An intelligent integrated monitoring method and system for phase regulator

Abstract

The present invention discloses an intelligent integrated monitoring system for a phase-shifting machine, comprising an intelligent phase-shifting centralized control platform (1), an electricity data storage platform (2), a data acquisition module (3), a phase-shifting machine module (4) and a phase-shifting machine startup module (5); the intelligent phase-shifting centralized control platform (1) of the phase-shifting machine is respectively connected to the electricity data storage platform (2), the data acquisition module (3) and the phase-shifting machine module (4) for data communication. The present invention uses the data acquisition module to collect the reactance value of each electricity consumption node at the current moment, and the intelligent phase-shifting centralized control platform reads the historical electricity consumption reactance database stored in the electricity data storage platform for data analysis to obtain the corresponding relationship between the capacitive reactance value of each electricity consumption node and time, the maximum capacitive reactance value and the maximum inductive reactance value, and then controls the phase-shifting machine startup module to configure the corresponding reactance value capacitive reactance or inductive reactance, so as to achieve a better matching effect.

Description

Technical Field

[0001] The present invention relates to the technical field of phase regulator control, and in particular to a monitoring method and system for an intelligent integrated monitoring system of a phase regulator. Background Art

[0002] In the power grid, the electric power supplied to the load by the power supply is divided into active power and reactive power. The active power is used to start the normal operation of the equipment. However, due to the existence of inductive or capacitive reactance characteristics of the equipment, the alternating current will have self-inductance in the power grid, resulting in power waste. This not only wastes electric energy, but also causes unstable grid voltage, or circuit overload or other situations. For this reason, people usually set up capacitive and inductive reactance devices with opposite effects to offset them. This is the origin of the phase regulator. In the prior art, there are also control and detection systems for phase regulators, and corresponding abnormal detection technologies for medical insurance, such as:

[0003] Patent application CN112036601A discloses a method for predicting the oil temperature of a synchronous condenser oil system, which belongs to the technical field of synchronous condensers and mainly includes the following steps: (1) calculating the comprehensive correlation of historical samples; (2) selecting similar days to the day to be predicted; (3) calculating the oil temperature of the synchronous condenser oil system on the day to be predicted based on the extrapolation weighting of similar days. The method calculates the comprehensive correlation between historical samples and the day to be predicted based on three factors: meteorology, time and events. According to the comprehensive correlation, the method selects similar days to the day to be predicted from the two aspects of the actual oil temperature and temperature change rate of the synchronous condenser. At the same time, the oil temperature is predicted by using a neural network and a trend change method respectively, and the two prediction results are weighted based on the correlation, which effectively ensures the prediction accuracy of the oil temperature of the synchronous condenser oil system, realizes the real-time monitoring of the oil temperature of the synchronous condenser oil system, and provides strong support for the safe operation of the synchronous condenser.

[0004] Patent application CN110782190A discloses a phase shifter remote diagnosis system based on ubiquitous power Internet of Things technology, including equipment ledger database, standard database, historical database, evaluation model database, fault diagnosis model database, remote expert diagnosis database, online monitoring equipment, workflow engine, communication device, and management server. The present invention uses the power grid as a hub, builds a data center through data warehouse and data replication technologies, and realizes the sharing and exchange of all information data; realizes the processing of abnormal values, data standardization, data generalization and data aggregation through data conversion, and then realizes the reasoning work of the fault diagnosis knowledge base; uses data warehouse and data mining technology to perform integrated indicator analysis on various indicators in the operation, production, and management of the phase shifter, and establishes a safety early warning evaluation system based on massive data, which can combine the system operation status estimation technology to ensure the healthy operation of the phase shifter and realize refined prediction and coordinated control.

[0005] Patent application CN109586311A discloses a coordinated control method for a phase regulator and a reactive compensation device of a DC converter station, which mainly includes proposing a coordinated cooperation scheme for the phase regulator and the DC, as well as a coordination strategy under normal operating conditions of the power grid and a coordinated cooperation strategy under conditions such as faults. The results show that under the coordinated cooperation strategy, the transient reactive support effect of the phase regulator is improved, thereby improving the stability level of the power grid voltage and reducing the probability of DC commutation failure, that is, improving the safe and stable operation level of the UHV power grid.

[0006] Patent application CN109149594A discloses an optimization method for non-full-phase operation of a DC receiving-end phase condenser, including: if a local non-full-phase signal is input and the current at the machine end of the modulation group and the high-voltage side of the main transformer does not meet the non-full-phase protection judgment condition of the modulation group, a non-full-phase reactive power command signal is sent to the phase condenser monitoring system; the reactive output of the phase condenser is increased; if the reactive output of the phase condenser meets the judgment condition of the non-full-phase protection of the modulation group and the non-full-phase protection of the modulation group has not yet been activated, the phase condenser monitoring system will keep the phase condenser in reactive output operation that meets the judgment condition of the non-full-phase protection of the modulation group. The present invention avoids the problem that the existing DC receiving-end phase condenser modulation group has a non-full-phase state of the phase condenser under low reactive output, which makes the phase condenser continue to operate in a non-full-phase fault state, and prevents the phase condenser from being strongly excited and instantly outputting a large amount of reactive power in a non-full-phase fault state. The huge negative sequence current generated by the phase condenser causing huge damage to the phase condenser rotor and reducing the operating life of the phase condenser.

[0007] Patent application CN109038684A discloses a method for idling synchronous grid-connected large-scale synchronous phase-converting units, including: using an SFC device to drag the phase-converting unit, when the speed of the phase-converting unit is accelerated to 1.05 times the rated speed, the SFC device exits and the excitation system boosts the voltage; the phase-converting unit is affected by mechanical friction, no-load loss of the main transformer and excitation loss, and the speed gradually decreases. After the monitoring system detects that the voltage at the machine end rises to the set value, it sends a start synchronization command to the synchronization device. The synchronization device detects the voltage on the side to be connected and the grid side for real-time calculation, captures the grid-connected opportunity during the idling process of the unit, and sends a grid-connected circuit breaker closing command when it is determined that the conditions for synchronization are met; after detecting the grid-connected circuit breaker closing signal, the synchronization device feeds back a synchronization success signal to the monitoring system, and the synchronization grid-connected is successful. The present invention can realize the rapid and reliable grid-connected connection of the synchronous phase-converting unit, and has guiding significance for the synchronous grid-connected connection of other similar idling equipment.

[0008] Patent application CN105785188A discloses a phase adjustment test method for a large-capacity phase regulator with less impact on the power grid. It is proposed that when the phase adjustment test of the phase regulator is carried out, it should be carried out under the condition that two phase regulators on the same bus are running simultaneously. When one phase regulator is carrying out the lagging phase test, the other is carrying out the leading phase operation test. In this way, the phase regulator of the leading phase test provides a power grid environment with a low power grid voltage for the phase regulator of the lagging phase test. Similarly, the phase regulator carrying out the lagging phase test provides a power grid environment with a high power grid voltage for the phase regulator of the leading phase test. This avoids the phase regulator machine terminal voltage reaching the lower limit due to insufficient grid voltage during the leading phase test or the machine terminal voltage reaching the upper limit due to insufficient grid voltage during the lagging phase test. The present invention enables the phase regulator to obtain the desired phase adjustment performance through the test, and at the same time reduces the impact on the grid voltage to a certain extent during the test, and has good application prospects.

[0009] However, the following technical problems still exist in the current phase regulator and its use:

[0010] 1. In the prior art, when the power grid is phase-adjusted, a phase regulator is usually used. However, when electricity is applied, the activation and deactivation of the electrical equipment is intermittent, that is, it is activated at a certain time and deactivated at another certain time, which causes the capacitive reactance and inductive reactance characteristics in the power grid to be variable. Therefore, if only a fixed phase regulator is used, it is easy to lead to a situation where it can only meet the requirements for a certain period of time and does not meet the requirements for most of the time, which may have the opposite technical effect.

[0011] 2. In the transmission network, usually certain power nodes are connected in a network. With this topology, if in the advanced power nodes, although a relatively low capacitance or inductance value is maintained overall, the capacitance value is relatively high in each lower power node, which may easily lead to a large amount of useless work required in each lower power node, resulting in voltage instability or an accident due to overload of the main cable.

[0012] 3. For the power grid, there may be irregular sudden large-power consumption equipment or power consumption nodes. If only the fitting method based on historical power consumption data is adopted, it will be impossible to handle the sudden power consumption data of the emergency. The sudden impact on the power grid will easily lead to errors in the transmission network.

[0013] In the face of the above technical problems, people hope to provide a more intelligent, more convenient and more accurate regulator system, so as to better and quickly adapt to the power supply needs of the power grid. However, so far, there is no effective way to solve the above technical problems in the existing technology. Summary of the invention

[0014] The object of the present invention is to provide a monitoring method and system for an intelligent integrated monitoring system for a phase regulator, so as to solve the problems raised in the above-mentioned background technology.

[0015] To achieve the above object, the present invention provides the following technical solutions:

[0016] An intelligent integrated monitoring system for a phase condenser, comprising an intelligent phase condenser centralized control platform, an electricity data storage platform, a data acquisition module, a phase condenser module and a phase condenser start module; the intelligent phase condenser centralized control platform of the phase condenser is respectively connected with the electricity data storage platform, the data acquisition module and the phase condenser module for data communication;

[0017] The invention is characterized in that: the power consumption units in the power grid are divided into multiple power consumption nodes according to the connection relationship, that is, one power consumption unit forms one power consumption node, and multiple power consumption nodes are connected to the upper power supply network to form the upper power consumption nodes, and this recursive form of connection is finally connected to the power supply root network to form a tree-like power consumption network topology structure; the power consumption nodes are numbered;

[0018] On each power consumption node, a data acquisition module, a phase-shifting module and a phase-shifting startup module are provided; wherein the data acquisition module is used to collect the reactance value of each power consumption node at the current moment, and send the reactance value of each power consumption node at the current moment of the position of the power consumption node to the intelligent phase-shifting centralized control platform of the phase-shifting, and the intelligent phase-shifting centralized control platform records the time, the position of the power consumption node and the reactance value to form a historical power consumption reactance data record, and stores it in the power consumption data storage platform, and a certain number of historical power consumption reactance data records form a historical power consumption reactance database;

[0019] The intelligent phase adjustment centralized control platform reads the historical power consumption reactance database stored in the power consumption data storage platform to perform data analysis, obtains the corresponding relationship between the capacitive reactance value and time of each power consumption node, the maximum capacitive reactance value and the maximum inductive reactance value, and stores them in the intelligent phase adjustment centralized control platform;

[0020] According to the maximum capacitive reactance value and the maximum inductive reactance value of each power consumption node, the maximum inductive reactance value and the maximum inductive reactance value of the phase regulator of each power consumption node are configured so as to cover the phase regulation of all power consumption scenarios;

[0021] When the intelligent integrated monitoring system for phase regulators is working, the intelligent phase regulation centralized control platform forms phase regulator control instructions for each power consumption node based on the corresponding relationship between the capacitive reactance value and time, and the phase regulator control instructions include the configured reactance value and the operation time, and are sent to the phase regulator startup module. The phase regulator startup module configures the corresponding reactance value capacitor or inductor at the corresponding operation time based on the corresponding phase regulator control instruction obtained; at the same time, the data acquisition module acquires the reactance value of each power consumption node at the real time, and sends the reactance value of each power consumption node at the current moment of the position of the power consumption node to the intelligent phase regulation centralized control platform of the phase regulator. The intelligent phase-adjusting centralized control platform can record time, power node location and reactance value to form a new historical power reactance data record, and store it in the power data storage platform, and delete the earliest stored historical power reactance data record to maintain a certain number of historical power reactance data records; at the same time, the intelligent phase-adjusting centralized control platform is regularly used to read the historical power reactance database stored in the power data storage platform for data analysis to obtain a new corresponding relationship between the capacitive reactance value of each power node over time, the maximum capacitive reactance value and the maximum inductive reactance value, so as to update the corresponding relationship between the capacitive reactance value of each power node over time, the maximum capacitive reactance value and the maximum inductive reactance value stored in the intelligent phase-adjusting centralized control platform.

[0022] Preferably, the data acquisition module collects the reactance value of each of the power nodes at the real-time moment, and sends the reactance value of each of the power nodes at the current moment of the position of the power node to the intelligent phase-adjusting centralized control platform of the phase regulator. The intelligent phase-adjusting centralized control platform is based on the reactance value of each of the adjacent power nodes at the same level connected to the same upper-level power node. When the reactance values ​​of each of the power nodes are basically matched, the power nodes of the upper-level power nodes are not connected to the phase regulator.

[0023] Preferably, the intelligent phase-shifting centralized control platform obtains the active power and reactive power collected by the electricity consumption meter, and then obtains the reactive power ratio of the electricity consumption node. When the reactive power ratio is lower than a preset value, the phase-shifting start-up module shuts down the use of the phase-shifting module.

[0024] Preferably, the phase modulator module includes a plurality of inductance components and a plurality of capacitance components and a selection switch, and the series and parallel connection of the inductance components and the capacitance components are realized by the selection switch, and the module is immersed in a coolant for cooling.

[0025] Preferably, the multiple inductance components, the multiple capacitance components and the selection switch in the phase modulator module adopt a standard modular configuration and can be configured in the phase modulator module in the form of building blocks.

[0026] Preferably, the data acquisition module collects the reactance value of each power consumption node at real time. After the phase modulator module is enabled by the phase modulator startup module, if the reactance value is still higher than the preset value, it is considered that the phase modulator is faulty and an alarm is issued through the intelligent phase modulation control platform.

[0027] Preferably, when there is a large capacitive reactance device or inductive reactance device connected, the power demand is sent to the intelligent phase-adjusting centralized control platform. The power demand includes the power consumption period, the location of the power node and the reactance value of the power equipment. The intelligent phase-adjusting centralized control platform obtains the final capacitive reactance value correspondence over time of the power node based on the power demand and the new capacitive reactance value of each power node over time, and sends it to the phase-adjusting startup module to control the phase-adjusting phase.

[0028] On the other hand, the present application also provides a monitoring method for an intelligent integrated monitoring system for a phase regulator, including an intelligent integrated monitoring system for a phase regulator, and the specific monitoring method is as follows;

[0029] Step S1, dividing the power consumption units in the power grid into multiple power consumption nodes according to the connection relationship, that is, forming one power consumption unit into one power consumption node, and multiple power consumption nodes are connected to the upper layer power supply network to form the upper level power consumption nodes, and this recursive form of connection is finally connected to the power supply root network to form a tree-like power consumption network topology structure; numbering the power consumption nodes;

[0030] Step S2, a data acquisition module, a phase-shifting module and a phase-shifting startup module are provided on each power consumption node; wherein the data acquisition module is used to collect the reactance value of each power consumption node at the current moment, and send the reactance value of each power consumption node at the current moment of the position of the power consumption node to the intelligent phase-shifting centralized control platform of the phase-shifting, the intelligent phase-shifting centralized control platform records the time, the power consumption node position and the reactance value, forms a historical power consumption reactance data record, and stores it in the power consumption data storage platform, and a certain number of historical power consumption reactance data records form a historical power consumption reactance database;

[0031] Step S3, the intelligent phase adjustment centralized control platform reads the historical power consumption reactance database stored in the power consumption data storage platform to perform data analysis, obtains the corresponding relationship between the capacitive reactance value of each power consumption node and time, the maximum capacitive reactance value and the maximum inductive reactance value, and stores them in the intelligent phase adjustment centralized control platform; according to the maximum capacitive reactance value and the maximum inductive reactance value of each power consumption node, configures the maximum inductive reactance value and the maximum inductive reactance value of the phase adjustment of each power consumption node, so as to cover the phase adjustment of all power consumption scenarios;

[0032] Step S4, when the intelligent integrated monitoring system for the phase regulator is working, the intelligent phase regulator centralized control platform forms a phase regulator control instruction of each power consumption node based on the corresponding relationship between the capacitive reactance value and time, and the phase regulator control instruction includes the configured reactance value and the operation time, and is sent to the phase regulator start-up module, and the phase regulator start-up module configures the corresponding reactance value capacitor or inductor at the corresponding operation time based on the corresponding phase regulator control instruction obtained;

[0033] Step S5, the data acquisition module acquires the reactance value of each power consumption node at the real time, and sends the reactance value of each power consumption node at the current moment of the power consumption node position to the intelligent phase adjustment centralized control platform of the phase regulator. The intelligent phase adjustment centralized control platform records the time, power consumption node position and reactance value to form a new historical power consumption reactance data record, and stores it in the power consumption data storage platform, and deletes the earliest stored historical power consumption reactance data record at the same time, so as to maintain a certain number of historical power consumption reactance data records;

[0034] Step S6, regularly using the intelligent phase adjustment centralized control platform to read the historical power consumption reactance database stored in the power consumption data storage platform for data analysis, and obtain new corresponding relationships between the capacitive reactance values ​​of each power consumption node over time, the maximum capacitive reactance value, and the maximum inductive reactance value, so as to update the corresponding relationships between the capacitive reactance values ​​of each power consumption node over time, the maximum capacitive reactance value, and the maximum inductive reactance value stored in the intelligent phase adjustment centralized control platform;

[0035] Step S7, the data acquisition module collects the reactance value of each power node at the real-time moment, and sends the reactance value of each power node at the current moment of the position of the power node to the intelligent phase-adjusting centralized control platform of the phase regulator, the intelligent phase-adjusting centralized control platform is based on the reactance value of each power node of the adjacent same level connected to the same upper-level power node, when the reactance values ​​of each power node are basically matched, the power node of the upper-level power node is not connected to the phase regulator.

[0036] Preferably, the data acquisition module collects the reactance value of each power consumption node at real time. After the phase modulator module is enabled by the phase modulator startup module, if the reactance value is still higher than the preset value, it is considered that the phase modulator is faulty and an alarm is issued through the intelligent phase modulation control platform.

[0037] On the other hand, the present application also provides a computer storage medium, wherein the computer storage medium stores a computer program, and the computer program is used to execute the monitoring method as claimed in any one of claims 8-9.

[0038] Compared with the prior art, the present invention has the following beneficial effects:

[0039] 1. In the present application, a data acquisition module is used to collect the reactance value of each power consumption node at the current moment to form a historical power consumption reactance data record, and then a certain number of historical power consumption reactance data records are formed to form a historical power consumption reactance database. The intelligent phase modulation control platform reads the historical power consumption reactance database stored in the power consumption data storage platform for data analysis to obtain the corresponding relationship between the capacitive reactance value of each power consumption node and time, the maximum capacitive reactance value and the maximum inductive reactance value, and then controls the phase modulation start-up module to configure the corresponding reactance value capacitor or inductor to achieve a better matching effect.

[0040] 2. In the present application, the data acquisition module collects the reactance value of each of the power nodes at the real-time moment, and sends the reactance value of each of the power nodes at the current moment of the position of the power node to the intelligent phase-adjusting centralized control platform of the phase regulator. The intelligent phase-adjusting centralized control platform is based on the reactance value of each of the adjacent power nodes at the same level connected to the same upper-level power node. When the reactance values ​​of each of the power nodes are basically matched, the power node of the upper-level power node is not connected to the phase regulator.

[0041] 3. In the present application, when there is a large capacitive reactance device or inductive reactance device connected, the power demand is sent to the intelligent phase adjustment control platform. The power demand includes the power consumption period, the location of the power node and the reactance value of the power equipment. The intelligent phase adjustment control platform obtains the final capacitive reactance value of the power node over time based on the power demand and the new correspondence between the capacitive reactance value of each power node and time, and then sends it to the phase adjustment start-up module to control the phase adjustment. BRIEF DESCRIPTION OF THE DRAWINGS

[0042] Figure 1 It is a schematic diagram of the overall structure of the present invention.

[0043] In the figure: 1. Intelligent phase modulation centralized control platform; 2. Power consumption data storage platform; 3. Data acquisition module; 4. Phase modulation module; 5. Phase modulation start-up module; 6. Power consumption node. DETAILED DESCRIPTION

[0044] 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. Specific embodiment one:

[0046] See also Figure 1The present invention provides a technical solution: an intelligent integrated monitoring system for phase-shifting devices, comprising an intelligent phase-shifting centralized control platform 1, an electricity data storage platform 2, a data acquisition module 3, a phase-shifting device module 4 and a phase-shifting device startup module 5; the intelligent phase-shifting centralized control platform 1 of the phase-shifting device is respectively connected to the electricity data storage platform 2, the data acquisition module 3 and the phase-shifting device module 4 for data communication;

[0047] The invention is characterized in that: the power consumption units in the power grid are divided into a plurality of power consumption nodes 6 according to the connection relationship, that is, one power consumption unit forms one power consumption node, and a plurality of power consumption nodes are connected to the upper power supply network to form the upper power consumption nodes, and this recursive form of connection is finally connected to the power supply root network to form a tree-like power consumption network topology structure; the power consumption nodes are numbered;

[0048] On each power consumption node, a data acquisition module 3, a phase-shifting module 4 and a phase-shifting startup module 5 are provided; wherein the data acquisition module 3 is used to collect the reactance value of each power consumption node at the current moment, and send the reactance value of each power consumption node at the current moment of the position of the power consumption node to the intelligent phase-shifting centralized control platform 1 of the phase-shifting, the intelligent phase-shifting centralized control platform 1 records the time, the power consumption node position and the reactance value, forms a historical power consumption reactance data record, and stores it in the power consumption data storage platform 2, a certain number of historical power consumption reactance data records form a historical power consumption reactance database;

[0049] The intelligent phase adjustment centralized control platform 1 reads the historical power consumption reactance database stored in the power consumption data storage platform 2 to perform data analysis, obtains the corresponding relationship between the capacitive reactance value and time of each power consumption node, the maximum capacitive reactance value and the maximum inductive reactance value, and stores them in the intelligent phase adjustment centralized control platform 1;

[0050] According to the maximum capacitive reactance value and the maximum inductive reactance value of each power consumption node, the maximum inductive reactance value and the maximum inductive reactance value of the phase regulator of each power consumption node are configured so as to cover the phase regulation of all power consumption scenarios;

[0051] When the intelligent integrated monitoring system for phase regulators is working, the intelligent phase regulation centralized control platform 1 forms phase regulator control instructions for each power consumption node based on the corresponding relationship between the capacitive reactance value and time, and the phase regulator control instructions include the configured reactance value and the operation time, and are sent to the phase regulator startup module 5. The phase regulator startup module 5 configures the corresponding reactance value capacitor or inductor at the corresponding operation time based on the corresponding phase regulator control instruction obtained; at the same time, the data acquisition module 3 acquires the reactance value of each power consumption node at the real time, and sends the reactance value of each power consumption node at the current moment of the position of the power consumption node to the intelligent phase regulation centralized control platform 1 of the phase regulator. The intelligent phase-adjusting centralized control platform 1 can record the time, the location of the power consumption node and the reactance value to form a new historical power consumption reactance data record, and store it in the power consumption data storage platform 2, and delete the earliest stored historical power consumption reactance data record to maintain a certain number of historical power consumption reactance data records; at the same time, the intelligent phase-adjusting centralized control platform 1 is regularly used to read the historical power consumption reactance database stored in the power consumption data storage platform 2 for data analysis to obtain a new corresponding relationship between the capacitive reactance value of each power consumption node over time, the maximum capacitive reactance value and the maximum inductive reactance value, thereby updating the corresponding relationship between the capacitive reactance value of each power consumption node over time, the maximum capacitive reactance value and the maximum inductive reactance value stored in the intelligent phase-adjusting centralized control platform 1.

[0052] Preferably, the data acquisition module 3 collects the reactance value of each of the power nodes at the real-time moment, and sends the reactance value of each of the power nodes at the current moment of the position of the power node to the intelligent phase-adjusting centralized control platform 1 of the phase regulator. The intelligent phase-adjusting centralized control platform 1 is based on the reactance value of each of the adjacent power nodes at the same level connected to the same upper-level power node. When the reactance values ​​of each of the power nodes are basically matched, the power nodes of the upper-level power nodes are not connected to the phase regulator.

[0053] Preferably, the intelligent phase modulation control platform 1 obtains the active power and reactive power collected by the electricity consumption meter, and then obtains the reactive power ratio of the power consumption node. When the reactive power ratio is lower than the preset value, the phase modulation start-up module 5 shuts down the use of the phase modulation module 4.

[0054] Preferably, the phase modulator module 4 includes a plurality of inductance components and a plurality of capacitance components and a selection switch, and the series and parallel connection of the inductance components and the capacitance components are realized by the selection switch, and the module is immersed in a coolant for cooling.

[0055] Preferably, the multiple inductance components, the multiple capacitance components and the selection switch in the phase modulator module 4 adopt a standard modular configuration and can be configured in the phase modulator module 4 in the form of building blocks.

[0056] Preferably, the data acquisition module 3 collects the reactance value of each power consumption node at a real-time moment. After the phase modulator module 4 is enabled by the phase modulator startup module 5, if the reactance value is still higher than a certain value, it is considered that the phase modulator has a fault, and an alarm is issued through the intelligent phase modulation control platform.

[0057] Preferably, when there is a large capacitive reactance device or inductive reactance device connected, the power demand is sent to the intelligent phase adjustment control platform 1. The power demand includes the power consumption period, the location of the power node and the reactance value of the power equipment. The intelligent phase adjustment control platform 1 obtains the final capacitive reactance value of the power node over time based on the power demand and the new correspondence between the capacitive reactance value of each power node and time, and then sends it to the phase adjustment start module 5 to control the phase adjustment. Specific embodiment 2:

[0059] A monitoring method for an intelligent integrated monitoring system for a phase regulator, including an intelligent integrated monitoring system for a phase regulator, and the specific monitoring method is as follows;

[0060] Step S1, dividing the power consumption units in the power grid into multiple power consumption nodes 6 according to the connection relationship, that is, forming one power consumption unit into one power consumption node, and multiple power consumption nodes are connected to the upper layer power supply network to form the upper level power consumption nodes, and this recursive form of connection is finally connected to the power supply root network to form a tree-like power consumption network topology structure; the power consumption nodes are numbered;

[0061] Step S2, on each power consumption node, a data acquisition module 3, a phase modulation module 4 and a phase modulation start module 5 are set; wherein the data acquisition module 3 is used to collect the reactance value of each power consumption node at the current moment, and send the position of the power consumption node and the reactance value of each power consumption node at the current moment to the intelligent phase modulation centralized control platform 1 of the phase modulation, the intelligent phase modulation centralized control platform 1 records the time, the power consumption node position and the reactance value, forms a historical power consumption reactance data record, and stores it in the power consumption data storage platform 2, and a certain number of historical power consumption reactance data records form a historical power consumption reactance database;

[0062] Step S3, the intelligent phase adjustment centralized control platform 1 reads the historical power consumption reactance database stored in the power consumption data storage platform 2 to perform data analysis, obtains the corresponding relationship between the capacitive reactance value of each power consumption node and time, the maximum capacitive reactance value and the maximum inductive reactance value, and stores them in the intelligent phase adjustment centralized control platform 1; according to the maximum capacitive reactance value and the maximum inductive reactance value of each power consumption node, configures the maximum inductive reactance value and the maximum inductive reactance value of the phase adjustment of each power consumption node, so as to cover the phase adjustment of all power consumption scenarios;

[0063] Step S4, when the intelligent integrated monitoring system for phase regulator is working, the intelligent phase regulator centralized control platform 1 forms a phase regulator control instruction of each power consumption node based on the corresponding relationship between the capacitive reactance value and time, and the phase regulator control instruction includes the configured reactance value and the operation time, and sends it to the phase regulator starting module 5, and the phase regulator starting module 5 configures the corresponding reactance value capacitor or inductor at the corresponding operation time based on the corresponding phase regulator control instruction obtained;

[0064] Step S5, the data acquisition module 3 acquires the reactance value of each power consumption node at the real time, and sends the reactance value of each power consumption node at the current moment of the power consumption node position to the intelligent phase adjustment centralized control platform 1 of the phase regulator. The intelligent phase adjustment centralized control platform 1 records the time, power consumption node position and reactance value to form a new historical power consumption reactance data record, and stores it in the power consumption data storage platform 2, and deletes the earliest stored historical power consumption reactance data record at the same time, so as to maintain a certain number of historical power consumption reactance data records;

[0065] Step S6, regularly use the intelligent phase adjustment centralized control platform 1 to read the historical power consumption reactance database stored in the power consumption data storage platform 2 for data analysis, and obtain the new corresponding relationship between the capacitive reactance value and time, the maximum capacitive reactance value and the maximum inductive reactance value of each power consumption node, so as to update the corresponding relationship between the capacitive reactance value and time, the maximum capacitive reactance value and the maximum inductive reactance value of each power consumption node stored in the intelligent phase adjustment centralized control platform 1;

[0066] Step S7, the data acquisition module 3 collects the reactance value of each power node at the real-time moment, and sends the reactance value of each power node at the current moment of the position of the power node to the intelligent phase-adjusting centralized control platform 1 of the phase regulator. The intelligent phase-adjusting centralized control platform 1 is based on the reactance value of each power node at the adjacent same level connected to the same upper-level power node. When the reactance values ​​of each power node are basically matched, the power node of the upper-level power node is not connected to the phase regulator.

[0067] Preferably, the data acquisition module 3 collects the reactance value of each power consumption node at real time. After the phase modulator module 4 is enabled by the phase modulator startup module 5, if the reactance value is still higher than a certain value, it is considered that the phase modulator has a fault, and an alarm is issued through the intelligent phase modulation control platform. Specific embodiment three:

[0069] A computer storage medium stores a computer program, wherein the computer program is used to execute the aforementioned monitoring method.

[0070] It should be noted that, in this article, relational terms such as first and second, etc. are only used to distinguish one entity or operation from another entity or operation, and do not necessarily require or imply any such actual relationship or order between these entities or operations. Moreover, the terms "include", "comprise" or any other variants thereof are intended to cover non-exclusive inclusion, so that a process, method, article or device including a series of elements includes not only those elements, but also other elements not explicitly listed, or also includes elements inherent to such process, method, article or device.

[0071] Although embodiments of the present invention have been shown and described, it will be appreciated by those skilled in the art that various changes, modifications, substitutions and variations may be made to the embodiments without departing from the principles and spirit of the present invention, and that the scope of the present invention is defined by the appended claims and their equivalents.

Claims

1. An intelligent integrated monitoring system for a phase condenser, comprising an intelligent phase condenser centralized control platform (1), an electricity data storage platform (2), a data acquisition module (3), a phase condenser module (4) and a phase condenser start module (5); the intelligent phase condenser centralized control platform (1) of the phase condenser is respectively connected to the electricity data storage platform (2), the data acquisition module (3) and the phase condenser module (4) for data communication; Features: The power consumption units in the power grid are divided into a plurality of power consumption nodes (6) according to the connection relationship, that is, one power consumption unit forms one power consumption node, and a plurality of power consumption nodes are connected to the power supply network of the upper layer to form the power consumption nodes of the upper layer. This recursive connection is finally connected to the power supply root network to form a tree-like topological structure of the power consumption network; the power consumption nodes are numbered; A data acquisition module (3), a phase-shifting module (4) and a phase-shifting startup module (5) are provided on each power consumption node; wherein the data acquisition module (3) is used to collect the reactance value of each power consumption node at the current moment, and send the position of the power consumption node and the reactance value of each power consumption node at the current moment to the intelligent phase-shifting centralized control platform (1) of the phase-shifting module; the intelligent phase-shifting centralized control platform (1) records the time, the position of the power consumption node and the reactance value, forms a historical power consumption reactance data record, and stores it in the power consumption data storage platform (2); and a historical power consumption reactance database is constructed based on a certain number of historical power consumption reactance data records; The intelligent phase adjustment centralized control platform (1) reads the historical power consumption reactance database stored in the power consumption data storage platform (2) to perform data analysis, obtains the corresponding relationship between the capacitive reactance value and time of each power consumption node, the maximum capacitive reactance value and the maximum inductive reactance value, and stores them in the intelligent phase adjustment centralized control platform (1); According to the maximum capacitive reactance value and the maximum inductive reactance value of each power consumption node, the maximum capacitive reactance value and the maximum inductive reactance value of the phase regulator of each power consumption node are configured so as to cover the phase regulation of all power consumption scenarios; When the intelligent integrated monitoring system for phase shifters is working, the intelligent phase shifting centralized control platform (1) forms phase shifting control instructions for each power consumption node based on the corresponding relationship between the capacitive reactance value and time, and sends the instructions to the phase shifting startup module (5), wherein the phase shifting control instructions include the configured maximum inductive reactance value, the maximum capacitive reactance value and the operation time. The phase shifting startup module (5) configures the corresponding capacitive reactance or inductor at the corresponding operation time based on the corresponding phase shifting control instructions obtained. At the same time, the data acquisition module (3) collects the reactance value of each power consumption node in real time, and sends the position of each power consumption node and the reactance value of each power consumption node at the current time to the intelligent phase shifting centralized control platform (1) of the phase shifter. The intelligent phase shifting centralized control platform (1) records the time, the position of the power consumption node and the reactance value, forms a new historical power consumption reactance data record, and stores it in the power consumption data storage platform (2), and deletes the earliest stored historical power consumption reactance data record to maintain a certain number of historical power consumption reactance data records. The intelligent phase adjustment centralized control platform (1) is used regularly to read the historical power consumption reactance database stored in the power consumption data storage platform (2) for data analysis, and obtain new time correspondences of the capacitive reactance values ​​of each power consumption node, the maximum capacitive reactance value and the maximum inductive reactance value, so as to update the time correspondences of the capacitive reactance values ​​of each power consumption node, the maximum capacitive reactance value and the maximum inductive reactance value stored in the intelligent phase adjustment centralized control platform (1); the data acquisition module (3) acquires the reactance value of each power consumption node in real time, and sends the reactance value of each power consumption node at the current moment of the position of the power consumption node to the intelligent phase adjustment centralized control platform (1) of the phase adjustment machine, and the intelligent phase adjustment centralized control platform (1) is based on the reactance value of each power consumption node of each adjacent same level connected to the same upper level power consumption node. If the reactance values ​​of each power consumption node are basically matched, the power consumption node of the upper level power consumption node is not connected to the phase adjustment machine, wherein the matching means that the capacitive reactance value of each power consumption unit connected to the power consumption node is equal to the inductive reactance value.

2. The intelligent integrated monitoring system for phase regulator according to claim 1, characterized in that: The intelligent phase modulation centralized control platform (1) obtains the active power and reactive power collected by the power consumption meter, calculates the reactive power ratio of the power consumption node, and if the reactive power ratio is lower than a preset value, the phase modulation start module (5) shuts down the use of the phase modulation module (4).

3. The intelligent integrated monitoring system for phase regulator according to claim 2, characterized in that: The phase modulator module (4) comprises a plurality of inductance components and a plurality of capacitance components and a selection switch, and the series and parallel connection of the inductance components and the capacitance components is realized by the selection switch, and the inductance components and the capacitance components are immersed in a cooling liquid for cooling.

4. The intelligent integrated monitoring system for phase regulator according to claim 1, characterized in that: The plurality of inductance components, the plurality of capacitance components and the selection switch in the phase modulator module (4) are arranged in a standard modular configuration and can be configured in the phase modulator module (4) in the form of building blocks.

5. The intelligent integrated monitoring system for phase regulator according to claim 1, characterized in that: The data acquisition module (3) acquires the reactance value of each power consumption node at a real time moment. After the phase modulator module (4) is enabled by the phase modulator startup module (5), if the reactance value is still higher than a preset value, it is considered that the phase modulator has a fault, and an alarm is issued through the intelligent phase modulation centralized control platform.

6. The intelligent integrated monitoring system for phase regulator according to claim 1, characterized in that: When a large capacitive reactance device or inductive reactance device is connected, the power demand is sent to the intelligent phase adjustment centralized control platform (1), wherein the power demand includes the power consumption period, the location of the power consumption node and the reactance value of the power consumption device. The intelligent phase adjustment centralized control platform (1) obtains the final capacitive reactance value of the power consumption node over time based on the power demand and the new correspondence between the capacitive reactance value of each power consumption node and time, and then sends it to the phase adjustment start module (5) to control the phase adjustment.

7. A monitoring method for an intelligent integrated monitoring system for a phase regulator, comprising the intelligent integrated monitoring system for a phase regulator according to any one of claims 1 to 6, wherein the specific monitoring method is as follows; Step S1, dividing the power consumption units in the power grid into multiple power consumption nodes (6) according to the connection relationship, that is, forming one power consumption unit into one power consumption node, and multiple power consumption nodes are connected to the upper layer power supply network to form the upper level power consumption nodes, and this recursive form of connection is finally connected to the power supply root network to form a tree-like power consumption network topology structure; the power consumption nodes are numbered; Step S2, a data acquisition module (3), a phase-modulation module (4) and a phase-modulation start-up module (5) are provided on each power consumption node; wherein, The data acquisition module (3) is used to collect the reactance value of each power consumption node at the current moment, and send the reactance value of each power consumption node at the current moment of the position of the power consumption node to the intelligent phase adjustment centralized control platform (1) of the phase adjustment machine. The intelligent phase adjustment centralized control platform (1) records the time, the position of the power consumption node and the reactance value to form a historical power consumption reactance data record, and stores it in the power consumption data storage platform (2). A certain number of historical power consumption reactance data records form a historical power consumption reactance database. Step S3, the intelligent phase adjustment centralized control platform (1) reads the historical power consumption reactance database stored in the power consumption data storage platform (2) to perform data analysis, obtains the corresponding relationship between the capacitive reactance value of each power consumption node and time, the maximum capacitive reactance value and the maximum inductive reactance value, and stores them in the intelligent phase adjustment centralized control platform (1); according to the maximum capacitive reactance value and the maximum inductive reactance value of each power consumption node, configures the maximum inductive reactance value and the maximum inductive reactance value of the phase adjustment machine of each power consumption node, so as to cover the phase adjustment of all power consumption scenarios; Step S4, when the intelligent integrated monitoring system for phase shifters is working, the intelligent phase shifter centralized control platform (1) forms phase shifter control instructions for each power consumption node based on the corresponding relationship between the capacitive reactance value and time, the phase shifter control instructions including the configured reactance value and the operation time, and sends the instructions to the phase shifter start-up module (5), and the phase shifter start-up module (5) configures the corresponding capacitive reactance or inductive reactance at the corresponding operation time based on the obtained corresponding phase shifter control instructions; Step S5, the data acquisition module (3) acquires the reactance value of each power consumption node in real time, and sends the position of each power consumption node and the reactance value of the power consumption node at the current moment to the intelligent phase adjustment centralized control platform (1) of the phase regulator, and the intelligent phase adjustment centralized control platform (1) records the time, the position of the power consumption node and the reactance value to form a new historical power consumption reactance data record, and stores it in the power consumption data storage platform (2), and deletes the earliest stored historical power consumption reactance data record to maintain a certain number of historical power consumption reactance data records; Step S6, regularly using the intelligent phase adjustment centralized control platform (1) to read the historical power consumption reactance database stored in the power consumption data storage platform (2) for data analysis, and obtain new corresponding relationships between the capacitive reactance values ​​of each power consumption node over time, the maximum capacitive reactance value, and the maximum inductive reactance value, so as to update the corresponding relationships between the capacitive reactance values ​​of each power consumption node over time, the maximum capacitive reactance value, and the maximum inductive reactance value stored in the intelligent phase adjustment centralized control platform (1); Step S7, the data acquisition module (3) acquires the reactance value of each power node at the real-time moment, and sends the reactance value of each power node at the current moment of the position of the power node to the intelligent phase adjustment centralized control platform (1) of the phase regulator, and the intelligent phase adjustment centralized control platform (1) is based on the reactance value of each power node of the adjacent same level connected to the same upper-level power node. When the reactance values ​​of each power node are basically matched, the power node of the upper-level power node is not connected to the phase regulator.

8. The monitoring method of the intelligent integrated monitoring system for phase regulator according to claim 7, characterized in that: The data acquisition module (3) acquires the reactance value of each power consumption node at a real time moment. After the phase modulator module (4) is enabled by the phase modulator startup module (5), if the reactance value is still higher than a certain value, it is considered that the phase modulator has a fault, and an alarm is issued through the intelligent phase modulation centralized control platform.

9. A computer storage medium storing a computer program, wherein the computer storage medium stores a computer program for executing the monitoring method according to any one of claims 7 to 8.

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