An intelligent energy management system based on colloidal battery and its application method

Abstract

The present invention provides an intelligent energy management system based on colloidal batteries and an application method thereof, wherein the system comprises: a monitoring module for determining a colloidal battery array, and monitoring the colloidal battery array in real time based on a monitoring device, and outputting real-time power data in the colloidal battery array; a data analysis module for transmitting the real-time power data in the colloidal battery array to a remote monitoring terminal for analysis, and outputting power balancing control instructions according to the analysis results; an energy management module for performing power balancing control on the colloidal battery array based on the power balancing control instructions, and outputting a control report, and at the same time, feeding back the control report to the remote monitoring terminal. The convenience of colloidal battery energy management is achieved, the problem of balanced distribution of electric energy among colloidal battery groups is solved, and the effective utilization of colloidal battery energy is achieved, thereby effectively improving the intelligent management of colloidal battery energy storage and release.

Description

Technical Field

[0001] The present invention relates to the technical field of energy management, and in particular to an intelligent energy management system based on a colloidal battery and an application method thereof. Background Art

[0002] At present, colloidal batteries are a type of device that utilizes electrochemical reactions in colloidal solutions to generate electrical energy. They have the advantages of high energy density, long service life, and low self-discharge rate. They are widely used in small electronic devices, sensors, and micro systems. Energy management of colloidal batteries can effectively improve the energy utilization rate of colloidal batteries and ensure the use effect of colloidal batteries.

[0003] However, when traditional energy management systems are performing energy management, they can only monitor the charging and discharging status of the battery, and can only issue warnings or interrupt the charging and discharging process when an abnormality occurs, but cannot intelligently intervene in the charging and discharging process. At the same time, since they only play a monitoring role, they cannot guarantee effective management of battery energy storage and release, resulting in insufficient battery energy utilization, imbalance of electrical energy between battery packs, and other problems, which greatly reduces the energy utilization effect of the battery;

[0004] Therefore, in order to overcome the above defects, the present invention provides an intelligent energy management system based on colloidal batteries and an application method thereof. Summary of the invention

[0005] The present invention provides an intelligent energy management system based on colloidal batteries and an application method thereof, which can effectively monitor the colloidal battery array based on a monitoring device to obtain real-time power data of each colloidal battery in the battery array by determining the colloidal battery array, and then realize power balance control of the colloidal battery array through a remote monitoring terminal, thereby realizing the convenience of colloidal battery energy management, solving the problem of balanced distribution of electric energy among colloidal battery groups, realizing effective utilization of colloidal battery energy, and effectively improving the intelligent management of colloidal battery energy storage and release.

[0006] An intelligent energy management system based on colloidal batteries, comprising:

[0007] A monitoring module is used to determine the colloidal battery array, and monitor the colloidal battery array in real time based on the monitoring device, and output the real-time power data in the colloidal battery array;

[0008] A data analysis module is used to transmit the real-time power data in the colloidal battery array to the remote monitoring terminal for analysis, and output power balancing control instructions according to the analysis results;

[0009] The energy management module is used to perform power balancing control on the colloidal battery array based on the power balancing control instruction, output a control report, and at the same time, feed back the control report to the remote monitoring terminal.

[0010] Preferably, a smart energy management system based on a colloidal battery, a monitoring module, comprises:

[0011] A battery array determination unit, used to obtain power supply requirements and determine the gel battery array based on the power supply requirements;

[0012] A monitoring unit, used to obtain the connection relationship between each colloid battery in the colloid battery array, and determine a monitoring scheme based on the connection relationship between each colloid battery, and monitor the colloid battery array according to the monitoring device based on the monitoring scheme;

[0013] The power reading unit is used to output the real-time power data in the colloid battery array based on the monitoring results.

[0014] Preferably, a smart energy management system based on colloidal batteries, a battery array determination unit, comprises:

[0015] Demand reading subunit, used to:

[0016] Read the power supply demand to determine the required power supply energy and required power supply voltage;

[0017] Get the rated storage capacity and rated voltage of a single gel battery;

[0018] A total battery group number determination subunit, used for determining M groups of gel battery groups based on the required power supply voltage and the rated voltage value of a single gel battery;

[0019] A GEL battery number determination subunit, used to determine N GEL batteries in each battery group based on the required power supply energy and the rated storage capacity of a single GEL battery;

[0020] Gel battery array building subunits for:

[0021] Connect M groups of batteries in series, and connect N colloid batteries in each group of batteries in parallel;

[0022] The construction of the colloidal battery array is completed based on the series connection results and the parallel connection results.

[0023] Preferably, a smart energy management system based on a colloidal battery, a monitoring unit, comprises:

[0024] A connection relationship reading subunit is used to read the connection relationship of each colloid battery in the colloid battery array and determine the connection characteristics between each colloid battery in the colloid battery array;

[0025] A monitoring scheme determination subunit, used to determine a monitoring scheme based on connection characteristics between the colloid batteries in the colloid battery array;

[0026] The monitoring control subunit is used to generate monitoring instructions based on the monitoring scheme, and at the same time, control the monitoring device to monitor the colloid battery array based on the monitoring instructions.

[0027] Preferably, in a smart energy management system based on a colloidal battery, in a monitoring module,

[0028] The real-time power data in the colloid battery array includes: the real-time total output power data of the colloid battery array and the real-time output power data of each colloid battery in the colloid battery array.

[0029] Preferably, a smart energy management system based on a colloidal battery, a data analysis module, comprises:

[0030] A data acquisition unit, for:

[0031] Acquire real-time power data of the colloidal battery array, and determine source information of each real-time power data based on parameter attributes of the real-time power data, and determine a battery terminal identifier of the colloidal battery corresponding to each real-time power data based on the source information;

[0032] The real-time power data of each colloid battery is associated with the corresponding battery terminal identifier to obtain a power data group, and the power data group is wirelessly transmitted to a remote monitoring terminal;

[0033] Data analysis unit for:

[0034] Acquire the current charge and discharge state of the colloidal battery array based on the remote monitoring terminal, and when the colloidal battery array is in the discharge state, determine the power difference of the colloidal battery relative to the fully charged static state based on the power data group;

[0035] Based on the power difference, the current real-time power of the colloidal battery array is determined, and the real-time power is tracked and recorded, and based on the preset protection mechanism of the colloidal battery and the tracking and recording results, the real-time power turning point when the charging mechanism intervenes in the working state of the colloidal battery array is obtained;

[0036] Based on the gel battery power attenuation parameter, the real-time power turning point is corrected, and the charge equalization control instruction index is obtained based on the correction result;

[0037] Determine the output load of each colloid battery in each colloid battery pack and each colloid battery pack in the colloid battery pack array when the charging mechanism intervenes based on the real-time power turning point, and determine the electric energy coordinated transfer scheme between the colloid batteries in the colloid battery pack and the colloid battery packs in the colloid battery pack array based on the output load and the energy balance index;

[0038] Based on the electric energy coordinated transfer scheme, the power balancing control instruction index is obtained;

[0039] The instruction generation unit is used to comprehensively analyze the charge balancing control instruction indicators and the power balancing control instruction indicators based on preset logic instructions using a low-code configuration solution, and obtain the power balancing control instruction based on the comprehensive analysis results.

[0040] Preferably, an intelligent energy management system based on a colloidal battery, an energy management module, comprises:

[0041] A control unit, used to read the power balancing control instruction and perform power balancing control on the colloidal battery array according to the reading result;

[0042] A report output unit, used to read the power balancing control process and generate a control report based on the reading result;

[0043] The report feedback unit is used to feed back the control report to the remote monitoring terminal.

[0044] Preferably, a smart energy management system based on a colloidal battery, a control unit, comprises:

[0045] Instruction fetch subunit, used to:

[0046] Reading the power balancing control instruction, and determining the instruction control key character of the power balancing control instruction based on the instruction reading result;

[0047] Positioning each colloid battery in the colloid battery array according to the command control key character;

[0048] The control subunit is used to determine the operation field corresponding to the instruction control key character based on the positioning result, and perform power balancing control on the corresponding colloid battery according to the operation field.

[0049] Preferably, an intelligent energy management system based on a colloidal battery, an energy management module, comprises:

[0050] A temperature monitoring unit, used to obtain the battery position node of each colloid battery in the colloid battery array when the colloid battery array is subjected to power balancing control based on the power balancing control instruction, and place a temperature sensor at the battery position node to perform temperature monitoring on the corresponding colloid battery to obtain temperature data of each colloid battery;

[0051] a communication object determination unit, configured to obtain identification information of the colloidal battery, and determine a first communication object according to the identification information of the colloidal battery, and simultaneously obtain identification information of the temperature sensor, and determine a second communication object according to the identification information of the temperature sensor, and simultaneously obtain identification information of the battery location node, and determine a third communication object according to the identification information of the battery location node;

[0052] A sending node determination unit, used to encapsulate the first communication object, the second communication object and the third communication object to generate a temperature monitoring sending node corresponding to the gel battery;

[0053] A receiving node determination unit, used to construct a temperature monitoring receiving node based on the address link of the remote monitoring terminal;

[0054] Analogue display unit for:

[0055] A temperature monitoring communication terminal is constructed based on a temperature monitoring sending node and a temperature monitoring receiving node, and the temperature data of each colloid battery in the colloid battery array is transmitted to a remote monitoring terminal in real time based on the temperature monitoring communication terminal;

[0056] Based on the remote monitoring terminal, the position distribution state of the colloidal battery array is simulated, and the temperature monitoring simulation node of each colloidal battery in the colloidal battery array is constructed;

[0057] The temperature data of each gel battery is mapped in the corresponding temperature simulation monitoring node, and at the same time, the preset temperature color table is retrieved;

[0058] Based on the temperature simulation monitoring node, the corresponding temperature data is matched with the preset temperature color table, and the temperature color corresponding to each temperature simulation monitoring node is output and displayed;

[0059] The temperature monitoring unit is used to monitor the temperature of the gel battery array based on the temperature color corresponding to each temperature simulation monitoring node.

[0060] An intelligent energy management application method based on a colloidal battery, comprising:

[0061] Step 1: Determine the colloidal battery array, and monitor the colloidal battery array in real time based on the monitoring device, and output the real-time power data in the colloidal battery array;

[0062] Step 2: Transmit the real-time power data in the colloidal battery array to the remote monitoring terminal for analysis, and output power balancing control instructions based on the analysis results;

[0063] Step 3: Based on the power balancing control instruction, the power balancing control is performed on the colloidal battery array, and a control report is output. At the same time, the control report is fed back to the remote monitoring terminal.

[0064] Compared with the prior art, the present invention has the following beneficial effects:

[0065] 1. By determining that the colloidal battery array can be effectively monitored based on the monitoring device to obtain the real-time power data of each colloidal battery in the battery array, and then the power balance control of the colloidal battery array can be realized through the remote monitoring terminal, the convenience of colloidal battery energy management is realized, the problem of balanced distribution of electric energy between colloidal battery groups is solved, and the effective utilization of colloidal battery energy is realized, thereby effectively improving the intelligent management of colloidal battery energy storage and release.

[0066] 2. By summarizing the real-time power data of the colloidal battery array and the battery terminal identification of the colloidal battery, and transmitting the summarized power data group to the remote monitoring terminal for analysis, the current charge and discharge state of the battery array can be accurately and effectively determined. Secondly, when the colloidal battery array is in a discharging state, the power difference of the colloidal battery relative to the fully charged static state is determined, so as to facilitate the accurate and effective determination of the current real-time power of the colloidal battery array based on the power difference. At the same time, the real-time power is tracked and recorded, so as to facilitate the accurate and effective determination of the real-time power turning point when the colloidal battery array is in a working state, so as to facilitate the accurate and effective determination of the real-time power turning point according to the real-time power turning point. The charging balancing control instruction index is locked. Finally, after the charging mechanism is connected, the electric energy coordinated transfer scheme in the colloidal battery array is locked according to the output load, and the electric energy coordinated transfer scheme is used to accurately and effectively determine the electric energy balancing control instruction index. According to the preset logical instructions, the charging balancing control instruction index and the electric energy balancing control instruction index are comprehensively analyzed to achieve accurate and effective formulation of the electric energy balancing control instruction, thereby ensuring the accuracy of the energy balance of the colloidal battery, achieving the convenience of the energy management of the colloidal battery, solving the problem of balanced distribution of electric energy among the colloidal battery groups, and achieving effective utilization of the energy of the colloidal battery.

[0067] Other features and advantages of the present invention will be described in the following description, and partly become apparent from the description, or understood by practicing the present invention. The purpose and other advantages of the present invention can be realized and obtained by the structures specifically pointed out in this application document.

[0068] The technical solution of the present invention is further described in detail below through the accompanying drawings and embodiments. BRIEF DESCRIPTION OF THE DRAWINGS

[0069] The accompanying drawings are used to provide a further understanding of the present invention and constitute a part of the specification. Together with the embodiments of the present invention, they are used to explain the present invention and do not constitute a limitation of the present invention. In the accompanying drawings:

[0070] Figure 1 This is a structural diagram of an intelligent energy management system based on a colloidal battery in an embodiment of the present invention;

[0071] Figure 2 This is a structural diagram of a monitoring module in an intelligent energy management system based on a colloidal battery in an embodiment of the present invention;

[0072] Figure 3 The figure is a flow chart of an intelligent energy management application method based on a colloidal battery in an embodiment of the present invention. DETAILED DESCRIPTION

[0073] The preferred embodiments of the present invention are described below in conjunction with the accompanying drawings. It should be understood that the preferred embodiments described herein are only used to illustrate and explain the present invention, and are not used to limit the present invention.

[0074] Embodiment 1:

[0075] This embodiment provides an intelligent energy management system based on colloidal batteries, such as Figure 1 As shown, including:

[0076] A monitoring module is used to determine the colloidal battery array, and monitor the colloidal battery array in real time based on the monitoring device, and output the real-time power data in the colloidal battery array;

[0077] A data analysis module is used to transmit the real-time power data in the colloidal battery array to the remote monitoring terminal for analysis, and output power balancing control instructions according to the analysis results;

[0078] The energy management module is used to perform power balancing control on the colloidal battery array based on the power balancing control instruction, output a control report, and at the same time, feed back the control report to the remote monitoring terminal.

[0079] In this embodiment, the real-time power data in the colloidal battery array includes: real-time total output power data of the colloidal battery array and real-time output power data of each colloidal battery in the colloidal battery array.

[0080] In this embodiment, the colloidal battery is a special type of battery that uses a colloidal electrolyte (usually a silicate colloidal) as an electrolyte material and has a higher energy density, a longer life, and better anti-vibration performance, wherein the colloidal battery array may be a plurality of colloidal battery cells.

[0081] In this embodiment, the monitoring device may be pre-set and used to monitor the real-time power data contained in the colloidal battery array, wherein the real-time power data may be a value representing the amount of electric energy contained in the colloidal battery array.

[0082] In this embodiment, the power balancing control instruction can be to control the balance point of discharging and charging of the colloidal battery array, that is, to charge immediately after discharging to a certain value, to maintain the minimum power in the colloidal battery array, and to balance the power between different colloidal battery arrays according to the output load of each colloidal battery array during charging.

[0083] In this embodiment, the control report may be a record of the control result obtained after the electric quantity in the colloidal battery array is balanced and controlled.

[0084] The working principle and beneficial effects of the above technical solution are: by determining the colloidal battery array, it is possible to effectively monitor the colloidal battery array based on the monitoring device to obtain the real-time power data of each colloidal battery in the battery array, and then realize the power balance control of the colloidal battery array through the remote monitoring terminal, thereby realizing the convenience of colloidal battery energy management, solving the problem of balanced distribution of electric energy among colloidal battery groups, and realizing the effective utilization of colloidal battery energy, thereby effectively improving the intelligent management of colloidal battery energy storage and release.

[0085] Embodiment 2:

[0086] Based on Example 1, this example provides an intelligent energy management system based on colloidal batteries, such as Figure 2 As shown, the monitoring module includes:

[0087] A battery array determination unit, used to obtain power supply requirements and determine the gel battery array based on the power supply requirements;

[0088] A monitoring unit, used to obtain the connection relationship between each colloid battery in the colloid battery array, and determine a monitoring scheme based on the connection relationship between each colloid battery, and monitor the colloid battery array according to the monitoring device based on the monitoring scheme;

[0089] The power reading unit is used to output the real-time power data in the colloid battery array based on the monitoring results.

[0090] In this embodiment, the power supply requirement may be a parameter that characterizes the amount of power that needs to be provided to the device terminal by the gel battery array, so as to facilitate determination of the number of gel batteries required for power supply.

[0091] In this embodiment, the monitoring scheme may be a manner or method for monitoring the colloidal battery.

[0092] The working principle and beneficial effects of the above technical solution are: by determining the power supply demand and determining the colloidal battery array according to the power supply demand, secondly, determining the connection relationship of each colloidal battery, and determining the monitoring plan according to the connection relationship, and realizing effective monitoring of the colloidal battery array through the monitoring plan, and realizing accurate and effective acquisition of real-time power data in the colloidal battery array, thereby ensuring the accuracy and reliability of the acquired real-time power data.

[0093] Embodiment 3:

[0094] Based on Example 2, this embodiment provides an intelligent energy management system based on colloidal batteries, and the battery array determination unit includes:

[0095] Demand reading subunit, used to:

[0096] Read the power supply demand to determine the required power supply energy and required power supply voltage;

[0097] Get the rated storage capacity and rated voltage of a single gel battery;

[0098] A total battery group number determination subunit, used for determining M groups of gel battery groups based on the required power supply voltage and the rated voltage value of a single gel battery;

[0099] A GEL battery number determination subunit, used to determine N GEL batteries in each battery group based on the required power supply energy and the rated storage capacity of a single GEL battery;

[0100] Gel battery array building subunits for:

[0101] Connect M groups of batteries in series, and connect N colloid batteries in each group of batteries in parallel;

[0102] The construction of the colloidal battery array is completed based on the series connection results and the parallel connection results.

[0103] In this embodiment, the rated storage capacity may be the maximum capacity that can be stored in a single gel battery.

[0104] In this embodiment, the rated voltage value may be the maximum voltage that a single colloid battery can withstand.

[0105] In this embodiment, the required power supply energy may be the amount of power required to be provided by the gel battery array.

[0106] In this embodiment, the required supply voltage may be the voltage required to be provided by the gel battery array.

[0107] In this embodiment, each group of colloid batteries includes a plurality of colloid elevators.

[0108] The working principle and beneficial effects of the above technical solution are: by analyzing the obtained power supply demand, the required power supply energy and the required power supply voltage can be accurately and effectively determined; secondly, by determining the rated storage capacity and rated voltage value of each single colloidal battery, the number of colloidal battery groups and the colloidal battery data contained in each colloidal battery group can be accurately and effectively determined; finally, by connecting the colloidal battery groups and the colloidal batteries in each colloidal battery group, the effective construction of the colloidal battery group array can be achieved, providing reliable guarantee for the energy management of the colloidal batteries.

[0109] Embodiment 4:

[0110] Based on Example 2, this embodiment provides an intelligent energy management system based on colloidal batteries, and the monitoring unit includes:

[0111] A connection relationship reading subunit is used to read the connection relationship of each colloid battery in the colloid battery array and determine the connection characteristics between each colloid battery in the colloid battery array;

[0112] A monitoring scheme determination subunit, used to determine a monitoring scheme based on connection characteristics between the colloid batteries in the colloid battery array;

[0113] The monitoring control subunit is used to generate monitoring instructions based on the monitoring scheme, and at the same time, control the monitoring device to monitor the colloid battery array based on the monitoring instructions.

[0114] In this embodiment, the connection feature may be a representation of the connection mode and connection relationship between the colloid batteries.

[0115] In this embodiment, the monitoring instruction is generated according to the monitoring scheme and is used to control the monitoring device to monitor the colloid battery array.

[0116] The working principle and beneficial effects of the above technical solution are: by reading the connection relationship of the colloidal batteries, the connection characteristics between the colloidal batteries can be accurately and effectively determined; secondly, the monitoring plan can be accurately and effectively determined based on the connection characteristics, thereby ensuring the accuracy and effectiveness of the determined monitoring plan; finally, the corresponding monitoring instructions are generated through the monitoring plan, so that the monitoring device can be controlled by the monitoring instructions to accurately monitor the colloidal battery array, thereby ensuring the accuracy and reliability of the colloidal battery energy management.

[0117] Embodiment 5:

[0118] Based on Example 1, this embodiment provides an intelligent energy management system based on colloidal batteries, and a data analysis module, including:

[0119] A data acquisition unit, for:

[0120] Acquire real-time power data of the colloidal battery array, and determine source information of each real-time power data based on parameter attributes of the real-time power data, and determine a battery terminal identifier of the colloidal battery corresponding to each real-time power data based on the source information;

[0121] The real-time power data of each colloid battery is associated with the corresponding battery terminal identifier to obtain a power data group, and the power data group is wirelessly transmitted to a remote monitoring terminal;

[0122] Data analysis unit for:

[0123] Acquire the current charge and discharge state of the colloidal battery array based on the remote monitoring terminal, and when the colloidal battery array is in the discharge state, determine the power difference of the colloidal battery relative to the fully charged static state based on the power data group;

[0124] Based on the power difference, the current real-time power of the colloidal battery array is determined, and the real-time power is tracked and recorded, and based on the preset protection mechanism of the colloidal battery and the tracking and recording results, the real-time power turning point when the charging mechanism intervenes in the working state of the colloidal battery array is obtained;

[0125] Based on the gel battery power attenuation parameter, the real-time power turning point is corrected, and the charge equalization control instruction index is obtained based on the correction result;

[0126] Determine the output load of each colloid battery in each colloid battery pack and each colloid battery pack in the colloid battery pack array when the charging mechanism intervenes based on the real-time power turning point, and determine the electric energy coordinated transfer scheme between the colloid batteries in the colloid battery pack and the colloid battery packs in the colloid battery pack array based on the output load and the energy balance index;

[0127] Based on the electric energy coordinated transfer scheme, the power balancing control instruction index is obtained;

[0128] The instruction generation unit is used to comprehensively analyze the charge balancing control instruction indicators and the power balancing control instruction indicators based on preset logic instructions using a low-code configuration solution, and obtain the power balancing control instruction based on the comprehensive analysis results.

[0129] In this embodiment, the parameter attribute may be the type of the real-time power data and the specific gel battery corresponding to the power data.

[0130] In this embodiment, the source information may be a specific colloid battery represented by the real-time power data, that is, the subject that generates the real-time power data.

[0131] In this embodiment, the battery terminal identification may be a marking symbol for distinguishing different colloid batteries.

[0132] In this embodiment, the power data group may be a group of data obtained by associating the real-time power data of each colloid battery with the corresponding battery terminal identifier.

[0133] In this embodiment, the power difference of the colloidal battery relative to the fully charged static state determined based on the power data set may be the difference between the current power of the corresponding colloidal battery determined according to the current power data set and the power when fully charged and without load.

[0134] In this embodiment, the preset protection mechanism is set in advance to protect the colloidal battery array, that is, when the colloidal battery array meets the charging conditions, the colloidal battery array will be charged accordingly in time to protect the colloidal battery array.

[0135] In this embodiment, the charging mechanism may be a manner or method of charging the gel battery array.

[0136] In this embodiment, the real-time power turning point can be the minimum power that needs to be maintained in the colloidal battery array when the colloidal battery array changes from a normal power state to a charging state. For example, when there is 15% power remaining, the charging mechanism will intervene in the working state of the colloidal battery array.

[0137] In this embodiment, the power attenuation parameter of the gel battery is known in advance and is used to characterize the performance attenuation coefficient of the gel battery over time during use, that is, the coefficient of the attenuation of the electric energy storage performance.

[0138] In this embodiment, the charge balancing control instruction may be a parameter for controlling the charging timing when charging the colloidal battery, determined according to the real-time power turning point.

[0139] In this embodiment, the output load may be the amount of electrical energy that each colloid battery group and different colloid batteries in each colloid battery group need to output.

[0140] In this embodiment, the energy balance index can be the energy balance parameter between different colloidal battery groups and different colloidal batteries in a colloidal battery group when charging different colloidal battery groups, that is, it is necessary to ensure that the energy of each colloidal battery group and different colloidal batteries in a colloidal battery group reaches a balance standard.

[0141] In this embodiment, the coordinated electric energy transfer scheme may be a scheme for transferring energy between different colloid battery packs and colloid batteries in a colloid battery pack to meet the electric energy balance requirement when charging the colloid battery pack array. For example, the colloid battery with more energy may be transferred to the colloid battery with less energy, thereby ensuring energy balance.

[0142] In this embodiment, the power balancing control instruction index may be determined according to the electric energy coordinated transfer scheme, and is used to characterize the parameters for coordinating the internal energy of the colloidal battery.

[0143] In this embodiment, the preset logic instruction is set in advance, and is a power balancing control instruction obtained after analyzing the charge balancing control instruction indicator and the power balancing control instruction indicator according to the coding logic.

[0144] The working principle and beneficial effects of the above technical solution are: by summarizing the real-time power data of the colloidal battery array and the battery terminal identification of the colloidal battery, and transmitting the summarized power data group to the remote monitoring terminal for analysis, the current charge and discharge state of the battery array can be accurately and effectively determined. Secondly, when the colloidal battery array is in a discharging state, the power difference of the colloidal battery relative to the fully charged static state is determined, so as to facilitate the accurate and effective determination of the current real-time power of the colloidal battery array based on the power difference. At the same time, the real-time power is tracked and recorded, so as to facilitate the accurate and effective determination of the real-time power turning point of the colloidal battery array when it is in a working state, so as to facilitate the accurate and effective determination of the real-time power turning point of the colloidal battery array when it is in a working state. The charging balancing control instruction index is locked according to the real-time power turning point. Finally, after the charging mechanism is connected, the electric energy coordinated transfer scheme in the colloidal battery array is locked according to the output load, and the power balancing control instruction index is accurately and effectively determined according to the electric energy coordinated transfer scheme. The charging balancing control instruction index and the power balancing control instruction index are comprehensively analyzed according to the preset logical instructions to achieve accurate and effective formulation of the power balancing control instruction, thereby ensuring the accuracy of the energy balance of the colloidal battery, achieving the convenience of the energy management of the colloidal battery, solving the problem of balanced distribution of electric energy among the colloidal battery groups, and achieving effective utilization of the energy of the colloidal battery.

[0145] Embodiment 6:

[0146] Based on Example 1, this embodiment provides an intelligent energy management system based on colloidal batteries, and the energy management module includes:

[0147] A control unit, used to read the power balancing control instruction and perform power balancing control on the colloidal battery array according to the reading result;

[0148] A report output unit, used to read the power balancing control process and generate a control report based on the reading result;

[0149] The report feedback unit is used to feed back the control report to the remote monitoring terminal.

[0150] The control unit includes:

[0151] Instruction fetch subunit, used to:

[0152] Reading the power balancing control instruction, and determining the instruction control key character of the power balancing control instruction based on the instruction reading result;

[0153] Positioning each colloid battery in the colloid battery array according to the command control key character;

[0154] The control subunit is used to determine the operation field corresponding to the instruction control key character based on the positioning result, and perform power balancing control on the corresponding colloid battery according to the operation field.

[0155] In this embodiment, the instruction control key character may be a key data code in the power balancing control instruction that can play a balancing control role.

[0156] In this embodiment, the operation field may be a main control mode and control execution steps during power balancing control corresponding to the key character of the instruction.

[0157] The working principle and beneficial effects of the above technical solution are: by reading the power balancing control instruction, the instruction control key characters in the power balancing control instruction are accurately and effectively determined; secondly, the instruction control key characters are parsed to achieve accurate and effective determination of the operation field; finally, the corresponding power balancing control is performed on the corresponding colloidal battery according to the operation field, so as to achieve effective management of the energy of the colloidal battery, ensure the balance of the electric energy in the colloidal battery, and improve the utilization rate of the electric energy in the colloidal battery.

[0158] Embodiment 7:

[0159] Based on Example 1, this embodiment provides an intelligent energy management system based on colloidal batteries, and the energy management module includes:

[0160] A temperature monitoring unit, used to obtain the battery position node of each colloid battery in the colloid battery array when the colloid battery array is subjected to power balancing control based on the power balancing control instruction, and place a temperature sensor at the battery position node to perform temperature monitoring on the corresponding colloid battery to obtain temperature data of each colloid battery;

[0161] a communication object determination unit, configured to obtain identification information of the colloidal battery, and determine a first communication object according to the identification information of the colloidal battery, and simultaneously obtain identification information of the temperature sensor, and determine a second communication object according to the identification information of the temperature sensor, and simultaneously obtain identification information of the battery location node, and determine a third communication object according to the identification information of the battery location node;

[0162] A sending node determination unit, used to encapsulate the first communication object, the second communication object and the third communication object to generate a temperature monitoring sending node corresponding to the gel battery;

[0163] A receiving node determination unit, used to construct a temperature monitoring receiving node based on the address link of the remote monitoring terminal;

[0164] Analogue display unit for:

[0165] A temperature monitoring communication terminal is constructed based on a temperature monitoring sending node and a temperature monitoring receiving node, and the temperature data of each colloid battery in the colloid battery array is transmitted to a remote monitoring terminal in real time based on the temperature monitoring communication terminal;

[0166] Based on the remote monitoring terminal, the position distribution state of the colloidal battery array is simulated, and the temperature monitoring simulation node of each colloidal battery in the colloidal battery array is constructed;

[0167] The temperature data of each gel battery is mapped in the corresponding temperature simulation monitoring node, and at the same time, the preset temperature color table is retrieved;

[0168] Based on the temperature simulation monitoring node, the corresponding temperature data is matched with the preset temperature color table, and the temperature color corresponding to each temperature simulation monitoring node is output and displayed;

[0169] The temperature monitoring unit is used to monitor the temperature of the gel battery array based on the temperature color corresponding to each temperature simulation monitoring node.

[0170] In this embodiment, the temperature monitoring module includes: an abnormal judgment subunit, which is used to obtain a preset abnormal temperature color interval, and when the temperature color corresponding to each temperature simulation monitoring node meets the preset abnormal temperature color interval, the corresponding temperature simulation monitoring node outputs an abnormal identification; an alarm and cooling subunit, which is used to perform an alarm operation based on the abnormal identification, and at the same time, cool the corresponding colloidal battery until the simulation monitoring node of the corresponding colloidal battery displays that the temperature color is no longer in the set color interval.

[0171] In this embodiment, the battery position node may be the specific position of each GEL battery in the GEL battery array.

[0172] In this embodiment, the identification information of the colloid battery may be a marking symbol that can distinguish different colloid batteries.

[0173] In this embodiment, the first communication object may be a determined gel battery that needs to communicate.

[0174] In this embodiment, the identification information of the temperature sensor may be a marking symbol that can distinguish different temperature sensors.

[0175] In this embodiment, the second communication object may be a determined temperature sensor that requires communication.

[0176] In this embodiment, the identification information of the battery location node may be a marking symbol that can distinguish different battery location nodes.

[0177] In this embodiment, the third communication object may be a battery location node where the gel battery requiring communication is located.

[0178] In this embodiment, the temperature monitoring sending node may be obtained by encapsulating the first communication object, the second communication object and the third communication object, and is node information capable of storing and uploading temperature monitoring.

[0179] In this embodiment, the temperature monitoring receiving node may be constructed according to the address link of the remote monitoring terminal, and is used to receive and store the monitored temperature data of the gel battery.

[0180] In this embodiment, the position distribution state of the colloid battery array may be the position distribution state of the colloid batteries.

[0181] In this embodiment, the temperature monitoring simulation node may be a virtual temperature monitoring node corresponding to the actual temperature monitoring node obtained by simulating the position distribution state of the colloidal battery array.

[0182] In this embodiment, the preset temperature color table is set in advance and is used to record the colors corresponding to different temperatures.

[0183] The working principle and beneficial effects of the above technical solution are: by determining the battery position node of each colloidal battery and arranging the corresponding temperature sensors according to the battery position nodes, the temperature data of different colloidal batteries can be accurately and effectively acquired through the temperature sensors. Secondly, by determining the communication object, the temperature monitoring sending nodes of different colloidal batteries can be effectively determined. At the same time, a temperature monitoring receiving node is constructed according to the address link of the remote monitoring terminal, so that a temperature monitoring communication terminal is constructed through the temperature monitoring sending node and the temperature monitoring receiving node, and the temperature data of each colloidal battery is transmitted to the remote monitoring terminal for accurate and effective analysis. Finally, the temperature condition of the colloidal battery array is simulated through the remote monitoring terminal, and the simulation result is matched with the preset temperature color table to realize temperature monitoring of the colloidal battery array, thereby ensuring the reliability of the battery temperature while performing energy management, thereby improving the energy management effect of the colloidal electric energy.

[0184] Embodiment 8:

[0185] This embodiment provides an intelligent energy management application method based on colloidal batteries, such as Figure 3 As shown, including:

[0186] Step 1: Determine the colloidal battery array, and monitor the colloidal battery array in real time based on the monitoring device, and output the real-time power data in the colloidal battery array;

[0187] Step 2: Transmit the real-time power data in the colloidal battery array to the remote monitoring terminal for analysis, and output power balancing control instructions based on the analysis results;

[0188] Step 3: Based on the power balancing control instruction, the power balancing control is performed on the colloidal battery array, and a control report is output. At the same time, the control report is fed back to the remote monitoring terminal.

[0189] The working principle and beneficial effects of the above technical solution are: by determining the colloidal battery array, it is possible to effectively monitor the colloidal battery array based on the monitoring device to obtain the real-time power data of each colloidal battery in the battery array, and then realize the power balance control of the colloidal battery array through the remote monitoring terminal, thereby realizing the convenience of colloidal battery energy management, solving the problem of balanced distribution of electric energy among colloidal battery groups, and realizing the effective utilization of colloidal battery energy, thereby effectively improving the intelligent management of colloidal battery energy storage and release.

[0190] Obviously, those skilled in the art can make various changes and modifications to the present invention without departing from the spirit and scope of the present invention. Thus, if these modifications and variations of the present invention fall within the scope of the claims of the present invention and their equivalents, the present invention is also intended to include these modifications and variations.

Claims

1. An intelligent energy management system based on colloidal batteries, characterized in that: include: A monitoring module is used to determine the colloidal battery array, and monitor the colloidal battery array in real time based on the monitoring device, and output the real-time power data in the colloidal battery array; A data analysis module is used to transmit the real-time power data in the colloidal battery array to the remote monitoring terminal for analysis, and output power balancing control instructions according to the analysis results; The energy management module is used to perform power balancing control on the colloidal battery array based on the power balancing control instruction, and output a control report, and at the same time, feed back the control report to the remote monitoring terminal; Monitoring modules, including: A battery array determination unit, used to obtain power supply requirements and determine the gel battery array based on the power supply requirements; A monitoring unit, used to obtain the connection relationship between each colloid battery in the colloid battery array, and determine a monitoring scheme based on the connection relationship between each colloid battery, and monitor the colloid battery array according to the monitoring device based on the monitoring scheme; A power reading unit, used to output real-time power data in the gel battery array based on the monitoring results; A battery array determination unit, comprising: Demand reading subunit, used to: Read the power supply demand to determine the required power supply energy and required power supply voltage; Get the rated storage capacity and rated voltage of a single gel battery; A total battery group number determination subunit, used for determining M groups of gel battery groups based on the required power supply voltage and the rated voltage value of a single gel battery; A GEL battery number determination subunit, used to determine N GEL batteries in each battery group based on the required power supply energy and the rated storage capacity of a single GEL battery; Gel battery array building subunits for: Connect M groups of batteries in series, and connect N colloid batteries in each group of batteries in parallel; The construction of the colloidal battery array is completed based on the series connection results and the parallel connection results.

2. According to claim 1, the intelligent energy management system based on colloidal batteries is characterized in that: Monitoring unit, including: A connection relationship reading subunit is used to read the connection relationship of each colloid battery in the colloid battery array and determine the connection characteristics between each colloid battery in the colloid battery array; A monitoring scheme determination subunit, used to determine a monitoring scheme based on connection characteristics between the colloid batteries in the colloid battery array; The monitoring control subunit is used to generate monitoring instructions based on the monitoring scheme, and at the same time, control the monitoring device to monitor the colloid battery array based on the monitoring instructions.

3. The intelligent energy management system based on colloidal batteries according to claim 1 is characterized in that: In the monitoring module, The real-time power data in the colloid battery array includes: the real-time total output power data of the colloid battery array and the real-time output power data of each colloid battery in the colloid battery array.

4. The intelligent energy management system based on colloidal batteries according to claim 1 is characterized in that: Data analysis modules, including: A data acquisition unit, for: Acquire real-time power data of the colloidal battery array, and determine source information of each real-time power data based on parameter attributes of the real-time power data, and determine a battery terminal identifier of the colloidal battery corresponding to each real-time power data based on the source information; The real-time power data of each colloid battery is associated with the corresponding battery terminal identifier to obtain a power data group, and the power data group is wirelessly transmitted to a remote monitoring terminal; Data analysis unit for: Acquire the current charge and discharge state of the colloidal battery array based on the remote monitoring terminal, and when the colloidal battery array is in the discharge state, determine the power difference of the colloidal battery relative to the fully charged static state based on the power data group; Based on the power difference, the current real-time power of the colloidal battery array is determined, and the real-time power is tracked and recorded, and based on the preset protection mechanism of the colloidal battery and the tracking and recording results, the real-time power turning point when the charging mechanism intervenes in the working state of the colloidal battery array is obtained; Based on the gel battery power attenuation parameter, the real-time power turning point is corrected, and the charge equalization control instruction index is obtained based on the correction result; Determine the output load of each colloid battery in each colloid battery pack and each colloid battery pack in the colloid battery pack array when the charging mechanism intervenes based on the real-time power turning point, and determine the electric energy coordinated transfer scheme between the colloid batteries in the colloid battery pack and the colloid battery packs in the colloid battery pack array based on the output load and the energy balance index; Based on the electric energy coordinated transfer scheme, the power balancing control instruction index is obtained; The instruction generation unit is used to comprehensively analyze the charge balancing control instruction indicators and the power balancing control instruction indicators based on preset logic instructions using a low-code configuration solution, and obtain the power balancing control instruction based on the comprehensive analysis results.

5. The intelligent energy management system based on colloidal batteries according to claim 1 is characterized in that: Energy management module, including: A control unit, used to read the power balancing control instruction and perform power balancing control on the colloidal battery array according to the reading result; A report output unit, used to read the power balancing control process and generate a control report based on the reading result; The report feedback unit is used to feed back the control report to the remote monitoring terminal.

6. The intelligent energy management system based on colloidal batteries according to claim 5 is characterized in that: Control unit, comprising: Instruction reading subunit, used to: Reading the power balancing control instruction, and determining the instruction control key character of the power balancing control instruction based on the instruction reading result; Positioning each colloid battery in the colloid battery array according to the command control key character; The control subunit is used to determine the operation field corresponding to the instruction control key character based on the positioning result, and perform power balancing control on the corresponding colloid battery according to the operation field.

7. The intelligent energy management system based on colloidal batteries according to claim 1 is characterized in that: Energy management module, including: A temperature monitoring unit, used to obtain the battery position node of each colloid battery in the colloid battery array when the colloid battery array is subjected to power balancing control based on the power balancing control instruction, and place a temperature sensor at the battery position node to perform temperature monitoring on the corresponding colloid battery to obtain temperature data of each colloid battery; a communication object determination unit, configured to obtain identification information of the colloidal battery, and determine a first communication object according to the identification information of the colloidal battery, and simultaneously obtain identification information of the temperature sensor, and determine a second communication object according to the identification information of the temperature sensor, and simultaneously obtain identification information of the battery location node, and determine a third communication object according to the identification information of the battery location node; A sending node determination unit, used to encapsulate the first communication object, the second communication object and the third communication object to generate a temperature monitoring sending node corresponding to the gel battery; A receiving node determination unit, used to construct a temperature monitoring receiving node based on the address link of the remote monitoring terminal; Analogue display unit for: A temperature monitoring communication terminal is constructed based on a temperature monitoring sending node and a temperature monitoring receiving node, and the temperature data of each colloid battery in the colloid battery array is transmitted to a remote monitoring terminal in real time based on the temperature monitoring communication terminal; Based on the remote monitoring terminal, the position distribution state of the colloidal battery array is simulated, and the temperature monitoring simulation node of each colloidal battery in the colloidal battery array is constructed; The temperature data of each gel battery is mapped in the corresponding temperature simulation monitoring node, and at the same time, the preset temperature color table is retrieved; Based on the temperature simulation monitoring node, the corresponding temperature data is matched with the preset temperature color table, and the temperature color corresponding to each temperature simulation monitoring node is output and displayed; The temperature monitoring unit is used to monitor the temperature of the gel battery array based on the temperature color corresponding to each temperature simulation monitoring node.

8. An intelligent energy management application method based on colloidal batteries, applied to the intelligent energy management system based on colloidal batteries as claimed in any one of claims 1 to 7, characterized in that: include: Step 1: Determine the colloidal battery array, and monitor the colloidal battery array in real time based on the monitoring device, and output the real-time power data in the colloidal battery array; Step 2: Transmit the real-time power data in the colloidal battery array to the remote monitoring terminal for analysis, and output power balancing control instructions based on the analysis results; Step 3: Based on the power balancing control instruction, the power balancing control is performed on the colloidal battery array, and a control report is output. At the same time, the control report is fed back to the remote monitoring terminal; Step 1 includes: Obtaining power supply requirements, and determining a colloidal battery array based on the power supply requirements; Acquire the connection relationship between each colloid battery in the colloid battery array, determine a monitoring scheme based on the connection relationship between each colloid battery, and monitor the colloid battery array according to the monitoring device based on the monitoring scheme; Output the real-time power data in the colloidal battery array based on the monitoring results; Read the power supply demand to determine the required power supply energy and required power supply voltage; Get the rated storage capacity and rated voltage of a single gel battery; Determine M groups of gel battery packs based on the required power supply voltage and the rated voltage value of a single gel battery; Determine the N number of gel batteries in each battery pack based on the required power supply energy and the rated storage capacity of a single gel battery; Connect M groups of batteries in series, and connect N colloid batteries in each group of batteries in parallel; The construction of the colloidal battery array is completed based on the series connection results and the parallel connection results.

Images