EP2537147A1 - Détecteur d'incendie pour la surveillance d'un local au moyen d'une combinaison de mesure de la densité de fumée et de la température - Google Patents

Détecteur d'incendie pour la surveillance d'un local au moyen d'une combinaison de mesure de la densité de fumée et de la température

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Publication number
EP2537147A1
EP2537147A1 EP11716831A EP11716831A EP2537147A1 EP 2537147 A1 EP2537147 A1 EP 2537147A1 EP 11716831 A EP11716831 A EP 11716831A EP 11716831 A EP11716831 A EP 11716831A EP 2537147 A1 EP2537147 A1 EP 2537147A1
Authority
EP
European Patent Office
Prior art keywords
fire detector
radio
smoke density
temperature
fire
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
EP11716831A
Other languages
German (de)
English (en)
Other versions
EP2537147B1 (fr
Inventor
Winrich Hoseit
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.)
Individual
Original Assignee
Individual
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Filing date
Publication date
Application filed by Individual filed Critical Individual
Priority to PL11716831T priority Critical patent/PL2537147T3/pl
Publication of EP2537147A1 publication Critical patent/EP2537147A1/fr
Application granted granted Critical
Publication of EP2537147B1 publication Critical patent/EP2537147B1/fr
Not-in-force legal-status Critical Current
Anticipated expiration legal-status Critical

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Classifications

    • G—PHYSICS
    • G08—SIGNALLING
    • G08B—SIGNALLING OR CALLING SYSTEMS; ORDER TELEGRAPHS; ALARM SYSTEMS
    • G08B17/00—Fire alarms; Alarms responsive to explosion
    • G08B17/06—Electric actuation of the alarm, e.g. using a thermally-operated switch
    • G—PHYSICS
    • G08—SIGNALLING
    • G08B—SIGNALLING OR CALLING SYSTEMS; ORDER TELEGRAPHS; ALARM SYSTEMS
    • G08B17/00—Fire alarms; Alarms responsive to explosion
    • G08B17/10—Actuation by presence of smoke or gases, e.g. automatic alarm devices for analysing flowing fluid materials by the use of optical means
    • G—PHYSICS
    • G08—SIGNALLING
    • G08B—SIGNALLING OR CALLING SYSTEMS; ORDER TELEGRAPHS; ALARM SYSTEMS
    • G08B25/00—Alarm systems in which the location of the alarm condition is signalled to a central station, e.g. fire or police telegraphic systems
    • G08B25/004—Alarm propagated along alternative communication path or using alternative communication medium according to a hierarchy of available ways to communicate, e.g. if Wi-Fi not available use GSM

Definitions

  • the invention relates to a fire detector for monitoring a room and to trigger a fire alarm, with a smoke sensor and a temperature sensor, with the smoke sensor, a smoke density and the temperature sensor is a temperature measurable, wherein when exceeding a temperature threshold and / or when exceeding a Rauch Whyeschwellhongs an alarm is triggered, wherein the temperature threshold is dependent on the smoke density and / or the smoke density threshold is dependent on the temperature, wherein the fire detector has a memory
  • smoke detectors which usually measure the smoke density and give a time-limited, audible alarm when exceeding a preset value, even those who also issue a wireless alarm to adjacent smoke detectors, which then also give an audible alarm and also which then forward this information to a single connected transmission unit, such as a telephone or a GSM mobile network, or a proprietary cable or network connection. If this audible alarm can not be heard due to absence, a causal fire continues to spread; If this single connected transmission unit is disturbed, a transmission does not take place.
  • a single connected transmission unit such as a telephone or a GSM mobile network, or a proprietary cable or network connection.
  • the fire detectors have a photoelectric smoke sensor and a temperature sensor. An alarm is triggered if a specified smoke density threshold is exceeded or the ambient temperature exceeds 57 ° C.
  • Each fire detector has a piezo loudspeaker with which an audible alarm can be generated.
  • the fire detectors are each equipped with a first radio, namely a transceiver for transmitting and receiving information by radio.
  • the fire detectors form a radio network.
  • a transmission unit is also equipped with a first radio. The transmission unit can be connected via a telephone connection with a destination address, namely a monitoring center. Within the network, messages and information may be forwarded either directly to the transmission unit or from one
  • CONFIRMATION COPY Fire detectors are forwarded to the next fire alarm until the transmission unit is reached.
  • the transmission unit sends the messages to the monitoring center.
  • the network consisting of the fire detectors can therefore be connected to the monitoring center via the individual transmission unit.
  • a fire detector is known with a smoke detector, which detects a smoke density in a target environment; and a temperature detector that detects a temperature of the target environment to determine a temperature difference within a predetermined time interval. Further, thresholding means is provided for providing a plurality of key criteria for determining the presence of a fire, the main criteria comprising:
  • a control device is further provided which checks the detected temperature difference and the detected smoke density with respect to the main criteria so as to provide a fire warning signal indicative of a possible fire presence when one of the above main criteria is met, the fire detection system operating in different modes can be operated, which differ from each other by modifying at least one of the main criteria by changing the first smoke threshold, the first temperature difference threshold, and / or the inequality, the controller being further configured to detect the detected temperature difference and the detected smoke density with respect to check stringent criteria that are analogous to the main criteria, but have lower thresholds and an inequality function, each different from those of the main criteria, to provide a fire index that indicates which of the stringent criteria in which number of events within a previous predetermined period of time has been met, and wherein the control device is configured to select one of the different modes depending on this fire index.
  • This generic fire detector is not yet optimally designed.
  • the evaluation of the main criteria requires a large number of recalculations and comparisons and is therefore complicated and prone to failure.
  • an adaptation of the main criteria to the different operating modes is required.
  • the invention is therefore based on the object to design a fire detector and further, so that the susceptibility of the fire alarm is reduced and a complex evaluation is avoided, whether an excess of the temperature threshold or smoke density threshold is present, the risk of false alarms is significantly reduced.
  • This task is solved for the fire detectors by storing a matrix in the memory, the matrix containing combination values, wherein one of the combination values can be assigned by means of the matrix to the measured temperature and the measured smoke density, the combination value exceeding or falling short of the temperature threshold value and / or the smoke density threshold.
  • the temperature threshold is vzw from the smoke density. so dependent that the higher the measured temperature, the lower the smoke density values are sufficient to trigger an alarm.
  • the smoke density threshold is vzw from the temperature.
  • the fire detector has a memory, wherein the memory is stored in the matrix.
  • the matrix contains combination values.
  • the measured temperature and the measured smoke density can be assigned to one of the combination values, wherein the combination value indicates the overshooting or undershooting of the temperature threshold value and / or the smoke density threshold value.
  • a recalculation of the temperature threshold and / or the smoke density threshold in each measurement is therefore eliminated.
  • the fire detector has vzw. a first radio, wherein the fire detector is configurable with further fire detectors after a first startup via the first radio to a wireless network.
  • Each fire detector has vzw.
  • a second radio wherein, for example, in the event of an alarm message via the second radio to a destination address can be sent.
  • the second radio is designed for communication with a base station or a BTS. This has the advantage that the fire detectors themselves act as a transmission unit. A separate transmission unit for sending the message to the destination address is no longer necessary.
  • the destination address may be the address of the monitoring center or the address of a mobile telephone, landline telephone, an IP address or the like.
  • the messages may be data, text, voice or video messages. Since all fire detectors can provide a connection with the monitoring center via the second radio, the susceptibility of the network connection to the monitoring center is minimized. Even if one or more fire detectors can not establish a connection to the monitoring center via the second radio, a message or alarm information on the first radio to the other fire detectors are forwarded, so that the other fire detectors forward the message to the monitoring center via the second radio can. Due to a large number of fire detectors combined with each other automatically to form a meshed network, which also function as transmission relays for one another, a lower susceptibility to interference arises compared with a single transmission unit. The system presented here is according to the invention also so designed to check itself periodically for its functional reliability.
  • the totality of the fire detectors form a self-organizing monitoring and alarm system, which consists of at least one, but practically a plurality of similar fire detectors, which are designed so that they can be commissioned within a room unit to be secured - for example, an apartment or a building - Configure automatically to a meshed ad-hoc radio network with the aim of monitoring these premises for undesirable conditions arbitrarily metrologically, but also at the same time both acoustically and visually and chemically and when exceeding or falling below preset values, this state to a or several preset destination addresses or to report to the monitoring center.
  • the first radio is designed for local communication with the other fire detectors.
  • the first radio is vzw. designed as an ISM module.
  • the second radio is designed for communication with an external base station of a particular public mobile radio network.
  • the second radio means has a higher maximum transmission power than the first radio.
  • the first radio is designed in particular as a short-range radio to short-range radio.
  • Such short-range radio resources are also referred to as SRD (Short Range Device) or LPD (Low Power Device).
  • the maximum transmission power of short-range radio is regulated in national regulations. For example.
  • Fig. 2 in a highly schematic representation of several connected to a wireless network fire detector
  • Fig. 3 is a schematic diagram of a temperature smoke density matrix.
  • a plurality of fire detectors 20, 21, 22, 23, 24 and 25 are shown.
  • the fire detectors 20, 21, 22, 23, 24 and 25 are particularly identical in construction.
  • six fire detectors 20 to 25 are shown. However, the number of fire detectors 20 to 25 may also be less than or greater than six.
  • the fire detectors 20 to 25 are used to monitor a room (not shown in detail) and to trigger an alarm.
  • the fire detectors 20 to 25 are designed in particular for triggering a fire alarm.
  • the fire detector 20 to 25 is preferred for monitoring fires, but not mandatory to install centrally on each ceiling of a room to be monitored.
  • the essential components of the fire detectors 20 to 25 may be explained below with reference to FIG. 1:
  • Each of the fire detectors 20 to 25 described here has vzw. a housing and a board (not shown).
  • the fire detectors 20 to 25 have vzw. each one controller 1.
  • the controller 1 is used to control and regulate the fire detectors 20 to 25.
  • the fire detectors 20 to 25 may each have an operating system and programs, wherein the operating system and the programs with the controller 1 are executable.
  • Each fire detector 20 to 25 has at least one sensor.
  • the sensor can be designed in particular as a smoke sensor 2.
  • a smoke density can be detected with the smoke sensor 2.
  • the smoke sensor 2 may in particular be designed as an optical sensor (not shown in more detail) and arranged in a measuring chamber. In the measuring chamber light pulses are generated. These light pulses In the smokeless state of the measuring chamber, do not hit the optical sensor. When smoke enters the measuring chamber, the light pulse is scattered by the smoke. The scattered light then falls on the optical sensor. The scattered light intensity is used to determine the smoke density.
  • the fire detectors 20 to 25 have vzw. as a further sensor, a temperature sensor 3. As a measured value, the ambient temperature of the fire detectors 20 to 25 can be detected with the temperature sensor 3.
  • the fire detectors 20 to 25 have a piezoelectric element 4. Via the piezoelectric element 4, an audible alarm signal can be output when an alarm is triggered by exceeding or falling below a limit.
  • the fire detectors 20 to 25 have vzw. a speaker 5 on.
  • the fire detectors 20 to 25 have vzw. a microphone 6 on. Through the microphone 6, the rooms can be monitored acoustically.
  • the fire detectors 20 to 25 can be used with the speaker 5 and the microphone 6 as a transmitting and / or receiving part of a baby monitor. Further, voice communication can be provided with the speaker 5 and the microphone 6. It is conceivable to provide a voice connection between different fire detectors 20 to 25 and / or between one of the fire detectors 20 to 25 and the destination address.
  • the fire detectors 20 to 25 have in particular a light source 8.
  • the light source 8 is particularly switched on when an alarm is triggered.
  • the light source 8 then illuminates the space to be monitored.
  • the switched-on light source 8 facilitates orientation, in particular, when smoke has already penetrated into the room.
  • the combination of the light source 8 with the triggering of the alarm makes it easier to find an escape route and therefore increases safety.
  • the fire detectors 20 to 25 have a power source 9.
  • the power source 9 may be formed by batteries or rechargeable batteries.
  • the fire detectors 20 to 25 have a first radio 1 1.
  • the fire detector 20 together with the other fire detectors 21 to 25 configure after a first startup via the first radio 1 1 to a wireless network. This is indicated in Fig. 2 by the connecting lines between the fire detectors 20 to 25.
  • the first radio 1 1 is vzw. designed for local communication with the other fire detectors 20 to 25.
  • the first radio 1 1 is as a short-range radio vzw. designed as an ISM module.
  • the first radio 1 1 has in particular a synchronization unit, so that the fire detectors 20 to 25 immediately after switching Vzw. synchronize via ISM band.
  • the fire detectors 20 to 25 are turned on in turn, the transmission and reception cycles of the first radio 1 1 are tuned to each other within a certain initialization period.
  • the fire detectors 20 to 25 have a memory 10.
  • a routing table can be stored in the memory 10. Furthermore, preset threshold values are stored in the memory 10.
  • Each of the fire detectors 20 to 25 is assigned in particular an individual identification feature. Within the initialization period, the identification feature with all neighboring fire detectors 20 to 25, to which a radio link of sufficient quality is possible via the first radio 1 1, exchanged. In each fire detector 20 to 25, a routing table is established. The routing table is stored in memory 10. The routing table contains information about all connection possibilities in the local radio network.
  • the fire detectors 20 to 25 each have at least one control element 12, vzw. several controls 12 on. With the control element 12, an alarm can be turned off.
  • the fire detectors 20 to 25 each have an internal bus system 13.
  • the bus system is used for data transmission between several modules and the controller 1.
  • the bus system 13 connects in particular several slots, with additional modules can be added to the slots.
  • the fire detectors 20 to 25 can be individually adapted and retrofitted or upgraded with additional modules. This opens up a variety of applications for the fire detectors 20 to 25.
  • the fire detectors 20 to 25 have vzw. a camera 14 on. By the camera 14 of the room to be monitored can be viewed. The image recorded by the camera 14 can via the first radio 1 1 within the radio network to get redirected.
  • the camera 14 is vzw. connected via a slot to the bus system 13.
  • the camera 14 can serve to monitor burglary of the room.
  • the fire detectors 20 to 25 may have a motion detector 15.
  • the fire detectors 20 to 25 may have a light sensor 16.
  • the motion detector 15 is vzw. connected via a slot to the bus system 13.
  • the fire detectors 20 to 25 may have a gas sensor 17.
  • a fire creates carbon dioxide.
  • the gas sensor 17 may be designed for the detection of carbon dioxide. It is conceivable that the fire detectors 20 to 25 further sensors 18 have.
  • the gas sensor 7 and / or the other sensors 18 are vzw. connected via a slot to the bus system 13.
  • a message with alarm information can be sent to at least one destination address. This is indicated in Fig. 2 by the emanating from the fire detector 21 arrow (not specified).
  • a second radio means 7 is provided (see Fig. 1), wherein the alarm information via the second radio means 7 to the destination address can be sent.
  • the second radio means 7 is designed in particular as a GSM module and / or as a UMTS module.
  • the second radio 7 has a SIM card.
  • the second radio 7 sends the alarm information to an external base station (not shown) of a mobile network 26. About the mobile network 26, the alarm information 26 is forwarded to the monitoring center 50.
  • the monitoring center 50 has vzw. a mobile radio access 51, in particular a GSM / UMTS access. About the mobile network 26 and the mobile access 51, the alarm information and other messages, eg. By SMS and / or MMS the monitoring center 50 zuleitbar. Furthermore, a voice connection can be established to each of the fire detectors 20 to 25 via the mobile radio network 26. Each Fire detector 20 to 25 is associated with a unique identification feature (not shown). Each fire detector 20 to 25 has a SIM card with a phone number. The phone number serves vzw. as an identification feature.
  • the monitoring center 50 has an Internet access 52. Internet access 52 can be provided by a DSL connection and a computer. The second radio 7 can forward a message via the mobile radio network 26 and via a suitable interface to the Internet 27 and further via the Internet access 52 of the monitoring center 50.
  • the monitoring center 50 has a fixed telephone access 53, also referred to as Public Switched Telephone Network (PSTN) access.
  • PSTN Public Switched Telephone Network
  • the fixed telephone access 53 can be contacted via the second radio 7 and corresponding interfaces.
  • the second radio 7 can establish a voice connection via the mobile radio network 26 and the PSTN network 28 to the monitoring center 50.
  • the alarm information vzw. By sending the alarm information to the destination address, the alarm information vzw. forwarded to the monitoring center 50 (see Fig. 2). Since all the fire detectors 20 to 25 can provide a connection with the monitoring center 50 via the second radio means 7, the susceptibility of the connection of the network to the monitoring center 50 is minimized. Even if one or more fire detectors 20 to 25 can not establish a connection to the monitoring center 50 via the second radio 7, an alarm information or another message on the first radio 11 can be forwarded to the other fire detectors 20 to 25, so that the other fire detector 20 to 25 via the second radio 7 can forward the alarm information to the monitoring center 50.
  • the fire detectors 20 to 25 are switched on after installation in sequence. After switching on, a predefined initialisation period begins. The initialization period can be, for example, about 5-10 minutes. Within the initialization period, after switching on, all fire detectors 20 to 25 synchronize in sequence over the first radio 1 1, in particular so by ISM band so that they tune the transmission and reception cycles, the respective one-time assigned identification feature vzw. the SIM card numbers with all neighboring fire detectors 20 to 25, to which a radio link of sufficient quality is possible, exchange and store in their routing table.
  • the second radio means 7, in particular the GSM / UMTS modules, are switched on via the controller 1 and cause a connection to be established with the respective BTS of the mobile radio network operator.
  • Vzw. the connection quality is determined via the second radio 7 to the BTS.
  • the quality of the connection via the second radio 7 is verifiable, namely whether a direct connection to a base station of the mobile network 26 is.
  • the connection quality is vzw. passed to the controller 1 and the memory 10.
  • the memory 10 is vzw. designed as a flash memory. This has the advantage that data in the memory 10, for example the routing table and the matrix can be stored non-volatile, i. storable without permanent supply voltage.
  • Each fire detector 20 to 25 determines how well its connection via the second radio 7 or its GSM / UMTS connection in the respective mobile network 26 is.
  • the quality of the connection is due to the spatially different location in the apartment or building due to the associated greater or lesser attenuation by the building better or worse, or even completely insufficient for even a GSM / UMTS connection to the BTS.
  • this fire detector divides 20 to 25 vzw. the other fire detectors 20 to 25, to which this fire detector 20 to 25 has a good connection via the first radio 11 or via the ISM connection according to the routing table, this with.
  • the neighbor fire detector switches 20 to 25 with the best connection via the first radio 1 1 and with the best ISM connection (high signal level, low bit error rate) to the fire detector 20 to 25, no connection via the second radio 7 and . can not establish a GSM / UMTS connection, as a relay for this one.
  • Vzw shows each fire detector 20 to 25 after completion of the configuration of any number of installed fire detectors 20 to 25 to a meshed radio network optically by indicating cyclic lighting od. Like. Whether the meshed wireless network is fully configured or not yet.
  • each fire detector 20 to 25 after successful configuration of the meshed radio network basically in sufficiently short intervals the respective smoke density on the dedicated smoke sensor 2 and at the same time the respective temperature on the temperature sensor 3.
  • an alarm triggered.
  • the temperature threshold depends on the smoke density and / or the smoke density threshold is dependent on the temperature.
  • the temperature threshold depends on the smoke density and the smoke density threshold depends on the temperature. This has the advantage that the risk of false alarms is significantly reduced.
  • the disadvantages mentioned above are now avoided by storing a matrix in the memory 10, the matrix containing combination values, wherein one of the combination values can be assigned by means of the matrix to the measured temperature and the measured smoke density, the combination value exceeding or falling below the value Temperature threshold and / or the smoke density threshold indicates.
  • the fire detector 20 to 25 has the memory 10, wherein in the memory 10, a matrix is stored.
  • the matrix contains combination values, whereby one of the combination values can be assigned by means of the matrix to the measured temperature and the measured smoke density.
  • the combination value indicates the overshoot or undershoot of the temperature threshold and / or the smoke density threshold value.
  • the measured temperature and the measured smoke density are compared with temperature and smoke density dependent thresholds.
  • the measured temperature and smoke density are thereby correlated with each other.
  • the measured temperature and smoke density are correlated with each other in their dynamic course.
  • the correlation is vzw. by means of the matrix shown in FIG.
  • the combination values provide a measure of the fire probability taking into account the correlation of the temperature and the smoke density.
  • the measured temperature and the measured smoke density can each be assigned to one of the combination values.
  • an alarm can be triggered.
  • the temperature threshold drops with increasing smoke density. The higher the measured smoke density, the lower measured temperatures are sufficient to trigger an alarm.
  • the temperature threshold is a vzw. monotonically decreasing function of smoke density.
  • the smoke density threshold drops with increasing temperature. The higher the temperature, the lower the smoke density values are sufficient to trigger an alarm.
  • the smoke density threshold is a vzw. monotonically decreasing function of temperature. If the smoke density threshold and / or the temperature threshold are present as a mathematical function, they can be calculated with the fire detector 20 to 25 for each measured temperature and smoke density of the temperature threshold and / or the smoke density threshold. In the following, however, a simpler method is described, wherein the threshold values do not have to be recalculated each time, but the overshooting and undershooting of the smoke density threshold value and the temperature threshold value can be determined by means of a matrix. Each column of the matrix is assigned a ratio or ratio interval of the measured smoke density to a maximum smoke density threshold in percent.
  • each line of the matrix is assigned a temperature or a temperature interval, for example 25 ° C to 27.5 ° C or 27.5 ° C to 30 ° C.
  • Each pair value consisting of the measured smoke density and the measured temperature can thus be assigned a combination value.
  • the matrix contains the combination values. The combination value indicates the overshoot or undershoot of the temperature threshold and / or the smoke density threshold value.
  • the combination values therefore depict the correlation of the smoke density with the temperature.
  • a boundary line (unspecified) is drawn, this limit line shows that the temperature threshold is dependent on the smoke density and the smoke density threshold value is dependent on the temperature. All pair values consisting of the measured smoke density and the measured temperature below the limit line trigger an alarm. All pair values above the limit line do not trigger an alarm. All pair values consisting of the measured smoke density and the measured temperature on one side of the boundary line lead to the triggering of an alarm. All pair values on the other side of the boundary do not trigger an alarm.
  • This matrix maps the empirical smoke density values as well as the empirical temperature values to a combination value. From the combination value can be concluded with sufficient probability in each case on a fire. Thus, fires are recognized by their increasingly dynamic heat development, even if the derivation from the smoke density alone still does not allow a sufficient maximum threshold for a fire, but the parallel actual development of the measured smoke density in comparison with the temperature development and vice versa.
  • fires are recognized not only by their increasingly dynamic smoke density, but even before reaching a maximum threshold value for the smoke density, since a sufficiently dynamic increase in temperature already indicates this in parallel.
  • Vzw If only one preset threshold value, measured by one of the fire detectors 20 to 25, is reached, it is queried how the measured values of the other fire detectors 20 to 25 belonging to the radio cluster are, even if they have not yet reached a threshold value set there. At the same time a vzw. digital image taken by one of the equipped with a camera 14 fire detector 20 to 25 and sent to the monitoring center 50, for example. By MMS.
  • an acoustic alarm can first be triggered via the piezoelectric element (s) 4 in the one fire detector 20 to 25, which has measured this threshold excess.
  • the other detectors 20 to 25, which can be reached via the first radio 1 1 or controlled by radio (ISM), which belong to the unit of the local radio cluster, can then be notified, so that the other fire detectors 20 to 25 also have an acoustic alarm trigger.
  • ISM radio
  • a predefined time period e.g. 30 to 60 seconds
  • only predefined special individual fire detectors 20 to 25 can set off the alarm via the second radio 7.
  • the fire detectors 20 to 25 are similar.
  • the fire detectors 20 to 25 are used for smoke density monitoring in simultaneous comparison with a temperature control.
  • the measured smoke densities and the measured temperatures are correlated with each other.
  • a combination value is assigned to these pair values.
  • On the basis of the combination value is first an audible alarm and parallel or later on via a second radio 7 wireless alarm triggered.
  • the second radio 7 may be formed as a GSM module. It is envisaged that several of the fire detectors 20 to 25 within a defined initialization period after the first startup communicate with each other via a first radio 1 1 so that in each fire detector 20 to 25 a routing table is generated.
  • each fire detector can read 20 to 25, whether this fire detector 20 to 25 even directly via the second radio 7 a (GSM) radio alarm can settle or this - eg. Due to the damping by masonry - only another fire detector 20 to 25 can be done as a relay. From the routing table, each fire detector 20 to 25 can also read, for which other the fire detector 20 to 25 of the resulting meshed radio cluster of fire detectors 20 to 25 may need to act as a relay itself.
  • the routing table contains information about all connections within the network via the first radio 11 and vzw. Information about all possible connections via the second radio 7 to the BTS.
  • These so radio technically interconnected to a meshed radio cluster or wireless network fire detectors 20 to 25 are in particular designed so that in the event of an outgoing to the monitoring center 50 alarm - vzw. GSM radio alarm - even one of the fire detectors 20 to 25 and all other belonging to the cluster fire detectors 20 to 25 such an alarm - vzw. GSM radio alarm - trigger.
  • the respective measured values of the individual fire detectors 20 to 25 are transmitted to this monitoring center 50.
  • the network or cluster or radio cluster is formed by the first radio means 11.
  • the monitoring center 50 initiates an intervention, for example by the fire brigade or police, and forwards the respective measured values from all rooms to the intervention forces.
  • Each fire detector 20 to 25 contains a unique identification feature, for example.
  • the fire detector 20 to 25 contains vzw. a loudspeaker 5 and a microphone 6, controlled via either the second radio means 7 contained - the GSM module - or, where the second radio means 7 has no connection to the mobile network 26, driven via the first radio 1 1 - the ISM module - so that with all that Fire detectors belonging to each cluster 20 to 25, a bidirectional voice connection to the monitoring center 50 or to another destination address is established.
  • the fire detector 20 to 25 contains a light source 8.
  • the light source 8 may be formed in particular as an LED. In the event of an alarm, the LED or light source 8 in each belonging to the cluster fire detector 20 to 25.
  • the fire detector 20 to 25 is vzw. scalable to accommodate other modules such as the motion detector 15 and the camera 14 (for burglary monitoring) but also from the gas sensors 17 or other sensors 18 suitable.
  • a remote control allows the switching on and off of individual modules and their functions, such as a remote monitoring of a baby monitor via one or more mobile telephones 54 and / or devices connected to the Internet.
  • the remote control is vzw. as a radio remote control for communication via the first radio 1 1 formed.
  • Vzw. the remote control is designed as an ISM remote control.
  • GSM Global System for Mobile Communication
  • EDGE Enhanced Date Rates for GSM Evolution
  • ISM Industrial Scientific and Medical Band
  • SMS Short Message Service
  • MMS Multimedia Messaging Service
  • PSTN Public Service Telephone Network
  • BTS Base Transceiver Station List of Reference Numerals: Controller

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  • Emergency Management (AREA)
  • Physics & Mathematics (AREA)
  • General Physics & Mathematics (AREA)
  • Chemical & Material Sciences (AREA)
  • Analytical Chemistry (AREA)
  • Engineering & Computer Science (AREA)
  • Computer Networks & Wireless Communication (AREA)
  • Fire Alarms (AREA)
  • Alarm Systems (AREA)

Abstract

L'invention concerne un détecteur d'incendie (20 à 25) pour la surveillance d'un local et pour le déclenchement d'une alarme incendie, comprenant un détecteur de fumée (2) et comprenant une sonde de température (3). Selon l'invention, le détecteur de fumée (2) permet de mesurer une densité de fumée et la sonde de température de mesurer une température, et une alarme peut être déclenchée en cas de dépassement d'un seuil de température et/ou en cas de dépassement d'un seuil de densité de fumée. Toujours selon l'invention, le seuil de température est dépendant de la densité de fumée et/ou le seuil de densité de fumée est dépendant de la température et le détecteur d'incendie (20 à 25) présente une mémoire (10). Une interprétation complexe de la présence ou non d'un dépassement du seuil de température ou du seuil de densité de fumée est évitée, ce qui réduit le risque d'alarmes intempestives, par le fait qu'une matrice est enregistrée dans la mémoire (10). Selon l'invention, la matrice contient des valeurs de combinaison et l'une des valeurs de combinaison peut être associée au moyen de la matrice à la température mesurée et à la densité de fumée mesurée. Toujours selon l'invention, la valeur de combinaison indique le franchissement vers le haut ou vers le bas du seuil de température et/ou du seuil de densité de fumée.
EP11716831.0A 2010-04-16 2011-04-14 Détecteur d'incendie pour la surveillance d'un local au moyen d'une combinaison de mesure de la densité de fumée et de la température Not-in-force EP2537147B1 (fr)

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DE102010015467A DE102010015467B4 (de) 2010-04-16 2010-04-16 Brandmelder zur Überwachung eines Raumes
PCT/EP2011/001897 WO2011128100A1 (fr) 2010-04-16 2011-04-14 Détecteur d'incendie pour la surveillance d'un local au moyen d'une combinaison de mesure de la densité de fumée et de la température

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DK2537147T3 (da) 2013-08-19
CN102844798A (zh) 2012-12-26
PL2537147T3 (pl) 2013-10-31
DE102010015467A1 (de) 2011-10-20
WO2011128100A1 (fr) 2011-10-20
CA2796500A1 (fr) 2011-10-20
DK2537147T5 (da) 2013-11-11
KR20130006479A (ko) 2013-01-16
DE102010015467B4 (de) 2012-09-27
US20130033377A1 (en) 2013-02-07
EP2537147B1 (fr) 2013-05-08

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