Digital low-carbon smart energy management system

Abstract

The invention relates to the technical field of energy scheduling management, in particular to a digital low-carbon smart energy management system, which comprises an energy storage module, an acquisition module, a communication module, a processor module, a model construction module, a prediction module, an optimization module, an intelligent scheduling module, a controller module and a preview module, the communication module is connected with the acquisition module, the processor module is connected with the communication module, the model construction module is connected with the processor module, the prediction module is connected with the model construction module, the optimization module is connected with the prediction module, the preview module is connected with the optimization module, the intelligent scheduling module is connected with the preview module, and the controller module is connected with the intelligent scheduling module. The controller module is connected with the energy storage module; in this way, the technical problem that in the prior art, an energy management mode of an energy management system is low in energy utilization efficiency is solved.

Description

Technical Field

[0001] The present invention relates to the technical field of energy dispatching management, and in particular to a digital low-carbon intelligent energy management system. Background Art

[0002] Energy refers to resources that can provide energy, which usually include heat, electricity, light, mechanical, chemical, etc. Energy is the foundation and driving force of human civilization and progress, and is related to national economy, people's livelihood and national security, human survival and development, and is crucial to promoting economic and social development and improving people's well-being. Energy is a material resource in nature that can provide humans with a certain form of energy, also known as energy resources or energy resources. As an important material basis for the development of human society, energy is diverse in type, distinctive in characteristics and has obvious development trends.

[0003] During the use of energy, an energy management system is usually required to manage and schedule the energy. However, the existing energy management system has the problem of low energy utilization efficiency. Summary of the invention

[0004] The purpose of the present invention is to provide a digital low-carbon intelligent energy management system, aiming to solve the technical problem of low energy utilization efficiency in the energy management method of the energy management system in the prior art.

[0005] To achieve the above-mentioned purpose, the present invention adopts a digital low-carbon smart energy management system, including an energy storage module, an acquisition module, a communication module, a processor module, a model building module, a prediction module, an optimization module, an intelligent scheduling module, a controller module and a preview module, wherein the acquisition module is connected to the energy-consuming device, the communication module is connected to the acquisition module, the processor module is connected to the communication module, the model building module is connected to the processor module, the prediction module is connected to the model building module, the optimization module is connected to the prediction module, the preview module is connected to the optimization module, the intelligent scheduling module is connected to the preview module, the controller module is connected to the intelligent scheduling module, and the controller module is connected to the energy storage module;

[0006] The acquisition module is used to acquire energy consumption information of energy-consuming equipment.

[0007] Among them, the digital low-carbon smart energy management system also includes an environmental monitoring module, a data analysis module, a transmission module and an alarm module. The environmental monitoring module is connected to the energy storage module, the data analysis module is connected to the environmental monitoring module, the transmission module is connected to the data analysis module, the transmission module is also connected to the processor module, and the alarm module is connected to the controller module.

[0008] Among them, the environmental monitoring module includes a smoke monitoring unit, a liquid level sensor, a temperature and humidity collector and a camera, and the smoke monitoring unit, the liquid level sensor, the temperature and humidity collector and the camera are all connected to the energy storage module.

[0009] Among them, the digital low-carbon intelligent energy management system also includes a monitoring module, and the monitoring module is connected to the energy storage module.

[0010] Among them, the digital low-carbon intelligent energy management system also includes a ventilation module, and the ventilation module is connected to the energy storage module.

[0011] Among them, the ventilation module includes a bracket, a U-shaped plate, a first fan, a two-way cylinder, two sliders, two connecting blocks, two supports and two second fans. The U-shaped plate is fixedly connected to the bracket, the first fan is installed on the bracket, the two sliders are slidably connected to the bracket, the two mounting seats are rotatably connected to the bracket, one end of the two connecting blocks are respectively hinged to the corresponding sliders, the other ends of the two connecting blocks are respectively hinged to the corresponding supports, the second fan is installed on the corresponding supports, the two-way cylinder is installed on the U-shaped plate, and the two output ends of the two-way cylinder are respectively fixedly connected to the corresponding sliders.

[0012] Wherein, the ventilation module further comprises a telescopic rod, and two ends of the telescopic rod are respectively fixedly connected to the bracket and the corresponding sliding block.

[0013] A digital low-carbon intelligent energy management system of the present invention, when in specific use, obtains previous energy consumption information of energy-consuming equipment through the acquisition module, and transmits it to the processor module through the communication module. The processor module processes the data and then transmits it to the model building module. The specific data processing method is: deep mining and analysis are carried out to identify the rules and trends in energy use. The model building module builds an energy use model of the energy-consuming equipment based on the received data. The prediction module predicts future energy demand and supply based on the energy use model, and optimizes and schedules it through the optimization module. The preview module is used to preview on the staff client, and the staff can confirm whether to perform energy scheduling in this way, and the energy storage module is energy-scheduled through the intelligent scheduling module and the controller module. In this way, the technical problem of low energy utilization efficiency in the energy management method of the energy management system in the prior art is solved. BRIEF DESCRIPTION OF THE DRAWINGS

[0014] In order to more clearly illustrate the embodiments of the present invention or the technical solutions in the prior art, the drawings required for use in the embodiments or the description of the prior art will be briefly introduced below. Obviously, the drawings described below are only some embodiments of the present invention. For ordinary technicians in this field, other drawings can be obtained based on these drawings without paying creative work.

[0015] Figure 1 It is a principle block diagram of the first embodiment of the present invention.

[0016] Figure 2 It is a principle block diagram of the second embodiment of the present invention.

[0017] Figure 3 2 is a schematic structural diagram of a ventilation module according to a second embodiment of the present invention.

[0018] Figure 4 It is a principle block diagram of the third embodiment of the present invention.

[0019] 101-energy storage module, 102-acquisition module, 103-communication module, 104-processor module, 105-model building module, 106-prediction module, 107-optimization module, 108-intelligent scheduling module, 109-controller module, 110-preview module, 111-environmental monitoring module, 112-data analysis module, 113-transmission module, 114-alarm module, 115-monitoring module, 116-smoke monitoring unit, 117-liquid level sensor, 118-temperature and humidity collector, 119-camera, 201-ventilation module, 202-bracket, 203-U-shaped plate, 204-first fan, 205-bidirectional cylinder, 206-two sliders, 207-connecting block, 208-support, 209-second fan, 210-telescopic rod, 301-maintenance module, 302-login module, 303-verification module. DETAILED DESCRIPTION

[0020] Embodiments of the present invention are described in detail below. Examples of the embodiments are shown in the accompanying drawings. The embodiments described below with reference to the accompanying drawings are exemplary and are intended to be used to explain the present invention, but should not be construed as limiting the present invention.

[0021] The first embodiment of the present application is:

[0022] See also Figure 1 , Figure 1 It is a principle block diagram of the first embodiment of the present invention.

[0023] The present invention provides a digital low-carbon intelligent energy management system, including an energy storage module 101, an acquisition module 102, a communication module 103, a processor module 104, a model building module 105, a prediction module 106, an optimization module 107, an intelligent scheduling module 108, a controller module 109, a preview module 110, an environmental monitoring module 111, a data analysis module 112, a transmission module 113, an alarm module 114 and a monitoring module. The environmental monitoring module 111 includes a smoke monitoring unit 116, a liquid level sensor 117, a temperature and humidity collector 118 and a camera 119. The above-mentioned solution solves the technical problem of low energy utilization efficiency in the energy management method of the energy management system in the prior art.

[0024] According to this specific implementation, the acquisition module 102 is connected to the energy-consuming device, the communication module 103 is connected to the acquisition module 102, the processor module 104 is connected to the communication module 103, the model building module 105 is connected to the processor module 104, the prediction module 106 is connected to the model building module 105, the optimization module 107 is connected to the prediction module 106, the preview module 110 is connected to the optimization module 107, the intelligent scheduling module 108 is connected to the preview module 110, the controller module 109 is connected to the intelligent scheduling module 108, and the controller module 109 is connected to the energy storage module 101. When used, the energy consumption information of the energy-consuming device before is obtained through the acquisition module 102, and is transmitted to the processor module 104 through the communication module 103. The processor module 104 processes the data and transmits it to the model building module 105. The specific data processing method is: deep mining and analysis are carried out to identify the laws and trends in energy use. The model building module 105 builds an energy use model of the energy-consuming equipment based on the received data. The prediction module 106 predicts the future energy demand and supply based on the energy use model, and optimizes the scheduling through the optimization module 107. The preview module 110 is used to preview on the staff client, and the staff can confirm whether to perform energy scheduling in this way, and the energy storage module 101 is energy-scheduled through the intelligent scheduling module 108 and the controller module 109. In this way, the technical problem of low energy utilization efficiency in the energy management method of the energy management system in the prior art is solved.

[0025] Among them, the environmental monitoring module 111 is connected to the energy storage module 101, the data analysis module 112 is connected to the environmental monitoring module 111, the transmission module 113 is connected to the data analysis module 112, the transmission module 113 is also connected to the processor module 104, and the alarm module 114 is connected to the controller module 109. When in specific use, the environmental monitoring module 111 is used to monitor the working environment of the energy storage module 101, and analyze the type of accident through the data analysis module 112, and transmit it to the processor module 104 through the transmission module 113. The processor module 104 controls the alarm module 114 to alarm through the controller module 109.

[0026] Secondly, the smoke monitoring unit 116, the liquid level sensor 117, the temperature and humidity collector 118 and the camera 119 are all connected to the energy storage module 101. The smoke monitoring unit 116 is used to monitor the smoke in the environment, the liquid level sensor 117 monitors the accumulated water in the environment, the temperature and humidity collector 118 collects the environmental temperature and humidity, and the camera 119 collects the environmental interface.

[0027] At the same time, the monitoring module 115 is connected to the energy storage module 101 , and the monitoring module 115 is used to monitor the working status of the energy storage module 101 .

[0028] A digital low-carbon smart energy management system of this embodiment is used. When it is used, the previous energy consumption information of the energy-consuming equipment is obtained through the acquisition module 102, and transmitted to the processor module 104 through the communication module 103. The processor module 104 processes the data and transmits it to the model building module 105. The specific data processing method is: deep mining and analysis are carried out to identify the rules and trends in energy use. The model building module 105 builds an energy use model of the energy-consuming equipment based on the received data. The prediction module 106 predicts future energy demand and supply based on the energy use model, and optimizes and schedules it through the optimization module 107. The preview module 110 is used to preview on the staff client, and the staff can confirm whether to perform energy scheduling in this way, and the energy storage module 101 is energy scheduled through the intelligent scheduling module 108 and the controller module 109. In this way, the technical problem of low energy utilization efficiency in the energy management method of the energy management system in the prior art is solved.

[0029] The second embodiment of the present application is:

[0030] Based on the first embodiment, please refer to Figure 2 and Figure 3 , Figure 2 is a principle block diagram of a second embodiment of the present invention, Figure 3 2 is a schematic structural diagram of a ventilation module according to a second embodiment of the present invention.

[0031] The present invention provides a digital low-carbon intelligent energy management system, which also includes a ventilation module 201, wherein the ventilation module 201 includes a bracket 202, a U-shaped plate 203, a first fan 204, a bidirectional cylinder 205, two sliders 206, two connecting blocks 207, two supports 208, two second fans 209 and a telescopic rod 210.

[0032] According to this specific embodiment, the ventilation module 201 is connected to the energy storage module 101 . When in use, the ventilation module 201 is used to ventilate the working environment of the energy storage module 101 .

[0033] The U-shaped plate 203 is fixedly connected to the bracket 202, the first fan 204 is installed on the bracket 202, the two sliders 206 are slidably connected to the bracket 202, the two mounting seats are rotatably connected to the bracket 202, one end of the two connecting blocks 207 is respectively hinged to the corresponding sliders 206, the other ends of the two connecting blocks 207 are respectively hinged to the corresponding supports 208, the second fan 209 is installed on the corresponding supports 208, the bidirectional cylinder 205 is installed on the U-shaped plate 203, and the two output ends of the bidirectional cylinder 205 are respectively hinged to the corresponding The slider 206 is fixedly connected, the first fan 204 and the second fan 209 are started, and the two-way cylinder 205 is started. The two output ends of the two-way cylinder 205 drive the two sliders 206 to slide, and the two sliders 206 drive the two ends of the two connecting blocks 207 to rotate on the corresponding sliders 206 and the corresponding mounting seats respectively. When the connecting block 207 rotates, it drives the support 208 to rotate. The rotation of the support 208 drives the second fan 209 to swing. The two-way cylinder 205 drives the second fan 209 to swing back and forth, thereby increasing the range of action of the second fan 209.

[0034] Secondly, two ends of the telescopic rod 210 are fixedly connected to the bracket 202 and the corresponding slider 206 respectively, and the telescopic rod 210 can improve the stability of the slider 206.

[0035] A digital low-carbon smart energy management system using the present embodiment is used to start the first fan 204 and the second fan 209, and start the bidirectional cylinder 205. The two output ends of the bidirectional cylinder 205 drive the two sliders 206 to slide. The two sliders 206 drive the two ends of the two connecting blocks 207 to rotate on the corresponding sliders 206 and the corresponding mounting seats respectively. When the connecting block 207 rotates, it drives the support 208 to rotate. The rotation of the support 208 drives the second fan 209 to swing. The bidirectional cylinder 205 drives the second fan 209 to swing back and forth, thereby increasing the range of action of the second fan 209.

[0036] The third embodiment of the present application is:

[0037] Based on the second embodiment, please refer to Figure 4 , Figure 4 It is a principle block diagram of the third embodiment of the present invention.

[0038] The present invention provides a digital low-carbon smart energy management system, which also includes a maintenance module 301 , a login module 302 and a verification module 303 .

[0039] According to this specific implementation, the login module 302 is connected to the processor module 104 , and the maintenance module 301 is convenient for the administrator to maintain the processor module 104 .

[0040] The login module 302 is connected to the maintenance module 301 , the verification module 303 is connected to the login module 302 , the login module 302 is used for the administrator to log in to the maintenance module 301 , and the verification module 303 is used to verify the identity of the administrator who logs in to the login module 302 .

[0041] Using a digital low-carbon smart energy management system of this embodiment, the maintenance module 301 facilitates the management personnel to maintain the processor module 104, the login module 302 is used for the management personnel to log in to the maintenance module 301, and the verification module 303 is used to verify the identity of the management personnel who log in to the login module 302.

[0042] What is disclosed above is only a preferred embodiment of the present invention, and it certainly cannot be used to limit the scope of rights of the present invention. Ordinary technicians in this field can understand that all or part of the processes of the above embodiment and equivalent changes made according to the claims of the present invention still fall within the scope of the invention.

Claims

1. A digital low-carbon smart energy management system, characterized in that: It includes an energy storage module, an acquisition module, a communication module, a processor module, a model building module, a prediction module, an optimization module, an intelligent scheduling module, a controller module and a preview module, wherein the acquisition module is connected to the energy-consuming device, the communication module is connected to the acquisition module, the processor module is connected to the communication module, the model building module is connected to the processor module, the prediction module is connected to the model building module, the optimization module is connected to the prediction module, the preview module is connected to the optimization module, the intelligent scheduling module is connected to the preview module, the controller module is connected to the intelligent scheduling module, and the controller module is connected to the energy storage module; The acquisition module is used to acquire energy consumption information of energy-consuming equipment.

2. The digital low-carbon smart energy management system according to claim 1, characterized in that: The digital low-carbon smart energy management system also includes an environmental monitoring module, a data analysis module, a transmission module and an alarm module. The environmental monitoring module is connected to the energy storage module, the data analysis module is connected to the environmental monitoring module, the transmission module is connected to the data analysis module, the transmission module is also connected to the processor module, and the alarm module is connected to the controller module.

3. The digital low-carbon smart energy management system according to claim 2, characterized in that: The environmental monitoring module includes a smoke monitoring unit, a liquid level sensor, a temperature and humidity collector and a camera. The smoke monitoring unit, the liquid level sensor, the temperature and humidity collector and the camera are all connected to the energy storage module.

4. The digital low-carbon smart energy management system according to claim 3, characterized in that: The digital low-carbon intelligent energy management system also includes a monitoring module, which is connected to the energy storage module.

5. The digital low-carbon smart energy management system according to claim 4, characterized in that: The digital low-carbon intelligent energy management system also includes a ventilation module, which is connected to the energy storage module.

6. The digital low-carbon smart energy management system according to claim 5, characterized in that: The ventilation module includes a bracket, a U-shaped plate, a first fan, a bidirectional cylinder, two sliders, two connecting blocks, two supports and two second fans. The U-shaped plate is fixedly connected to the bracket, the first fan is installed on the bracket, the two sliders are slidably connected to the bracket, the two mounting seats are rotatably connected to the bracket, one end of the two connecting blocks are respectively hinged to the corresponding sliders, the other ends of the two connecting blocks are respectively hinged to the corresponding supports, the second fan is installed on the corresponding supports, the bidirectional cylinder is installed on the U-shaped plate, and the two output ends of the bidirectional cylinder are respectively fixedly connected to the corresponding sliders.

7. The digital low-carbon smart energy management system according to claim 6, characterized in that: The ventilation module also includes a telescopic rod, and two ends of the telescopic rod are respectively fixedly connected to the bracket and the corresponding sliding block.

Images