JP3958804B2 - Earthquake notification system in facilities such as high-rise buildings - Google Patents

Earthquake notification system in facilities such as high-rise buildings Download PDF

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Publication number
JP3958804B2
JP3958804B2 JP19951095A JP19951095A JP3958804B2 JP 3958804 B2 JP3958804 B2 JP 3958804B2 JP 19951095 A JP19951095 A JP 19951095A JP 19951095 A JP19951095 A JP 19951095A JP 3958804 B2 JP3958804 B2 JP 3958804B2
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area
facility
earthquake
pbx
terminal
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JP19951095A
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JPH0951386A (en
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朋子 岩野
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Fujitsu Ltd
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Fujitsu Ltd
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Description

【0001】
【発明の属する技術分野】
本発明は高層ビル等の施設における地震通報システムに関する。
近年,住居や各種の業務に供されるビルディング等の施設は,電力,空調,照明,エレベータ等の各種機能を集中的に監視,制御を行う施設管理システム(またはビル管理システム)により運営される場合が多くなった。
【0002】
このような施設では,高層ビルのように規模が大きくなると施設内に勤務または訪問する人数が多くなり,異なる複数の企業が各フロアーを使用していることも多い。一方,従来の施設管理システムでは,地震発生時に施設内の各所に居る人々に対して適切な案内をすることができなかったため混乱を起こす恐れがあった。
【0003】
【従来の技術】
高層ビルの建設によりその数は増大しつつあるが,従来の施設管理システムでは,集中的に電力,空調,照明,エレベータ等の監視制御が行われている。一方,地震が発生した場合には,ラジオ,テレビ等のよる地震情報を監視制御を行うコンソールの担当者が知ると,必要な機器の制御を行い,関連部署と連絡をとり,必要な注意を施設内に一律に流す等の作業が行う。
【0004】
ところが,高層ビルにいる各個人は,ビルの構造,安全性等を詳しく知らされていないのが現状である。ところが,地震は不意に発生するものであり,多くの人が存在するビルでは,非常時の誘導がどのように行われるのか分からない人が多いと,揺れが大きく感じる地震が発生した場合にはパニック状態になることが予想される。
【0005】
【発明が解決しようとする課題】
本発明は上記したように高層ビル等の施設において,その中の各場所にいる個人が地震の発生時に地震の状況や避難方法等について適切な情報を得ることができないという問題があった。
【0006】
本発明は施設管理システムや,PBXを備えた施設において地震が発生した時に地震の程度や各場所にいる個人に対して地震の程度や避難方法等の情報を通知することができる施設内における地震通報システムを提供することを目的とする。
【0007】
【課題を解決するための手段】
図1は本発明の原理構成であり,図中,1は施設内の電力,照明,空調,等の各種を制御・監視を集中的に行う施設管理システム,1aは地震計,1b〜1dは電力,照明,空調等に対応して設けられた設備を監視・制御を行う端末機器,2は施設管理システム1とPBXとの間に設けられた連携装置,2aは音声応答装置,2bは音声応答装置2a内に設けられた地震の程度のメッセージ及びエリアと地震の程度に対応した避難方法のメッセージを記憶したメッセージ格納部,3は施設内の電話交換を行うPBX,3aはエリア識別手段,3bはPBX3に多数収容された有線の端末,3cはPBX3に収容された基地局であり,携帯端末がPBX3を介して通信を行うための送受信制御を行う。3dは携帯端末である。
【0008】
なお,図1では連携装置2がPBX3と別の装置として設けられているが,PBX3の内部装置として設けることができる。
本発明は施設管理システムに地震計を接続して,地震計により得られたデータにより地震の程度を知り,PBXと施設管理システムの間に連携装置を設けて,問い合わせのために発呼した端末に対して,その端末が位置するエリアに対応した地震の程度を通知したり,避難方法を通知するものである。
【0009】
施設管理システム1は地震計1aにより検出した震度等の計測値を収集し,収集した計測値に対応する地震の程度を表す情報を連携装置2に通知する。PBX3に接続する電話機等の端末3bから震度を知りたい場合や,避難方法を知りたい場合は,端末3bから発呼してダイヤルを行うとPBX3は,その端末3bの位置(問い合わせ行った個人の居る位置)をエリア識別手段3aにより識別し,識別されたエリアを表す情報(エリアコードという)を連携装置2に通知すると共に,端末3bの呼を連携装置2と接続する。連携装置2では,音声応答装置2aが端末3bに対し応答し,施設管理システム1から受けた地震の程度を表す情報と,エリアを表す情報に基づいて,予めメッセージ格納部2bに格納されたメッセージの中から状況(地震の程度とエリア)に対応するメッセージの情報を取り出して音声に変換して端末3bへ送信する。この音声のメッセージにより,地震の程度(震度等)を通知して,更に避難方法も通知する。これを聞いて,端末3bの利用者は回線を切断する。
【0010】
施設内の利用者が携帯端末3dを用いて問い合わせの発呼を行うと,最寄りの基地局3c(建物のフロア毎,またはフロアの一定区画毎)を介して呼が受け付けられ,その基地局3cをPBX3のエリア識別手段3aで識別すると,有線の端末3bの場合と同様に連携装置2から携帯端末3dに対しメッセージが送られる。
【0011】
【発明の実施の形態】
図2は実施例の構成図である。
図2において,10は施設管理システムの監視制御コンソール,20は連携装置,30はPBX,40は各装置の制御及び監視を行う端末を制御する端末制御装置,50は施設内の装置であり,地震計51,電気装置52,空調装置53,照明装置54等が配置されている。60は高層ビル等の施設内に設けられたLANであり,トランシーバ61及びケーブル62を介して監視制御コンソール10,連携装置20,端末制御装置40の間で相互に通信を行う。ここで,図2の10,40,50は図1の施設管理システム1に対応し,図2の20は図1の2に対応し,図2の30は図1の3に対応する。
【0012】
監視制御コンソール10内の,11はCPU,12はメモリ,13はコンソールのオペレータが監視を行うためのCRTディスプレイ(CRTで表示),14はオペレータが操作を行うためのキーボード,15はプリンタである。
【0013】
連携装置20内の21はCPU,22はメモリ,23は音声応答装置であり,音声応答装置23は内部に地震の震度を通知するメッセージや,地震の程度とエリアに対応した避難方法を通知するメッセージの音声データを格納するメモリを備え,PBXからの着信に対して音声(PBX30がアナログ式の場合はD−A変換をしてアナログ信号形式,デジタル式の場合はデジタル信号形式)を送出する。
【0014】
PBX30は通話路装置31と制御装置32,連携装置20とのインタフェース(IF)33,有線(固定)の電話端末34,携帯電話端末37と無線により通信を行う基地局(CS)36と接続する制御部35を備える。携帯電話による通信は,従来のシステムコードレス電話や,PHS(Personal Handy-phone System)方式等の技術により実行される。発呼端末の位置(エリア)は,有線の電話端末34の場合は収容位置を識別して行うことができ,携帯電話端末37の場合は,通信を受け付ける基地局36を識別することにより行われる。これにより,発呼端末が位置するエリア(建物の何階か,または何階のどの範囲に居るか等)を識別してエリアコードを発生する。
【0015】
端末制御装置40は,CPU41,メモリ42及び複数の端末43を備えている。端末43は,それぞれ各階に対応して設けられて,各端末が対応する階の電気,空調,照明の制御・監視を行うようにするか,各端末が電気,空調,照明の一つを制御対象とするか,何れかにより制御・監視が行われる。
【0016】
施設内の装置50の中の地震計51は,常時動作して地震が発生するとその程度(例えば,震度)を表すデータを出力し,電気装置52,空調装置53,照明装置54はそれぞれ,監視制御コンソール10からの指示により電気,空調,照明等の状態が制御されると共に装置の動作状態や,センサにより得た各種のデータを監視制御コンソール10へ送信して,状態をCRTディスプレイ13に表示される。なお,地震計51は,1または複数を建物内に設け,地震計51に接続された端末43を介して計測したデータはCPU41,LAN60を介して監視制御コンソール10へ送出される。
【0017】
図3は照会に対するサービスメニューの処理フローである。
電話端末(有線の電話端末35または携帯電話端末37)から発呼して問い合わせ(特定のダイヤル)が発生すると,PBX30で発呼した電話端末が位置するエリアの自動判定を行う(図3のS1)。次に,震度照会処理が開始され(同S2),連携装置20の音声応答装置23に電話端末の呼を接続し,エリアコードを通知して震度確認処理(震度照会)が行われる(同S3)。この場合,監視制御コンソール10において地震計51で検出した震度の程度を表すデータを収集しており,そのデータに基づいて判別した震度の情報が連携装置20に供給されている。連携装置20は受け取った震度の情報を音声応答装置23から音声として電話端末へ送出する。この後,発呼側の電話端末でサービス選択を行う(図3のS4)。これは,電話端末の利用者が数字キーと機能キーを操作することにより要求するサービスを識別するもので,「1#」のキーで避難誘導方法の通知を要求し,「0#」の場合はリピート(繰り返し)を要求するもので,何も操作しない場合は終了(呼の切断)する。
【0018】
「1#」が入力された場合,連携装置20の音声応答装置23でこれを識別すると(図3のS5),エリアコード及び震度情報に対応する音声メッセージをメモリから読み出して電話端末へアナウンスする(同S6)。また「0#」が入力されたことを識別すると,リピート(繰り返し)のために震度照会処理へ戻る(同S7)。終了の場合は発呼した電話端末と連携装置20の接続を切り,PBX30による接続処理を終了する。
【0019】
次に図4はシステムの各装置間の処理フローであり,この処理フローにより上記図2に示す各装置の相互の動作の関係を説明する。
最初に地震が発生した場合,端末制御装置40のCPU41は端末43を介して地震計51の検出データを周期的に収集して,地震計51が作動したか判別しており(図4のS1),作動したことが分かると,LAN60を介して施設管理の監視制御コンソール10のCPU11へ検出したデータを通知する(図4のS2)。
【0020】
一方,地震が発生した場合,施設内の電話端末からPBX30に対し照会するための呼が発生する(同S3)。PBX30は発呼した電話端末の位置を識別して発呼した人が現在いるエリアを自動判断する(同S4)。この判断により得られたエリアは連携装置20へ渡され,この電話端末の呼は連携装置20に接続される。連携装置20のCPU21は監視制御コンソール10のCPU11から震度のデータを受け取って,音声応答装置23から震度を表す音声メッセージをアナウンスする(図4のS5)。続いて,連携装置20のCPU21(または監視制御コンソール10のCPU11)は避難誘導が有るかの判断を行う(図4のS6)。この場合,は避難誘導の照会が電話端末から行われたか否かを判別する。具体的には,避難誘導の通知の要求は電話の特定キーの操作により行うことができる。避難誘導の照会が無い場合は,処理を終了する。
【0021】
避難誘導の要求があった場合,上記ステップS2により通知された震度に対応する避難方法を判断し(図4のS7),判断した結果を音声応答装置23に対し通知する(同S8)。
【0022】
音声応答装置23は,エリアコードと震度の情報に基づいて,予め格納された対応するメッセージを読み出して,避難方法を通知する(図4のS9)。続いて,連携装置20の動作が終了し,PBX30との接続が切られ,PBX30と電話端末の回線が切断される(図4のS10)。
【0023】
なお,上記S6の避難方法の判断は,予め監視制御コンソール10のメモリ12に,各震度時の対応をビルの構造を考慮して入力しておく。各ビルでは設計段階で地震時の揺れ(安全性)は考慮されているはずなので,監視制御コンソール10でその安全性の判断をすることなく(避難方法を判断し),そのデータを基にして,CPUから問い合わせを行う居住者にアナウンスするものである。
【0024】
避難方法のアナウンスメッセージのデータ構成を図5に示す。
図5に示すように,震度,エリアに対応してアナウンスメッセージが格納され,各メッセージの音声応答装置コードが付されている。このような,震度の値及びエリア(例えば,ビルの階層を表す)に対応したメッセージが用意されている。
【0025】
具体的なアナウンスの流れを説明すると,地震発生後に電話端末から問い合わせの番号をダイヤルすると,「こちらは,サービスセンターです。少しお待ち下さい」というアナウンスが送られてくる。
【0026】
この後,「あなたのエリアの震度は「X」です,サービスコードをどうぞ」というアナウンスがあり,これに対して「1#」のサービスコードを入力すると,「心配ありません。」,「地震ではありません。」または「机の下に入って下さい。」等のアナウンスが流れる。
【0027】
【発明の効果】
本発明によれば,高層ビル等の施設は比較的安全と言われるが,地震に対して施設の居住者は不安を持っているが,電話端末と施設管理システムを連携させることにより,次のような効果を奏することができる。
【0028】
▲1▼地震発生時の情報を伝達することが可能となる。
▲2▼誤った避難を行うことがなくパニックの発生を防止することができる。
▲3▼居住者に対し安心感を与えることができる。
【図面の簡単な説明】
【図1】本発明の原理構成図である。
【図2】実施例の構成図である。
【図3】照会に対するサービスメニューの処理フローを示す図である。
【図4】システムの各装置間の処理フローを示す図である。
【図5】避難方法のアナウンスメッセージのデータ構成を示す図である。
【符号の説明】
1 施設管理システム
1a 地震計
1b 電力装置
1c 照明装置
1d 空調装置
2 連携装置
2a 音声応答装置
2b メッセージ格納部
3 PBX
3a エリア識別手段
3b 有線の端末
3c 基地局
3d 携帯端末
[0001]
BACKGROUND OF THE INVENTION
The present invention relates to an earthquake notification system in a facility such as a high-rise building.
In recent years, facilities such as buildings used for residences and various operations are operated by a facility management system (or building management system) that centrally monitors and controls various functions such as power, air conditioning, lighting, and elevators. More cases.
[0002]
In such a facility, as the size of a high-rise building increases, the number of people working or visiting the facility increases, and different companies often use each floor. On the other hand, in the conventional facility management system, there was a risk of confusion because it was not possible to provide appropriate guidance to people in various places in the facility when an earthquake occurred.
[0003]
[Prior art]
The number of buildings has been increasing due to the construction of high-rise buildings, but in conventional facility management systems, monitoring and control of electric power, air conditioning, lighting, elevators, etc. are performed intensively. On the other hand, in the event of an earthquake, if the person in charge of the console that monitors and controls earthquake information from radios, televisions, etc. knows the necessary equipment control, contacts the relevant departments, and takes the necessary precautions. Work such as flowing it uniformly throughout the facility.
[0004]
However, at present, each individual in a high-rise building is not informed of the structure and safety of the building in detail. However, earthquakes occur unexpectedly, and in a building with many people, if there are many people who do not know how emergency guidance is performed, A panic situation is expected.
[0005]
[Problems to be solved by the invention]
As described above, the present invention has a problem that, in a facility such as a high-rise building, an individual at each location in the facility cannot obtain appropriate information about an earthquake situation, an evacuation method, and the like when an earthquake occurs.
[0006]
The present invention provides a facility management system or an earthquake in a facility capable of notifying an individual in each place of the extent of the earthquake and the degree of earthquake and evacuation method when an earthquake occurs in a facility equipped with a PBX. The purpose is to provide a reporting system.
[0007]
[Means for Solving the Problems]
FIG. 1 shows the principle configuration of the present invention. In the figure, 1 is a facility management system that centrally controls and monitors various types of power, lighting, air conditioning, etc. in a facility, 1a is a seismometer, and 1b to 1d are Terminal equipment that monitors and controls equipment provided for power, lighting, air conditioning, etc., 2 is a cooperation device provided between the facility management system 1 and the PBX, 2a is a voice response device, and 2b is a voice A message storage unit for storing an earthquake level message and an area and an evacuation method message corresponding to the level of the earthquake provided in the response device 2a, 3 is a PBX for exchanging telephones in the facility, 3a is an area identification means, 3b is a wired terminal accommodated in the PBX 3, and 3c is a base station accommodated in the PBX 3. The mobile terminal performs transmission / reception control for communication via the PBX 3. 3d is a portable terminal.
[0008]
In FIG. 1, the cooperation device 2 is provided as a separate device from the PBX 3, but can be provided as an internal device of the PBX 3.
The present invention connects a seismometer to a facility management system, knows the extent of the earthquake from the data obtained by the seismometer, provides a linkage device between the PBX and the facility management system, and calls a terminal for inquiry In contrast, the level of earthquake corresponding to the area where the terminal is located is notified, and the evacuation method is notified.
[0009]
The facility management system 1 collects measurement values such as seismic intensity detected by the seismometer 1a, and notifies the linkage device 2 of information indicating the degree of earthquake corresponding to the collected measurement values. If you want to know the seismic intensity from the terminal 3b such as a telephone connected to the PBX 3, or if you want to know the evacuation method, call the terminal 3b and dial, and the PBX 3 will display the location of the terminal 3b (the The location) is identified by the area identifying means 3a, information indicating the identified area (referred to as area code) is notified to the coordination device 2, and the call of the terminal 3b is connected to the coordination device 2. In the cooperation device 2, the voice response device 2a responds to the terminal 3b, and the message stored in the message storage unit 2b in advance based on the information indicating the degree of earthquake received from the facility management system 1 and the information indicating the area. The information of the message corresponding to the situation (the extent and area of the earthquake) is extracted from the list, converted into voice, and transmitted to the terminal 3b. This voice message notifies the extent of the earthquake (seismic intensity, etc.) and also notifies the evacuation method. Upon hearing this, the user of the terminal 3b disconnects the line.
[0010]
When a user in the facility issues an inquiry call using the portable terminal 3d, the call is accepted through the nearest base station 3c (for each floor of the building or for each fixed section of the floor), and the base station 3c Is identified by the area identifying means 3a of the PBX 3, a message is sent from the cooperation device 2 to the portable terminal 3d as in the case of the wired terminal 3b.
[0011]
DETAILED DESCRIPTION OF THE INVENTION
FIG. 2 is a block diagram of the embodiment.
In FIG. 2, 10 is a monitoring control console of the facility management system, 20 is a linkage device, 30 is a PBX, 40 is a terminal control device for controlling a terminal for controlling and monitoring each device, and 50 is a device in the facility. A seismometer 51, an electric device 52, an air conditioner 53, a lighting device 54, and the like are arranged. Reference numeral 60 denotes a LAN provided in a facility such as a high-rise building, which communicates with each other among the monitoring control console 10, the linkage device 20, and the terminal control device 40 via the transceiver 61 and the cable 62. Here, 10, 40 and 50 in FIG. 2 correspond to the facility management system 1 in FIG. 1, 20 in FIG. 2 corresponds to 2 in FIG. 1, and 30 in FIG. 2 corresponds to 3 in FIG.
[0012]
In the monitoring control console 10, 11 is a CPU, 12 is a memory, 13 is a CRT display (displayed by CRT) for monitoring by the console operator, 14 is a keyboard for operation by the operator, and 15 is a printer. .
[0013]
21 in the cooperation device 20 is a CPU, 22 is a memory, and 23 is a voice response device. The voice response device 23 notifies a message for notifying the seismic intensity of the earthquake and an evacuation method corresponding to the extent and area of the earthquake. A memory for storing the voice data of the message is provided, and voice (D-A conversion is performed when the PBX 30 is an analog type, and an analog signal format or a digital signal format when the PBX 30 is a digital type) is sent in response to an incoming call from the PBX. .
[0014]
The PBX 30 is connected to a base station (CS) 36 that communicates wirelessly with a communication path device 31 and a control device 32, an interface (IF) 33 with a link device 20, a wired (fixed) telephone terminal 34, and a mobile phone terminal 37. A control unit 35 is provided. Communication using a mobile phone is performed by a conventional system cordless phone, a PHS (Personal Handy-phone System) method, or the like. The location (area) of the calling terminal can be determined by identifying the accommodation position in the case of the wired telephone terminal 34, and is determined by identifying the base station 36 that accepts communication in the case of the mobile telephone terminal 37. . As a result, an area code is generated by identifying the area where the calling terminal is located (which floor of the building or in which range of the floor, etc.).
[0015]
The terminal control device 40 includes a CPU 41, a memory 42, and a plurality of terminals 43. Terminals 43 are provided corresponding to each floor, and each terminal controls or monitors electricity, air conditioning, and lighting on the corresponding floor, or each terminal controls one of electricity, air conditioning, and lighting. Control / monitoring is performed depending on whether the target is used.
[0016]
When the seismometer 51 in the apparatus 50 in the facility operates constantly and an earthquake occurs, data indicating the degree (for example, seismic intensity) is output, and the electric device 52, the air conditioner 53, and the lighting device 54 are monitored. The state of electricity, air conditioning, lighting, etc. is controlled by an instruction from the control console 10 and the operation state of the apparatus and various data obtained from the sensors are transmitted to the monitoring control console 10 and the state is displayed on the CRT display 13 Is done. One or more seismometers 51 are provided in the building, and the data measured via the terminal 43 connected to the seismometer 51 is sent to the monitoring control console 10 via the CPU 41 and the LAN 60.
[0017]
FIG. 3 is a process flow of the service menu for the inquiry.
When an inquiry (specific dial) is generated by calling from a telephone terminal (wired telephone terminal 35 or mobile telephone terminal 37), an automatic determination of the area where the telephone terminal called by the PBX 30 is located (S1 in FIG. 3). ). Next, the seismic intensity inquiry process is started (S2), the telephone terminal call is connected to the voice response device 23 of the cooperation apparatus 20, the area code is notified, and the seismic intensity confirmation process (seismic intensity inquiry) is performed (S3). ). In this case, data representing the degree of seismic intensity detected by the seismometer 51 is collected in the monitoring control console 10, and information on seismic intensity determined based on the data is supplied to the linkage device 20. The linkage device 20 sends the received seismic intensity information from the voice response device 23 as voice to the telephone terminal. Thereafter, the service is selected at the telephone terminal on the calling side (S4 in FIG. 3). This is to identify the service requested by the user of the telephone terminal by operating the numeric keys and function keys. The “1 #” key requests notification of the evacuation guidance method. Is a request for repeat (repeat), and terminates (disconnects a call) if no operation is performed.
[0018]
When “1 #” is input, when the voice response device 23 of the cooperation device 20 identifies this (S5 in FIG. 3), the voice message corresponding to the area code and seismic intensity information is read from the memory and announced to the telephone terminal. (S6). If it is identified that “0 #” has been input, the process returns to the seismic intensity inquiry process for repeat (repeat) (S7). In the case of termination, the connection between the calling telephone terminal and the cooperation device 20 is terminated, and the connection process by the PBX 30 is terminated.
[0019]
Next, FIG. 4 is a processing flow between the devices of the system, and the mutual operation relationship of the devices shown in FIG.
When an earthquake occurs for the first time, the CPU 41 of the terminal control device 40 periodically collects the detection data of the seismometer 51 via the terminal 43 to determine whether the seismometer 51 has been activated (S1 in FIG. 4). ), When the operation is found, the detected data is notified to the CPU 11 of the monitoring control console 10 of the facility management via the LAN 60 (S2 in FIG. 4).
[0020]
On the other hand, when an earthquake occurs, a call for making an inquiry to the PBX 30 is made from a telephone terminal in the facility (S3). The PBX 30 automatically determines the area where the person who made the call is currently located by identifying the position of the calling telephone terminal (S4). The area obtained by this determination is transferred to the cooperation device 20, and the call of this telephone terminal is connected to the cooperation device 20. The CPU 21 of the cooperation device 20 receives the seismic intensity data from the CPU 11 of the monitoring control console 10, and announces a voice message representing the seismic intensity from the voice response device 23 (S5 in FIG. 4). Subsequently, the CPU 21 of the cooperation device 20 (or the CPU 11 of the monitoring control console 10) determines whether there is an evacuation guidance (S6 in FIG. 4). In this case, it is determined whether or not an inquiry for evacuation guidance is made from the telephone terminal. Specifically, the request for evacuation guidance can be made by operating a specific key on the telephone. If there is no inquiry for evacuation guidance, the process ends.
[0021]
When there is a request for evacuation guidance, the evacuation method corresponding to the seismic intensity notified in step S2 is determined (S7 in FIG. 4), and the determined result is notified to the voice response device 23 (S8).
[0022]
The voice response device 23 reads the corresponding message stored in advance based on the area code and seismic intensity information, and notifies the evacuation method (S9 in FIG. 4). Subsequently, the operation of the cooperation device 20 ends, the connection with the PBX 30 is disconnected, and the line between the PBX 30 and the telephone terminal is disconnected (S10 in FIG. 4).
[0023]
Note that the determination of the evacuation method in S6 is entered in advance in the memory 12 of the monitoring control console 10 in consideration of the structure of the building. Since each building should take into account the shaking (safety) during the earthquake at the design stage, the monitoring control console 10 does not judge the safety (judging the evacuation method) and based on the data. , Announce to the resident who makes an inquiry from the CPU.
[0024]
The data structure of the evacuation method announcement message is shown in FIG.
As shown in FIG. 5, the announcement message is stored corresponding to the seismic intensity and the area, and the voice response device code of each message is attached. Messages corresponding to seismic intensity values and areas (for example, representing a building hierarchy) are prepared.
[0025]
To explain the specific flow of announcements, when an inquiry number is dialed from a telephone terminal after an earthquake occurs, an announcement “This is a service center. Please wait a moment” is sent.
[0026]
After this, there is an announcement that “The seismic intensity of your area is“ X ”, please enter the service code”, and if you enter the service code of “1 #”, “No worry.”, “It is not an earthquake. . "Or" Please enter under the desk. "
[0027]
【The invention's effect】
According to the present invention, facilities such as high-rise buildings are said to be relatively safe, but residents of the facility are worried about the earthquake, but by linking the telephone terminal and the facility management system, Such effects can be achieved.
[0028]
(1) It is possible to transmit information when an earthquake occurs.
(2) The occurrence of a panic can be prevented without erroneous evacuation.
(3) A sense of security can be given to residents.
[Brief description of the drawings]
FIG. 1 is a principle configuration diagram of the present invention.
FIG. 2 is a configuration diagram of an embodiment.
FIG. 3 is a diagram illustrating a process flow of a service menu for an inquiry.
FIG. 4 is a diagram showing a processing flow between devices of the system.
FIG. 5 is a diagram showing a data structure of an evacuation method announcement message.
[Explanation of symbols]
DESCRIPTION OF SYMBOLS 1 Facility management system 1a Seismometer 1b Electric power apparatus 1c Lighting apparatus 1d Air conditioner 2 Cooperation apparatus 2a Voice response apparatus 2b Message storage part 3 PBX
3a Area identification means 3b Wired terminal 3c Base station 3d Mobile terminal

Claims (2)

高層ビル等の施設内の監視制御を行う施設管理システムと,施設のPBXと,前記施設管理システムと前記PBXとの間に設けた連携装置とを備え,
施設内に前記施設管理システムと接続する地震計を設け,前記施設管理システムは地震計のデータを収集して地震計のデータである地震の程度を表す情報を前記連携装置に通知し,
前記PBXは,発呼した施設内の端末の収容位置から端末位置のエリアを識別するエリア識別手段を備え,端末からの地震に対する問い合わせの呼が発生すると前記エリア識別手段によりエリアを識別して前記連携装置にエリア情報を通知し,
前記連携装置は,震度等の地震の程度を表す情報と地震の程度に対応した各エリア毎の避難方法を指示するメッセージを予め格納したメモリを含む音声応答装置を備え,前記施設管理システムから通知された地震の程度を表す情報及び前記PBXからのエリア情報を受け取ると,前記音声応答装置から前記受け取った地震の程度を表す情報と前記エリア情報とに対応する避難方法を指示するメッセージを取り出して音声により前記端末へ通知することを特徴とする高層ビル等の施設における地震通報システム。
A facility management system for monitoring and controlling facilities such as high-rise buildings, a facility PBX, and a linkage device provided between the facility management system and the PBX;
A seismometer connected to the facility management system is installed in the facility, the facility management system collects seismometer data, and notifies the cooperation device of information indicating the degree of earthquake as seismometer data,
The PBX includes area identifying means for identifying the area of the terminal position from the accommodation position of the terminal in the facility where the call is made, and when an inquiry call for an earthquake from the terminal occurs, the area identifying means identifies the area and Notify area information to the linked device,
The linkage device includes a voice response device including a memory in which information indicating an earthquake level such as seismic intensity and a message instructing an evacuation method for each area corresponding to the earthquake level is stored in advance and notified from the facility management system When receiving the area information from information and the PBX represents the degree of earthquake that is, retrieves the message indicating an evacuation method corresponding to the information representing the degree of seismic received the from the voice response unit and the area information earthquake reporting system in the facility, such as a high-rise building, characterized in that the notification to the terminal by voice.
請求項1において,
前記PBXは,施設内の複数の無線の携帯端末用の基地局を収容し,
前記PBXのエリア識別手段は,発呼した携帯端末が位置するエリアを,当該携帯端末と通信を行う基地局の収容位置を検出することにより識別することを特徴とする高層ビル等の施設における地震通報システム。
In claim 1,
The PBX accommodates a plurality of wireless mobile terminal base stations in the facility,
The area identification means of the PBX identifies an area where a calling mobile terminal is located by detecting an accommodation position of a base station that communicates with the mobile terminal. Notification system.
JP19951095A 1995-08-04 1995-08-04 Earthquake notification system in facilities such as high-rise buildings Expired - Fee Related JP3958804B2 (en)

Priority Applications (1)

Application Number Priority Date Filing Date Title
JP19951095A JP3958804B2 (en) 1995-08-04 1995-08-04 Earthquake notification system in facilities such as high-rise buildings

Applications Claiming Priority (1)

Application Number Priority Date Filing Date Title
JP19951095A JP3958804B2 (en) 1995-08-04 1995-08-04 Earthquake notification system in facilities such as high-rise buildings

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JP3958804B2 true JP3958804B2 (en) 2007-08-15

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Publication number Priority date Publication date Assignee Title
JPH11328564A (en) * 1998-05-15 1999-11-30 Nec Commun Syst Ltd Private branch exchange system with position display function
JP2007047936A (en) * 2005-08-08 2007-02-22 Toshiba Corp Earthquake information distribution system, its mobile communication terminal, and earthquake information distribution device
JP4685607B2 (en) * 2005-11-22 2011-05-18 株式会社日立ビルシステム Monitoring center device
JP5212247B2 (en) * 2009-04-24 2013-06-19 株式会社大林組 Evacuation guidance system and evacuation guidance method
KR101413924B1 (en) * 2012-12-05 2014-07-01 한국남부발전 주식회사 A system for transmiting the dangerous alarm in constructiton sites

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