JP7240290B2 - Information processing system, information processing device, and program - Google Patents

Description

The present invention relates to an information processing system, an information processing device, and a program.

Patent Literature 1 discloses a process of calculating an instrumental seismic intensity with an earthquake observation device installed in each region and transmitting it to a main body of a support device in a disaster prevention center.

JP-A-11-326530

In general, seismometers are often used to grasp earthquakes, but the number of seismometers tends to be limited due to the high installation cost and the need for an external power supply. . In this case, the installation intervals of the seismometers become large, and it becomes difficult to grasp the magnitude of shaking caused by the earthquake in each fine area.
SUMMARY OF THE INVENTION An object of the present invention is to make it possible to grasp the magnitude of shaking caused by an earthquake in each region in finer detail.

An information processing system to which the present invention is applied includes acquisition means for acquiring vibration information output from each of a plurality of seismic sensors that are battery-operated and output vibration information, which is information about vibration caused by an earthquake. and a screen generating means for generating a screen on which a plurality of areas are displayed, the screen being capable of ascertaining the magnitude of shaking in each area, based on the vibration information output from the plurality of seismic sensors. It is an information processing system.
Here, the screen generating means generates the screen on which the plurality of areas are displayed, and on which magnitude information, which is information about the magnitude of shaking, is displayed for each of the areas. can be characterized.
Further, the screen generation means may vary the number of pieces of size information to be displayed in association with each area according to the area of each of the plurality of areas.
Further, the screen generating means can further display information representing the likelihood of the size information displayed on the screen on the screen.
In addition to the vibration information output from the battery-powered seismic sensor that is the seismic sensor that operates on a battery, the acquisition means also outputs vibration information from an externally powered seismic sensor that is a seismic sensor that operates on an external power source. Further, the screen generating means obtains the vibration information obtained from the external power supply type seismic sensors for a region in which the number or density of installation of the battery type seismic sensors is smaller than a threshold value among the plurality of regions. It can be characterized in that information about the magnitude of shaking is displayed based on the vibration information obtained by.
In addition to the vibration information output from the battery-powered seismic sensor that is the seismic sensor that operates on a battery, the acquisition means also outputs vibration information from an externally powered seismic sensor that is a seismic sensor that operates on an external power source. The screen generating means further acquires the obtained vibration information, and displays the magnitude of shaking based on the vibration information obtained by the externally powered seismic sensor at a location corresponding to the installation location of the externally powered seismic sensor. It can be characterized in that information about the degree is displayed.
In addition, the screen generating means generates the screen on which the plurality of areas are displayed, the colors of the areas being different depending on the magnitude of shaking in the area. be able to.

When the present invention is regarded as an information processing device, the information processing device to which the present invention is applied is based on each of a plurality of seismic sensors that operate on a battery and output vibration information, which is information about vibration caused by an earthquake. Acquisition means for acquiring the output vibration information, and a screen on which a plurality of areas are displayed based on the vibration information output from the plurality of seismic sensors, and the magnitude of shaking in each area can be grasped. and a screen generating means for generating a similar screen.
Further, when the present invention is regarded as a program, the program to which the present invention is applied is output from each of a plurality of seismic sensors that operate on a battery and output vibration information, which is information about vibration caused by an earthquake. and a screen that displays a plurality of areas based on the vibration information output from the plurality of seismic sensors and allows the user to grasp the magnitude of shaking in each area. and a program for causing a computer to realize a screen generation function for generating

Advantageous Effects of Invention According to the present invention, it is possible to grasp the magnitude of tremors caused by an earthquake in each region in finer detail.

1 is a diagram showing a configuration example of an information processing system; FIG. It is a figure explaining an example of the hardware constitutions of a server apparatus. It is the figure which showed the example of functional structure of a server apparatus. It is the figure which showed the example of the functional structure of a 1st seismic sensor. It is the figure which showed the example of the functional structure of the 2nd seismic sensor. 4 is a flowchart showing an example of the flow of processing performed by the information processing system; It is the figure which showed an example of the screen which the screen production|generation part produced|generated. FIG. 4 is a diagram showing the arrangement of second seismic sensors and size information obtained based on outputs from each of the second seismic sensors; FIG. 10 is a diagram showing an example of another screen generated by the screen generator; FIG. 10 is a diagram showing an example of another screen generated by the screen generator; FIG. 10 is a diagram showing an example of another screen generated by the screen generator;

BEST MODE FOR CARRYING OUT THE INVENTION Hereinafter, embodiments of the present invention will be described in detail with reference to the accompanying drawings.
FIG. 1 is a diagram showing a configuration example of an information processing system 1. As shown in FIG.
The information processing system 1 of this embodiment is composed of various terminals and devices connected to the cloud network 3 .
In FIG. 1, examples of terminals and devices connected to the cloud network 3 include a terminal device 20 operated by an administrator or the like, a server device 30 that receives vibration information, a first seismic sensor 40, and a second seismic sensor. A sensor 50 is provided.

A plurality of first seismic sensors 40, which are an example of an externally powered seismic sensor, are provided and installed at different locations.
Each of the first seismic sensors 40 operates with electric power supplied from the outside (operates with an external power source) and outputs vibration information, which is information about vibration at the point where it is installed.

A plurality of second seismic sensors 50, which are an example of a battery-type seismic sensor, are also provided and installed at different locations.
Each of the second seismic sensors 50 is powered by its own battery and outputs vibration information, which is information about vibration at the point where it is installed.

In this embodiment, more second seismic sensors 50 are installed than first seismic sensors 40 .
Also, the arrangement interval of the second seismic sensors 50 is smaller than the arrangement interval of the first seismic sensors 40 . In other words, in the present embodiment, the number of second seismic sensors 50 installed per unit area is greater than the number of first seismic sensors 40 installed per unit area.
The vibration information output from the first seismic sensor 40 and the second seismic sensor 50 is transmitted to the server device 30, and the server device 30 receives this vibration information.

FIG. 2 is a diagram illustrating an example of the hardware configuration of the server device 30. As shown in FIG.
A server device 30 as an example of an information processing device includes a control unit 101 that controls the operation of the entire device, a hard disk drive 102 that stores information, and a network that realizes communication via a LAN (=Local Area Network) cable or the like. and an interface 103 .

The control unit 101 includes a CPU (=Central Processing Unit) 111, a ROM (=Read Only Memory) 112 storing basic software, BIOS (=Basic Input Output System), etc., and a RAM (=Random Memory) used as a work area. Access Memory) 113. The CPU 111 may be multi-core. Also, the ROM 112 may be a rewritable non-volatile semiconductor memory. The control unit 101 is a so-called computer.

The hard disk drive 102 is a device that reads and writes data in a non-volatile storage medium having a disc-shaped substrate coated with a magnetic material. However, the non-volatile storage medium may be semiconductor memory or magnetic tape.
In addition, the server device 30 is also provided with input devices such as a keyboard and mouse, and display devices such as a liquid crystal display, as required.
The control unit 101, hard disk drive 102, and network interface 103 are connected via a bus 104 and signal lines (not shown).

FIG. 3 is a diagram showing an example of the functional configuration of the server device 30. As shown in FIG.
The server device 30 is provided with an earthquake information acquisition section 31 , a vibration information acquisition section 32 , a screen generation section 33 , and an information storage section 34 .
The earthquake information acquisition unit 31, the vibration information acquisition unit 32, and the screen generation unit 33 are implemented, for example, by execution of programs by the control unit 101 (see FIG. 2). Also, the information storage unit 34 is realized by the hard disk drive 102, for example.

In the present embodiment, a case has been described in which these functional units are provided in the server device 30 as an example of the information processing device. It may be distributed to a plurality of information processing apparatuses.
In this case, an information processing system is configured by the plurality of information processing apparatuses, and these functional units are realized by the information processing system.

The earthquake information acquisition unit 31 accesses an external server, acquires information on the presence or absence of an earthquake, and determines whether or not an earthquake has occurred.
The vibration information acquisition unit 32 as an example of acquisition means acquires vibration information output from the first seismic sensor 40 and the second seismic sensor 50 .
The screen generation unit 33 as an example of a screen generation means generates a screen in which a plurality of areas are displayed based on the vibration information output from each of the first seismic sensor 40 and the second seismic sensor 50, and each area generates a screen that allows the user to grasp the magnitude of the shaking in the
The information storage unit 34 stores and holds vibration information output from the first seismic sensor 40 and the second seismic sensor 50 and transmitted to the server device 30 .

FIG. 4 is a diagram showing an example of the functional configuration of the first seismic sensor 40. As shown in FIG.
The first seismic sensor 40 of this embodiment includes a vibration detection unit 41 , a position information acquisition unit 42 , a processing unit 43 , a power supply unit 44 , a transmission/reception unit 45 and an information storage unit 46 .

The vibration detection unit 41 is configured by a so-called seismometer, and acquires and outputs vibration information, which is vibration information at the location where the first seismic sensor 40 is installed.
More specifically, the vibration detection unit 41 is provided with a movable body (not shown) that physically shakes in response to vibration and a detection sensor (not shown) that detects the position of this movable body. Vibrations caused by earthquakes are detected by detecting the positions of movable bodies.

The positional information acquisition unit 42 acquires and outputs the positional information of the location where the first seismic sensor 40 is installed. This positional information acquiring unit 42 is configured including, for example, a GPS sensor, and acquires positional information of the first seismic sensor 40 by receiving radio waves from GPS satellites.
The processing unit 43 includes a CPU, a ROM, and a RAM, and executes a program stored in the ROM or the like to perform predetermined processing.

The power supply unit 44 supplies power to each functional unit of the first seismic sensor 40 . In the present embodiment, power is supplied from the outside to the power supply unit 44, and the functional units of the first seismic sensor 40 are supplied with power from the outside.
The transmitting/receiving unit 45 is composed of various existing communication interfaces, and transmits information to the server device 30 and receives information from the server device 30 .

In the present embodiment, the transmission/reception unit 45 transmits/receives information to/from the server device 30 through so-called wireless communication, but may transmit/receive information to/from the server device 30 through wired communication.
The information storage unit 46 is configured by an information storage device such as a memory card, and stores various types of information regarding vibration.

FIG. 5 is a diagram showing an example of the functional configuration of the second seismic sensor 50. As shown in FIG.
The second seismic sensor 50 of this embodiment includes a vibration detection unit 51 , a position information acquisition unit 52 , a processing unit 53 , a power supply unit 54 , a transmission/reception unit 55 and an information storage unit 56 .

The vibration detection unit 51 is composed of an acceleration sensor using MEMS (Micro Electro Mechanical System) technology, and acquires and outputs vibration information, which is vibration information at the location where the second seismic sensor 50 is installed.
Since the second seismic sensor 50 uses MEMS in this way, it is possible to reduce the size and weight of the second seismic sensor 50 . Also, the second seismic sensor 50 is cheaper than the first seismic sensor 40 and can be installed in large numbers. Therefore, by using the second seismic sensor 50, it becomes possible to grasp the magnitude of shaking caused by an earthquake in each region in finer detail.

The positional information acquiring unit 52 acquires and outputs the positional information of the location where the second seismic sensor 50 is installed. This positional information acquiring unit 52 is configured including, for example, a GPS sensor, and acquires positional information of the second seismic sensor 50 by receiving radio waves from GPS satellites.

The processing unit 53 includes a CPU, a ROM, and a RAM, and executes a program stored in the ROM or the like to perform predetermined processing.
The power supply unit 54 supplies power to each functional unit of the second seismic sensor 50 . This power supply unit 54 is a battery, and each of the second seismic sensors 50 of the present embodiment operates independently without receiving power supply from the outside.

The transmitting/receiving unit 55 is composed of various existing communication interfaces, and transmits information to the server device 30 and receives information from the server device 30 .
In the present embodiment, the transmitting/receiving unit 55 transmits/receives information to/from the server device 30 through so-called wireless communication, but may transmit/receive information to/from the server device 30 through wired communication.
The information storage unit 56 is configured by an information storage device such as a memory card, and stores various types of information regarding vibration.

FIG. 6 is a flowchart showing an example of the flow of processing performed by the information processing system 1 of this embodiment.
In this embodiment, first, the earthquake information acquisition unit 31 of the server device 30 determines whether or not an earthquake has occurred at regular time intervals (step S101).
Specifically, the earthquake information acquisition unit 31 accesses an external server that transmits the presence or absence of an earthquake at predetermined time intervals such as every few seconds, and acquires information on the presence or absence of an earthquake, Determine whether or not an earthquake has occurred.
In the present embodiment, the case of accessing the external server and determining whether or not an earthquake has occurred has been described as an example. Alternatively, based on the output from the second seismic sensor 50, it may be determined whether or not an earthquake has occurred.

When the earthquake information acquisition unit 31 determines that an earthquake has occurred, the vibration information acquisition unit 32 reads the vibration information from the information storage unit 34 (see FIG. 3) and acquires the vibration information (step S102). .
In addition, in this embodiment, the vibration information output from the first seismic sensor 40 and the second seismic sensor 50 is stored in the information storage unit 34, and the vibration information acquisition unit 32 The vibration information obtained by the first seismic sensor 40 and the second seismic sensor 50 is read out from the information storage unit 34 to acquire the vibration information.

More specifically, the vibration information acquisition unit 32 acquires the vibration information stored in the information storage unit 34 for a predetermined period based on when the earthquake information acquisition unit 31 determines that an earthquake has occurred. Vibration information stored in the information storage unit 34 after going back is acquired.
Additionally, in this embodiment, the vibration information output by the first seismic sensor 40 and the second seismic sensor 50 when an earthquake occurs is read from the information storage unit 34 and acquired.

Next, in the present embodiment, the screen generation unit 33 generates a screen (screen information) displayed on the terminal device 20 or the like based on the vibration information acquired by the vibration information acquisition unit 32 (step S103).
More specifically, based on the vibration information acquired by the vibration information acquisition unit 32 (based on the vibration information output by the first seismic sensor 40 and the second seismic sensor 50), the screen generation unit 33 generates a plurality of regions. is displayed, and the user can grasp the magnitude of shaking in each area.

The screen generated by the screen generator 33 is transmitted to, for example, the terminal device 20 (see FIG. 1) and displayed on a display (display device) provided in the terminal device 20. FIG.
The screen generated by the screen generation unit 33 is not limited to the terminal device 20, and may be transmitted to another device at the request of the user. In this case, the display (display device) of this other device will display this screen.

FIG. 7 is a diagram showing an example of a screen generated by the screen generator 33. As shown in FIG.
In this screen shown in FIG. 7, a plurality of areas are displayed, and information about the magnitude of shaking (hereinafter referred to as "magnitude information") is displayed for each area.
More specifically, in FIG. 7, six areas A to F are displayed, and magnitude information, which is information about the magnitude of shaking, is displayed for each area.
Here, the magnitude information in this embodiment is the so-called seismic intensity, which indicates the magnitude of shaking numerically. In this embodiment, the seismic intensity is displayed to the first decimal place.

Here, the screen generation unit 33 of the present embodiment varies the number of pieces of size information to be displayed in association with each region according to the area (size, width) of each of the plurality of regions.
More specifically, the larger the area of the region, the larger the number of pieces of size information to be displayed, and the smaller the area of the region, the smaller the number of pieces of size information to be displayed.

More specifically, in this embodiment, when the size (area) of the region exceeds a predetermined threshold value, the number of pieces of size information to be displayed is increased.
Here, in the example shown in FIG. 7, the size (area) of region C is large, and this size exceeds the threshold. The number is two. More specifically, two pieces of size information "4.5" are displayed.
As a result, regardless of the size of the area, it becomes easier to grasp the magnitude of the shake in each area compared to the case where the number of pieces of size information is one.

FIG. 8 is a diagram showing the arrangement of the second seismic sensors 50 and magnitude information obtained based on the output (vibration information) from each of the second seismic sensors 50. As shown in FIG.
In this embodiment, when the server device 30 obtains the vibration information from the first seismic sensor 40 and the second seismic sensor 50, the server device 30 uses a predetermined calculation formula or the like to convert this vibration information into Convert to size information.
In FIG. 8 , this size information after being converted into size information is displayed in association with each installation location of the second seismic sensor 50 .

In this example, a case is illustrated in which magnitude information of 4.0 is detected at the installation location of one second seismic sensor 50 indicated by reference numeral 8A.
Also, in this example, the case where the magnitude information of 4.2 is detected by each of the three second seismic sensors 50 indicated by reference numeral 8B is illustrated.
Also, in this example, a case where magnitude information of 4.5 is detected by each of the eight second seismic sensors 50 indicated by reference numeral 8C is illustrated.

Also, in this example, the case where the magnitude information of 4.6 is detected by each of the three second seismic sensors 50 indicated by reference numeral 8D is illustrated.
Also, in this example, a case where magnitude information of 4.9 is detected by each of the four second seismic sensors 50 denoted by reference numeral 8E is illustrated.
Also, in this example, the case where the magnitude information of 5.2 is detected by each of the three second seismic sensors 50 indicated by reference numeral 8F is illustrated.

The screen generator 33 of this embodiment generates the screen shown in FIG. 7 from the state shown in FIG.
In this generation, the screen generation unit 33 first generates a boundary line (see FIG. 8) indicated by reference numeral 8X so that pieces of size information with the same value belong to the same region. As a result, six regions A to F are formed in this embodiment, as shown in FIG.

Then, the screen generator 33 associates each of these six areas with size information obtained based on the output from the second seismic sensor 50 installed in each area.
In addition, the screen generator 33 attaches size information obtained based on the output from the second seismic sensor 50 installed in each area to each of the plurality of areas.
As a result, the screen shown in FIG. 7 is generated.

This screen will be further described with reference to the screen shown in FIG.
On the screen shown in FIG. 7, any numerical value from "1" to "3" is displayed below each size information. This numerical value is information representing the certainty of the size information.
In addition, in this embodiment, the size information is displayed in association with each region, but in the screen shown in FIG. 7, a numerical value representing the likelihood of this size information is also displayed. .
Here, in the present embodiment, out of "1" to "3", "1" indicates the most certain, and "3" indicates the most uncertain.

Here, in the present embodiment, the screen generator 33 obtains the numerical value representing the probability based on the number of second seismic sensors 50 installed in each area.
More specifically, the screen generation unit 33 makes the numerical value closer to “1” as the number of installed second seismic sensors 50 increases, and the numerical value becomes “1” as the number of installed second seismic sensors 50 decreases. 3” to get each number.

More specifically, in the present embodiment, the screen generator 33 obtains the numerical value “1” when the number of installed second seismic sensors 50 exceeds the first threshold value (for example, 5).
Further, when the number of installed second seismic sensors 50 is smaller than a second threshold (for example, 3) which is smaller than the first threshold, the screen generator 33 obtains the numerical value “3”.
Further, when the number of installed second seismic sensors 50 is equal to or less than the first threshold value and equal to or more than the second threshold value, the screen generator 33 obtains the numerical value "2".

More specifically, in the present embodiment, the information storage unit stores a reference table (not shown) in which the number of installed second seismic sensors 50 and the above numerical values "1" to "3" are associated and registered. 34 (see FIG. 3).
The screen generation unit 33 refers to this reference table, acquires one of the numerical values '1' to '3' for each area, and assigns the numerical values '1' to '3' to each area. match something.

Here, in the present embodiment, for example, the number of the second seismic sensors 50 installed in the area A is 1, and "3" is associated with it.
Further, for example, the number of the second seismic sensors 50 installed in the area C is 8, so that it is associated with "1".
Also, for example, the number of the second seismic sensors 50 installed in the area F is 3, so that it is associated with "2".

FIG. 9 is a diagram showing an example of another screen generated by the screen generator 33. As shown in FIG.
In the example shown in FIG. 9 , the size information displayed in association with the area A is size information obtained based on the output from the first seismic sensor 40 .
More specifically, in the example shown in FIG. 9, a first seismic sensor 40 is installed at a location indicated by reference numeral 9A, and area A is obtained based on the output from this first seismic sensor 40. The size information obtained (size information of "4.0") is displayed.

Here, in the region A, the number of the second seismic sensors 50 installed is one (see FIG. 8), and in the region A, the number of the second seismic sensors 50 installed is a predetermined number. It is smaller than a threshold (eg, 3). Additionally, in this region A, the installation density of the second seismic sensors 50 (the number of installed second seismic sensors 50 per unit area) is smaller than a predetermined threshold.
As described above, if the installation number or installation density of the second seismic sensors 50 is small, the accuracy of the obtained size information tends to be low. In other words, the accuracy of the size information displayed in association with the area A tends to be low.

In addition, when a large number of second seismic sensors 50 are installed and the same size information is detected by the large number of second seismic sensors 50, the large number of second seismic sensors 50 are installed. It can be said that the accuracy of the size information in the region with the
On the other hand, when the size information is acquired based on the output from the second seismic sensors 50, if the number of the second seismic sensors 50 is small (if the arrangement density of the second seismic sensors 50 is small), It is difficult to say that the accuracy of this size information is ensured.

Therefore, in the present embodiment, for the area A where the number of installed second seismic sensors 50 or the arrangement density is small, size information based on the vibration information obtained by the first seismic sensor 40 is displayed. there is
In addition, in the present embodiment, among the plurality of regions, the region in which the number of installed second sensors is smaller than a predetermined threshold and the region in which the arrangement density of the second seismic sensors 50 is smaller than a predetermined threshold , the size information based on the vibration information obtained by the first seismic sensor 40 is displayed.

In the present embodiment, the first seismic sensor 40 is a so-called seismometer, and has better detection accuracy of vibration information than the second seismic sensor 50 .
Therefore, in the present embodiment, for a region where the second seismic sensors 50 are installed in a small number and arrangement density and the detection accuracy of vibration information is low, size information based on the vibration information obtained by the first seismic sensor 40 is obtained. is displayed.

In the example shown in FIG. 9, instead of the size information obtained based on the output from the second seismic sensor 50, the size information obtained based on the output from the first seismic sensor 40 is displayed. Although the case has been described, the display form is not limited to this.
In addition to the size information obtained based on the output from the second seismic sensor 50, the size information obtained based on the output from the first seismic sensor 40 may be displayed.

FIG. 10 is a diagram showing an example of another screen generated by the screen generator 33. As shown in FIG.
In this screen, as indicated by reference numeral 10A, size information obtained based on the output from the first seismic sensor 40 (="4.5 ”) is displayed.
More specifically, in this example, the location indicated by reference numeral 10A is the prefectural capital, and the first seismic sensor 40 is installed in this prefectural capital. Size information obtained based on the output from the seismic sensor 40 is displayed.

In the example shown in FIG. 7 and the like, magnitude information is displayed for each region, and the magnitude of shaking at a specific point is not clear.
On the other hand, in this example shown in FIG. 10, the magnitude of shaking at a specific point is displayed, and the magnitude of shaking at this specific point can be grasped.
Also, the magnitude of shaking at this specific point was obtained by the first seismic sensor 40 with high detection accuracy. The magnitude of shaking obtained by the first seismic sensor 40 can be grasped.
10, size information obtained based on the output from the first seismic sensor 40 (hereinafter referred to as "first size information") and information obtained based on the output from the second seismic sensor 50 are shown. Although a case has been described in which two pieces of size information (hereinafter referred to as "second size information") are displayed in area C, the display form is not limited to this.
For example, based on the number of installed second seismic sensors 50 and the arrangement density of the second seismic sensors 50, it is determined whether to display the first size information or the second size information. Only information may be displayed.
More specifically, for example, the number of second seismic sensors 50 installed in region C exceeds a predetermined threshold, or the arrangement density of second seismic sensors 50 in region C exceeds a predetermined threshold. If it exceeds, the accuracy of the size information can be ensured, so only the second size information is displayed.
On the other hand, for example, the number of second seismic sensors 50 installed in region C does not exceed a predetermined threshold, or the arrangement density of second seismic sensors 50 in region C exceeds a predetermined threshold. If not, it becomes difficult to ensure the accuracy of the second size information, so only the first size information is displayed.

FIG. 11 is a diagram showing an example of another screen generated by the screen generator 33. As shown in FIG.
In this example, the screen generation unit 33 generates a screen on which a plurality of areas are displayed, and the color of each area differs according to the magnitude of the shake in each area.
In the example shown above, the case where size information (specific numerical values) is displayed in association with each area has been explained. The size information of each area may be displayed by adding a color to the area according to its size.

In this example, each region is colored with one of red, yellow, and green.
More specifically, the red color indicated by symbol 11A indicates that the value specified by the size information is 5.0 or more, and in this embodiment, the value specified by the size information is 5.0 or more. area is colored in red.

In addition, yellow indicated by symbol 11B indicates that the value specified by the size information is 3.0 or more and less than 5.0, and in the present embodiment, the value specified by the size information is 3.0 or more. Areas below 5.0 are colored yellow.
Green indicated by reference numeral 11C indicates that the value specified by the size information is 0.0 or more and less than 3.0, and in the present embodiment, the value specified by the size information is 0.0 or more. Areas below 3.0 are colored green.

In this example, three colors of red, yellow, and green are used, but the colors are not limited to this, and two colors or four or more colors may be applied to each area. .
In addition to coloring, the above numerical values (numerical values representing size information) may also be displayed.

DESCRIPTION OF SYMBOLS 1... Information processing system 32... Vibration information acquisition part 33... Screen generation part 50... 2nd seismic sensor

Claims (12)

Acquisition means for acquiring vibration information output from each of a plurality of seismic sensors that are battery-operated and output vibration information that is information about vibration caused by an earthquake;
screen generation means for generating a screen displaying a plurality of areas and displaying information about the magnitude of shaking in each area, based on the vibration information output from the plurality of seismic sensors;
with
The screen generating means generates the screen on which the plurality of areas are displayed and magnitude information, which is information about the magnitude of the shaking, is displayed for each of the areas, and when generating the screen, the varying the number of pieces of size information displayed for each region according to the area of each of the plurality of regions;
Information processing system. Acquisition means for acquiring vibration information output from each of a plurality of seismic sensors that are battery-operated and output vibration information that is information about vibration caused by an earthquake;
screen generation means for generating a screen displaying a plurality of areas and displaying information about the magnitude of shaking in each area, based on the vibration information output from the plurality of seismic sensors;
with
The screen generation means is the screen on which the plurality of areas are displayed, wherein size information, which is information about the magnitude of the shake, is displayed for each area and indicates the likelihood of the size information. generate the relevant screen with the information displayed;
Information processing system. Acquisition means for acquiring vibration information output from each of a plurality of seismic sensors that are battery-operated and output vibration information that is information about vibration caused by an earthquake;
screen generation means for generating a screen displaying a plurality of areas and displaying information about the magnitude of shaking in each area, based on the vibration information output from the plurality of seismic sensors;
with
In addition to the vibration information output from the battery-powered seismic sensor that is the seismic sensor that operates on a battery, the acquisition means receives vibration information that is output from an externally powered seismic sensor that is a seismic sensor that operates on an external power source. Get more vibration information,
The screen generating means generates the screen on which the plurality of areas are displayed and magnitude information, which is information about the magnitude of the shaking, is displayed for each of the areas, and when generating the screen, the plurality of Among the areas, for areas where the number or installation density of the battery-powered seismic sensors is smaller than the threshold, the size information based on the vibration information obtained by the externally powered seismic sensor is displayed. to make
Information processing system. Acquisition means for acquiring vibration information output from each of a plurality of seismic sensors that are battery-operated and output vibration information that is information about vibration caused by an earthquake;
screen generation means for generating a screen displaying a plurality of areas and displaying information about the magnitude of shaking in each area, based on the vibration information output from the plurality of seismic sensors;
with
In addition to the vibration information output from the battery-powered seismic sensor that is the seismic sensor that operates on a battery, the acquisition means receives vibration information that is output from an externally powered seismic sensor that is a seismic sensor that operates on an external power source. Get more vibration information,
The screen generation means is the screen on which the plurality of areas are displayed and magnitude information, which is information about the magnitude of the shaking, is displayed for each of the areas, and is obtained by the externally powered seismic sensor. generating a screen on which information about the magnitude of shaking based on the vibration information obtained is displayed at a location corresponding to the installation location of the externally powered seismic sensor;
Information processing system. Acquisition means for acquiring vibration information output from each of a plurality of seismic sensors that are battery-operated and output vibration information that is information about vibration caused by an earthquake;
screen generation means for generating a screen displaying a plurality of areas and displaying information about the magnitude of shaking in each area, based on the vibration information output from the plurality of seismic sensors;
with
The screen generating means generates the screen on which the plurality of areas are displayed and magnitude information, which is information about the magnitude of the shaking, is displayed for each of the areas, and when generating the screen, the varying the number of pieces of size information displayed for each region according to the area of each of the plurality of regions;
Information processing equipment. Acquisition means for acquiring vibration information output from each of a plurality of seismic sensors that are battery-operated and output vibration information that is information about vibration caused by an earthquake;
screen generation means for generating a screen displaying a plurality of areas and displaying information about the magnitude of shaking in each area, based on the vibration information output from the plurality of seismic sensors;
with
The screen generation means is the screen on which the plurality of areas are displayed, wherein size information, which is information about the magnitude of the shake, is displayed for each area and indicates the likelihood of the size information. generate the relevant screen with the information displayed;
Information processing equipment. Acquisition means for acquiring vibration information output from each of a plurality of seismic sensors that are battery-operated and output vibration information that is information about vibration caused by an earthquake;
screen generation means for generating a screen displaying a plurality of areas and displaying information about the magnitude of shaking in each area, based on the vibration information output from the plurality of seismic sensors;
with
In addition to the vibration information output from the battery-powered seismic sensor that is the seismic sensor that operates on a battery, the acquisition means receives vibration information that is output from an externally powered seismic sensor that is a seismic sensor that operates on an external power source. Get more vibration information,
The screen generating means generates the screen on which the plurality of areas are displayed and magnitude information, which is information about the magnitude of the shaking, is displayed for each of the areas, and when generating the screen, the plurality of Among the areas, for areas where the number or installation density of the battery-powered seismic sensors is smaller than the threshold, the size information based on the vibration information obtained by the externally powered seismic sensor is displayed. to make
Information processing equipment. Acquisition means for acquiring vibration information output from each of a plurality of seismic sensors that are battery-operated and output vibration information that is information about vibration caused by an earthquake;
screen generation means for generating a screen displaying a plurality of areas and displaying information about the magnitude of shaking in each area, based on the vibration information output from the plurality of seismic sensors;
with
In addition to the vibration information output from the battery-powered seismic sensor that is the seismic sensor that operates on a battery, the acquisition means receives vibration information that is output from an externally powered seismic sensor that is a seismic sensor that operates on an external power source. Get more vibration information,
The screen generation means is the screen on which the plurality of areas are displayed and magnitude information, which is information about the magnitude of the shaking, is displayed for each of the areas, and is obtained by the externally powered seismic sensor. generating a screen on which information about the magnitude of shaking based on the vibration information obtained is displayed at a location corresponding to the installation location of the externally powered seismic sensor;
Information processing equipment. an acquisition function that acquires vibration information output from each of a plurality of seismic sensors that are powered by a battery and output vibration information that is information about vibration caused by an earthquake;
a screen generation function for generating a screen on which a plurality of areas are displayed and on which information about the magnitude of shaking in each area is displayed, based on the vibration information output from the plurality of seismic sensors;
is a program for realizing on a computer,
The screen generation function generates the screen in which the plurality of areas are displayed and magnitude information, which is information about the magnitude of the shaking, is displayed for each of the areas, and when generating the screen, the varying the number of pieces of size information displayed for each region according to the area of each of the plurality of regions;
program . an acquisition function that acquires vibration information output from each of a plurality of seismic sensors that are powered by a battery and output vibration information that is information about vibration caused by an earthquake;
a screen generation function for generating a screen on which a plurality of areas are displayed and on which information about the magnitude of shaking in each area is displayed, based on the vibration information output from the plurality of seismic sensors;
is a program for realizing on a computer,
The screen generation function is the screen on which the plurality of areas are displayed, wherein size information, which is information about the magnitude of the shaking, is displayed for each area and indicates the likelihood of the size information. generate the relevant screen with the information displayed;
program . an acquisition function that acquires vibration information output from each of a plurality of seismic sensors that are powered by a battery and output vibration information that is information about vibration caused by an earthquake;
a screen generation function for generating a screen on which a plurality of areas are displayed and on which information about the magnitude of shaking in each area is displayed, based on the vibration information output from the plurality of seismic sensors;
is a program for realizing on a computer,
In addition to the vibration information output from the battery-powered seismic sensor, which is the seismic sensor that operates on a battery, the acquisition function includes the vibration information that is output from an externally powered seismic sensor that is a seismic sensor that operates on an external power source. Get more vibration information,
The screen generation function generates the screen on which the plurality of regions are displayed and magnitude information, which is information about the magnitude of the shaking, is displayed for each region, and when generating the screen, the plurality of Among the areas, for areas where the number or installation density of the battery-powered seismic sensors is smaller than the threshold, the size information based on the vibration information obtained by the externally powered seismic sensor is displayed. to make
program . an acquisition function that acquires vibration information output from each of a plurality of seismic sensors that are powered by a battery and output vibration information that is information about vibration caused by an earthquake;
a screen generation function for generating a screen on which a plurality of areas are displayed and on which information about the magnitude of shaking in each area is displayed, based on the vibration information output from the plurality of seismic sensors;
is a program for realizing on a computer,
In addition to the vibration information output from the battery-powered seismic sensor, which is the seismic sensor that operates on a battery, the acquisition function includes the vibration information that is output from an externally powered seismic sensor that is a seismic sensor that operates on an external power source. Get more vibration information,
The screen generation function is the screen on which the plurality of areas are displayed and magnitude information, which is information about the magnitude of the shaking, is displayed for each of the areas, and the screen is obtained by the externally powered seismic sensor. generating a screen on which information about the magnitude of shaking based on the vibration information obtained is displayed at a location corresponding to the installation location of the externally powered seismic sensor;
program .

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