JP2009046248A - Earthquake controlled-operation data collection system of elevator - Google Patents

Abstract

<P>PROBLEM TO BE SOLVED: To provide an earthquake controlled-operation data collection system for collecting, reporting to people concerned and evaluating controlled-operation data at the time of earthquake by utilizing simultaneous delivery service of an emergency earthquake advance report by a cellular phone. <P>SOLUTION: A control device of an elevator for controlling an elevator controlled operation when a cellular phone terminal receives the emergency earthquake advance report is provided with the cellular phone unit, having an automatic time setting function 30, for receiving the emergency earthquake advance report 6 distributed for cellular phones from a local base station 5 where large seismic vibration is anticipated, an elevator control panel, a P-wave sensor, a low sensitive seismometer, a control terminal to which the cellular phone unit is connected and an acceleration sensor 13 for detecting actual vibration of a building. The control device of the elevator collects data of receiving time of the emergency earthquake advance report by the cellular phone unit, P-wave sensor operation time, low sensitive seismometer operation time and acceleration sensor operation time. <P>COPYRIGHT: (C)2009,JPO&INPIT

Description

  The present invention uses a simultaneous broadcast delivery service for emergency earthquake warnings using mobile phones to realize elevator operation at the time of an earthquake that is cheaper than before, and also collects control operation data at the time of the occurrence of an earthquake. This is related to an elevator operation control data collection system that reports and evaluates

As an example of prior art, there has been proposed an elevator seismic control operation system that can detect an earthquake sufficiently early and that can reliably detect an earthquake, and therefore can perform safe and reliable control of the elevator (for example, patents). Reference 1).
As another conventional technology, it is possible to improve the reliability of emergency earthquake warnings and transmit earthquake information and tsunami information in a form that is highly convenient for users based on the improved emergency earthquake warnings. Emergency earthquake warning device that can be used (see, for example, Patent Document 2), an emergency earthquake warning terminal that is useful and highly convenient and reliable in a form closely related to the life of the user, and that is compatible with an appropriate and simple billing system; A method of using the same has been proposed (see, for example, Patent Document 3).

JP 2004-284758 A JP 2006-112922 A JP 2006-145234 A

In the prior art described in Patent Document 1, a real-time earthquake information receiving apparatus that is connected to a real-time earthquake information transmitting apparatus via a network and receives real-time earthquake information transmitted from the real-time earthquake information transmitting apparatus, that is, information relating to P waves. And the output of the seismic detector installed in each elevator, it is a method of controlling operation at the time of elevator earthquake, but since the real-time earthquake information transmission device is via a network, especially in the event of an earthquake, etc. There is a possibility that some kind of communication failure may occur on the way, and the received information is also related to normal P waves, so there is a limit even if it can detect earthquakes at an early stage, and there is a problem that it is still insufficient. It was.
In addition, the conventional ones described in Patent Document 2 include a first seismic observation network formed from a multi-function seismometer mainly controlled by the Japan Meteorological Agency and a high sensitivity mainly controlled by the National Institute for Disaster Prevention Science and Technology. The second earthquake observation network formed from the seismometer is received to improve the reliability of the emergency earthquake warning, while the one described in Patent Document 3 is appropriate and simple for the distribution of the emergency earthquake warning. Is an emergency earthquake warning terminal and its usage that are compatible with the billing system, both of which make use of a simultaneous broadcast delivery service for emergency earthquake warnings using mobile phones to operate seismic control of inexpensive elevators. The elevator control device that can be realized is not considered.

  The present invention has been made to solve the above-described problems. By utilizing a simultaneous broadcast delivery service for emergency earthquake warnings using a mobile phone, the elevator can be controlled and operated more quickly in the event of an earthquake. This system provides an elevator operation control data collection system for earthquakes that can ensure safety or prevent damage to equipment, and collect control operation data at the time of an earthquake to report and evaluate related parties. is there.

  In the elevator operation control data collection system for an earthquake according to the present invention, an emergency is provided to a mobile phone in the area from a base station in an area that is provided in a building at the elevator installation site and is expected to have a large earthquake shake. A mobile phone terminal that receives earthquake early warning and has an automatic time setting function, an elevator control panel having a P-wave signal terminal and a low-sensing seismometer signal terminal, a P-wave sensor, a low-sensing seismometer, and a mobile phone terminal Is provided with a control terminal configured to be connectable and an acceleration sensor provided in the control terminal for detecting actual shaking of the building. When the mobile phone terminal receives the earthquake early warning in the area, the mobile phone terminal Emergency earthquake warning signal output and P wave sensor output to the P wave signal terminal of the elevator control panel to stop the elevator at the nearest floor and When the degree sensor detects the shaking of the building or the low-sensing seismometer detects shaking, it outputs to the low-sensing seismometer signal terminal of the elevator control panel and the elevator continues to stop operation, and the acceleration sensor, low-sensing seismometer If any of the above is not detected, in the elevator control device for returning the elevator to normal operation, the emergency earthquake warning reception time by the mobile phone terminal, the P-wave sensor operation time, the low-sensing seismometer operation time, and the acceleration sensor operation Time data is aggregated.

  The collected log data is transmitted to the emergency earthquake evaluation system of the maintenance company reception system using a mobile phone terminal.

  In addition, the emergency earthquake evaluation system of the maintenance company reception system is able to judge the damage situation for each region by displaying the operation status of the earthquake detector in the whole city on the prepared map screen. .

  According to the present invention, by utilizing a simultaneous broadcast delivery service for emergency earthquake warnings using a mobile phone, the elevator can be controlled earlier when an earthquake occurs, ensuring passenger safety or preventing equipment damage, Since control operation data at the time of the occurrence of an earthquake can be aggregated and reported and evaluated to related parties, reports to building owners and building managers are possible. Also, by evaluating and analyzing the aggregated data, the damage situation of the elevator can be determined, and the maintenance company can instantaneously determine the scale of securing the corresponding personnel.

Before describing the embodiment of the present invention, an elevator control device which is the basis of the present invention will be described first.
FIG. 1 is a system configuration diagram showing the overall configuration of an elevator control device as the basis of the present invention, FIG. 2 is a connection circuit diagram showing the main configuration of the elevator control device as the basis of the present invention, and FIG. 3 is an emergency earthquake. FIG. 4 is an explanatory diagram for explaining the temporal effect of the breaking news, and FIG. 4 is a flowchart for explaining the operation control operation at the time of earthquake of the elevator control device as the basis of the present invention.

  As a new earthquake early warning service, simultaneous broadcast distribution of emergency earthquake early warning by mobile phone is about to be realized. This simultaneous broadcast service for earthquake early warnings will be distributed to mobile phones in areas where seismic intensity of 4 or greater is expected, and the provision of services to the general public is scheduled to begin on October 1, 2007. ing. In current elevators, distributors receive earthquake early warnings from the Japan Meteorological Agency via the Internet line, and the predicted seismic intensity and estimated arrival time for each building distributed by the distributor are received via, for example, a VPN (Virtual Private Network) line. By doing so, the elevator will be controlled during an earthquake. However, this method has a big problem that initial installation costs such as dedicated receivers and line costs increase. Therefore, if you use an emergency earthquake warning broadcast service using a mobile phone, you can realize cheaper seismic control operation by using the mobile phone network service to control the elevator. It will be possible to provide users with even more secure and safe services. Currently, about 35% of elevators are said to have undeveloped control equipment during earthquakes, and installation of P-wave detectors is obligatory for newly installed elevators.

  First, the overall configuration of an elevator control device using a simultaneous broadcast distribution service for emergency earthquake warnings using a mobile phone will be described with reference to FIG. In FIG. 1, reference numeral 1 denotes a meteorological agency emergency earthquake notification network in which the Japan Meteorological Agency 3 transmits emergency earthquake early warnings from a large number of seismometers 2 provided throughout the country. 4 is a mobile phone company. Mobile phone company 4 receives earthquake early warnings from the Japan Meteorological Agency Emergency Earthquake Notification Network 1 and distributes earthquake early warnings simultaneously to mobile phones in areas where seismic intensity greater than 4 is expected. The earthquake early warning service 6 is distributed from the base station 5 in the corresponding area to the mobile phone in the area. On the other hand, an elevator control panel 8 and an S-wave seismometer 9 are installed at an elevator installation site 7 made up of each building, etc., but in addition, an emergency earthquake occurs from a base station 5 in a region corresponding to a seismic intensity 4 or higher of the mobile phone company 4 A control terminal 12 having a control interface 11 configured to be connectable with a mobile phone terminal 10 that receives the breaking news service 6 is installed. The control interface 11 of the control terminal 12 has a full-spec configuration, for example, as shown in FIG. FIG. 2 shows an example in which a control terminal 12 for emergency earthquake warning by a mobile phone terminal 10 is installed at a site where both a low-sensing seismometer and a P-wave sensor are installed. The control interface 11 includes an acceleration sensor 13 configured to detect an actual building shake at low cost, a breaking signal output contact 14 that outputs emergency earthquake breaking service information received by the mobile phone terminal 10, and an acceleration sensor 13. Acceleration sensor operation contact 15 that is turned on when the actual building shake is detected, and if the acceleration sensor 13 does not detect the actual building shake, the control operation is reset to return to the normal operation after the earthquake. And a contact 16. The circuit of the reset contact 16 is used only when the elevator control panel 8 has no P wave signal input circuit. Reference numeral 17 denotes an output terminal of the breaking signal output contact 14 provided in the control terminal 12, 18 denotes an output terminal of the acceleration sensor operation contact 15 provided in the control terminal 12, and 19 denotes an output of the reset contact 16 provided in the control terminal 12. Terminal. The output terminal 19 of the reset contact 16 is also used only when the elevator control panel 8 has no P wave signal input circuit. Note that the breaking signal output from the cellular phone terminal 10 is such that the breaking signal output contact 14 is closed for the estimated arrival time +60 seconds. Therefore, when 1 minute has elapsed from the estimated arrival time, the elevator recovers. If there is a P-wave sensor 20, it stops at the nearest floor with the earlier signal. The acceleration sensor 13 is used as a false alarm prevention function. That is, even if there is an early warning signal output from the mobile phone terminal 10, if the acceleration sensor 13 does not detect actual shaking of the building thereafter, a signal for resetting the control operation during earthquake is output as a false alarm. Reference numeral 20 denotes a P-wave sensor, 21 denotes an operating contact of the P-wave sensor 20, 22 denotes a low-sensing seismometer of the S-wave seismometer 9, and 23 denotes an operating contact of the low-sensing seismometer 22. Reference numeral 24 denotes a P-wave signal terminal provided on the elevator control panel 8. The P wave signal terminal 24 is connected to the operation contact 21 of the P wave sensor 20 and is also connected to the output terminal 17 of the breaking signal output contact 14 via a signal line 25. A low-sensing seismometer signal terminal 26 is provided on the elevator control panel 8. The low-sensing seismometer signal terminal 26 is connected to the operating contact 23 of the low-sensing seismometer 22 and is also connected to the output terminal 18 of the acceleration sensor operating contact 15 via a signal line 27. 28 is an earthquake control reset terminal provided on the elevator control panel 8. The earthquake control reset terminal 28 is connected to the output terminal 19 of the reset contact 16 via the signal line 29 only when the elevator control panel 8 is not equipped with the P-wave signal terminal 24. The signal line 29 is represented by a dotted line which is a virtual line for convenience.

  In FIG. 2, when the earthquake detector is installed but the P-wave sensor is not installed, the output terminal of the breaking signal output contact 14 for outputting the emergency earthquake breaking service information from the mobile phone terminal 10 17 and the P wave signal terminal 24 normally provided in the elevator control panel 8 are connected via the signal line 25, the earthquake early warning received by the mobile phone terminal 10 even if the P wave sensor is not installed. By inputting a service information signal to the P-wave signal terminal 24 of the elevator control panel 8, the elevator can be stopped at the nearest floor at an early point. In this case, since the elevator control panel 8 has an input circuit for the P-wave signal terminal 24, a reset contact circuit is unnecessary. The elevator control panel 8 is usually provided with a P-wave signal terminal 24 regardless of whether it is used.

  In FIG. 2, when neither the earthquake detector nor the P-wave sensor is installed, the output terminal 17 of the early warning signal output contact 14 for outputting the emergency earthquake early warning service information from the mobile phone terminal 10, and the elevator control A P-wave signal terminal 24 normally provided on the panel 8 is connected via a signal line 25, an output terminal 18 of the acceleration sensor operation contact 15, and a low-sensing seismometer signal normally provided on the elevator control panel 8. If the terminal 26 is connected via the signal line 27, the earthquake early warning service information signal received by the mobile phone terminal 10 can be transmitted to the elevator control panel 8 even if neither the earthquake detector nor the P-wave sensor is installed. When the acceleration sensor 13 detects an actual building vibration, the signal is input to the low-sensing seismometer signal terminal 26 of the elevator control panel 8. Since the force, it is possible to be able to stop at the nearest floor elevator at an early point in time. In this case, since the elevator control panel 8 has an input circuit for the P-wave signal terminal 24, a reset contact circuit is unnecessary. The elevator control panel 8 is usually provided with a P-wave signal terminal 24 and a low-sensing seismometer signal terminal 26 regardless of whether they are used.

  Further, in FIG. 2, when it is not necessary to install both the earthquake detector and the P wave sensor, and there is no P wave signal input circuit in the elevator control panel, the emergency earthquake warning service from the mobile phone terminal 10 is provided. The output terminal 17 of the breaking signal output contact 14 for outputting information and the low-sensing seismometer signal terminal 26 normally provided in the elevator control panel 8 are connected via a signal line 25 and the reset contact 16 of the acceleration sensor 13. Output terminal 19 and the earthquake control reset terminal 28 provided on the elevator control panel 8 are connected via a signal line 29, even if neither an earthquake detector nor a P-wave sensor is installed. 10 receives the earthquake early warning service information signal received by the elevator control panel 8 at the low-sensing seismometer signal terminal 26, and the acceleration sensor 13 If it is not detected, the signal of the reset contact 16 for resetting the control operation at the time of earthquake and returning to the normal operation is inputted to the control terminal 28 at the time of the earthquake control of the elevator control panel 8, so that the elevator is the closest If the actual stop of the building is not sensed after being stopped on the floor, it is possible to reset and restore the elevator that has been stopped by sending it to the elevator control panel. The elevator control panel 8 is normally provided with a low-sensing seismometer signal terminal 26 regardless of whether it is used or not. However, since the earthquake control reset terminal 28 is not normally provided, it is installed separately. There is a need.

As shown in FIG. 3, it can be understood that the emergency earthquake bulletin can be received earlier than the operation of the conventional P-wave sensor when it is about 80 km away from the epicenter. It can also be seen that if there is no P wave sensor installed and it is about 40 km away from the epicenter, it can be received faster than the S wave seismic sensor operates. In FIG. 3, the propagation speed of the P wave is 7 km / second, and the propagation speed of the S wave (main shock) is 3.5 km / second.
Therefore, if the earthquake early warning is used, the elevator can be stopped more safely and at an early timing, which is extremely effective for a high-rise elevator. Therefore, as shown in FIG. 2, the P-wave sensor 20 or the emergency earthquake bulletin service information received by the mobile phone terminal 10, whichever signal is earlier, can be received by the P-wave signal terminal 24 of the elevator control panel 8. Therefore, it is effective to be able to stop the elevator at the nearest floor at an early point.

Next, the earthquake control operation of the elevator control device will be described with reference to FIG.
Mobile phone company 4 receives earthquake early warning from the Japan Meteorological Agency Emergency Earthquake Notification Network 1 and corresponds to seismic intensity 4 or higher in order to simultaneously deliver earthquake early warnings to mobile phones in areas where seismic intensity 4 or higher is expected. It is assumed that the earthquake early warning service 6 is distributed from the base station 5 in the area to the mobile phone in the area. First, in step S1, when the mobile phone terminal 10 provided in the control terminal 12 of the elevator installation site 7 receives the earthquake early warning 6 for the area from the base station 5, the earthquake control control signal for the elevator is output, and the early warning signal The signal is input from the output terminal 17 of the output contact 14 to the P wave signal terminal 24 of the elevator control panel 8 via the signal line 25, and the P wave sensor input is turned ON (step S2). When the P-wave sensor 20 is operated, an elevator seismic control signal is output and input to the P-wave signal terminal 24 of the elevator control panel 8 to turn on the P-wave sensor input (step S3). When the earlier signal of the emergency earthquake warning by the P-wave sensor 20 or the mobile phone terminal 10 is received, the elevator stops operation after stopping the nearest floor (step S4). Next, it progresses to step S5 and it is judged whether 1 minute passed from the earthquake estimated arrival time of the said area. If one minute has elapsed in step S5, the output of the elevator seismic control signal is stopped, and the P-wave sensor input to the P-wave signal terminal 24 of the elevator control panel 8 is turned OFF (step S6). ), The elevator is returned to normal operation (step S7).
On the other hand, when the mobile phone terminal 10 provided in the control terminal 12 of the elevator installation site 7 receives the earthquake early warning 6 of the area from the base station 5 in step S1, the control terminal 12 simultaneously activates the acceleration sensor 13. (Step S8). In step S9, when the acceleration sensor 13 detects an actual building shake and detects that the actual building shake is equal to or greater than the set value, the operation contact 15 of the acceleration sensor 13 is turned on to control the elevator during an earthquake. A control signal is output and input from the output terminal 18 of the operating contact 15 of the acceleration sensor 13 to the low-sensing seismometer signal terminal 26 of the elevator control panel 8 via the signal line 27, and the low-sensing is turned ON (step S10). ) After stopping the nearest floor, the elevator is stopped (step S11).
Further, when it is detected in step S9 that the actual shaking of the building is less than the set value, the process proceeds to step S12, and it is determined whether or not 3 minutes have passed since the predicted earthquake arrival time in the area. In addition, when the low-sensing seismometer 22 operates and the operation contact 23 is turned on, it is a matter of course that the elevator is stopped after the nearest floor stop as in step S11. If the elevator control panel 8 does not have an input circuit for the P-wave signal terminal 24, if 3 minutes have passed in step S12, reset the earthquake-controlled operation of the acceleration sensor 13 to return to normal operation. The contact 16 is turned on (step S13), and the elevator is returned to normal operation (step S7).

Embodiment 1 FIG.
FIG. 5 is a system configuration diagram showing a main configuration of the elevator seismic control operation data totaling system according to Embodiment 1 of the present invention, and FIG. 6 is an elevator earthquake control operation data totaling system according to Embodiment 1 of the present invention. 7 is an explanatory diagram showing an example of the log data, FIG. 7 is a system configuration diagram showing the overall configuration of the elevator seismic control operation data totaling system according to Embodiment 1 of the present invention, and FIG. 8 is an emergency on the elevator maintenance company receiving system side. It is explanatory drawing which shows an example of the display screen of an earthquake evaluation system.

  In FIG. 5, 8 is an elevator control panel, 10 is a mobile phone terminal that is an earthquake information receiving terminal, 12 is a control terminal, 13 is an acceleration sensor, and 14 is a breaking signal that outputs emergency earthquake breaking service information from the mobile phone terminal 10. Output contact, 15 is an operation contact of the acceleration sensor 13, 20 is a P-wave sensor, 21 is an operation contact of the P-wave sensor 20, 22 is a low-sensing seismometer, 23 is an operation contact of the low-sensing seismometer 22, and 24 is elevator control A P-wave signal terminal 26 provided on the panel 8 and a low-sensing seismometer signal terminal 26 provided on the elevator control panel 8. Reference numeral 30 denotes an automatic time setting function provided in the mobile phone terminal 10, and reference numeral 31 denotes a data measurement point where the time automatically adjusted by the automatic time setting function 30 is “management data 1”, and the time is managed here. . Reference numeral 32 denotes a data measurement point where the control time based on the earthquake early warning is “management data 2”, and here the output time from the mobile phone terminal 10 is managed. A relay (Q) 33 is picked up when the P-wave sensor 20 is turned on. The reason why the relay is used is to measure both the operation time of the mobile phone terminal 10 and the operation time of the P-wave sensor 20. Reference numeral 34 denotes a data measurement point where the operation time of the P-wave sensor 20 is “management data 3”, which manages when the output of the P-wave sensor 20 is turned ON. A relay contact 35 is turned on when the relay (Q) 33 of the P-wave sensor 20 is picked up. The relay contact 35 is connected in parallel with the breaking signal output contact 14, whichever signal is earlier, the P-wave signal terminal 24 of the elevator control panel 8. To work. If the P-wave sensor 20 is not installed, the relay (Q) 33, the data measurement point 34, and the relay contact 35 need not be provided. 36 is a relay (R) that picks up when the low-sensing seismometer 22 is turned ON, and 37 is a data measurement point where the operation time of the low-sensing seismometer 22 is “management data 4”. Here, the output of the low-sensing seismometer 22 is It manages when it was turned on. 38 is a relay contact that is turned on when the relay (R) 36 of the low-sensing seismometer 22 is picked up, and is connected in parallel with the operation contact 15 of the acceleration sensor 13. The meter signal terminal 26 is operated. If the low-sensing seismometer 22 is not installed, the relay (R) 36, the data measurement point 37, and the relay contact 38 need not be provided. Reference numeral 39 denotes a data measurement point at which the operation time of the acceleration sensor 13 is “management data 5”. Here, it manages when the output of the acceleration sensor 13 is turned on. Accordingly, the relay (R) 36 is operated by the low-sensing seismometer 22 so that the operation time can be measured and recorded separately from the operation contact 15 of the acceleration sensor 13.

Next, an example of log data of the earthquake control data collection system will be described with reference to FIG. The first earthquake early warning reception time is “12:00:10”, the expected arrival time is “12:00:18”, and the second earthquake early warning reception time is “12:00:12” ”, The estimated arrival time is“ 12:00:19 ”, the reception time of the P wave sensor operation time is“ 12:00:13 ”, and the reception time of the S wave operation time is“ 12: 00: 2 "If the acceleration sensor ON reception time is" 12:00:20 "and the acceleration sensor OFF reception time is" 12:00:31 ", the emergency earthquake effectiveness of the first earthquake early warning is P In the case of waves, 3 seconds, in the case of S waves, 10 seconds, the expected earthquake earthquake time difference is 2 seconds. Moreover, the emergency earthquake effectiveness of the second earthquake early warning is 1 second in the case of the P wave, 8 seconds in the case of the S wave, and the expected earthquake time difference is 1 second. The Earthquake Early Warning is a mechanism in which highly accurate data is sent over and over again, the first and second reports. Whether the first report is used for control or the second report is used for control. It depends on the setting of the user. For safety reasons, it is better to use the first report, but if there are many false reports, the second report is used.
Then, the log data collected as described above is transmitted by e-mail to the emergency earthquake evaluation system of the maintenance company reception system using a mobile phone terminal.

  FIG. 7 is an overall configuration diagram including the elevator maintenance company receiving system side. In FIG. 7, the same parts as those of FIG. 40 is a communication device provided in the elevator control panel 8, which receives an emergency earthquake warning from a mobile phone and reports an abnormal report that the elevator has been controlled, and a recovery report that reports that the elevator has recovered after the earthquake. Send information. 41 is an elevator maintenance company reception system, and 42 is a communication device provided in the elevator maintenance company reception system 41. The communication device is connected to the communication device 40 on the elevator control panel 8 side via a communication line, and receives an earthquake early warning by a mobile phone. An abnormal report that reports that the elevator has been controlled and received and a recovery report that reports that the elevator has been released after the earthquake and has been restored are received. These notifications include “Elevator Control”, which receives emergency earthquake alerts from mobile phones and reports that the elevator has been controlled, and “Elevator Control” which reports that the elevator has been released and recovered after the earthquake. In addition to “Release”, “Elevator control continuation” that reports that the elevator control operation by the earthquake early warning has been continued is included. Reference numeral 43 is a receiving terminal provided in the elevator maintenance company receiving system 41, and 44 is a maintenance engineer. Upon receiving a request for dispatch from the receiving terminal 43, the terminal is restored to the elevator installation site 7. A mail device 45 is provided in the elevator maintenance company reception system 41. 46 is an emergency earthquake evaluation system provided in the maintenance company receiving system 41, and the log data collected and totaled by the seismic control operation data totaling system is transmitted by e-mail from the mobile phone terminal and evaluated.

FIG. 8 is an example of a display screen of the emergency earthquake evaluation system.
The map of the entire city is divided into map screens for each region, and on that map screen, the earthquake early warning reception time, P wave sensor operation time, S wave operation time, acceleration sensor detection time, predicted seismic intensity for each region The position on the map of the site and the presence or absence of S wave operation (displayed by turning on or off the indicator lamp) are displayed. The emergency earthquake evaluation system 46 of the maintenance company receiving system 41 can determine the damage status by displaying the operation status of the earthquake detectors of the entire city on a prepared map screen.
As a result, by analyzing and analyzing the accumulated and accumulated log data, when earthquake early warning is used based on the collected data, how early the occurrence of an earthquake is compared to conventional P-wave sensors and earthquake detectors. It is possible to report / explain to the building owner or the building manager whether the signal has been received and controlled. The log data for each region collected by the maintenance company reception system makes it possible to estimate the earthquake scale and evaluate the prediction accuracy of the emergency earthquake warning for each region (the difference between the predicted arrival time and the actual earthquake motion time). ), The elevator was stopped by seismic control operation at seismic intensity 4. However, it is actually possible to evaluate whether or not the S-wave detector has been operated. In addition, the state of the earthquake detector operation for each area prepared for collecting log data in advance can be collected in a short time, and it is possible to determine the damage of the entire city (the state of suspension of elevator operation). As a result, the maintenance company can instantly determine the scale of securing the corresponding personnel, and can determine the scale of the dispatch system. Normally, the operation status of earthquake detectors is collected by telephone line. However, in the case of a large earthquake, it takes 5 to 10 minutes. Generally, the telephone line is congested, making it difficult to make a call, and it takes time to check the situation. Therefore, the present invention can be an effective means.

BRIEF DESCRIPTION OF THE DRAWINGS FIG. 1 is a system configuration diagram showing the overall configuration of an elevator control device that is the basis of the present invention. 1 is a connection circuit diagram showing a configuration of a main part of an elevator control device as a premise of the present invention. It is explanatory drawing for demonstrating the time effect of an earthquake early warning. It is a flowchart for demonstrating the control operation operation at the time of an earthquake of the control apparatus of the elevator used as the foundation of this invention. BRIEF DESCRIPTION OF THE DRAWINGS FIG. 1 is a system configuration diagram showing a main configuration of an elevator operation control data totaling system for an earthquake in Embodiment 1 of the present invention. It is explanatory drawing which shows an example of the log data of the control operation data total system of the elevator at the time of the earthquake in Embodiment 1 of this invention. BRIEF DESCRIPTION OF THE DRAWINGS It is a system block diagram which shows the whole structure of the elevator operation control data totaling system at the time of the earthquake in Embodiment 1 of this invention. It is explanatory drawing which shows an example of the display screen of the emergency earthquake evaluation system by the side of an elevator maintenance company receiving system.

Explanation of symbols

DESCRIPTION OF SYMBOLS 1 Meteorological Agency emergency earthquake report network 2 Seismometer 3 Japan Meteorological Agency 4 Mobile phone company 5 Base station 6 Emergency earthquake warning by mobile phone company 7 Elevator installation site 8 Elevator control panel 9 Seismometer 10 Mobile phone terminal 11 Control interface 12 Control terminal 13 Acceleration sensor 14 Speed signal output contact 15 Acceleration sensor operation contact 16 Reset contact 17-19 Output terminal 20 P-wave sensor 21 Operation contact 22 Low-sensing seismometer 23 Operation contact 24 P-wave signal terminal 25, 27, 29 Signal line 26 Low-sensing seismometer Signal terminal 28 Seismic control reset terminal 30 Time automatic setting function 31 Data measurement point of data management 1 32 Data measurement point of data management 2 33 Relay (Q)
34 Data measurement point of data management 3 35 Relay contact 36 Relay (R)
37 Data Measurement Point of Data Management 4 38 Relay Contact 39 Data Measurement Point of Data Management 5 40, 42 Communication Device 41 Elevator Maintenance Company Receiving System 43 Receiving Terminal 44 Maintenance Engineer 45 Mail Device 46 Emergency Earthquake Evaluation System

Claims (6)

A mobile phone terminal that is installed in an elevator installation site and receives an earthquake early warning distributed from a base station in an area where a large earthquake is expected to occur to a mobile phone in that area, and has an automatic time setting function An elevator control panel having a P-wave signal terminal and a low-sensing seismometer signal terminal; a control terminal configured to be connectable to the mobile phone terminal; and provided in the control terminal to detect actual shaking of the building An acceleration sensor, and when the mobile phone terminal receives the earthquake early warning of the area, an emergency earthquake warning signal output from the mobile phone terminal and an output of the acceleration sensor are used as a P-wave signal of the elevator control panel. An elevator control device that outputs to at least one of the terminal and the low-sensing seismometer signal terminal and performs an earthquake-controlled operation that stops the elevator at the nearest floor Stomach,
An elevator seismic control operation data totaling system that totals data of emergency earthquake warning reception time and acceleration sensor operating time data from a mobile phone terminal. A mobile phone terminal that is installed in an elevator installation site and receives an earthquake early warning distributed from a base station in a region where a large earthquake is expected to be distributed to a mobile phone in that region, and has an automatic time setting function An elevator control panel having a P-wave signal terminal and a low-sensing seismometer signal terminal, a P-wave sensor, a low-sensing seismometer, a control terminal configured to be connectable to the mobile phone terminal, and the control terminal An acceleration sensor that detects an actual building shake, and when the mobile phone terminal receives the earthquake early warning in the area, the earthquake early warning signal output from the mobile phone terminal and the P-wave sensor Is output to the P wave signal terminal of the elevator control panel, and the elevator is stopped at the nearest floor, and the acceleration sensor detects shaking of the building, When the sensing seismometer detects shaking, it outputs to the low-sensing seismometer signal terminal of the elevator control panel, and the elevator continues to be out of service. If neither the acceleration sensor nor the low-sensing seismometer senses it, In the elevator control device for returning the engine to normal operation,
An elevator seismic control operation data totaling system that aggregates data of emergency earthquake warning reception time, P-wave sensor operation time, low-sensing seismometer operation time, and acceleration sensor operation time. A mobile phone terminal that is installed in an elevator installation site and receives an earthquake early warning distributed from a base station in a region where a large earthquake is expected to be distributed to a mobile phone in that region, and has an automatic time setting function An elevator control panel having a P-wave signal terminal and a low-sensing seismometer signal terminal, a low-sensing seismometer, and a control terminal configured to be connectable to the cellular phone terminal, When the earthquake early warning is received, the earthquake early warning signal output from the mobile phone terminal is output to the P wave signal terminal of the elevator control panel, and the elevator is stopped at the nearest floor, and the low-sensing seismometer In the elevator control device that outputs to the low-sensing seismometer signal terminal of the elevator control panel and the elevator keeps the operation stopped.
An elevator seismic control operation data totaling system for summarizing data of emergency earthquake warning reception time and low-sensing seismometer operation time by a mobile phone terminal. A mobile phone terminal that is installed in an elevator installation site and receives an earthquake early warning distributed from a base station in a region where a large earthquake is expected to be distributed to a mobile phone in that region, and has an automatic time setting function An elevator control panel having a P-wave signal terminal and a low-sensing seismometer signal terminal; a control terminal configured to be connectable to the mobile phone terminal; and provided in the control terminal to detect actual shaking of the building An acceleration sensor, and when the mobile phone terminal receives the earthquake early warning of the area, the emergency earthquake warning signal output from the mobile phone terminal is output to the P wave signal terminal of the elevator control panel, and the elevator When the acceleration sensor detects a shaking of the building while stopping at the nearest floor, it is output to the low-sensing seismometer signal terminal of the elevator control panel. The control apparatus for an elevator to continue outage,
An elevator seismic control operation data totaling system that totals data of emergency earthquake warning reception time and acceleration sensor operating time data from a mobile phone terminal.   The aggregated log data is transmitted to an emergency earthquake evaluation system of a maintenance company reception system using a mobile phone terminal, and the control operation data during an earthquake of an elevator according to any one of claims 1 to 4, Aggregation system.   The emergency earthquake evaluation system of the maintenance company reception system is characterized in that the damage status of each region can be judged by displaying the operation status of earthquake detectors in the whole city on a prepared map screen. The elevator operation control data totaling system for an elevator according to claim 5.

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