anti-vibration device in the vertical direction through the height measuring part; The angle measurement process is to measure the inclination angle of the anti-vibration device with respect to the vertical direction by the angle measurement part; the measurement information transmission process is to measure the verticality of the anti-vibration device after the height measurement part and the angle measurement part separately measure The height of the direction and the measured inclination angle of the anti-vibration device relative to the vertical direction are transmitted to the communication device; and the calculation process is carried out by the calculation part based on the height of the vertical direction after the measurement and the measurement relative to the The vertical inclination angle is calculated as the displacement amount of the offset of the upper and lower ends of the anti-vibration device in the horizontal direction of the anti-vibration device; the anti-vibration device has a layer in which a rubber part and a plate part are alternately laminated Integrated; further comprising: a temperature measurement process, which measures the temperature of the rubber part of the shockproof device by a temperature measuring part; in the measurement information transmission process, the temperature measuring part will further measure the shockproof The temperature of the rubber part of the device is transmitted to the communication device; the memory part will further memorize the reference temperature of the rubber part of the anti-vibration device; the calculation process is based on the reference height and the reference stored in the memory part The inclination angle and/or the reference position of the anti-vibration device in the horizontal direction and the reference temperature, the height of the vertical direction after measurement, the inclination angle relative to the vertical direction after measurement, and the temperature after measurement are calculated. The amount of change from the reference value of the displacement amount. For example, the spot inspection method of the anti-vibration device in the scope of patent application, wherein the temperature measurement process is to measure the surface temperature of the rubber part of the anti-vibration device. For example, the spot inspection method of anti-vibration device in the scope of patent application 7 or 8, wherein the height measurement process is to measure the height in the vertical direction at multiple positions on the periphery of the anti-vibration device; The plurality of positions includes at least one pair of positions along the periphery of the anti-vibration device that are 20% to 30% away from the diagonal position of the circumference; the calculation process is the height of the pair in the vertical direction after measuring the position of the pair The difference is calculated as the tilt amount. For example, the inspection method of the anti-vibration device of the seventh or eighth scope of the patent application further includes: a judging process, which is based on the predetermined threshold stored in the memory unit and the calculated displacement to determine the anti-vibration device Presumption of damage. For example, the inspection method of the anti-vibration device in the tenth item of the scope of patent application, wherein the judgment process is to use the result of the individual displacement calculated in the multiple anti-vibration device to determine the individual estimated damage degree of the complex anti-vibration device. For example, the inspection method of the anti-vibration device of item 10 of the scope of patent application, wherein the judgment process is in a plurality of anti-vibration devices, using the anti-vibration device located farthest from the center of gravity of the building supported by the plurality of anti-vibration devices The calculated result of the displacement is used to judge the estimated damage of the anti-vibration device. For example, the inspection method of the shockproof device in the tenth item of the scope of patent application, wherein the judging process is in a plurality of shockproof devices, using the position closest to the center of gravity of the building supported by the plurality of shockproof devices and farthest from the center of gravity The result of the displacement calculated by the anti-vibration device at the position to determine the estimated damage of the anti-vibration device. For example, the inspection method of the shockproof device of the tenth item of the scope of patent application, wherein the judging process is in the multiple shockproof device, which is used at the end of the building supported by the multiple shockproof device or the farthest end The result of the displacement calculated by the anti-vibration device is used to determine the estimated damage degree of the anti-vibration device.

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