JP6696522B2 - Guidance device - Google Patents

Description

The present invention relates to a guide device for evacuating a person when a disaster occurs.

  Conventionally, a guidance device is provided with a light source that illuminates a sign or a mark on which an emergency exit is written, as in Patent Document 1, and an alerting unit that alerts the surroundings of the presence of an evacuation exit when it is determined that a fire has occurred. It has been known. There are a notification unit that includes a light source other than a light source that illuminates a sign to perform notification by continuously lighting or blinking the light source, or a notification unit that includes a speaker that emits a sound and performs notification by voice. Further, the induction device of Patent Document 1 has a function of confirming whether or not the light source can be kept on by an emergency power supply.

  In recent years, there is a demand for a guidance device capable of performing appropriate evacuation guidance for disasters other than fire. For example, as in Patent Document 2, when a fire occurrence is determined by determining not only a fire occurrence but also an earthquake occurrence, the light source of the notification unit There is also a guidance device that performs appropriate evacuation guidance by making the notification unit operate differently when a fire occurs and when an earthquake occurs, such as by flashing and turning on the light source of the notification unit when an earthquake occurs. There is.

  Further, for example, as in Patent Document 3, a house information storage unit that stores house location information such as the altitude above sea level and the distance to the sea, and house building information such as the structure and age of a building, and a natural disaster such as an earthquake or a tsunami. Based on the communication means for receiving the pre-predicted disaster prior information, the notification means for informing the residents of the evacuation instruction information, the disaster prior information, the house location information and the house building information, it is determined whether the residents need to evacuate, There is known a disaster prevention system having a control unit that notifies the evacuation direction information by the notification unit when it is determined that evacuation is necessary.

Japanese Patent Laid-Open No. 2010-33850 JP2012-155611 JP 2005-301547 A

An object of the present invention is to obtain a guide device that can appropriately guide an evacuee .

A first guiding device of the present invention is a storage device that stores information about an installation location of a building to be installed, a first receiving device that receives information about a disaster, and a first evacuation device that prompts evacuation to an evacuation center after an earthquake. No. 1 utterance pattern and notification means capable of notifying the second utterance pattern notifying that evacuation does not have to be performed after the earthquake, and the first receiving means has received the earthquake occurrence information as the disaster information. At the time, it is judged whether the damage of the earthquake is large, and when it is judged that the damage is large, the notification means is controlled so as to notify the first utterance pattern, and it is judged that the damage is small. And a control means for controlling the notification means so as to notify the second utterance pattern, the notification means being capable of notifying a third utterance pattern prompting a standby in the building, The information on the place includes information on whether or not the building is a building designated as an evacuation site at the time of the tsunami, and when the first receiving means receives the information on the tsunami as the information on the disaster, the control is performed. The means controls the notifying means to notify the third utterance pattern if the installation location is an evacuation location .
In addition, the second guiding device of the present invention includes a storage unit that stores information regarding the installation location of the building to be installed, a first receiving unit that receives information regarding the disaster, and evacuation to an evacuation center after the earthquake. An informing unit capable of informing a first utterance pattern for prompting and a second utterance pattern notifying that evacuation is not required after the earthquake, and the first receiving unit receives the information regarding the occurrence of the earthquake as the information regarding the disaster. When it is determined that the damage of the earthquake is large, the notification unit is controlled to notify the first utterance pattern when the damage is determined to be large, and the damage is determined to be small. And a control means for controlling the notifying means so as to notify the second utterance pattern, the notifying means being capable of notifying the fourth utterance pattern urging a standby on the upper floor of the building, and the installation location. The information about the information includes the number of floors on which the guidance device is installed, and when the first receiving unit receives the information about the tsunami occurrence as the information about the disaster, the control unit controls the floor on which the guidance device is installed to be damaged by the tsunami. It is determined whether or not to receive the tsunami, and when it is determined to be damaged by the tsunami, the notification unit is controlled to notify the fourth vocalization pattern.

The guiding device according to the present invention can appropriately guide an evacuee .

It is a perspective view showing appearance of a guidance device concerning the present invention. It is a block diagram at the time of energization of the guidance device concerning the present invention. It is a block diagram at the time of non-energization of the guidance device concerning the present invention. It is a figure which shows an example of the audio | voice pattern of the guidance apparatus which concerns on this invention. It is a figure which shows an example of the lighting pattern of the light source of the guidance apparatus which concerns on this invention. It is a schematic diagram showing an example of a disaster prevention system using a guidance device concerning the present invention. It is an example of a flowchart showing the operation during standby of the guidance device according to the present invention. It is an example of a flowchart showing the operation at the time of a fire of the guidance device according to the present invention. It is an example of a flowchart showing the operation of the guidance device according to the present invention during an earthquake. It is an example of the flowchart figure showing the operation | movement at the time of the tsunami of the guidance apparatus which concerns on this invention. FIG. 3 is a block diagram of an external terminal according to the present invention. It is a figure which shows an example of the display screen in the standby mode and the setting mode of the external terminal which concerns on this invention. In the evacuation guidance system according to the present invention, it is a flowchart diagram showing the operation of the external terminal when setting the information set in advance in the device-side storage unit. FIG. 4 is a flowchart showing the operation of the guide device and the external terminal when performing the operation check in the evacuation guidance system according to the first embodiment. FIG. 6 is a diagram showing an example of a display screen in the confirmation mode of the external terminal according to the first embodiment. FIG. 16 is a second flowchart diagram showing the operations of the guidance device and the external terminal when performing the operation confirmation in the evacuation guidance system according to the second embodiment. FIG. 16 is a second flowchart diagram showing the operations of the guidance device and the external terminal when performing the operation confirmation in the evacuation guidance system according to the second embodiment. FIG. 9 is a diagram showing an example of an operation confirmation signal creation screen of the external terminal according to the second embodiment.

Embodiment 1
FIG. 1 is a perspective view showing the appearance of a guiding device according to the present invention. The evacuation guidance system of the present invention includes a guidance device 100 and an external terminal 200. First, the guidance device 100 will be described. The guiding device 100 has a guiding device main body 1 having a square or rectangular parallelepiped box shape with one surface opened. The opening of the guide device body 1 is closed by the display panel 2, and the display panel 2 displays a pictogram, a figure, or a letter indicating evacuation guidance determined by the Fire Service Act or the International Organization for Standardization. The display panel 2 is illuminated by a first light source 3 provided inside the guidance device body 1. There are a plurality of pictograms, figures, or characters that indicate this evacuation guidance, and those that are determined according to the installation location are used. The guidance device 100 is installed directly on the wall surface of the building with the display panel 2 as the front or by using a hanging device on the ceiling surface of the building. Two light sources 4 are provided so as to be covered by the second light source cover 5. Further, the guiding device 100 may be installed so as to be embedded in the wall surface, and in that case, the second light source 4 and the second light source cover 5 are attached to the surface on which the display panel 2 is provided.

  A signal is received from the speaker 6 which is used when the evacuation guidance is notified by voice, and the external terminal 200 which is used for setting, checking and confirming the operation of the guiding apparatus 100 inside the guiding apparatus body 1. A terminal signal receiving unit 7 (corresponding to the device side receiving unit of the present invention), a terminal signal transmitting unit 8 (corresponding to the device side transmitting unit of the present invention) for transmitting a signal to the external terminal 200, and a disaster information signal described later. A disaster information signal receiving section 9 (corresponding to disaster information signal receiving means of the present invention) for receiving is provided. Speaker holes 10 are provided corresponding to the respective positions of the speaker 6, the terminal signal receiving unit 7, the terminal signal transmitting unit 8, and the disaster information signal receiving unit 9 so as not to interfere with the transmission and reception of these voices or signals. , A terminal signal receiving hole 11, a terminal signal transmitting hole 12 and a disaster information signal receiving hole 13, respectively. In FIG. 1, the speaker hole 10, the terminal signal receiving hole 11, the terminal signal transmitting hole 12 and the disaster information signal receiving hole 13 are all attached to the surface on which the display panel 2 is provided. When the guide device is directly attached or installed on the ceiling surface of a building by using a suspending device, the guide device may be provided on the surface that is on the lower side when installed.

  The disaster information signal is a signal including disaster detailed information about a disaster such as a disaster occurrence location, a disaster scale, and a disaster occurrence time, or evacuation information indicating that evacuation due to the disaster is necessary. The detailed disaster information differs depending on the disaster. For example, in the detailed disaster information about an earthquake, the name of a region where strong shaking is expected corresponds. The disaster information signal including the detailed disaster information related to the earthquake corresponds to the emergency earthquake early warning (warning) and the emergency early warning (forecast) announced by the Meteorological Agency. In addition, the detailed disaster information regarding the tsunami includes the area where the tsunami reaches and the expected height of the tsunami. The disaster information signal including the detailed disaster information about the tsunami corresponds to the large tsunami warning, tsunami warning, tsunami warning, and tsunami forecast announced by the Meteorological Agency. Hereinafter, the disaster information signal including the disaster detailed information regarding the earthquake will be referred to as an earthquake disaster information signal, and the disaster information signal including the disaster detailed information regarding the tsunami will be referred to as a tsunami disaster information signal.

  Further, among the disaster information signals, the signal containing the evacuation information is called the evacuation information signal. An example of the evacuation information signal is a disaster prevention radio signal including information on an evacuation order, an evacuation instruction, and an evacuation advisory issued by the local government.

  Further, generally, a plurality of guiding devices 100 are installed in one building, and at least each floor is an entrance leading from the indoor to the ground or an entrance of a stairway directly leading to the entrance leading to the ground. The guidance device 100 is installed at the final evacuation gate.

  FIG. 2 is a block diagram of the induction device according to the present invention when energized. It should be noted that in FIG. 2, solid arrows indicate signal flows, and broken arrows indicate power supply flows. The internal structure of the guiding device 100 will be described with reference to FIG. The guidance device 100 serves as a transmission / reception means to / from another device, in addition to the terminal signal reception unit 7, the terminal signal transmission unit 8, and the disaster information signal reception unit 9 described above, as well as a guidance light signal device 500, which will be described later, from a fire. Motion signal terminal block 14 having a terminal for receiving a motion signal at the time, a voice stop signal terminal block 15 having a terminal for receiving a voice stop signal from the guide light signal device 500, and smoke detection on the floor directly below. Smoke sensing having a terminal for receiving a smoke sensing signal transmitted from the container 300, a terminal for receiving a smoke sensing signal transmitted from the guiding device 100 on the lower floor, and a terminal for transmitting a smoke sensing signal to the guiding device 100 on the upper floor. And a signal terminal block 16.

  The terminal signal receiving unit 7, the disaster information signal receiving unit 9, the operation signal terminal block 14, the voice stop signal terminal block 15, and the smoke detection signal terminal block 16 are respectively provided in the control circuit 18 (device side of the present invention). (Corresponding to control means), and transmits the signal received by each to the control circuit 18. The control circuit 18 includes a first light source lighting circuit 19 for lighting the first light source 3, a second light source lighting circuit 20 for lighting the second light source 4, and an audio circuit 21 for producing sound from the speaker 6. The power supply circuit 22 that supplies power to the circuits and the signal transmission / reception unit in the induction device 100 and the battery 23 that is used as a power supply when power is not supplied are respectively connected to control the respective devices. The control circuit 18 is also connected to both the terminal signal transmitter 8 and the smoke detection signal terminal block 16, and also generates a signal transmitted by the terminal signal transmitter 8 and the smoke detection signal terminal block 16.

  The control circuit 18 includes a device-side storage unit 18a (corresponding to the device-side storage unit of the present invention) and a device-side determination unit 18b. The device-side storage unit 18a stores a voice pattern uttered by the speaker 6, a blinking pattern of the first light source 3 and the second light source 4, and preset information on the installation location of the guiding device 100. .. The device-side determination unit 18b determines the operation of each circuit or the type of signal to be transmitted based on the signal received by the control circuit 18 and the information or operation program stored in the device-side storage unit 18a.

  The power supply circuit 22 is supplied with power from the AC power supply 700 via the distribution board 600. The power supply circuit 22 includes a terminal signal receiver 7, a terminal signal transmitter 8, a disaster information signal receiver 9, a control circuit 18, a first light source lighting circuit 19, a second light source lighting circuit 20, It is connected to the audio circuit 21 and supplies electric power. The power supply circuit 22 is also connected to a battery charging circuit 24, and charges the battery 23 via the battery charging circuit 24.

  The guidance apparatus 100 is provided with three switch sections 25, a first operation confirmation switch section 25a and a second operation confirmation switch section 25b used for confirming the operation of the guidance apparatus 100, and an inspection switch section 25c used for inspection. ing. These switch parts 25 have two types of switches, a manual switch and a semiconductor switch, and when one of the switches is turned off, the power supply is stopped. Further, the control circuit 18 turns ON / OFF the semiconductor switch. In addition, in the present invention, the inspection refers to confirmation of the capacity of the battery 23 and confirmation of whether or not the induction device operates on the battery 23 at the time of power failure. The operation confirmation refers to confirmation of whether or not the guidance device normally operates in case of a fire by receiving a signal for operation confirmation described later.

  The first operation check switch unit 25 a is provided between the operation signal terminal block 14 and the control circuit 18. The first operation confirmation switch unit 25a is controlled by the control circuit 18 so as to be turned off when an operation signal at the time of a fire for operation confirmation, which will be described later, is input to the terminal signal reception unit 7, and turned on otherwise. ing.

  The second operation confirmation switch section 25b is provided between the voice stop signal terminal block 15 and the control circuit 18. The second operation confirmation switch unit 25b is controlled by the control circuit 18 so that it is turned off when a voice confirmation signal for operation confirmation, which will be described later, is input to the terminal signal reception unit 7, and is turned on otherwise. ..

  The inspection switch unit 25c is provided between the distribution board 600 and the power supply circuit 22. The inspection switch unit 25c is controlled by the control circuit 18 so as to be turned off when a power failure signal, which will be described later, is input to the terminal signal receiving unit 7, and turned on otherwise.

  FIG. 3 is a block diagram of the induction device according to the present invention when not energized. Note that, in FIG. 3, solid arrows indicate signal flows, and broken arrows indicate power supply flows. The operation of the guidance device 100 when not energized will be described with reference to FIG. The signal flow indicated by the solid arrow is the same as that in FIG. 2 and will not be described.

  When not energized, the control circuit 18 supplies the electric power stored in the battery 23 to the terminal signal receiving unit 7, the terminal signal transmitting unit 8, the disaster information signal receiving unit 9, the control circuit 18, and the first light source lighting circuit 19 Then, the second light source lighting circuit 20 and the audio circuit 21 are controlled to be supplied. Therefore, the induction device 100 operates even when the power is not supplied, and the same operation as when the power is supplied can be performed unless the capacity of the battery 23 is exhausted.

  The switching of the power supply from the power supply circuit 22 to the battery 23 is performed by the control circuit 18 in the first embodiment. The determination as to whether to energize or de-energize is based on, for example, the value of the voltage supplied from the power supply circuit 22 to the control circuit 18, and if the voltage value is less than or equal to a predetermined threshold value, it is determined that there is a power failure and switching is performed. Is mentioned.

  Information stored in the device-side storage unit 18a of the control circuit 18 will be described. As described above, the device-side storage unit 18a stores the voice pattern produced by the speaker 6, the blinking patterns of the first light source 3 and the second light source 4, and preset information. In this embodiment, as the information set in advance, whether or not the building in which the guidance device 100 is installed is a building designated as an evacuation site when a tsunami occurs is installed in the guidance device 100. Distance from the nearest coast and river of the building, the sea level of the building where the guiding device 100 is installed, the number of floors where the guiding device 100 is installed, the floor of the building where the guiding device 100 is installed The height of the area, whether the guidance device 100 is installed at the final evacuation gate, the time when it is determined that the earthquake has settled, the distance where the tsunami is not expected to reach, the sea level where the tsunami is not expected, and the tsunami Safety factor of. The device-side storage unit 18a does not have to store information that is not used in the following operations during a fire, during an earthquake, and during a tsunami, among these preset information. In addition, the setting of the information set in advance may be set from the terminal 200 described later, may be set by the installer at the time of installing the guiding device 100, or may be set by the manufacturer at the time of factory shipment. good.

  Further, as the content stored in the device-side storage unit 18a, it may be stored whether or not the building in which the guidance device 100 is installed is likely to be seriously damaged in a disaster. As an example in which it is determined that the building in which the guidance device 100 is installed is likely to be seriously damaged in the event of a disaster, an active fault exists near the building, and the building has been damaged by the tsunami in the past. It is built in. The information on whether or not the building in which the guidance device 100 is installed is likely to be seriously damaged in the event of a disaster may be set from the terminal 200 described below, or set by the builder when the guidance device 100 is installed. You may.

  FIG. 4 is a diagram showing an example of a voice pattern of the guiding device according to the present invention. In the present embodiment, the voice patterns shown in Table 1 are stored in the device-side storage unit 18a. The voice pattern A is a voice pattern that prompts a response when an earthquake occurs. The voice pattern B is a voice pattern that prompts evacuation to an evacuation center after the earthquake. The voice pattern C is a voice pattern notifying that evacuation does not have to be performed after the earthquake. The voice pattern D is a voice pattern that prompts evacuation to an evacuation center due to the tsunami. The voice pattern E is a voice pattern for prompting evacuation to the upper floor due to the tsunami. The voice pattern F is a voice pattern for notifying that the user waits at a floor above the floor where the guidance device that is uttering the tsunami but speaks in the voice pattern F is installed. The voice pattern G is a voice pattern for notifying that the tsunami will not be damaged after this notification. The voice pattern H is a non-voiced pattern used when there is no need to give a notification such as when a non-disaster occurs. The voice pattern I is a voice pattern that prompts evacuation to the outside when a fire occurs.

  FIG. 5: is a figure which shows the example of the lighting pattern of the light source of the guidance apparatus which concerns on this invention. In the present embodiment, the device-side storage unit 18a stores the lighting pattern shown in FIG. The lighting pattern A is a lighting pattern in which the first light source 3 is always turned on and the second light source 4 is turned off. The lighting pattern B is a lighting pattern in which the first light source 3 and the second light source 4 of all the guiding devices 100 blink. In the lighting pattern C, the first light source 3 and the second light source 4 of all the guiding devices 100 except the guiding device 100 installed at the final evacuation opening to the outside are blinked, and the lighting pattern C is installed at the final evacuation opening. The first light source of the guiding device 100 is always on, and the second light source 4 is off. The lighting pattern D is a lighting pattern in which all the first light sources 3 of all the guiding devices 100 are constantly lit and the second light sources 4 are blinking. In the lighting pattern C, the device-side determination unit 18b determines whether or not the guiding device 100 is installed in the final evacuation port, and the guiding device 100 stored in the device-side storage unit 18a determines the final evacuation port. Judgment is made by using information on whether or not it is installed in.

  The first light source 3, the second light source 4 and the speaker 6 correspond to the notification means of the present invention. Further, the contents corresponding to the evacuation guidance information of the present invention include information such as whether or not to evacuate, where to evacuate when evacuating, and which guidance device is installed at the final evacuation exit. Can be mentioned. In addition, the evacuation information is notified by operating the first light source 3, the second light source 4, and the speaker 6 in the respective sound patterns of FIG. 4 and the respective lighting patterns of FIG. That is, the guidance device 100 notifies the evacuee of the evacuation information based on the lighting states of the first light source 3 and the second light source 4 such as lighting, extinguishing, and blinking, and the content of the voice uttered from the speaker 6. .. Furthermore, in the first embodiment, the notification means uses the first light source 3, the second light source 4, and the speaker 6, but in the case of only the first light source 3 and the second light source 4, or in the case of only the speaker 6. The evacuation information can be notified even when only the first light source 3 and the speaker 6 are used and when only the second light source 4 and the speaker 6 are used.

  FIG. 6 is a schematic diagram showing an example of a disaster prevention system using the guidance device according to the present invention. An outline of the disaster prevention system and how a signal is transmitted to the guidance device 100 when a fire occurs will be described with reference to FIG. This disaster prevention system targets buildings with multiple floors such as office buildings.

  At least one smoke detector 300 and at least one guide device 100 are arranged on each floor of the building, and the smoke detector 300 is connected to the guide device 100 on the upper floor. Although not shown, the smoke detector 300 is connected to the automatic fire alarm facility 400 via signal lines. When the smoke detector 300 detects smoke, it sends a smoke detection signal to the guide device 100 on the front floor, and sends a smoke detection signal to the automatic fire alarm facility 400 to notify the occurrence of a fire. In addition, instead of the smoke detector 300, a person who discovers a fire operates a transmitter that sends a smoke detection signal to the automatic fire notification equipment 400, or a smoke detection signal that detects heat of the fire and sends the smoke detection signal to the automatic fire notification equipment. A heat sensor or the like that transmits to 400 may be used.

  The automatic fire alarm facility 400 is connected to another disaster prevention facility, and when a smoke detection signal from the smoke detector 300 is received, the automatic fire alarm facility 400 works in conjunction with another disaster prevention facility, so that a fire occurrence signal for notifying that a fire has occurred, and A signal such as an emergency broadcast signal for notifying that an emergency broadcast will be performed is transmitted to the entire building in which the automatic fire alarm facility 400 is provided. Examples of other disaster prevention equipment include a fire door or a notification device to a security company, but in the first embodiment, only the guide light signal device 500 closely related to the guide device 100 will be described.

  The guide light signal device 500 is connected to the automatic fire alarm facility 400 via a signal line, and is also connected to the guide device 100 installed in each place of the building via a signal line. When the signal device 500 for the guide light receives the fire occurrence signal from the automatic fire notification equipment 400, it receives an operation signal at the time of fire to notify that a fire has occurred, and when receiving the emergency broadcast signal from the automatic fire notification equipment 400, A voice stop signal for notifying that broadcasting will be performed is transmitted to each of the guidance devices 100.

  A method of transmitting a general operation signal during a fire from the guide light signal device 500 to the guide device 100 will be described. When the fire occurrence signal is not received, that is, when the fire has not occurred, a certain voltage is applied from the guide light signal device 500 to the operation signal terminal block 14 of the guide device 100, and the fire occurrence signal is generated. When the signal is received, that is, when a fire occurs, it is common to stop applying the voltage. In other words, this method is a transmission method in which when the voltage applied from the guide light signal device 500 to the operation signal terminal block 14 of the guide device 100 disappears, the guide device 100 considers that the operation signal at the time of fire is received. .. By adopting this method, even if the signal line connecting the signal device for guiding light 500 and the operation signal terminal block 14 of the guiding device 100 is disconnected by a fire, the guiding device 100 receives the operation signal at the time of fire. It can be regarded as a fire action.

  A method of transmitting a general voice stop signal from the guide light signal device 500 to the guide device 100 will be described. Similar to the operation signal at the time of fire, when the fire occurrence signal is not received, a constant voltage is applied from the guide light signal device 500 to the voice stop signal terminal block 15 of the guide device 100. Further, when the signal device 500 for the guide light receives the fire occurrence signal, the application of the voltage to the terminal block 15 for the voice stop signal is stopped. Then, when the emergency light signal device 500 receives the emergency broadcast signal, it applies a constant voltage to the voice stop signal terminal block 15 again. In other words, in other words, when there is no voltage applied from the guide light signal device 500 to the operation signal terminal block 14 and a voltage is applied to the voice stop signal terminal block 15 during a fire operation, The guidance apparatus 100 is a transmission method which considers that the voice stop signal is received.

  FIG. 7 is an example of a flowchart showing the operation of the guidance device according to the present invention during standby. Here, with reference to FIG. 7, how the guidance device of the present invention operates during standby will be described.

  First, in step S101, the control circuit 18 of the induction device 100 controls the first light source lighting circuit 19, the second light source lighting circuit 20, and the sound circuit 21 so that the state of the sound pattern H and the lighting pattern A is achieved. Control each. Further, the control circuit 18 does not transmit the smoke detection signal to the direct floor. In this state, the guiding device 100 is in a standby state in which evacuation guidance is not performed because only the first light source 3 is constantly turned on and no sound is emitted from the speaker 5. When the control circuit 18 finishes controlling the state in step S101, the process proceeds to step S102.

  In step S102, the device side determination unit 18b determines whether or not the operation signal terminal block 14 receives the operation signal at the time of fire. If it is determined that no fire operation signal has been received (step S102, NO), the process proceeds to step S103, and if it is determined that a fire operation signal has been received (step S102, YES), which will be described later. Proceed to connector A in the flowchart at the time of fire.

  In step S103, the device side determination unit 18b determines whether or not the disaster information signal reception unit 9 receives the earthquake disaster information signal. When it is determined that the earthquake disaster information signal is not received (step S103, NO), the process proceeds to step S104, and when it is determined that the earthquake disaster information signal is received (step S103, YES), the earthquake of FIG. Proceed to connector B in the flow chart at time.

  In step S104, the device-side determination unit 18b determines whether the disaster information signal reception unit 9 is receiving the tsunami disaster information signal. When it is determined that the tsunami disaster information signal is not received (step S104, NO), the process returns to step S102. When it is determined that the tsunami disaster information signal has been received (step S104, YES), the process proceeds to the connector C of the tsunami flow chart of FIG. 10 described later.

  The connector D connected to step S101 is used to return to the standby normal state when the device-side determination unit 18b of the control circuit 18 determines that the disaster has ended in a flowchart for each disaster described later.

  FIG. 8 is an example of a flowchart showing the operation of the guiding device according to the present invention during a fire. Here, how the guidance device of the present invention operates in the event of a fire will be described with reference to FIG.

  First, the connector A proceeds to step S201. In step S201, the control circuit 18 controls the first light source lighting circuit 19, the second light source lighting circuit 20, and the sound circuit 21 so that the sound pattern I and the lighting pattern D are obtained. In this state, the guidance device 100 constantly lights the first light source 3 and blinks the second light source 4 to produce a voice prompting evacuation to the outside, so that the evacuee is directed to the final evacuation gate. It is inducing. When the control circuit 18 completes the control in the state of step S201, the process proceeds to step S202.

  In step S202, the device side determination unit 18b determines whether or not the smoke detection signal terminal block 16 receives the smoke detection signal. If it is determined that the smoke detection signal is not received (step S202, NO), the process proceeds to step S203, and if it is determined that the smoke detection signal is received (step S202, YES), the process proceeds to step S206.

  In step S203, the device side determination unit 18b determines whether or not the voice stop signal terminal block 15 receives the voice stop signal. If it is determined that the voice stop signal is not received (step S203, NO), the process proceeds to step S204, and if it is determined that the voice stop signal is received (step S203, YES), the process proceeds to step S205.

  In step S204, the device-side determination unit 18b determines whether or not the automatic fire alarm facility has been reset. As a specific determination method of step S204, the device-side determination unit 18b determines that the voltage has been applied from the guide light signal device 500 to the operation signal terminal block 14 again when it is reset, and the like. The method of is mentioned. When it is determined that the automatic fire notification equipment 400 has not been reset (step S204, NO), the procedure returns to step S201, and guidance to the final evacuation gate is continued, and it is determined that the automatic fire notification equipment 400 has been reset (step S204). , YES) advances to the connector D of FIG. 7 and enters a standby state.

  In step S205, the control circuit 18 controls the first light source lighting circuit 19, the second light source lighting circuit 20, and the sound circuit 21 so that the state becomes the sound pattern H and the lighting pattern D, respectively. In this state, the guiding device 100 guides the evacuee to the final evacuation gate by the first light source 3 and the second light source 4, but is in a state in which no voice is uttered. Therefore, even if the emergency broadcast is performed, the voice uttered by the guiding device 100 does not disturb the emergency broadcast, and the evacuee can easily hear the emergency broadcast. When the control circuit 18 finishes controlling the state in step S205, the process returns to step S202.

  In step S206, the control circuit 18 controls the first light source lighting circuit 19, the second light source lighting circuit 20, and the sound circuit 21 so as to be in the states of the sound pattern H and the lighting pattern A, respectively. Furthermore, the smoke detection signal terminal block 16 transmits a smoke detection signal to the guidance device 100 installed on the upper floor. In this state, the guidance device 100 is in a standby state in which evacuation guidance is not performed. This is because the guidance device 100 receives the smoke detection signal from the smoke detector 300 on the floor directly below or the smoke detection signal from the guidance device 100 on the floor below, so that the floor below the floor where the guidance device 100 is installed. This is to prevent evacuees from evacuating to the floor where the fire is occurring, because a fire is occurring on the floor. When the control circuit 18 completes the control in the state of step S206, the process proceeds to step S207.

  In step S207, as in step S204, the device-side determination unit 18b of the control circuit 18 determines whether or not the automatic fire notification facility 400 has been reset. When it is determined that the automatic fire notification equipment 400 has not been reset (step S207, NO), the determination of step S207 is performed again, and when it is determined that the automatic fire notification equipment 400 has been reset (step S207, YES), Proceeding to the connector D of FIG. 7, the transmission of the smoke detection signal is stopped and the standby state is entered.

  By operating during a fire as described above, it is possible to properly guide evacuees.

  FIG. 9 is an example of a flowchart showing the operation of the guiding device according to the present invention during an earthquake. Here, how the guidance device of the present invention operates during an earthquake will be described with reference to FIG. Since the smoke detection signal is not always transmitted during the operation of the guidance device 100 during an earthquake, the description of the smoke detection signal is omitted.

  First, in step S301, the control circuit 18 controls the first light source lighting circuit 19, the second light source lighting circuit 20, and the sound circuit 21 so that the states of the sound pattern A and the lighting pattern A are obtained. .. In this state, the guiding device 100 does not perform the operation of urging the evacuation, but emits a voice prompting the evacuee to take action in case of an earthquake. When the control circuit 18 finishes controlling the state in step S301, the process proceeds to step S302.

  In step S302, the device-side determination unit 18b determines whether the earthquake has subsided. As a specific determination method in step S302, when the earthquake information signal receiving unit 9 receives the earthquake disaster information signal and the time stored in the device-side storage unit 18a is determined to have been set, the earthquake has settled. There is a method of making a determination. If it is determined that the earthquake has not subsided (step S302, NO), the determination in step S302 is performed again, and if it is determined that the earthquake has subsided (step S302, YES), the process proceeds to step S303.

  In step S303, the device-side determination unit 18b determines whether the damage of the earthquake is large. As a specific determination method of step S303, when the disaster information receiving unit 9 receives the evacuation information signal, it is determined that the damage of the earthquake is large, or the guidance device 100 is installed in the device-side storage unit 18a. There is a method of determining that the damage of an earthquake is large when it is memorized whether or not a building is easily damaged during a disaster. If it is determined that the damage of the earthquake is not large (step S303, NO), the process proceeds to step S306, and if it is determined that the damage of the earthquake is large (step S303, YES), the process proceeds to step S304.

  In step S304, the control circuit 18 controls the first light source lighting circuit 19, the second light source lighting circuit 20, and the sound circuit 21 so as to be in the states of the sound pattern B and the lighting pattern C, respectively. In this state, the guidance device 100 is in a standby state in which evacuation guidance is not performed. In this state, the guidance device 100 utters a voice prompting evacuation to an evacuation center after the earthquake has subsided, and guides the passenger to the final evacuation gate with a lighting pattern different from that during a fire. When the control circuit 18 finishes controlling the state of step S304, the process proceeds to step S305.

  In step S305, the device-side determination unit 18b determines whether the disaster information signal reception unit 9 is receiving the tsunami disaster information signal. When it is determined that the tsunami disaster information signal has not been received (step S305, NO), the process returns to the determination of step S305 again to determine whether the tsunami disaster information signal is received. When it is determined that the tsunami disaster information signal has been received (step S305, YES), the process proceeds to the connector C of the tsunami flow chart of FIG. 10 described later.

  In step S306, the control circuit 18 controls the first light source lighting circuit 19, the second light source lighting circuit 20, and the sound circuit 21 so as to be in the states of the sound pattern C and the lighting pattern A, respectively. In this state, the guidance device 100 utters a voice notifying that it is not necessary to evacuate to an evacuation center after the earthquake has subsided, and the lighting pattern is in a standby state. When the control circuit 18 finishes controlling the state in step S306, the process proceeds to step S307.

  In step S307, the device side determination unit 18b determines whether the disaster information signal reception unit 9 receives the tsunami disaster information signal. When it is determined that the tsunami disaster information signal has not been received (step S307, NO), the process proceeds to the connector D of FIG. 7 and enters the standby state. When it is determined that the tsunami disaster information signal has been received (step S307, YES), the process proceeds to the connector C in the tsunami flow chart of FIG. 10 described later.

  By operating during an earthquake as described above, it is possible to properly guide evacuees.

  FIG. 10: is an example of the flowchart figure showing the operation | movement at the time of a tsunami of the guidance apparatus which concerns on this invention. Here, how the guidance device of the present invention operates during a tsunami will be described with reference to FIG. Note that the smoke detection signal is not always transmitted during the operation of the guidance device 100 during the tsunami, and thus the description of the smoke detection signal is omitted.

  In step S401, the device-side determination unit 18b determines whether the building in which the guidance device 100 is installed will be damaged by the tsunami. As a specific determination method of step S401, for example, the distance from the nearest coast and river of the building where the guidance device 100 is stored, which is stored in the device-side storage unit 18a, is stored in the device-side storage unit 18a. The method for determining that the tsunami is damaged when the distance is shorter than the existing tsunami damage, and the sea level of the building where the guidance device 100 is installed, which is stored in the device storage unit 18a, is stored on the device side. A method of determining that a tsunami is damaged when the height is lower than the height of the tsunami stored in the section 18a, and a building in which the guidance device 100 is installed in the device-side storage unit 18a is seriously damaged during a disaster. If the tsunami damage is stored as easy to receive, or if the tsunami disaster information signal newly received by the disaster information signal receiving unit 9 is a tsunami warning or a large tsunami warning, the tsunami damage is detected. There is a method of determining to receive. When it is determined that the building in which the guidance device 100 is installed is not damaged by the tsunami (step S401, NO), the process proceeds to step S408. When it is determined that the building in which the guidance device 100 is installed is damaged by the tsunami (step S401, YES), the process proceeds to step S402.

  In step S402, the device-side determination unit 18b determines whether or not the building in which the guidance device 100 is installed is an evacuation site when a tsunami occurs. As a specific determination method in step S402, information on whether or not the building in which the guiding device 100 is stored, which is stored in the device-side storage unit 18a, is a building designated as an evacuation site when a tsunami occurs When the building is designated as, the method in which the building in which the guidance device 100 is installed is determined to be the building designated as the evacuation site when the tsunami occurs can be used. If it is determined that it is not the evacuation site at the time of the tsunami (step S402, NO), the process proceeds to step S406. If it is determined that the place is the evacuation site when the tsunami occurs (step S402, YES), the process proceeds to step S403.

  In step S403, the device side determination unit 18b determines whether or not the floor on which the guidance device 100 is installed is damaged by the tsunami. As a specific determination method in step S403, if the number of floors in which the guidance device 100 stored in the device-side storage unit 18a is installed is one floor or less, it is determined that the tsunami will cause damage, or the guidance A method of determining that the device 100 is to be damaged by the tsunami when the number of floors in which the device 100 is installed is one or more and the result of Expression 1 described later is true. If it is determined that the tsunami will not be damaged (step S403, NO), the process proceeds to step S405. When it is determined that the damage is caused by the tsunami (step S403, YES), the process proceeds to step S404.

(N × H _b + H _s ) × S <H _T (Formula 1)
N: An integer corresponding to the number of floors in which the guiding device 100 is installed, which is stored in the device-side storage unit 18a (0 for the first floor, 1 for the second floor, M-1 for the Mth floor or higher)
H _b: height of the floor Atari of building device side storage unit guidance device 100 stored in 18a is installed H _s: apparatus building stored guidance device 100 is installed in the storage unit 18a Above sea level S: Safety factor at the time of tsunami stored in the device-side storage unit 18a (however, set within the range of S <1)
H _T: Height of the tsunami expected included in the received Tsunami disaster information signal to disaster information signal receiving section 9

  In step S404, the control circuit 18 controls the first light source lighting circuit 19, the second light source lighting circuit 20, and the sound circuit 21 so as to be in the states of the sound pattern E and the lighting pattern B, respectively. In this state, the guidance device 100 utters a voice prompting evacuation to the upper floor, the lighting pattern informs the evacuee of the emergency situation without guiding to the standby state and the final guideway, and further evacuates to the outside. Is in a state where it is not urged. When the control circuit 18 finishes controlling the state of step S404, the process proceeds to step S407.

  In step S405, the control circuit 18 controls the first light source lighting circuit 19, the second light source lighting circuit 20, and the sound circuit 21 so as to be in the states of the sound pattern F and the lighting pattern A, respectively. In this state, the guidance device 100 utters a voice notifying the evacuee that he / she will wait on a floor above the floor, and the lighting pattern is in a standby state. When the control circuit 18 finishes controlling the state in step S405, the process proceeds to step S407.

  In step S406, the control circuit 18 controls the first light source lighting circuit 19, the second light source lighting circuit 20, and the sound circuit 21 so as to be in the states of the sound pattern D and the lighting pattern C, respectively. In this state, the guidance device 100 emits a voice prompting the evacuee to evacuate to the evacuation center because the tsunami is coming to the evacuee, and guides to the final evacuation gate with a lighting pattern different from that at the time of fire. ing. When the control circuit 18 finishes controlling to the state of step S406, the process proceeds to step S407.

  In step S407, the device-side determination unit 18b determines whether there is a risk of a further tsunami. As a specific determination method in step S407, a means for determining that the risk of a tsunami has disappeared when the tsunami disaster information signal newly received by the disaster information signal receiving unit 9 is not a tsunami warning or a large tsunami warning, or a new method There is a means for determining that there is no fear of a tsunami when the information of the tsunami disaster information signal received in is a tsunami forecast including information without fear of a tsunami. When there is no fear of a tsunami (step S407, NO), the determination of step S407 is performed again. If it is determined that the risk of tsunami has disappeared (step S407, YES), the process proceeds to step S408.

  In step S408, the control circuit 18 controls the first light source lighting circuit 19, the second light source lighting circuit 20, and the sound circuit 21 so that the sound pattern G and the lighting pattern A are obtained. In this state, the guidance device 100 utters a voice notifying the evacuee that no further damage will be caused by the tsunami, and the lighting pattern is in a standby state. When the control circuit 18 completes the control in the state of step S408 and a predetermined time has elapsed, the control circuit 18 proceeds to the connector D of FIG. 7 and the voice pattern also enters the standby state.

  By operating during the tsunami as described above, evacuees can be properly guided.

  The guidance device 100 is prioritized in the following order: fire action> earthquake action> tsunami action, and during the earthquake action, a fire action signal is issued. As soon as you receive it, it will take action in case of fire.

  Next, how to set preset information in the device-side storage unit 18a using the external terminal 200 will be described. In the present embodiment, whether or not the building in which the guidance device 100 is installed is the building designated as the evacuation site at the time of the tsunami out of the preset information is determined by the guidance device 100. The distance from the nearest coast and river of the installed building, the sea level of the building where the guide device 100 is installed, the number of floors where the guide device 100 is installed, and the building where the guide device 100 is installed An example in which the height around the floor and whether or not the guiding device 100 is installed at the final evacuation gate are set from the external terminal 200 will be shown.

  FIG. 11 is a block diagram of an external terminal according to the present invention. The external terminal 200 includes a terminal side control unit 201 (corresponding to the terminal side control unit of the present invention), a display screen 202 (corresponding to the display unit of the present invention), a terminal input unit 203 (corresponding to the terminal input unit of the present invention. Yes, a terminal-side transmitter 204 (corresponds to the terminal-side transmitter of the present invention) and a terminal-side receiver 205 (corresponds to the terminal-side receiver of the present invention). Specific examples of the external terminal 200 include a dedicated remote controller, a portable information terminal in which dedicated application software is installed, and a personal computer having a transmitting / receiving unit. Further, the external terminal 200 has three modes of a standby mode, a setting mode, and a confirmation mode.

  The terminal-side control unit 201 controls the display of the display screen 202. The terminal-side control unit 201 also creates a signal transmitted from the terminal-side transmission unit 204. Further, the terminal-side control unit 201 has a terminal-side storage unit 201a and a terminal-side determination unit 201b. The terminal-side storage unit 201a stores the display content of the display screen 202 and the information input from the terminal input unit 203 in each mode. The terminal-side determination unit 201b uses the terminal-side control unit 201 based on the information stored in the terminal-side storage unit 201a, the information input from the terminal input unit 203, or the information included in the signal received by the terminal-side receiving unit 205. How to control is determined.

  The display screen 202 is a screen that is controlled by the terminal-side control unit 201 and displays information. For example, a screen such as a liquid crystal display can be used. The terminal input unit 203 is a part that allows a person who operates the external terminal 200 (hereinafter referred to as an administrator) to input information. For example, an input device such as a keyboard or a button can be used. Although the display screen 202 and the terminal input unit 203 are shown as separate bodies in FIG. 11, the display screen 202 may be a touch panel and the display screen 202 and the terminal input unit 203 may be integrated. 1 describes a case where the display screen 202 is a touch panel.

  The terminal-side transmitting unit 204 is a unit that transmits a signal to the terminal signal receiving unit 7 of the guiding device 100. The terminal-side receiving unit 205 is a unit that receives a signal transmitted from the terminal signal transmitting unit 8 of the guiding device 100.

  FIG. 12 is a diagram showing an example of a display screen in the standby mode and the setting mode of the external terminal according to the present invention. Note that, in FIG. 12, a portion surrounded by a thick solid line is a range displayed on the display screen 202. In the setting mode of the external terminal 200 of the present embodiment, on the display screen 202, from the top, a mode area 206 showing the current mode of the external terminal 200 and a type area showing the type of the building in which the guiding device 100 is installed. 207, a distance area 208 indicating the distance from the nearest coast and river where the guidance apparatus 100 is installed, a sea level area 209 indicating the sea level of the building where the guidance apparatus 100 is installed, and the number of floors where the guidance apparatus 100 is installed , A ceiling area 211 indicating the height around the floor of the building where the guidance device 100 is installed, a placement area 212 indicating where the guidance device 100 is placed, and a transmission switch 213. Is displayed. Each area corresponds to a range surrounded by a thin broken line. The information (e.g., display of setting and confirmation in the mode area 206 corresponds) and the pictogram that are individually displayed in each area by being surrounded by thin solid lines are referred to as items.

  Further, the type of the building in which the guidance device 100 is installed, which is represented by the type area 207, is whether or not the building in which the guidance device 100 is installed is a designated evacuation shelter in the area. The tsunami evacuation area designated by the area includes not only the evacuation area or the evacuation area designated by the local government but also the tsunami evacuation building designated by the local government as a temporary evacuation area when the tsunami occurs.

  In Embodiment 1, since the display screen 202 is a touch panel and the display screen 202 and the terminal input unit 203 are integrated, it is possible to input information by touching an item in each area on the display screen 202. it can. In addition, the item on the setting screen of the external terminal 200 may be emphasized and displayed by changing the brightness or the color tone as compared with the surroundings under an arbitrary condition.

  The standby mode will be described. In the standby mode, the display content of the display screen 202 is similar to that in the setting mode, but even if the information is input from the terminal input unit 203, the terminal-side determination unit 201b determines that the information has not been input. However, the mode switching information is an exception, and when the mode switching information is input even in the standby mode, the terminal side determination unit 201b determines that the mode switching information has been input. The first embodiment will be specifically described as an example. In the standby mode, the items of the type area 207, the distance area 208, the sea level area 209, the floor area 210, the ceiling height area 211, the arrangement area 212 and the transmission switch 213 are touched. The terminal-side control unit 201 determines that no input has been made. However, the external terminal 200 switches to the setting mode when the “setting” item in the mode area 206 is touched and switches to the confirmation mode when the “confirmation” item is touched.

  FIG. 13 is a flowchart showing the operation of the external terminal of the present invention when preset information is set in the device-side storage unit of the guiding device according to the present invention.

  First, in step S501, the administrator operates the terminal input unit 203 to switch the mode of the external terminal 200 to the setting mode. In the first embodiment, by touching the item “setting” in the mode area 206, the external terminal 200 enters the setting mode. After the end in step S501, the process proceeds to step S502. In step S502, the terminal-side control unit 201 controls the display screen 202 so that only the "setting" item in the mode area 206 is highlighted. This indicates that the external terminal 200 is in the setting mode. After the process of step S502 ends, the process proceeds to step S503.

  In step S503, the terminal-side determination unit 201b determines whether to transmit a setting signal described below to the guiding device 100. In the case of the first embodiment, the terminal side determination unit 201b determines not to transmit when the transmission switch 213 is not touched, and determines to transmit when the transmission switch 213 is touched. If it is determined not to transmit (NO in step S503), the process returns to step S503 again. If it is determined to transmit (YES in step S503), the process proceeds to step S504.

  The external terminal 200 manages the information about the installation location for setting until the terminal side determination unit 201b determines to transmit in step S503, that is, until the administrator touches the transmission switch 213 in the first embodiment. It is input by the person from the terminal input unit 203. The information about the installation location for setting is information according to the installation location of the guidance device 100 input to the terminal input unit 203. Specific contents of the information about the installation location for setting include the type area 207, the distance. This is information on each item of the area 208, the sea level area 209, the floor area 210, the ceiling height area 211, and the arrangement area 212. The items input here are emphasized and displayed on the screen, and are stored in the terminal-side storage unit 201a. However, when the information different from the previous selection is input in the area where the selection is made once, the information input later is displayed on the display screen 202 and stored in the terminal storage unit 201a. The control unit 201 controls. At this time, the previously input information is erased from the display on the display screen 202 and the storage of the terminal storage unit 201 by the terminal control unit 201.

  As an example of inputting the information about the installation place for setting, the installation place of the guidance device 100 to be set up is an evacuation site designated in the area, and the distance from the coastline is 0 to 1 km and the sea level is 2 to 3 m. In the case of the final evacuation exit on the 5th floor of the object, the item “evacuation site specified by area” on the type area 207 on the display screen 202, the item “0-1 km” on the distance area 208, and the sea level area 209 touches the items of “2 to 3 m”, the floor area 210 of the “5F” item, and the placement area 212 of the “final evacuation gate” item by the administrator. It means that the input is made according to the installation location.

  In step S504, the terminal-side control unit 201 creates a setting signal including all pieces of information regarding the setting installation location input from the terminal input unit 203, which is stored in the terminal-side storage unit 201a. When the creation of the setting signal is completed, the process proceeds to step S505. In step S505, the terminal-side transmitting unit 204 transmits the setting signal to the terminal signal receiving unit 7 of the guiding device 100. The guiding device 100, which has received the setting signal from the external terminal 200 by the terminal signal receiving unit 7, sends the setting signal to the control circuit 18, and the device-side storage unit of the control circuit 18 sends information regarding the setting installation place included in the setting signal. 18a is stored as information regarding the installation location of the guidance device 100.

  When the setting signal is transmitted in step S505, the process proceeds to step S506. In step S506, the information about the installation location for setting input from the terminal input unit 203 stored in the terminal-side storage unit 201a is deleted. At this time, all the information about the installation location for setting input from the terminal input unit 203 may be deleted, or only the information selected in advance may be deleted. For example, the information about the type area 207, the distance area 208, and the above sea level area 209 is common for the same building, so when deleting only the selected information, the information about the type area 207, the distance area 208, and the above sea level area 209 is to be deleted. By selecting not to delete, it is possible to eliminate the trouble of repeatedly inputting the same information in the three areas.

  Further, the distance from the coastline, the sea level, the floor on which the guidance device 100 is installed, and the height around the floor are selected from the items of each area and input from the terminal input unit 203. It is also possible to input a specific numerical value from another input device such as a keyboard so that the numerical value can be input.

  As described above, the guidance device 100 of the present invention can set the information regarding the installation location by the external terminal 200.

  FIG. 14 is a flowchart showing the operations of the guidance device and the external terminal in the evacuation guidance system according to the first embodiment. The evacuation guidance system of the present invention includes a guidance device 100 and an external terminal 200. In FIG. 14, steps with a at the end indicate the external terminal 200, and steps with ab at the end indicate the operation of the guidance device 100. Further, solid line arrows indicate the flow of flows inside the external terminal 200 and the guidance device 100, respectively, and broken line arrows indicate the flow of signals between the external terminal 200 and the guidance device 100. How the administrator of the guidance device 100 confirms the operation of the guidance device 100 using the external terminal 200 will be described with reference to FIG. 14. It is assumed that the mode of the external terminal 200 is the standby mode at the operation confirmation start stage of the flowchart of FIG.

  In step S601a, the external terminal 200 is operated by the administrator to operate the terminal input unit 203 so as to switch to the confirmation mode. That is, in the first embodiment, the external terminal 200 is switched to the confirmation mode when the administrator touches the item “confirmation” in the mode area 206. After the external terminal 200 is switched to the confirmation mode in step S601a, the process proceeds to step S602a. In step S602a, the terminal-side control unit 201 controls the display screen 202 to display a screen as shown in FIG. 15, which will be described later, and emphasizes only the display of the mode area 206 “confirm”. When the external terminal 200 switches to the confirmation screen, the process proceeds to step S603a. Note that steps S601a to S602a are operations for changing the mode of the external terminal 200 from the setting mode to the confirmation mode. Therefore, if the mode of the external terminal 200 is the confirmation mode at the operation confirmation start stage, the operations of steps S601a to S602a are skipped, and the operation confirmation start time proceeds to step S603a.

  FIG. 15 is a diagram showing an example of a display screen in the confirmation mode of the external terminal according to the first embodiment. The confirmation screen is the same as the standby mode and the setting mode except that the confirmation switch 214 is newly displayed at the lower left of the screen. Note that, in FIG. 15, a portion surrounded by a thick solid line is a range displayed on the screen. Also, information that is individually displayed by being surrounded by a thin solid line, like the setting screen, is referred to as an item. In the confirmation mode, the terminal-side control unit 201 determines that no input is made even if the type area 207, the distance area 208, the sea level area 209, the floor area 210, the ceiling height area 211 and the arrangement area 212 are touched as in the standby mode. To do. However, even in the confirmation mode, when the mode area 206, the transmission switch 213, and the confirmation switch 214 are touched, the external terminal 200 operates according to the touched portion.

  In step S603a, the terminal-side determination unit 201b determines whether or not to transmit a confirmation start signal that notifies the guiding device 100 to perform the operations of steps S605b to S607b described below. Whether or not to transmit the confirmation start signal is determined by whether or not information for starting the operation confirmation of the guidance device 100 is input from the terminal input unit 203. In the case of the first embodiment, the terminal-side determination unit 201b If the transmission switch 213 is not touched, it is determined not to transmit, and if it is touched, it is determined to transmit. When it is determined not to transmit (NO in step S603a), the process returns to step S603a again. If it is determined to transmit (YES in step S603a), the process proceeds to step S604a. In step S604a, the terminal-side transmitter 204 transmits the confirmation start signal to the terminal signal receiver 7 of the guiding device 100.

  The guidance device 100 operates in the standby state in step S601b. In this state, at the same time as the operation of the flowchart of FIG. 7, the guiding device 100 determines in the device-side determination unit 18b whether the terminal signal receiving unit 7 has received the confirmation start signal in step S604b. When it is determined that the confirmation start signal has not been received (NO in step S604b), the determination in step S604b is performed again. If it is determined that the data is received (YES in step S604b), the process proceeds to step S605b.

  In step S605b, the guidance device 100 transitions to the operation confirmation state. Specifically, the control circuit 18 controls the first and second light source lighting circuits 19 and 20 so that the brightness of the first and second light sources 3 and 4 is lower than that in the non-operation confirmation state, and the audio circuit 21 is controlled by the speaker. Control is performed so that the volume uttered from 6 is lower than that in the non-operation confirmation state. However, in the operation confirmation state, only the brightness and the volume are lowered, and the substantial operation of the guiding device 100 is as shown in the flow charts of FIGS. 7, 8, 9, and 10 described above. When the control circuit 18 completes the control of step S605b, the process proceeds to step S606b.

  In step S606b, the control circuit 18 creates a current setting signal. Among the preset information stored in the device-side storage unit 18a, at least the information that can be displayed by the external terminal 200, that is, the guidance device 100 in the present embodiment, is installed in the current setting signal. Whether or not the building is a building designated as an evacuation site when a tsunami occurs, the distance from the nearest coast and river of the building where the guiding device 100 is installed, and the building where the guiding device 100 is installed Information about the height of the object above sea level, the number of floors where the guidance device 100 is installed, the height of the floor around the building where the guidance device 100 is installed, and whether the guidance device 100 is installed at the final evacuation exit is doing. When the current setting signal is created in step S606b, the process proceeds to step S607b, and the current setting signal is transmitted from the terminal signal transmitting unit 8 to the external terminal 200. The guidance device 100 that has completed transmission proceeds to S610b.

  The terminal-side determination unit 201b determines in step S607a whether or not the current-side setting signal from the guiding device 100 has been received by the terminal-side reception unit 205. When it is determined that the current setting signal has not been received (step S607a, NO), the determination of step S607a is performed again. If it is determined that the data is received (YES in step S607a), the process proceeds to step S608a. In step S608a, the terminal-side control unit 201 emphasizes and displays the item of each area corresponding to each information included in the received current setting signal on the display screen 202. For example, if the current setting signal includes information that the height of the building where the guiding device 100 is installed is 2 to 3 m, in step S608a, among the sea level areas 209 on the screen of the external terminal 200, Items of 2 to 3 m are highlighted and displayed. After the display in step S608a, the process proceeds to step S609a.

  In step S609a, the terminal-side determination unit 201b determines whether to transmit a confirmation end signal for ending the operation confirmation state of the guidance device 100. Whether or not to transmit the confirmation end signal is determined by whether or not the information for ending the operation confirmation of the guidance device 100 is input from the terminal input unit 203. In the case of the first embodiment, the terminal side determination unit 201b If the confirmation switch 214 is not touched, it is determined not to transmit, and if it is touched, it is determined to be transmitted. When it is determined not to transmit (NO in step S609a), the process returns to step S609a again. If it is determined to transmit (YES in step S609a), the process proceeds to step S610a.

  In step S610a, the terminal-side transmitter 204 transmits a confirmation end signal, and proceeds to step S611a. In step S611a, the terminal-side control unit 201 stops displaying each item included in the received current setting signal by emphasizing it on the display screen 202. When the process of step S618a ends, the confirmation process on the external terminal 200 side ends.

  In step S610b, in the guiding device 100, the device-side determination unit 18b determines whether the confirmation completion signal has been received by the terminal signal reception unit 7. When it is determined that the confirmation end signal has not been received (step S616b, NO), the process returns to step S610b. If it is determined that it is received (YES in step S616b), the process proceeds to step S611b.

  In step S611b, the guidance device 100 ends the operation confirmation state. Specifically, the control circuit 18 causes the first and second light source lighting circuits 19 and 20 to set the brightness of the first and second light sources 3 and 4 to the brightness of the non-operation confirmation state, and causes the audio circuit 21 to output from the speaker 6. It controls to return the volume to be uttered to the volume in the non-operation confirmation state. When the control circuit 18 completes the control of step S611b, the process proceeds to step S612b.

  In step S612b, the control circuit 18 controls the guidance device 100 to operate in the standby state. When the process of step S612b ends, the confirmation process on the external terminal 200 side ends.

  Although not shown in the flowchart of FIG. 14, when the setting mode is selected in the mode area 206 of the confirmation screen of the external terminal 200 during steps S602a to S603a and steps S607a to S609a, The external terminal 200 proceeds to step S502 in the flowchart of FIG.

  How the administrator confirms the operation of the guidance device 100 will be described by using the operation when confirming the operation of the guidance device 100 and the external terminal 200. First, from step S601a to step S608a, the administrator operates the external terminal 200 according to the flowchart of FIG. 13 described above.

  Until the terminal side determination unit 201b determines to transmit the confirmation end signal in step S609, that is, until the administrator touches the confirmation switch 214 in the first embodiment, the display screen 202 of the external terminal 200 in step S608a. It is confirmed whether or not each information included in the current setting signal displayed in is suitable for the installation place of the guidance device 100 whose operation is to be confirmed. If it is not suitable, the setting mode is selected from the mode area 206 of the confirmation screen of the external terminal 200, and the preset information stored in the device storage unit 18a is changed.

  If the settings are suitable, the administrator sends to the guiding device 100 an operation confirmation signal used to carry out the operation confirmation prepared in advance. An example of the operation confirmation signal is a signal having information regarding disasters for operation confirmation. The information regarding the disaster for confirmation at this time may be disaster detailed information that is actually announced at the time of the disaster, or information that simulates information similar to the actual disaster detailed information. In addition, as the other operation confirmation signals, there are the above-mentioned operation signal at the time of fire for operation confirmation and the voice stop signal for operation confirmation. Furthermore, the operation confirmation signal includes evacuation information for operation confirmation, and a signal simulating the evacuation information signal can also be given. The guidance device 100 receives the operation confirmation signal prepared in advance, and the guidance device 100 operates according to the flow charts of FIGS. 7, 8, 9, and 10. At this time, the administrator compares the actual operation of the guidance device 100 with the information of the operation confirmation signal prepared in advance to check whether the guidance device is operating properly. Although the power failure signal is a signal used for inspection instead of operation confirmation, it may be included in the operation confirmation signal.

  At this time, the guiding device 100 is in the operation confirmation state in step S605b. Therefore, in each operation performed in response to the operation confirmation signal, the brightness of the first and second light sources 3 and 4 and the volume uttered from the speaker 6 are smaller than in the case where the operation confirmation state is not entered. ing.

  When the administrator finishes confirming the operation of the guiding device 100, he or she selects the confirmation switch 214, proceeds from step S609a to step S610a, and confirms the operation according to the flowchart of FIG. 14 described above.

  As described above, the guidance device 100 of the present invention can appropriately confirm the operation at the time of a disaster other than a fire by using the external terminal 200.

  Further, the external terminal 200 displays the information used for the operation stored in the device-side storage unit 18a of the guiding device 100 on the display screen 202 before actually shifting the guiding device 100 to the operation confirmation state. Therefore, even if an operation different from the flow charts of FIGS. 7, 8, 9 and 10 occurs during operation confirmation, the administrator displays on the display screen whether the cause is due to incorrect settings or other causes. This can be understood by looking at the display of 202. Further, since the external terminal 200 can also set the information used for the operation stored in the device-side storage unit 18a, the setting error can be corrected on the spot when the setting error is discovered.

  Further, when confirming the operation, the state is shifted to the operation confirming state in which the brightness of the first light source 3 and the second light source 4 and the volume of the sound emitted from the speaker 6 are lowered as compared with the actual operation. Therefore, for example, even in a facility such as a hotel where the user is not in constant operation for 24 hours, the operation of the guidance device 100 at the time of operation confirmation is misunderstood as a real disaster by a user who does not know that the operation is confirmed. Can be prevented.

  In addition, in the first embodiment, the information about the disaster and the information to be stored in the device-side storage unit 18a have been described as being limited to the case of the tsunami or the earthquake. However, the present invention is not limited to this. Even with signals and information regarding other disasters, the operation confirmation of the guidance device can be performed by the same operation confirmation method as in the first embodiment. In addition, the flowchart of the operation of the guiding device 100 in FIGS. 7, 8, 9, and 10 of the first embodiment is an example, and the guiding device 100 that performs different operations when receiving a signal related to a fire, an earthquake, or a tsunami. However, the operation confirmation can be performed by the same operation confirmation method as in the first embodiment.

  Furthermore, the layouts of the setting screen and the confirmation screen and the respective items in the first embodiment are examples. Therefore, the setting screen and the confirmation screen of the present invention are not limited to the layout and items of the first embodiment.

  Further, the external terminal 200 of the first embodiment has both means for setting information set in advance of the guiding device 100 and means for confirming the information, but the information is not limited to this. The means for setting and the means for confirming the information may be mounted on different external terminals 200.

  In addition, the reason why the brightness of the first and second light sources 3 and 4 and the volume uttered from the speaker 6 during operation confirmation is lower than that during actual operation is that the facility user misunderstands operation confirmation as a real disaster. This is to prevent it. Therefore, in facilities such as shopping malls or office buildings where users are cut off at certain times, the brightness of the first and second light sources 3 and 4 and the volume emitted from the speaker 6 are the same as during actual operation during operation confirmation. It doesn't matter.

Embodiment 2
FIG. 16 is a first flowchart showing the operations of the guidance device and the external terminal when performing the operation confirmation in the evacuation guidance system according to the second embodiment. FIG. 17 is a second flowchart showing the operations of the guidance device and the external terminal when performing the operation confirmation in the evacuation guidance system according to the second embodiment. Configurations other than the operation of the external terminal and the guidance device in the confirmation mode, the point that the terminal side control unit 201 creates an operation confirmation signal, and the point that the operation confirmation signal creation screen described later is stored in the terminal side storage unit 201a The description is omitted because it is the same as that of the first embodiment. In addition, the operation from step S701a to step S709a in FIG. 16 is the same as the operation from step S601a to step S609a in FIG. 14 of the first embodiment and the operation from step S701b to step S707b in FIG. Since the operation is the same as the operation from step S601b to step S607b of 14, the description thereof will be omitted.

  In step S709a, the terminal-side control unit 201 determines whether to switch the display screen 202 to an operation confirmation signal creation screen described later. In the case of the second embodiment, the terminal side determination unit 201 determines not to switch when the confirmation switch 214 is not touched, and determines to switch when the confirmation switch 214 is touched. When it is determined that the switching is not performed (step S709a, NO), the process returns to step S709a again. When it is determined to switch (YES in step S709a), the process proceeds to step S710a.

  FIG. 18 is a diagram showing an example of the operation confirmation signal creation screen of the external terminal 200. In step S710a, the terminal-side control unit 201 switches the display screen 202 to the operation signal creation screen shown in FIG. Note that, in FIG. 18, a portion surrounded by a thick solid line is a range displayed on the screen. On the operation confirmation signal generation screen, from the top, the earthquake disaster information signal area 215, the tsunami disaster information signal area 216, the fire operation signal area 217, the power failure signal area 218, the voice stop signal area 219, the evacuation information signal area 220, the transmission switch 213 and the end switch 221 are displayed respectively. Further, the earthquake disaster information signal area 215 is subdivided into three areas: an earthquake ON / OFF area 215a, an earthquake type area 215b, and a seismic intensity area 215c. Furthermore, the tsunami disaster information signal area 216 is subdivided into four areas: a tsunami ON / OFF area 216a, a tsunami type area 216b, a tsunami fear area 216c, and a tsunami height area 216d. Each area corresponds to a range surrounded by a thin broken line. In addition, the information that is individually displayed by being surrounded by a thin solid line as in the screens in the standby mode and the setting mode is referred to as an item.

  As an example of the operation confirmation signal, there is a signal having information regarding a disaster for confirmation as described above, and in the second embodiment, the external terminal 200 generates the operation confirmation signal. The information regarding the disaster for confirmation included in the operation confirmation signal is determined by the administrator selecting from the display, as in the case of setting. For example, in the case of a large tsunami warning, when an operation confirmation signal having information regarding a disaster for confirmation with a wave height of 10 m is selected, the item “ON” from the tsunami ON / OFF area 216a and the tsunami type area are selected. The information selected by the administrator touching the item of “Great Tsunami Warning” from 216b, the item of “Yes” from the tsunami fear region 211c, and the item of “10m” from the tsunami height region 216d, respectively. Is entered. Note that the operation confirmation signal can be selected after the end of step S710a and before the determination of step S711a becomes YES.

  Similarly, an operation confirmation signal having information about an earthquake for confirmation can be set in the earthquake disaster information signal area 215, a fire occurrence signal for operation confirmation can be set in the operation signal area 217 during a fire, and a power failure signal area 218 can cause a power failure. A signal can be set, a voice stop signal for operation confirmation can be set in the voice stop signal area 219, and an operation confirmation signal simulating the evacuation information signal can be set in the evacuation information signal area 220.

The information input after the operation confirmation signal creation screen is displayed in step S710a is stored in the terminal-side storage unit 201a and is emphasized and displayed on the display screen 202. However, when information different from the previous selection is selected within the area once selected, the information selected later is stored in the terminal-side storage unit 201a and further highlighted on the display screen 202. Further, the previously selected information is deleted from the storage of the terminal side storage unit 201a, and the highlighted display is stopped.

  Further, in step S710a, a plurality of seismic disaster information signal areas 215, tsunami disaster information signal areas 216, fire operation signal areas 217, power failure signal areas 218, voice stop signal areas 219, and evacuation information signal areas 220 are provided. When the selection is made so as to straddle the area, only the input of the last selected area is stored in the terminal side storage unit 201a, and only the input of the last selected area is highlighted on the display screen 202. To do.

  In addition, it is also possible not to select information regarding a disaster for confirmation that simulates information regarding a disaster that does not actually exist at the time of selection. For example, the announcement standard for a large tsunami warning is issued when the expected height of a tsunami exceeds 3 m. Therefore, when the "large tsunami warning" item is selected in the tsunami type area 216b, In the fear area 216c, the item “none” is set, in the tsunami height area 216d, the items “2m”, “1m”, “0.8m”, “0.6m”, “0.4m”, and “0.2m” are set. May be erased from the display screen 202.

  After the operation confirmation signal generation screen is displayed on the display screen 202 in step S710a, the process proceeds to step S711a. In step S711a, the terminal-side determination unit 201b determines whether to transmit a confirmation end signal for ending the operation confirmation state of the guidance device 100. In the case of the second embodiment, the terminal side determination unit 201b determines not to transmit when the end switch 221 is not touched, and determines to transmit when the end switch 221 is touched. If it is determined not to transmit (NO in step S711a), the process proceeds to step S712a. If it is determined to transmit (YES in step S711a), the process proceeds to step S717a.

  In step S712a, the terminal side determination unit 201b determines whether to transmit the operation confirmation signal. In the case of the second embodiment, the terminal side determination unit 201b determines not to transmit when the transmission switch 213 is not touched, and determines to transmit when the transmission switch 213 is touched. When it determines with not transmitting (step S712a, NO), it returns to step S711a. If it is determined to transmit (YES in step S712a), the process proceeds to step S713a.

  In step S713a, the external terminal 200 creates an operation confirmation signal including information regarding a disaster for confirmation input from the terminal input unit 203 stored in the terminal-side storage unit 201a when the transmission switch 213 is selected. .. When the operation confirmation signal is completed, the process proceeds to step S714a and is transmitted to the guiding device 100. When the transmission is completed, the process proceeds to step S715a, the confirmation disaster information input from the terminal input unit 203 stored in the terminal storage unit 201a is erased, and the process returns to step S711a.

  In step S717a, the terminal-side transmitter 204 transmits a confirmation end signal. After transmitting the confirmation end signal, the process proceeds to step S718a, and the terminal-side control unit 201 causes the display screen 202 to display the screen as shown in FIG. 15 again. When the process of step S718a ends, the confirmation process on the external terminal 200 side ends.

  In step S714b, in the guidance device 100, the device-side determination unit 18b determines whether the disaster confirmation signal reception unit 9 has received the operation confirmation signal. When the operation confirmation signal has not been received (step S714b, NO), the determination of step S714b is performed again. If received (YES in step S714b), the process proceeds to step S715b.

  In step S715b, the guidance device 100 operates according to the operation confirmation signal. Specifically, when the operation confirmation signal includes information regarding a disaster for confirmation, the guidance device 100 operates according to the information regarding the disaster for confirmation as shown in the flowcharts of FIGS. 7, 8, 9, and 10. When the operation confirmation signal is an operation signal for fire for operation confirmation, a voice stop signal for operation confirmation, or a power failure signal, the first and second operation confirmation switches 25a and 25b or inspection switch 25c corresponding to the signal. Is turned off, and the guiding device 100 operates according to the flowcharts of FIGS. 7, 8, 9, and 10. At this time, the administrator confirms whether the guidance device 100 is operating correctly by confirming whether the guidance device 100 is actually operating and the action confirmation signal input by the guidance device 100 is the same. Check.

  In addition, since the guidance device 100 has transitioned to the operation confirmation state in step S705b, in each operation performed in step S715b, the brightness of the first and second light sources 3 and 4 and the volume produced by the speaker 6 are actually It is smaller than when the disaster information signal was received. At the same time as performing the operation in step S715b, the guiding device 100 proceeds to step S716b.

  In step S716b, the guidance device 100 determines in the device-side determination unit 18b whether or not a new operation confirmation signal has been received by the disaster information signal reception unit 9. If a new operation confirmation signal has not been received (step S716b, NO), the process proceeds to step S717b. If it has been received (step S716b, YES), the process returns to step S715b to operate the guidance device 100 based on the new operation confirmation signal.

  In step S717b, in the guiding device 100, the device-side determination unit 18b determines whether the confirmation completion signal has been received by the terminal signal reception unit 7. If the confirmation end signal has not been received (step S717b, NO), the process returns to step S716b. If it has been received (step S717b, YES), the process proceeds to step S718b.

  In step S718b, the guiding device 100 ends the operation confirmation state. Specifically, the control circuit 18 causes the first and second light source lighting circuits 19 and 20 to set the brightness of the first and second light sources 3 and 4 to the brightness of the non-operation confirmation state, and causes the audio circuit 21 to output from the speaker 6. It controls to return the volume to be uttered to the volume in the non-operation confirmation state. When the control circuit 18 completes the control of step S718b, the process proceeds to step S719b.

  In step S719b, the control circuit 18 controls the guidance device 100 to operate in the standby state. When the process of step S719b ends, the confirmation process on the external terminal 200 side ends.

  When the setting mode is selected in the mode area 206 of the confirmation screen of the external terminal 200 between steps S702a and S703a and between steps S707a and S709a, the external terminal 200 moves to step S502 of the flowchart of FIG. move on. Therefore, if the information included in the current setting signal displayed on the screen of the external terminal 200 in step 708a is not suitable for the installation location of the guidance device 100 whose operation is to be checked, the setting is changed on the spot. It can be performed.

  As described above, in addition to the effects of the first embodiment, the guiding device 100 according to the second embodiment can create information regarding a disaster for confirmation from the external terminal 200, and thus other external devices can be used for operation confirmation. Need not be used, and the operation of the guidance device 100 can be confirmed only by the external terminal 200.

  In the second embodiment, among the earthquake disaster information signal area 215, the tsunami disaster information signal area 216, the fire operation signal area 217, the power failure signal area 218, the voice stop signal area 219, and the evacuation information signal area 220. When the selection is made so as to straddle a plurality of areas, only the input of the last selected area is stored in the terminal-side storage unit 201a. This is because if an input that spans multiple areas is stored in the terminal-side storage unit 201a, multiple operation confirmation signals are created at the same time in step S713a, and the administrator who operates the external terminal 200 is confused. . However, in reality, it can be assumed that the disaster information signal receiving unit 9 of the guidance device 100 simultaneously receives a plurality of disaster information signals each containing different information. Therefore, when the accuracy of confirmation is prioritized over the convenience of the administrator, the earthquake disaster information signal area 215, the tsunami disaster information signal area 216, the fire operation signal area 217, the power failure signal area 218, the voice stop signal Even when the area 219 and the evacuation information signal area 220 are selected so as to straddle a plurality of areas, the input of all the selected areas is stored in the terminal-side storage unit 201a, and a plurality of operations are simultaneously performed in step S713a. A confirmation signal may be created. In addition, at this time, the items highlighted on the display screen 202 may also extend over a plurality of regions.

DESCRIPTION OF SYMBOLS 1 guidance device main body, 2 display panel, 3 1st light source, 4 2nd light source, 5 2nd light source cover, 6 speaker, 7 terminal signal receiver, 8 terminal signal transmitter, 9 disaster information signal receiver, 10 speaker hole, 11 terminal signal receiving hole, 12 terminal signal transmitting hole, 13 disaster information signal receiving hole, 14 operation signal terminal block, 15 voice stop signal terminal block, 16 smoke detection signal terminal block, 18 control circuit, 18a device side storage unit, 18b device side determination unit, 19 first light source lighting circuit, 20 second light source lighting circuit, 21 audio circuit, 22 power supply circuit, 23 battery, 24 battery charging circuit, 25 switch Section, 25a first operation confirmation switch section, 25b second operation confirmation switch section, 25c inspection switch section, 100 guidance device, 200 external terminal, 201 terminal side control section, 201a terminal side storage section, 201b terminal side determination section , 202 display screen, 203 terminal input section, 204 terminal side transmitting section, 205 terminal side receiving section, 206 mode area, 207 type area, 208 distance area, 209 sea level area, 210 floor area, 211 ceiling height area, 212 arrangement Area, 213 Transmission switch, 214 Confirmation switch, 215 Earthquake disaster information signal area, 215a Earthquake ON / OFF area, 215b Earthquake type area, 215c Seismic intensity area, 216 Tsunami disaster information signal area, 216a Tsunami ON / OFF area, 216b Tsunami type Area, 216c Tsunami threat area, 216d Tsunami height area, 217 Fire operation signal area, 218 Power failure signal area, 219 Voice stop signal area, 220 Evacuation information signal area, 221 End switch, 300 Smoke detector, 400 automatic Fire alarm equipment, signal device for 500 guide lights, 600 distribution board, 700 AC power supply

Claims (5)

Storage means for storing information about the installation location of the building to be installed,
A first receiving means for receiving information about the disaster;
An informing means capable of informing a first utterance pattern prompting evacuation to an evacuation center after the earthquake and a second utterance pattern notifying that evacuation is not required after the earthquake;
When the first receiving means receives the information on the occurrence of an earthquake as the information on the disaster, it is judged whether the damage of the earthquake is large, and if it is judged that the damage is large, the first utterance pattern And a control means for controlling the notifying means so as to notify the second utterance pattern when it is determined that the damage is small.
Equipped with
The notification means can notify a third vocalization pattern that prompts a standby in the building, and the information about the installation location is the building designated as an evacuation site when the tsunami occurs. Including information about whether or not
When the first receiving unit receives the information regarding the tsunami occurrence as the information regarding the disaster, the control unit notifies the third vocalization pattern if the installation place is an evacuation place. Guiding device controlling means . Storage means for storing information about the installation location of the building to be installed,
A first receiving means for receiving information about the disaster;
An informing means capable of informing a first utterance pattern prompting evacuation to an evacuation center after the earthquake and a second utterance pattern notifying that evacuation is not required after the earthquake;
When the first receiving means receives the information on the occurrence of an earthquake as the information on the disaster, it is judged whether the damage of the earthquake is large, and if it is judged that the damage is large, the first utterance pattern And a control means for controlling the notifying means so as to notify the second utterance pattern when it is determined that the damage is small.
Is a guidance device including
The notifying means is capable of notifying a fourth utterance pattern urging a standby on the upper floor of the building,
The information about the installation location includes information about the number of floors where the guidance device is installed,
When the first receiving unit receives the information about the occurrence of the tsunami as the information about the disaster, the control unit determines whether or not the floor on which the guidance device is installed is damaged by the tsunami. A guiding device that controls the notifying unit so as to notify the fourth utterance pattern when it is determined to be damaged . The notifying means is capable of notifying a fifth vocalization pattern indicating that there is no risk of a tsunami,
The first receiving means receives information on tsunami occurrence as information on the disaster,
When the first receiving unit receives the information regarding the tsunami generation, the control unit determines whether the building in which the guidance device is installed is damaged by the tsunami, and the building is tsunami-damaged. The guidance device according to claim 1 or 2, wherein the notification unit is controlled to notify the fifth utterance pattern when it is determined not to be damaged . A second receiving means for receiving a signal regarding the occurrence of fire,
The notifying means is capable of notifying a sixth vocalization pattern that prompts evacuation to the outside of the building,
The first receiving means receives information regarding the occurrence of a tsunami as the information regarding the disaster,
When the first receiving unit receives the information about the tsunami occurrence as the information about the disaster, the control unit determines that the building in which the guidance device is installed is not damaged by the tsunami. Also, when the second receiving means receives the signal regarding the fire occurrence, the notifying means is controlled so as to notify the sixth vocalization pattern, according to any one of claims 1 to 3. Guidance device. A battery for supplying electric power to the control means at the time of power failure of the commercial power source,
The induction device according to any one of claims 1 to 4, wherein the first receiving means is driven by the electric power of the battery during a power failure .

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