JP4550448B2 - Elevator measuring device - Google Patents

Description

  The present invention relates to an elevator measuring device used for measuring vibrations and noise in a passenger compartment during maintenance and inspection of the elevator.

  As the elevator continues to be used, vibration and noise may increase. When vibration and noise exceed a certain level, the user feels uncomfortable, and measures to reduce vibration and noise are required regularly. In addition, in order to determine the cause of vibration and noise, it is necessary to perform measurement by changing the installation location of the measuring device according to the state of occurrence of vibration and noise. The causes of vibration and noise differ slightly depending on the type of elevator and for each individual, so it is important that workers with specialized knowledge and experience go to the site and measure it quickly and accurately. It is necessary to install and measure the equipment.

  In an escalator, there is a data collection device including a measuring instrument attached to a drive system and a data collector connected to the measuring instrument by a connector (see, for example, Patent Document 1). In the data collection device, a measuring instrument is incorporated at a predetermined position in order to measure aging and detect abnormalities at an early stage. Moreover, in order to prevent the recording mistake of each measuring device, the reader which reads the data code prepared for every measuring device is provided.

Moreover, in an elevator, there exists a measuring system provided with the measuring device installed in the floor of the passenger compartment of a riding board, and the command apparatus connected to this (for example, refer patent document 2). The measurement worker gets into the ride and operates the control panel to measure the data related to the travel characteristics of the ride while moving the ride.
Japanese Patent Laid-Open No. 8-1985567 JP 10-197555 A

  However, since the data collection device of Patent Document 1 has limited measurement points, complicated analysis and experience are necessary to find the source of vibration and noise, and appropriate measures are taken on the spot based on the measured data. Difficult to do. If the number of measurement points is increased, the analysis becomes easier and the cause can be easily pursued. However, since a large number of measuring instruments are required for the measurement points, the cost is too high.

  In addition, in the case of the measurement system of Patent Document 2, the measurement device is installed on the floor surface of the occupant room, so it is excellent in versatility, but it is away from the drive system that is the source of vibration, and thus vibration and noise. It is difficult to determine the source of Furthermore, there is a risk that the installation position of the measuring instrument may be shifted each time measurement is performed, and it is difficult to accurately grasp changes over time of vibration and noise.

  Therefore, the present invention provides an elevator operating state measuring device that facilitates measurement work to identify the cause of vibration and noise generated in an elevator and can measure a secular change of vibration and noise. The purpose is to provide.

  The elevator operating state measuring apparatus according to the present invention includes an input unit, a portable detector, a data processing unit, and a portable recording unit. When inspecting the operation state of the riding section of the elevator, the input section inputs measurement conditions. The portable detector is appropriately replaced with a plurality of measurement positions provided in advance in the riding section, detects an operating state during movement, and outputs a riding section measurement signal. The data processing unit reads a control signal output from the control panel to a driving device that operates the riding section, and outputs the control signal in association with the riding section measurement signal. The portable recording unit records the inspection measurement data output from the data processing unit in association with the measurement conditions.

  The elevator operating state measuring device includes an inspection data output unit that outputs inspection measurement data together with measurement conditions in order to analyze the collected inspection measurement data by an external processing device. In order to inspect the operation state of the elevator in more detail, the elevator operation state measurement device further includes a drive unit detector that is attached to the drive device and detects the operation state of the drive device and outputs a drive unit measurement signal. In this case, the drive unit measurement signal is associated with the control signal and the riding unit measurement signal in the data processing unit.

  In addition, the elevator operating state measuring device includes a permanent detector, a permanent signal processing unit, a permanent recording unit, and an analyzing unit in order to evaluate the inspection measurement data in consideration of the change in the operational state over time. The permanent detector is permanently installed in the riding section of the elevator, detects an operating state during movement, and outputs a permanent detection signal. The permanent signal processing unit is connected to a control panel and a permanent detector that output a control signal to a drive device that operates the riding section, and outputs the control signal and the permanent detection signal that are input in association with each other. The permanent recording unit records daily measurement data output from the permanent signal processing unit. The analysis unit analyzes daily measurement data and inspection measurement data.

  In addition, in order to collect a large amount of data in one inspection, the data processing unit is connected to a permanent detector and reads a permanent detection signal.

  In order to immediately analyze the inspection data at the site where the elevator is installed, the analysis unit is provided integrally with the portable recording unit and the data processing unit. And in order to perform the evaluation which considered secular change, an analysis part is directly connected to a permanent recording part and a portable recording part, and reads daily measurement data and test | inspection measurement data. Furthermore, in order to measure the operational status of an elevator over time, a permanent data output unit that outputs daily measurement data to a base station installed outside the building where the elevator is installed, and a daily measurement data connected to the base station And a data collecting device for recording.

  And in order to perform advanced analysis with inspection measurement data and improve the state of the elevator on the spot, a permanent data output unit that outputs daily measurement data to a base station provided outside the building where the elevator is installed, A data collection device that is connected to the base station and records daily measurement data, and a reception unit that captures the daily data from the data collection device via the base station are provided. In this case, the analysis unit is arranged on the side where the data collection device is installed. And the result of analyzing the measurement data recorded in the portable recording unit integrated with the transmitting unit that outputs to the data collection device via the base station, the data processing unit and the portable recording unit, and analyzed by the analysis unit And a receiving unit that receives the signal via a base station.

  In the case where the elevator is an elevator, the portable detector is provided on the outside of the riding rod that serves as a riding section. When the elevator is an escalator, the portable detector is provided on the back surface of the step serving as the riding section. The measurement data detected by the portable detector preferably includes at least one of acceleration, speed, displacement, distortion, and torque.

  The elevator operating state measuring apparatus according to the present invention includes a portable detector that can be appropriately replaced with a plurality of measurement positions provided in advance in the riding part when inspecting the riding part's operating state such as vibration and noise. Therefore, it is not necessary to provide a plurality of detectors, and since the measurement position is determined in advance, it is easy to replace the portable detector. In other words, since it is possible to correctly measure the position determined each time without requiring skill, it is possible to accurately detect secular changes at a large number of measurement points.

  Further, according to the invention including the analysis unit together with the data processing unit, the collected data can be analyzed on the spot to extract the problem and take measures for improvement. Moreover, according to the invention provided with the permanent detector, it is possible to capture a more detailed secular change in the operating state of the riding section. The daily measurement data measured by the permanent detector through the base station and the inspection measurement data measured by the portable detector are output and analyzed by the analysis unit located away from the building where the elevator is installed. According to the present invention, it is possible to perform more advanced analysis and to immediately take the advice of a skilled worker and take measures to improve the elevator.

  That is, as described above, according to the measurement device according to the present invention, measurement work performed to identify the cause of vibration and noise generated in the elevator is easy, and vibration and noise such as vibration and noise of the riding section of the elevator It is possible to measure changes over time in the driving state.

  The elevator operating state measuring apparatus according to the first embodiment of the present invention will be described with reference to FIG. 1 and FIG. 2 by taking the measuring apparatus 1 applied to the elevator 21 as an example. As shown in FIG. 1, the elevator 21 includes a riding rod 22 and a hoisting machine 23 control panel 24. The hoisting machine 23 suspends the riding rod 22 with a rope 25, and moves the riding rod 22 in the vertical direction by a control signal S1 output from the control panel 24.

  The measuring device 1 is temporarily attached to the elevator 21 during periodic inspections and the like in order to measure driving conditions such as vibration and noise of the riding rod 22 that is a riding section of the elevator 21. Therefore, the measuring device 1 includes an input unit 2, a portable detector 3, a data processing unit 4, a portable recording unit 5, and a data output unit 6, as shown in FIG. The input unit 2 is connected to the control panel 24 via the data processing unit 4. The driving conditions for moving the riding rod 22 to measure the driving state and the measuring conditions such as the mounting location and sensitivity of the portable detector 3 are input from the input unit 2.

  The portable detector 3 incorporates an acceleration sensor for measuring vibration. Further, by incorporating an acceleration sensor, it is possible to detect the moving speed of the riding rod 22 and the acceleration at the start and stop of movement, in addition to vibration. In addition to the acceleration sensor, the portable detector 3 may be equipped with a sensor that measures distortion and sound. A plurality of measurement positions 7 for attaching the portable detector 3 are provided in advance on the outside of the riding rod 22. The portable detector 3 is fixed to one of the measurement positions 7 and is replaced with the next measurement position 7 when a scheduled measurement is performed.

  In the vicinity of each measurement position 7, attaching a nameplate with its position information, correction values and calibration values at the time of shipment, test conditions, and numerical values encoded with these, burdens the work of inputting measurement conditions. Can be reduced. An example of the arrangement of the measurement positions 7 is shown in FIG. The measurement position 7 may be arranged so that the driving state such as vibration and noise of the ride 22 can be accurately measured and the source of vibration and noise can be specified from the inspection measurement data. Therefore, in addition to the arrangement shown in FIG. 2, it may be provided in the vicinity of a place where the rope 25 is fixed, a rail, a coffin door, or the like.

  The data processing unit 4 is connected to the control panel 24 via the signal line 8 and reads the control signal S1 output from the control panel 24 to the hoisting machine 23 that is a driving device that operates the riding rod 22. The data processing unit 4 is connected to the portable detector 3, and outputs the boarding portion measurement signal S2 output from the portable detector 3 as the inspection measurement data S3 in association with the control signal S1. The portable recording unit 5 is connected to the data processing unit 4 and records the inspection measurement data S3 output from the data processing unit 4 together with the measurement conditions.

  The data output unit 6 is connected to the data processing unit 4 and outputs the inspection measurement data S3 recorded in the portable recording unit 5 via the data processing unit 4. The data output unit 6 may be a recording medium such as a CD, a DVD, and a removable memory, or may be a signal line connected by a cable.

  The input unit 2, the data processing unit 4, the portable recording unit 5, and the data output unit 6 are configured as a dedicated portable terminal 10 that is gathered together so as to be portable. Specifically, a notebook personal computer equipped with these functions is preferable.

  The measuring device 1 configured as described above is connected to the control panel 24 via the signal line 8 when performing periodic inspections such as maintenance, and the portable detector 3 is fixed at one of the first measurement positions 7. Measurement conditions such as the measurement position 7 are input from the input unit 2. Since the portable detector 3 is attached to the carriage 22 of the elevator 21 to be inspected at every inspection, correction values and calibration values of the portable detector 3 are input in advance before the inspection. It is possible to keep.

  The inspection measurement data S3 is obtained by operating the riding rod 22 and collecting the riding section measurement signal S2 detected during that time. When one measurement is completed for one measurement position 7, the portable detector 3 is replaced with the next measurement position 7 and the inspection measurement data S3 is collected in the same manner. The collected inspection measurement data S3 may be taken back to a service center and analyzed, and based on the results, measures for improving vibration and noise may be applied. For those that can be analyzed on the spot, the data is processed on the spot. You may take improvement measures.

  As described above, the measurement apparatus 1 performs measurement by appropriately replacing the portable detector 3 with respect to the measurement positions 7 provided in advance at a plurality of locations, so that a large number of detectors are not required for detailed inspection. Moreover, since the measurement position 7 is provided in advance, the portable detector 3 can be attached to the same position with good reproducibility, and it is easy to detect a secular change by comparing with past data.

  An elevator operating state measuring apparatus according to a second embodiment of the present invention will be described with reference to FIG. 3 taking a measuring apparatus 1A applied to an elevator 21 as an example. In addition, about the same structure as the measuring apparatus 1 of 1st Embodiment, the same code | symbol is attached | subjected and the description is abbreviate | omitted.

  A measurement apparatus 1A shown in FIG. 3 includes a communication unit 11 and an analysis unit 12 in addition to the configuration of the measurement apparatus 1 described in the first embodiment. The communication unit 11 is another form of the data output unit 6. The analysis unit 12 is provided on the server 31 side such as a service center. The server 31 is connected to a base station 100 provided outside the building where the elevator 21 is installed. The communication unit 11 functions as a transmission unit that transmits the inspection measurement data S3 collected in the portable recording unit 5 toward the base station 100, and results of analysis by the analysis unit 12 from the server 31 connected to the base station 100. And a function as a receiving unit for receiving. The server 31 includes a data collection device 13 in addition to the analysis unit 12. The data collection device 13 accumulates transmitted inspection measurement data S3, analysis results, and the like.

  The measuring apparatus 1A configured as described above includes the analysis unit 12 on the service center side via the base station 100, so that advanced analysis is also performed on the service center side, and the analysis result is installed by the elevator 21. Appropriate improvement measures can be taken immediately by sending them back to the site. In addition, even in the case where an inexperienced worker responds locally, technical support by an experienced worker is possible.

  An elevator operating state measuring apparatus according to a third embodiment of the present invention will be described with reference to FIG. 4 by taking a measuring apparatus 1B applied to an elevator 21 as an example. In addition, about the same structure as the measuring devices 1 and 1A of 1st and 2nd embodiment, the same code | symbol is attached | subjected and the description is abbreviate | omitted.

  In addition to the configuration of the measurement devices 1 and 1A described in the first and second embodiments, the measurement device 1B includes a permanent detector 41, a permanent signal processing unit 42, a permanent recording unit 43, a permanent data output unit 44, and data. The collector 13 and the drive unit detector 46 are provided. The permanent detector 41 incorporates an acceleration sensor to detect vibration, noise, and the like, and is fixed to the outside of the riding rod 22 where the driving state that affects riding comfort and the like is most noticeable. The permanent detector 41 detects daily vibration and noise generated by the movement of the riding rod 22 and outputs a permanent detection signal S4.

  The permanent signal processing unit 42 is connected to a control panel 24 that outputs a control signal S1 to the hoisting machine 23 that is a driving device, and a permanent detector 41. The permanent signal processing unit 42 associates the input control signal S1 with the permanent detection signal S4 and outputs it as daily measurement data S5. The permanent recording unit 43 records the daily measurement data S5 output from the permanent signal processing unit 42. The permanent data output unit 44 is connected to the permanent recording unit 43. When the daily measurement data S5 recorded by the permanent recording unit 43 is collected to some extent, the permanent data output unit 44 outputs it to the base station 100.

  The data collection device 13 is connected to the base station 100 via the server 31 and accumulates the transmitted daily measurement data S5. The drive unit detector 46 is attached to the drive device of the elevator 21, that is, the hoisting machine 23 in the present embodiment, detects the operation state of the drive device, and outputs the drive unit measurement signal S6. The drive detector 46 incorporates an acceleration sensor for detecting vibration. Further, by incorporating a torque sensor or the like that directly attaches a strain gauge to the rotating shaft, the rotational acceleration and load of the rotating shaft of the hoisting machine 23 can be detected. The drive unit detector 46 is connected to the permanent signal processing unit 42. The permanent signal processing unit 42 records the drive unit measurement signal S6 in the permanent recording unit 43 as daily measurement data S5 in association with the control signal S1 and the permanent detection signal S4 that are input simultaneously. The input unit 2, the data processing unit 4, the portable recording unit 5, and the communication unit 11 are integrally provided as the portable terminal 10.

  Since the measuring device 1B configured as described above always detects the driving state during movement of the riding rod 22 even during normal driving, it is possible to grasp a more detailed tendency of aging. Further, it is possible to quickly detect vibrations and noise that increase before the periodic inspection and take improvement measures.

  Further, when the analysis unit 12 is provided inside the mobile terminal 10 in the periodic inspection, the measurement device 1B reads the daily measurement data S5 from the data collection device 13 via the base station 100 by the communication unit 11. The analysis unit 12 analyzes the inspection measurement data S3 in consideration of the read daily measurement data S5, thereby making it easier to find the source of vibration and noise more quickly and accurately, and the secular change of vibration and noise. Thus, it is possible to estimate the life of, for example, a consumable part more accurately. In addition, when the analysis unit 12 is provided in the mobile terminal 10, in addition to the daily measurement data S5 accumulated in the data collection device 13 on the base station 100 side, as shown by a dotted line in FIG. By connecting the portable terminal 10 to the permanent recording unit 43, the latest driving state of the riding rod 22 and the driving device (the hoisting machine 23) can be reflected in the analysis. The daily measurement data S5 may be read into the mobile terminal 10 before going to the inspection, or may be read through the base station 100 as needed after arrival at the site.

  Further, when the analysis unit 12 is provided on the server 31 side connected to the base station 100 as in the measurement device 1A in the second embodiment, the measurement device 1B transmits the base station 100 from the communication unit 11. The inspection measurement data S3 is output (transmitted) to the analysis unit 12 and the analysis result of the inspection measurement data S3 together with the daily measurement data S5 recorded in the data collection device 13 on the server 31 side is received. Can do.

  As a result, the worker can take more accurate countermeasures against vibration and noise. In addition, even a worker who has little experience with respect to vibration and noise countermeasures can obtain detailed technical assistance from the worker on the vibration and noise countermeasures on the server 31 side. In the periodic inspection, if the permanent detector 41 is connected to the portable terminal 10 as indicated by the one-dot chain line in FIG. 4 and the permanent detection signal S4 is read, more data can be collected.

  Note that the drive unit detector 46 may be installed at every periodic inspection. Further, the permanent detector 41 may be attached to the hoisting machine 23 instead of being attached to the riding rod 22. In addition to the hoisting machine 23, the driving device includes a speed reducer, a pulley around which the rope 25 is wound, and the like.

  An elevator operating state measuring apparatus according to a fourth embodiment of the present invention will be described with reference to FIGS. 5 and 6, taking a measuring apparatus 1 </ b> C applied to the escalator 51 as an example. In addition, about the same structure as the measuring device 1,1A, 1B of 1st-3rd embodiment, the same code | symbol is attached | subjected and the description is abbreviate | omitted. As shown in FIG. 5, the escalator 51 includes a step 52, a drive motor 53, a drive sprocket 54, a driven sprocket, a step rail 56, and a control panel 24. A number of steps 52 are connected to a step chain 57 formed in an endless shape. The drive motor 53 and the drive sprocket 54 are part of the drive equipment, and circulate the step chain 57 that is turned around between the drive sprocket 54 and the driven sprocket by the control signal S1 output from the control panel 24. .

  The measuring device 1 </ b> C is temporarily attached to the escalator 51 during a periodic inspection or the like in order to measure an operation state such as vibration or noise of the step 52 that is a boarding portion of the escalator 51. As shown in FIG. 1, the measuring device 1 </ b> C includes an input unit 2, a portable detection unit 3 </ b> A, a drive unit detector 46, a data processing unit 4, a portable recording unit 5, a communication unit 11, an analysis unit 12, and a detection data reception unit 15. With. The input unit 2, the data processing unit 4, the portable recording unit 5, the communication unit 11, the analysis unit 12, and the detection data receiving unit 15 are integrally provided as a dedicated portable terminal 10.

  As shown in FIG. 6, the mobile detection unit 3 </ b> A is attached to a measurement position 7 provided on the back side of each step 52. The mobile detection unit 3A may be attached to a plurality of steps 52 at a time, or may be attached to one selected step 52. The portable detection unit 3A includes a portable detector 3 that includes an acceleration sensor that detects vibration, a signal processing unit 16 that converts the detected signal into a riding section measurement signal S2 that can be transmitted, and a signal transmission unit 17. Yes. Further, the portable detection unit 3A includes a battery that supplies power necessary for operating the signal processing unit 16 and the signal transmission unit 17.

  The detection data receiving unit 15 is connected to the data processing unit 4 and receives the riding section measurement signal S2 output from the signal transmission unit 17 of the mobile detection unit 3A. That is, the detection data receiving unit 15, the signal processing unit 16, and the signal transmission unit 17 are for wirelessly communicating signals between the portable detector 3 and the data processing unit 4.

  The drive unit detector 46 is attached to the body of the drive motor 53 and the rotation shaft of the drive sprocket 54. The riding section measurement signal S2 and the drive section measurement signal S6 are associated with the control signal S1 in the data processing section 4, and are recorded in the portable recording section 5 together with the measurement conditions as inspection measurement data S3. When measurement is completed for one step 52, the portable detection unit 3A is replaced with the measurement position 7 provided on the next step 52, and the inspection measurement data S3 is collected.

  Moreover, the permanent signal processing part 42, the permanent recording part 43, and the permanent data output part 44 are provided like the measuring apparatus 1B of 3rd Embodiment. Therefore, the measurement device 1 </ b> C functions in the same manner as when the measurement device 1 </ b> B of the third embodiment includes the analysis unit 12 inside the mobile terminal 10. In the present embodiment, instead of the permanent detector 41, the portable detection unit 3A is permanently installed at the measurement position 7 of an arbitrary step 52, and a signal output from the portable detection unit 3A is received by the permanent signal processing unit 42. By separately providing the receiving unit, it is possible to collect the operation state of the step such as vibration and noise as the daily measurement data S5.

1 is a block diagram showing an elevator operating state measuring apparatus according to a first embodiment of the present invention applied to an elevator. The bottom view which shows the measuring device attachment position previously provided in the riding board of the elevator of FIG. 1 from the downward direction. The block diagram which shows the elevator operating state measuring apparatus of 2nd Embodiment which concerns on this invention by applying to an elevator. The block diagram which shows the elevator operating state measuring device of 3rd Embodiment concerning this invention applied to an elevator. The block diagram which shows the elevator operating state measuring device of 4th Embodiment concerning this invention applied to an escalator. The block diagram which shows the test | inspection measurement unit attached to the step shown in FIG. 5, and its measurement position.

Explanation of symbols

  DESCRIPTION OF SYMBOLS 1,1A, 1B, 1C ... Measuring device (Elevator operation state measuring device), 2 ... Input part, 3 ... Form detector, 4 ... Data processing part, 5 ... Portable recording part, 6 ... Data output part, 7 ... Measurement Position, 8 ... signal line, 11 ... communication unit (data output unit, transmission unit, reception unit), 12 ... analysis unit, 13 ... data collection unit, 21 ... elevator (elevator), 22 ... riding board (boarding unit), DESCRIPTION OF SYMBOLS 23 ... Winding machine (drive device), 24 ... Control board, 41 ... Permanent detector, 42 ... Permanent signal processing part, 43 ... Permanent recording part, 44 ... Permanent data output part, 46 ... Drive part detector, 51 ... Escalator (elevator), 52 ... Step (carrying part), 53 ... Drive motor (drive equipment), 54 ... Drive sprocket (drive equipment), 100 ... Base station, S1 ... Control signal, S2 ... Ride part measurement signal, S3 ... Inspection measurement data, S4 ... Permanent detection signal, S5 ... Daily measurement Over data, S6 ... drive unit measurement signal.

Claims (15)

An input unit for inputting measurement conditions when inspecting the operating state of the riding section of the elevator; and
A portable detector that detects the operating state during movement by appropriately changing to a plurality of measurement positions provided in advance in the riding section and outputs a riding section measurement signal;
A data processing unit for outputting a control signal outputted from the control panel to a drive device for operating the riding section in association with reading the riding section measurement signal,
E Bei a portable recording unit for recording the test and measurement data output from the data processing unit in association with the measurement conditions
The elevator is an escalator,
The elevator operating state measuring apparatus , wherein the portable detector is provided on a back surface of a step serving as the riding section .   The elevator operating state measuring apparatus according to claim 1, further comprising an inspection data output unit that outputs the inspection measurement data together with the measurement conditions. A drive unit detector that is attached to the drive device and detects a driving state of the drive device and outputs a drive unit measurement signal;
The elevator operation state measuring apparatus according to claim 1, wherein the driving unit measurement signal is associated with the control signal and the riding section measurement signal in the data processing unit. An input unit for inputting measurement conditions when inspecting the operating state of the riding section of the elevator; and
A portable detector that detects the operating state during movement by appropriately changing to a plurality of measurement positions provided in advance in the riding section and outputs a riding section measurement signal;
A data processing unit that reads a control signal output from a control panel to a driving device that operates the riding unit, and outputs the control signal in association with the riding unit measurement signal;
A portable recording unit that records inspection measurement data output from the data processing unit in association with the measurement condition;
A permanent detector that is permanently installed in the riding section of the elevator and detects an operating state during movement and outputs a permanent detection signal;
A control panel that outputs a control signal to a driving device that operates the riding section, and a permanent signal processing unit that outputs the control signal and the permanent detection signal that are connected to and input to the permanent detector;
A permanent recording unit for recording daily measurement data output from the permanent signal processing unit;
An analysis unit for analyzing the daily measurement data and the inspection measurement data;
It characterized by obtaining Bei the temperature disembarkation operation state measurer.   The elevator operating state measuring device according to claim 4, further comprising an inspection data output unit that outputs the inspection measurement data together with the measurement conditions.   A drive unit detector that is attached to the drive device and detects a driving state of the drive device and outputs a drive unit measurement signal;
  The elevator operation state measuring apparatus according to claim 4, wherein the driving unit measurement signal is associated with the control signal and the riding section measurement signal in the data processing unit.   The elevator operation state measuring device according to claim 4, wherein the data processing unit is connected to the permanent detector and reads the permanent detection signal.   The elevator operating state measuring device according to claim 4, wherein the analysis unit is provided so as to be portable with the portable recording unit and the data processing unit.   The elevator operating state measuring device according to claim 8, wherein the analysis unit is directly connected to the permanent recording unit and the portable recording unit and reads the daily measurement data and the inspection measurement data.   A permanent data output unit for outputting the daily measurement data to a base station provided outside the building where the elevator is installed;
  A data collection device connected to the base station for recording the daily measurement data;
  The elevator operating state measuring device according to claim 8, further comprising a receiving unit that takes in the daily measurement data from the data collection device via the base station.   A permanent data output unit for outputting the daily measurement data to a base station provided outside the building where the elevator is installed;
  A data collection device connected to the base station for recording the daily measurement data;
The elevator operating state measuring device according to claim 4, comprising:   The analysis unit is arranged on the side where the data collection device is installed,
  A transmitter that outputs the test measurement data recorded in the portable recording unit to the data collection device via the base station;
  A receiving unit that is provided integrally with the data processing unit and the portable recording unit so as to be portable and receives the result analyzed by the analyzing unit via the base station;
The elevator operating state measuring device according to claim 11, comprising:   The elevator is an elevator,
  The lifting / lowering machine operating state measuring device according to claim 4, wherein the portable detector is provided outside a riding board serving as the riding section.   The elevator is an escalator,
  5. The elevator operating state measuring device according to claim 4, wherein the portable detector is provided on a back surface of a step serving as the riding section.   The elevator according to any one of claims 1 to 12, wherein the inspection measurement data detected by the portable detector includes at least one of acceleration, speed, displacement, strain, and torque. Operating state measuring device.

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