Intelligent lighting energy-saving method based on data center

Abstract

The invention discloses an intelligent lighting energy-saving method based on a data center, and the method comprises the steps: inputting the data into a main control system according to the work order of the data center or the inspection of the data center through the arrangement of each control module of the main control system, and enabling the main control system to automatically plan an optimal lighting route at the moment. The main control system controls the lighting devices on the lighting route to be turned on, fixed-point and fixed-position lighting operation is achieved, electric energy consumption is effectively reduced, the main control system can automatically turn off the lighting devices according to the data center work order and the data center inspection time, and the working efficiency is improved. The situation that the lighting equipment is forgotten to be turned off or is inconvenient to turn off is avoided, and the energy-saving effect of the data center is further improved. The intelligent lighting energy-saving method based on the data center has the advantages of intelligent lighting energy conservation and convenience in use.

Description

Technical Field

[0001] The present invention relates to the technical field of data centers, and in particular to an intelligent lighting energy-saving method based on a data center. Background Art

[0002] Data centers are a global collaborative network of specific devices used to transmit, accelerate, display, calculate, and store data information on the internet network infrastructure. At present, with the vigorous development of new generation communication technologies such as cloud computing, the Internet, big data, and artificial intelligence, data centers have become an important infrastructure that affects economic and social development, and massive amounts of data need to be processed. As the main storage and computing entity for massive data, the scale of data centers has also continued to expand accordingly. In particular, Internet data centers have experienced a spurt in recent years, with their total volume accounting for more than one-third of my country's GDP, and their power consumption has exceeded 1.5% of the total electricity consumption of the whole society. However, the energy efficiency of my country's data centers is still relatively low, and the energy consumption problem caused by data centers has attracted widespread attention.

[0003] However, the lighting power supply of the data center is still realized by the traditional technology in the prior art, that is, by installing the lighting control panel and manually controlling the lighting equipment inside the data center computer room, so as to realize the lighting operation of the data center. In the actual use process, the maintenance operation of the data center by the staff of the data center is mostly carried out in a small area. At this time, a large number of lighting equipment in the data center computer room needs to be turned on, resulting in excessive use of lighting equipment and large energy waste. In addition, when the data center staff conducts inspections on the data center computer room, they generally pass through the data center computer room. The traditional control panel for the lighting equipment is fixed in one position. At this time, it is easy to forget to turn off the lighting equipment or need to return to the control panel again to turn it off, which further causes waste of electricity and is not conducive to energy-saving use of the data center.

[0004] Based on the above reasons, the present invention proposes an intelligent lighting energy-saving method based on a data center to solve the deficiencies of the prior art. Summary of the invention

[0005] The technical problem solved by the present invention is to overcome the defects of the prior art of large lighting power waste and inconvenient operation, and provide an intelligent lighting energy-saving method based on a data center. The intelligent lighting energy-saving method based on a data center has the characteristics of intelligent lighting energy saving and easy use.

[0006] To achieve the above object, the present invention provides the following technical solution: an intelligent lighting energy-saving method based on a data center, comprising the following steps:

[0007] S1: Install a control module on each lighting device inside the data center;

[0008] S2: Divide the internal area of ​​the data center and number each divided area;

[0009] S3: numbering the lighting equipment in each area after the data center is divided;

[0010] S4: Setting up the main control system and connecting the control module to the main control system;

[0011] S5: Input of data center work orders, inputting the work order plan of the data center into the main control system;

[0012] S6: The main control system is started. The main control system controls the control module and starts the lighting equipment on the planned route of the data center work order to realize the lighting function;

[0013] S7: End of the data center work order. When the demand for internal lighting in the data center ends, the main control system turns off the lighting equipment.

[0014] Preferably, the control module in step 1 comprises an electromagnetic switch, a signal receiving device, a signal sending device, a processing device and a built-in power supply;

[0015] The electromagnetic switch is used to control the disconnection and passage of the circuit. When the electromagnetic switch is powered on, the electromagnetic coil inside the electromagnetic switch generates electromagnetic attraction, and the movable iron core pushes or pulls the switch contacts to close, thereby connecting the controlled lighting device. Similarly, when the electromagnetic switch is powered off, the electromagnetic coil inside the electromagnetic switch loses the electromagnetic attraction, and under the action of the spring inside the electromagnetic switch, the movable iron core drives the switch contacts to reset, thereby disconnecting the controlled lighting device.

[0016] The signal receiving device is used to receive the signal sent from the main control system, and the signal receiving device is installed inside the control module;

[0017] The signal sending device is used to send the information processed in the main control system, and the signal sending device is installed in the main control system;

[0018] The processing device is used to identify, analyze and output the received signal, so as to facilitate the control operation of the control module;

[0019] The built-in power supply is used to perform internal power supply operation on the control module. The capacity of the built-in power supply is greater than 10,000 mA, and the built-in power supply is connected to the lighting device circuit.

[0020] Preferably, in step 2, the numbers for the internal area divisions in the data are composed of a combination of Arabic numerals and English letters, where the Arabic numerals are floor numbers and the English letters are divided area numbers, such as 1A, indicating area A on the first floor.

[0021] Preferably, in step 3, the lighting equipment in each area after the data center is divided is numbered in Arabic numerals, such as 001, indicating the first lighting equipment in each area after the data center is divided.

[0022] Preferably, the lighting equipment specified in the main control system is combined based on the numbering format of step 2 and step 3, such as 1A-001, indicating the first lighting equipment number in area A on the first floor.

[0023] Preferably, the main control system in step 4 includes a display device, an input device, a route planning module, a central processing module and a sub-control module;

[0024] The display device is used to display the conditions inside the data center and the lighting equipment, and the display device is composed of a display;

[0025] The input device is used for inputting operations on data center work orders, and the input device includes a camera, a keyboard, and a USB flash drive;

[0026] The route planning module is used to plan the route for lighting equipment in the data center to start lighting according to the work order information of the data center, so as to achieve the purpose of optimizing lighting and saving energy;

[0027] The central processing module is used to analyze and process the external feedback signals and data center work order contents input into the main control system;

[0028] The sub-control modules are installed in each area after the data center is divided. The control modules in one or more divided areas of the data center are connected to a sub-control module, and the sub-control module communicates with the main control system to reduce the use pressure of the main control system and improve its use efficiency.

[0029] Preferably, the connection between the control module and the main control system in step 4 is implemented by a connection method based on a wireless network.

[0030] Preferably, in step 7, the main control system has two ways to turn off the lighting equipment. One way is to reply to the data center work order. At this time, the main control system actively turns off the lighting equipment. The other way is to automatically turn off the lighting equipment after a specified period of time. That is, after the preset time of the data center work order is reached, the main control system will automatically turn off the lighting equipment.

[0031] Compared with the prior art, the present invention has the following beneficial effects:

[0032] 1. The present invention installs a control module on each lighting device in the data center, and divides and numbers each lighting device. In actual use, the control module on the lighting device with a specified number can be switched on and off by an external main control system, so that the lighting device can be turned on and used at a specified location in the computer room of the data center, thereby reducing the waste of electric energy caused by turning on a large area of ​​lighting devices when maintaining the equipment in the computer room of the data center, and achieving the energy-saving effect of the data center;

[0033] 2. The present invention is provided with various control modules of the main control system. When in use, data is input into the main control system according to the needs of the data center work order or the data center inspection. At this time, the main control system will automatically plan the best lighting route, and control the lighting equipment on the lighting route to turn on through the main control system, thereby realizing fixed-point lighting operation and effectively reducing energy consumption. In addition, the main control system can also automatically turn off the lighting equipment according to the settings of the data center work order and the data center inspection time, thereby avoiding the situation where the lighting equipment is forgotten to be turned off or is inconvenient to be turned off, and further improving the energy-saving effect of the data center. BRIEF DESCRIPTION OF THE DRAWINGS

[0034] Figure 1 This is a flow chart of an intelligent lighting energy-saving method based on a data center according to the present invention;

[0035] Figure 2 This is a control module structure diagram of an intelligent lighting energy-saving method based on a data center of the present invention;

[0036] Figure 3 This is a structural diagram of the main control system of an intelligent lighting energy-saving method based on a data center in the present invention. DETAILED DESCRIPTION

[0037] The following will be combined with the drawings in the embodiments of the present invention to clearly and completely describe the technical solutions in the embodiments of the present invention. Obviously, the described embodiments are only part of the embodiments of the present invention, not all of the embodiments. Based on the embodiments of the present invention, all other embodiments obtained by ordinary technicians in this field without creative work are within the scope of protection of the present invention.

[0038] Example 1: Please refer to Figure 1-3 The present invention provides a technical solution: an intelligent lighting energy-saving method based on a data center, comprising the following steps, characterized in that:

[0039] S1: A control module is installed on each lighting device inside the data center. The control module includes an electromagnetic switch, a signal receiving device, a signal sending device, a processing device and a built-in power supply;

[0040] The electromagnetic switch is used to control the disconnection and passage of the circuit. When the electromagnetic switch is powered on, the electromagnetic coil inside the electromagnetic switch generates electromagnetic attraction, and the movable iron core pushes or pulls the switch contacts to close, thereby connecting the controlled lighting device. Similarly, when the electromagnetic switch is powered off, the electromagnetic coil inside the electromagnetic switch loses the electromagnetic attraction, and under the action of the spring inside the electromagnetic switch, the movable iron core drives the switch contacts to reset, thereby disconnecting the controlled lighting device.

[0041] The signal receiving device is used to receive the signal sent from the main control system, and the signal receiving device is installed inside the control module;

[0042] The signal sending device is used to send the information processed in the main control system, and the signal sending device is installed in the main control system;

[0043] The processing device is used to identify, analyze and output the received signal, so as to facilitate the control operation of the control module;

[0044] The built-in power supply is used to perform internal power supply operation on the control module, the capacity of the built-in power supply is greater than 10,000 mA, and the built-in power supply is connected to the lighting equipment circuit. ;

[0045] S2: Divide the internal area of ​​the data center and number each divided area. The numbers of the internal area divisions in the data are composed of Arabic numerals and English letters. Arabic numerals are floor numbers, and English letters are divided area numbers. For example, 1A indicates area A on the first floor.

[0046] S3: The lighting equipment in each area after the data center is divided is numbered. The lighting equipment in each area after the data center is divided is numbered in Arabic numerals, such as 001, indicating that it is the first lighting equipment in each area after the data center is divided. Combining steps 2 and 3, the lighting equipment specified in the main control system is combined based on the numbering forms of steps 2 and 3, such as 1A-001, indicating that it is the first lighting equipment number in area A on the first floor;

[0047] S4: Setting up the main control system and connecting the control module to the main control system. The connection between the control module and the main control system is achieved by a wireless network-based connection method. The main control system includes a display device, an input device, a route planning module, a central processing module, and a sub-control module.

[0048] The display device is used to display the conditions inside the data center and the lighting equipment, and the display device is composed of a display;

[0049] The input device is used for inputting operations on data center work orders, and the input device includes a camera, a keyboard, and a USB flash drive;

[0050] The route planning module is used to plan the route for lighting equipment in the data center to start lighting according to the work order information of the data center, so as to achieve the purpose of optimizing lighting and saving energy;

[0051] The central processing module is used to analyze and process the external feedback signals and data center work order contents input into the main control system;

[0052] The sub-control modules are installed in each area after the data center is divided. The control modules in one or more divided areas of the data center are connected to a sub-control module, and the sub-control module communicates with the main control system, thereby reducing the use pressure of the main control system and improving the use efficiency.

[0053] S5: Input of data center work orders, inputting the work order plan of the data center into the main control system. At this time, the route planning module inside the main control system plans the route based on the input work order of the data center, analyzes the specified lighting equipment number in the main control system, and enters the operation time length of the data center work order;

[0054] S6: The main control system is started. The main control system controls the control module to start the lighting equipment on the data center work order plan route, realize the lighting operation on the data center work order route and the designated location, and realize the lighting function based on the data center work order;

[0055] S7: The end of the data center work order. When the demand for internal lighting in the data center is over, the operator can return to the control center, reply to the data center work order to the main control system, and complete the shutdown of the lighting equipment. Or when the execution time of the data center work order is reached, the main control system automatically shuts down the lighting equipment, realizing intelligent control operation of the internal lighting equipment in the data center, with good energy-saving effect.

[0056] Example 2: Please refer to Figure 1-3 The present invention provides a technical solution: an intelligent lighting energy-saving method based on a data center, comprising the following steps, characterized in that:

[0057] S1: A control module is installed on each lighting device inside the data center. The control module includes an electromagnetic switch, a signal receiving device, a signal sending device, a processing device and a built-in power supply;

[0058] The electromagnetic switch is used to control the disconnection and passage of the circuit. When the electromagnetic switch is powered on, the electromagnetic coil inside the electromagnetic switch generates electromagnetic attraction, and the movable iron core pushes or pulls the switch contacts to close, thereby connecting the controlled lighting device. Similarly, when the electromagnetic switch is powered off, the electromagnetic coil inside the electromagnetic switch loses the electromagnetic attraction, and under the action of the spring inside the electromagnetic switch, the movable iron core drives the switch contacts to reset, thereby disconnecting the controlled lighting device.

[0059] The signal receiving device is used to receive the signal sent from the main control system, and the signal receiving device is installed inside the control module;

[0060] The signal sending device is used to send the information processed in the main control system, and the signal sending device is installed in the main control system;

[0061] The processing device is used to identify, analyze and output the received signal, so as to facilitate the control operation of the control module;

[0062] The built-in power supply is used to perform internal power supply operation on the control module, the capacity of the built-in power supply is greater than 10,000 mA, and the built-in power supply is connected to the lighting equipment circuit. ;

[0063] S2: Divide the internal area of ​​the data center and number each divided area. The numbers of the internal area divisions in the data are composed of Arabic numerals and English letters. Arabic numerals are floor numbers, and English letters are divided area numbers. For example, 1A indicates area A on the first floor.

[0064] S3: The lighting equipment in each area after the data center is divided is numbered. The lighting equipment in each area after the data center is divided is numbered in Arabic numerals, such as 001, indicating that it is the first lighting equipment in each area after the data center is divided. Combining steps 2 and 3, the lighting equipment specified in the main control system is combined based on the numbering forms of steps 2 and 3, such as 1A-001, indicating that it is the first lighting equipment number in area A on the first floor;

[0065] S4: Setting up the main control system and connecting the control module to the main control system. The connection between the control module and the main control system is achieved by a wireless network-based connection method. The main control system includes a display device, an input device, a route planning module, a central processing module, and a sub-control module.

[0066] The display device is used to display the conditions inside the data center and the lighting equipment, and the display device is composed of a display;

[0067] The input device is used for inputting operations on data center work orders, and the input device includes a camera, a keyboard, and a USB flash drive;

[0068] The route planning module is used to plan the route for lighting equipment in the data center to start lighting according to the work order information of the data center, so as to achieve the purpose of optimizing lighting and saving energy;

[0069] The central processing module is used to analyze and process the external feedback signals and data center work order contents input into the main control system;

[0070] The sub-control modules are installed in each area after the data center is divided. The control modules in one or more divided areas of the data center are connected to a sub-control module, and the sub-control module communicates with the main control system, thereby reducing the use pressure of the main control system and improving the use efficiency.

[0071] S5: Input of data center work orders: input the inspection procedure work order into the main control system and confirm the inspection area of ​​the data center. At this time, the route planning module inside the main control system plans the inspection route based on the inspection area and extracts the number of each lighting device on the inspection route into the main control system in turn;

[0072] S6: The main control system is started. The main control system controls the control module according to the number of the lighting equipment, starts the lighting equipment on the inspection route of the data center, and realizes the lighting operation on the inspection route;

[0073] S7: The data center inspection is completed. After inspecting the designated location of the data center, the main control center automatically turns off the lighting equipment. The operation is simple and the energy-saving effect is good.

[0074] Although embodiments of the present invention have been shown and described, it will be appreciated by those skilled in the art that various changes, modifications, substitutions and variations may be made to the embodiments without departing from the principles and spirit of the present invention, and that the scope of the present invention is defined by the appended claims and their equivalents.

Claims

1. An intelligent lighting energy-saving method based on a data center comprises the following steps, characterized in that: S1: Install a control module on each lighting device inside the data center; S2: Divide the internal area of ​​the data center and number each divided area; S3: numbering the lighting equipment in each area after the data center is divided; S4: Setting up the main control system and connecting the control module to the main control system; S5: Input of data center work orders, inputting the work order plan of the data center into the main control system; S6: The main control system is started. The main control system controls the control module to start the lighting equipment on the planned route of the data center work order to realize the lighting function; S7: End of the data center work order. When the demand for internal lighting in the data center ends, the main control system turns off the lighting equipment.

2. According to claim 1, a data center-based intelligent lighting energy-saving method is characterized in that: The control module in step 1 includes an electromagnetic switch, a signal receiving device, a signal sending device, a processing device and a built-in power supply; The electromagnetic switch is used to control the disconnection and passage of the circuit. When the electromagnetic switch is powered on, the electromagnetic coil inside the electromagnetic switch generates electromagnetic attraction, and the movable iron core pushes or pulls the switch contacts to close, thereby connecting the controlled lighting device. Similarly, when the electromagnetic switch is powered off, the electromagnetic coil inside the electromagnetic switch loses the electromagnetic attraction, and under the action of the spring inside the electromagnetic switch, the movable iron core drives the switch contacts to reset, thereby disconnecting the controlled lighting device. The signal receiving device is used to receive the signal sent from the main control system, and the signal receiving device is installed inside the control module; The signal sending device is used to send the information processed in the main control system, and the signal sending device is installed in the main control system; The processing device is used to identify, analyze and output the received signal, so as to facilitate the control operation of the control module; The built-in power supply is used to perform internal power supply operation on the control module. The capacity of the built-in power supply is greater than 10,000 mA, and the built-in power supply is connected to the lighting device circuit.

3. The intelligent lighting energy-saving method based on a data center according to claim 1, characterized in that: In step 2, the numbers for the internal area divisions in the data are composed of a combination of Arabic numerals and English letters, where the Arabic numerals are floor numbers and the English letters are divided area numbers, such as 1A, indicating area A on the first floor.

4. The intelligent lighting energy-saving method based on a data center according to claim 3 is characterized in that: In step 3, the lighting equipment in each area after the data center is divided is numbered in the form of Arabic numerals, such as 001, indicating the first lighting equipment in each area after the data center is divided.

5. The intelligent lighting energy-saving method based on data center according to claim 4 is characterized in that: The lighting equipment specified in the main control system is combined based on the numbering format of step 2 and step 3, such as 1A-001, indicating the first lighting equipment number in area A on the first floor.

6. The intelligent lighting energy-saving method based on a data center according to claim 1, characterized in that: The main control system in step 4 includes a display device, an input device, a route planning module, a central processing module and a sub-control module; The display device is used to display the conditions inside the data center and the lighting equipment, and the display device is composed of a display; The input device is used for inputting operations on data center work orders, and the input device includes a camera, a keyboard, and a USB flash drive; The route planning module is used to plan the route for lighting equipment in the data center to start lighting according to the work order information of the data center, so as to achieve the purpose of optimizing lighting and saving energy; The central processing module is used to analyze and process the external feedback signals and data center work order contents input into the main control system; The sub-control modules are installed in each area after the data center is divided. The control modules in one or more divided areas of the data center are connected to a sub-control module, and the sub-control module communicates with the main control system to reduce the use pressure of the main control system and improve its use efficiency.

7. The intelligent lighting energy-saving method based on a data center according to claim 1, characterized in that: In step 4, the connection between the control module and the main control system is implemented based on a wireless network.

8. The intelligent lighting energy-saving method based on a data center according to claim 1, characterized in that: In step 7, the main control system can shut down the lighting equipment in two ways. One way is to reply to the data center work order. At this time, the main control system actively shuts down the lighting equipment. The other way is to automatically shut down the lighting equipment after a specified period of time. That is, after the preset time of the data center work order is reached, the main control system will automatically shut down the lighting equipment.

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