JP5159488B2 - Disaster information receiver - Google Patents

Description

  The present invention relates to a disaster information receiving apparatus that receives and reports information on disasters, for example, earthquake early warnings distributed by the Japan Meteorological Agency and the like.

  In recent years, the Japan Meteorological Agency has started providing a service called Earthquake Early Warning. To explain this earthquake early warning in detail, the Japan Meteorological Agency places seismometers at multiple points, collects data from this seismometer when an earthquake occurs, and based on the collected data, the longitude, latitude, The depth of the epicenter and the magnitude (magnitude) of the earthquake are calculated, and the calculated data is notified to a specific terminal or business operator.

More specifically, a case will be described in which data is transmitted from the Japan Meteorological Agency to the terminal via the operator. In this case, the Meteorological Agency, a business operator, and a terminal are connected, and when an earthquake occurs, data relating to the earthquake is transmitted in order from the Meteorological Agency to the business operator and the terminal.
Specifically, when the meteorological agency sends data on the longitude, latitude, depth of the epicenter, and magnitude of the earthquake (magnitude) of the epicenter to the business operator, On the basis of the location information of the terminal that has joined the terminal, the time until the seismic intensity and shaking at the location where the terminal exists is immediately calculated, and these data are transmitted to the terminal.

In addition, there is a system in which information on the epicenter transmitted from the Meteorological Agency to the terminal from the business side is transmitted as it is, and the predicted seismic intensity is calculated on the terminal side. In this case, the terminal uses the regional information recorded in advance on the terminal, for example, the latitude / longitude information of the place where the terminal is installed, etc. The estimated time at which the portion (usually S wave) will reach is calculated.
The calculation result is notified to the user by, for example, displaying an image on a liquid crystal panel or outputting sound through a speaker. Thus, the user can take an evacuation action such as hiding under the desk or extinguishing the source of the fire before the main motion arrives from the epicenter.

In addition, in connection with such a terminal, the present applicant can conduct disaster information notification on a trial basis, and has made the actual disaster information notification form different from the experimental disaster information notification form. A disaster information receiving apparatus has been proposed in Patent Document 1.
Japanese Patent Application No. 2008-183304

  There are cases where a user purchases a disaster information receiving apparatus and starts using it, and suddenly hears the notification of the disaster information and is surprised. In such a case, even if the disaster information is heard, there is a possibility that it is not possible to take appropriate measures against the disaster because of the surprise of the sudden notification of the disaster information.

  For this reason, it is very important to provide a function for conducting disaster information notification on a trial basis. First, when starting to use the device, the user listens to experimental disaster information notifications and knows that actual disaster information notifications are like this. Disaster information. As a result, the user can quickly cope with the disaster.

  However, some users may use it as it is without conducting disaster information test notification. In this case, not only the precious disaster information test notification function is wasted, but the user may be surprised at the sudden disaster information notification.

  In order to solve such problems, the applicant automatically performs disaster information test notification when the power is turned on, and can use various functions only after the disaster information test notification is completed. The disaster information receiving device has been provided.

According to one aspect of the present invention, a disaster information receiving apparatus for broadcast disaster information in response to reception of the disaster information, the disaster information receiving apparatus includes an input unit, and informing means for informing the disaster information, When the notification means, the control means, and the control means determine the disaster information by the notification means on a trial basis, when the control means determines that there is a power-on operation from the input means, the apparatus is turned on automatically. When the test notification means is started to notify the test disaster information, and only the specific operation from the input unit is accepted until the test notification by the test notification means is completed, and the test notification by the test notification means is completed, All operations from the input unit are accepted, and the start of automatic disaster information test notification when the power is turned on thereafter is prohibited.
The invention according to claim 2 is a disaster information receiving apparatus that notifies disaster information in response to reception of disaster information, wherein the disaster information receiving apparatus includes an input unit, a notification unit that notifies disaster information, A test notification means for performing a notification of disaster information by the notification means on a trial basis, a control means, and a flag indicating whether or not the test notification by the test notification means has ended, the control means from the input means When it is determined that there is an operation to turn on the power, the input of the input unit is turned on until the test notification means automatically starts to notify the test disaster information and the test notification means completes the test notification. accept only a specific operation from, the test notification by the test notification unit is completed, and controls to accept all the operations from the input unit as well as on the flag, before SL flag o If it is determined from the state at the input means and an operation of the power-on, and inhibits the initiation of broadcast pilot disaster information by the test notification unit when the power-on of the device.

According to the present invention, after completing the notification of the experimental disaster information, the apparatus is made usable. On the other hand, if the notification of the experimental disaster information is not completed, the apparatus is kept in an unusable state. Therefore, the user always listens to the disaster information test notification before using the device. Therefore, the user knows what the disaster information notification is before using the device, and when there is a real disaster information notification, it is possible to avoid being surprised at the sudden disaster information notification. Is possible.

  In addition, once the notification of the experimental disaster information is completed, the notification of the experimental disaster information is not automatically started when the power is turned on. Can be used as

Embodiments of the present invention will be described below with reference to the drawings. In addition, embodiment shown here is an example and this invention is not limited to embodiment shown here.
<1-1. About the configuration of the telephone system>
FIG. 1 shows a system diagram including a disaster information receiving apparatus (for example, a cordless telephone apparatus capable of receiving disaster information) of the present invention. This system includes at least a master unit 1 (= main communication device), a slave unit 2 (= sub communication device), a wired LAN 41, a wireless communication network 42, an IP telephone router 51, a broadband router 52, a gateway 53, an IP telephone network 61, An Internet 62, a PSTN network 63 (= Public Switched Telephone Network), and a subscriber telephone device 71 are configured.

  The cordless telephone apparatus of the present invention is a cordless telephone apparatus that can be connected to an IP communication network, and corresponds to the parent device 1 and the plurality of child devices 2 (child devices A2a to C2c) in the figure. The base unit 1 is an IP telephone device capable of voice communication via a telephone network by being connected to the wired LAN 41. The base unit 1 has a relay function for relaying communication between the wired LAN 41 and the wireless communication network 42. Accordingly, the slave unit 2 described later can perform a call via the IP telephone network 61 or the PSTN network 63 by relaying the master unit 1. The base unit 1 also has a function of receiving an emergency self-breaking report distributed by the Japan Meteorological Agency via the Internet 62. The details of the internal structure of base unit 1 will be described later. Further, although not shown, the master unit 1 can also be connected to a general telephone line (a line used for an analog cordless telephone or a digital cordless telephone).

  The handset 2 is connected to a wireless communication network 42, which will be described later, and communicates with the base unit 1 so that the handset 2 can perform voice communication with other telephone devices via the IP telephone network 61 and the PSTN network 63. It is a communication device. The details of the internal configuration of the slave unit 2 will be described later.

  The wired LAN 41 is a local network in which the parent device 1, the IP telephone router 51, the broadband router 52, the gateway 53, and the like are connected by wire. Each of the above devices can communicate with each other by being connected to the wired LAN 41. Examples of physical means constituting the wired LAN 41 include 10BASE-T (standardized as IEEE802.3i) and 100BASE-TX (standardized as IEEE802.3u) using a twisted pair cable.

  The wireless communication network 42 is a small-scale communication network in which the parent device 1 and the plurality of child devices 2 are wirelessly connected. Specifically, for example, communication is performed using a communication system based on FHSS-WDCT (Frequency Hopping Spread Spectrum-Worldwide Digital Cordless Telephone) using radio waves in a frequency band of 2.4 GHz (gigahertz).

  The IP telephone router 51 and the broadband router 52 are network relay devices for interconnecting a plurality of IP networks. Specifically, the transfer is performed by analyzing a part of the protocol of the network layer (third layer) and the transport layer (fourth layer) in the OSI (Open Systems Interconnection) reference model. In the present embodiment, the IP telephone router 51 has a role of connecting two IP networks of the wired LAN 41 and the IP telephone network 61 to each other. The broadband router 52 has a role of connecting two IP networks of the wired LAN 41 and the Internet 62 to each other.

  The gateway 53 is a protocol converter for interconnecting networks having different protocol systems. For example, the gateway 53 connects the wired LAN 41 and the PSTN network 63 and performs signal conversion using a signaling protocol such as SIP, thereby enabling communication between both networks.

  The IP telephone network 61 is a communication network using VoIP (Voice over Internet Protocol) technology for part or all of the telephone network, and FTTH (Fiber To The Home) and ADSL (Asymmetric Digital Subscriber) are used as communication lines. A so-called broadband line is used. Note that VoIP is a technique in which voice is compressed by various encoding methods, converted into packets, and transmitted in real time over an IP network. As a result, the IP telephone network 61 can provide a videophone service for transmitting and receiving images in addition to a voice call service.

  The Internet 62 is a wide area communication network constructed by interconnecting networks based on communication protocols. An international communication network is constructed by interconnecting large and small computer networks. As a communication protocol, TCP / IP is mainly adopted as a standard protocol.

  The PSTN network 63 is a general subscriber telephone line network. It is used to make a voice call by connecting a telephone device to the end and connecting to a communication partner by a circuit switching method. The subscriber telephone device 71 is a telephone device that allows a telephone subscriber to make a voice call with another subscriber telephone device or an IP telephone device using the PSTN network 63.

FIG. 2 is an external view of the parent device 1 and the child device 2 of the present embodiment. In FIG. 2, although not shown in figure, the main | base station 1 has the display part 13 and the input part 14, and also carries the speaker 18 for alert | reporting an emergency earthquake alert. The display unit 13 or the like becomes visible when the housing is opened.
On the other hand, the subunit | mobile_unit 2 has the function similar to the subunit | mobile_unit of a normal cordless telephone, and the function which alert | reports an earthquake early warning, and can charge the battery part 31 by mounting in a charger.
<1-2. About the internal structure of the main unit>
FIG. 3 is a block diagram showing the inside of the base unit 1 according to the first embodiment of the present invention. The base unit 1 includes at least a control unit 11, a memory 12, a display unit 13, an input unit 14, a communication control unit 15, an antenna device 16, an audio signal processing unit 17, a speaker 18, a microphone 19, and a flash memory 20. It is configured.

  The control unit 11 is a central processing unit for performing overall control of communication control processing (voice data transmission / reception, outgoing call execution, incoming call detection, etc.) by controlling each unit of the base unit 1. Further, the control unit 11 includes a breaking news receiving unit 11a, an earthquake detection transmitting unit 11b, and an earthquake breaking news reporting unit 11c as functional units realized by executing a program on the arithmetic processing device provided in the control unit 11.

  The breaking news receiving unit 11a determines that an earthquake has been detected by receiving an emergency earthquake breaking news from the Internet 62 using the communication control unit 15. When the occurrence of an earthquake is detected, an emergency earthquake bulletin is given to the next earthquake detection transmitter 11b and earthquake bulletin alert unit 11c.

  When receiving the earthquake early warning from the breaking news receiving unit 11a, the earthquake detection transmitting unit 11b transmits the earthquake early warning to the child device 2 using the communication control unit 15. When receiving the earthquake early warning, the earthquake early warning notifying unit 11c reads the emergency earthquake early warning notification image and the emergency earthquake early warning voice message recorded in the flash memory 20. Then, by outputting the read data using the display unit 13 and the speaker 18, an earthquake notification is performed.

  The memory 12 is a medium for temporarily recording various data held by the parent device 1, and is configured by, for example, a writable RAM (Random Access Memory). The memory 12 serves as a buffer memory for temporarily recording processing data when various control processes are performed by the control unit 11, instruction commands received from the user, and the like.

  The display unit 13 displays various information held by the base unit 1 (for example, a caller telephone number at the time of incoming call), a predicted seismic intensity, a time until arrival of main motion, and the like to the user. The display unit 13 uses, for example, a small display device that consumes less power, such as a liquid crystal panel. The input unit 14 is for a user to perform various operations (for example, input of a telephone number of a partner with whom a call is made) for performing communication using the parent device 1. The input unit 14 is generally composed of a plurality of operation buttons such as numeric buttons and redial buttons.

  The communication control unit 15 is a communication interface for connecting the parent device 1 to the wired LAN 41. The communication control unit 15 can perform incoming call processing, outgoing call processing, and the like in the IP telephone system by communicating with a call control server (not shown) connected to the wired LAN 41. In addition, the communication control unit 15 controls wireless communication via the wireless communication network 42 by the antenna device 16.

  The antenna device 16 is a wireless communication device for transmitting and receiving wireless communication radio waves to and from the handset 2. The antenna device 16 performs wireless communication in accordance with a predetermined communication standard, for example, a communication system conforming to FHSS-WDCT (Frequency Hopping Spread Spectrum-Worldwide Digital Cordless Telephone). Thereby, voice communication, data communication, etc. can be performed with the subunit | mobile_unit 2. FIG.

  The audio signal processing unit 17 performs a decoding process on the audio data input by the communication control unit 15 and provides the audio signal to the speaker 18. The audio signal processing unit 17 performs predetermined encoding processing on the audio signal input from the microphone 19 to generate audio data, and supplies the audio data to the communication control unit 15. As a result, the audio data is transmitted to another telephone device connected through the wired LAN 41, the wireless communication network 42, the IP telephone network 61, or the like. The speaker 18 also has a function of outputting the predicted seismic intensity, the time to reach the main motion, and the like by voice.

  The flash memory 20 is a non-volatile semiconductor memory that can be rewritten and does not lose data even when the power is turned off. The flash memory 20 is a kind of EEPROM, but unlike the EEPROM, it cannot be rewritten in units of 1 byte, and is written after being erased in units of blocks in advance. The flash memory 20 also stores a voice message output from the speaker 18 and message data to be displayed on the display unit 13 when an earthquake notification is made on a trial basis. The display shown in FIG. 6A is a display screen when the earthquake early warning is actually received, and the background is red. On the other hand, the display shown in FIG. 6B is a display screen when an emergency earthquake bulletin is notified on a trial basis, and the background is green. In this way, the background color is changed between the actual earthquake early warning and the emergency earthquake early warning in the test mode). The test mode is a mode in which an emergency earthquake warning is notified on a trial basis.

  As will be described later, in the present embodiment, when the power is first turned on, a message sent from the speaker 18 (for example, “The test mode is executed before the device is used. The device can be used after the test mode is completed. "), A message sent from the speaker 18 when the test mode is completed (for example," Test mode is complete. The device can now be used. "), Or when the test mode is terminated halfway. A message (for example, “test mode could not be completed. Please execute test mode again.”) Stored from speaker 18 is stored.

  Further, a flag is stored in the flash memory 20, and this flag is off at the time of shipment from the factory. When this flag is off, the test mode is automatically activated every time the power is turned on. On the other hand, when this flag is on, the test mode is not automatically activated every time the power is turned on, and the apparatus can be used immediately.

In other words, when the flag is on, the device has once completed the test mode, while when the flag is off, the device has never completed the test mode. It can be said that it means.
<1-3. About the internal structure of the slave unit>
FIG. 3 is a block diagram showing the inside of the handset 2 according to the first embodiment of the present invention. The subunit | mobile_unit 2 is the control part 21, the memory 22, the display part 23, the input part 24, the communication control part 25, the antenna device 26, the audio | voice signal processing part 27, the speaker 28, the microphone 29, the flash memory 30, the battery part 31, A CCD camera 32 and an SD card slot 33 are included.

  The control unit 21 is a central processing unit for performing overall control of communication control processing (voice data transmission / reception, outgoing call execution, incoming call detection, etc.) by controlling each unit of the slave unit 2. Moreover, the control part 21 is provided with the earthquake detection receiving part 21a and the earthquake early warning notification part 21b as a function part implement | achieved by running a program on the arithmetic processing apparatus with which the control part 21 is provided.

  The earthquake detection receiving unit 21a determines whether or not an emergency earthquake bulletin is included in various information received from the base unit 1. When it is determined that the earthquake early warning is included, a telegram indicating earthquake detection is given to the earthquake early warning notification unit 21b.

  The earthquake early warning notification unit 21b reads the earthquake early warning data recorded in the flash memory 30 when an electronic message indicating earthquake detection is given from the earthquake detection receiving unit 21a. Then, by outputting the read data using the display unit 23 and the speaker 28, earthquake early warning is performed.

  The flash memory 30 also stores a voice message output from the speaker 18 and message data to be displayed on the display unit 13 when performing earthquake notification on a trial basis.

  The memory 22 is a medium for temporarily recording various data held by the child device 2, and is configured by, for example, a writable RAM (Random Access Memory). The memory 22 serves as a buffer memory for temporarily recording processing data when various control processes are performed by the control unit 21, instruction commands received from the user, and the like.

  The display unit 23 displays various kinds of information (for example, a caller telephone number at the time of incoming call) held by the handset 2 to the user. As the display unit 23, for example, a small and low power consumption display device such as a liquid crystal panel is used. The input unit 24 is for a user to perform various operations (for example, input of a telephone number of a partner with whom a call is made) for performing communication using the handset 2. The input unit 24 is usually composed of a plurality of operation buttons such as numeric buttons and redial buttons.

  The communication control unit 25 controls wireless communication by the antenna device 26. Thereby, the subunit | mobile_unit 2 can communicate with the main | base station 1 connected to the wireless communication network 42. FIG. Further, it is possible to perform incoming processing, outgoing processing, etc. via the PSTN network 63 by relaying the base unit 1.

  Since the antenna device 26 to the flash memory 30 have the same configuration as the antenna device 16 to the flash memory 20 of the parent device 1, description thereof is omitted here. The battery unit 31 is supplied with electric power from an external power source (not shown) and temporarily stores the electric power. For example, a rechargeable alkaline battery or a lithium ion battery is used.

  The CCD camera 32 is a photographing unit using a CCD as an image pickup device. The CCD photoelectrically converts a light image (optical information) of a subject formed by a photographing lens unit (not shown) into image data of R (red), G (green), and B (blue) color components and outputs the image data. . The CCD is driven by a timing generator (not shown) to control, for example, the aperture and exposure time. Image data obtained by the CCD camera 32 is recorded in the flash memory 30.

The SD card slot 33 is an interface for connecting an SD card memory 99 as an external recording medium and transmitting information. In the SD card memory 99, for example, still images and moving images taken with a digital camera are recorded. The SD card slot 33 copies these data to the flash memory 30 in accordance with an instruction from the evacuation instruction registration unit 21c. As a result, the evacuation instruction registration unit 21c can register images and sounds input from the outside as evacuation instruction data.
<1-4. Explanation of the operation of the apparatus of this embodiment>
Next, the operation of the embodiment apparatus to which the present invention is applied will be described with reference to the flowchart of FIG.

FIG. 5 is a flowchart showing the operation of base unit 1. First, the operation when the user purchases the apparatus and turns on the power for the first time will be described below. Note that the flag stored in the flash memory 20 is off when the apparatus of this embodiment is shipped from the factory. When this flag is off, the test mode is automatically activated every time the power is turned on. On the other hand, when this flag is on, the test mode is not automatically activated every time the power is turned on, and the apparatus can be used immediately.
If the control unit 11 determines in step S01 that there is a power-on operation instruction from the input unit 14, the control unit 11 turns on the power and proceeds to step S02.

  In step S02, the control unit 11 reads a message stored in the flash memory 20 (for example, “The test mode is executed before using the device. The device can be used after the test mode is completed”). Output from the speaker 18.

  In the subsequent step S03, the control unit 11 executes the test mode. Specifically, the test mode display data (FIG. 6B) stored in the flash memory 20 is read and displayed on the display unit 13. In the display data of FIG. 6B, the character color indicating seismic intensity is black and the background color is green. The display data is not limited to the letter indicating the seismic intensity, but may be a countdown display until the shaking comes (for example, 5 seconds until the shaking comes).

  Further, when executing the test mode, the control unit 11 sends a test mode voice message from the flash memory 20 (for example, “I will perform an emergency earthquake warning test. An earthquake with a seismic intensity of 5 will occur” or “Emergency We will test the earthquake early warning. An earthquake with a seismic intensity of 5 will be left for another 5 seconds. ”) Is read and output from the speaker 18.

  In step S04, when the control unit 11 determines that the execution of the test mode has been completed, the control unit 11 turns on the flag stored in the flash memory 20, and proceeds to step S05. Otherwise, the process proceeds to step S07. .

  Since the flag is turned on here, when the apparatus is turned off and then turned on again, the apparatus can be used immediately without executing the test mode. When the test mode is completed in step S04, the control unit 11 instructs the slave unit 2 to turn on the flag stored in the flash memory 30 of the slave unit 2 by controlling the antenna device 16. Send a signal. As a result, the flags stored in the flash memories 20 and 30 of the master unit 1 and the slave unit 2 are turned on.

  In step S05, the control unit 11 outputs a message stored in the flash memory 20 (for example, “test mode is completed. The device can now be used”) from the speaker 18, and the process proceeds to step S06. Proceed.

  In step S06, the control unit 11 makes various functions usable. Specifically, in steps S01 to S05, the key operation for executing power on / off and the key operation for instructing the stop or execution of the test mode have been permitted. However, in step S06 and subsequent steps, other key operations are also performed. Make it all ready. Since the flag is on after step S06, even when the power is turned off and the power is turned on again, the test mode is not executed, and all the functions of the apparatus can be implemented.

  On the other hand, if the test mode is not completed in step S04 (for example, when the user performs a key operation instructing interruption of the test mode or the apparatus is turned off halfway), the control unit 11 goes to step S07. Proceed with the process.

  In step S07, the control unit 11 reads from the flash memory 20, for example, a message “The test mode could not be completed. Please execute the test mode again.” And outputs the message from the speaker 18.

  In the subsequent step S08, when the control unit 11 determines that there is a power-off operation from the input unit 14, the control unit 11 turns off the power of the apparatus and returns the process to step S01. On the other hand, if there is no power off operation, the process proceeds to step S09.

  In step S09, when it is determined that there is a test mode execution instruction operation from the input unit 14, the control unit 11 returns the process to step S03, and otherwise returns the process to step S08.

  As described above, in the apparatus according to the present exemplary embodiment, when the user purchases the apparatus, the test mode is automatically activated, and if the execution of the test mode is not completed, the user executes another function of the apparatus (for example, a call). Can not do it. Therefore, in order to use the device, the user must execute the emergency earthquake warning test mode and complete it to the end. Therefore, the user can feel what the earthquake early warning is, and can avoid the situation of being surprised when receiving the real earthquake early warning.

  In this embodiment, the operation is performed in the case of the parent device 1, but the same can be applied to the child device 2. For example, when the test mode is executed in the handset 2, the control unit 21 of the handset 2 controls the antenna device 26 to turn on the flag stored in the flash memory 20 of the base unit 1 for the base unit 1. A signal instructing to do so is transmitted. As a result, the flags stored in the flash memories 20 and 30 of the master unit 1 and the slave unit 2 are turned on.

  Further, when the master unit 1 is used as a simple repeater, only the slave unit 2 may be provided with a test mode function. In this case, if the slave unit 2 executes the test mode, the flash unit 2 can be flushed. Only the flag of the memory 30 is turned on (the flag of the flash memory 20 of the base unit 1 is not turned on), and all functions can be used thereafter.

Further, the following configuration may be adopted. For example, the configuration may be such that the flag is automatically turned off when a predetermined period (for example, half a year) elapses after execution of the test mode is completed, and all functions of the apparatus cannot be executed unless the test mode is executed again. By adopting such a configuration, it is possible to notify the user of the notification form again when the user forgets the notification form of the earthquake early warning.
In this embodiment, the cordless telephone that can receive the earthquake early warning is used. However, the facsimile apparatus, the cellular phone device that can receive the earthquake early warning, the disaster information receiving apparatus that can receive only the emergency earthquake early warning, and the like. It can be implemented similarly.

These are block diagrams which show the structure of the telephone system of this invention. These are the external views of the communication apparatus of this invention. These are block diagrams which show the structure of the main | base station of the communication apparatus of this invention. These are block diagrams which show the structure of the subunit | mobile_unit of the communication apparatus of this invention. These are the flowcharts which show operation | movement of the main | base station 1 of a present Example apparatus. These are figures which show the display form of the display part of a present Example apparatus.

Explanation of symbols

DESCRIPTION OF SYMBOLS 1 Parent | base station 11a Early warning receiving part 11b Earthquake detection transmission part 11c Earthquake early warning alerting | reporting part 13 Display part 15 Communication control part 16 Antenna apparatus 18 Speaker 20 Flash memory 2 Child machine 21a Earthquake detection receiving part 21b Earthquake early warning notifying part 23 Display part 25 Communication Control unit 26 Antenna device 28 Speaker 30 Flash memory

Claims (2)

A disaster information receiving device that notifies disaster information in response to receiving disaster information,
The disaster information receiving apparatus includes an input unit, a notification unit that notifies the disaster information, a test notification unit that experimentally reports the disaster information by the notification unit, a control unit,
When the control means determines that there is a power-on operation from the input means, it turns on the power of the apparatus and automatically causes the test notification means to start notification of experimental disaster information, and the test by the test notification means Until the notification is completed, only a specific operation from the input unit is accepted, and when the test notification by the test notification unit is completed, all the operations from the input unit are accepted, and automatic disaster information when the power is turned on thereafter A disaster information receiving apparatus characterized by prohibiting the start of test notification. A disaster information receiving device that notifies disaster information in response to receiving disaster information,
The disaster information receiving apparatus includes: an input unit; a notification unit that notifies the disaster information; a test notification unit that experimentally reports the disaster information by the notification unit; a control unit; and a test notification by the test notification unit. It has a flag that indicates whether it is finished,
When the control means determines that there is a power-on operation from the input means, it turns on the power of the apparatus and automatically causes the test notification means to start notification of experimental disaster information, and the test by the test notification means Until the notification is completed, only a specific operation from the input unit is accepted, and when the test notification by the test notification unit is completed, the flag is turned on and all the operations from the input unit are controlled, and the flag Disaster information reception characterized by prohibiting the start of notification of experimental disaster information by the test notification means when the apparatus is powered on when it is determined that there is a power-on operation from the input means in the ON state apparatus.

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