JPH04115397A - Disaster prevention monitoring device - Google Patents

Disaster prevention monitoring device

Info

Publication number
JPH04115397A
JPH04115397A JP23607290A JP23607290A JPH04115397A JP H04115397 A JPH04115397 A JP H04115397A JP 23607290 A JP23607290 A JP 23607290A JP 23607290 A JP23607290 A JP 23607290A JP H04115397 A JPH04115397 A JP H04115397A
Authority
JP
Japan
Prior art keywords
interrupt
receiver
terminal
address
group
Prior art date
Legal status (The legal status is an assumption and is not a legal conclusion. Google has not performed a legal analysis and makes no representation as to the accuracy of the status listed.)
Granted
Application number
JP23607290A
Other languages
Japanese (ja)
Other versions
JP2511187B2 (en
Inventor
Masamichi Kikuchi
菊池 正道
Current Assignee (The listed assignees may be inaccurate. Google has not performed a legal analysis and makes no representation or warranty as to the accuracy of the list.)
Hochiki Corp
Original Assignee
Hochiki Corp
Priority date (The priority date is an assumption and is not a legal conclusion. Google has not performed a legal analysis and makes no representation as to the accuracy of the date listed.)
Filing date
Publication date
Application filed by Hochiki Corp filed Critical Hochiki Corp
Priority to JP2236072A priority Critical patent/JP2511187B2/en
Priority to AU82550/91A priority patent/AU648098B2/en
Priority to CA002049656A priority patent/CA2049656C/en
Priority to FI913988A priority patent/FI107413B/en
Priority to AT91114868T priority patent/ATE166171T1/en
Priority to EP91114868A priority patent/EP0474201B1/en
Priority to NO913449A priority patent/NO305924B1/en
Priority to ES91114868T priority patent/ES2117631T3/en
Priority to DE69129394T priority patent/DE69129394T2/en
Priority to US07/755,687 priority patent/US5389914A/en
Priority to CN91108684A priority patent/CN1032392C/en
Publication of JPH04115397A publication Critical patent/JPH04115397A/en
Application granted granted Critical
Publication of JP2511187B2 publication Critical patent/JP2511187B2/en
Anticipated expiration legal-status Critical
Expired - Lifetime legal-status Critical Current

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Abstract

PURPOSE:To allow a receiver to execute proper corresponding processing based upon an interruption level by allowing the receiver to accurately detect interruption pulses and their pulse timing even when the shift or the like of the transmitting timing of interruption pulses is generated due to the dispersion of respective terminals. CONSTITUTION:When a terminal 12-n detects a fire, an interruption pulse is transmitted by using an interruption transmitting band TSn in the terminal 12-n detecting the fire. A retrieving command C2 is set up in a command field of an access signal outputted from the receiver 10 and a group address G1 is included in an address field to execute a group access specifying the group address G1. At the time of executing the group access specifying a group address Gn following the command C2, a group response is obtained. At the time of receiving a group response Dn, an access specifying an individual address in the group is executed, so that the interruption pulse and the pulse timing can be accurately detected and the receiver 10 displays the district or the like of a fire generating position.

Description

【発明の詳細な説明】 [産業上の利用分野] 本発明は、受信機からのアドレス指定による端末の順次
呼出しにより端末情報を受信して警報等を行う防災監視
装置に関する。
DETAILED DESCRIPTION OF THE INVENTION [Field of Industrial Application] The present invention relates to a disaster prevention monitoring device that receives terminal information by sequentially calling terminals by specifying an address from a receiver and issues a warning or the like.

[従来の技術] 従来の防災監視装置にあっては、受信機からのアドレス
指定により複数の端末を順次呼出すポーリング方式を採
用しており、火災等の異常を検出した端末は、呼出アド
レスが自己アドレスに一致するまで待ち、アドレスの一
致照合が得られると呼出しに続く応答タイミングで火災
検出情報を受信機に送信している。
[Conventional technology] Conventional disaster prevention monitoring equipment uses a polling method that sequentially calls multiple terminals by specifying an address from a receiver, and when a terminal detects an abnormality such as a fire, the calling address is set to its own address. It waits until the address matches, and once the address matches, fire detection information is sent to the receiver at the response timing following the call.

ここで受信機から端末に対する呼出信号は電圧モード(
電圧パルス列信号)で送り、これに対し端末から受信機
に対する端末応答信号は電流モード(電流パルス列信号
)で送っている。
Here, the calling signal from the receiver to the terminal is in voltage mode (
In contrast, the terminal response signal from the terminal to the receiver is sent in current mode (current pulse train signal).

更に、ポーリング方式では端末の異常検出から受信機で
の異常判断までの時間遅れが大きいことから、端末で異
常検出を行った際に、端末から電流モードで割込パルス
を送信し、異常発生端末や異常の種別は不明であるが、
ともかく異常が発生したことを通知してプリアラームや
異常発生端末の検索を行わせることが考えられている。
Furthermore, in the polling method, there is a large time delay between abnormality detection at the terminal and abnormality determination at the receiver, so when an abnormality is detected at the terminal, an interrupt pulse is sent from the terminal in current mode, and the abnormality occurs at the terminal. Although the type of abnormality is unknown,
In any case, it is being considered to notify that an abnormality has occurred and to perform a pre-alarm or search for the terminal where the abnormality has occurred.

この場合、異常の種別を示す割込レベルの異なる複数の
割込パルスを送信可能とし、異なる端末で種別の異なる
異常が同時に検出された場合には、異常の種別に応じた
割込レベルをもつ2つの割込パルスを順次送信すること
で、受信機は割込の発生原因を知って適切な対応策を取
ることができる。
In this case, it is possible to transmit multiple interrupt pulses with different interrupt levels indicating the type of abnormality, and if different types of abnormalities are detected at the same time on different terminals, the interrupt pulses have an interrupt level according to the type of abnormality. By sending two interrupt pulses in sequence, the receiver can learn the cause of the interrupt and take appropriate countermeasures.

具体的には、割込レベル1〜3の3種類の割込パルスを
送信可能とした場合には、割込時間帯域を3つに分け、
各タイミングで割込パルスを電流モードで送信する。
Specifically, when it is possible to transmit three types of interrupt pulses at interrupt levels 1 to 3, the interrupt time band is divided into three,
Send interrupt pulses in current mode at each timing.

[発明が解決しようとする課題] しかし、割込時間帯域を分割して割込パルスを送信した
場合には、隣接する他の割込パルスとの識別を正確に行
うために、端末及び受信機に設定している送受信タイミ
ングの管理をかなり厳しく行わなければならない。また
、伝送特性によって割込パルスの受信波形は波形歪みや
位相遅れを起こし、この劣化原因を補償しようとすると
回路構成が複雑化し、補償を行わなければ割込パルスの
識別が正確にできず、誤判断が多くなる問題があった。
[Problems to be Solved by the Invention] However, when an interrupt pulse is transmitted by dividing the interrupt time band, terminals and receivers must The transmission and reception timings set in the system must be managed very strictly. Furthermore, due to the transmission characteristics, the received waveform of the interrupt pulse may have waveform distortion or phase lag, and attempting to compensate for this cause of deterioration will complicate the circuit configuration, and if compensation is not done, the interrupt pulse cannot be identified accurately. There was a problem with many misjudgments.

本発明は、このような従来の問題点に鑑みてなされたも
ので、割込時間帯に複数の割込パルスを送信した際の干
渉を防いでパルス識別が簡単にできる防災監視装置を提
供することを目的とする。
The present invention has been made in view of such conventional problems, and provides a disaster prevention monitoring device that prevents interference when transmitting a plurality of interrupt pulses during an interrupt time period and can easily identify pulses. The purpose is to

[課題を解決するための手段] この目的を達成するため本発明の防災監視装置は次のよ
うに構成する。尚、実施例図面中の符号を併せて示す。
[Means for Solving the Problems] In order to achieve this object, the disaster prevention monitoring device of the present invention is configured as follows. In addition, the reference numerals in the drawings of the embodiments are also shown.

まず本発明は、伝送路14を介して複数の端末12−1
.12−1.  ・・・(以下単に「端末12」とする
)を受信機10に接続し、受信機10からのアドレス指
定により端末12を順次呼出す呼出信号を送信し、端末
12で呼出アドレスと自己アドレスとの一致照合が得ら
れた際に端末応答信号を送信し、該端末応答信号を受信
機10で受信解読して警報等を行う防災監視装置を対象
とする。
First, the present invention provides a method for transmitting data to a plurality of terminals 12-1 via a transmission path 14.
.. 12-1. ... (hereinafter simply referred to as "terminal 12") is connected to the receiver 10, a calling signal is sent to sequentially call the terminals 12 according to the address specification from the receiver 10, and the terminal 12 connects the calling address and its own address. The present invention is directed to a disaster prevention monitoring device that transmits a terminal response signal when a match is found, receives and decodes the terminal response signal at the receiver 10, and issues an alarm or the like.

このような防災監視装置につき本発明にあっては、端末
12のそれぞれに、受信機からの呼出信号と端末応答信
号の間に、複数の割込パルスを間に空き時間を入れて順
次送信する所定時間の割込送信帯域を設定すると共に、
異常検出時に検出情報の種別等に対応した特定の割込パ
ルスを選択して送信する割込送信部16を設け、受信機
10には、端末12に設定した割込送信帯域に対応した
割込受信帯域で受信される割込パルスを検出する割込検
出部18と、割込検出部18の検出出力に基づき所定の
割込受信処理を行う制御部20とを設けたことを特徴と
する。
In the present invention for such a disaster prevention monitoring device, a plurality of interrupt pulses are sequentially transmitted to each of the terminals 12 with an idle time between the call signal from the receiver and the terminal response signal. In addition to setting the interrupt transmission band for a predetermined time,
An interrupt transmitter 16 is provided that selects and transmits a specific interrupt pulse corresponding to the type of detected information when an abnormality is detected, and the receiver 10 has an interrupt transmitter 16 that selects and transmits a specific interrupt pulse corresponding to the type of detected information. The present invention is characterized in that it includes an interrupt detection section 18 that detects an interrupt pulse received in the reception band, and a control section 20 that performs predetermined interrupt reception processing based on the detection output of the interrupt detection section 18.

[作用] このような構成を供えた本発明の防災監視装置によれば
、火災発信機の火災検出、火災感知器の火災検出、アナ
ログ感知器のプリアラームレベル等に対応して異なる割
込レベルを設定し、各割込レベルに対応する割込パルス
の送受信時間タイミングを、割込送受信帯域の中に、間
に空き時間を入れて順次割当てたことから、同時に2種
の割込パルスの送信が行われても、2つの割込パルスの
間には空き時間が介在するため、伝送特性やタイミング
ずれによる時間軸上でのシフト(位相シフト)等が起き
ても相互に干渉を起こさず、伝送劣化補償やタイミング
管理を厳しくすることなく、各割込パルスを正確に識別
して割込レベルに応じた適切な受信処理を行うことがで
きる。
[Function] According to the disaster prevention monitoring device of the present invention having such a configuration, different interrupt levels can be set depending on the fire detection of the fire transmitter, the fire detection of the fire detector, the pre-alarm level of the analog sensor, etc. The transmission and reception time timings of interrupt pulses corresponding to each interrupt level are assigned sequentially within the interrupt transmission and reception band with a free time in between, making it possible to transmit two types of interrupt pulses at the same time. Even if the two interrupt pulses are executed, there is a free time between the two interrupt pulses, so even if there is a shift (phase shift) on the time axis due to transmission characteristics or timing deviation, there will be no mutual interference. It is possible to accurately identify each interrupt pulse and perform appropriate reception processing according to the interrupt level without strict transmission degradation compensation or timing management.

[実施例] 第1図は本発明の全体構成を示した説明図である。[Example] FIG. 1 is an explanatory diagram showing the overall configuration of the present invention.

第1図において、10は受信機であり、受信機10から
引出された伝送路14に端末として中継器22、アナロ
グ感知器2訳発信機30を接続している。中継器22に
対しては、更に電源兼用信号線24を介してオンオフ感
知器を接続している。
In FIG. 1, 10 is a receiver, and a repeater 22 and an analog sensor 2 translation transmitter 30 are connected as terminals to a transmission line 14 led out from the receiver 10. An on/off sensor is further connected to the repeater 22 via a power signal line 24.

受信機10は端末のアドレスを順次指定した呼出信号を
送信する。受信機10からの呼出信号に対し端末側は呼
出アドレスと自己アドレスとの一致照合を行い、アドレ
スが一致した端末から端末応答信号を受信機10に送信
する。更に本発明にあっては、端末側で火災等の異常を
検出した際には呼出信号と端末応答信号の間に設定した
割込時間帯域を使用して割込パルスを受信機10に送出
する。
The receiver 10 transmits a paging signal that sequentially specifies the addresses of the terminals. In response to the calling signal from the receiver 10, the terminal side performs a match check between the calling address and its own address, and the terminal whose addresses match transmits a terminal response signal to the receiver 10. Furthermore, in the present invention, when an abnormality such as a fire is detected on the terminal side, an interrupt pulse is sent to the receiver 10 using an interrupt time band set between the ringing signal and the terminal response signal. .

第2図は本発明の実施例構成図であり、第1図に示した
中継器22、アナログ感知器28、火災発信機30は端
末12−1.12−2.  ・・・として示している。
FIG. 2 is a configuration diagram of an embodiment of the present invention, in which the repeater 22, analog detector 28, and fire transmitter 30 shown in FIG. It is shown as...

第2図において、受信機10から引出された伝送路14
に対しては複数の端末12−1.12−2、・・・が接
続される。伝送路14は見かけ上、呼出回線14−1と
応答回線14−2に分けて示すことができる。即ち、受
信機10からの呼出信号は電圧モード(電圧パルス列)
であり、これ(こ対し端末から受信機10に対する端末
応答信号(よ電流モード(電流パルス列)であり、従っ
て電圧モードの伝送につき呼出回線14−1で示し、電
流モードの伝送について応答回線14−2で示している
In FIG. 2, a transmission line 14 led out from the receiver 10
A plurality of terminals 12-1, 12-2, . . . are connected to the terminal. The transmission line 14 can be shown divided into a calling line 14-1 and a response line 14-2. That is, the calling signal from the receiver 10 is in voltage mode (voltage pulse train).
This is a terminal response signal (current mode (current pulse train)) from the terminal to the receiver 10, and is therefore indicated by the calling line 14-1 for voltage mode transmission, and by the response line 14-1 for current mode transmission. It is shown as 2.

受信機10にはCPUを用いた制御部32が設けられ、
制御部32に対しては表示部34、操作部36、鳴動部
38が接続される。制御部32と伝送路14の間にはC
PUを用いた伝送部40力(設けられる。
The receiver 10 is provided with a control unit 32 using a CPU,
A display section 34 , an operation section 36 , and a sounding section 38 are connected to the control section 32 . There is a C between the control unit 32 and the transmission line 14.
A transmission section 40 using PU (provided).

端末12−1.12−2.  ・・・は端末12−1に
代表して示すようにCPUを用いた端末制御部42、セ
ンサ部44及び切替回路46を備える。
Terminal 12-1.12-2. ... includes a terminal control section 42 using a CPU, a sensor section 44, and a switching circuit 46, as shown in the terminal 12-1.

センサ部44は第1図に示したオンオフ感知器26、ア
ナログ感知器28や火災発信機30等で成る。端末制御
部42には割込送信部16が設けられる。割込送信部1
6はセンサ部44より異常検出出力、例えば火災検出出
力を受けると切替回路46を応答信号の送出から割込パ
ルスの送出に切替え、応答回線14−2を介して電流モ
ードで割込パルスを受信機10に送出する。端末からの
割込信号は第3図に示すように、受信機呼出信号と端末
応答信号との間に割込時間帯域を設け、この実施例にあ
っては、割込時間帯域をビットbO〜b7の8ビツトの
区間に分けている。ここで、各ビットの区間は約1ms
程度である。また、この実施例にあっては、割込レベル
としてレベル1〜3の3つのレベルを設けている。例え
ば割込レベル1は火災発信機の火災検出出力を示し、割
込レベル2は火災感知器やガス漏れセンサの検出出力を
示し、更に割込レベル3はアナログ感知器において、ア
ナログ検出信号が受信機側での火災判断を開始するプリ
アラームレベルを上回ったことを示す。
The sensor section 44 includes the on/off sensor 26, analog sensor 28, fire transmitter 30, etc. shown in FIG. The terminal control section 42 is provided with an interrupt transmission section 16. Interrupt transmitter 1
6 receives an abnormality detection output, such as a fire detection output, from the sensor unit 44, switches the switching circuit 46 from sending out a response signal to sending out an interrupt pulse, and receives the interrupt pulse in current mode via the response line 14-2. Send to machine 10. As shown in FIG. 3, the interrupt signal from the terminal has an interrupt time band between the receiver call signal and the terminal response signal. It is divided into 8-bit sections of b7. Here, the period of each bit is approximately 1ms
That's about it. Further, in this embodiment, three levels, levels 1 to 3, are provided as interrupt levels. For example, interrupt level 1 indicates the fire detection output of a fire transmitter, interrupt level 2 indicates the detection output of a fire detector or gas leak sensor, and interrupt level 3 indicates the analog detection signal received by an analog sensor. Indicates that the pre-alarm level has been exceeded, which triggers fire judgment on the aircraft side.

このような割込レベル1〜3に対応した3つの割込パル
スは図示のようにビットb1.  b3.  b5のタ
イミングに割り当てられており、割込パルスの間、及び
受信機呼出信号、更には端末応答信号との間にはビット
bO,b2.b4.b6及びb7の空き時間を設定して
いる。
These three interrupt pulses corresponding to interrupt levels 1 to 3 are bits b1. b3. bits bO, b2 . b4. Free time for b6 and b7 is set.

再び第2図を参照するに、端末側に設けた割込送信部1
6に対応して受信機10の伝送部40には割込検出部1
8が設けられる。割込検出部18は第3図に示した割込
時間帯域を監視し、割込パルスを検出すると、その検出
ビットにより割込レベルを判別して制御部32に通知す
る。
Referring again to FIG. 2, the interrupt transmitter 1 provided on the terminal side
6, the transmission section 40 of the receiver 10 includes an interrupt detection section 1.
8 is provided. The interrupt detection unit 18 monitors the interrupt time band shown in FIG. 3, and when detecting an interrupt pulse, determines the interrupt level based on the detection bit and notifies the control unit 32.

制御部32には呼出制御部20が設けられる。The control unit 32 is provided with a call control unit 20 .

定常監視状態にあっては、呼出制御部20は端末アドレ
スを順次指定した呼出信号を送出している。
In the steady monitoring state, the call control section 20 sends out a call signal that sequentially specifies terminal addresses.

これに対し、伝送部40の割込検出部18より割込検出
出力を受けると、呼出制御部20は割込レベルに応じた
受信処理を行う。
On the other hand, upon receiving an interrupt detection output from the interrupt detection section 18 of the transmission section 40, the call control section 20 performs reception processing according to the interrupt level.

例えば火災発信機の検出出力を示す割込レベル1の受信
時には、1または複数回の割込レベル1の受信で警報ベ
ルを鳴動した後、異常検出端末を特定するためのグルー
プ呼出しを行う。これに対し火災感知器やガス漏れセン
サの検出出力を示す割込レベル2については、ベル鳴動
等の警報を行わずに直ちに異常検出端末を特定するため
のグループ呼出しを行う。更に、プリアラームレベルを
示す割込レベル3については、制御部32におけるアナ
ログ感知器からの検出データに基づく火災判断処理を起
動するようになる。
For example, when an interrupt level 1 indicating the detection output of a fire transmitter is received, an alarm bell is sounded in response to reception of the interrupt level 1 one or more times, and then a group call is made to identify the abnormality detection terminal. On the other hand, for interrupt level 2, which indicates the detection output of a fire detector or gas leak sensor, a group call is immediately made to identify the abnormality detection terminal without issuing an alarm such as ringing a bell. Furthermore, regarding the interrupt level 3 indicating the pre-alarm level, fire determination processing based on detection data from the analog sensor in the control unit 32 is activated.

第4図は第2図の実施例における定常監視状態での呼出
応答のタイミングチャートである。
FIG. 4 is a timing chart of a call response in a steady monitoring state in the embodiment of FIG. 2.

第4図の定常監視状態にあっては、受信機10は呼出コ
マンドC1に続いて端末アドレスAl。
In the steady monitoring state of FIG. 4, the receiver 10 receives the call command C1 and then receives the terminal address Al.

A2. A3.  ・・・を順次指定した呼出信号を出
力する。この呼出信号は第5図に示すように、コマンド
フィールド、アドレスフィールド、チエツクサムフィー
ルドの3バイトで構成される。
A2. A3. . . . Outputs a calling signal specifying sequentially. As shown in FIG. 5, this call signal consists of three bytes: a command field, an address field, and a checksum field.

受信機10からの呼出信号に対し端末12−1゜12−
2.  ・・・は呼出コマンドC1に続く呼出アドレス
とを比較し、アドレス一致が得られると端末1.2−1
. 12−2.  ・・・に示すように応答データDi
、 D2.  ・・・を含む端末応答信号を送出する。
In response to the call signal from the receiver 10, the terminal 12-1゜12-
2. ... compares the calling address following the calling command C1, and if an address match is found, the terminal 1.2-1
.. 12-2. As shown in..., the response data Di
, D2. Sends a terminal response signal including...

端末応答信号は第6図に取出して示すように8ビツトの
データフィールドとチエツクサムフィードの2バイトで
構成され、各バイトの前後にはスタートビットとストッ
プビットが設けられる。
As shown in FIG. 6, the terminal response signal consists of two bytes: an 8-bit data field and a checksum feed, and a start bit and a stop bit are provided before and after each byte.

このような呼出信号及び応答信号に対し、呼出信号と端
末応答信号の間には端末12−1.12−2.・・・側
には破線で示すように割込送信帯域TSI、TS2. 
 ・・・が設定され、同時に受信機10側には割込受信
帯域TRが設定されている。
For such a calling signal and a response signal, terminals 12-1, 12-2, . . . . as shown by broken lines, there are interrupt transmission bands TSI, TS2 .
... are set, and at the same time, an interrupt reception band TR is set on the receiver 10 side.

第7図は端末12−nで火災検出が行われたときのタイ
ミングチャートである。端末12−nで火災検出が行わ
れると、火災検出後の端末12−nにおける割込送信帯
域TSnを使用して割込パルスの送信が行われる。この
とき、端末12−nで火災発信機による火災検出出力が
得られていたとすると、第3図の割込レベル1のタイミ
ングで割込パルスを受信機10に送出する。端末12−
nからの割込パルスは受信機10の対応する割込受信帯
域TRで受信され、受信タイミングがビットb1である
ことから割込レベル1を認識することができる。
FIG. 7 is a timing chart when a fire is detected at the terminal 12-n. When a fire is detected at the terminal 12-n, an interrupt pulse is transmitted using the interrupt transmission band TSn at the terminal 12-n after the fire is detected. At this time, assuming that a fire detection output from the fire transmitter is obtained at the terminal 12-n, an interrupt pulse is sent to the receiver 10 at the timing of interrupt level 1 in FIG. Terminal 12-
The interrupt pulse from n is received in the corresponding interrupt reception band TR of the receiver 10, and since the reception timing is bit b1, the interrupt level 1 can be recognized.

この割込レベル1の割込パルスに対しては、例えば警報
ベルを鳴動した後にグループアドレスによる異常検出端
末の特定処理に入る。
For this interrupt pulse of interrupt level 1, for example, after ringing an alarm bell, processing for identifying the abnormality detection terminal using the group address is started.

即ち、次の受信機10からの呼出信号のコマンドフィー
ルドを検索コマンドC2とし、またアドレスフィールド
にグループアドレスG1を入れ、グループアドレスG1
を指定したグループ呼出しを行う。グループポーリング
時は異常検出端末のみが応答する。
That is, the command field of the next call signal from the receiver 10 is set as the search command C2, and the group address G1 is entered in the address field.
Make a group call with the specified . During group polling, only the abnormality detection terminal responds.

従って、検索コマンドC2に続きグループアドレスGn
を指定したグループ呼出しを行うと、グループ応答が得
られる。グループ応答Dnに対しては、次にグループ内
の個別アドレスを指定した呼出しが行われ、最終的に端
末12−nが火災検出端末として特定され、受信機10
側で火災発生場所の区画表示等を行う。尚、第7図のタ
イミングチャートではレベル1の割込パルスを1回受け
たときにベル鳴動を行っているが、連続して複数回受け
たときにベル鳴動を行ってからグループ呼出しに入るよ
うにしてもよい。
Therefore, following the search command C2, the group address Gn
If you make a group call with , you will get a group response. In response to the group response Dn, a call is then made specifying an individual address within the group, and finally the terminal 12-n is identified as the fire detection terminal, and the receiver 10
The area where the fire occurred will be marked on the side. In addition, in the timing chart in Figure 7, the bell rings when a level 1 interrupt pulse is received once, but when the interrupt pulse of level 1 is received multiple times in a row, the bell rings and then the group call starts. You can also do this.

[発明の効果コ 以上説明してきたように本発明によれば、受信機からの
呼出信号と端末応答信号との間の割込時間帯域を使用し
て割込レベルの異なる複数の割込パルスを順次送出する
際に、各割込パルスの間に空き時間を設けていることか
ら、端末毎のばらつきによる割込パルスの送信タイミン
グのずれあるいは伝送特性による位相ずれが起きても、
隣接する割込パルス間で干渉を起こすことなく、受信機
側で割込パルスとパルスタイミングを正確に検出し、割
込レベルに基づく適切な受信機側の対応処置をとること
ができる。
[Effects of the Invention] As explained above, according to the present invention, a plurality of interrupt pulses with different interrupt levels are generated using the interrupt time band between the paging signal from the receiver and the terminal response signal. Since there is a free time between each interrupt pulse when sending them sequentially, even if there is a shift in the transmission timing of the interrupt pulse due to variations between terminals or a phase shift due to transmission characteristics,
It is possible to accurately detect interrupt pulses and pulse timing on the receiver side without causing interference between adjacent interrupt pulses, and to take appropriate countermeasures on the receiver side based on the interrupt level.

【図面の簡単な説明】[Brief explanation of the drawing]

第1図は本発明の全体説明図; 第2図は本発明の実施例構成図; 第3図は本発明の割込時間帯域の設定と割込レベルの説
明図; 第4図は本発明の定常監視状態における呼出応答のタイ
ミングチャート; 第5図は本発明の呼出信号のフォーマット説明図;第6
図は本発明の応答信号のフォーマット説明図;第7図は
本発明の火災検出時の呼出応答のタイミングチャートで
ある。 図中、 10:受信機 12.12−1〜12−4:端末 14:伝送路 14−1:呼出回線(電圧モード) 14−2:応答回線(電流モード) 16:割込送信部 18:割込検出部 :呼出制御部 :中継器 :電源兼用信号線 ニオンオフ火災感知器 :アナログ感知器 :火災発信機 :制御部 :表示部 :操作部 :鳴動部 :伝送部 :端末制御部 :センサ部 :切替回路
FIG. 1 is an overall explanatory diagram of the present invention; FIG. 2 is a configuration diagram of an embodiment of the present invention; FIG. 3 is an explanatory diagram of interrupt time band settings and interrupt levels of the present invention; FIG. 4 is an explanatory diagram of the present invention Fig. 5 is a diagram explaining the format of the calling signal of the present invention;
The figure is an explanatory diagram of the format of the response signal of the present invention; FIG. 7 is a timing chart of a call response when a fire is detected according to the present invention. In the figure, 10: Receiver 12.12-1 to 12-4: Terminal 14: Transmission line 14-1: Calling line (voltage mode) 14-2: Response line (current mode) 16: Interrupt transmitter 18: Interruption detection unit: Call control unit: Repeater: Power supply signal wire off Fire detector: Analog detector: Fire transmitter: Control unit: Display unit: Operation unit: Sound unit: Transmission unit: Terminal control unit: Sensor unit : Switching circuit

Claims (1)

【特許請求の範囲】[Claims] 1.伝送路を介して複数の端末を受信機に接続し、受信
機からのアドレス指定による呼出信号の送信で端末を順
次呼出し、端末側で呼出アドレスと自己アドレスとの一
致照合が得られた際に端末応答信号を送信し、該端末応
答信号を受信機で受信解読して警報等を行う防災監視装
置に於いて、前記端末のそれぞれに、受信機からの呼出
信号と端末応答信号の間に、複数の割込パルスを間に空
き時間を入れて順次送信する所定時間の割込送信帯域を
設定すると共に、異常検出時に検出情報の種別等に対応
した特定の割込パルスを選択して送信する割込送信部を
設け、 前記受信機には、前記端末に設定した割込送信帯域に対
応した割込受信帯域で受信される割込パルスを検出する
割込検出部と; 該割込検出部の検出出力に基づき所定の割込受信処理を
行う制御部と; を設けたことを特徴とする防災監視装置。
1. Connect multiple terminals to a receiver via a transmission path, and sequentially call the terminals by sending a paging signal by specifying an address from the receiver, and when the terminal finds a match between the paging address and its own address. In a disaster prevention monitoring device that transmits a terminal response signal, receives and decodes the terminal response signal with a receiver, and issues an alarm, etc., a signal is sent to each of the terminals between the calling signal from the receiver and the terminal response signal. Sets an interrupt transmission band for a predetermined time to sequentially transmit multiple interrupt pulses with idle time in between, and also selects and transmits a specific interrupt pulse corresponding to the type of detected information when an abnormality is detected. an interrupt transmitting section; the receiver includes an interrupt detecting section that detects an interrupt pulse received in an interrupt receiving band corresponding to an interrupt transmitting band set for the terminal; the interrupt detecting section; A disaster prevention monitoring device comprising: a control unit that performs predetermined interrupt reception processing based on a detection output of the device.
JP2236072A 1990-09-06 1990-09-06 Disaster prevention monitoring device Expired - Lifetime JP2511187B2 (en)

Priority Applications (11)

Application Number Priority Date Filing Date Title
JP2236072A JP2511187B2 (en) 1990-09-06 1990-09-06 Disaster prevention monitoring device
AU82550/91A AU648098B2 (en) 1990-09-06 1991-08-19 Anit-disaster monitoring system and anti-disaster monitoring method
CA002049656A CA2049656C (en) 1990-09-06 1991-08-21 Anti-disaster monitoring system and anti-disaster monitoring method
FI913988A FI107413B (en) 1990-09-06 1991-08-23 System for preventing injury and procedure for preventing injury
EP91114868A EP0474201B1 (en) 1990-09-06 1991-09-03 Method and system of alarm signalling with priority interrupt
NO913449A NO305924B1 (en) 1990-09-06 1991-09-03 Anti-disaster monitoring system and method of anti-disaster monitoring
AT91114868T ATE166171T1 (en) 1990-09-06 1991-09-03 METHOD AND SYSTEM FOR PRIORITY INTERRUPTION ALARM SIGNALING
ES91114868T ES2117631T3 (en) 1990-09-06 1991-09-03 PROCEDURE AND ALARM SIGNALING SYSTEM WITH PRIORITY INTERRUPTION.
DE69129394T DE69129394T2 (en) 1990-09-06 1991-09-03 Priority interrupt alarm signaling method and system
US07/755,687 US5389914A (en) 1990-09-06 1991-09-05 Anti-disaster monitoring system and anti-disaster monitoring method
CN91108684A CN1032392C (en) 1990-09-06 1991-09-06 Anti-disaster monitoring system and anti-disaster monitoring method

Applications Claiming Priority (1)

Application Number Priority Date Filing Date Title
JP2236072A JP2511187B2 (en) 1990-09-06 1990-09-06 Disaster prevention monitoring device

Publications (2)

Publication Number Publication Date
JPH04115397A true JPH04115397A (en) 1992-04-16
JP2511187B2 JP2511187B2 (en) 1996-06-26

Family

ID=16995304

Family Applications (1)

Application Number Title Priority Date Filing Date
JP2236072A Expired - Lifetime JP2511187B2 (en) 1990-09-06 1990-09-06 Disaster prevention monitoring device

Country Status (1)

Country Link
JP (1) JP2511187B2 (en)

Cited By (2)

* Cited by examiner, † Cited by third party
Publication number Priority date Publication date Assignee Title
US5952936A (en) * 1996-08-23 1999-09-14 Nec Corporation Bidirectional remote control system using interrupt arbitration
JP2011108191A (en) * 2009-11-20 2011-06-02 Kato Denko:Kk Distrbution device for distributing fire dispatch e-mail and fire alarm system using the same

Citations (2)

* Cited by examiner, † Cited by third party
Publication number Priority date Publication date Assignee Title
JPS59122256A (en) * 1982-12-28 1984-07-14 Fuji Electric Co Ltd Interrupting method
JPS61101898A (en) * 1984-10-25 1986-05-20 松下電工株式会社 Data transmission system for automatic fire alarm system

Patent Citations (2)

* Cited by examiner, † Cited by third party
Publication number Priority date Publication date Assignee Title
JPS59122256A (en) * 1982-12-28 1984-07-14 Fuji Electric Co Ltd Interrupting method
JPS61101898A (en) * 1984-10-25 1986-05-20 松下電工株式会社 Data transmission system for automatic fire alarm system

Cited By (2)

* Cited by examiner, † Cited by third party
Publication number Priority date Publication date Assignee Title
US5952936A (en) * 1996-08-23 1999-09-14 Nec Corporation Bidirectional remote control system using interrupt arbitration
JP2011108191A (en) * 2009-11-20 2011-06-02 Kato Denko:Kk Distrbution device for distributing fire dispatch e-mail and fire alarm system using the same

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