An emergency earthquake information receiving, processing and publishing service management system

Abstract

The present invention relates to the field of earthquake early warning technology, and in particular to an emergency earthquake information reception, processing and publishing service management system, comprising an earthquake monitoring station, a data processing center, an information publishing platform and a receiving terminal; the data processing center pushes earthquake information including earthquake rapid report information, earthquake intensity rapid report information and disaster assessment information and corresponding call information to the receiving terminal; the earthquake monitoring station collects data, the data processing center analyzes and selects the call information, and calculates whether the sending of the call information exceeds the signal carrying capacity of the information publishing platform; if so, some receiving terminals are selected as information forwarding platforms; the call information and the geographical range are sent to the information forwarding platform through the information publishing platform; the information forwarding platform forwards to the remaining receiving terminals; the present invention calculates the carrying capacity of the information publishing platform, and if it exceeds, some receiving terminals are converted into information forwarding platforms, and can realize multi-mode and multi-directional transmission according to grid division combined with the interaction between the receiving terminals.

Description

Technical Field

[0001] The present invention relates to the technical field of earthquake early warning, and in particular to an emergency earthquake information receiving, processing and publishing service management system. Background Art

[0002] Earthquake early warning network traffic refers to the network data traffic generated by the transmission of earthquake information, data exchange, and system maintenance in the earthquake early warning system. Among them, earthquake information includes: earthquake rapid reporting information, earthquake intensity rapid reporting information, disaster assessment information, etc. Specifically, the earthquake early warning system usually includes multiple components such as earthquake monitoring stations, data processing centers, and information release platforms. These components need to exchange and communicate real-time data through the network. When an earthquake occurs, the earthquake monitoring station will quickly collect seismic wave data and send this data to the data processing center through the network. The data processing center will quickly analyze the received data and generate earthquake information. This information will then be released to the public through specific communication channels, such as mobile phone text messages, TV broadcasts, and the Internet. In order to achieve timely warning, a large number of text messages or data signals need to be sent at one time, which will cause signal congestion. If sent in batches, it is necessary to wait for one batch to be sent before sending the next batch, which greatly affects the warning effect. Moreover, in some places with poor signals, signal loss may occur, and earthquake information cannot be pushed, or excessive delays in pushing make the push meaningless; therefore, there is a need for an emergency earthquake information reception, processing and release service management system that can provide timely warnings and ensure that earthquake warnings are pushed to everyone. Summary of the invention

[0003] The technical problem to be solved by the present invention is to provide an emergency earthquake information receiving, processing and publishing service management system which can provide timely warning and ensure that earthquake warning is pushed to everyone.

[0004] In order to solve the above technical problems, the technical solution adopted by the present invention is:

[0005] An emergency earthquake information receiving, processing and publishing service management system, comprising an earthquake monitoring station, a data processing center, an information publishing platform and a plurality of receiving terminals;

[0006] The receiving terminal includes multiple data connection methods; multiple receiving terminals realize data interaction through multiple data connection methods, and the receiving terminal sends the location information of the receiving terminal to the data processing center when the data processing center does not release information;

[0007] The data processing center generates a basic package containing earthquake information of different levels and call information corresponding to the earthquake information of different levels, and sends the basic package and call information to the receiving terminal through the information publishing platform, and the receiving terminal saves the basic package and call information locally;

[0008] The earthquake monitoring station collects earthquake wave data and sends the earthquake wave data to the data processing center. The data processing center analyzes the received earthquake wave data to generate earthquake information and selects the corresponding call information. The data processing center determines the geographical scope for sending earthquake information and calculates whether the signal carrying capacity of the information release platform will be exceeded when sending the call information to all receiving terminals within the geographical scope. If not, the call information is directly sent to the receiving terminal through the information release platform. After receiving the call information, the receiving terminal selects the corresponding earthquake information through the call information for warning; if so, multiple receiving terminals are selected as information forwarding platforms according to the positioning information sent by the receiving terminal, and the geographical scope is divided into multiple areas to ensure that there are at least two information forwarding platforms in each area, and the other receiving terminals are waiting terminals; the total number of information forwarding platforms is determined by: dividing the maximum carrying capacity of the information release platform by the sum of the call information and the geographical scope to obtain the total number of information forwarding platforms, and if a remainder is encountered, the remainder is removed and rounded up; the call information and the geographical scope are sent to the information forwarding platform through the information release platform;

[0009] After receiving the call information and the geographical scope, the information forwarding platform exchanges data with other multiple waiting terminals, synchronizes the call information and the geographical scope to the waiting terminal, and the waiting terminal executes a judgment step after receiving the data. The judgment step includes: judging whether the call information and the geographical scope have appeared before, if not, obtaining the positioning information of the waiting terminal, judging whether the waiting terminal is located within the geographical scope, if not, no early warning is issued, and if so, after receiving the call information, the corresponding earthquake information is selected through the call information for warning; if it has appeared before, the judgment step is terminated;

[0010] While the waiting terminal interacts with the information forwarding platform, it interactively pushes the calling information and geographical range to other waiting terminals and / or information forwarding platforms. After receiving the data, the waiting terminal or the information forwarding platform executes the judgment step.

[0011] Preferably, the data processing center regularly calculates whether the signal carrying capacity of the information publishing platform will be exceeded when sending call information to all receiving terminals within the geographical range during push. If the number of times the signal carrying capacity of the information publishing platform is exceeded exceeds a preset number, a signal capacity warning is issued.

[0012] Preferably, the receiving terminal includes multiple warning methods. When the receiving terminal warns, it simultaneously obtains the positioning information of the receiving terminal and determines whether the positioning information has changed. If so, the warning stops after a predetermined time. Otherwise, multiple warning methods are selected to warn until the warning duration ends.

[0013] Preferably, the data processing center synchronizes the uploaded positioning information of the receiving terminal to a remote database when the calling information is not released.

[0014] Preferably, the data processing center deletes the last stored positioning information after updating the uploaded positioning information of the receiving terminal when the calling information is not released in the remote database.

[0015] Preferably, the data processing center obtains the last power-on number of receiving terminals before the call information is released and the power-on number of receiving terminals after the call information is released.

[0016] Preferably, the data processing center receives the positioning information sent from the receiving terminal through the information publishing platform after calling the information publishing.

[0017] Preferably, after invoking information release, the data processing center receives positioning information, edited text information, and picture information from the receiving terminal through the information release platform.

[0018] Preferably, while the waiting terminal interacts with the information forwarding platform, the waiting terminal and / or the information forwarding platform suspends other running programs to preferentially push the calling information and geographical range to other waiting terminals and / or information forwarding platforms for interaction.

[0019] Preferably, when the waiting terminal and / or information forwarding platform interacts with other waiting terminals and / or information forwarding platforms, it determines whether to push the call information and geographical range twice to them. If it reaches twice, it will not be pushed again. If it does not reach twice, it will be pushed once.

[0020] The beneficial effects of the present invention are as follows: by calculating the carrying capacity of the information release platform, it is possible to directly push the warning when a one-time warning notification is met, thus avoiding wasting time and ensuring the timeliness of the warning. There is no need to push geographic information, and it can be pushed directly according to the geographic scope without pushing geographic scope information. By generating basic packages containing earthquake information of different levels and call information corresponding to earthquake information of different levels, the amount of data of a single signal sent during earthquake warning can be made smaller, without the need to include the entire earthquake information, and thus signals can be sent to more receiving terminals, ensuring the effect of a one-time comprehensive earthquake warning and avoiding delays caused by sending signals in batches. If the carrying capacity of the information release platform is exceeded, some of the existing receiving terminals can be directly converted into information forwarding platforms, and the positioning information uploaded by the receiving terminals can be well divided into areas and pushed when converting the information forwarding platform. In addition, the original multiple receiving terminals can interact through multiple data transmission methods, such as WiFi, Bluetooth, NFC, etc., to realize multiple ways of transmitting alarm information, ensuring that the information forwarding platform can simultaneously communicate with multiple waiting terminals or communicate with different waiting terminals through multiple data interaction methods. Moreover, these channels are usually idle, and it is rare for multiple channels to be occupied at the same time, ensuring that earthquake warnings can spread quickly and in multiple directions. , showing exponential propagation, greatly improving the direction and speed of earthquake early warning, and at the same time reducing the possibility of data loss. The use of a variety of data interaction methods can avoid occupying traditional signal transmission volume, and can be transmitted in a local area network; combined with the simultaneous push of additional geographical ranges, the earthquake early warning will not be spread infinitely, avoiding panic caused by exceeding the geographical range; by having at least two or more information forwarding platforms in each area, the problem of failure of a single information forwarding platform can be avoided. While the waiting terminal interacts with the information forwarding platform, it interacts and pushes the call information and geographical range to other waiting terminals or information forwarding platforms, so that the information forwarding platform can receive the information again to avoid missing information. BRIEF DESCRIPTION OF THE DRAWINGS

[0021] Figure 1 A schematic diagram of the structure of an emergency earthquake information receiving, processing and publishing service management system according to a specific implementation mode of the present invention;

[0022] Figure 2 A schematic diagram of a flow chart of an emergency earthquake information receiving, processing and publishing service management system according to a specific embodiment of the present invention;

[0023] Explanation of numbers: 1. Earthquake monitoring station; 2. Data processing center; 3. Information release platform; 4. Information forwarding platform; 5. Waiting terminal. DETAILED DESCRIPTION

[0024] In order to explain the technical content, achieved objectives and effects of the present invention in detail, the following is an explanation in combination with the implementation modes and the accompanying drawings.

[0025] Please refer to Figure 1 as well as Figure 2 , an emergency earthquake information receiving, processing and publishing service management system, comprising an earthquake monitoring station 1, a data processing center 2, an information publishing platform 3 and a plurality of receiving terminals;

[0026] The receiving terminal includes multiple data connection methods; multiple receiving terminals realize data interaction through multiple data connection methods, and the receiving terminal sends the location information of the receiving terminal to the data processing center 2 when the data processing center 2 does not publish information;

[0027] The data processing center 2 generates a basic package containing earthquake information of different levels and call information corresponding to the earthquake information of different levels, and sends the basic package and call information to the receiving terminal through the information publishing platform 3, and the receiving terminal saves the basic package and call information locally;

[0028] The earthquake monitoring station 1 collects earthquake wave data and sends the earthquake wave data to the data processing center 2. The data processing center 2 analyzes the received earthquake wave data to generate earthquake information and selects the corresponding call information. The data processing center 2 determines the geographical scope of sending earthquake information, calculates whether the signal carrying capacity of the information publishing platform 3 will be exceeded when sending the call information to all receiving terminals within the geographical scope. If not, the call information is directly sent to the receiving terminal through the information publishing platform 3. After receiving the call information, the receiving terminal selects the corresponding earthquake information through the call information for warning; if so, multiple receiving terminals are selected as information forwarding platforms 4 according to the positioning information sent by the receiving terminal, and the geographical scope is divided into multiple areas to ensure that there are at least two or more information forwarding platforms 4 in each area, and the other receiving terminals are waiting terminals 5; the total number of information forwarding platforms 4 is determined by: dividing the maximum carrying capacity of the information publishing platform 3 by the sum of the call information and the geographical scope to obtain the total number of information forwarding platforms 4, and if a remainder is encountered, the remainder is removed and rounded; the call information and the geographical scope are sent to the information forwarding platform 4 through the information publishing platform 3;

[0029] After receiving the call information and the geographical range, the information forwarding platform 4 exchanges data with other multiple waiting terminals 5, and synchronizes the call information and the geographical range to the waiting terminal 5. After receiving the data, the waiting terminal 5 performs a judgment step, which includes: judging whether the call information and the geographical range have appeared before, if not, obtaining the positioning information of the waiting terminal 5, judging whether the waiting terminal 5 is located within the geographical range, if not, no early warning is issued, and if so, after receiving the call information, the corresponding earthquake information is selected through the call information for warning; if it has appeared, the judgment step is terminated;

[0030] While the waiting terminal 5 interacts with the information forwarding platform 4, it interactively pushes the calling information and geographical range to other waiting terminals 5 and / or information forwarding platforms 4. After receiving the data, the waiting terminal 5 or the information forwarding platform 4 executes the judgment step.

[0031] From the above description, it can be seen that by calculating the carrying capacity of the information release platform 3, it is possible to directly push the warning when the one-time warning notification is met, avoiding wasting time and ensuring the timeliness of the warning. There is no need to push geographic information, and it can be pushed directly according to the geographic scope without pushing geographic scope information. By generating basic packages containing earthquake information of different levels and call information corresponding to earthquake information of different levels, the amount of data of a single signal sent during the earthquake warning can be made smaller, without the need to include the entire earthquake information, and thus signals can be sent to more receiving terminals, ensuring the effect of a one-time comprehensive earthquake warning and avoiding delays caused by sending signals in batches. If the carrying capacity of the information release platform 3 is exceeded, some of the existing receiving terminals are directly converted into information forwarding platforms, and the positioning information uploaded by the receiving terminals at ordinary times can be used to divide the area and push it when converting the information forwarding platform. In addition, the original multiple receiving terminals can interact through multiple data transmission methods, such as WiFi, Bluetooth, NFC, etc., so that multiple methods of transmitting alarm information can be realized to ensure that the information forwarding platform 4 can simultaneously communicate with multiple waiting terminals 5 or communicate with different waiting terminals 5 through multiple data interaction methods. Moreover, these channels are usually idle, and there are rarely multiple channels occupied at the same time, which ensures that earthquake warnings can spread quickly and in multiple directions. It shows exponential propagation, which greatly improves the direction and speed of earthquake warning, and can reduce the possibility of data loss. It adopts a variety of data interaction methods to avoid occupying traditional signal transmission volume and can be transmitted in a local area network. Combined with the simultaneous push of additional geographical ranges, earthquake warnings will not be spread infinitely to avoid panic caused by exceeding the geographical range. By having at least two information forwarding platforms 4 in each area, the problem of failure of a single information forwarding platform 4 can be avoided. While the waiting terminal 5 interacts with the information forwarding platform 4, it pushes the call information and geographical range to other waiting terminals 5 or information forwarding platforms 4, so that the information forwarding platform 4 can receive the information again to avoid missing the information.

[0032] Furthermore, the data processing center 2 regularly calculates whether the signal carrying capacity of the information publishing platform 3 will be exceeded when sending call information to all receiving terminals within the geographical range during push. If the number of times the signal carrying capacity of the information publishing platform 3 is exceeded exceeds a preset number, a signal capacity warning is issued.

[0033] From the above description, it can be seen that the data processing center 2 regularly calculates whether the signal carrying capacity will be exceeded. If it is insufficient, a signal capacity warning is issued, which can facilitate the staff to upgrade the information release platform 3 in a timely manner to avoid the problem of long-term insufficient signal capacity causing warning failure when an earthquake occurs; the purpose is still to ensure the success of a one-time earthquake warning.

[0034] Furthermore, the receiving terminal includes multiple warning methods. When the receiving terminal warns, it simultaneously obtains the positioning information of the receiving terminal and determines whether the positioning information has changed. If so, the warning stops after a predetermined time. Otherwise, multiple warning methods are selected to warn until the warning duration ends.

[0035] From the above description, it can be seen that the positioning information is used to determine whether the holder of the receiving terminal escapes or avoids. If not, a warning is given in a variety of ways, such as sound, image, flash, color change of the screen, etc.

[0036] Furthermore, the data processing center 2 synchronizes the uploaded positioning information of the receiving terminal to a remote database as long as the calling information is not released.

[0037] From the above description, it can be seen that by storing the data in a different location, it is possible to avoid data being damaged when an earthquake occurs at the epicenter.

[0038] Furthermore, the data processing center 2 deletes the last stored positioning information after updating the uploaded positioning information of the receiving terminal when the calling information is not released in the remote database.

[0039] From the above description, it can be seen that by updating, the uploaded positioning information of the receiving terminal when no warning information is issued will be synchronized to the database in a different place. When an earthquake occurs, the database can be called to determine the gathering area of ​​​​people and facilitate the arrangement of rescue forces.

[0040] Furthermore, the data processing center 2 obtains the last number of receiving terminals powered on before the call information is released and the number of receiving terminals powered on after the call information is released.

[0041] From the above description, it can be seen that by determining the number of powered-on receiving terminals before and after an earthquake, data can be provided to rescue and medical personnel for reference.

[0042] Furthermore, after invoking information release, the data processing center 2 receives positioning information sent from the receiving terminal through the information release platform 3 .

[0043] From the above description, it can be seen that timely rescue can be facilitated by receiving the positioning information sent by the terminal.

[0044] Furthermore, after invoking information release, the data processing center 2 receives positioning information, edited text information, and picture information from the receiving terminal through the information release platform 3 .

[0045] From the above description, it can be seen that the edited text information and picture information can be used to judge the user's specific situation, surrounding conditions, etc., thereby improving the accuracy of rescue.

[0046] Furthermore, while the waiting terminal 5 interacts with the information forwarding platform 4, the waiting terminal 5 and / or the information forwarding platform 4 suspend other running programs to preferentially push the call information and geographical scope to other waiting terminals 5 and / or the information forwarding platform 4 for interaction.

[0047] From the above description, it can be seen that other programs are suspended by the receiving terminal (whether it is the waiting terminal 5 or the information forwarding platform 4), and push is given priority to ensure the timeliness of the push.

[0048] Furthermore, when the waiting terminal 5 and / or the information forwarding platform 4 interacts with other waiting terminals 5 and / or information forwarding platforms 4, it is determined whether to push the call information and geographical range twice to them. If it reaches twice, it will not be pushed again. If it does not reach twice, it will be pushed once.

[0049] From the above description, it can be seen that by using the call information and geographical range of the two pushes as the standard, the situation where no push occurs can be avoided, and combined with the judgment step, it can be achieved that pushing one more time will not cause repeated alarms. Embodiment 1

[0050] An emergency earthquake information receiving, processing and publishing service management system comprises an earthquake monitoring station 1, a data processing center 2, an information publishing platform 3 and a plurality of receiving terminals;

[0051] The receiving terminal includes multiple data connection methods; multiple receiving terminals realize data interaction through multiple data connection methods, and the receiving terminal sends the location information of the receiving terminal to the data processing center 2 when the data processing center 2 does not publish information;

[0052] The data processing center 2 generates a basic package containing earthquake information of different levels and call information corresponding to the earthquake information of different levels, and sends the basic package and call information to the receiving terminal through the information publishing platform 3, and the receiving terminal saves the basic package and call information locally;

[0053] The earthquake monitoring station 1 collects earthquake wave data and sends the earthquake wave data to the data processing center 2. The data processing center 2 analyzes the received earthquake wave data to generate earthquake information and selects the corresponding call information. The data processing center 2 determines the geographical scope of sending earthquake information, calculates whether the signal carrying capacity of the information publishing platform 3 will be exceeded when sending the call information to all receiving terminals within the geographical scope. If not, the call information is directly sent to the receiving terminal through the information publishing platform 3. After receiving the call information, the receiving terminal selects the corresponding earthquake information through the call information for warning; if so, multiple receiving terminals are selected as information forwarding platforms 4 according to the positioning information sent by the receiving terminal, and the geographical scope is divided into multiple areas to ensure that there are at least two or more information forwarding platforms 4 in each area, and the other receiving terminals are waiting terminals 5; the total number of information forwarding platforms 4 is determined by: dividing the maximum carrying capacity of the information publishing platform 3 by the sum of the call information and the geographical scope to obtain the total number of information forwarding platforms 4, and if a remainder is encountered, the remainder is removed and rounded; the call information and the geographical scope are sent to the information forwarding platform 4 through the information publishing platform 3;

[0054] After receiving the call information and the geographical range, the information forwarding platform 4 exchanges data with other multiple waiting terminals 5, and synchronizes the call information and the geographical range to the waiting terminal 5. After receiving the data, the waiting terminal 5 performs a judgment step, which includes: judging whether the call information and the geographical range have appeared before, if not, obtaining the positioning information of the waiting terminal 5, judging whether the waiting terminal 5 is located within the geographical range, if not, no early warning is issued, and if so, after receiving the call information, the corresponding earthquake information is selected through the call information for warning; if it has appeared, the judgment step is terminated;

[0055] While the waiting terminal 5 interacts with the information forwarding platform 4, it interactively pushes the calling information and geographical range to other waiting terminals 5 and / or information forwarding platforms 4. After receiving the data, the waiting terminal 5 or the information forwarding platform 4 executes the judgment step.

[0056] The data processing center 2 regularly calculates whether the signal carrying capacity of the information publishing platform 3 will be exceeded when sending call information to all receiving terminals within the geographical range during push. If the number of times the signal carrying capacity of the information publishing platform 3 is exceeded exceeds the preset number, a signal capacity warning is issued.

[0057] The receiving terminal includes multiple warning methods. When the receiving terminal warns, it simultaneously obtains the positioning information of the receiving terminal and determines whether the positioning information has changed. If so, the warning stops after a predetermined time. Otherwise, multiple warning methods are selected to warn until the warning duration ends.

[0058] The data processing center 2 synchronizes the uploaded positioning information of the receiving terminal to a remote database when the calling information is not released.

[0059] The data processing center 2 updates the remote database and deletes the last stored positioning information after receiving the uploaded positioning information of the terminal when the calling information is not released.

[0060] The data processing center 2 obtains the last power-on number of receiving terminals before the call information is released and the power-on number of receiving terminals after the call information is released.

[0061] After invoking information release, the data processing center 2 receives the positioning information sent from the receiving terminal through the information release platform 3.

[0062] After calling the information release, the data processing center 2 receives the positioning information, edited text information, and picture information sent from the receiving terminal through the information release platform 3.

[0063] While the waiting terminal 5 interacts with the information forwarding platform 4, the waiting terminal 5 and / or the information forwarding platform 4 suspend other running programs and give priority to interactively pushing calling information and geographical scope to other waiting terminals 5 and / or information forwarding platforms 4.

[0064] When the waiting terminal 5 and / or information forwarding platform 4 interacts with other waiting terminals 5 and / or information forwarding platforms 4, it determines whether to push the call information and geographical range twice to them. If it reaches twice, it will not be pushed again. If it does not reach twice, it will be pushed once. Embodiment 2

[0065] An emergency earthquake information receiving, processing and publishing service management system comprises an earthquake monitoring station 1, a data processing center 2, an information publishing platform 3 and a plurality of receiving terminals;

[0066] The receiving terminal includes multiple data connection methods; multiple receiving terminals realize data interaction through multiple data connection methods, and the receiving terminal sends the location information of the receiving terminal to the data processing center 2 when the data processing center 2 does not publish information;

[0067] The data processing center 2 generates a basic package containing earthquake information of different levels and call information corresponding to the earthquake information of different levels, and sends the basic package and call information to the receiving terminal through the information publishing platform 3, and the receiving terminal saves the basic package and call information locally;

[0068] The earthquake monitoring station 1 collects earthquake wave data and sends the earthquake wave data to the data processing center 2. The data processing center 2 analyzes the received earthquake wave data to generate earthquake information and selects the corresponding call information. The data processing center 2 determines the geographical scope of sending earthquake information, calculates whether the signal carrying capacity of the information publishing platform 3 will be exceeded when sending the call information to all receiving terminals within the geographical scope. If not, the call information is directly sent to the receiving terminal through the information publishing platform 3. After receiving the call information, the receiving terminal selects the corresponding earthquake information through the call information for warning; if so, multiple receiving terminals are selected as information forwarding platforms 4 according to the positioning information sent by the receiving terminal, and the geographical scope is divided into multiple areas to ensure that there are at least two or more information forwarding platforms 4 in each area, and the other receiving terminals are waiting terminals 5; the total number of information forwarding platforms 4 is determined by: dividing the maximum carrying capacity of the information publishing platform 3 by the sum of the call information and the geographical scope to obtain the total number of information forwarding platforms 4, and if a remainder is encountered, the remainder is removed and rounded; the call information and the geographical scope are sent to the information forwarding platform 4 through the information publishing platform 3;

[0069] After receiving the call information and the geographical range, the information forwarding platform 4 exchanges data with other multiple waiting terminals 5, and synchronizes the call information and the geographical range to the waiting terminal 5. After receiving the data, the waiting terminal 5 performs a judgment step, which includes: judging whether the call information and the geographical range have appeared before, if not, obtaining the positioning information of the waiting terminal 5, judging whether the waiting terminal 5 is located within the geographical range, if not, no early warning is issued, and if so, after receiving the call information, the corresponding earthquake information is selected through the call information for warning; if it has appeared, the judgment step is terminated;

[0070] While the waiting terminal 5 interacts with the information forwarding platform 4, it interactively pushes the calling information and geographical range to other waiting terminals 5 and / or information forwarding platforms 4. After receiving the data, the waiting terminal 5 or the information forwarding platform 4 executes the judgment step.

[0071] The data processing center 2 regularly calculates whether the signal carrying capacity of the information publishing platform 3 will be exceeded when sending call information to all receiving terminals within the geographical range during push. If the number of times the signal carrying capacity of the information publishing platform 3 is exceeded exceeds the preset number, a signal capacity warning is issued.

[0072] The receiving terminal includes multiple warning methods. When the receiving terminal warns, it simultaneously obtains the positioning information of the receiving terminal and determines whether the positioning information has changed. If so, the warning stops after a predetermined time. Otherwise, multiple warning methods are selected to warn until the warning duration ends.

[0073] The data processing center 2 synchronizes the uploaded positioning information of the receiving terminal to a remote database when the calling information is not released.

[0074] The data processing center 2 updates the remote database and deletes the last stored positioning information after receiving the uploaded positioning information of the terminal when the calling information is not released.

[0075] The data processing center 2 obtains the last power-on number of receiving terminals before the call information is released and the power-on number of receiving terminals after the call information is released.

[0076] After calling the information release, the data processing center 2 receives the positioning information, edited text information, and picture information sent from the receiving terminal through the information release platform 3. Embodiment 3

[0077] An emergency earthquake information receiving, processing and publishing service management system comprises an earthquake monitoring station 1, a data processing center 2, an information publishing platform 3 and a plurality of receiving terminals;

[0078] The receiving terminal includes multiple data connection methods; multiple receiving terminals realize data interaction through multiple data connection methods, and the receiving terminal sends the location information of the receiving terminal to the data processing center 2 when the data processing center 2 does not publish information;

[0079] The data processing center 2 generates a basic package containing earthquake information of different levels and call information corresponding to the earthquake information of different levels, and sends the basic package and call information to the receiving terminal through the information publishing platform 3, and the receiving terminal saves the basic package and call information locally;

[0080] The earthquake monitoring station 1 collects earthquake wave data and sends the earthquake wave data to the data processing center 2. The data processing center 2 analyzes the received earthquake wave data to generate earthquake information and selects the corresponding call information. The data processing center 2 determines the geographical scope of sending earthquake information, calculates whether the signal carrying capacity of the information publishing platform 3 will be exceeded when sending the call information to all receiving terminals within the geographical scope. If not, the call information is directly sent to the receiving terminal through the information publishing platform 3. After receiving the call information, the receiving terminal selects the corresponding earthquake information through the call information for warning; if so, multiple receiving terminals are selected as information forwarding platforms 4 according to the positioning information sent by the receiving terminal, and the geographical scope is divided into multiple areas to ensure that there are at least two or more information forwarding platforms 4 in each area, and the other receiving terminals are waiting terminals 5; the total number of information forwarding platforms 4 is determined by: dividing the maximum carrying capacity of the information publishing platform 3 by the sum of the call information and the geographical scope to obtain the total number of information forwarding platforms 4, and if a remainder is encountered, the remainder is removed and rounded; the call information and the geographical scope are sent to the information forwarding platform 4 through the information publishing platform 3;

[0081] After receiving the call information and the geographical range, the information forwarding platform 4 exchanges data with other multiple waiting terminals 5, and synchronizes the call information and the geographical range to the waiting terminal 5. After receiving the data, the waiting terminal 5 performs a judgment step, which includes: judging whether the call information and the geographical range have appeared before, if not, obtaining the positioning information of the waiting terminal 5, judging whether the waiting terminal 5 is located within the geographical range, if not, no early warning is issued, and if so, after receiving the call information, the corresponding earthquake information is selected through the call information for warning; if it has appeared, the judgment step is terminated;

[0082] While the waiting terminal 5 interacts with the information forwarding platform 4, it interactively pushes the calling information and geographical range to other waiting terminals 5 and / or information forwarding platforms 4. After receiving the data, the waiting terminal 5 or the information forwarding platform 4 executes the judgment step.

[0083] The data processing center 2 synchronizes the uploaded positioning information of the receiving terminal to a remote database when the calling information is not released.

[0084] The data processing center 2 updates the remote database and deletes the last stored positioning information after receiving the uploaded positioning information of the terminal when the calling information is not released.

[0085] The above descriptions are merely embodiments of the present invention and are not intended to limit the patent scope of the present invention. Any equivalent transformations made using the contents of the present invention's specification and drawings, or directly or indirectly applied in related technical fields, are also included in the patent protection scope of the present invention.

Claims

1. An emergency earthquake information receiving, processing and publishing service management system, characterized in that: It includes earthquake monitoring stations, data processing centers, information release platforms and multiple receiving terminals; The receiving terminal includes multiple data connection methods; multiple receiving terminals realize data interaction through multiple data connection methods, and the receiving terminal sends the location information of the receiving terminal to the data processing center when the data processing center does not release information; The data processing center generates a basic package containing earthquake information of different levels and call information corresponding to the earthquake information of different levels, and sends the basic package and call information to the receiving terminal through the information publishing platform, and the receiving terminal saves the basic package and call information locally; The earthquake monitoring station collects earthquake wave data and sends the earthquake wave data to the data processing center. The data processing center analyzes the received earthquake wave data to generate earthquake information and selects the corresponding call information. The data processing center determines the geographical scope for sending earthquake information and calculates whether the signal carrying capacity of the information publishing platform will be exceeded when sending the call information to all receiving terminals within the geographical scope. If not, the call information is directly sent to the receiving terminal through the information publishing platform. After receiving the call information, the receiving terminal selects the corresponding earthquake information through the call information for warning; if so, multiple receiving terminals are selected as information forwarding platforms according to the positioning information sent by the receiving terminal, and the geographical scope is divided into multiple areas to ensure that there are at least two information forwarding platforms in each area, and the other receiving terminals are waiting terminals; The total number of information forwarding platforms is determined by: dividing the maximum carrying capacity of the information publishing platform by the sum of the call information and the geographical scope to obtain the total number of information forwarding platforms, and if there is a remainder, removing the remainder and rounding up; sending the call information and the geographical scope to the information forwarding platform through the information publishing platform; After receiving the call information and the geographical scope, the information forwarding platform exchanges data with other multiple waiting terminals, synchronizes the call information and the geographical scope to the waiting terminal, and the waiting terminal executes a judgment step after receiving the data. The judgment step includes: judging whether the call information and the geographical scope have appeared before, if not, obtaining the positioning information of the waiting terminal, judging whether the waiting terminal is located within the geographical scope, if not, no early warning is issued, and if so, after receiving the call information, the corresponding earthquake information is selected through the call information for warning; if it has appeared before, the judgment step is terminated; While the waiting terminal interacts with the information forwarding platform, it interactively pushes the calling information and geographical range to other waiting terminals and / or information forwarding platforms. After receiving the data, the waiting terminal or the information forwarding platform executes the judgment step.

2. The emergency earthquake information receiving, processing and publishing service management system according to claim 1, characterized in that: The data processing center regularly calculates whether the signal carrying capacity of the information publishing platform will be exceeded when sending call information to all receiving terminals within the geographical range during push. If the number of times the signal carrying capacity of the information publishing platform is exceeded exceeds the preset number, a signal capacity warning will be issued.

3. The emergency earthquake information receiving, processing and publishing service management system according to claim 1, characterized in that: The receiving terminal includes multiple warning methods. When the receiving terminal warns, it simultaneously obtains the positioning information of the receiving terminal and determines whether the positioning information has changed. If so, the warning stops after a predetermined time. Otherwise, multiple warning methods are selected to warn until the warning duration ends.

4. The emergency earthquake information receiving, processing and publishing service management system according to claim 1, characterized in that: The data processing center will synchronize the uploaded positioning information of the receiving terminal to the remote database when the call information is not released.

5. The emergency earthquake information receiving, processing and publishing service management system according to claim 4, characterized in that: The data processing center updates the remote database without issuing the calling information and deletes the last stored positioning information after receiving the uploaded positioning information of the terminal.

6. The emergency earthquake information receiving, processing and publishing service management system according to claim 1, characterized in that: The data processing center obtains the last power-on number of receiving terminals before the call information is released and the power-on number of receiving terminals after the call information is released.

7. The emergency earthquake information receiving, processing and publishing service management system according to claim 1, characterized in that: After calling the information release, the data processing center receives the positioning information sent from the receiving terminal through the information release platform.

8. The emergency earthquake information receiving, processing and publishing service management system according to claim 7, characterized in that: After calling the information release, the data processing center receives the positioning information, edited text information, and picture information from the receiving terminal through the information release platform.

9. The emergency earthquake information receiving, processing and publishing service management system according to claim 1, characterized in that: While the waiting terminal interacts with the information forwarding platform, the waiting terminal and / or the information forwarding platform suspends other running programs and preferentially pushes the calling information and geographical scope to other waiting terminals and / or information forwarding platforms.

10. The emergency earthquake information receiving, processing and publishing service management system according to claim 1, characterized in that: When the waiting terminal and / or information forwarding platform interacts with other waiting terminals and / or information forwarding platforms, it determines whether to push the call information and geographical range twice to them. If it reaches twice, it will not be pushed again. If it does not reach twice, it will be pushed once.

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