An energy-efficient and low-carbon operation full-process intelligent control cloud platform

Abstract

The present invention is applicable to the field of industrial and commercial management and control technology, and in particular relates to a cloud platform for intelligent control of energy-efficient and low-carbon operation throughout the entire process. The cloud platform includes: a classification layer, a personal device control layer, and a public device control layer; the classification layer is used to define the intelligent control range of energy operation, and uses a Bluetooth receiver pre-integrated in the intelligent control range to search for the user's Bluetooth signal, establish a corresponding relationship between the user's identity information and the Bluetooth signal, find out the controlled devices within the intelligent control range, and cluster them into personal devices and public devices; the personal device control layer is used to configure the mapping between Bluetooth signals and personal devices. By constructing a control strategy, the present invention can control different controlled devices in different ways, thereby accurately controlling the controlled devices without affecting the user's normal work, reducing unnecessary energy waste, and effectively promoting the efficient and low-carbon management of electric energy.

Description

Technical Field

[0001] The present invention relates to the field of industrial and commercial management and control technology, and in particular to a cloud platform for intelligent control of energy-efficient and low-carbon operations throughout the entire process. Background Art

[0002] Energy full-process intelligent control refers to the process of monitoring and controlling the energy system through intelligent means to achieve the goals of maximizing energy utilization efficiency and minimizing carbon emissions. By integrating technologies such as artificial intelligence and the Internet of Things into the control process, a collaborative operation mechanism between controlled devices is established, thereby promoting the transformation of energy management from extensive operation to refined, intelligent and green operation.

[0003] In actual production, a management and control cloud platform is established through the Internet of Things technology to conduct real-time online monitoring of controlled equipment, and to put controlled equipment into sleep or shut down in a timely manner, especially to cut off power when the equipment is not in use. This can not only effectively reduce standby energy consumption and extend the service life of the controlled equipment, but also reduce maintenance costs and greatly reduce the waste of electricity and energy. For example, when staff leave their posts, they can turn off the lighting in the corresponding area and deactivate the air compressor equipment.

[0004] Therefore, “how to use a Bluetooth receiver to perform energy management on the controlled device” is the technical problem that the present invention needs to solve. Summary of the Invention

[0005] The purpose of the present invention is to provide an energy-efficient and low-carbon operation full-process intelligent control cloud platform to solve the problem of "how to use Bluetooth receivers to manage the energy of controlled devices" raised in the above background technology.

[0006] To achieve the above object, the present invention provides the following technical solutions:

[0007] An energy-efficient and low-carbon operation full-process intelligent control cloud platform, the cloud platform comprising: a classification layer, a personal device control layer, and a public device control layer;

[0008] The classification layer is used to define the intelligent control range of energy operation, use the Bluetooth receiver pre-integrated in the intelligent control range to search for the user's Bluetooth signal, establish a correspondence between the user's identity information and the Bluetooth signal, find the controlled devices within the intelligent control range, and cluster them into personal devices and public devices;

[0009] The personal device control layer is used to configure the mapping between Bluetooth signals and personal devices, read the pairing list of the Bluetooth receiver, refresh it at a preset frequency, capture snapshots before and after the refresh, compare them to obtain disappeared items, record the removal time of the disappeared items, and establish a delay mechanism. The delay mechanism is: when the removal time is greater than a threshold, the personal device corresponding to the disappeared item is shut down through the mapping;

[0010] The public device control layer is used to use preset sensing equipment to collect the usage frequency of each public device and divide the control priority, where the control priority includes: high, medium and low, create a query table consisting of control priority items and Bluetooth signal items, where each public device corresponds to a query table, edit the control strategy corresponding to the control priority one by one, and judge whether the disappeared item is a termination item through the pairing list, define the control priority corresponding to the termination item as the target level, and activate the control strategy corresponding to the target level.

[0011] Furthermore, the classification layer includes:

[0012] A corresponding module is used to define the intelligent control range of energy operation, use the Bluetooth receiver pre-integrated in the intelligent control range to search for the user's Bluetooth signal, and establish a corresponding relationship between the user's identity information and the Bluetooth signal;

[0013] The clustering module is used to find out the controlled devices within the intelligent control range and cluster them into personal devices and public devices.

[0014] Furthermore, the personal device control layer includes:

[0015] The comparison module is used to configure the mapping between Bluetooth signals and personal devices, read the pairing list of Bluetooth receivers, refresh it according to the preset frequency, capture snapshots before and after the refresh, and compare them to obtain disappeared items;

[0016] The recording module is used to record the removal time of the disappearing items and build a delay mechanism.

[0017] Furthermore, the public device control layer includes:

[0018] Create a module for using a preset sensor device to collect the usage frequency of each public device, divide the control priority, and create a query table consisting of control priority items and Bluetooth signal items;

[0019] The hierarchical control module is used to edit the control strategies corresponding to the control priorities, determine whether the disappearing item is a terminal item through the pairing list, define the control priority corresponding to the terminal item as the target level, and activate the control strategy corresponding to the target level.

[0020] Furthermore, the corresponding module includes:

[0021] A segmentation unit, configured to construct a management platform for controlled devices and segment the intelligent control range into a plurality of sub-blocks, wherein each sub-block is deployed with at least one Bluetooth receiver;

[0022] The updating unit is used to integrate all Bluetooth receivers within the intelligent control range to generate a group, use the group to locate the real-time position of the disappeared item, and dynamically define the disappeared item.

[0023] Furthermore, the recording module includes:

[0024] a statistical unit, configured to record the last appearance time of the disappeared item and calculate the removal time when the disappeared item leaves the intelligent control range via the real-time position;

[0025] The establishing unit is configured to establish a correspondence between the personal device and the removal duration, and construct a comparison table based on the correspondence, wherein the comparison table consists of a removal duration item and a personal device item.

[0026] Furthermore, the hierarchical control module includes:

[0027] a sending unit, configured to integrate the last appearance time of each disappeared item, generate an attendance log, and send the attendance log to a preset terminal;

[0028] The definition unit is used to count the number of Bluetooth signals in the control priority of each public device, and when the number is 1, define the disappeared item as a termination item.

[0029] Furthermore, the control strategy includes:

[0030] When the target level is high, the preset delayed shutdown time is activated, an inquiry message is sent to the device terminal corresponding to the Bluetooth signal in the pairing list, a feedback message uploaded by the device terminal is received, and it is determined whether the public device continues to be turned on;

[0031] Determine whether the number of Bluetooth signals in the pairing list is 0. If so, turn off all controlled devices after the termination item leaves the intelligent control range based on the real-time location.

[0032] Furthermore, the hierarchical control module includes:

[0033] An adjustment unit, configured to configure an energy-low-carbon operation time, establish a target state, and adjust the controlled device to the target state when the operation time arrives;

[0034] The uploading unit is used to establish a linkage relationship between controlled devices and upload the linkage relationship to the management platform.

[0035] Furthermore, the hierarchical control module further includes:

[0036] a recording unit, configured to record the status of the controlled devices in the sub-block after the user leaves the sub-block, and generate a status version;

[0037] The rollback unit is used to build a rollback mechanism based on the state version.

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

[0039] By deploying Bluetooth receivers, refined control of controlled devices can be achieved without the need for user operation, reducing the operational burden and improving user experience. By determining the disappearing items, the user's departure behavior can be accurately identified, providing a data basis for personalized adjustment of the controlled devices, so that the device can be turned off when the user leaves. By constructing control strategies, different controlled devices can be controlled in different ways, so that the controlled devices can be accurately controlled without affecting normal production, reducing unnecessary energy waste and effectively promoting efficient and low-carbon management of electric energy. BRIEF DESCRIPTION OF THE DRAWINGS

[0040] Figure 1 A block diagram of the energy-efficient, low-carbon, and fully intelligent cloud control platform provided by an embodiment of the present invention;

[0041] Figure 2 A block diagram of the classification layer in the energy-efficient and low-carbon operation full-process intelligent control cloud platform provided by an embodiment of the present invention;

[0042] Figure 3 A block diagram of the personal device control layer in the energy-efficient and low-carbon operation full-process intelligent control cloud platform provided by an embodiment of the present invention;

[0043] Figure 4 A block diagram of the components of the public equipment control layer in the energy-efficient and low-carbon operation full-process intelligent control cloud platform provided by an embodiment of the present invention;

[0044] Figure 5 A block diagram of the components of the corresponding modules in the energy-efficient and low-carbon operation full-process intelligent control cloud platform provided by an embodiment of the present invention;

[0045] Figure 6 A block diagram of the recording module in the energy-efficient and low-carbon operation full-process intelligent control cloud platform provided by an embodiment of the present invention;

[0046] Figure 7 This is a block diagram of the composition of the hierarchical control modules in the energy-efficient and low-carbon operation full-process intelligent control cloud platform provided by an embodiment of the present invention. DETAILED DESCRIPTION

[0047] In order to make the purpose, technical solutions and advantages of the present invention more clearly understood, the present invention will be further described in detail below with reference to the accompanying drawings and embodiments. It should be understood that the specific embodiments described herein are only used to explain the present invention and are not intended to limit the present invention.

[0048] In Example 1, Figure 1 The following is a block diagram showing the composition structure of the energy-efficient and low-carbon operation full-process intelligent control cloud platform provided by an embodiment of the present invention. The energy-efficient and low-carbon operation full-process intelligent control cloud platform 1 includes: a classification layer 11, a personal device control layer 12, and a public device control layer 13;

[0049] The classification layer 11 is used to define the intelligent control range of energy operation, use the Bluetooth receiver pre-integrated in the intelligent control range to search for the user's Bluetooth signal, establish a correspondence between the user identity information and the Bluetooth signal, find out the controlled devices within the intelligent control range, and cluster them into personal devices and public devices.

[0050] Define the scope where energy operation control is required, namely the intelligent control scope, which can be a production workshop or a production area, etc.; deploy several Bluetooth receivers within the intelligent control scope to achieve full coverage of the intelligent control scope; use the Bluetooth receiver to scan the Bluetooth signal emitted by the user terminal device, extract the unique identifier of the user terminal device (such as the MAC address), and determine the identity information of each user, where the identity information includes: job position and workstation location, etc. Use the unique identifier to establish a correspondence between the identity information and the Bluetooth signal.

[0051] Find the controlled devices within the intelligent control range. In addition to production equipment such as ventilation equipment and computers, controlled devices also include lighting, air conditioners, and projectors. Based on the properties of the controlled devices, the controlled devices are divided into personal devices used by specific personnel and public devices used by multiple people. For example, personal devices include office computers, desk lamps, and table fans, while public equipment includes air conditioners, printers, projectors, and lighting systems. The classification of controlled devices can be determined by professionals within the intelligent control range (such as human resources personnel or logistics personnel).

[0052] Furthermore, the lighting system in public facilities should include lighting systems in toilets, conference rooms or other public areas in addition to office areas.

[0053] For example, in a welding workshop, each welder is equipped with an independent welding machine fixed next to his workstation. Each workstation is also equipped with an exhaust device, an electric welding table and a welding controller. These single-use welding machines, exhaust devices, electric welding tables and welding controllers are personal equipment, while air conditioning, lighting systems and gas supply systems shared by multiple people are public equipment.

[0054] The personal device control layer 12 is used to configure the mapping between Bluetooth signals and personal devices, read the pairing list of the Bluetooth receiver, refresh it at a preset frequency, capture snapshots before and after the refresh, compare them to obtain disappeared items, record the removal time of the disappeared items, and establish a delay mechanism, wherein the delay mechanism is: when the removal time is greater than a threshold, the personal device corresponding to the disappeared item is shut down through the mapping.

[0055] Each user corresponds to a user terminal (mobile device), and each user corresponds to at least one personal device, thereby establishing a mapping between Bluetooth signals and personal devices; the Bluetooth receiver reads the current pairing list at a preset frequency and refreshes it at a preset frequency; in the actual production process, Bluetooth receivers in different areas can be refreshed at different frequencies. During off-duty hours, the refresh frequency of the Bluetooth receiver can be reduced to reduce network and computing loads and extend device life; snapshots of the pairing list before and after the refresh are taken, and the two snapshots are compared to determine the disappeared items, where the disappeared items are the Bluetooth signals that disappear from the pairing list. The snapshot is similar to a "screenshot of the current status."

[0056] The time when the disappeared item last appeared in the snapshot is read out, which is defined as the disappearance time. Combined with the current time, the removal duration of the disappeared item is calculated and the delay mechanism is activated. The delay mechanism is: when the removal duration is greater than the threshold, the personal device of the disappeared item is turned off.

[0057] For example, user A leaves the smart control range at 15:31. If the refresh frequency is 1 minute / time, the snapshots of the pairing lists corresponding to 15:30 and 15:31 are compared, and the Bluetooth signal corresponding to A is defined as a disappeared item. Assuming the threshold is 5 minutes, if the Bluetooth receiver does not re-search the disappeared item at 15:36, then the personal devices corresponding to A, such as A's welding machine and exhaust system, will be turned off.

[0058] The public device control layer 13 is used to use preset sensing equipment to collect the usage frequency of each public device and divide the control priority, where the control priority includes: high, medium and low, create a query table consisting of control priority items and Bluetooth signal items, where each public device corresponds to a query table, edit the control strategy corresponding to the control priority one by one, and judge whether the disappeared item is a termination item through the pairing list, define the control priority corresponding to the termination item as the target level, and activate the control strategy corresponding to the target level.

[0059] Using pre-deployed sensing devices within the intelligent control range, such as infrared sensors, pressure sensors, cameras, or RFID readers, usage data for each public device is collected and the usage frequency of each Bluetooth signal within a preset time period is calculated. Based on the usage frequency, Bluetooth signals are divided into several control priorities. Bluetooth signals are mainly used to represent users. For example, for a printer in a public device, user B uses it 5 times a day, user C uses it 13 times a day, and user D uses it 0 times a day. C is assigned a high control priority, while user B and user D are assigned a low control priority. Based on the correspondence between users and control priorities, a query table is constructed for the printer as shown below:

[0060] Bluetooth signal (Bluetooth signal corresponding to the user) Control priority Second Low C high Man Low

[0061] Each public device corresponds to a lookup table, and each control priority corresponds to a control strategy; if there is no Bluetooth signal with the same control priority in the pairing list except the disappeared item, the disappeared item will be defined as the termination item; further, if the control priority corresponding to the disappeared item is high, and there is no other Bluetooth signal corresponding to the high control priority in the pairing list (the disappeared item is also the termination item, and the target level is high), the control strategy corresponding to the high control priority will be triggered; similarly, if the control priority of the termination item is low (the target level is low), the control strategy corresponding to the low control priority will be activated.

[0062] In Example 2, Figure 2 The following is a structural block diagram of the energy-efficient and low-carbon operation full-process intelligent control cloud platform provided by an embodiment of the present invention. The classification layer 11 includes:

[0063] The corresponding module 111 is used to define the intelligent control range of energy operation, use the Bluetooth receiver pre-integrated in the intelligent control range to search for the user's Bluetooth signal, and establish a corresponding relationship between the user identity information and the Bluetooth signal.

[0064] Using the Bluetooth receiver deployed within the intelligent control range, the user's Bluetooth signal is searched, where each Bluetooth signal corresponds to a user; other Bluetooth devices except the user device terminal are not considered here; the Bluetooth signal can be identified by a unique identifier.

[0065] The clustering module 112 is used to find out the controlled devices within the intelligent control range and cluster them into personal devices and public devices.

[0066] Based on the attributes of the controlled devices, the controlled devices are divided into personal devices and public devices.

[0067] In Example 3, Figure 3The following is a block diagram of the structure of the energy-efficient and low-carbon operation full-process intelligent control cloud platform provided by an embodiment of the present invention. The personal device control layer 12 includes:

[0068] The comparison module 121 is used to configure the mapping between the Bluetooth signal and the personal device, read the pairing list of the Bluetooth receiver, refresh it according to the preset frequency, capture the snapshots before and after the refresh, and compare them to obtain the disappeared items.

[0069] Each Bluetooth signal corresponds to a user, and a user corresponds to several personal devices. Thus, a mapping between Bluetooth signals and personal devices is established; the pairing list of the Bluetooth receiver is read, and the missing items are identified by comparing two snapshots at adjacent moments.

[0070] The recording module 122 is used to record the removal time of the disappeared item and build a delay mechanism.

[0071] Record the time when the disappeared item last appeared in the snapshot, calculate the removal duration based on the current moment, and activate the corresponding delay mechanism.

[0072] In Example 4, Figure 4 The following is a structural block diagram of the energy-efficient and low-carbon operation full-process intelligent control cloud platform provided by an embodiment of the present invention. The public device control layer 13 includes:

[0073] The creation module 131 is used to use a preset sensor device to collect the usage frequency of each public device, divide the control priority, and create a query table consisting of control priority items and Bluetooth signal items.

[0074] Using sensing equipment, the usage data of each public device is collected, and the usage frequency of each user for different public devices is calculated; based on this usage frequency, the control priority corresponding to different users is determined, and a query table is used to store the correspondence between users and control priorities.

[0075] The hierarchical control module 132 is used to edit the control strategies corresponding to the control priorities, determine whether the disappeared item is a terminal item through the pairing list, define the control priority corresponding to the terminal item as the target level, and activate the control strategy corresponding to the target level.

[0076] Each control priority corresponds to a control strategy. If the termination item is a high control priority, the high control priority is defined as the target level, and the control strategy corresponding to the high control priority is activated. If the termination item is a low control priority, the control strategy corresponding to the low control priority is started. The termination item refers to the last user who leaves the intelligent control range in each control priority.

[0077] In Example 5, Figure 5The following is a structural block diagram of the energy-efficient and low-carbon operation full-process intelligent control cloud platform provided by an embodiment of the present invention. The corresponding module 111 includes:

[0078] The dividing unit 1111 is used to build a management platform for the controlled device and divide the intelligent control range into several sub-blocks, wherein each sub-block is deployed with at least one Bluetooth receiver.

[0079] The entire intelligent control range is divided into several sub-blocks, for example, by region or functional area, and at least one Bluetooth receiver is deployed in each sub-block to ensure signal coverage and data reception for all controlled devices in the sub-block; the management platform for controlled devices refers to a platform that uses Internet of Things technology to centrally monitor, intelligently schedule and efficiently operate and maintain various controlled devices (such as printers, projectors, air conditioners and lighting equipment).

[0080] The updating unit 1112 is used to integrate all Bluetooth receivers within the intelligent control range to generate a group, use the group to locate the real-time position of the disappeared item, and dynamically define the disappeared item.

[0081] Integrate all Bluetooth receivers to generate a group, where a group refers to a collection of Bluetooth receivers. Using triangulation, the user terminal device is located in real time based on the strength of each Bluetooth signal, the real-time location is determined, and disappearing items are defined. A disappearing item refers to a Bluetooth signal that disappears from the pairing list of the Bluetooth receiver. A disappearing item can also be understood as the Bluetooth signal corresponding to the user leaving the intelligent control area.

[0082] In Example 6, Figure 6 The following is a structural block diagram of the energy-efficient and low-carbon operation full-process intelligent control cloud platform provided by an embodiment of the present invention. The recording module 122 includes:

[0083] The statistical unit 1221 is configured to record the last appearance time of the disappeared item and calculate the removal duration when the disappeared item leaves the intelligent control range via the real-time position.

[0084] Record the time when the disappearing item last appeared in the intelligent control range, that is, the last appearance time, and calculate the removal duration based on the current time.

[0085] The establishing unit 1223 is configured to establish a correspondence between the personal device and the removal duration, and construct a comparison table based on the correspondence, wherein the comparison table consists of a removal duration item and a personal device item.

[0086] Different personal devices correspond to different removal time lengths, and the correspondence between personal devices and removal time lengths is stored in a comparison table; for example, the removal time length for an exhaust device is 1 minute, and the removal time length for a welding machine is 5 minutes. That is to say, when the user leaves the intelligent control range for 1 minute, the corresponding exhaust device will be automatically turned off, and the corresponding welding machine will be turned off after 5 minutes.

[0087] In Example 7, Figure 7 The following is a block diagram of the structure of the energy-efficient and low-carbon operation full-process intelligent control cloud platform provided by an embodiment of the present invention. The hierarchical control module 132 includes:

[0088] The sending unit 1321 is configured to integrate the last appearance time of each disappeared item, generate an attendance log, and send the attendance log to a preset terminal.

[0089] The last appearance time of the disappeared item is recorded and an attendance log is generated. The last appearance time can be understood as the user's off-duty time. The attendance log is sent to a preset terminal, which can be a device terminal of a human resources staff.

[0090] The defining unit 1322 is configured to count the number of Bluetooth signals in the control priority of each public device, and when the number is 1, define the disappeared item as a termination item.

[0091] If within the intelligent control range, there is only one user corresponding to the high control priority of a public device, and this user is a disappeared item, it will be redefined as a terminated item.

[0092] In Example 8, the present invention provides a block diagram of the composition of the energy-efficient and low-carbon operation full-process intelligent control cloud platform, and the control strategy includes:

[0093] When the target level is high, the preset delayed shutdown time is activated, an inquiry message is sent to the device terminal corresponding to the Bluetooth signal in the pairing list, a feedback message uploaded by the device terminal is received, and it is determined whether the public device continues to be turned on;

[0094] Determine whether the number of Bluetooth signals in the pairing list is 0. If so, turn off all controlled devices after the termination item leaves the intelligent control range based on the real-time location.

[0095] If the target level is high, the preset delayed shutdown time will be activated after the termination item leaves the intelligent control range. The preset delayed shutdown time is set by professionals, and an inquiry message is sent to the device terminal corresponding to other Bluetooth signals. This type of device terminal generates a feedback message based on its actual usage needs and uploads it to the management platform. The feedback content may include information such as user confirmation of use, delayed shutdown or end of use.

[0096] Continuing with the example of the printer in the above-mentioned public equipment, if C leaves the intelligent control range, assuming that the delayed shutdown time is 5 minutes, within these 5 minutes, an inquiry message is sent to B and D. The inquiry message may be: "Do you still need to use the printer?"; if the feedback message is "yes", the printer will not be turned off; if the feedback message is "no" or no feedback message is received within 5 minutes, the printer will be turned off.

[0097] If there is no Bluetooth signal in the pairing list, that is, all users have left the smart control range, all controlled devices will be turned off after the last user (terminator) leaves the smart control range.

[0098] In Example 9, Figure 7 The following is a block diagram of the structure of the energy-efficient and low-carbon operation full-process intelligent control cloud platform provided by an embodiment of the present invention. The hierarchical control module 132 includes:

[0099] The adjustment unit 1323 is used to configure an energy-low-carbon operation time, establish a target state, and adjust the controlled device to the target state when the operation time arrives.

[0100] Configure energy-efficient operating hours and determine the target state of each controlled device. For example, the printer's energy-efficient operating hours are 11:30-14:00, and the target state is off, meaning the printer is turned off during the aforementioned time period. Specifically, during lunch break, the printer should be briefly turned off to reduce energy consumption and maintain a pleasant lunch break environment.

[0101] The uploading unit 1324 is used to establish a linkage relationship between controlled devices and upload the linkage relationship to the management platform.

[0102] A linkage relationship is established between the controlled devices. The linkage relationship can be such that when the printer is turned off, the lighting in the printing area is turned off at the same time.

[0103] In Example 10, Figure 7 The following is a structural block diagram of the energy-efficient and low-carbon operation full-process intelligent control cloud platform provided by an embodiment of the present invention. The hierarchical control module 132 also includes:

[0104] The recording unit 1325 is configured to record the status of the controlled devices in the sub-block after the user leaves the sub-block, and generate a status version.

[0105] When the user leaves the sub-block, the state of the controlled device in the sub-block is recorded, and the state is recorded using a version method to obtain a state version.

[0106] The rollback unit 1326 is configured to construct a rollback mechanism based on the state version.

[0107] A rollback mechanism is constructed, where the rollback mechanism is as follows: when the user returns to the sub-block, the state version is rolled back; for example, a user leaves his welding station. At this time, the welding machine in the welding station is turned on, the exhaust equipment is turned off, and the lighting system is turned off. The above states are recorded and a state version is generated; when the user leaves the sub-block, it is automatically turned on and off. However, due to temporary task arrangements, the user returns to the welding station. At this time, according to the rollback mechanism, the welding machine is automatically restored to the state recorded in the previous state version, that is, the welding machine is automatically turned on. It should be noted that the exhaust equipment and photo system are not automatically turned on.

[0108] The technical features of the above-mentioned embodiments can be combined arbitrarily. In order to make the description concise, not all possible combinations of the technical features in the above-mentioned embodiments are described. However, as long as there is no contradiction in the combination of these technical features, they should be considered to be within the scope of this specification.

[0109] The above-described embodiments merely illustrate several implementations of the present invention, and while their descriptions are relatively specific and detailed, they should not be construed as limiting the scope of the present invention. It should be noted that a person skilled in the art would be able to make numerous variations and improvements without departing from the spirit of the present invention, all of which fall within the scope of protection of the present invention. Therefore, the scope of protection of the present invention shall be determined by the appended claims.

[0110] The above description is only a preferred embodiment of the present invention and is not intended to limit the present invention. Any modifications, equivalent substitutions and improvements made within the spirit and principles of the present invention should be included in the scope of protection of the present invention.

Claims

1. An energy-efficient and low-carbon operation full-process intelligent control cloud platform, characterized by: The cloud platform includes: a classification layer, a personal device control layer and a public device control layer; The classification layer is used to define the intelligent control range of energy operation, use the Bluetooth receiver pre-integrated in the intelligent control range to search for the user's Bluetooth signal, establish a correspondence between the user's identity information and the Bluetooth signal, find the controlled devices within the intelligent control range, and cluster them into personal devices and public devices; The classification layer includes: A corresponding module is used to define the intelligent control range of energy operation, use the Bluetooth receiver pre-integrated in the intelligent control range to search for the user's Bluetooth signal, and establish a corresponding relationship between the user's identity information and the Bluetooth signal; A clustering module, used to find the controlled devices within the intelligent control range and cluster them into personal devices and public devices; The personal device control layer is used to configure the mapping between Bluetooth signals and personal devices, read the pairing list of the Bluetooth receiver, refresh it at a preset frequency, capture snapshots before and after the refresh, compare them to obtain disappeared items, record the removal time of the disappeared items, and establish a delay mechanism. The delay mechanism is: when the removal time is greater than a threshold, the personal device corresponding to the disappeared item is shut down through the mapping; The personal device control layer includes: The comparison module is used to configure the mapping between Bluetooth signals and personal devices, read the pairing list of Bluetooth receivers, refresh it according to the preset frequency, capture snapshots before and after the refresh, and compare them to obtain disappeared items; A recording module is used to record the removal time of the disappeared items and build a delay mechanism; The public device control layer is used to use a preset sensor device to collect the usage frequency of each public device and divide the control priority, where the control priority includes: high, medium and low, create a query table consisting of control priority items and Bluetooth signal items, where each public device corresponds to a query table, edit a control strategy that corresponds to the control priority one by one, determine whether the disappeared item is a terminated item through the pairing list, define the control priority corresponding to the terminated item as a target level, and activate the control strategy corresponding to the target level; The public equipment control layer includes: Create a module for using a preset sensor device to collect the usage frequency of each public device, divide the control priority, and create a query table consisting of control priority items and Bluetooth signal items; a hierarchical control module for editing control strategies corresponding to control priorities, determining whether the disappeared item is a terminal item through the pairing list, defining the control priority corresponding to the terminal item as a target level, and activating the control strategy corresponding to the target level; The corresponding modules include: A segmentation unit, configured to construct a management platform for controlled devices and segment the intelligent control range into a plurality of sub-blocks, wherein each sub-block is deployed with at least one Bluetooth receiver; An updating unit is used to integrate all Bluetooth receivers within the intelligent control range to generate a group, use the group to locate the real-time position of the disappeared item, and dynamically define the disappeared item; The hierarchical control module includes: a sending unit, configured to integrate the last appearance time of each disappeared item, generate an attendance log, and send the attendance log to a preset terminal; a defining unit, configured to count the number of Bluetooth signals in the control priority of each public device, and define the disappeared item as a termination item when the number is 1; The control strategy includes: When the target level is high, the preset delayed shutdown time is activated, an inquiry message is sent to the device terminal corresponding to the Bluetooth signal in the pairing list, a feedback message uploaded by the device terminal is received, and it is determined whether the public device continues to be turned on; Determine whether the number of Bluetooth signals in the pairing list is 0. If so, turn off all controlled devices after the termination item leaves the intelligent control range based on the real-time location.

2. The energy efficient and low-carbon operation full-process intelligent control cloud platform according to claim 1 is characterized in that: The recording module includes: a statistical unit, configured to record the last appearance time of the disappeared item and calculate the removal time when the disappeared item leaves the intelligent control range via the real-time position; The establishing unit is configured to establish a correspondence between the personal device and the removal duration, and construct a comparison table based on the correspondence, wherein the comparison table consists of a removal duration item and a personal device item.

3. The energy efficient and low-carbon operation full-process intelligent control cloud platform according to claim 1 is characterized in that: The hierarchical control module includes: An adjustment unit, configured to configure an energy-low-carbon operation time, establish a target state, and adjust the controlled device to the target state when the operation time arrives; The uploading unit is used to establish a linkage relationship between controlled devices and upload the linkage relationship to the management platform.

4. The energy-efficient and low-carbon operation full-process intelligent control cloud platform according to claim 3 is characterized in that: The hierarchical control module further includes: a recording unit, configured to record the status of the controlled devices in the sub-block after the user leaves the sub-block, and generate a status version; The rollback unit is used to build a rollback mechanism based on the state version.

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