A building bridge structure safety monitoring system

Abstract

The present invention discloses a building bridge structure safety monitoring system. The present invention monitors several parameters of the building bridge structure by setting a monitoring terminal. The remote management platform monitors and optimizes the transmission of the supervision data sent down by each supervision department in real time. In this process, when it is monitored that the number of data packets that need to be retransmitted to a certain supervision department exceeds a preset number within a certain period of time, the sending supervision unit selects whether to transmit the data packets by the remote monitoring center or by a specific department based on the number of data packets that need to be retransmitted, the size of the data capacity and the interactive evaluation amount of all other supervision departments at this time as several parameters corresponding to the retransmitted data packets. This method can more efficiently allocate the network resources of each supervision department and the remote monitoring center, improve the reliability and efficiency of the entire bridge structure monitoring network, and ensure that each supervision department can receive the required accurate supervision data in time, thereby ensuring the safe operation of the bridge.

Description

Technical Field

[0001] The invention relates to the technical field of bridge structure monitoring, and in particular to a building bridge structure safety monitoring system. Background Art

[0002] As an important part of the transportation network, the safety of bridges is directly related to the safety of people's lives and property and the normal operation of the social economy. By monitoring the health of bridge structures, potential safety hazards can be discovered in time to avoid serious accidents.

[0003] At present, the safety monitoring of building bridge structures is carried out by selecting several monitoring points to monitor several parameters of the building bridge structures, and then transmitting the monitoring data of these parameters to the corresponding decision-making departments. The decision-making departments of the enterprise are responsible for analyzing and evaluating the safety of various parts of the building bridge structures. When the decision-making departments are responsible for the analysis and evaluation of the safety of the building bridge structures, they often use common data sets;

[0004] However, during the data transmission process, network fluctuations may cause data loss and the need for retransmission. The current practice is for the remote monitoring center to be responsible for the data retransmission. This practice does not fully utilize the network transmission potential of different decision-making departments, especially for those common data sets, which may cause the network transmission resources of different decision-making departments to be excessive. In addition, the retransmission of data by the remote monitoring center may delay the analysis and evaluation efficiency of the departmental decision-making department;

[0005] In order to solve the above problems, the present invention proposes a solution. Summary of the invention

[0006] The purpose of the present invention is to provide a building bridge structure safety monitoring system, in order to solve the problem that in the prior art, the data of parameter monitoring data of building bridge structures is lost during transmission, and the remote monitoring center is responsible for the unified data retransmission work. This approach does not fully utilize the network transmission potential of different decision-making departments, especially for those common data sets, which may cause the network transmission resources of different decision-making departments to be excessive, and the remote monitoring center retransmits the data, which may delay the analysis and evaluation efficiency of the departmental decision-making departments;

[0007] The purpose of the present invention can be achieved through the following technical solutions:

[0008] A building bridge structure safety monitoring system, comprising:

[0009] The remote sub-center is used to transmit the corresponding supervision data to different supervision departments within the enterprise. The supervision data includes monitoring data of several parameters of the building bridge structure;

[0010] An evaluation and analysis module is used to periodically calculate and obtain the interactive evaluation amount of each regulatory department within a number of evaluation cycles based on the data volume, transmission time and packet loss rate of the supervision data sent down by each regulatory department within these evaluation cycles;

[0011] The department decision-making module is used to monitor in real time the process of all regulatory departments receiving their corresponding regulatory data;

[0012] If a regulatory department is detected at the current moment and P2 data packets need to be retransmitted to it by the remote branch center within P1 time, the department decision module determines the retransmission parameter type for several parameters of the data in the P2 retransmitted data packets based on the number of data packets that need to be retransmitted by all other regulatory departments at the current moment, the data capacity size, and their interaction evaluation amount. The retransmission parameter type includes the transfer path parameter type and the original path parameter type.

[0013] Furthermore, the monitoring terminal monitors several parameters of the building bridge structure in real time and collects corresponding monitoring data, and obtains real-time parameter monitoring based on the collected monitoring data of several parameters of the building bridge structure.

[0014] Furthermore, the regulatory data issued by different regulatory departments within the enterprise are transmitted in the form of data packets during the transmission process.

[0015] Beneficial effects of the present invention:

[0016] The present invention monitors several parameters of the building bridge structure by setting up a monitoring terminal. The remote management platform transmits the monitoring data of several parameters of the building bridge structure after format conversion to the corresponding supervision department according to the parameter types required by various supervision departments in the enterprise. The sending supervision unit monitors and optimizes the transmission of the supervision data sent by each supervision department in real time. In this process, when it is monitored that the number of data packets that need to be retransmitted to a certain supervision department exceeds the preset number within a certain period of time, the sending supervision unit selects whether the remote monitoring center or a specific department transmits the data packets based on the number of data packets that need to be retransmitted, the data capacity size and the interactive evaluation amount of all other supervision departments at this time for several parameters corresponding to the retransmitted data packets. In this way, the network resources of various supervision departments and the remote monitoring center can be allocated more efficiently, the reliability and efficiency of the entire bridge structure monitoring network can be improved, and at the same time, it can be ensured that each supervision department can receive the required accurate supervision data in time, thereby ensuring the safe operation of the bridge.

[0017] The evaluation and analysis module regularly evaluates the ability of different regulatory departments within the enterprise to receive the corresponding issued regulatory data, obtains the corresponding interactive evaluation, and uses it as one of the selected benchmarks for transmitting and retransmitting data packets to ensure the accuracy and real-time nature of the data. BRIEF DESCRIPTION OF THE DRAWINGS

[0018] The present invention will be further described below in conjunction with the accompanying drawings.

[0019] Figure 1 It is a system block diagram of the present invention. DETAILED DESCRIPTION

[0020] The following will be combined with the drawings in the embodiments of the present invention to clearly and completely describe the technical solutions in the embodiments of the present invention. Obviously, the described embodiments are only part of the embodiments of the present invention, not all of the embodiments. Based on the embodiments of the present invention, all other embodiments obtained by ordinary technicians in this field without creative work are within the scope of protection of the present invention.

[0021] like Figure 1 As shown, a building bridge structure safety monitoring system includes a monitoring terminal, a remote management platform, a department decision terminal and an evaluation and analysis module;

[0022] The monitoring terminal is used to monitor several parameters of the building bridge structure. The several parameters of the building bridge structure are selected according to the national standard "Technical Specifications for Monitoring Building and Bridge Structures". In this embodiment, the monitoring of several parameters of the building bridge structure includes strain monitoring, deformation and crack monitoring, temperature and humidity monitoring, vibration monitoring, ground motion and seismic response monitoring, wind and wind-induced response monitoring, cable force monitoring and corrosion monitoring:

[0023] The monitoring terminal monitors several parameters of the building bridge structure in real time and collects corresponding monitoring data, obtains real-time parameter monitoring data based on the collected monitoring data of several parameters of the building bridge structure, and transmits it to the remote distribution platform;

[0024] A remote distribution platform is used to receive, process and send real-time parameter monitoring data to various departments. The remote distribution platform includes a format conversion unit and a data sending unit;

[0025] After receiving the real-time parameter monitoring data, the remote sub-platform transmits it to the format conversion unit, in which the preset standard formats of all parameters are pre-stored;

[0026] After receiving the parameter monitoring data transmitted in real time, the format conversion unit converts the data format of all parameter monitoring data contained therein into a preset standard format of the corresponding parameter;

[0027] After the conversion is completed, real-time monitoring and processing data is obtained, and the monitoring and processing data includes monitoring data of all parameters after the format conversion is completed;

[0028] The format conversion unit transmits the real-time monitoring processing data to the data sending unit. The data sending unit pre-stores parameter sending data of several regulatory departments. The parameter sending data of a regulatory department includes several parameter names, indicating that the monitoring department needs to receive the monitoring data of these parameters.

[0029] After receiving the real-time monitoring and processing data, the data sending unit extracts the monitoring data with the corresponding parameters converted into the format from the monitoring and processing data according to the parameter names contained in the parameter sending data of each regulatory department, and generates the sending supervision data of the corresponding regulatory department based on the data;

[0030] The data issuing unit transmits the regulatory data issued by all regulatory departments to the department decision-making terminal;

[0031] It should be noted that the regulatory data issued by various regulatory departments are transmitted in the form of data packets during the transmission process;

[0032] A data packet contains part of the monitoring data of the parameter, as well as the location of the monitoring data in the original supervision data issued, and the parameter name to which the monitoring data of the department belongs;

[0033] The department decision module is used by each regulatory department to monitor and manage the safety of bridge structures. The department decision terminal includes a supervisory unit and several department decision units. One department decision unit corresponds to one regulatory department.

[0034] The supervision department is used to monitor and manage the safety of the bridge structure. In this embodiment, the supervision department includes a structure monitoring department, an environmental monitoring department, an emergency management department, a maintenance management department and a quality supervision department;

[0035] After receiving the real-time supervision data issued by all supervisory departments, the department decision module transmits the supervision data issued by each supervisory department to the corresponding department decision unit, which receives the data;

[0036] The supervision unit is used to monitor and optimize the transmission process of supervision data issued by all regulatory departments in real time;

[0037] When it is detected that P2 packets need to be retransmitted within P1 time for a regulatory department, the supervision unit is sent to optimize the transmission process of the P2 packets according to the preset optimization rules, as follows:

[0038] S11: The supervision department that is monitored to need to retransmit P2 data packets within P1 time is marked as the department to be determined;

[0039] Obtain all the parameters to which the data in these P2 data packets belong, and according to the data capacity size of each parameter in the data of these P2 data packets, in descending order, label the corresponding parameters as J1, J2, ..., Jj, where j≥1;

[0040] S12: Obtain the number K1 of data packets whose parameter to which the data in these P2 data packets belong is parameter J1, and determine the size relationship between K1 and PK1, where PK1 is the quantization determination threshold of the preset parameter J1:

[0041] S13: If K1 < PK1, then label parameter J1 as the original path parameter type;

[0042] S14: If K1 ≥ PK1, then transmit all the data packets whose parameter to which the data in these P2 data packets belong is parameter J1 according to the preset transmission rules, specifically as follows:

[0043] S141: Label the moment when it is monitored that for a regulatory department, P2 data packets need to be retransmitted within P1 time as the to-be-determined rated moment;

[0044] Meanwhile, obtain all the regulatory departments M1, M2, ..., Mm, where m≥1, other than the to-be-determined department in the parameter distribution data, and these regulatory departments meet the condition that at the to-be-determined rated moment, they have received all the data packets whose parameter to which the data in these P2 data packets belong is parameter J1;

[0045] S142: Obtain all the parameters to which the data in the data packets that need to be retransmitted to regulatory department M1 at the to-be-determined rated moment belong, and label them as Q1, Q2, ..., Qq, where q≥1;

[0046] S143: Respectively obtain the data capacity sizes of the data belonging to parameters Q1, Q2, ..., Qq from the data packets that need to be retransmitted to regulatory department M1 at the to-be-determined rated moment, and obtain the number L1 of parameters whose data capacity size exceeds P3 from them;

[0047] S144: Obtain the data capacity size T1 of the data that regulatory department M1 needs to transmit to other regulatory departments at the to-be-determined rated moment;

[0048] S144: Use the formula Calculate and obtain the transfer continuation evaluation quantity R1 of regulatory department M1 at the to-be-determined rated moment, where N1 is the interaction evaluation quantity of regulatory department M1 stored in the issued supervision unit, and β1, β2 are the preset first and second adjustment proportion factors respectively;

[0049] It should be noted that the transfer continuation evaluation quantity is artificially defined to represent the evaluation characteristic quantity that the regulatory department can use as a continued transmission data packet at a certain moment;

[0050] S145: According to S141 to S144, sequentially calculate and obtain the transfer rating R1, R2, ..., Mm of the regulatory department at the rated time to be determined, and obtain the maximum value Rmax;

[0051] S146: If Rmax≥PR, the parameter J1 is marked as the transfer path parameter, the supervision department corresponding to Rmax is selected as the transfer department of the parameter J1 within the P1 time, and the retransmission information of all the data packets whose data belonging parameters are the parameter J1 in the P2 data packets is sent to the transfer department of the parameter J1 within the P1 time, and the transfer department of the parameter J1 within the P1 time transmits these data packets to the department to be determined; otherwise, the parameter J1 is marked as the original path parameter type, and the retransmission information of all the data packets whose data belonging parameters are the parameter J1 in the P2 data packets is sent to the data sending unit, and the data sending unit transmits these data packets to the department to be determined;

[0052] S15: According to S11 to S14, all data packets in the P2 data packets whose data belonging parameters are parameters J1, J2, ..., Jj in sequence are transmitted;

[0053] It should be noted that if no regulatory department meeting the conditions is obtained in S141, the parameter J1 is marked as the original path parameter type;

[0054] The evaluation and analysis module is used to evaluate and analyze the stability of data transmission between various regulatory departments. The analysis steps are as follows:

[0055] S21: First, select a regulatory department within the target enterprise as the department to be evaluated;

[0056] S22: Divide an evaluation period into a number of equal-length evaluation periods, and mark the a number of evaluation periods in an evaluation period as A1, A2, ..., Aa, in sequence. In one embodiment of the present invention, an evaluation period is 1 day, and an evaluation period is 30 minutes.

[0057] S23: for the supervision data sent to the department to be assessed within the assessment period A1 of an assessment cycle, obtain the data capacity B1, transmission time C1, and packet loss rate D1 when transmitting the supervision data sent;

[0058] S24: Utilize the formula Calculate and obtain the network evaluation quantity E1 of the department to be evaluated in the evaluation period A1 of the evaluation cycle, V1 is the preset standard data transmission rate, ɑ1 and ɑ2 are the preset first and second proportion factors respectively;

[0059] S25: According to S23 to S25, obtain the network evaluation quantities E1, E2, …, Eb of the department to be evaluated within the evaluation segment A1 in b evaluation cycles, where the b evaluation cycles are b evaluation cycles traced back from the current evaluation cycle to the past;

[0060] S26: Use the formula to calculate and obtain the deviation F1 of the network evaluation quantities of the department to be evaluated within the evaluation segment A1 in b evaluation cycles, compare the magnitudes of F1 and F. At this time, E is the mean of the network evaluation quantities of the department to be evaluated within the evaluation segment A1 in b evaluation cycles, and F is the deviation comparison threshold for the preset single evaluation segment;

[0061] If F1 ≥ F, then delete the corresponding Ee in descending order of |Ee - E|, calculate the deviation F1 of the remaining Ee, and compare the magnitudes of F1 and F again until F1 < F. Obtain the mean of the network evaluation quantities calculated by the remaining deviation F1 at this time, and recalibrate it as the network evaluation quantity of the department to be evaluated within the evaluation segment A1;

[0062] S27: Calculate and obtain the network evaluation quantities G1, G2, …, Ga of the department to be evaluated within the evaluation segments A1, A2, …, Aa in sequence according to S23 to S26;

[0063] S28: Use the formula 1 ≤ g ≤ a to calculate and obtain the deviation H1 of the network evaluation quantities of the department to be evaluated in a evaluation segments, compare the magnitudes of H1 and H. At this time, G is the mean of the network evaluation quantities of the department to be evaluated in a evaluation segments, and H is the preset comprehensive network deviation comparison threshold;

[0064] If H1 ≥ H, then delete the corresponding Gg in descending order of |Gg - G|, calculate the deviation H1 of the remaining Gg, and compare the magnitudes of H1 and H again until H1 < H. Obtain the mean of the network evaluation quantities calculated by the remaining deviation H1 at this time, and recalibrate it as the interactive evaluation quantity of the department to be evaluated;

[0065] S29: In sequence according to S21 to S28, select all regulatory departments within the target enterprise as the departments to be evaluated, calculate and obtain the interactive evaluation quantities of all regulatory departments within the target enterprise, and transmit them to the issued supervision unit in the department decision module for updated storage;

[0066] In the description of the specification, the description with reference to the terms "one embodiment", "example", "specific example" and the like means that the specific features, structures, materials or characteristics described in conjunction with the embodiment or example are included in at least one embodiment or example of the present invention. In this specification, the schematic representations of the above terms do not necessarily refer to the same embodiment or example. Moreover, the specific features, structures, materials or characteristics described may be combined in a suitable manner in any one or more embodiments or examples. The above contents are merely examples and explanations of the present invention. A person skilled in the art may make various modifications or supplements to the specific embodiments described or replace them in a similar manner. As long as they do not deviate from the invention or exceed the scope defined by the claims, they shall all fall within the scope of protection of the present invention.

[0067] The above is a detailed description of an embodiment of the present invention, but the content is only a preferred embodiment of the present invention and cannot be considered to limit the scope of implementation of the present invention. All equivalent changes and improvements made within the scope of the present invention should still fall within the scope of the patent coverage of the present invention.

Claims

1. A building bridge structure safety monitoring system, characterized in that: Including: A remote sub - management center for transmitting corresponding issued supervision data to different supervision departments within an enterprise, where the issued supervision data includes monitoring data of several parameters of the building bridge structure; An evaluation and analysis module for periodically calculating and obtaining the interaction evaluation amounts of each supervision department within several evaluation cycles based on the data volume size, transmission time, and packet loss rate of the issued supervision data received by each supervision department within several evaluation cycles; A department decision - making module for monitoring in real - time the process of all supervision departments receiving their corresponding issued supervision data; At the current moment, if it is monitored that there is a supervision department that requires the remote sub - management center to re - transmit P2 data packets to it within P1 time, the department decision - making module determines the re - transmission parameter types for the several parameters to which the data in the P2 re - transmitted data packets belong according to the number of data packets to be re - transmitted, the data volume size, and the interaction evaluation amounts of all other supervision departments at the current moment. The re - transmission parameter types include relay path parameter types and original path parameter types; At the current moment, if it is monitored that there is a supervision department that requires the remote sub - management center to re - transmit P2 data packets to it within P1 time, the steps for the department decision - making module to determine the re - transmission parameter types for the several parameters to which the data in the P2 re - transmitted data packets belong according to the preset determination rules are as follows: S11: Mark the supervision department that is monitored to need to re - transmit P2 data packets within P1 time as the department to be determined; Obtain all the parameters to which the data in the P2 data packets belong, and mark the corresponding parameters as J1, J2,..., Jj in descending order according to the data volume size of the data of each parameter in the P2 data packets, where j≥1; S12: Obtain the number K1 of data packets in the P2 data packets whose data - belonging parameter is parameter J1, and compare the sizes of K1 and PK1, where PK1 is the quantization determination threshold of the preset parameter J1; S13: If K1 < PK1, then determine that the re - transmission parameter type of parameter J1 is the original path parameter type; S14: If K1≥PK1, then determine the re - transmission parameter type of parameter J1 according to the preset type determination rules; S15: According to S11 to S14, transmit all the data packets in the P2 data packets whose data - belonging parameters are parameter J1, J2,..., Jj in sequence; The type determination rules for determining the re - transmission parameter type of parameter J1 are as follows: S141: Mark the moment when it is monitored that for a supervision department, P2 data packets need to be re - transmitted within P1 time as the rated moment to be determined; At the same time, obtain all supervision departments M1, M2,..., Mm, m≥1, other than the department to be determined, in the parameter - issued data that contain parameter J1, and these supervision departments meet the condition that at the rated moment to be determined, they have received all the data packets in the P2 data packets whose data - belonging parameter is parameter J1; S142: Obtain all the parameters to which the data in the data packets to be re - transmitted to supervision department M1 belong at the rated moment to be determined, and mark them as Q1, Q2,..., Qq, q≥1; S143: obtaining the data capacity of the data belonging to the parameters Q1, Q2, ..., Qq from the data packets that need to be retransmitted to the supervisory department M1 at the rated time to be determined, and obtaining the number L1 of the parameters whose data capacity exceeds P3; S144: obtaining the data capacity size T1 that the supervisory department M1 needs to transmit to other supervisory departments at the rated time to be determined; Using the formula Calculate and obtain the transfer assessment quantity R1 of the regulatory department M1 at the rated time to be determined, where N1 is the interactive assessment quantity of the regulatory department M1 stored in the dispatching regulatory unit, and β1 and β2 are the preset first and second adjustment proportion factors respectively; S145: According to S141 to S144, sequentially calculate and obtain the transfer rating R1, R2, ..., Mm of the regulatory department at the rated time to be determined, and obtain the maximum value Rmax; S146: If Rmax≥PR, parameter J1 is marked as the transfer path parameter, and the regulatory department corresponding to Rmax is selected as the transfer department of parameter J1 within time P1. The retransmission information of all data packets whose data belonging parameters in P2 data packets are parameter J1 is sent to the transfer department of parameter J1 within time P1, and the transfer department of parameter J1 within time P1 transmits these data packets to the department to be determined. Otherwise, parameter J1 is marked as the original path parameter type, and the retransmission information of all data packets whose data belonging parameters in P2 data packets are parameter J1 is sent to the data sending unit, and the data sending unit transmits these data packets to the department to be determined.

2. A building bridge structure safety monitoring system according to claim 1, characterized in that: The monitoring terminal monitors several parameters of the building bridge structure in real time and collects corresponding monitoring data, and obtains real-time monitoring parameters based on the collected monitoring data of several parameters of the building bridge structure.

3. A building bridge structure safety monitoring system according to claim 1, characterized in that: The regulatory data issued by different regulatory departments within an enterprise are transmitted in the form of data packets during the transmission process.

4. A building bridge structure safety monitoring system according to claim 1, characterized in that: If no regulatory department meeting the conditions is obtained in S141, the parameter J1 is marked as the original path parameter type.

5. A building bridge structure safety monitoring system according to claim 1, characterized in that: For a parameter determined to be of the original path parameter type, retransmission information of the data packets belonging to the parameter in P2 data packets is sent to the remote branch center, and the remote branch center retransmits these data packets.

6. A building bridge structure safety monitoring system according to claim 1, characterized in that: For a parameter determined to be a forwarding path parameter type, retransmission information of the data packets belonging to the parameter in P2 data packets is sent to the corresponding forwarding department, and the forwarding department transmits these data packets to the corresponding supervision department.

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