Energy monitoring display system

Abstract

The invention discloses an energy monitoring display system, and the system comprises a display equipment collection module which is used for collecting the related information of display equipment; the information transmission and acquisition module is used for acquiring information transmission related information; the energy monitoring module is used for acquiring hardware equipment acquisition information used in an energy consumption monitoring process; the data processing module is used for processing the related information of the display device, generating display adjustment information, processing the information collected by the hardware device, generating energy monitoring warning information, and processing the related information of information transmission to generate transmission warning information; and the information sending module is used for sending the display adjustment information to a preset terminal for display information adjustment, and sending the energy monitoring warning information and the transmission warning information to display equipment. According to the invention, display optimization can be carried out better, and energy monitoring can be carried out more comprehensively.

Description

Technical Field

[0001] The invention relates to the field of energy monitoring, and in particular to an energy monitoring and display system. Background Art

[0002] With the development of economy and population growth, energy demand continues to increase, but energy supply faces problems such as limited resources and unstable production. This requires refined management of energy use, through real-time monitoring of energy consumption, reasonable allocation of energy resources, improving energy utilization efficiency, and alleviating the contradiction between energy supply and demand.

[0003] Modern energy systems cover multiple links such as power generation, transmission, distribution, and consumption, involving numerous devices and facilities. For example, smart grids contain a large number of distributed power sources, energy storage devices, and smart meters. These devices and links are interrelated and influence each other, increasing the complexity of the energy system. A comprehensive monitoring system is needed to ensure its stable operation. As people pay more and more attention to energy issues, users hope to know their energy usage in real time so as to take energy-saving measures and arrange energy consumption reasonably. Energy monitoring and display systems can provide users with intuitive energy consumption data and analysis results to meet users' needs for energy information.

[0004] The existing energy monitoring and display system has the problems of poor display optimization and poor energy monitoring and early warning effect, which has brought certain impacts on the use of the energy monitoring and display system. Therefore, an energy monitoring and display system is proposed. Summary of the invention

[0005] The technical problem to be solved by the present invention is: how to solve the problem that the existing energy monitoring and display system has poor display optimization and poor energy monitoring and early warning effect, which has brought certain impacts on the use of the energy monitoring and display system, and provides an energy monitoring and display system.

[0006] The present invention solves the above technical problems through the following technical solutions, which include: The display device acquisition module is used to collect information related to the display device; The information transmission collection module is used to collect information related to information transmission; The energy monitoring module is used to collect information about the hardware devices used in the energy consumption monitoring process; The data processing module is used to process information related to the display device to generate display adjustment information, process information collected by the hardware device to generate energy monitoring warning information, and process information related to information transmission to generate transmission warning information; The information sending module is used to send the display adjustment information to the preset terminal for display information adjustment, and to send the energy monitoring warning information and the transmission warning information to the display device.

[0007] Furthermore, the specific process of processing the display device related information to generate display adjustment information is as follows: Extract the collected information related to the display device, which includes the real-time brightness of the display device, the brightness of the environment where the display device is located, the RGB value of the current display interface, and the display area of ​​the current display device; The brightness of the environment in which the display device is located is extracted, and the brightness of the environment in which the display device is located is imported into a preset mapping set, which stores the standard brightness value corresponding to the brightness of the environment in which the display device is located, and then the real-time brightness of the display device and the standard brightness value are calculated and processed to obtain the brightness evaluation parameter. When the brightness evaluation parameter is abnormal, the display adjustment information is generated; Extract the color information of the current display interface, collect the RGB value of the energy display window background, process the RGB value of the current display interface and the RGB value of the energy display window background, and obtain the RGB evaluation value. When the RGB evaluation value is abnormal, generate display adjustment information; The window area size of the current energy display content is collected, and the ratio of the window area of ​​the current energy display content to the display area of ​​the current display device is calculated, that is, the energy display ratio is obtained. When the energy display ratio is greater than the preset value, the display adjustment information is generated.

[0008] Furthermore, the process of obtaining the brightness evaluation parameters and the process of abnormality determination are as follows: The real-time brightness and standard brightness values ​​of the display device are extracted, and the real-time brightness of the display device is marked as F1, and the standard brightness value is marked as F2. The brightness evaluation parameter Ff is obtained through the formula (F1-F2)*α=Ff, where α is the correction value, 0.9≤α≤0.99, and α is proportional to the ambient brightness of the display device; When the brightness of the environment in which the display device is located is greater than the preset value m1, and the brightness evaluation parameter Ff exceeds the range between the preset value a1 and the preset value a2, it means that there is an abnormality in the brightness evaluation parameter; When the brightness of the environment where the display device is located is less than the preset value m2, and the brightness evaluation parameter Ff exceeds the range between the preset value a3 and the preset value a4, it means that there is an abnormality in the brightness evaluation parameter; m1>m2, a1>a2>a3>a4.

[0009] Furthermore, the process of obtaining the RGB evaluation value and the process of abnormality determination are as follows: Extract the RGB value of the current display interface and the RGB value of the energy display window background, calculate the difference between the RGB value of the current display interface and the RGB value of the energy display window background, and obtain the RGB evaluation value; When the absolute value of the RGB evaluation value is greater than the preset value, display adjustment information is generated.

[0010] Furthermore, the process of obtaining the energy monitoring warning information is as follows: Extract the acquired hardware equipment collection information, the hardware equipment collection information includes the hardware information of the gas consumption monitoring equipment, the hardware information of the water consumption monitoring equipment, the hardware information of the power consumption monitoring equipment and the hardware information of the heat energy consumption equipment; The information of gas consumption monitoring equipment, water consumption monitoring equipment, electricity consumption monitoring equipment and thermal energy consumption equipment is processed. When any device information is abnormal, energy monitoring warning information is generated.

[0011] Furthermore, the abnormality determination process of the hard gas consumption monitoring equipment information is as follows: Gas consumption monitoring equipment information includes real-time gas flow information and gas pressure information; When the real-time gas flow exceeds the set maximum instantaneous flow threshold (such as the upper limit calculated based on past historical data and the rated flow of the equipment) and lasts for more than the preset minutes, it is judged as a gas leak or abnormal gas consumption, which means that the information of the gas consumption monitoring equipment is abnormal, and an energy monitoring warning message is generated; The abnormality determination process of the water consumption monitoring device information is as follows: if the gas pressure is lower than the lowest normal pressure value and does not return to normal within the preset time, it indicates that the gas supply pressure is insufficient, which means that the gas consumption monitoring device information is abnormal, and an energy monitoring warning message is generated; The water consumption monitoring equipment information includes water flow information and water pressure information. When the water flow suddenly increases to more than 3 times the daily average flow and maintains the preset duration, it indicates that there is a water pipe abnormality, which means that the water consumption monitoring equipment information is abnormal and an energy monitoring warning message is generated.

[0012] When the water pressure is lower than the lower limit of normal water supply pressure for more than a preset period of time, it is marked as water supply abnormality, which means that the water consumption monitoring equipment information is abnormal and an energy monitoring warning message is generated.

[0013] Furthermore, the abnormality determination process of the power consumption monitoring device information is as follows: Power consumption monitoring equipment information includes voltage information and power factor; When the voltage suddenly rises or drops, exceeds the normal voltage fluctuation range, and lasts for at least 3 acquisition cycles (a single cycle is 15 seconds), it means that the power consumption monitoring equipment information is abnormal, and energy monitoring warning information is generated; The abnormality determination process of the heat energy consumption equipment information is as follows: the heat energy consumption equipment information includes the heating return water temperature difference and the heat energy consumption rate; When the heating return water temperature difference is less than the set minimum temperature difference threshold and the collection results appear for 5 consecutive times, it means that there is an abnormality in the information of the heat energy consuming equipment and an energy monitoring warning message is generated.

[0014] When the heat consumption rate suddenly drops (by more than 50% compared to the average value of the previous hour) and the outdoor temperature does not change, it means that there is an abnormality in the information of the heat consumption equipment, and an energy monitoring warning message is generated.

[0015] Furthermore, the specific process of obtaining the transmission warning information is as follows: Extract information related to information transmission, including transmission rate, packet loss rate, delay time and network connection status; When any of the transmission rate, packet loss rate and delay time is abnormal, a transmission warning message is generated; The transmission rate, packet loss rate and delay time are processed to obtain comprehensive network parameters. When the comprehensive network parameters are greater than a preset value, a transmission warning message is generated; The network connection status is continuously collected within a preset time period. The network connection status includes network connection and network disconnection. The duration of the network disconnection state is recorded. When the duration of the network disconnection state is greater than the preset value, a transmission warning message is generated.

[0016] Furthermore, the abnormality determination process of transmission rate, packet loss rate and delay time is as follows: When the transmission rate is less than the preset value, it indicates that there is an abnormality; When the packet loss rate is greater than the preset value, it indicates that there is an abnormality; When the delay time is greater than the preset value, it means that there is an abnormality; The process of obtaining comprehensive network parameters is as follows: Perform real-time transmission rate conversion: extract the real-time transmission rate V, set the normal transmission rate [Vmin, Vmax], and use the formula , obtain the normalized real-time rate parameter Vv; Packet loss rate conversion: The packet loss rate P itself ranges from 0 to 1, but in order to make the packet loss rate consistent with other parameters, that is, the larger the value, the better the network condition, it is converted to 1-P; Delay time normalization: Set the normal range of delay time [tmin, tmax], through the formula , get the normalized delay time parameter Tt, and map the delay time to the interval from 0 to 1; Then through the formula , that is, the comprehensive network parameter N is obtained; The N value is between 0 and 1. The closer the value is to 1, the better the overall network condition is; the closer the value is to 0, the worse the overall network condition is. When N is greater than a preset value, a transmission warning message is generated.

[0017] Compared with the prior art, the present invention has the following advantages: the energy monitoring display system can automatically adjust the brightness of the display device according to the ambient brightness by collecting the real-time brightness of the display device and the ambient brightness, and calculating the brightness evaluation parameters according to the preset mapping set, thereby avoiding energy waste caused by improper brightness and improving the user's viewing experience. For example, in a dark environment, the brightness of the display device is automatically reduced to reduce unnecessary energy consumption.

[0018] The color information (RGB value) of the current display interface and the background RGB value of the energy display window are processed to obtain the RGB evaluation value. When the evaluation value is abnormal, display adjustment information is generated to ensure that the displayed content has a good contrast, which not only ensures that the information is clearly visible, but also avoids excessive energy consumption due to unreasonable color settings.

[0019] The window area size of the current energy display content is collected, and the energy display ratio is calculated. When the ratio is greater than the preset value, display adjustment information is generated, which helps to reasonably plan the layout of the display content and avoid increasing energy consumption due to excessive display content occupying too many resources.

[0020] Monitoring of multiple types of energy equipment: The system covers the hardware information collection of various energy consumption monitoring equipment such as gas, water, electricity, and thermal energy. It can comprehensively monitor the consumption of various types of energy and realize all-round monitoring of energy use.

[0021] Detailed and reasonable abnormal judgment standards are set for different energy equipment, such as abnormal gas flow and pressure, abnormal water flow and pressure, abnormal electricity voltage and power factor, abnormal thermal energy temperature difference and consumption rate, etc. Once the equipment information is abnormal, energy monitoring warning information can be generated in time to remind relevant personnel to take measures to effectively prevent energy waste, equipment failure and safety accidents.

[0022] Multi-dimensional information collection: Collecting the transmission rate, packet loss rate, delay time and network connection status related to information transmission can fully understand the various indicators in the information transmission process and provide rich data support for judging the network status.

[0023] When any of the transmission rate, packet loss rate, and delay time is abnormal, or the comprehensive network parameters are greater than the preset values, and the network disconnection time exceeds the preset values, a transmission warning message can be generated in time, which helps to promptly discover and solve network transmission problems, ensure the stable transmission of energy monitoring data, and ensure the normal operation of the system.

[0024] The data processing module processes the various types of collected information in a targeted manner and generates corresponding adjustment or warning information, enabling the system to make reasonable responses according to different situations, improving the system's intelligence level and management efficiency, and realizing refined management of the energy monitoring and display system. BRIEF DESCRIPTION OF THE DRAWINGS

[0025] Figure 1 It is a system block diagram of the present invention. DETAILED DESCRIPTION

[0026] The following is a detailed description of an embodiment of the present invention. This embodiment is implemented on the premise of the technical solution of the present invention, and a detailed implementation method and a specific operation process are given, but the protection scope of the present invention is not limited to the following embodiment.

[0027] like Figure 1 As shown, this embodiment provides a technical solution: an energy monitoring and display system, comprising: The display device acquisition module is used to collect information related to the display device; The information transmission collection module is used to collect information related to information transmission; The energy monitoring module is used to collect information about the hardware devices used in the energy consumption monitoring process; The data processing module is used to process information related to the display device to generate display adjustment information, process information collected by the hardware device to generate energy monitoring warning information, and process information related to information transmission to generate transmission warning information; The information sending module is used to send the display adjustment information to the preset terminal for display information adjustment, and to send the energy monitoring warning information and the transmission warning information to the display device.

[0028] The specific process of processing the display device related information to generate display adjustment information is as follows: Extract the collected information related to the display device, which includes the real-time brightness of the display device, the brightness of the environment where the display device is located, the RGB value of the current display interface, and the display area of ​​the current display device; The brightness of the environment in which the display device is located is extracted, and the brightness of the environment in which the display device is located is imported into a preset mapping set, which stores the standard brightness value corresponding to the brightness of the environment in which the display device is located, and then the real-time brightness of the display device and the standard brightness value are calculated and processed to obtain the brightness evaluation parameter. When the brightness evaluation parameter is abnormal, the display adjustment information is generated; Extract the color information of the current display interface, collect the RGB value of the energy display window background, process the RGB value of the current display interface and the RGB value of the energy display window background, and obtain the RGB evaluation value. When the RGB evaluation value is abnormal, generate display adjustment information; Collect the window area size of the current energy display content, calculate the ratio of the window area of ​​the current energy display content to the display area of ​​the current display device, that is, obtain the energy display ratio, and when the energy display ratio is greater than the preset value, generate display adjustment information; The above process imports the ambient brightness of the display device into a preset mapping set to obtain a standard brightness value, and then calculates the brightness evaluation parameters with the real-time brightness of the display device, and generates display adjustment information when the parameters are abnormal. This allows the brightness of the display device to be automatically adjusted according to the ambient brightness, avoiding situations where the display content is unclear in an overly bright environment, or the screen is too bright in an overly dark environment to irritate the eyes. For example, in the outdoors with plenty of sunlight, the display device can automatically increase the brightness so that the user can clearly see the display content; in the darker environment indoors at night, the brightness is automatically reduced to protect the user's eyes.

[0029] The RGB value of the current display interface and the RGB value of the energy display window background are processed to obtain the RGB evaluation value, and the display adjustment information is generated when the evaluation value is abnormal. This helps to ensure that there is a suitable color contrast between the displayed content and the background, making the key energy display information clearer and more eye-catching, facilitating users to read the information accurately and improving the efficiency of information acquisition.

[0030] Reasonably adjust the brightness of the display device to avoid running the display device at high brightness all the time, thereby reducing unnecessary energy consumption. When the ambient brightness is low, timely lowering the brightness of the display device can significantly reduce its energy consumption, which can effectively save energy costs in the long run.

[0031] Reasonable planning of display area: By calculating the energy display ratio, when the ratio is greater than the preset value, display adjustment information is generated to avoid excessive display area of ​​energy content on the display device and reduce unnecessary display area energy consumption. Because the larger the display area, the higher the energy consumption will be. Reasonable control of the display area can reduce energy consumption while ensuring information display.

[0032] The system automatically extracts various information related to the display device, such as real-time brightness, ambient brightness, color information, and display area, and performs a series of processing to automatically generate display adjustment information based on the processing results. This reduces manual intervention, improves the operating efficiency of the system, enables the display device to automatically adjust the display status according to the actual situation, and realizes intelligent and automated management.

[0033] Once an abnormality is detected in the brightness evaluation parameters, RGB evaluation values ​​or energy display ratio, the system can immediately generate display adjustment information and adjust the display status of the display device in time to ensure that the display effect is always in the best state, thereby improving the stability and reliability of the system.

[0034] The process of obtaining the brightness evaluation parameters and the abnormality determination process are as follows: The real-time brightness and standard brightness values ​​of the display device are extracted, and the real-time brightness of the display device is marked as F1, and the standard brightness value is marked as F2. The brightness evaluation parameter Ff is obtained through the formula (F1-F2)*α=Ff, where α is the correction value, 0.9≤α≤0.99, and α is proportional to the ambient brightness of the display device; When the brightness of the environment in which the display device is located is greater than the preset value m1, and the brightness evaluation parameter Ff exceeds the range between the preset value a1 and the preset value a2, it means that there is an abnormality in the brightness evaluation parameter; When the brightness of the environment where the display device is located is less than the preset value m2, and the brightness evaluation parameter Ff exceeds the range between the preset value a3 and the preset value a4, it means that there is an abnormality in the brightness evaluation parameter; m1>m2, a1>a2>a3>a4; Introducing correction values ​​to adapt to different environments: When calculating the brightness evaluation parameters, a correction value α is introduced, and α is proportional to the brightness of the environment in which the display device is located. This allows the brightness evaluation to fully consider the impact of different ambient brightness, and more accurately measure the difference between the real-time brightness of the display device and the standard brightness under different environmental conditions. For example, in a strong light environment, the α value will increase accordingly, which can more sensitively reflect the deviation of the display device brightness, thereby making a more accurate evaluation.

[0035] Standardized calculation method: The brightness evaluation parameter is obtained through the formula (F1-F2)*α=Ff. This standardized calculation method makes the evaluation process consistent and repeatable. No matter what the scenario is, as long as the real-time brightness F1 of the display device and the standard brightness value F2 are obtained, the brightness evaluation parameter Ff can be accurately calculated according to this formula, which is convenient for the system to perform unified processing and analysis.

[0036] Flexible adaptation to different environmental conditions: Abnormal judgment based on different situations: Different abnormal judgment standards are used according to the comparison results between the brightness of the environment in which the display device is located and the preset values ​​m1 and m2. When the ambient brightness is greater than the preset value m1, a1 and a2 are used as the judgment thresholds; when the ambient brightness is less than the preset value m2, a3 and a4 are used as the judgment thresholds. This situation-based judgment method can fully take into account the different needs and visual perceptions of users for the brightness of the display device in different environments, making the abnormal judgment more in line with the actual situation. For example, in a strong light environment, users may be more accepting of larger fluctuations in the brightness of the display device. At this time, relatively loose judgment thresholds a1 and a2 are used; in a weak light environment, users are more sensitive to brightness changes, and stricter judgment thresholds a3 and a4 are used.

[0037] Effectively guarantee display effect and energy saving: Timely detection of brightness anomalies: Through clear abnormality judgment criteria, the system can promptly detect abnormalities in the brightness of the display device. Once the brightness evaluation parameter Ff exceeds the corresponding preset range, it means that there is an abnormality in the brightness. The system can promptly generate display adjustment information and adjust the brightness of the display device. This helps to ensure that the brightness of the display device is always at an appropriate level and provide users with a good visual experience.

[0038] Avoid energy waste: Through accurate brightness evaluation and abnormality judgment, it is possible to avoid the situation where the display device brightness is too high or too low. Too high brightness will not only damage the user's eyes, but also consume more energy; while too low brightness may affect the user's reading of the displayed content. Timely adjustment of the display device brightness to match the ambient brightness can effectively save energy and reduce energy consumption costs.

[0039] Enhance the intelligence and reliability of the system: Automated processing: The entire process of obtaining brightness evaluation parameters and determining abnormalities is completed automatically without human intervention. The system can automatically extract relevant information and perform calculations and determinations according to preset formulas and standards, greatly improving processing efficiency and reducing the possibility of human error.

[0040] Improve system reliability: Accurate brightness assessment and abnormality judgment can ensure that the brightness of the display device is always within a reasonable range, avoiding problems such as poor display effects or equipment failures caused by abnormal brightness, thereby improving the reliability and stability of the entire energy monitoring display system.

[0041] The process of obtaining the RGB evaluation value and the abnormality determination process are as follows: Extract the RGB value of the current display interface and the RGB value of the energy display window background, calculate the difference between the RGB value of the current display interface and the RGB value of the energy display window background, and obtain the RGB evaluation value; When the absolute value of the RGB evaluation value is greater than the preset value, display adjustment information is generated; Optimize color contrast: The RGB evaluation value is obtained by calculating the difference between the RGB value of the current display interface and the RGB value of the energy display window background, which can accurately measure the color difference between the two. When the absolute value of the RGB evaluation value is greater than the preset value, it means that the color contrast between the display interface and the background may be too high or too low. At this time, display adjustment information is generated to optimize the display. Appropriate color contrast allows users to view energy display information more clearly and comfortably, avoiding visual fatigue and information misreading caused by improper contrast.

[0042] Enhance visual recognition: Reasonable color matching can make key energy display information more prominent on the interface, making it easier for users to quickly identify and obtain important data. For example, in an energy monitoring system, important energy consumption data or warning information can be displayed in a color that contrasts sharply with the background to ensure that users can notice it immediately.

[0043] Avoid information confusion: If the colors of the display interface and the background are too close, the energy display information will blend into the background, making it difficult for users to distinguish and read. By determining abnormalities in the RGB evaluation values ​​and adjusting the display colors in a timely manner, this information confusion can be avoided, ensuring that energy data and related information can be accurately conveyed to users.

[0044] Improve information readability: Clear color contrast helps improve the readability of energy display information, especially in complex monitoring interfaces where different types of energy data and indicators need to be presented in a clear and easy-to-read manner. Appropriate color settings can make it easier for users to understand and analyze data and improve the accuracy of decision-making.

[0045] Automatic color adjustment: The entire RGB evaluation value acquisition and abnormality judgment process is automated. The system can automatically extract relevant RGB values ​​and perform calculations and judgments. Once a color contrast abnormality is found, display adjustment information will be immediately generated to automatically optimize the display without manual intervention. This automated color adjustment mechanism improves the system's operating efficiency and response speed, ensuring that the display effect is always in the best state.

[0046] Adapt to different scenarios: In different environments and usage scenarios, users may have different color requirements for the display interface. The automated color adjustment system can adjust the display color in real time according to the actual situation to adapt to various complex environments and needs, providing a more personalized visual experience.

[0047] Reasonable control of display brightness: Optimization of color contrast also helps to reasonably control the brightness of display devices. Under appropriate color contrast, the display device does not need to use too high brightness to ensure clear display of information, thereby reducing energy consumption. By adjusting the display color, a win-win situation of display effect and energy saving is achieved.

[0048] The process of obtaining the energy monitoring warning information is as follows: Extract the acquired hardware equipment collection information, the hardware equipment collection information includes the hardware information of the gas consumption monitoring equipment, the hardware information of the water consumption monitoring equipment, the hardware information of the power consumption monitoring equipment and the hardware information of the heat energy consumption equipment; The gas consumption monitoring equipment information, water consumption monitoring equipment information, electricity consumption monitoring equipment information and thermal energy consumption equipment information are processed. When any equipment information is abnormal, energy monitoring warning information is generated.

[0049] The abnormality determination process of the hard gas consumption monitoring equipment information is as follows: Gas consumption monitoring equipment information includes real-time gas flow information and gas pressure information; When the real-time gas flow exceeds the set maximum instantaneous flow threshold (such as the upper limit calculated based on past historical data and the rated flow of the equipment) and lasts for more than the preset minutes, it is judged as a gas leak or abnormal gas consumption, which means that the information of the gas consumption monitoring equipment is abnormal, and an energy monitoring warning message is generated; The abnormality determination process of the water consumption monitoring device information is as follows: if the gas pressure is lower than the lowest normal pressure value and does not return to normal within the preset time, it indicates that the gas supply pressure is insufficient, which means that the gas consumption monitoring device information is abnormal, and an energy monitoring warning message is generated; The water consumption monitoring equipment information includes water flow information and water pressure information. When the water flow suddenly increases to more than 3 times the daily average flow and maintains the preset duration, it indicates that there is a water pipe abnormality, which means that the water consumption monitoring equipment information is abnormal and an energy monitoring warning message is generated.

[0050] When the water pressure is lower than the lower limit of normal water supply pressure for more than a preset period of time, it is marked as water supply abnormality, which means that the water consumption monitoring equipment information is abnormal and an energy monitoring warning message is generated.

[0051] Furthermore, the abnormality determination process of the power consumption monitoring device information is as follows: Power consumption monitoring equipment information includes voltage information and power factor; When the voltage suddenly rises or drops, exceeds the normal voltage fluctuation range, and lasts for at least 3 acquisition cycles (a single cycle is 15 seconds), it means that the power consumption monitoring equipment information is abnormal, and energy monitoring warning information is generated; The abnormality determination process of the heat energy consumption equipment information is as follows: the heat energy consumption equipment information includes the heating return water temperature difference and the heat energy consumption rate; When the heating return water temperature difference is less than the set minimum temperature difference threshold and the collection results appear for 5 consecutive times, it means that there is an abnormality in the information of the heat energy consuming equipment and an energy monitoring warning message is generated.

[0052] When the heat consumption rate suddenly drops (by more than 50% compared to the average value of the previous hour) and the outdoor temperature does not change, it means that there is an abnormality in the heat consumption equipment information, and an energy monitoring warning message is generated; By monitoring the real-time gas flow and pressure and setting abnormal judgment standards, gas leaks or abnormal gas usage and insufficient gas supply pressure can be discovered in a timely manner. Gas leaks may cause serious safety accidents such as explosions and fires. Timely generation of warning information can remind relevant personnel to take measures, such as closing gas valves and checking pipelines, to avoid safety accidents and protect the lives and property of personnel.

[0053] By monitoring water flow and water pressure, abnormal water pipes and water supply can be quickly identified. Sudden rupture or leakage of water pipes will lead to a large waste of water resources and may even cause damage to the surrounding environment and equipment. Timely warnings can allow staff to repair in time and reduce losses.

[0054] Monitor the voltage and power factor of the power system, and issue timely warnings when the voltage suddenly rises or drops and exceeds the normal range. This can avoid damage to electrical equipment due to abnormal voltage, prevent safety accidents such as electrical fires, and ensure the safe and stable operation of the power system.

[0055] Real-time monitoring and abnormal judgment of various energy-consuming devices can help to promptly detect energy waste or unreasonable use. For example, a sudden drop in the rate of heat consumption may indicate a fault in the heating system. Timely processing can avoid ineffective consumption of heat, improve energy efficiency, and reduce energy costs.

[0056] Reasonable planning of energy supply: Through long-term monitoring and analysis of energy consumption data, combined with the determination of abnormal situations, we can better understand the laws of energy use, provide a basis for the reasonable planning of energy supply, and ensure the stable supply and effective use of energy.

[0057] The entire process of obtaining energy monitoring warning information and determining abnormalities has been automated. The system can automatically extract equipment information, process and analyze data, and generate warning information according to preset rules. No manual real-time monitoring is required, which improves monitoring efficiency and accuracy and reduces labor costs.

[0058] The specific process of obtaining transmission warning information is as follows: Extract information related to information transmission, including transmission rate, packet loss rate, delay time and network connection status; When any of the transmission rate, packet loss rate and delay time is abnormal, a transmission warning message is generated; The transmission rate, packet loss rate and delay time are processed to obtain comprehensive network parameters. When the comprehensive network parameters are greater than a preset value, a transmission warning message is generated; The network connection status is continuously collected within a preset time period. The network connection status includes network connection and network disconnection. The duration of the network disconnection state is recorded. When the duration of the network disconnection state is greater than the preset value, a transmission warning message is generated.

[0059] Furthermore, the abnormality determination process of transmission rate, packet loss rate and delay time is as follows: When the transmission rate is less than the preset value, it indicates that there is an abnormality; When the packet loss rate is greater than the preset value, it indicates that there is an abnormality; When the delay time is greater than the preset value, it means that there is an abnormality; The process of obtaining comprehensive network parameters is as follows: Perform real-time transmission rate conversion: extract the real-time transmission rate V, set the normal transmission rate [Vmin, Vmax], and use the formula , obtain the normalized real-time rate parameter Vv; Packet loss rate conversion: The packet loss rate P itself ranges from 0 to 1, but in order to make the packet loss rate consistent with other parameters, that is, the larger the value, the better the network condition, it is converted to 1-P; Delay time normalization: Set the normal range of delay time [tmin, tmax], through the formula , get the normalized delay time parameter Tt, and map the delay time to the interval from 0 to 1; Then through the formula , that is, the comprehensive network parameter N is obtained; The N value is between 0 and 1. The closer the value is to 1, the better the overall network condition is; the closer the value is to 0, the worse the overall network condition is. When N is greater than a preset value, a transmission warning message is generated; By monitoring the key information transmission indicators such as transmission rate, packet loss rate, delay time and network connection status, we can fully and carefully understand the operation status of the network. If any indicator is abnormal, the system will generate transmission warning information in time, so that various potential network problems can be quickly discovered. For example, a sudden decrease in transmission rate may mean insufficient network bandwidth or network congestion; a high packet loss rate may indicate interference or failure in the network; a long delay time will affect the real-time nature of the data; and a disconnected network connection will directly lead to the inability to transmit data normally. Timely detection of these problems can avoid data loss, transmission interruption or unstable system operation caused by network failure.

[0060] Comprehensive evaluation of network status: In addition to determining abnormalities for individual indicators, the overall network status is comprehensively evaluated by calculating the comprehensive network parameter N. The comprehensive network parameter takes into account multiple factors such as transmission rate, packet loss rate, and delay time, and can more accurately reflect the overall performance of the network. When the comprehensive network parameter is greater than the preset value, a warning message is generated, which helps to discover potential problems where individual indicators seem normal but the overall network status is poor, further improving the early warning capability of network problems.

[0061] Ensure data real-time performance: Energy monitoring and display systems need to obtain and process various energy data in real time, such as energy consumption monitoring data, equipment operation status data, etc. Abnormalities in indicators such as transmission rate and delay time may lead to untimely data transmission, affecting the system's real-time monitoring and analysis of energy conditions. By timely discovering and handling these abnormalities, the real-time performance of data can be guaranteed, enabling the system to respond to energy changes in a timely manner and make accurate decisions.

[0062] Ensure data integrity: A high packet loss rate will cause some information to be lost during data transmission, affecting the integrity and accuracy of the data. When the system detects an abnormal packet loss rate, it will issue a warning message in time, and relevant personnel can take measures to solve the packet loss problem, such as adjusting the network configuration, replacing network equipment, etc., to ensure that the data can be transmitted intact to the destination, providing reliable data support for the system's accurate analysis and decision-making.

[0063] Reduce the risk of system failure: Network problems are one of the common causes of energy monitoring and display system failures. Through real-time monitoring of information transmission related indicators and abnormal early warning, network problems can be discovered and solved in a timely manner, avoiding serious consequences such as system crashes and data loss caused by network failures, thereby improving system reliability and stability.

[0064] Enhance the system's fault tolerance: When the system detects network anomalies, it can take some fault tolerance measures in a timely manner, such as automatically switching to a backup network, retransmitting lost data, etc. This enables the system to maintain a certain normal operation capability when facing network problems, reduce the impact on business, and improve the system's fault tolerance and recovery capabilities.

[0065] Reasonable allocation of network bandwidth: By monitoring the transmission rate and determining anomalies, the system can understand the usage of network bandwidth. When the transmission rate is too low, it may be necessary to optimize and adjust the network bandwidth, such as limiting the bandwidth usage of certain non-critical businesses and giving priority to the transmission of energy monitoring data. This helps to reasonably allocate network resources, improve the utilization efficiency of network bandwidth, and ensure that the system can operate normally under limited network resources.

[0066] Timely discovery of network bottlenecks: Comprehensive network parameter evaluation can help discover bottleneck problems in the network. For example, if the comprehensive network parameters show that the network condition is poor, but there is no obvious abnormality in a single indicator, it may mean that there is a performance bottleneck in a certain link in the network. Timely discovery and resolution of these bottleneck problems can optimize network performance and improve the efficiency and quality of information transmission.

[0067] In addition, the terms "first" and "second" are used for descriptive purposes only and should not be understood as indicating or implying relative importance or implicitly indicating the number of the indicated technical features. Therefore, the features defined as "first" and "second" may explicitly or implicitly include at least one of the features. In the description of the present invention, the meaning of "plurality" is at least two, such as two, three, etc., unless otherwise clearly and specifically defined.

[0068] In the description of this specification, the description with reference to the terms "one embodiment", "some embodiments", "example", "specific example", or "some examples" etc. means that the specific features, structures, materials or characteristics described in conjunction with the embodiment or example are included in at least one embodiment or example of the present invention. In this specification, the schematic representations of the above terms do not necessarily refer to the same embodiment or example. Moreover, the specific features, structures, materials or characteristics described may be combined in any one or more embodiments or examples in a suitable manner. In addition, those skilled in the art may combine and combine the different embodiments or examples described in this specification and the features of the different embodiments or examples, without contradiction.

[0069] Although the embodiments of the present invention have been shown and described above, it is to be understood that the above embodiments are exemplary and are not to be construed as limitations of the present invention. A person skilled in the art may change, modify, replace and vary the above embodiments within the scope of the present invention.

Claims

1. An energy monitoring and display system, characterized in that: include: Display device acquisition module, collecting information related to display devices; An information transmission collection module collects information related to information transmission; Energy monitoring module, which collects information about the hardware devices used in the energy consumption monitoring process; The data processing module processes information related to the display device, hardware device collection information and information transmission, and generates display adjustment information, energy monitoring warning information and transmission warning information; The information sending module sends the display adjustment information, energy monitoring warning information and transmission warning information to the corresponding terminal; The process of generating display adjustment information is as follows: The information related to the display device includes the real-time brightness of the display device, the brightness of the environment where the display device is located, the RGB value of the current display interface and the display area of ​​the current display device; The brightness of the environment where the display device is located is imported into the preset mapping set to obtain the standard brightness value, and the real-time brightness of the display device and the standard brightness value are calculated to obtain the brightness evaluation parameter; Collect the RGB value of the energy display window background, and process the RGB value of the current display interface and the RGB value of the energy display window background to obtain the RGB evaluation value; Collect the window area of ​​the current energy display content and calculate its ratio to the display area of ​​the current display device, that is, obtain the energy display ratio; When the brightness evaluation parameter is abnormal, the RGB evaluation value is abnormal, or the energy display ratio is abnormal, display adjustment information is generated.

2. An energy monitoring and display system according to claim 1, characterized in that: The process of obtaining the brightness evaluation parameters and the abnormality determination process are as follows: The real-time brightness and standard brightness values ​​of the display device are extracted, and the real-time brightness of the display device is marked as F1, and the standard brightness value is marked as F2. The brightness evaluation parameter Ff is obtained through the formula (F1-F2)*α=Ff, where α is the correction value, 0.9≤α≤0.99, and α is proportional to the ambient brightness of the display device; When the brightness of the environment in which the display device is located is greater than the preset value m1, and the brightness evaluation parameter Ff exceeds the range between the preset value a1 and the preset value a2, it means that there is an abnormality in the brightness evaluation parameter; When the brightness of the environment where the display device is located is less than the preset value m2, and the brightness evaluation parameter Ff exceeds the range between the preset value a3 and the preset value a4, it means that there is an abnormality in the brightness evaluation parameter; m1>m2, a1>a2>a3>a4.

3. An energy monitoring and display system according to claim 1, characterized in that: The process of obtaining the RGB evaluation value and the abnormality determination process are as follows: Extract the RGB value of the current display interface and the RGB value of the energy display window background, calculate the difference between the RGB value of the current display interface and the RGB value of the energy display window background, and obtain the RGB evaluation value; When the absolute value of the RGB evaluation value is greater than the preset value, display adjustment information is generated.

4. The energy monitoring and display system according to claim 1, characterized in that: The process of obtaining the energy monitoring warning information is as follows: Extract the acquired hardware equipment collection information, the hardware equipment collection information includes the hardware information of the gas consumption monitoring equipment, the hardware information of the water consumption monitoring equipment, the hardware information of the power consumption monitoring equipment and the hardware information of the heat energy consumption equipment; The gas consumption monitoring equipment information, water consumption monitoring equipment information, electricity consumption monitoring equipment information and thermal energy consumption equipment information are processed. When any equipment information is abnormal, energy monitoring warning information is generated.

5. An energy monitoring and display system according to claim 4, characterized in that: The abnormality determination process of the hard gas consumption monitoring equipment information is as follows: Gas consumption monitoring equipment information includes real-time gas flow information and gas pressure information; When the real-time gas flow exceeds the set maximum instantaneous flow threshold and lasts for more than the preset minutes, it is judged as a gas leak or abnormal gas consumption, which means that the gas consumption monitoring equipment information is abnormal and an energy monitoring warning message is generated; The abnormality determination process of the water consumption monitoring device information is as follows: if the gas pressure is lower than the lowest normal pressure value and does not return to normal within the preset time, it indicates that the gas supply pressure is insufficient, which means that the gas consumption monitoring device information is abnormal, and an energy monitoring warning message is generated; The water consumption monitoring equipment information includes water flow information and water pressure information. When the water flow suddenly increases to more than 3 times the daily average flow and maintains the preset time, it indicates that there is a water pipe abnormality, which means that the water consumption monitoring equipment information is abnormal, and an energy monitoring warning message is generated; When the water pressure is lower than the lower limit of normal water supply pressure for more than a preset period of time, it is marked as water supply abnormality, which means that the water consumption monitoring equipment information is abnormal and an energy monitoring warning message is generated.

6. An energy monitoring and display system according to claim 4, characterized in that: The abnormality determination process of power consumption monitoring equipment information is as follows: Power consumption monitoring equipment information includes voltage information and power factor; When the voltage suddenly rises or drops, exceeds the normal voltage fluctuation range, and lasts for at least 3 collection cycles, it means that the power consumption monitoring equipment information is abnormal, and energy monitoring warning information is generated; The abnormality determination process of the heat energy consumption equipment information is as follows: the heat energy consumption equipment information includes the heating return water temperature difference and the heat energy consumption rate; When the heating return water temperature difference is less than the set minimum temperature difference threshold and the collection results appear for 5 consecutive times, it means that there is an abnormality in the information of the heat energy consuming equipment, and an energy monitoring warning message is generated; When the heat consumption rate suddenly drops and the outdoor temperature does not change, it means that there is an abnormality in the heat consumption equipment information, and an energy monitoring warning message is generated.

7. The energy monitoring and display system according to claim 1, characterized in that: The specific process of obtaining transmission warning information is as follows: Extract information related to information transmission, including transmission rate, packet loss rate, delay time and network connection status; When any of the transmission rate, packet loss rate and delay time is abnormal, a transmission warning message is generated; The transmission rate, packet loss rate and delay time are processed to obtain comprehensive network parameters. When the comprehensive network parameters are greater than a preset value, a transmission warning message is generated; The network connection status is continuously collected within a preset time period. The network connection status includes network connection and network disconnection. The duration of the network disconnection state is recorded. When the duration of the network disconnection state is greater than the preset value, a transmission warning message is generated.

8. An energy monitoring and display system according to claim 7, characterized in that: The abnormal determination process of transmission rate, packet loss rate and delay time is as follows: When the transmission rate is less than the preset value, it indicates that there is an abnormality; When the packet loss rate is greater than the preset value, it indicates that there is an abnormality; When the delay time is greater than the preset value, it means that there is an abnormality; The process of obtaining comprehensive network parameters is as follows: Perform real-time transmission rate conversion: extract the real-time transmission rate V, set the normal transmission rate [Vmin, Vmax], and use the formula , obtain the normalized real-time rate parameter Vv; Packet loss rate conversion: The packet loss rate P itself ranges from 0 to 1, but in order to make the packet loss rate consistent with other parameters, that is, the larger the value, the better the network condition, it is converted to 1-P; Delay time normalization: Set the normal range of delay time [tmin, tmax], through the formula , get the normalized delay time parameter Tt, and map the delay time to the interval from 0 to 1; Then through the formula , that is, the comprehensive network parameter N is obtained; The N value is between 0 and 1. The closer the value is to 1, the better the overall network condition is; the closer the value is to 0, the worse the overall network condition is. When N is greater than a preset value, a transmission warning message is generated.

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